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Welcome to Current Psychiatry, a leading source of information, online and in print, for practitioners of psychiatry and its related subspecialties, including addiction psychiatry, child and adolescent psychiatry, and geriatric psychiatry. This Web site contains evidence-based reviews of the prevention, diagnosis, and treatment of mental illness and psychological disorders; case reports; updates on psychopharmacology; news about the specialty of psychiatry; pearls for practice; and other topics of interest and use to this audience.
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‘Disruptive’ corporations’
I read Dr. Henry Nasrallah’s plea for “disruptive” new drugs (“Innovation deficit disorder: Psychiatry needs ‘disruptive’ new drugs,” Current Psychiatry, May 2007) with incredulity. I do not know if Dr. Nasrallah has ties to the pharmaceutical industry, but I do know that only a fierce critic of pharmaceutical companies could credibly suggest that we take steps to make this enterprise more lucrative than it already is. With all due respect, his 3 ideas bore an uneasy resemblance to a corporate lobbyist’s speaking points.
His recommendation that drug companies receive a pass in terms of product liability particularly is outrageous. I shudder to contemplate the consequences of allowing pharmaceutical companies to introduce drugs to the market with no meaningful consequences should they turn out to be unsafe or inadequately investigated.
If our government was not dominated by special interests, we might be able to spend fewer public dollars on medication purchases and more money on research. A properly funded National Institute of Mental Health (NIMH) is quite capable of independently developing innovative drugs without the encumbrance of profit seekers. If we allow the private sector to guide research and development, then we should expect continued recycling of existing treatments—or slightly tweaked versions—to treat exciting newly created niches such as jumpy leg disorder, excessive daytime apathy, and involuntary emotional unavailability syndrome. There are plenty of well-heeled, neurotic people who are eager to spend their money on such maladies, especially if advertised on television.
As Dr. Nasrallah mentioned, we applaud the profitability of high-tech or apparel companies. But there is one key difference: the consumer can choose not to purchase new clothing. Any physician who cannot appreciate this dilemma should be spending more time with patients and less with pharmaceutical representatives.
Douglas F. Steenblock, MD
Staff psychiatrist Iowa Veterans Home
Marshalltown, IA
Dr. Nasrallah responds
My editorial critiqued the pharmaceutical industry and its recent lack of innovation, but I understand its need to make a profit—like any other corporation. If a pharmaceutical company is not profitable, it will not invest in research to develop new medications.
Let’s consider the following:
- The pharmaceutical industry is the only U.S. entity developing psychiatric drugs. If we suffocate this industry, our patients might not have treatment options and we could return to locking up the mentally ill as we did before the psychopharmacology era.
- I would love for the National Institutes of Health (NIH) to fund psychotropic drug development, but it will never happen. The budget of the National Institute of Mental Health (NIMH) is approximately $1.6 billion, and the entire NIH budget is approximately $30 billion. To replicate pharmaceutical companies’ CNS franchise, the NIMH budget would have to increase more than 50 fold to approximately $80 to $100 billion per year.
- I did my psychopharmacology post-residency research fellowship in neuropsychopharmacology at NIMH. If pharmaceutical companies did not exist, psychopharmacology researchers, teachers, and clinicians like myself would not be able to conduct research or teach and would not have medications to treat patients. Everybody suffers if we do not have an industry incentivized to “invent” new agents to treat serious mental illness.
- Gaps in knowledge about the biological causes of psychiatric brain disorders make designing and developing new treatments particularly difficult. This is why I suggested a private-public partnership between NIMH and the pharmaceutical industry to expedite progress in discovering drugs to help treat patients with any of the 88% of DSM-IV-TR diagnoses that do not have an FDA-approved drug.
Henry A. Nasrallah, MD
Editor-In-Chief
I read Dr. Henry Nasrallah’s plea for “disruptive” new drugs (“Innovation deficit disorder: Psychiatry needs ‘disruptive’ new drugs,” Current Psychiatry, May 2007) with incredulity. I do not know if Dr. Nasrallah has ties to the pharmaceutical industry, but I do know that only a fierce critic of pharmaceutical companies could credibly suggest that we take steps to make this enterprise more lucrative than it already is. With all due respect, his 3 ideas bore an uneasy resemblance to a corporate lobbyist’s speaking points.
His recommendation that drug companies receive a pass in terms of product liability particularly is outrageous. I shudder to contemplate the consequences of allowing pharmaceutical companies to introduce drugs to the market with no meaningful consequences should they turn out to be unsafe or inadequately investigated.
If our government was not dominated by special interests, we might be able to spend fewer public dollars on medication purchases and more money on research. A properly funded National Institute of Mental Health (NIMH) is quite capable of independently developing innovative drugs without the encumbrance of profit seekers. If we allow the private sector to guide research and development, then we should expect continued recycling of existing treatments—or slightly tweaked versions—to treat exciting newly created niches such as jumpy leg disorder, excessive daytime apathy, and involuntary emotional unavailability syndrome. There are plenty of well-heeled, neurotic people who are eager to spend their money on such maladies, especially if advertised on television.
As Dr. Nasrallah mentioned, we applaud the profitability of high-tech or apparel companies. But there is one key difference: the consumer can choose not to purchase new clothing. Any physician who cannot appreciate this dilemma should be spending more time with patients and less with pharmaceutical representatives.
Douglas F. Steenblock, MD
Staff psychiatrist Iowa Veterans Home
Marshalltown, IA
Dr. Nasrallah responds
My editorial critiqued the pharmaceutical industry and its recent lack of innovation, but I understand its need to make a profit—like any other corporation. If a pharmaceutical company is not profitable, it will not invest in research to develop new medications.
Let’s consider the following:
- The pharmaceutical industry is the only U.S. entity developing psychiatric drugs. If we suffocate this industry, our patients might not have treatment options and we could return to locking up the mentally ill as we did before the psychopharmacology era.
- I would love for the National Institutes of Health (NIH) to fund psychotropic drug development, but it will never happen. The budget of the National Institute of Mental Health (NIMH) is approximately $1.6 billion, and the entire NIH budget is approximately $30 billion. To replicate pharmaceutical companies’ CNS franchise, the NIMH budget would have to increase more than 50 fold to approximately $80 to $100 billion per year.
- I did my psychopharmacology post-residency research fellowship in neuropsychopharmacology at NIMH. If pharmaceutical companies did not exist, psychopharmacology researchers, teachers, and clinicians like myself would not be able to conduct research or teach and would not have medications to treat patients. Everybody suffers if we do not have an industry incentivized to “invent” new agents to treat serious mental illness.
- Gaps in knowledge about the biological causes of psychiatric brain disorders make designing and developing new treatments particularly difficult. This is why I suggested a private-public partnership between NIMH and the pharmaceutical industry to expedite progress in discovering drugs to help treat patients with any of the 88% of DSM-IV-TR diagnoses that do not have an FDA-approved drug.
Henry A. Nasrallah, MD
Editor-In-Chief
I read Dr. Henry Nasrallah’s plea for “disruptive” new drugs (“Innovation deficit disorder: Psychiatry needs ‘disruptive’ new drugs,” Current Psychiatry, May 2007) with incredulity. I do not know if Dr. Nasrallah has ties to the pharmaceutical industry, but I do know that only a fierce critic of pharmaceutical companies could credibly suggest that we take steps to make this enterprise more lucrative than it already is. With all due respect, his 3 ideas bore an uneasy resemblance to a corporate lobbyist’s speaking points.
His recommendation that drug companies receive a pass in terms of product liability particularly is outrageous. I shudder to contemplate the consequences of allowing pharmaceutical companies to introduce drugs to the market with no meaningful consequences should they turn out to be unsafe or inadequately investigated.
If our government was not dominated by special interests, we might be able to spend fewer public dollars on medication purchases and more money on research. A properly funded National Institute of Mental Health (NIMH) is quite capable of independently developing innovative drugs without the encumbrance of profit seekers. If we allow the private sector to guide research and development, then we should expect continued recycling of existing treatments—or slightly tweaked versions—to treat exciting newly created niches such as jumpy leg disorder, excessive daytime apathy, and involuntary emotional unavailability syndrome. There are plenty of well-heeled, neurotic people who are eager to spend their money on such maladies, especially if advertised on television.
As Dr. Nasrallah mentioned, we applaud the profitability of high-tech or apparel companies. But there is one key difference: the consumer can choose not to purchase new clothing. Any physician who cannot appreciate this dilemma should be spending more time with patients and less with pharmaceutical representatives.
Douglas F. Steenblock, MD
Staff psychiatrist Iowa Veterans Home
Marshalltown, IA
Dr. Nasrallah responds
My editorial critiqued the pharmaceutical industry and its recent lack of innovation, but I understand its need to make a profit—like any other corporation. If a pharmaceutical company is not profitable, it will not invest in research to develop new medications.
Let’s consider the following:
- The pharmaceutical industry is the only U.S. entity developing psychiatric drugs. If we suffocate this industry, our patients might not have treatment options and we could return to locking up the mentally ill as we did before the psychopharmacology era.
- I would love for the National Institutes of Health (NIH) to fund psychotropic drug development, but it will never happen. The budget of the National Institute of Mental Health (NIMH) is approximately $1.6 billion, and the entire NIH budget is approximately $30 billion. To replicate pharmaceutical companies’ CNS franchise, the NIMH budget would have to increase more than 50 fold to approximately $80 to $100 billion per year.
- I did my psychopharmacology post-residency research fellowship in neuropsychopharmacology at NIMH. If pharmaceutical companies did not exist, psychopharmacology researchers, teachers, and clinicians like myself would not be able to conduct research or teach and would not have medications to treat patients. Everybody suffers if we do not have an industry incentivized to “invent” new agents to treat serious mental illness.
- Gaps in knowledge about the biological causes of psychiatric brain disorders make designing and developing new treatments particularly difficult. This is why I suggested a private-public partnership between NIMH and the pharmaceutical industry to expedite progress in discovering drugs to help treat patients with any of the 88% of DSM-IV-TR diagnoses that do not have an FDA-approved drug.
Henry A. Nasrallah, MD
Editor-In-Chief
Overlooked mania
The article “Depression, medication and ‘bad blood’” (Current Psychiatry, May 2007) discussed a case of reduced white blood cell (WBC) count in a patient the authors ultimately diagnosed as having a mood disorder with depressive features secondary to a general medical condition. However, I believe the authors missed the extent of the patient’s manic features.
The first clue was that the patient had “become increasingly irritable and volatile, often arguing with a staff nurse and other patients.” This behavior possibly was iatrogenic and caused by venlafaxine treatment. The authors added lithium at a low dose of 300 mg bid (no lithium blood levels given). This measure was done to increase WBC count, but it fortuitously may have helped reduce manic symptoms. At follow-up, “after 3 months of continuous hospitalization,” the patient was still described as “at times oversensitive and combative.”
Missing manic symptoms because of nonclassical ways they can present is a major clinical concern. For example, a patient may feel irritable, hostile, or labile instead of expansive or euphoric. I wonder if this patient’s manic symptoms could have been better controlled with titrating the lithium dose and following up by monitoring blood levels.
Robert Barris, MD
East Meadow, NY
The article “Depression, medication and ‘bad blood’” (Current Psychiatry, May 2007) discussed a case of reduced white blood cell (WBC) count in a patient the authors ultimately diagnosed as having a mood disorder with depressive features secondary to a general medical condition. However, I believe the authors missed the extent of the patient’s manic features.
The first clue was that the patient had “become increasingly irritable and volatile, often arguing with a staff nurse and other patients.” This behavior possibly was iatrogenic and caused by venlafaxine treatment. The authors added lithium at a low dose of 300 mg bid (no lithium blood levels given). This measure was done to increase WBC count, but it fortuitously may have helped reduce manic symptoms. At follow-up, “after 3 months of continuous hospitalization,” the patient was still described as “at times oversensitive and combative.”
Missing manic symptoms because of nonclassical ways they can present is a major clinical concern. For example, a patient may feel irritable, hostile, or labile instead of expansive or euphoric. I wonder if this patient’s manic symptoms could have been better controlled with titrating the lithium dose and following up by monitoring blood levels.
Robert Barris, MD
East Meadow, NY
The article “Depression, medication and ‘bad blood’” (Current Psychiatry, May 2007) discussed a case of reduced white blood cell (WBC) count in a patient the authors ultimately diagnosed as having a mood disorder with depressive features secondary to a general medical condition. However, I believe the authors missed the extent of the patient’s manic features.
The first clue was that the patient had “become increasingly irritable and volatile, often arguing with a staff nurse and other patients.” This behavior possibly was iatrogenic and caused by venlafaxine treatment. The authors added lithium at a low dose of 300 mg bid (no lithium blood levels given). This measure was done to increase WBC count, but it fortuitously may have helped reduce manic symptoms. At follow-up, “after 3 months of continuous hospitalization,” the patient was still described as “at times oversensitive and combative.”
Missing manic symptoms because of nonclassical ways they can present is a major clinical concern. For example, a patient may feel irritable, hostile, or labile instead of expansive or euphoric. I wonder if this patient’s manic symptoms could have been better controlled with titrating the lithium dose and following up by monitoring blood levels.
Robert Barris, MD
East Meadow, NY
Trends in psychiatry: Will we become ‘diseasologists’?
What is the future of psychiatric practice? The emerging trend in medicine is toward more and more specialization, but will psychiatry follow suit?
Explosive growth in scientific knowledge and increasingly technical aspects of treatment are making it harder than ever for specialists— let alone generalists—to remain current. Gone are the days of Marcus Welby, MD, television’s 1970s paragon of the “do-it-all” generalist.
Physicians now differentiate into specialists immediately after medical school and train for up to 7 additional years in fields such as psychiatry, surgery, internal medicine, radiology, pediatrics, or dermatology. Even family medicine—an advanced form of “general practice”—requires 3 additional years of post-MD residency. The Accreditation Council for Graduate Medical Education (ACGME) recognizes and regulates residency training in 26 medical specialties.
But the trend does not stop there. Specialists have differentiated further into subspecialists who focus on narrower areas that require additional qualifications. Internal medicine has 18 subspecialties that offer board certification (such as interventional cardiology, gastroenterology, infectious disease, and rheumatology). Psychiatry has 5 (child and adolescent psychiatry, geriatric psychiatry, forensic psychiatry, addiction psychiatry, and psychosomatic medicine).
The ACGME now accredits nearly 100 subspecialties! A unique feature of subspecialty training is that important research takes place in those programs, advancing knowledge at the molecular, translational, and clinical levels.
An emerging practice model. The trend towards subspecialization is likely to continue and could culminate in a “diseasologist” model of medicine. Already, a number of psychiatry “diseasologists” are focusing on only 1 disorder, such as anxiety, bipolar disorder, eating disorders, psychosis, or borderline personality disorders. Similarly:
- In our sister specialty, neurology, some clinicians are focusing on stroke, multiple sclerosis, dementia, movement disorders, or epilepsy.
- Ophthalmology—a superspecialty in its own right—has fractionated into “diseasologists” who restrict their practices to cataracts, vitreo-retinal diseases, corneal disorders, or onco-ophthalmology.
Is the day approaching when there will be 2,000 types of diseasology, one for each recognized medical illness?
In psychiatry, the diseasologist paradigm of clinical practice may be more difficult to implement than in other specialties. Clinical features overlap across many psychiatric disorders, and comorbidity is the rule. We need to maintain “big picture” competence in diagnosis and treatment, being mindful of the “forest” while addressing one or more “trees” with intertwining branches and/or roots.
Psychiatrists may decide to focus on a single major disorder, but we always will need broad-based knowledge of mental disorders. Perhaps we practice “mental primary care,” in which the diseasology model will not be as feasible as in other medical specialties.
What is the future of psychiatric practice? The emerging trend in medicine is toward more and more specialization, but will psychiatry follow suit?
Explosive growth in scientific knowledge and increasingly technical aspects of treatment are making it harder than ever for specialists— let alone generalists—to remain current. Gone are the days of Marcus Welby, MD, television’s 1970s paragon of the “do-it-all” generalist.
Physicians now differentiate into specialists immediately after medical school and train for up to 7 additional years in fields such as psychiatry, surgery, internal medicine, radiology, pediatrics, or dermatology. Even family medicine—an advanced form of “general practice”—requires 3 additional years of post-MD residency. The Accreditation Council for Graduate Medical Education (ACGME) recognizes and regulates residency training in 26 medical specialties.
But the trend does not stop there. Specialists have differentiated further into subspecialists who focus on narrower areas that require additional qualifications. Internal medicine has 18 subspecialties that offer board certification (such as interventional cardiology, gastroenterology, infectious disease, and rheumatology). Psychiatry has 5 (child and adolescent psychiatry, geriatric psychiatry, forensic psychiatry, addiction psychiatry, and psychosomatic medicine).
The ACGME now accredits nearly 100 subspecialties! A unique feature of subspecialty training is that important research takes place in those programs, advancing knowledge at the molecular, translational, and clinical levels.
An emerging practice model. The trend towards subspecialization is likely to continue and could culminate in a “diseasologist” model of medicine. Already, a number of psychiatry “diseasologists” are focusing on only 1 disorder, such as anxiety, bipolar disorder, eating disorders, psychosis, or borderline personality disorders. Similarly:
- In our sister specialty, neurology, some clinicians are focusing on stroke, multiple sclerosis, dementia, movement disorders, or epilepsy.
- Ophthalmology—a superspecialty in its own right—has fractionated into “diseasologists” who restrict their practices to cataracts, vitreo-retinal diseases, corneal disorders, or onco-ophthalmology.
Is the day approaching when there will be 2,000 types of diseasology, one for each recognized medical illness?
In psychiatry, the diseasologist paradigm of clinical practice may be more difficult to implement than in other specialties. Clinical features overlap across many psychiatric disorders, and comorbidity is the rule. We need to maintain “big picture” competence in diagnosis and treatment, being mindful of the “forest” while addressing one or more “trees” with intertwining branches and/or roots.
Psychiatrists may decide to focus on a single major disorder, but we always will need broad-based knowledge of mental disorders. Perhaps we practice “mental primary care,” in which the diseasology model will not be as feasible as in other medical specialties.
What is the future of psychiatric practice? The emerging trend in medicine is toward more and more specialization, but will psychiatry follow suit?
Explosive growth in scientific knowledge and increasingly technical aspects of treatment are making it harder than ever for specialists— let alone generalists—to remain current. Gone are the days of Marcus Welby, MD, television’s 1970s paragon of the “do-it-all” generalist.
Physicians now differentiate into specialists immediately after medical school and train for up to 7 additional years in fields such as psychiatry, surgery, internal medicine, radiology, pediatrics, or dermatology. Even family medicine—an advanced form of “general practice”—requires 3 additional years of post-MD residency. The Accreditation Council for Graduate Medical Education (ACGME) recognizes and regulates residency training in 26 medical specialties.
But the trend does not stop there. Specialists have differentiated further into subspecialists who focus on narrower areas that require additional qualifications. Internal medicine has 18 subspecialties that offer board certification (such as interventional cardiology, gastroenterology, infectious disease, and rheumatology). Psychiatry has 5 (child and adolescent psychiatry, geriatric psychiatry, forensic psychiatry, addiction psychiatry, and psychosomatic medicine).
The ACGME now accredits nearly 100 subspecialties! A unique feature of subspecialty training is that important research takes place in those programs, advancing knowledge at the molecular, translational, and clinical levels.
An emerging practice model. The trend towards subspecialization is likely to continue and could culminate in a “diseasologist” model of medicine. Already, a number of psychiatry “diseasologists” are focusing on only 1 disorder, such as anxiety, bipolar disorder, eating disorders, psychosis, or borderline personality disorders. Similarly:
- In our sister specialty, neurology, some clinicians are focusing on stroke, multiple sclerosis, dementia, movement disorders, or epilepsy.
- Ophthalmology—a superspecialty in its own right—has fractionated into “diseasologists” who restrict their practices to cataracts, vitreo-retinal diseases, corneal disorders, or onco-ophthalmology.
Is the day approaching when there will be 2,000 types of diseasology, one for each recognized medical illness?
In psychiatry, the diseasologist paradigm of clinical practice may be more difficult to implement than in other specialties. Clinical features overlap across many psychiatric disorders, and comorbidity is the rule. We need to maintain “big picture” competence in diagnosis and treatment, being mindful of the “forest” while addressing one or more “trees” with intertwining branches and/or roots.
Psychiatrists may decide to focus on a single major disorder, but we always will need broad-based knowledge of mental disorders. Perhaps we practice “mental primary care,” in which the diseasology model will not be as feasible as in other medical specialties.
Conquering his fears, one step at a time
CASE: The big freeze
Mr. Q, age 34, is afraid to cross the street. As he steps off the curb, his legs “cramp up.” As the cramping intensifies and his feet stiffen, his heart races, he begins to sweat, and he turns back for fear his legs will buckle in the street. While on the sidewalk, he stays within reach of a building or car in case he falls.
Six months before presentation, Mr. Q walked to church during a blizzard, only to find the church closed because of the storm. He returned home and shoveled snow for 1 hour, during which he repeatedly leaned forward and backward to dump the snow.
The following Sunday, Mr. Q’s legs started to “hurt” as he crossed the street. Thinking he had severely injured himself while shoveling, he began to fear street crossings. At work, he asked coworkers to help him cross over to the subway. By spring, he had become so humiliated by his dependence that he stopped working. His phobia intensified until he presented to us at his family’s urging.
During evaluation, Mr. Q says he can cross only side streets and holds on to his father while crossing. His father, who is retired, spends much of his day helping his son get around.
Complete physical exam by Mr. Q’s primary care physician reveals a possible pulled muscle in his right leg but no other medical problems. Neurologic exam results are normal, ruling out nerve damage.
Later in the evaluation, Mr. Q mentions that at age 10 he was struck by a car. The impact fractured the left side of his skull and left leg, and he temporarily lost consciousness.
Shortly after the accident, Mr. Q developed mild memory and concentration impairments and a moderate stutter. He also experienced nightmares, but they disappeared within days. He says he never received speech therapy or other psychiatric treatment because his family did not have medical insurance.
Mr. Q did not lose function after the accident, but in college his stuttering led to difficulty speaking in class and interacting socially. He suffered panic attacks while on the telephone or during job interviews. He now mostly stays home, where he lives with his parents and a nephew. He interacts only with family members.
During the evaluation, Mr. Q effortlessly walks around the therapist’s office and reports no trouble walking at home. He says the cramps almost never surface at home because he feels “calm” with walls close by. When trying to cross the street, he manages to turn back without falling despite the cramps.
Upon considering this conflict, Mr. Q seems to realize that his fear of street crossings protects him from social situations. His stuttering, however, confounds the evaluation because he has trouble communicating his symptoms.
Mr. Q’s affect is constricted as he describes his anxiety and fear. He says he feels limited and at times depressed by his inability to cross streets, yet shows little dysphoric affect or mourning and seems unusually calm when discussing the problem. He appears relaxed knowing that he can keep avoiding social situations.
The authors’ observations
Mr. Q’s history of fearing interviews and telephone conversations suggests social anxiety, and his fear and avoidance of street crossings suggest a specific phobia. Panic disorder with agoraphobia is not present because the patient never experienced spontaneous panic attacks.
Anxiety is more prevalent among persons who stutter than in fl uent speakers.1,2
Persons who stutter:
- more commonly report speech anxiety3
- are significantly more uneasy in social situations and tend to avoid them4,5
- might not be motivated to eliminate barriers that thwart social interaction.
Worse, his stuttering makes it difficult to ascertain his symptoms or plan treatment because it takes him so long to finish a sentence.
EVALUATION: Flashing back
Later in the evaluation, Mr. Q says that whenever he considers or tries crossing a street, he recalls his childhood vehicular injury and fears he will be struck again. He has nightmares of being run over, and these nightmares and flashbacks have been occurring twice weekly since the snowstorm.
During the mental status examination, Mr. Q is well related with fair to poor eye contact, probably because of his stutter; he looks away from the speaker when his stuttering intensifies. His nightmares and flashbacks suggest comorbid posttraumatic stress disorder (PTSD), although he has no persistent symptoms of increased arousal. He also shows no evidence of acute mood disorder, psychosis, or cognitive disturbance.
The authors’ observations
PTSD symptoms can develop months to years after a precipitating incident,6,7 and repeated trauma can make patients more susceptible.
Interestingly, Mr. Q briefly suffered PTSD symptoms after the childhood accident but had no full-blown symptoms until adulthood. In addition to triggering avoidance behaviors, the muscle pull apparently reignited long-dormant PTSD symptoms (fl ashbacks, nightmares).
Mr. Q suffered no other PTSD symptoms. His stuttering might have signaled a psychogenic anxiety disorder, rather than being an incidental finding that developed after acute brain trauma at age 10.
Stuttering also might have contained Mr. Q’s PTSD symptoms for 24 years, until his snow-shoveling injury shattered that containment. Further, while shoveling in the street amid slippery conditions, he might have subconsciously feared he would have trouble eluding an oncoming vehicle.
The authors’ observations
We must address Mr. Q’s stuttering, phobia, and PTSD simultaneously to restore function. If we were to target his street-crossing phobia alone, we would face considerable resistance while exposing the underlying social phobia.
Supportive psychotherapy and exposure therapy—which would involve taking Mr. Q to an intersection and guiding him across—could help him overcome his fear of being run over. Cognitive-behavioral therapy (CBT) alone or with medications also could help.8,9
Mr. Q’s anxiety, however, is severe enough to keep him from trying exposure therapy. Because staying home is his shield from social contact, he is not motivated to leave his apartment. Although he presented voluntarily, like many patients he is ambivalent toward exposure therapy.
Also, Mr. Q’s stutter makes it difficult to engage him in conversation. His stuttering is so severe that we have trouble doing an adequate CBT case formulation. At times his speech is almost incomprehensible.
Improving Mr. Q’s speech is crucial to completing an assessment, decreasing his social anxiety, and motivating him to conquer his fear of crossing streets. By addressing his stuttering and phobia simultaneously, we can treat his anxiety on 2 fronts:
- the stuttering that stemmed from his car accident at age 10
- the street-crossing phobia that developed after he pulled a leg muscle as an adult.
Week 1—After much coaxing and encouragement, Mr. Q works through a leg cramp and takes 1 step off the curb, first with the therapist and then alone.
Week 2—Mr. Q takes 2 steps into the street—first with the therapist and then alone—after repeated coaxing and despite leg cramping.
Month 1—Patient proceeds 4 steps into the street unaccompanied. When his legs cramp, he intensifies the cramp and releases, then says ‘I can do this.’
Month 2—Patient walks 6 steps into the street, first with the therapist, then alone.
Month 3—Mr. Q walks 8 steps into the street, first with the therapist, then alone.
Month 4—Patient begins crossing 1-way streets alone. After the therapist guides him to the center of a 2-way street, he walks the rest of the way by himself.
Month 5—Patient crosses a 2-way street unassisted.
Month 6—Mr. Q crosses busy intersections near his church, where the cramping began.
TREATMENT: 5-step approach
Negative medical results convince Mr. Q that anxiety is holding him back. This allows us to target his anxiety with CBT, in vivo exposure, deep breathing/relaxation, speech therapy, and pharmacotherapy, all of which we start immediately.
As part of Mr. Q’s psychoeducation, we reiterate his negative physical examination results and point out that his childhood vehicular injuries might be perpetuating his fears. We work on getting him to recognize that leg tightness does not predict falling and getting hit by a car.
- Medications, which help him ‘feel calm’
- Relaxation breathing
- Saying ‘I can do it. I feel calm’ when legs cramp up in the street
- Soaking legs in warm water for 10 minutes twice daily
- Progressive muscle relaxation
- Cognitive intervention: internalizing that anxiety—not a medical problem —is holding him back
- Self empowerment exercise: further cramping his legs, then releasing them when they cramp up
When his legs cramp up while trying to cross, we have him say out loud, “I can do it. I feel calm;” this helps him proceed across the street. We also teach self-empowerment by having him purposely cramp up his legs, then release them to stop the cramping.
Deep breathing/relaxation. We teach Mr. Q progressive muscle relaxation and slow rhythmic breathing exercises, which he does before crossing streets to reduce his anxiety. For homework, he practices these exercises and soaks his legs in warm water for 10 minutes twice daily to relax his muscles and prevent cramping.
Speech therapy. The primary therapist devotes 20 minutes of each session to speech therapy. She employs relaxation training and therapy techniques such as Easy Onset,10 in which the patient stretches each sound, syllable, or word for up to 2 seconds, allowing him to speak at a smooth, slow rate. Mr. Q also practices these speech exercises at home.
After 6 weeks, Mr. Q’s stutter improves slightly but he still has trouble communicating. We refer him to a consulting speech therapist, who sees him twice weekly and leads Easy Onset and relaxation exercises. This gives us more time for supportive psychotherapy.
As his speech becomes more fluent, Mr. Q’s social anxiety and fear of street crossings decreases.
Pharmacotherapy. We instruct Mr. Q to take paroxetine, 20 mg/d, and clonazepam, 0.25 mg bid, 30 minutes before in vivo work to manage his anxiety. We titrate clonazepam to 0.5 mg bid over 1 month. He responds well to this regimen but fears he will become dependent on it.
During therapy, Mr. Q and the therapist rank the above interventions from most to least therapeutic (Box 2) so that we can effectively treat him should he relapse.
The authors’ observations
Although Mr. Q’s case is unusual, we feel our diagnostic and treatment methods can be applied to similar cases. His stutter, however, prevented us from conducting a structured diagnostic interview—which would have uncovered his symptoms more quickly—or performing standard manualized therapy.
Some data11 suggest that combination psychotropics and relaxation therapy can compromise long-term exposure therapy outcomes, as the patient’s fear could return once medication is stopped. Mr. Q’s anxiety was crippling, however, and had to be addressed before we could consider exposure therapy.
More research is needed on overcoming patient communication barriers that can hamper treatment. Rapport with patients often makes or breaks psychiatric treatment, and communication problems can prevent that connection. As clinicians, we must watch for linguistic, cognitive, and cultural impediments to treatment.
FOLLOW-UP: ‘I can cross’
Six months after presentation, Mr. Q crosses all types of streets—from 1-way streets to 6-lane intersections—with minimal anxiety. He has resumed his previous level of functioning and is searching for work. His stutter, though greatly improved, is still audible.
We see Mr. Q monthly. We stop paroxetine after 8 months but continue clonazepam to address his many underlying social anxieties. By November—approximately 1½ years after presentation—we have reduced clonazepam to 0.5 mg each morning. We try reducing the morning dose to 0.25 mg, but Mr. Q’s debilitating anxiety resurfaces.
In December, we increase clonazepam to 0.5 mg bid, then reduce it to 0.5 mg each morning 2 months later. In April, we cut clonazepam to 0.25 mg each morning. So far, Mr. Q is functioning well.
The authors’ observations
Patients who begin antistuttering intervention as adults have a poorer speech improvement prognosis than those who start speech therapy in childhood.12 In leaving his stuttering untreated for 24 years, Mr. Q likely sacrificed quality of life. Speech intervention at an earlier age might have improved his speech and prognosis early on.
Related resources
- Anxiety Disorders Association of America. www.adaa.org.
- Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
- Leahy RL, Holland SJ. Treatment plans and interventions for depression and anxiety disorders. New York: Guilford Press; 2000.
- Clonazepam • Klonopin
- Paroxetine • Paxil
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgment
The authors thank Michael Garret, MD, for his assistance in preparing this article.
1. Ezrati-Vinacour R, Levin I. The relationship between anxiety and stuttering: a multidimensional approach. J Fluency Disord 2004;29:135-48.
2. Craig A, Hancock K, Tran Y, Craig M. Anxiety levels in people who stutter: a randomized population study. J Speech Lang Hearing Res 2003;46:1197-206.
3. Cabel RM, Colcord RD, Petrosino L. Self-reported anxiety of adults who do and do not stutter. Perceptual Motor Skills 2002;94:775-84.
4. Kraaimaat FW, Vanryckeghem M, Van Dam-Baggen R. Stuttering and social anxiety. J Fluency Disord 2002;27:319-31.
5. Stein MB, Baird A, Walker JR. Social phobia in adults with stuttering. Am J Psychiatry 1996;153:278-80.
6. Carty J, O’Donnell ML, Creamer M. Delayed-onset PTSD: a prospective study of injury survivors. J Affect Disord 2006;90:257-61.
7. Schnurr PP, Lunney CA, Sengupta A, Waelde LC. A descriptive analysis of PTSD chronicity in Vietnam veterans. J Trauma Stress 2003;6:545-53.
8. Beck AT. Cognitive therapy and the emotional disorders. New York: International University Press; 1976.
9. Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
10. Hood SB ed. Stuttering words, 3rd ed.. Memphis, TN: Stuttering Foundation of America; 1999.
11. Otto MW, Smits JA, Reese HE. Cognitive-behavioral therapy for the treatment of anxiety disorders. J Clin Psychiatry 2004;65(suppl 5):34-41.
12. Curlee RF, Nielson M, Andrews G. Stuttering and related disorders of fluency. New York: Thieme Medical Publishers; 1993.
Dr. Stein is a fourth-year psychiatric resident, Dr. Friedman is professor of clinical psychiatry, and Dr. Elmouchtari is assistant professor of psychiatry, department of psychiatry, State University of New York Downstate Medical Center, Brooklyn.
CASE: The big freeze
Mr. Q, age 34, is afraid to cross the street. As he steps off the curb, his legs “cramp up.” As the cramping intensifies and his feet stiffen, his heart races, he begins to sweat, and he turns back for fear his legs will buckle in the street. While on the sidewalk, he stays within reach of a building or car in case he falls.
Six months before presentation, Mr. Q walked to church during a blizzard, only to find the church closed because of the storm. He returned home and shoveled snow for 1 hour, during which he repeatedly leaned forward and backward to dump the snow.
The following Sunday, Mr. Q’s legs started to “hurt” as he crossed the street. Thinking he had severely injured himself while shoveling, he began to fear street crossings. At work, he asked coworkers to help him cross over to the subway. By spring, he had become so humiliated by his dependence that he stopped working. His phobia intensified until he presented to us at his family’s urging.
During evaluation, Mr. Q says he can cross only side streets and holds on to his father while crossing. His father, who is retired, spends much of his day helping his son get around.
Complete physical exam by Mr. Q’s primary care physician reveals a possible pulled muscle in his right leg but no other medical problems. Neurologic exam results are normal, ruling out nerve damage.
Later in the evaluation, Mr. Q mentions that at age 10 he was struck by a car. The impact fractured the left side of his skull and left leg, and he temporarily lost consciousness.
Shortly after the accident, Mr. Q developed mild memory and concentration impairments and a moderate stutter. He also experienced nightmares, but they disappeared within days. He says he never received speech therapy or other psychiatric treatment because his family did not have medical insurance.
Mr. Q did not lose function after the accident, but in college his stuttering led to difficulty speaking in class and interacting socially. He suffered panic attacks while on the telephone or during job interviews. He now mostly stays home, where he lives with his parents and a nephew. He interacts only with family members.
During the evaluation, Mr. Q effortlessly walks around the therapist’s office and reports no trouble walking at home. He says the cramps almost never surface at home because he feels “calm” with walls close by. When trying to cross the street, he manages to turn back without falling despite the cramps.
Upon considering this conflict, Mr. Q seems to realize that his fear of street crossings protects him from social situations. His stuttering, however, confounds the evaluation because he has trouble communicating his symptoms.
Mr. Q’s affect is constricted as he describes his anxiety and fear. He says he feels limited and at times depressed by his inability to cross streets, yet shows little dysphoric affect or mourning and seems unusually calm when discussing the problem. He appears relaxed knowing that he can keep avoiding social situations.
The authors’ observations
Mr. Q’s history of fearing interviews and telephone conversations suggests social anxiety, and his fear and avoidance of street crossings suggest a specific phobia. Panic disorder with agoraphobia is not present because the patient never experienced spontaneous panic attacks.
Anxiety is more prevalent among persons who stutter than in fl uent speakers.1,2
Persons who stutter:
- more commonly report speech anxiety3
- are significantly more uneasy in social situations and tend to avoid them4,5
- might not be motivated to eliminate barriers that thwart social interaction.
Worse, his stuttering makes it difficult to ascertain his symptoms or plan treatment because it takes him so long to finish a sentence.
EVALUATION: Flashing back
Later in the evaluation, Mr. Q says that whenever he considers or tries crossing a street, he recalls his childhood vehicular injury and fears he will be struck again. He has nightmares of being run over, and these nightmares and flashbacks have been occurring twice weekly since the snowstorm.
During the mental status examination, Mr. Q is well related with fair to poor eye contact, probably because of his stutter; he looks away from the speaker when his stuttering intensifies. His nightmares and flashbacks suggest comorbid posttraumatic stress disorder (PTSD), although he has no persistent symptoms of increased arousal. He also shows no evidence of acute mood disorder, psychosis, or cognitive disturbance.
The authors’ observations
PTSD symptoms can develop months to years after a precipitating incident,6,7 and repeated trauma can make patients more susceptible.
Interestingly, Mr. Q briefly suffered PTSD symptoms after the childhood accident but had no full-blown symptoms until adulthood. In addition to triggering avoidance behaviors, the muscle pull apparently reignited long-dormant PTSD symptoms (fl ashbacks, nightmares).
Mr. Q suffered no other PTSD symptoms. His stuttering might have signaled a psychogenic anxiety disorder, rather than being an incidental finding that developed after acute brain trauma at age 10.
Stuttering also might have contained Mr. Q’s PTSD symptoms for 24 years, until his snow-shoveling injury shattered that containment. Further, while shoveling in the street amid slippery conditions, he might have subconsciously feared he would have trouble eluding an oncoming vehicle.
The authors’ observations
We must address Mr. Q’s stuttering, phobia, and PTSD simultaneously to restore function. If we were to target his street-crossing phobia alone, we would face considerable resistance while exposing the underlying social phobia.
Supportive psychotherapy and exposure therapy—which would involve taking Mr. Q to an intersection and guiding him across—could help him overcome his fear of being run over. Cognitive-behavioral therapy (CBT) alone or with medications also could help.8,9
Mr. Q’s anxiety, however, is severe enough to keep him from trying exposure therapy. Because staying home is his shield from social contact, he is not motivated to leave his apartment. Although he presented voluntarily, like many patients he is ambivalent toward exposure therapy.
Also, Mr. Q’s stutter makes it difficult to engage him in conversation. His stuttering is so severe that we have trouble doing an adequate CBT case formulation. At times his speech is almost incomprehensible.
Improving Mr. Q’s speech is crucial to completing an assessment, decreasing his social anxiety, and motivating him to conquer his fear of crossing streets. By addressing his stuttering and phobia simultaneously, we can treat his anxiety on 2 fronts:
- the stuttering that stemmed from his car accident at age 10
- the street-crossing phobia that developed after he pulled a leg muscle as an adult.
Week 1—After much coaxing and encouragement, Mr. Q works through a leg cramp and takes 1 step off the curb, first with the therapist and then alone.
Week 2—Mr. Q takes 2 steps into the street—first with the therapist and then alone—after repeated coaxing and despite leg cramping.
Month 1—Patient proceeds 4 steps into the street unaccompanied. When his legs cramp, he intensifies the cramp and releases, then says ‘I can do this.’
Month 2—Patient walks 6 steps into the street, first with the therapist, then alone.
Month 3—Mr. Q walks 8 steps into the street, first with the therapist, then alone.
Month 4—Patient begins crossing 1-way streets alone. After the therapist guides him to the center of a 2-way street, he walks the rest of the way by himself.
Month 5—Patient crosses a 2-way street unassisted.
Month 6—Mr. Q crosses busy intersections near his church, where the cramping began.
TREATMENT: 5-step approach
Negative medical results convince Mr. Q that anxiety is holding him back. This allows us to target his anxiety with CBT, in vivo exposure, deep breathing/relaxation, speech therapy, and pharmacotherapy, all of which we start immediately.
As part of Mr. Q’s psychoeducation, we reiterate his negative physical examination results and point out that his childhood vehicular injuries might be perpetuating his fears. We work on getting him to recognize that leg tightness does not predict falling and getting hit by a car.
- Medications, which help him ‘feel calm’
- Relaxation breathing
- Saying ‘I can do it. I feel calm’ when legs cramp up in the street
- Soaking legs in warm water for 10 minutes twice daily
- Progressive muscle relaxation
- Cognitive intervention: internalizing that anxiety—not a medical problem —is holding him back
- Self empowerment exercise: further cramping his legs, then releasing them when they cramp up
When his legs cramp up while trying to cross, we have him say out loud, “I can do it. I feel calm;” this helps him proceed across the street. We also teach self-empowerment by having him purposely cramp up his legs, then release them to stop the cramping.
Deep breathing/relaxation. We teach Mr. Q progressive muscle relaxation and slow rhythmic breathing exercises, which he does before crossing streets to reduce his anxiety. For homework, he practices these exercises and soaks his legs in warm water for 10 minutes twice daily to relax his muscles and prevent cramping.
Speech therapy. The primary therapist devotes 20 minutes of each session to speech therapy. She employs relaxation training and therapy techniques such as Easy Onset,10 in which the patient stretches each sound, syllable, or word for up to 2 seconds, allowing him to speak at a smooth, slow rate. Mr. Q also practices these speech exercises at home.
After 6 weeks, Mr. Q’s stutter improves slightly but he still has trouble communicating. We refer him to a consulting speech therapist, who sees him twice weekly and leads Easy Onset and relaxation exercises. This gives us more time for supportive psychotherapy.
As his speech becomes more fluent, Mr. Q’s social anxiety and fear of street crossings decreases.
Pharmacotherapy. We instruct Mr. Q to take paroxetine, 20 mg/d, and clonazepam, 0.25 mg bid, 30 minutes before in vivo work to manage his anxiety. We titrate clonazepam to 0.5 mg bid over 1 month. He responds well to this regimen but fears he will become dependent on it.
During therapy, Mr. Q and the therapist rank the above interventions from most to least therapeutic (Box 2) so that we can effectively treat him should he relapse.
The authors’ observations
Although Mr. Q’s case is unusual, we feel our diagnostic and treatment methods can be applied to similar cases. His stutter, however, prevented us from conducting a structured diagnostic interview—which would have uncovered his symptoms more quickly—or performing standard manualized therapy.
Some data11 suggest that combination psychotropics and relaxation therapy can compromise long-term exposure therapy outcomes, as the patient’s fear could return once medication is stopped. Mr. Q’s anxiety was crippling, however, and had to be addressed before we could consider exposure therapy.
More research is needed on overcoming patient communication barriers that can hamper treatment. Rapport with patients often makes or breaks psychiatric treatment, and communication problems can prevent that connection. As clinicians, we must watch for linguistic, cognitive, and cultural impediments to treatment.
FOLLOW-UP: ‘I can cross’
Six months after presentation, Mr. Q crosses all types of streets—from 1-way streets to 6-lane intersections—with minimal anxiety. He has resumed his previous level of functioning and is searching for work. His stutter, though greatly improved, is still audible.
We see Mr. Q monthly. We stop paroxetine after 8 months but continue clonazepam to address his many underlying social anxieties. By November—approximately 1½ years after presentation—we have reduced clonazepam to 0.5 mg each morning. We try reducing the morning dose to 0.25 mg, but Mr. Q’s debilitating anxiety resurfaces.
In December, we increase clonazepam to 0.5 mg bid, then reduce it to 0.5 mg each morning 2 months later. In April, we cut clonazepam to 0.25 mg each morning. So far, Mr. Q is functioning well.
The authors’ observations
Patients who begin antistuttering intervention as adults have a poorer speech improvement prognosis than those who start speech therapy in childhood.12 In leaving his stuttering untreated for 24 years, Mr. Q likely sacrificed quality of life. Speech intervention at an earlier age might have improved his speech and prognosis early on.
Related resources
- Anxiety Disorders Association of America. www.adaa.org.
- Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
- Leahy RL, Holland SJ. Treatment plans and interventions for depression and anxiety disorders. New York: Guilford Press; 2000.
- Clonazepam • Klonopin
- Paroxetine • Paxil
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgment
The authors thank Michael Garret, MD, for his assistance in preparing this article.
CASE: The big freeze
Mr. Q, age 34, is afraid to cross the street. As he steps off the curb, his legs “cramp up.” As the cramping intensifies and his feet stiffen, his heart races, he begins to sweat, and he turns back for fear his legs will buckle in the street. While on the sidewalk, he stays within reach of a building or car in case he falls.
Six months before presentation, Mr. Q walked to church during a blizzard, only to find the church closed because of the storm. He returned home and shoveled snow for 1 hour, during which he repeatedly leaned forward and backward to dump the snow.
The following Sunday, Mr. Q’s legs started to “hurt” as he crossed the street. Thinking he had severely injured himself while shoveling, he began to fear street crossings. At work, he asked coworkers to help him cross over to the subway. By spring, he had become so humiliated by his dependence that he stopped working. His phobia intensified until he presented to us at his family’s urging.
During evaluation, Mr. Q says he can cross only side streets and holds on to his father while crossing. His father, who is retired, spends much of his day helping his son get around.
Complete physical exam by Mr. Q’s primary care physician reveals a possible pulled muscle in his right leg but no other medical problems. Neurologic exam results are normal, ruling out nerve damage.
Later in the evaluation, Mr. Q mentions that at age 10 he was struck by a car. The impact fractured the left side of his skull and left leg, and he temporarily lost consciousness.
Shortly after the accident, Mr. Q developed mild memory and concentration impairments and a moderate stutter. He also experienced nightmares, but they disappeared within days. He says he never received speech therapy or other psychiatric treatment because his family did not have medical insurance.
Mr. Q did not lose function after the accident, but in college his stuttering led to difficulty speaking in class and interacting socially. He suffered panic attacks while on the telephone or during job interviews. He now mostly stays home, where he lives with his parents and a nephew. He interacts only with family members.
During the evaluation, Mr. Q effortlessly walks around the therapist’s office and reports no trouble walking at home. He says the cramps almost never surface at home because he feels “calm” with walls close by. When trying to cross the street, he manages to turn back without falling despite the cramps.
Upon considering this conflict, Mr. Q seems to realize that his fear of street crossings protects him from social situations. His stuttering, however, confounds the evaluation because he has trouble communicating his symptoms.
Mr. Q’s affect is constricted as he describes his anxiety and fear. He says he feels limited and at times depressed by his inability to cross streets, yet shows little dysphoric affect or mourning and seems unusually calm when discussing the problem. He appears relaxed knowing that he can keep avoiding social situations.
The authors’ observations
Mr. Q’s history of fearing interviews and telephone conversations suggests social anxiety, and his fear and avoidance of street crossings suggest a specific phobia. Panic disorder with agoraphobia is not present because the patient never experienced spontaneous panic attacks.
Anxiety is more prevalent among persons who stutter than in fl uent speakers.1,2
Persons who stutter:
- more commonly report speech anxiety3
- are significantly more uneasy in social situations and tend to avoid them4,5
- might not be motivated to eliminate barriers that thwart social interaction.
Worse, his stuttering makes it difficult to ascertain his symptoms or plan treatment because it takes him so long to finish a sentence.
EVALUATION: Flashing back
Later in the evaluation, Mr. Q says that whenever he considers or tries crossing a street, he recalls his childhood vehicular injury and fears he will be struck again. He has nightmares of being run over, and these nightmares and flashbacks have been occurring twice weekly since the snowstorm.
During the mental status examination, Mr. Q is well related with fair to poor eye contact, probably because of his stutter; he looks away from the speaker when his stuttering intensifies. His nightmares and flashbacks suggest comorbid posttraumatic stress disorder (PTSD), although he has no persistent symptoms of increased arousal. He also shows no evidence of acute mood disorder, psychosis, or cognitive disturbance.
The authors’ observations
PTSD symptoms can develop months to years after a precipitating incident,6,7 and repeated trauma can make patients more susceptible.
Interestingly, Mr. Q briefly suffered PTSD symptoms after the childhood accident but had no full-blown symptoms until adulthood. In addition to triggering avoidance behaviors, the muscle pull apparently reignited long-dormant PTSD symptoms (fl ashbacks, nightmares).
Mr. Q suffered no other PTSD symptoms. His stuttering might have signaled a psychogenic anxiety disorder, rather than being an incidental finding that developed after acute brain trauma at age 10.
Stuttering also might have contained Mr. Q’s PTSD symptoms for 24 years, until his snow-shoveling injury shattered that containment. Further, while shoveling in the street amid slippery conditions, he might have subconsciously feared he would have trouble eluding an oncoming vehicle.
The authors’ observations
We must address Mr. Q’s stuttering, phobia, and PTSD simultaneously to restore function. If we were to target his street-crossing phobia alone, we would face considerable resistance while exposing the underlying social phobia.
Supportive psychotherapy and exposure therapy—which would involve taking Mr. Q to an intersection and guiding him across—could help him overcome his fear of being run over. Cognitive-behavioral therapy (CBT) alone or with medications also could help.8,9
Mr. Q’s anxiety, however, is severe enough to keep him from trying exposure therapy. Because staying home is his shield from social contact, he is not motivated to leave his apartment. Although he presented voluntarily, like many patients he is ambivalent toward exposure therapy.
Also, Mr. Q’s stutter makes it difficult to engage him in conversation. His stuttering is so severe that we have trouble doing an adequate CBT case formulation. At times his speech is almost incomprehensible.
Improving Mr. Q’s speech is crucial to completing an assessment, decreasing his social anxiety, and motivating him to conquer his fear of crossing streets. By addressing his stuttering and phobia simultaneously, we can treat his anxiety on 2 fronts:
- the stuttering that stemmed from his car accident at age 10
- the street-crossing phobia that developed after he pulled a leg muscle as an adult.
Week 1—After much coaxing and encouragement, Mr. Q works through a leg cramp and takes 1 step off the curb, first with the therapist and then alone.
Week 2—Mr. Q takes 2 steps into the street—first with the therapist and then alone—after repeated coaxing and despite leg cramping.
Month 1—Patient proceeds 4 steps into the street unaccompanied. When his legs cramp, he intensifies the cramp and releases, then says ‘I can do this.’
Month 2—Patient walks 6 steps into the street, first with the therapist, then alone.
Month 3—Mr. Q walks 8 steps into the street, first with the therapist, then alone.
Month 4—Patient begins crossing 1-way streets alone. After the therapist guides him to the center of a 2-way street, he walks the rest of the way by himself.
Month 5—Patient crosses a 2-way street unassisted.
Month 6—Mr. Q crosses busy intersections near his church, where the cramping began.
TREATMENT: 5-step approach
Negative medical results convince Mr. Q that anxiety is holding him back. This allows us to target his anxiety with CBT, in vivo exposure, deep breathing/relaxation, speech therapy, and pharmacotherapy, all of which we start immediately.
As part of Mr. Q’s psychoeducation, we reiterate his negative physical examination results and point out that his childhood vehicular injuries might be perpetuating his fears. We work on getting him to recognize that leg tightness does not predict falling and getting hit by a car.
- Medications, which help him ‘feel calm’
- Relaxation breathing
- Saying ‘I can do it. I feel calm’ when legs cramp up in the street
- Soaking legs in warm water for 10 minutes twice daily
- Progressive muscle relaxation
- Cognitive intervention: internalizing that anxiety—not a medical problem —is holding him back
- Self empowerment exercise: further cramping his legs, then releasing them when they cramp up
When his legs cramp up while trying to cross, we have him say out loud, “I can do it. I feel calm;” this helps him proceed across the street. We also teach self-empowerment by having him purposely cramp up his legs, then release them to stop the cramping.
Deep breathing/relaxation. We teach Mr. Q progressive muscle relaxation and slow rhythmic breathing exercises, which he does before crossing streets to reduce his anxiety. For homework, he practices these exercises and soaks his legs in warm water for 10 minutes twice daily to relax his muscles and prevent cramping.
Speech therapy. The primary therapist devotes 20 minutes of each session to speech therapy. She employs relaxation training and therapy techniques such as Easy Onset,10 in which the patient stretches each sound, syllable, or word for up to 2 seconds, allowing him to speak at a smooth, slow rate. Mr. Q also practices these speech exercises at home.
After 6 weeks, Mr. Q’s stutter improves slightly but he still has trouble communicating. We refer him to a consulting speech therapist, who sees him twice weekly and leads Easy Onset and relaxation exercises. This gives us more time for supportive psychotherapy.
As his speech becomes more fluent, Mr. Q’s social anxiety and fear of street crossings decreases.
Pharmacotherapy. We instruct Mr. Q to take paroxetine, 20 mg/d, and clonazepam, 0.25 mg bid, 30 minutes before in vivo work to manage his anxiety. We titrate clonazepam to 0.5 mg bid over 1 month. He responds well to this regimen but fears he will become dependent on it.
During therapy, Mr. Q and the therapist rank the above interventions from most to least therapeutic (Box 2) so that we can effectively treat him should he relapse.
The authors’ observations
Although Mr. Q’s case is unusual, we feel our diagnostic and treatment methods can be applied to similar cases. His stutter, however, prevented us from conducting a structured diagnostic interview—which would have uncovered his symptoms more quickly—or performing standard manualized therapy.
Some data11 suggest that combination psychotropics and relaxation therapy can compromise long-term exposure therapy outcomes, as the patient’s fear could return once medication is stopped. Mr. Q’s anxiety was crippling, however, and had to be addressed before we could consider exposure therapy.
More research is needed on overcoming patient communication barriers that can hamper treatment. Rapport with patients often makes or breaks psychiatric treatment, and communication problems can prevent that connection. As clinicians, we must watch for linguistic, cognitive, and cultural impediments to treatment.
FOLLOW-UP: ‘I can cross’
Six months after presentation, Mr. Q crosses all types of streets—from 1-way streets to 6-lane intersections—with minimal anxiety. He has resumed his previous level of functioning and is searching for work. His stutter, though greatly improved, is still audible.
We see Mr. Q monthly. We stop paroxetine after 8 months but continue clonazepam to address his many underlying social anxieties. By November—approximately 1½ years after presentation—we have reduced clonazepam to 0.5 mg each morning. We try reducing the morning dose to 0.25 mg, but Mr. Q’s debilitating anxiety resurfaces.
In December, we increase clonazepam to 0.5 mg bid, then reduce it to 0.5 mg each morning 2 months later. In April, we cut clonazepam to 0.25 mg each morning. So far, Mr. Q is functioning well.
The authors’ observations
Patients who begin antistuttering intervention as adults have a poorer speech improvement prognosis than those who start speech therapy in childhood.12 In leaving his stuttering untreated for 24 years, Mr. Q likely sacrificed quality of life. Speech intervention at an earlier age might have improved his speech and prognosis early on.
Related resources
- Anxiety Disorders Association of America. www.adaa.org.
- Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
- Leahy RL, Holland SJ. Treatment plans and interventions for depression and anxiety disorders. New York: Guilford Press; 2000.
- Clonazepam • Klonopin
- Paroxetine • Paxil
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgment
The authors thank Michael Garret, MD, for his assistance in preparing this article.
1. Ezrati-Vinacour R, Levin I. The relationship between anxiety and stuttering: a multidimensional approach. J Fluency Disord 2004;29:135-48.
2. Craig A, Hancock K, Tran Y, Craig M. Anxiety levels in people who stutter: a randomized population study. J Speech Lang Hearing Res 2003;46:1197-206.
3. Cabel RM, Colcord RD, Petrosino L. Self-reported anxiety of adults who do and do not stutter. Perceptual Motor Skills 2002;94:775-84.
4. Kraaimaat FW, Vanryckeghem M, Van Dam-Baggen R. Stuttering and social anxiety. J Fluency Disord 2002;27:319-31.
5. Stein MB, Baird A, Walker JR. Social phobia in adults with stuttering. Am J Psychiatry 1996;153:278-80.
6. Carty J, O’Donnell ML, Creamer M. Delayed-onset PTSD: a prospective study of injury survivors. J Affect Disord 2006;90:257-61.
7. Schnurr PP, Lunney CA, Sengupta A, Waelde LC. A descriptive analysis of PTSD chronicity in Vietnam veterans. J Trauma Stress 2003;6:545-53.
8. Beck AT. Cognitive therapy and the emotional disorders. New York: International University Press; 1976.
9. Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
10. Hood SB ed. Stuttering words, 3rd ed.. Memphis, TN: Stuttering Foundation of America; 1999.
11. Otto MW, Smits JA, Reese HE. Cognitive-behavioral therapy for the treatment of anxiety disorders. J Clin Psychiatry 2004;65(suppl 5):34-41.
12. Curlee RF, Nielson M, Andrews G. Stuttering and related disorders of fluency. New York: Thieme Medical Publishers; 1993.
Dr. Stein is a fourth-year psychiatric resident, Dr. Friedman is professor of clinical psychiatry, and Dr. Elmouchtari is assistant professor of psychiatry, department of psychiatry, State University of New York Downstate Medical Center, Brooklyn.
1. Ezrati-Vinacour R, Levin I. The relationship between anxiety and stuttering: a multidimensional approach. J Fluency Disord 2004;29:135-48.
2. Craig A, Hancock K, Tran Y, Craig M. Anxiety levels in people who stutter: a randomized population study. J Speech Lang Hearing Res 2003;46:1197-206.
3. Cabel RM, Colcord RD, Petrosino L. Self-reported anxiety of adults who do and do not stutter. Perceptual Motor Skills 2002;94:775-84.
4. Kraaimaat FW, Vanryckeghem M, Van Dam-Baggen R. Stuttering and social anxiety. J Fluency Disord 2002;27:319-31.
5. Stein MB, Baird A, Walker JR. Social phobia in adults with stuttering. Am J Psychiatry 1996;153:278-80.
6. Carty J, O’Donnell ML, Creamer M. Delayed-onset PTSD: a prospective study of injury survivors. J Affect Disord 2006;90:257-61.
7. Schnurr PP, Lunney CA, Sengupta A, Waelde LC. A descriptive analysis of PTSD chronicity in Vietnam veterans. J Trauma Stress 2003;6:545-53.
8. Beck AT. Cognitive therapy and the emotional disorders. New York: International University Press; 1976.
9. Beck AT, Emery G, Greenberg RL. Anxiety disorders and phobias: a cognitive perspective. New York: Basic Books; 1985.
10. Hood SB ed. Stuttering words, 3rd ed.. Memphis, TN: Stuttering Foundation of America; 1999.
11. Otto MW, Smits JA, Reese HE. Cognitive-behavioral therapy for the treatment of anxiety disorders. J Clin Psychiatry 2004;65(suppl 5):34-41.
12. Curlee RF, Nielson M, Andrews G. Stuttering and related disorders of fluency. New York: Thieme Medical Publishers; 1993.
Dr. Stein is a fourth-year psychiatric resident, Dr. Friedman is professor of clinical psychiatry, and Dr. Elmouchtari is assistant professor of psychiatry, department of psychiatry, State University of New York Downstate Medical Center, Brooklyn.
How to treat nicotine dependence in smokers with schizophrenia
Mr. V, age 49, has stable but symptomatic schizophrenia and a 33-year cigarette smoking history. He is very concerned because his primary care physician told him he has 2 serious smoking-related health problems: diabetes and hypertension. He tried a smoking cessation program for the general public, but it was a poor fit because of his schizophrenia symptoms.
Despite adhering to his medications (ziprasidone, 20 mg hs; perphenazine, 8 mg hs; lorazepam, 1 mg hs; zonisamide, 200 mg/d, and benztropine mesylate, 2 mg hs), Mr. V has residual auditory hallucinations, paranoid ideation, and impaired concentration and attention. He smokes approximately 1.5 packs per day, particularly when very ill, to alleviate chronic boredom, and to diminish distress from the hallucinations. All of his friends smoke, and they do not support his attempts to quit.
Successfully treating nicotine dependence can seem a formidable challenge in patients with schizophrenia:
- 72% to 90% smoke cigarettes, compared with 21% of the general population1 (Box).2-12
- They tend to smoke heavily, spending about one-third of their incomes on cigarettes.13
- Their negative symptoms (such as apathy), positive symptoms (such as disorganized thinking), and cognitive impairment can reduce motivation to quit and adhere to a smoking cessation strategy.
- Sociologic and physiologic aspects of schizophrenia reinforce their smoking habit (Table 1).9,12,14-17
Even so, smokers with schizophrenia can be highly motivated and persistent in attempting to quit.18 Promising results have been reported in trials when psychopharmacologic treatments are combined with cognitive and behavioral interventions.
Smokers with schizophrenia are more nicotine-dependent, more likely to become medically ill, and less likely to receive help in quitting, compared with the general population. They:
- begin smoking at a higher rate before diagnosis or treatment for schizophrenia, compared with persons who do not go on to develop the disorder2
- smoke each cigarette more intensely, extracting more nicotine per cigarette3-5
- have higher rates of smoking-related illness and medical morbidity6
- are much less likely to receive physician advice to quit smoking.7
Many persons with severe mental illness are misinformed about the risks and benefits of smoking vs nicotine dependence treatment.8 They often fear and overestimate the medical risks of nicotine replacement therapies.9 Many believe smoking relieves depression and anxiety,10 whereas nicotine actually is anxiogenic. Nicotine may improve some aspects of cognitive dysfunction in schizophrenia, which could be a disincentive for patients to quit smoking.11,12
This article reviews these empiric studies and suggests practical ways for clinicians to create smoking cessation and relapse prevention plans for individuals with schizophrenia.
Table 1
Why up to 90% of schizophrenia patients smoke cigarettes
| Sociologic barriers to quitting |
| Physiologic reinforcers and disease factors |
|
Clinical trials of smoking cessation
Inadequate interventions. Conventional regimens—consisting of 8 to 12 weeks with sustained-release bupropion or nicotine replacement therapy (NRT) added to supportive or cognitive-behavioral therapy (CBT)19—are well-tolerated by patients with schizophrenia but only modestly effective. CBT alone (or with placebo) has not been effective for smoking cessation in schizophrenia. In clinical trials, abstinence rates have been:
In a double-blind, placebo-controlled trial,27 51 smokers with schizophrenia were randomly assigned to receive combination NRT (21-mg NRT patch plus ≤18 mg/d NRT polacrilex gum prn) added to bupropion SR, 150 mg bid, or placebo. Smoking cessation—defined as quitting on the assigned date and maintaining continuous abstinence for 4 weeks (measured by expired air carbon monoxide
- 52% of those receiving bupropion and dual NRT
- 19% who received placebo and the 2 forms of NRT.
Preventing relapse. Relapse is common among all smokers but especially in those with schizophrenia. In clinical trials, 70% to 83% of smokers with schizophrenia who attained abstinence relapsed to smoking within 6 to 12 months of stopping nicotine dependence treatment.21,22,27,28
In one clinical trial, >50% of patients achieved 4 weeks of continuous abstinence on a regimen of bupropion SR, 150 mg bid; nicotine patch (21 mg/d); and as-needed nicotine gum (≤18 mg/d). However:
- 31% relapsed to smoking while NRT was being tapered from ~40 to 20 mg/d
- 77% relapsed after nicotine dependence treatment was discontinued.27
Table 2
Suggested pharmacologic approaches for smoking cessation in patients with schizophrenia
| Medication | Dosage | Specific instructions | Potential side effects |
|---|---|---|---|
| Bupropion SR | 150 mg bid | Consider maintenance treatment if patient attains abstinence and tolerates medication well | Insomnia, anxiety, irritability (usually mild, time-limited); contraindicated in patients with a seizure disorder or who are at high risk for seizures; take care when prescribing in combination with clozapine |
| Varenicline | 0.5 mg once daily for 3 days; 0.5 mg bid for 4 days; 1 mg bid ongoing | No published data in smokers with schizophrenia; several trials are underway | Nausea, headache (nausea can be managed in some patients with dose reduction) |
| NRT patch | 21 mg/d to start | Consider combination treatment with short-acting preparation; consider maintenance treatment if patient attains abstinence and tolerates medication well | Rash, skin irritation, hypersensitivity reaction |
| Short-acting NRT (gum, lozenge, inhaler, spray) | ≤20 mg/d as needed for craving, in 2-mg or 4-mg increments | Instruct in correct use, particularly with gum; for patients who attain abstinence, consider maintenance of as-needed short-acting NRT | |
| NRT: nicotine replacement therapy | |||
CASE CONTINUED: Treating nicotine dependence
Mr. V cut down to 10 cigarettes a day during a 4-week motivational enhancement/psychoeducation intervention for smokers with major mental illness.29 He then enrolled in a 12-week study in which subjects received high-dose dual NRT and bupropion SR or placebo.
He received bupropion SR, 150 mg bid; NRT patch, 21 mg/d; and nicotine polacrilex gum, up to 18 mg/d as needed, and tolerated the regimen well. After 4 weeks, he quit smoking on the quit date. His blood pressure—monitored weekly for the first month then monthly thereafter—remained stable throughout the intervention.
Prescribing considerations
Metabolic changes. Smoking—but not NRT—induces hepatic clearance of many psychotropics, and smoking cessation can be associated with increased drug serum levels. Polycyclic aromatic hydrocarbons present in cigarette smoke—but not NRT—induce hepatic aryl hydrocarbon hydroxylases and cytochrome P (CYP)-450 isozymes, primarily CYP 1A1, 1A2, and 2E1, thereby increasing metabolic clearance of medications—such as clozapine—that are substrates for these enzymes.
Smoking cessation is associated with a 30% to 42% reduction in activity of CYP 1A2, and the half-life of this reduction is 27 to 54 hours. Thus, therapeutic drug monitoring and dose reduction of 10% over the first 4 days of tobacco abstinence is recommended to avoid toxicity. If the patient remains abstinent from tobacco, further reducing the antipsychotic dose may be warranted, based on individual assessment.
Weight gain. Patients who quit smoking gain an average of 3 to 5 kg.30
Nicotine withdrawal. Patients are used to thinking that nicotine is calming, whereas in reality nicotine and smoking are anxiogenic, and cigarette smoking alleviates the anxiety that comes from nicotine withdrawal.31 Educate patients about nicotine withdrawal symptoms, which easily can be confused with early signs of a psychotic relapse but are much more time-limited:
- dysphoria and irritability
- anxiety
- insomnia
- reduced heart rate
- restlessness
- difficulty concentrating.
20-22,27
NRT in a variety of delivery forms has been well tolerated and modestly effective for smoking cessation in schizophrenia.23,27,28 Combinations of short-acting NRT (gum, lozenge, inhaler, or nasal spray) with the long-acting NRT patch improve long-term abstinence rates in smokers in the general population26 and may improve abstinence rates in those with schizophrenia.27 Maintaining the pharmacotherapy used to achieve abstinence may also improve sustained abstinence rates.
Varenicline is a partial nicotinic receptor agonist approved for treating tobacco dependence. No reports have been published on its safety and efficacy for smoking cessation in persons with schizophrenia.
In our experience with open-label varenicline for nicotine dependence in schizophrenia, 8 of 9 patients quit smoking, reported reduced cravings, and remained clinically stable on the agent for 6 to 9 months. All had previously relapsed after discontinuing NRT, bupropion, or the combination.
Controlled trials are needed to discern this agent’s place in the treatment hierarchy for smokers with schizophrenia, and several such trials are underway.
10-step office-based approach
CBT alone is not effective for smoking cessation in the schizophrenia population,22,28 but pharmacologic interventions have not been shown to succeed without concurrent behavioral treatment.
The 10 behavioral treatments described below and the tools listed in Table 3 can be covered in 1 or 2 visits and individualized for a relatively brief, office-based approach. Using the complete list may be ideal, but you can deliver a reasonable behavioral intervention by choosing tasks tailored to each patient’s needs. After the initial session, review these interventions at follow-up appointments to reinforce skills.
1 Send a clear and simple message to your patients to quit smoking. If possible, provide a handout about health risks of smoking and benefits of quitting.
2 Elicit the patient’s reasons for wanting to quit, and help him or her list these reasons as specifically as possible, such as:
- “I want to have more spending money.”
- “I want to improve my health.”
- “I want to make my sister proud.”
3 Prescribe pharmacotherapy, as supported by clinical trial results. Explain the rationale for its use, and encourage adherence. Review proper techniques for using NRT patches and gum, lozenge, inhaler, or nasal spray.
4 Teach the patient skills to cope with cravings. The “4 Ds” are a helpful mnemonic:
- Deep breathe.
- Drink fluids.
- Delay (smoking).
- Do something else.
5 Discuss the patient’s smoking triggers and risky situations. These vary from patient to patient, but common triggers include:
- finishing a meal or drinking coffee
- seeing other people smoking
- psychological stressors or psychiatric symptoms such as anxiety or auditory hallucinations
- boredom, such as waiting for a bus.
- going to a day treatment center where most patients and staff smoke
- visiting a family member who smokes
- dealing with a stressful situation.
6 Set a quit date with a detailed “quit day” plan. When the patient has some mastery over triggers and risky situations, work with him or her to prepare for quit day (such as throw out cigarettes and lighters, tell family he or she will be quitting).
Plan the day, often hour by hour, to help the patient make new choices (such as go to the park in the morning instead of the convenience store, do a puzzle while watching TV at night). Schedule in some rewards and pleasant activities to substitute for cigarettes.
7 Work on ‘refusal skills.’ Patients will likely need to practice saying no to cigarettes offered to them in their social environments. Discuss these skills, and role-play to increase patients’ likelihood of success.
9 Discuss rewards patients can give themselves instead of cigarettes. This concept will be new to many but is important to help patients depend less on cigarettes for gratification.
10 Call patients on their quit date or the day after to make sure they are on track.
Table 3
CBT tools to help schizophrenia patients quit smoking
| Create ‘reasons to quit’ card |
| Provide ‘4Ds’ card of ‘coping skills when I crave a cigarette’ (deep breathe, drink fluids, delay (smoking), do something else) |
| Evaluate and practice problem-solving skills around ‘triggers and risky situations’ |
| Encourage patient to develop a ‘5 things I will do when I feel like smoking’ card |
| Develop a detailed ‘quit day’ plan |
| Role-play cigarette refusal skills |
| Prepare a smoking cessation ‘survival kit’ |
6-step problem-solving skills to help prevent smoking relapse
| Step (with sample therapist question) | Sample patient response |
|---|---|
| 1. Identify the problem (What is the situation that is making it difficult for you to stay quit?) | I am tempted to buy cigarettes every time I walk by the convenience store in my neighborhood |
| 2. Brainstorm solutions (What are some possible solutions?) | 1. Walk a different way to the bus so I don’t pass the convenience store 2. Tell the people at the convenience store that I quit smoking 3. Don’t carry extra money so I can’t buy cigarettes |
| 3. Evaluate pros and cons (What are the good things and the not-so-good things about each possible solution?) | Walking a different route to the bus: Pros: less temptation, more exercise Cons: longer trip, different routine Don’t carry money: Pros: can’t buy cigarettes Cons: can’t buy other things; might need money in an emergency |
| 4. Pick a solution (Which solution or combination of solutions looks the best?) | Walk a different way to the bus so I don’t pass the store |
| 5. Make a plan (What do you need to do to try it out?) | I need to test out other routes to the bus, set alarm earlier so have enough time for longer route |
| 6. Rate the solution (How well did it work? Do you need to try something else?) | Since I planned my route in advance, I don’t feel nervous about it. I think about cigarettes less in the morning now |
CASE CONTINUED: An improving picture
With CBT, Mr. V grasped that he had to make important changes to quit smoking and reduce his risk of relapse. He embraced the “4 Ds” and successfully adhered to the plan for his quit date. He maintained abstinence through the 12-month relapse prevention treatment period with the same bupropion and NRT dosage he had used to quit smoking (and tapered CBT sessions).
Mr. V realized early in treatment that if he quit smoking he could save $1,000 per year in the price of cigarettes. The camera he bought with the money he saved served as a motivator and helped alleviate the boredom that had kept him smoking.
Related resources
- U.S. Public Health Service. Clinical practice guideline. Treating tobacco use and dependence. www.surgeongeneral.gov/tobacco/tobaqrg.htm.
- Agency for Healthcare Research and Quality. Treating tobacco use and dependence: clinician’s packet. A how-to guide for implementing the Public Health Service Clinical Practice Guideline. www.ahcpr.gov/clinic/tobacco.
- Massachusetts Department of Public Health. www.trytostop.org.
- Centers for Disease Control and Prevention. Tobacco Information and Prevention Source (TIPS). www.cdc.gov/obacco.
- Benztropine mesylate • Cogentin
- Bupropion SR • Zyban
- Clozapine • Clozaril
- Lorazepam • Ativan
- Nicotine/transdermal • Nicotrol, Prostep
- Nicotine/nasal spray • Nicotrol NS
- Nicotine/polacrilex • Nicorette
- Perphenazine • various
- Varenicline • Chantix
- Ziprasidone • Geodon
- Zonisamide • Zonegram
Dr. Gottlieb reports no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Dr. Evins receives research support from Janssen Pharmaceutica.
1. Tobacco use among adults: United States, 2005. Centers for Disease Control and Prevention. MMWR Morb Mortal Wkly 2006 Oct 27;5(42):1145-8.Available at: http://www.cdc.gov/mmwr/preview/mmwrhtml/mm5542a1.htm.
2. Weiser M, Reichenberg A, Grotto I, et al. Higher rates of cigarette smoking in male adolescents before the onset of schizophrenia: a historical-prospective cohort study. Am J Psychiatry 2004;161(7):1219-23.
3. Williams JM, Ziedonis DM, Abanyie F, et al. Increased nicotine and cotinine levels in smokers with schizophrenia and schizoaffective disorder is not a metabolic effect. Schizophr Res 2005;79(2-3):323-35.
4. Tidey JW, Rohsenow DJ, Kaplan GB, Swift RM. Cigarette smoking topography in smokers with schizophrenia and matched non-psychiatric controls. Drug Alcohol Depend 2005;80:259-65.
5. Olincy A, Young DA, Freedman R. Increased levels of the nicotine metabolite cotinine in schizophrenic smokers compared to other smokers. Biol Psychiatry 1997;42(1):1-5.
6. Goff DC, Cather C, Evins AE, et al. Medical morbidity and mortality in schizophrenia: guidelines for psychiatrists. J Clin Psychiatry 2005;66(2):183-94.
7. Himelhoch S, Daumit G. To whom do psychiatrists offer smoking-cessation counseling? Am J Psychiatry 2003;160:2228-30.
8. Carosella AM, Ossip-Klein DJ, Owens CA. Smoking attitudes, beliefs, and readiness to change among acute and long term care inpatients with psychiatric diagnoses. Addict Behav 1999;24(3):331-4.
9. Esterberg ML, Compton ML. Smoking behavior in persons with a schizophrenia-spectrum disorder: a qualitative investigation of the transtheoretical model. Soc Sci Med 2005;61(2):293-303.
10. Addington J, el-Guebaly N, Addington D, Hodgins D. Readiness to stop smoking in schizophrenia. Can J Psychiatry 1997;42(1):49-52.
11. Sacco KA, Termine A, Seyal A, et al. Effects of cigarette smoking on spatial working memory and attentional deficits in schizophrenia: involvement of nicotinic receptor mechanisms. Arch Gen Psychiatry 2005;62(6):649-59.
12. Barr RS, Culhane MA, Jubelt LE, et al. The effects of transdermal nicotine on cognition in nonsmokers with schizophrenia and nonpsychiatric controls. Neuropsychopharmacology 2007 Apr 18 [Epub ahead of print].
13. McDonald C. Cigarette smoking in patients with schizophrenia. Br J Psychiatry 2000;176:596-7.
14. Adler LA, Hoffer LD, Wiser A, Freedman R. Normalization of auditory physiology by cigarette smoking in schizophrenic patients. Am J Psychiatry 1993;150:1856-61.
15. Sallette J, Pons S, Devillers-Thiery A, et al. Nicotine upregulates its own receptors through enhanced intracellular maturation. Neuron 2005;46:595-607.
16. Breese CR, Lee MJ, Adams CE, et al. Abnormal regulation of high affinity nicotinic receptors in subjects with schizophrenia. Neuropsychopharmacology 2000;23:351-64.
17. Miller D, Kelly M, Perry P, Coryell W. The influence of cigarette smoking on haloperidol pharmacokinetics. J Clin Psychiatry 1990;28:529-31.
18. Evins AE, Cather C, Rigotti NA, et al. Two-year follow up of a smoking cessation trial in patients with schizophrenia: increased rates of smoking cessation and reduction. J Clin Psychiatry 2004;65:307-12.
19. A clinical practice guideline for treating tobacco use and dependence: A US Public Health Service report. The Tobacco Use and Dependence Clinical Practice Guideline Panel, Staff, and Consortium Representatives. JAMA 2000;283:3244-54.
20. Weiner E, Ball MP, Summerfelt A, et al. Effects of sustained-release bupropion and supportive group therapy on cigarette consumption in patients with schizophrenia. Am J Psychiatry 2001;158:635-7.
21. George TP, Vessicchio JC, Termine A, et al. A placebo controlled trial of bupropion for smoking cessation in schizophrenia. Biol Psychiatry 2002;52:53-61.
22. Evins AE, Deckersbach T, Cather C, et al. A double-blind placebo-controlled trial of bupropion sustained release for smoking cessation in schizophrenia. J Clin Psychopharmacol 2005;25:218-25.
23. Williams JM, Ziedonis DM, Foulds J. A case series of nicotine nasal spray in the treatment of tobacco dependence among patients with schizophrenia. Psychiatr Serv 2004;55:1064-6.
24. Killen JD, Fortmann SP, Davis L, et al. Do heavy smokers benefit from higher dose nicotine patch therapy? Exp Clin Psychopharmacol 1999;7:226-33.
25. Hatsukami D, Mooney M, Murphy S, et al. Effects of high dose transdermal nicotine replacement in cigarette smokers. Pharmacol Biochem Behav 2007;86:132-9.
26. Blondal T, Gudmundsson L, Olafsdottir I, et al. Nicotine nasal spray with nicotine patch for smoking cessation: randomised trial with six year follow-up. BMJ 1999;318:285-8.
27. Evins AE, Cather C, Culhane MA, et al. A double-blind placebo-controlled study of bupropion SR added to high-dose, dual nicotine replacement therapy for smoking cessation or reduction in schizophrenia. J Clin Psychopharmacol. In press.
28. George TP, Ziedonis DM, Feingold A, et al. Nicotine transdermal patch and atypical antipsychotic medications for smoking cessation in schizophrenia. Am J Psychiatry 2000;157:1835-42.
29. Steinberg ML, Ziedonis DM, Krejci J, Brandon TH. Motivational interviewing with personalized feedback: a brief intervention for motivating smokers with schizophrenia to seek treatment for tobacco dependence. J Consult Clin Psychol 2004;72(4):723-8.
30. Williamson DF, Madans J, Anda RF, et al. Smoking cessation and severity of weight gain in a national cohort. N Engl J Med 1991;324:739-45.
31. Cooke JP, Bitterman H. Nicotine and angiogenesis: a new paradigm for tobacco-related diseases. Ann Med 2004;36:33-40.
Mr. V, age 49, has stable but symptomatic schizophrenia and a 33-year cigarette smoking history. He is very concerned because his primary care physician told him he has 2 serious smoking-related health problems: diabetes and hypertension. He tried a smoking cessation program for the general public, but it was a poor fit because of his schizophrenia symptoms.
Despite adhering to his medications (ziprasidone, 20 mg hs; perphenazine, 8 mg hs; lorazepam, 1 mg hs; zonisamide, 200 mg/d, and benztropine mesylate, 2 mg hs), Mr. V has residual auditory hallucinations, paranoid ideation, and impaired concentration and attention. He smokes approximately 1.5 packs per day, particularly when very ill, to alleviate chronic boredom, and to diminish distress from the hallucinations. All of his friends smoke, and they do not support his attempts to quit.
Successfully treating nicotine dependence can seem a formidable challenge in patients with schizophrenia:
- 72% to 90% smoke cigarettes, compared with 21% of the general population1 (Box).2-12
- They tend to smoke heavily, spending about one-third of their incomes on cigarettes.13
- Their negative symptoms (such as apathy), positive symptoms (such as disorganized thinking), and cognitive impairment can reduce motivation to quit and adhere to a smoking cessation strategy.
- Sociologic and physiologic aspects of schizophrenia reinforce their smoking habit (Table 1).9,12,14-17
Even so, smokers with schizophrenia can be highly motivated and persistent in attempting to quit.18 Promising results have been reported in trials when psychopharmacologic treatments are combined with cognitive and behavioral interventions.
Smokers with schizophrenia are more nicotine-dependent, more likely to become medically ill, and less likely to receive help in quitting, compared with the general population. They:
- begin smoking at a higher rate before diagnosis or treatment for schizophrenia, compared with persons who do not go on to develop the disorder2
- smoke each cigarette more intensely, extracting more nicotine per cigarette3-5
- have higher rates of smoking-related illness and medical morbidity6
- are much less likely to receive physician advice to quit smoking.7
Many persons with severe mental illness are misinformed about the risks and benefits of smoking vs nicotine dependence treatment.8 They often fear and overestimate the medical risks of nicotine replacement therapies.9 Many believe smoking relieves depression and anxiety,10 whereas nicotine actually is anxiogenic. Nicotine may improve some aspects of cognitive dysfunction in schizophrenia, which could be a disincentive for patients to quit smoking.11,12
This article reviews these empiric studies and suggests practical ways for clinicians to create smoking cessation and relapse prevention plans for individuals with schizophrenia.
Table 1
Why up to 90% of schizophrenia patients smoke cigarettes
| Sociologic barriers to quitting |
| Physiologic reinforcers and disease factors |
|
Clinical trials of smoking cessation
Inadequate interventions. Conventional regimens—consisting of 8 to 12 weeks with sustained-release bupropion or nicotine replacement therapy (NRT) added to supportive or cognitive-behavioral therapy (CBT)19—are well-tolerated by patients with schizophrenia but only modestly effective. CBT alone (or with placebo) has not been effective for smoking cessation in schizophrenia. In clinical trials, abstinence rates have been:
In a double-blind, placebo-controlled trial,27 51 smokers with schizophrenia were randomly assigned to receive combination NRT (21-mg NRT patch plus ≤18 mg/d NRT polacrilex gum prn) added to bupropion SR, 150 mg bid, or placebo. Smoking cessation—defined as quitting on the assigned date and maintaining continuous abstinence for 4 weeks (measured by expired air carbon monoxide
- 52% of those receiving bupropion and dual NRT
- 19% who received placebo and the 2 forms of NRT.
Preventing relapse. Relapse is common among all smokers but especially in those with schizophrenia. In clinical trials, 70% to 83% of smokers with schizophrenia who attained abstinence relapsed to smoking within 6 to 12 months of stopping nicotine dependence treatment.21,22,27,28
In one clinical trial, >50% of patients achieved 4 weeks of continuous abstinence on a regimen of bupropion SR, 150 mg bid; nicotine patch (21 mg/d); and as-needed nicotine gum (≤18 mg/d). However:
- 31% relapsed to smoking while NRT was being tapered from ~40 to 20 mg/d
- 77% relapsed after nicotine dependence treatment was discontinued.27
Table 2
Suggested pharmacologic approaches for smoking cessation in patients with schizophrenia
| Medication | Dosage | Specific instructions | Potential side effects |
|---|---|---|---|
| Bupropion SR | 150 mg bid | Consider maintenance treatment if patient attains abstinence and tolerates medication well | Insomnia, anxiety, irritability (usually mild, time-limited); contraindicated in patients with a seizure disorder or who are at high risk for seizures; take care when prescribing in combination with clozapine |
| Varenicline | 0.5 mg once daily for 3 days; 0.5 mg bid for 4 days; 1 mg bid ongoing | No published data in smokers with schizophrenia; several trials are underway | Nausea, headache (nausea can be managed in some patients with dose reduction) |
| NRT patch | 21 mg/d to start | Consider combination treatment with short-acting preparation; consider maintenance treatment if patient attains abstinence and tolerates medication well | Rash, skin irritation, hypersensitivity reaction |
| Short-acting NRT (gum, lozenge, inhaler, spray) | ≤20 mg/d as needed for craving, in 2-mg or 4-mg increments | Instruct in correct use, particularly with gum; for patients who attain abstinence, consider maintenance of as-needed short-acting NRT | |
| NRT: nicotine replacement therapy | |||
CASE CONTINUED: Treating nicotine dependence
Mr. V cut down to 10 cigarettes a day during a 4-week motivational enhancement/psychoeducation intervention for smokers with major mental illness.29 He then enrolled in a 12-week study in which subjects received high-dose dual NRT and bupropion SR or placebo.
He received bupropion SR, 150 mg bid; NRT patch, 21 mg/d; and nicotine polacrilex gum, up to 18 mg/d as needed, and tolerated the regimen well. After 4 weeks, he quit smoking on the quit date. His blood pressure—monitored weekly for the first month then monthly thereafter—remained stable throughout the intervention.
Prescribing considerations
Metabolic changes. Smoking—but not NRT—induces hepatic clearance of many psychotropics, and smoking cessation can be associated with increased drug serum levels. Polycyclic aromatic hydrocarbons present in cigarette smoke—but not NRT—induce hepatic aryl hydrocarbon hydroxylases and cytochrome P (CYP)-450 isozymes, primarily CYP 1A1, 1A2, and 2E1, thereby increasing metabolic clearance of medications—such as clozapine—that are substrates for these enzymes.
Smoking cessation is associated with a 30% to 42% reduction in activity of CYP 1A2, and the half-life of this reduction is 27 to 54 hours. Thus, therapeutic drug monitoring and dose reduction of 10% over the first 4 days of tobacco abstinence is recommended to avoid toxicity. If the patient remains abstinent from tobacco, further reducing the antipsychotic dose may be warranted, based on individual assessment.
Weight gain. Patients who quit smoking gain an average of 3 to 5 kg.30
Nicotine withdrawal. Patients are used to thinking that nicotine is calming, whereas in reality nicotine and smoking are anxiogenic, and cigarette smoking alleviates the anxiety that comes from nicotine withdrawal.31 Educate patients about nicotine withdrawal symptoms, which easily can be confused with early signs of a psychotic relapse but are much more time-limited:
- dysphoria and irritability
- anxiety
- insomnia
- reduced heart rate
- restlessness
- difficulty concentrating.
20-22,27
NRT in a variety of delivery forms has been well tolerated and modestly effective for smoking cessation in schizophrenia.23,27,28 Combinations of short-acting NRT (gum, lozenge, inhaler, or nasal spray) with the long-acting NRT patch improve long-term abstinence rates in smokers in the general population26 and may improve abstinence rates in those with schizophrenia.27 Maintaining the pharmacotherapy used to achieve abstinence may also improve sustained abstinence rates.
Varenicline is a partial nicotinic receptor agonist approved for treating tobacco dependence. No reports have been published on its safety and efficacy for smoking cessation in persons with schizophrenia.
In our experience with open-label varenicline for nicotine dependence in schizophrenia, 8 of 9 patients quit smoking, reported reduced cravings, and remained clinically stable on the agent for 6 to 9 months. All had previously relapsed after discontinuing NRT, bupropion, or the combination.
Controlled trials are needed to discern this agent’s place in the treatment hierarchy for smokers with schizophrenia, and several such trials are underway.
10-step office-based approach
CBT alone is not effective for smoking cessation in the schizophrenia population,22,28 but pharmacologic interventions have not been shown to succeed without concurrent behavioral treatment.
The 10 behavioral treatments described below and the tools listed in Table 3 can be covered in 1 or 2 visits and individualized for a relatively brief, office-based approach. Using the complete list may be ideal, but you can deliver a reasonable behavioral intervention by choosing tasks tailored to each patient’s needs. After the initial session, review these interventions at follow-up appointments to reinforce skills.
1 Send a clear and simple message to your patients to quit smoking. If possible, provide a handout about health risks of smoking and benefits of quitting.
2 Elicit the patient’s reasons for wanting to quit, and help him or her list these reasons as specifically as possible, such as:
- “I want to have more spending money.”
- “I want to improve my health.”
- “I want to make my sister proud.”
3 Prescribe pharmacotherapy, as supported by clinical trial results. Explain the rationale for its use, and encourage adherence. Review proper techniques for using NRT patches and gum, lozenge, inhaler, or nasal spray.
4 Teach the patient skills to cope with cravings. The “4 Ds” are a helpful mnemonic:
- Deep breathe.
- Drink fluids.
- Delay (smoking).
- Do something else.
5 Discuss the patient’s smoking triggers and risky situations. These vary from patient to patient, but common triggers include:
- finishing a meal or drinking coffee
- seeing other people smoking
- psychological stressors or psychiatric symptoms such as anxiety or auditory hallucinations
- boredom, such as waiting for a bus.
- going to a day treatment center where most patients and staff smoke
- visiting a family member who smokes
- dealing with a stressful situation.
6 Set a quit date with a detailed “quit day” plan. When the patient has some mastery over triggers and risky situations, work with him or her to prepare for quit day (such as throw out cigarettes and lighters, tell family he or she will be quitting).
Plan the day, often hour by hour, to help the patient make new choices (such as go to the park in the morning instead of the convenience store, do a puzzle while watching TV at night). Schedule in some rewards and pleasant activities to substitute for cigarettes.
7 Work on ‘refusal skills.’ Patients will likely need to practice saying no to cigarettes offered to them in their social environments. Discuss these skills, and role-play to increase patients’ likelihood of success.
9 Discuss rewards patients can give themselves instead of cigarettes. This concept will be new to many but is important to help patients depend less on cigarettes for gratification.
10 Call patients on their quit date or the day after to make sure they are on track.
Table 3
CBT tools to help schizophrenia patients quit smoking
| Create ‘reasons to quit’ card |
| Provide ‘4Ds’ card of ‘coping skills when I crave a cigarette’ (deep breathe, drink fluids, delay (smoking), do something else) |
| Evaluate and practice problem-solving skills around ‘triggers and risky situations’ |
| Encourage patient to develop a ‘5 things I will do when I feel like smoking’ card |
| Develop a detailed ‘quit day’ plan |
| Role-play cigarette refusal skills |
| Prepare a smoking cessation ‘survival kit’ |
6-step problem-solving skills to help prevent smoking relapse
| Step (with sample therapist question) | Sample patient response |
|---|---|
| 1. Identify the problem (What is the situation that is making it difficult for you to stay quit?) | I am tempted to buy cigarettes every time I walk by the convenience store in my neighborhood |
| 2. Brainstorm solutions (What are some possible solutions?) | 1. Walk a different way to the bus so I don’t pass the convenience store 2. Tell the people at the convenience store that I quit smoking 3. Don’t carry extra money so I can’t buy cigarettes |
| 3. Evaluate pros and cons (What are the good things and the not-so-good things about each possible solution?) | Walking a different route to the bus: Pros: less temptation, more exercise Cons: longer trip, different routine Don’t carry money: Pros: can’t buy cigarettes Cons: can’t buy other things; might need money in an emergency |
| 4. Pick a solution (Which solution or combination of solutions looks the best?) | Walk a different way to the bus so I don’t pass the store |
| 5. Make a plan (What do you need to do to try it out?) | I need to test out other routes to the bus, set alarm earlier so have enough time for longer route |
| 6. Rate the solution (How well did it work? Do you need to try something else?) | Since I planned my route in advance, I don’t feel nervous about it. I think about cigarettes less in the morning now |
CASE CONTINUED: An improving picture
With CBT, Mr. V grasped that he had to make important changes to quit smoking and reduce his risk of relapse. He embraced the “4 Ds” and successfully adhered to the plan for his quit date. He maintained abstinence through the 12-month relapse prevention treatment period with the same bupropion and NRT dosage he had used to quit smoking (and tapered CBT sessions).
Mr. V realized early in treatment that if he quit smoking he could save $1,000 per year in the price of cigarettes. The camera he bought with the money he saved served as a motivator and helped alleviate the boredom that had kept him smoking.
Related resources
- U.S. Public Health Service. Clinical practice guideline. Treating tobacco use and dependence. www.surgeongeneral.gov/tobacco/tobaqrg.htm.
- Agency for Healthcare Research and Quality. Treating tobacco use and dependence: clinician’s packet. A how-to guide for implementing the Public Health Service Clinical Practice Guideline. www.ahcpr.gov/clinic/tobacco.
- Massachusetts Department of Public Health. www.trytostop.org.
- Centers for Disease Control and Prevention. Tobacco Information and Prevention Source (TIPS). www.cdc.gov/obacco.
- Benztropine mesylate • Cogentin
- Bupropion SR • Zyban
- Clozapine • Clozaril
- Lorazepam • Ativan
- Nicotine/transdermal • Nicotrol, Prostep
- Nicotine/nasal spray • Nicotrol NS
- Nicotine/polacrilex • Nicorette
- Perphenazine • various
- Varenicline • Chantix
- Ziprasidone • Geodon
- Zonisamide • Zonegram
Dr. Gottlieb reports no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Dr. Evins receives research support from Janssen Pharmaceutica.
Mr. V, age 49, has stable but symptomatic schizophrenia and a 33-year cigarette smoking history. He is very concerned because his primary care physician told him he has 2 serious smoking-related health problems: diabetes and hypertension. He tried a smoking cessation program for the general public, but it was a poor fit because of his schizophrenia symptoms.
Despite adhering to his medications (ziprasidone, 20 mg hs; perphenazine, 8 mg hs; lorazepam, 1 mg hs; zonisamide, 200 mg/d, and benztropine mesylate, 2 mg hs), Mr. V has residual auditory hallucinations, paranoid ideation, and impaired concentration and attention. He smokes approximately 1.5 packs per day, particularly when very ill, to alleviate chronic boredom, and to diminish distress from the hallucinations. All of his friends smoke, and they do not support his attempts to quit.
Successfully treating nicotine dependence can seem a formidable challenge in patients with schizophrenia:
- 72% to 90% smoke cigarettes, compared with 21% of the general population1 (Box).2-12
- They tend to smoke heavily, spending about one-third of their incomes on cigarettes.13
- Their negative symptoms (such as apathy), positive symptoms (such as disorganized thinking), and cognitive impairment can reduce motivation to quit and adhere to a smoking cessation strategy.
- Sociologic and physiologic aspects of schizophrenia reinforce their smoking habit (Table 1).9,12,14-17
Even so, smokers with schizophrenia can be highly motivated and persistent in attempting to quit.18 Promising results have been reported in trials when psychopharmacologic treatments are combined with cognitive and behavioral interventions.
Smokers with schizophrenia are more nicotine-dependent, more likely to become medically ill, and less likely to receive help in quitting, compared with the general population. They:
- begin smoking at a higher rate before diagnosis or treatment for schizophrenia, compared with persons who do not go on to develop the disorder2
- smoke each cigarette more intensely, extracting more nicotine per cigarette3-5
- have higher rates of smoking-related illness and medical morbidity6
- are much less likely to receive physician advice to quit smoking.7
Many persons with severe mental illness are misinformed about the risks and benefits of smoking vs nicotine dependence treatment.8 They often fear and overestimate the medical risks of nicotine replacement therapies.9 Many believe smoking relieves depression and anxiety,10 whereas nicotine actually is anxiogenic. Nicotine may improve some aspects of cognitive dysfunction in schizophrenia, which could be a disincentive for patients to quit smoking.11,12
This article reviews these empiric studies and suggests practical ways for clinicians to create smoking cessation and relapse prevention plans for individuals with schizophrenia.
Table 1
Why up to 90% of schizophrenia patients smoke cigarettes
| Sociologic barriers to quitting |
| Physiologic reinforcers and disease factors |
|
Clinical trials of smoking cessation
Inadequate interventions. Conventional regimens—consisting of 8 to 12 weeks with sustained-release bupropion or nicotine replacement therapy (NRT) added to supportive or cognitive-behavioral therapy (CBT)19—are well-tolerated by patients with schizophrenia but only modestly effective. CBT alone (or with placebo) has not been effective for smoking cessation in schizophrenia. In clinical trials, abstinence rates have been:
In a double-blind, placebo-controlled trial,27 51 smokers with schizophrenia were randomly assigned to receive combination NRT (21-mg NRT patch plus ≤18 mg/d NRT polacrilex gum prn) added to bupropion SR, 150 mg bid, or placebo. Smoking cessation—defined as quitting on the assigned date and maintaining continuous abstinence for 4 weeks (measured by expired air carbon monoxide
- 52% of those receiving bupropion and dual NRT
- 19% who received placebo and the 2 forms of NRT.
Preventing relapse. Relapse is common among all smokers but especially in those with schizophrenia. In clinical trials, 70% to 83% of smokers with schizophrenia who attained abstinence relapsed to smoking within 6 to 12 months of stopping nicotine dependence treatment.21,22,27,28
In one clinical trial, >50% of patients achieved 4 weeks of continuous abstinence on a regimen of bupropion SR, 150 mg bid; nicotine patch (21 mg/d); and as-needed nicotine gum (≤18 mg/d). However:
- 31% relapsed to smoking while NRT was being tapered from ~40 to 20 mg/d
- 77% relapsed after nicotine dependence treatment was discontinued.27
Table 2
Suggested pharmacologic approaches for smoking cessation in patients with schizophrenia
| Medication | Dosage | Specific instructions | Potential side effects |
|---|---|---|---|
| Bupropion SR | 150 mg bid | Consider maintenance treatment if patient attains abstinence and tolerates medication well | Insomnia, anxiety, irritability (usually mild, time-limited); contraindicated in patients with a seizure disorder or who are at high risk for seizures; take care when prescribing in combination with clozapine |
| Varenicline | 0.5 mg once daily for 3 days; 0.5 mg bid for 4 days; 1 mg bid ongoing | No published data in smokers with schizophrenia; several trials are underway | Nausea, headache (nausea can be managed in some patients with dose reduction) |
| NRT patch | 21 mg/d to start | Consider combination treatment with short-acting preparation; consider maintenance treatment if patient attains abstinence and tolerates medication well | Rash, skin irritation, hypersensitivity reaction |
| Short-acting NRT (gum, lozenge, inhaler, spray) | ≤20 mg/d as needed for craving, in 2-mg or 4-mg increments | Instruct in correct use, particularly with gum; for patients who attain abstinence, consider maintenance of as-needed short-acting NRT | |
| NRT: nicotine replacement therapy | |||
CASE CONTINUED: Treating nicotine dependence
Mr. V cut down to 10 cigarettes a day during a 4-week motivational enhancement/psychoeducation intervention for smokers with major mental illness.29 He then enrolled in a 12-week study in which subjects received high-dose dual NRT and bupropion SR or placebo.
He received bupropion SR, 150 mg bid; NRT patch, 21 mg/d; and nicotine polacrilex gum, up to 18 mg/d as needed, and tolerated the regimen well. After 4 weeks, he quit smoking on the quit date. His blood pressure—monitored weekly for the first month then monthly thereafter—remained stable throughout the intervention.
Prescribing considerations
Metabolic changes. Smoking—but not NRT—induces hepatic clearance of many psychotropics, and smoking cessation can be associated with increased drug serum levels. Polycyclic aromatic hydrocarbons present in cigarette smoke—but not NRT—induce hepatic aryl hydrocarbon hydroxylases and cytochrome P (CYP)-450 isozymes, primarily CYP 1A1, 1A2, and 2E1, thereby increasing metabolic clearance of medications—such as clozapine—that are substrates for these enzymes.
Smoking cessation is associated with a 30% to 42% reduction in activity of CYP 1A2, and the half-life of this reduction is 27 to 54 hours. Thus, therapeutic drug monitoring and dose reduction of 10% over the first 4 days of tobacco abstinence is recommended to avoid toxicity. If the patient remains abstinent from tobacco, further reducing the antipsychotic dose may be warranted, based on individual assessment.
Weight gain. Patients who quit smoking gain an average of 3 to 5 kg.30
Nicotine withdrawal. Patients are used to thinking that nicotine is calming, whereas in reality nicotine and smoking are anxiogenic, and cigarette smoking alleviates the anxiety that comes from nicotine withdrawal.31 Educate patients about nicotine withdrawal symptoms, which easily can be confused with early signs of a psychotic relapse but are much more time-limited:
- dysphoria and irritability
- anxiety
- insomnia
- reduced heart rate
- restlessness
- difficulty concentrating.
20-22,27
NRT in a variety of delivery forms has been well tolerated and modestly effective for smoking cessation in schizophrenia.23,27,28 Combinations of short-acting NRT (gum, lozenge, inhaler, or nasal spray) with the long-acting NRT patch improve long-term abstinence rates in smokers in the general population26 and may improve abstinence rates in those with schizophrenia.27 Maintaining the pharmacotherapy used to achieve abstinence may also improve sustained abstinence rates.
Varenicline is a partial nicotinic receptor agonist approved for treating tobacco dependence. No reports have been published on its safety and efficacy for smoking cessation in persons with schizophrenia.
In our experience with open-label varenicline for nicotine dependence in schizophrenia, 8 of 9 patients quit smoking, reported reduced cravings, and remained clinically stable on the agent for 6 to 9 months. All had previously relapsed after discontinuing NRT, bupropion, or the combination.
Controlled trials are needed to discern this agent’s place in the treatment hierarchy for smokers with schizophrenia, and several such trials are underway.
10-step office-based approach
CBT alone is not effective for smoking cessation in the schizophrenia population,22,28 but pharmacologic interventions have not been shown to succeed without concurrent behavioral treatment.
The 10 behavioral treatments described below and the tools listed in Table 3 can be covered in 1 or 2 visits and individualized for a relatively brief, office-based approach. Using the complete list may be ideal, but you can deliver a reasonable behavioral intervention by choosing tasks tailored to each patient’s needs. After the initial session, review these interventions at follow-up appointments to reinforce skills.
1 Send a clear and simple message to your patients to quit smoking. If possible, provide a handout about health risks of smoking and benefits of quitting.
2 Elicit the patient’s reasons for wanting to quit, and help him or her list these reasons as specifically as possible, such as:
- “I want to have more spending money.”
- “I want to improve my health.”
- “I want to make my sister proud.”
3 Prescribe pharmacotherapy, as supported by clinical trial results. Explain the rationale for its use, and encourage adherence. Review proper techniques for using NRT patches and gum, lozenge, inhaler, or nasal spray.
4 Teach the patient skills to cope with cravings. The “4 Ds” are a helpful mnemonic:
- Deep breathe.
- Drink fluids.
- Delay (smoking).
- Do something else.
5 Discuss the patient’s smoking triggers and risky situations. These vary from patient to patient, but common triggers include:
- finishing a meal or drinking coffee
- seeing other people smoking
- psychological stressors or psychiatric symptoms such as anxiety or auditory hallucinations
- boredom, such as waiting for a bus.
- going to a day treatment center where most patients and staff smoke
- visiting a family member who smokes
- dealing with a stressful situation.
6 Set a quit date with a detailed “quit day” plan. When the patient has some mastery over triggers and risky situations, work with him or her to prepare for quit day (such as throw out cigarettes and lighters, tell family he or she will be quitting).
Plan the day, often hour by hour, to help the patient make new choices (such as go to the park in the morning instead of the convenience store, do a puzzle while watching TV at night). Schedule in some rewards and pleasant activities to substitute for cigarettes.
7 Work on ‘refusal skills.’ Patients will likely need to practice saying no to cigarettes offered to them in their social environments. Discuss these skills, and role-play to increase patients’ likelihood of success.
9 Discuss rewards patients can give themselves instead of cigarettes. This concept will be new to many but is important to help patients depend less on cigarettes for gratification.
10 Call patients on their quit date or the day after to make sure they are on track.
Table 3
CBT tools to help schizophrenia patients quit smoking
| Create ‘reasons to quit’ card |
| Provide ‘4Ds’ card of ‘coping skills when I crave a cigarette’ (deep breathe, drink fluids, delay (smoking), do something else) |
| Evaluate and practice problem-solving skills around ‘triggers and risky situations’ |
| Encourage patient to develop a ‘5 things I will do when I feel like smoking’ card |
| Develop a detailed ‘quit day’ plan |
| Role-play cigarette refusal skills |
| Prepare a smoking cessation ‘survival kit’ |
6-step problem-solving skills to help prevent smoking relapse
| Step (with sample therapist question) | Sample patient response |
|---|---|
| 1. Identify the problem (What is the situation that is making it difficult for you to stay quit?) | I am tempted to buy cigarettes every time I walk by the convenience store in my neighborhood |
| 2. Brainstorm solutions (What are some possible solutions?) | 1. Walk a different way to the bus so I don’t pass the convenience store 2. Tell the people at the convenience store that I quit smoking 3. Don’t carry extra money so I can’t buy cigarettes |
| 3. Evaluate pros and cons (What are the good things and the not-so-good things about each possible solution?) | Walking a different route to the bus: Pros: less temptation, more exercise Cons: longer trip, different routine Don’t carry money: Pros: can’t buy cigarettes Cons: can’t buy other things; might need money in an emergency |
| 4. Pick a solution (Which solution or combination of solutions looks the best?) | Walk a different way to the bus so I don’t pass the store |
| 5. Make a plan (What do you need to do to try it out?) | I need to test out other routes to the bus, set alarm earlier so have enough time for longer route |
| 6. Rate the solution (How well did it work? Do you need to try something else?) | Since I planned my route in advance, I don’t feel nervous about it. I think about cigarettes less in the morning now |
CASE CONTINUED: An improving picture
With CBT, Mr. V grasped that he had to make important changes to quit smoking and reduce his risk of relapse. He embraced the “4 Ds” and successfully adhered to the plan for his quit date. He maintained abstinence through the 12-month relapse prevention treatment period with the same bupropion and NRT dosage he had used to quit smoking (and tapered CBT sessions).
Mr. V realized early in treatment that if he quit smoking he could save $1,000 per year in the price of cigarettes. The camera he bought with the money he saved served as a motivator and helped alleviate the boredom that had kept him smoking.
Related resources
- U.S. Public Health Service. Clinical practice guideline. Treating tobacco use and dependence. www.surgeongeneral.gov/tobacco/tobaqrg.htm.
- Agency for Healthcare Research and Quality. Treating tobacco use and dependence: clinician’s packet. A how-to guide for implementing the Public Health Service Clinical Practice Guideline. www.ahcpr.gov/clinic/tobacco.
- Massachusetts Department of Public Health. www.trytostop.org.
- Centers for Disease Control and Prevention. Tobacco Information and Prevention Source (TIPS). www.cdc.gov/obacco.
- Benztropine mesylate • Cogentin
- Bupropion SR • Zyban
- Clozapine • Clozaril
- Lorazepam • Ativan
- Nicotine/transdermal • Nicotrol, Prostep
- Nicotine/nasal spray • Nicotrol NS
- Nicotine/polacrilex • Nicorette
- Perphenazine • various
- Varenicline • Chantix
- Ziprasidone • Geodon
- Zonisamide • Zonegram
Dr. Gottlieb reports no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Dr. Evins receives research support from Janssen Pharmaceutica.
1. Tobacco use among adults: United States, 2005. Centers for Disease Control and Prevention. MMWR Morb Mortal Wkly 2006 Oct 27;5(42):1145-8.Available at: http://www.cdc.gov/mmwr/preview/mmwrhtml/mm5542a1.htm.
2. Weiser M, Reichenberg A, Grotto I, et al. Higher rates of cigarette smoking in male adolescents before the onset of schizophrenia: a historical-prospective cohort study. Am J Psychiatry 2004;161(7):1219-23.
3. Williams JM, Ziedonis DM, Abanyie F, et al. Increased nicotine and cotinine levels in smokers with schizophrenia and schizoaffective disorder is not a metabolic effect. Schizophr Res 2005;79(2-3):323-35.
4. Tidey JW, Rohsenow DJ, Kaplan GB, Swift RM. Cigarette smoking topography in smokers with schizophrenia and matched non-psychiatric controls. Drug Alcohol Depend 2005;80:259-65.
5. Olincy A, Young DA, Freedman R. Increased levels of the nicotine metabolite cotinine in schizophrenic smokers compared to other smokers. Biol Psychiatry 1997;42(1):1-5.
6. Goff DC, Cather C, Evins AE, et al. Medical morbidity and mortality in schizophrenia: guidelines for psychiatrists. J Clin Psychiatry 2005;66(2):183-94.
7. Himelhoch S, Daumit G. To whom do psychiatrists offer smoking-cessation counseling? Am J Psychiatry 2003;160:2228-30.
8. Carosella AM, Ossip-Klein DJ, Owens CA. Smoking attitudes, beliefs, and readiness to change among acute and long term care inpatients with psychiatric diagnoses. Addict Behav 1999;24(3):331-4.
9. Esterberg ML, Compton ML. Smoking behavior in persons with a schizophrenia-spectrum disorder: a qualitative investigation of the transtheoretical model. Soc Sci Med 2005;61(2):293-303.
10. Addington J, el-Guebaly N, Addington D, Hodgins D. Readiness to stop smoking in schizophrenia. Can J Psychiatry 1997;42(1):49-52.
11. Sacco KA, Termine A, Seyal A, et al. Effects of cigarette smoking on spatial working memory and attentional deficits in schizophrenia: involvement of nicotinic receptor mechanisms. Arch Gen Psychiatry 2005;62(6):649-59.
12. Barr RS, Culhane MA, Jubelt LE, et al. The effects of transdermal nicotine on cognition in nonsmokers with schizophrenia and nonpsychiatric controls. Neuropsychopharmacology 2007 Apr 18 [Epub ahead of print].
13. McDonald C. Cigarette smoking in patients with schizophrenia. Br J Psychiatry 2000;176:596-7.
14. Adler LA, Hoffer LD, Wiser A, Freedman R. Normalization of auditory physiology by cigarette smoking in schizophrenic patients. Am J Psychiatry 1993;150:1856-61.
15. Sallette J, Pons S, Devillers-Thiery A, et al. Nicotine upregulates its own receptors through enhanced intracellular maturation. Neuron 2005;46:595-607.
16. Breese CR, Lee MJ, Adams CE, et al. Abnormal regulation of high affinity nicotinic receptors in subjects with schizophrenia. Neuropsychopharmacology 2000;23:351-64.
17. Miller D, Kelly M, Perry P, Coryell W. The influence of cigarette smoking on haloperidol pharmacokinetics. J Clin Psychiatry 1990;28:529-31.
18. Evins AE, Cather C, Rigotti NA, et al. Two-year follow up of a smoking cessation trial in patients with schizophrenia: increased rates of smoking cessation and reduction. J Clin Psychiatry 2004;65:307-12.
19. A clinical practice guideline for treating tobacco use and dependence: A US Public Health Service report. The Tobacco Use and Dependence Clinical Practice Guideline Panel, Staff, and Consortium Representatives. JAMA 2000;283:3244-54.
20. Weiner E, Ball MP, Summerfelt A, et al. Effects of sustained-release bupropion and supportive group therapy on cigarette consumption in patients with schizophrenia. Am J Psychiatry 2001;158:635-7.
21. George TP, Vessicchio JC, Termine A, et al. A placebo controlled trial of bupropion for smoking cessation in schizophrenia. Biol Psychiatry 2002;52:53-61.
22. Evins AE, Deckersbach T, Cather C, et al. A double-blind placebo-controlled trial of bupropion sustained release for smoking cessation in schizophrenia. J Clin Psychopharmacol 2005;25:218-25.
23. Williams JM, Ziedonis DM, Foulds J. A case series of nicotine nasal spray in the treatment of tobacco dependence among patients with schizophrenia. Psychiatr Serv 2004;55:1064-6.
24. Killen JD, Fortmann SP, Davis L, et al. Do heavy smokers benefit from higher dose nicotine patch therapy? Exp Clin Psychopharmacol 1999;7:226-33.
25. Hatsukami D, Mooney M, Murphy S, et al. Effects of high dose transdermal nicotine replacement in cigarette smokers. Pharmacol Biochem Behav 2007;86:132-9.
26. Blondal T, Gudmundsson L, Olafsdottir I, et al. Nicotine nasal spray with nicotine patch for smoking cessation: randomised trial with six year follow-up. BMJ 1999;318:285-8.
27. Evins AE, Cather C, Culhane MA, et al. A double-blind placebo-controlled study of bupropion SR added to high-dose, dual nicotine replacement therapy for smoking cessation or reduction in schizophrenia. J Clin Psychopharmacol. In press.
28. George TP, Ziedonis DM, Feingold A, et al. Nicotine transdermal patch and atypical antipsychotic medications for smoking cessation in schizophrenia. Am J Psychiatry 2000;157:1835-42.
29. Steinberg ML, Ziedonis DM, Krejci J, Brandon TH. Motivational interviewing with personalized feedback: a brief intervention for motivating smokers with schizophrenia to seek treatment for tobacco dependence. J Consult Clin Psychol 2004;72(4):723-8.
30. Williamson DF, Madans J, Anda RF, et al. Smoking cessation and severity of weight gain in a national cohort. N Engl J Med 1991;324:739-45.
31. Cooke JP, Bitterman H. Nicotine and angiogenesis: a new paradigm for tobacco-related diseases. Ann Med 2004;36:33-40.
1. Tobacco use among adults: United States, 2005. Centers for Disease Control and Prevention. MMWR Morb Mortal Wkly 2006 Oct 27;5(42):1145-8.Available at: http://www.cdc.gov/mmwr/preview/mmwrhtml/mm5542a1.htm.
2. Weiser M, Reichenberg A, Grotto I, et al. Higher rates of cigarette smoking in male adolescents before the onset of schizophrenia: a historical-prospective cohort study. Am J Psychiatry 2004;161(7):1219-23.
3. Williams JM, Ziedonis DM, Abanyie F, et al. Increased nicotine and cotinine levels in smokers with schizophrenia and schizoaffective disorder is not a metabolic effect. Schizophr Res 2005;79(2-3):323-35.
4. Tidey JW, Rohsenow DJ, Kaplan GB, Swift RM. Cigarette smoking topography in smokers with schizophrenia and matched non-psychiatric controls. Drug Alcohol Depend 2005;80:259-65.
5. Olincy A, Young DA, Freedman R. Increased levels of the nicotine metabolite cotinine in schizophrenic smokers compared to other smokers. Biol Psychiatry 1997;42(1):1-5.
6. Goff DC, Cather C, Evins AE, et al. Medical morbidity and mortality in schizophrenia: guidelines for psychiatrists. J Clin Psychiatry 2005;66(2):183-94.
7. Himelhoch S, Daumit G. To whom do psychiatrists offer smoking-cessation counseling? Am J Psychiatry 2003;160:2228-30.
8. Carosella AM, Ossip-Klein DJ, Owens CA. Smoking attitudes, beliefs, and readiness to change among acute and long term care inpatients with psychiatric diagnoses. Addict Behav 1999;24(3):331-4.
9. Esterberg ML, Compton ML. Smoking behavior in persons with a schizophrenia-spectrum disorder: a qualitative investigation of the transtheoretical model. Soc Sci Med 2005;61(2):293-303.
10. Addington J, el-Guebaly N, Addington D, Hodgins D. Readiness to stop smoking in schizophrenia. Can J Psychiatry 1997;42(1):49-52.
11. Sacco KA, Termine A, Seyal A, et al. Effects of cigarette smoking on spatial working memory and attentional deficits in schizophrenia: involvement of nicotinic receptor mechanisms. Arch Gen Psychiatry 2005;62(6):649-59.
12. Barr RS, Culhane MA, Jubelt LE, et al. The effects of transdermal nicotine on cognition in nonsmokers with schizophrenia and nonpsychiatric controls. Neuropsychopharmacology 2007 Apr 18 [Epub ahead of print].
13. McDonald C. Cigarette smoking in patients with schizophrenia. Br J Psychiatry 2000;176:596-7.
14. Adler LA, Hoffer LD, Wiser A, Freedman R. Normalization of auditory physiology by cigarette smoking in schizophrenic patients. Am J Psychiatry 1993;150:1856-61.
15. Sallette J, Pons S, Devillers-Thiery A, et al. Nicotine upregulates its own receptors through enhanced intracellular maturation. Neuron 2005;46:595-607.
16. Breese CR, Lee MJ, Adams CE, et al. Abnormal regulation of high affinity nicotinic receptors in subjects with schizophrenia. Neuropsychopharmacology 2000;23:351-64.
17. Miller D, Kelly M, Perry P, Coryell W. The influence of cigarette smoking on haloperidol pharmacokinetics. J Clin Psychiatry 1990;28:529-31.
18. Evins AE, Cather C, Rigotti NA, et al. Two-year follow up of a smoking cessation trial in patients with schizophrenia: increased rates of smoking cessation and reduction. J Clin Psychiatry 2004;65:307-12.
19. A clinical practice guideline for treating tobacco use and dependence: A US Public Health Service report. The Tobacco Use and Dependence Clinical Practice Guideline Panel, Staff, and Consortium Representatives. JAMA 2000;283:3244-54.
20. Weiner E, Ball MP, Summerfelt A, et al. Effects of sustained-release bupropion and supportive group therapy on cigarette consumption in patients with schizophrenia. Am J Psychiatry 2001;158:635-7.
21. George TP, Vessicchio JC, Termine A, et al. A placebo controlled trial of bupropion for smoking cessation in schizophrenia. Biol Psychiatry 2002;52:53-61.
22. Evins AE, Deckersbach T, Cather C, et al. A double-blind placebo-controlled trial of bupropion sustained release for smoking cessation in schizophrenia. J Clin Psychopharmacol 2005;25:218-25.
23. Williams JM, Ziedonis DM, Foulds J. A case series of nicotine nasal spray in the treatment of tobacco dependence among patients with schizophrenia. Psychiatr Serv 2004;55:1064-6.
24. Killen JD, Fortmann SP, Davis L, et al. Do heavy smokers benefit from higher dose nicotine patch therapy? Exp Clin Psychopharmacol 1999;7:226-33.
25. Hatsukami D, Mooney M, Murphy S, et al. Effects of high dose transdermal nicotine replacement in cigarette smokers. Pharmacol Biochem Behav 2007;86:132-9.
26. Blondal T, Gudmundsson L, Olafsdottir I, et al. Nicotine nasal spray with nicotine patch for smoking cessation: randomised trial with six year follow-up. BMJ 1999;318:285-8.
27. Evins AE, Cather C, Culhane MA, et al. A double-blind placebo-controlled study of bupropion SR added to high-dose, dual nicotine replacement therapy for smoking cessation or reduction in schizophrenia. J Clin Psychopharmacol. In press.
28. George TP, Ziedonis DM, Feingold A, et al. Nicotine transdermal patch and atypical antipsychotic medications for smoking cessation in schizophrenia. Am J Psychiatry 2000;157:1835-42.
29. Steinberg ML, Ziedonis DM, Krejci J, Brandon TH. Motivational interviewing with personalized feedback: a brief intervention for motivating smokers with schizophrenia to seek treatment for tobacco dependence. J Consult Clin Psychol 2004;72(4):723-8.
30. Williamson DF, Madans J, Anda RF, et al. Smoking cessation and severity of weight gain in a national cohort. N Engl J Med 1991;324:739-45.
31. Cooke JP, Bitterman H. Nicotine and angiogenesis: a new paradigm for tobacco-related diseases. Ann Med 2004;36:33-40.
When does conscientiousness become perfectionism?
Mr. C is a 50-year-old professional writer who recently made a serious suicide attempt. At his initial session, Mr. C was hesitant to discuss his situation and reason for attending. He did, however, bring a copy of his résumé so the therapist could “get to know him quickly.”
He said he had been depressed for a long time, especially since he found an error in one of his published works. His confidence and writing abilities seemed to decline after this discovery, his career took a downturn, and ultimately he was fired from his position. He described often being at odds with his supervisors at work, whom he saw as critical and condescending. He was mortified by his job loss and did not inform his wife or friends of his firing.
Mr. C had always been a bit of a loner, and after losing his job he further distanced himself from others. He began drinking heavily to avoid the pain of “letting everyone down.” His wife, family, and friends were shocked at the suicide attempt and expressed dismay that Mr. C had not confided in anyone.
Mr. C describes himself as being perfectionistic throughout his life and never being quite good enough in any of his pursuits. This leads to self-recriminations and persistent feelings of shame.
Far from being a positive attribute, perfectionism is a neurotic personality style that can result in serious psychopathology, including relationship problems, depression, anorexia nervosa, and suicide. Determining a patient’s perfectionistic traits is essential when evaluating those who seek treatment specifically for this distressing behavior as well as patients in treatment for other issues who may have a perfectionistic personality. Accurately assessing perfectionism can help you predict and forestall noncompliance, assess suicide risk, determine appropriate treatment and identify circumstances under which a patient might be particularly vulnerable to relapse.
This article describes:
- 3 traits of perfectionism
- 3 dimensions of perfectionistic self-presentation
- perfectionistic cognitions
- useful self-report tools for clinical practice
- effective treatments.
Characteristics of perfectionism
Although perfectionism initially was viewed as self-related cognitions, recent models suggest it incorporates intrapersonal and interpersonal dimensions.1 A person with perfectionism has a marked need for absolute perfection for the self and/or others in many—if not all—pursuits that is strongly rooted in his or her intrapersonal and interpersonal worlds. Other characteristics of perfectionism include:
- equating self-worth or esteem with performance
- self-punishment in failure and a lack of satisfaction in success
- maintaining and needing to strive for unrealistic expectations
- unrealistic criteria for success and broad criteria for failure.
We define perfectionism as a neurotic personality style involving perfectionist traits, self-presentation styles, and cognitions that is a core vulnerability factor for a variety of psychological, physical, achievement, and relationship problems (Table 2).1,3
3 traits. Three traits of perfectionism reflect the desire for the self or others to be perfect:
- self-oriented perfectionism—a requirement for the self to be perfect
- other-oriented perfectionism—a requirement for others to be perfect
- socially prescribed perfectionism—a perception that others require perfection of oneself.
3 self-presentational dimensions. The interpersonal expression of perfectionism is perfectionistic self-presentation. In our model, the 3 facets of perfectionistic self-presentation are:
- perfectionistic self-promotion—overt displays and statements of one’s supposed “perfection”
- nondisplay of imperfections—hiding any imperfections
- nondisclosure of imperfections—avoiding disclosure or discussion of any imperfection.3
Table 1
How perfectionism differs from conscientiousness
| Perfectionism | Achievement striving/conscientiousness |
|---|---|
| Receives no satisfaction from any performance | Experiences satisfaction with good performance |
| Experiences no rewards from any performance | Rewards self or others for good performance |
| Maintains expectations in the face of failure | Alters expectations in the face of failure |
| Is motivated by fear of failure | Is motivated by desire for success |
| Shows poor organization | Is organized |
| Focuses on flaws as indication of self-worth | Focuses less on flaws |
Table 2
Psychopathologies associated with perfectionism
| Perfectionism component | Description | Psychiatric outcomes |
|---|---|---|
| Perfectionism traits | ||
| Self-oriented perfectionism | Requires self to be perfect | Unipolar depression, anorexia nervosa |
| Other-oriented perfectionism | Requires others to be perfect | Personality disorders (PDs), relationship problems |
| Socially prescribed perfectionism | Perceives that others require one to be perfect | Suicidal behavior, general distress |
| Perfectionistic self-presentational styles | ||
| Perfectionistic self-promotion | Overtly promotes one’s ‘perfection’ | Narcissistic PD, other dramatic cluster PDs |
| Nondisplay of imperfections | Avoids demonstrating one’s imperfection | Poor help seeking, treatment nonadherence, anxiety in assessment and therapy |
| Nondisclosure of imperfections | Hides perceived imperfections from others | Poor therapy alliance, relationship problems |
| Perfectionistic cognitions | Inner dialogue regarding requirement to be perfect | General distress, severity of depression, anxiety |
| Source: References 1,3,5 | ||
Traits tied to psychopathology
Each of the 3 traits of perfectionism in our model has been associated with psychopathology in multiple studies.
Self-oriented perfectionism is often involved in Axis I disorders, including unipolar depression. This trait is elevated among adults and children diagnosed with major depressive disorder and may be pernicious in the presence of stressors, particularly achievement-related ones.6 In other words, self-oriented perfectionism appears to be a risk factor for unipolar depression.7,8
It also is elevated in women with anorexia nervosa compared with normal and psychiatric controls.9 Individuals with anorexia nervosa appear to have the highest levels of self-oriented perfectionism among clinical groups.
Other-oriented perfectionism is associated with antisocial and narcissistic personality disorders.10,11 It also is related to interpersonal problems and difficulties with marriage and intimate relationships.12
Socially prescribed perfectionism is highly elevated in patients with social phobia13 and narcissistic11 or borderline personality disorder.10 It also is associated with severity of depression, anxiety, and symptoms of hostility.7
Perhaps most important, determining a patient’s level of socially prescribed perfectionism can aid in assessing suicide risk. Socially prescribed perfectionism has been shown to be highly relevant in suicide ideation, ratings of suicide risk, and moderate- to high-intent suicide attempts in adults,14 adolescents, and children.15 Socially prescribed perfectionism has been found to be a unique predictor of suicide behaviors even after controlling for common predictors such as depression severity and hopelessness.
In addition, perfectionistic self-presentation appears to impair patients’ ability to access and benefit from treatment. Researchers (Hewitt PL, Lee-Baggley D, Sherry SB, et al., unpublished data, 2007) have found that the various dimensions of perfectionistic self-presentation are associated with:
- difficulty in seeking help for psychological problems
- increased distress in clinical interviews
- fears of psychotherapy and psychotherapists
- early termination of treatment.
Assessing perfectionistic behavior
A variety of brief self-report measures of perfectionism components—and at least one interview measure—can aid your assessment. These are brief instruments and take only a few minutes to complete. Each self-report measure assesses different aspects of perfectionism, such as traits, self-presentational styles, or cognitions (Table 3). The interview can be used as an alternative to the self-report tools.
Mr. C’s scores on several of these measures appear in Table 4. Interpretive information is available from the authors (see Related Resources). Empirical evidence supports the reliability and validity of these measures in clinical samples of both adults and children/adolescents.
Table 3
Perfectionism self-report assessment tools
| Traits or trait components |
| Hewitt and Flett Multidimensional Perfectionism Scale (for adults) |
| Flett and Hewitt Child and Adolescent Perfectionism Scale |
| Frost Multidimensional Perfectionism Scale (for adults) |
| Perfectionistic self-presentation |
| Hewitt and Flett Perfectionistic Self Presentation Scale (for adults) |
| Hewitt and Flett Perfectionistic Self Presentation Scale Junior (for children and adolescents) |
| Perfectionistic cognitions |
| Flett and Hewitt Perfectionism Cognitions Inventory (for adults) |
| Dysfunctional Attitude Scale (one subscale measures perfectionism; for adults) |
Interpreting scores on perfectionism self-reports
| Measure | Mr. C’s score | Possible outcome |
|---|---|---|
| MPS: Self-oriented perfectionism | 2 SD above normative mean | Depression symptoms |
| MPS: Other-oriented perfectionism | 0.5 SD above normative mean | |
| MPS: Socially prescribed perfectionism | 1 SD above normative mean | Suicide behavior |
| PSPS: Perfectionist self-promotion | 1.5 SD above normative mean | |
| PSPS: Nondisplay of imperfection | 1.5 SD above normative mean | Shame, avoidance |
| PSPS: Nondisclosure of imperfection | 2 SD above normative mean | Withdrawal from others, nondisclosure |
| PCI: Perfectionistic cognitions | .75 above normative mean | |
| MPS: Hewitt and Flett Multidimensional Perfectionism Scale; PCI: Hewitt and Flett Perfectionism Cognitions Inventory; PSPS: Hewitt and Flett Perfectionistic Self-Presentation Scale; SD: standard deviation | ||
Limited data on treatments
Few treatments for perfectionistic behavior have been systematically evaluated. Numerous studies have attempted to assess changes in perfectionism as the result of treatment for a specific Axis I disorder, but few have addressed treatment for perfectionism as a clinical entity.
Overall, it seems reasonable to expect that because perfectionism is a personality style, improvement would require fairly intensive, long-term treatment that explicitly emphasizes reducing dimensions of perfectionism.
Psychodynamic treatments focus on perfectionism’s underlying mechanisms and attempt to alter the patient’s personality structure. Studies suggest that intensive psychotherapy is most appropriate.
One of the first treatment evaluations from a reanalysis of Menninger Clinic data found the greatest improvements in patients receiving intensive psychoanalytically oriented treatment, compared with short-term psychotherapy or other treatments.16 More recent evaluations suggest that highly perfectionistic individuals can be treated effectively only with intensive, long-term psychodynamically oriented treatment17 and short-term interpersonal, cognitive, and medication therapies do little to alter perfectionistic behavior.
In our experience [PLH] perfectionistic individuals can improve significantly with long-term intensive treatment. On the other hand, we recently completed a study of the efficacy of a short-term, intensive psychodynamic/interpersonal group approach for treating perfectionism and its sequelae.
In this study,18 we focused on treating the interpersonal precursors or causes of perfectionism, such as attachment styles; interpersonal needs for respect, caring, acceptance, and belonging; and need to avoid rejection, abandonment, and humiliation. In 70 patients with high levels of perfectionism, this treatment significantly decreased perfectionism, symptoms of depression and anxiety, and interpersonal problems. These symptoms continued to be reduced from baseline 6 months later.
Cognitive-behavioral approaches. Several researchers’ findings suggest that cognitive restructuring, bibliotherapy, role-playing, coping strategies, homework assignments, and relaxation may help reduce the cognitive component of perfectionism.19,20 Other work indicates that cognitive interventions can reduce perfectionism. One study linked reductions in socially prescribed perfectionism to concomitant reductions in depression.21
Cognitive interventions can reduce perfectionistic concerns about mistakes and doubting actions, but other aspects of perfectionism—such as perceived parental unrealistic standards and criticisms—remain elevated and appear more treatment-resistant.24
Collectively, these data suggest that some treated patients may be at risk for relapse because persistent perfectionism contributes to a vulnerability to distress.
Medication. No studies have specifically assessed whether medications might reduce perfectionism. Imipramine did not have a significant effect on perfectionistic attitudes when used in the medication protocol of the National Institute of Mental Health Collaborative Study on Depression.17 Amitriptyline has alleviated some dysfunctional attitudes in depressed patients but not perfectionism.25
Research is needed to evaluate the efficacy of various treatments. At this early stage, it appears that:
- short-term gains might be achieved by reducing symptoms
- long-term, intensive psychodynamic treatment may be required to change the perfectionistic personality and its vulnerability effects.
Table 5
Treating perfectionism: Common patient challenges
|
- Flett GL, Hewitt PL. Perfectionism: theory, research and treatment. Washington, DC: American Psychological Association; 2002.
- Greenspon T. Freeing our families from perfectionism. Minneapolis: Free Spirit Publishing; 2002.
- For more information on interpreting self-report measures of perfectionism, contact Dr. Paul Hewitt, [email protected]; 604-822-5827.
- Amitriptyline • Elavil, Endep
- Imipramine • Tofranil
The authors thank Jonathan Blasberg for his help with this paper and the Social Sciences and Humanities Research Council of Canada for supporting this work.
1. Hewitt PL, Flett GL. Perfectionism in the self and social contexts: conceptualization, assessment, and association with psychopathology. J Pers Soc Psychol 1991;60:456-70.
2. Slade PD, Owens RG. A dual process model of perfectionism based on reinforcement theory. Behav Modif 1998;22:372-90.
3. Hewitt PL, Flett GL, Sherry SB, et al. The interpersonal expression of perfectionism: perfectionistic self-presentation and psychological distress. J Pers Soc Psychol 2003;84:1303-25.
4. Flett GL, Hewitt PL. Perfectionism: theory, research and treatment. Washington, DC: American Psychological Association; 2002.
5. Flett GL, Hewitt PL, Blankstein K, Gray L. Psychological distress and the frequency of perfectionistic thinking. J Pers Soc Psychol 1998;75:1363-81.
6. Hewitt PL, Flett GL. Dimensions of perfectionism in unipolar depression. J Abnorm Psychol 1991;100:98-101.
7. Hewitt PL, Flett GL. Perfectionism, hassles, and depression: a test of the vulnerability hypothesis. J Abnorm Psychol 1993;102:58-65.
8. Hewitt PL, Flett GL, Ediger E. Perfectionism and depression: longitudinal assessment of a specific vulnerability hypothesis. J Abnorm Psychol 1996;105:276-80.
9. Cockell S, Hewitt PL, Seal B, et al. Trait and self-presentational dimensions of perfectionism among women with anorexia nervosa. Cognit Ther Res 2002;26:745-58.
10. Hewitt PL, Flett GL, Turnbull W. Borderline personality disorder: an investigation with the Multidimensional Perfectionism Scale. European Journal of Psychological Assessment 1994;10:28-33.
11. McCown W, Carlson G. Narcissism, perfectionism, and self-termination from treatment in outpatient cocaine abusers. Journal of Rational-Emotive and Cognitive-Behavior Therapy 2004;22:329-40.
12. Hewitt PL, Flett GL, Mikail S. Perfectionism and relationship adjustment in pain patients and their spouses. J Fam Psychol 1995;9:335-47.
13. Antony M, Purdon CL, Huda V, Swinson RP. Dimensions of perfectionism across the anxiety disorders. Behav Res Ther 1998;36:1143-54.
14. Hewitt PL, Norton GR, Flett GL, et al. Dimensions of perfectionism, hopelessness, and attempted suicide in a sample of alcoholics. Suicide Life Threat Behav 1998;28:395-406.
15. Hewitt PL, Newton J, Flett GL, Callander L. Perfectionism and suicide ideation in adolescent psychiatric patients. J Abnorm Child Psychol 1997;25:95-101.
16. Blatt SJ. The differential effect of psychotherapy and psychoanalysis on anaclitic and introjective patients: the Menninger Psychotherapy Research Project revisited. J Am Psychoanal Assoc 1992;40:691-724.
17. Blatt SJ. Experiences of depression: theoretical, clinical, and research perspectives. Washington, DC: American Psychological Association; 2004.
18. Hewitt PL, Flett GL. The Multidimensional Perfectionism Scale: technical manual. Toronto: Multihealth Systems Inc; 2004.
19. DiBartolo PM, Frost RO, Dixon A, Almodovar S. Can cognitive restructuring reduce the disruption associated with perfectionistic concerns? Behav Ther 2001;32:167-84.
20. Ferguson KL, Rodway MR. Cognitive behavioral therapy of perfectionism: initial evaluation studies. Res Soc Work Pract 1994;4:283-308.
21. Enns WM, Cox BJ, Pidlubny SR. Group cognitive behaviour therapy for residual depression: effectiveness and predictors of response. Cogn Behav Ther 2002;31:31-40.
22. Cox BJ, Enns MW. Relative stability of dimensions of perfectionism in depression. Can J Behav Sci 2003;35:124-32.
23. Lundh L, Ost L. Attentional bias, self-consciousness and perfectionism in social phobia before and after cognitive-behaviour therapy. Scandinavian Journal of Behaviour Therapy 2001;30:4-16.
24. Ashbaugh A, Antony MM, Liss A, et al. Changes in perfectionism following cognitive-behavioral treatment for social phobia. Depress Anxiety 2007;24:169-77.
25. Reda MA, Carpiniello B, Secchiaroli L, Blanco S. Thinking, depression, and antidepressants: modified and unmodified depressive beliefs during treatment with amitriptyline. Cognit Ther Res 1985;9:135-43.
Mr. C is a 50-year-old professional writer who recently made a serious suicide attempt. At his initial session, Mr. C was hesitant to discuss his situation and reason for attending. He did, however, bring a copy of his résumé so the therapist could “get to know him quickly.”
He said he had been depressed for a long time, especially since he found an error in one of his published works. His confidence and writing abilities seemed to decline after this discovery, his career took a downturn, and ultimately he was fired from his position. He described often being at odds with his supervisors at work, whom he saw as critical and condescending. He was mortified by his job loss and did not inform his wife or friends of his firing.
Mr. C had always been a bit of a loner, and after losing his job he further distanced himself from others. He began drinking heavily to avoid the pain of “letting everyone down.” His wife, family, and friends were shocked at the suicide attempt and expressed dismay that Mr. C had not confided in anyone.
Mr. C describes himself as being perfectionistic throughout his life and never being quite good enough in any of his pursuits. This leads to self-recriminations and persistent feelings of shame.
Far from being a positive attribute, perfectionism is a neurotic personality style that can result in serious psychopathology, including relationship problems, depression, anorexia nervosa, and suicide. Determining a patient’s perfectionistic traits is essential when evaluating those who seek treatment specifically for this distressing behavior as well as patients in treatment for other issues who may have a perfectionistic personality. Accurately assessing perfectionism can help you predict and forestall noncompliance, assess suicide risk, determine appropriate treatment and identify circumstances under which a patient might be particularly vulnerable to relapse.
This article describes:
- 3 traits of perfectionism
- 3 dimensions of perfectionistic self-presentation
- perfectionistic cognitions
- useful self-report tools for clinical practice
- effective treatments.
Characteristics of perfectionism
Although perfectionism initially was viewed as self-related cognitions, recent models suggest it incorporates intrapersonal and interpersonal dimensions.1 A person with perfectionism has a marked need for absolute perfection for the self and/or others in many—if not all—pursuits that is strongly rooted in his or her intrapersonal and interpersonal worlds. Other characteristics of perfectionism include:
- equating self-worth or esteem with performance
- self-punishment in failure and a lack of satisfaction in success
- maintaining and needing to strive for unrealistic expectations
- unrealistic criteria for success and broad criteria for failure.
We define perfectionism as a neurotic personality style involving perfectionist traits, self-presentation styles, and cognitions that is a core vulnerability factor for a variety of psychological, physical, achievement, and relationship problems (Table 2).1,3
3 traits. Three traits of perfectionism reflect the desire for the self or others to be perfect:
- self-oriented perfectionism—a requirement for the self to be perfect
- other-oriented perfectionism—a requirement for others to be perfect
- socially prescribed perfectionism—a perception that others require perfection of oneself.
3 self-presentational dimensions. The interpersonal expression of perfectionism is perfectionistic self-presentation. In our model, the 3 facets of perfectionistic self-presentation are:
- perfectionistic self-promotion—overt displays and statements of one’s supposed “perfection”
- nondisplay of imperfections—hiding any imperfections
- nondisclosure of imperfections—avoiding disclosure or discussion of any imperfection.3
Table 1
How perfectionism differs from conscientiousness
| Perfectionism | Achievement striving/conscientiousness |
|---|---|
| Receives no satisfaction from any performance | Experiences satisfaction with good performance |
| Experiences no rewards from any performance | Rewards self or others for good performance |
| Maintains expectations in the face of failure | Alters expectations in the face of failure |
| Is motivated by fear of failure | Is motivated by desire for success |
| Shows poor organization | Is organized |
| Focuses on flaws as indication of self-worth | Focuses less on flaws |
Table 2
Psychopathologies associated with perfectionism
| Perfectionism component | Description | Psychiatric outcomes |
|---|---|---|
| Perfectionism traits | ||
| Self-oriented perfectionism | Requires self to be perfect | Unipolar depression, anorexia nervosa |
| Other-oriented perfectionism | Requires others to be perfect | Personality disorders (PDs), relationship problems |
| Socially prescribed perfectionism | Perceives that others require one to be perfect | Suicidal behavior, general distress |
| Perfectionistic self-presentational styles | ||
| Perfectionistic self-promotion | Overtly promotes one’s ‘perfection’ | Narcissistic PD, other dramatic cluster PDs |
| Nondisplay of imperfections | Avoids demonstrating one’s imperfection | Poor help seeking, treatment nonadherence, anxiety in assessment and therapy |
| Nondisclosure of imperfections | Hides perceived imperfections from others | Poor therapy alliance, relationship problems |
| Perfectionistic cognitions | Inner dialogue regarding requirement to be perfect | General distress, severity of depression, anxiety |
| Source: References 1,3,5 | ||
Traits tied to psychopathology
Each of the 3 traits of perfectionism in our model has been associated with psychopathology in multiple studies.
Self-oriented perfectionism is often involved in Axis I disorders, including unipolar depression. This trait is elevated among adults and children diagnosed with major depressive disorder and may be pernicious in the presence of stressors, particularly achievement-related ones.6 In other words, self-oriented perfectionism appears to be a risk factor for unipolar depression.7,8
It also is elevated in women with anorexia nervosa compared with normal and psychiatric controls.9 Individuals with anorexia nervosa appear to have the highest levels of self-oriented perfectionism among clinical groups.
Other-oriented perfectionism is associated with antisocial and narcissistic personality disorders.10,11 It also is related to interpersonal problems and difficulties with marriage and intimate relationships.12
Socially prescribed perfectionism is highly elevated in patients with social phobia13 and narcissistic11 or borderline personality disorder.10 It also is associated with severity of depression, anxiety, and symptoms of hostility.7
Perhaps most important, determining a patient’s level of socially prescribed perfectionism can aid in assessing suicide risk. Socially prescribed perfectionism has been shown to be highly relevant in suicide ideation, ratings of suicide risk, and moderate- to high-intent suicide attempts in adults,14 adolescents, and children.15 Socially prescribed perfectionism has been found to be a unique predictor of suicide behaviors even after controlling for common predictors such as depression severity and hopelessness.
In addition, perfectionistic self-presentation appears to impair patients’ ability to access and benefit from treatment. Researchers (Hewitt PL, Lee-Baggley D, Sherry SB, et al., unpublished data, 2007) have found that the various dimensions of perfectionistic self-presentation are associated with:
- difficulty in seeking help for psychological problems
- increased distress in clinical interviews
- fears of psychotherapy and psychotherapists
- early termination of treatment.
Assessing perfectionistic behavior
A variety of brief self-report measures of perfectionism components—and at least one interview measure—can aid your assessment. These are brief instruments and take only a few minutes to complete. Each self-report measure assesses different aspects of perfectionism, such as traits, self-presentational styles, or cognitions (Table 3). The interview can be used as an alternative to the self-report tools.
Mr. C’s scores on several of these measures appear in Table 4. Interpretive information is available from the authors (see Related Resources). Empirical evidence supports the reliability and validity of these measures in clinical samples of both adults and children/adolescents.
Table 3
Perfectionism self-report assessment tools
| Traits or trait components |
| Hewitt and Flett Multidimensional Perfectionism Scale (for adults) |
| Flett and Hewitt Child and Adolescent Perfectionism Scale |
| Frost Multidimensional Perfectionism Scale (for adults) |
| Perfectionistic self-presentation |
| Hewitt and Flett Perfectionistic Self Presentation Scale (for adults) |
| Hewitt and Flett Perfectionistic Self Presentation Scale Junior (for children and adolescents) |
| Perfectionistic cognitions |
| Flett and Hewitt Perfectionism Cognitions Inventory (for adults) |
| Dysfunctional Attitude Scale (one subscale measures perfectionism; for adults) |
Interpreting scores on perfectionism self-reports
| Measure | Mr. C’s score | Possible outcome |
|---|---|---|
| MPS: Self-oriented perfectionism | 2 SD above normative mean | Depression symptoms |
| MPS: Other-oriented perfectionism | 0.5 SD above normative mean | |
| MPS: Socially prescribed perfectionism | 1 SD above normative mean | Suicide behavior |
| PSPS: Perfectionist self-promotion | 1.5 SD above normative mean | |
| PSPS: Nondisplay of imperfection | 1.5 SD above normative mean | Shame, avoidance |
| PSPS: Nondisclosure of imperfection | 2 SD above normative mean | Withdrawal from others, nondisclosure |
| PCI: Perfectionistic cognitions | .75 above normative mean | |
| MPS: Hewitt and Flett Multidimensional Perfectionism Scale; PCI: Hewitt and Flett Perfectionism Cognitions Inventory; PSPS: Hewitt and Flett Perfectionistic Self-Presentation Scale; SD: standard deviation | ||
Limited data on treatments
Few treatments for perfectionistic behavior have been systematically evaluated. Numerous studies have attempted to assess changes in perfectionism as the result of treatment for a specific Axis I disorder, but few have addressed treatment for perfectionism as a clinical entity.
Overall, it seems reasonable to expect that because perfectionism is a personality style, improvement would require fairly intensive, long-term treatment that explicitly emphasizes reducing dimensions of perfectionism.
Psychodynamic treatments focus on perfectionism’s underlying mechanisms and attempt to alter the patient’s personality structure. Studies suggest that intensive psychotherapy is most appropriate.
One of the first treatment evaluations from a reanalysis of Menninger Clinic data found the greatest improvements in patients receiving intensive psychoanalytically oriented treatment, compared with short-term psychotherapy or other treatments.16 More recent evaluations suggest that highly perfectionistic individuals can be treated effectively only with intensive, long-term psychodynamically oriented treatment17 and short-term interpersonal, cognitive, and medication therapies do little to alter perfectionistic behavior.
In our experience [PLH] perfectionistic individuals can improve significantly with long-term intensive treatment. On the other hand, we recently completed a study of the efficacy of a short-term, intensive psychodynamic/interpersonal group approach for treating perfectionism and its sequelae.
In this study,18 we focused on treating the interpersonal precursors or causes of perfectionism, such as attachment styles; interpersonal needs for respect, caring, acceptance, and belonging; and need to avoid rejection, abandonment, and humiliation. In 70 patients with high levels of perfectionism, this treatment significantly decreased perfectionism, symptoms of depression and anxiety, and interpersonal problems. These symptoms continued to be reduced from baseline 6 months later.
Cognitive-behavioral approaches. Several researchers’ findings suggest that cognitive restructuring, bibliotherapy, role-playing, coping strategies, homework assignments, and relaxation may help reduce the cognitive component of perfectionism.19,20 Other work indicates that cognitive interventions can reduce perfectionism. One study linked reductions in socially prescribed perfectionism to concomitant reductions in depression.21
Cognitive interventions can reduce perfectionistic concerns about mistakes and doubting actions, but other aspects of perfectionism—such as perceived parental unrealistic standards and criticisms—remain elevated and appear more treatment-resistant.24
Collectively, these data suggest that some treated patients may be at risk for relapse because persistent perfectionism contributes to a vulnerability to distress.
Medication. No studies have specifically assessed whether medications might reduce perfectionism. Imipramine did not have a significant effect on perfectionistic attitudes when used in the medication protocol of the National Institute of Mental Health Collaborative Study on Depression.17 Amitriptyline has alleviated some dysfunctional attitudes in depressed patients but not perfectionism.25
Research is needed to evaluate the efficacy of various treatments. At this early stage, it appears that:
- short-term gains might be achieved by reducing symptoms
- long-term, intensive psychodynamic treatment may be required to change the perfectionistic personality and its vulnerability effects.
Table 5
Treating perfectionism: Common patient challenges
|
- Flett GL, Hewitt PL. Perfectionism: theory, research and treatment. Washington, DC: American Psychological Association; 2002.
- Greenspon T. Freeing our families from perfectionism. Minneapolis: Free Spirit Publishing; 2002.
- For more information on interpreting self-report measures of perfectionism, contact Dr. Paul Hewitt, [email protected]; 604-822-5827.
- Amitriptyline • Elavil, Endep
- Imipramine • Tofranil
The authors thank Jonathan Blasberg for his help with this paper and the Social Sciences and Humanities Research Council of Canada for supporting this work.
Mr. C is a 50-year-old professional writer who recently made a serious suicide attempt. At his initial session, Mr. C was hesitant to discuss his situation and reason for attending. He did, however, bring a copy of his résumé so the therapist could “get to know him quickly.”
He said he had been depressed for a long time, especially since he found an error in one of his published works. His confidence and writing abilities seemed to decline after this discovery, his career took a downturn, and ultimately he was fired from his position. He described often being at odds with his supervisors at work, whom he saw as critical and condescending. He was mortified by his job loss and did not inform his wife or friends of his firing.
Mr. C had always been a bit of a loner, and after losing his job he further distanced himself from others. He began drinking heavily to avoid the pain of “letting everyone down.” His wife, family, and friends were shocked at the suicide attempt and expressed dismay that Mr. C had not confided in anyone.
Mr. C describes himself as being perfectionistic throughout his life and never being quite good enough in any of his pursuits. This leads to self-recriminations and persistent feelings of shame.
Far from being a positive attribute, perfectionism is a neurotic personality style that can result in serious psychopathology, including relationship problems, depression, anorexia nervosa, and suicide. Determining a patient’s perfectionistic traits is essential when evaluating those who seek treatment specifically for this distressing behavior as well as patients in treatment for other issues who may have a perfectionistic personality. Accurately assessing perfectionism can help you predict and forestall noncompliance, assess suicide risk, determine appropriate treatment and identify circumstances under which a patient might be particularly vulnerable to relapse.
This article describes:
- 3 traits of perfectionism
- 3 dimensions of perfectionistic self-presentation
- perfectionistic cognitions
- useful self-report tools for clinical practice
- effective treatments.
Characteristics of perfectionism
Although perfectionism initially was viewed as self-related cognitions, recent models suggest it incorporates intrapersonal and interpersonal dimensions.1 A person with perfectionism has a marked need for absolute perfection for the self and/or others in many—if not all—pursuits that is strongly rooted in his or her intrapersonal and interpersonal worlds. Other characteristics of perfectionism include:
- equating self-worth or esteem with performance
- self-punishment in failure and a lack of satisfaction in success
- maintaining and needing to strive for unrealistic expectations
- unrealistic criteria for success and broad criteria for failure.
We define perfectionism as a neurotic personality style involving perfectionist traits, self-presentation styles, and cognitions that is a core vulnerability factor for a variety of psychological, physical, achievement, and relationship problems (Table 2).1,3
3 traits. Three traits of perfectionism reflect the desire for the self or others to be perfect:
- self-oriented perfectionism—a requirement for the self to be perfect
- other-oriented perfectionism—a requirement for others to be perfect
- socially prescribed perfectionism—a perception that others require perfection of oneself.
3 self-presentational dimensions. The interpersonal expression of perfectionism is perfectionistic self-presentation. In our model, the 3 facets of perfectionistic self-presentation are:
- perfectionistic self-promotion—overt displays and statements of one’s supposed “perfection”
- nondisplay of imperfections—hiding any imperfections
- nondisclosure of imperfections—avoiding disclosure or discussion of any imperfection.3
Table 1
How perfectionism differs from conscientiousness
| Perfectionism | Achievement striving/conscientiousness |
|---|---|
| Receives no satisfaction from any performance | Experiences satisfaction with good performance |
| Experiences no rewards from any performance | Rewards self or others for good performance |
| Maintains expectations in the face of failure | Alters expectations in the face of failure |
| Is motivated by fear of failure | Is motivated by desire for success |
| Shows poor organization | Is organized |
| Focuses on flaws as indication of self-worth | Focuses less on flaws |
Table 2
Psychopathologies associated with perfectionism
| Perfectionism component | Description | Psychiatric outcomes |
|---|---|---|
| Perfectionism traits | ||
| Self-oriented perfectionism | Requires self to be perfect | Unipolar depression, anorexia nervosa |
| Other-oriented perfectionism | Requires others to be perfect | Personality disorders (PDs), relationship problems |
| Socially prescribed perfectionism | Perceives that others require one to be perfect | Suicidal behavior, general distress |
| Perfectionistic self-presentational styles | ||
| Perfectionistic self-promotion | Overtly promotes one’s ‘perfection’ | Narcissistic PD, other dramatic cluster PDs |
| Nondisplay of imperfections | Avoids demonstrating one’s imperfection | Poor help seeking, treatment nonadherence, anxiety in assessment and therapy |
| Nondisclosure of imperfections | Hides perceived imperfections from others | Poor therapy alliance, relationship problems |
| Perfectionistic cognitions | Inner dialogue regarding requirement to be perfect | General distress, severity of depression, anxiety |
| Source: References 1,3,5 | ||
Traits tied to psychopathology
Each of the 3 traits of perfectionism in our model has been associated with psychopathology in multiple studies.
Self-oriented perfectionism is often involved in Axis I disorders, including unipolar depression. This trait is elevated among adults and children diagnosed with major depressive disorder and may be pernicious in the presence of stressors, particularly achievement-related ones.6 In other words, self-oriented perfectionism appears to be a risk factor for unipolar depression.7,8
It also is elevated in women with anorexia nervosa compared with normal and psychiatric controls.9 Individuals with anorexia nervosa appear to have the highest levels of self-oriented perfectionism among clinical groups.
Other-oriented perfectionism is associated with antisocial and narcissistic personality disorders.10,11 It also is related to interpersonal problems and difficulties with marriage and intimate relationships.12
Socially prescribed perfectionism is highly elevated in patients with social phobia13 and narcissistic11 or borderline personality disorder.10 It also is associated with severity of depression, anxiety, and symptoms of hostility.7
Perhaps most important, determining a patient’s level of socially prescribed perfectionism can aid in assessing suicide risk. Socially prescribed perfectionism has been shown to be highly relevant in suicide ideation, ratings of suicide risk, and moderate- to high-intent suicide attempts in adults,14 adolescents, and children.15 Socially prescribed perfectionism has been found to be a unique predictor of suicide behaviors even after controlling for common predictors such as depression severity and hopelessness.
In addition, perfectionistic self-presentation appears to impair patients’ ability to access and benefit from treatment. Researchers (Hewitt PL, Lee-Baggley D, Sherry SB, et al., unpublished data, 2007) have found that the various dimensions of perfectionistic self-presentation are associated with:
- difficulty in seeking help for psychological problems
- increased distress in clinical interviews
- fears of psychotherapy and psychotherapists
- early termination of treatment.
Assessing perfectionistic behavior
A variety of brief self-report measures of perfectionism components—and at least one interview measure—can aid your assessment. These are brief instruments and take only a few minutes to complete. Each self-report measure assesses different aspects of perfectionism, such as traits, self-presentational styles, or cognitions (Table 3). The interview can be used as an alternative to the self-report tools.
Mr. C’s scores on several of these measures appear in Table 4. Interpretive information is available from the authors (see Related Resources). Empirical evidence supports the reliability and validity of these measures in clinical samples of both adults and children/adolescents.
Table 3
Perfectionism self-report assessment tools
| Traits or trait components |
| Hewitt and Flett Multidimensional Perfectionism Scale (for adults) |
| Flett and Hewitt Child and Adolescent Perfectionism Scale |
| Frost Multidimensional Perfectionism Scale (for adults) |
| Perfectionistic self-presentation |
| Hewitt and Flett Perfectionistic Self Presentation Scale (for adults) |
| Hewitt and Flett Perfectionistic Self Presentation Scale Junior (for children and adolescents) |
| Perfectionistic cognitions |
| Flett and Hewitt Perfectionism Cognitions Inventory (for adults) |
| Dysfunctional Attitude Scale (one subscale measures perfectionism; for adults) |
Interpreting scores on perfectionism self-reports
| Measure | Mr. C’s score | Possible outcome |
|---|---|---|
| MPS: Self-oriented perfectionism | 2 SD above normative mean | Depression symptoms |
| MPS: Other-oriented perfectionism | 0.5 SD above normative mean | |
| MPS: Socially prescribed perfectionism | 1 SD above normative mean | Suicide behavior |
| PSPS: Perfectionist self-promotion | 1.5 SD above normative mean | |
| PSPS: Nondisplay of imperfection | 1.5 SD above normative mean | Shame, avoidance |
| PSPS: Nondisclosure of imperfection | 2 SD above normative mean | Withdrawal from others, nondisclosure |
| PCI: Perfectionistic cognitions | .75 above normative mean | |
| MPS: Hewitt and Flett Multidimensional Perfectionism Scale; PCI: Hewitt and Flett Perfectionism Cognitions Inventory; PSPS: Hewitt and Flett Perfectionistic Self-Presentation Scale; SD: standard deviation | ||
Limited data on treatments
Few treatments for perfectionistic behavior have been systematically evaluated. Numerous studies have attempted to assess changes in perfectionism as the result of treatment for a specific Axis I disorder, but few have addressed treatment for perfectionism as a clinical entity.
Overall, it seems reasonable to expect that because perfectionism is a personality style, improvement would require fairly intensive, long-term treatment that explicitly emphasizes reducing dimensions of perfectionism.
Psychodynamic treatments focus on perfectionism’s underlying mechanisms and attempt to alter the patient’s personality structure. Studies suggest that intensive psychotherapy is most appropriate.
One of the first treatment evaluations from a reanalysis of Menninger Clinic data found the greatest improvements in patients receiving intensive psychoanalytically oriented treatment, compared with short-term psychotherapy or other treatments.16 More recent evaluations suggest that highly perfectionistic individuals can be treated effectively only with intensive, long-term psychodynamically oriented treatment17 and short-term interpersonal, cognitive, and medication therapies do little to alter perfectionistic behavior.
In our experience [PLH] perfectionistic individuals can improve significantly with long-term intensive treatment. On the other hand, we recently completed a study of the efficacy of a short-term, intensive psychodynamic/interpersonal group approach for treating perfectionism and its sequelae.
In this study,18 we focused on treating the interpersonal precursors or causes of perfectionism, such as attachment styles; interpersonal needs for respect, caring, acceptance, and belonging; and need to avoid rejection, abandonment, and humiliation. In 70 patients with high levels of perfectionism, this treatment significantly decreased perfectionism, symptoms of depression and anxiety, and interpersonal problems. These symptoms continued to be reduced from baseline 6 months later.
Cognitive-behavioral approaches. Several researchers’ findings suggest that cognitive restructuring, bibliotherapy, role-playing, coping strategies, homework assignments, and relaxation may help reduce the cognitive component of perfectionism.19,20 Other work indicates that cognitive interventions can reduce perfectionism. One study linked reductions in socially prescribed perfectionism to concomitant reductions in depression.21
Cognitive interventions can reduce perfectionistic concerns about mistakes and doubting actions, but other aspects of perfectionism—such as perceived parental unrealistic standards and criticisms—remain elevated and appear more treatment-resistant.24
Collectively, these data suggest that some treated patients may be at risk for relapse because persistent perfectionism contributes to a vulnerability to distress.
Medication. No studies have specifically assessed whether medications might reduce perfectionism. Imipramine did not have a significant effect on perfectionistic attitudes when used in the medication protocol of the National Institute of Mental Health Collaborative Study on Depression.17 Amitriptyline has alleviated some dysfunctional attitudes in depressed patients but not perfectionism.25
Research is needed to evaluate the efficacy of various treatments. At this early stage, it appears that:
- short-term gains might be achieved by reducing symptoms
- long-term, intensive psychodynamic treatment may be required to change the perfectionistic personality and its vulnerability effects.
Table 5
Treating perfectionism: Common patient challenges
|
- Flett GL, Hewitt PL. Perfectionism: theory, research and treatment. Washington, DC: American Psychological Association; 2002.
- Greenspon T. Freeing our families from perfectionism. Minneapolis: Free Spirit Publishing; 2002.
- For more information on interpreting self-report measures of perfectionism, contact Dr. Paul Hewitt, [email protected]; 604-822-5827.
- Amitriptyline • Elavil, Endep
- Imipramine • Tofranil
The authors thank Jonathan Blasberg for his help with this paper and the Social Sciences and Humanities Research Council of Canada for supporting this work.
1. Hewitt PL, Flett GL. Perfectionism in the self and social contexts: conceptualization, assessment, and association with psychopathology. J Pers Soc Psychol 1991;60:456-70.
2. Slade PD, Owens RG. A dual process model of perfectionism based on reinforcement theory. Behav Modif 1998;22:372-90.
3. Hewitt PL, Flett GL, Sherry SB, et al. The interpersonal expression of perfectionism: perfectionistic self-presentation and psychological distress. J Pers Soc Psychol 2003;84:1303-25.
4. Flett GL, Hewitt PL. Perfectionism: theory, research and treatment. Washington, DC: American Psychological Association; 2002.
5. Flett GL, Hewitt PL, Blankstein K, Gray L. Psychological distress and the frequency of perfectionistic thinking. J Pers Soc Psychol 1998;75:1363-81.
6. Hewitt PL, Flett GL. Dimensions of perfectionism in unipolar depression. J Abnorm Psychol 1991;100:98-101.
7. Hewitt PL, Flett GL. Perfectionism, hassles, and depression: a test of the vulnerability hypothesis. J Abnorm Psychol 1993;102:58-65.
8. Hewitt PL, Flett GL, Ediger E. Perfectionism and depression: longitudinal assessment of a specific vulnerability hypothesis. J Abnorm Psychol 1996;105:276-80.
9. Cockell S, Hewitt PL, Seal B, et al. Trait and self-presentational dimensions of perfectionism among women with anorexia nervosa. Cognit Ther Res 2002;26:745-58.
10. Hewitt PL, Flett GL, Turnbull W. Borderline personality disorder: an investigation with the Multidimensional Perfectionism Scale. European Journal of Psychological Assessment 1994;10:28-33.
11. McCown W, Carlson G. Narcissism, perfectionism, and self-termination from treatment in outpatient cocaine abusers. Journal of Rational-Emotive and Cognitive-Behavior Therapy 2004;22:329-40.
12. Hewitt PL, Flett GL, Mikail S. Perfectionism and relationship adjustment in pain patients and their spouses. J Fam Psychol 1995;9:335-47.
13. Antony M, Purdon CL, Huda V, Swinson RP. Dimensions of perfectionism across the anxiety disorders. Behav Res Ther 1998;36:1143-54.
14. Hewitt PL, Norton GR, Flett GL, et al. Dimensions of perfectionism, hopelessness, and attempted suicide in a sample of alcoholics. Suicide Life Threat Behav 1998;28:395-406.
15. Hewitt PL, Newton J, Flett GL, Callander L. Perfectionism and suicide ideation in adolescent psychiatric patients. J Abnorm Child Psychol 1997;25:95-101.
16. Blatt SJ. The differential effect of psychotherapy and psychoanalysis on anaclitic and introjective patients: the Menninger Psychotherapy Research Project revisited. J Am Psychoanal Assoc 1992;40:691-724.
17. Blatt SJ. Experiences of depression: theoretical, clinical, and research perspectives. Washington, DC: American Psychological Association; 2004.
18. Hewitt PL, Flett GL. The Multidimensional Perfectionism Scale: technical manual. Toronto: Multihealth Systems Inc; 2004.
19. DiBartolo PM, Frost RO, Dixon A, Almodovar S. Can cognitive restructuring reduce the disruption associated with perfectionistic concerns? Behav Ther 2001;32:167-84.
20. Ferguson KL, Rodway MR. Cognitive behavioral therapy of perfectionism: initial evaluation studies. Res Soc Work Pract 1994;4:283-308.
21. Enns WM, Cox BJ, Pidlubny SR. Group cognitive behaviour therapy for residual depression: effectiveness and predictors of response. Cogn Behav Ther 2002;31:31-40.
22. Cox BJ, Enns MW. Relative stability of dimensions of perfectionism in depression. Can J Behav Sci 2003;35:124-32.
23. Lundh L, Ost L. Attentional bias, self-consciousness and perfectionism in social phobia before and after cognitive-behaviour therapy. Scandinavian Journal of Behaviour Therapy 2001;30:4-16.
24. Ashbaugh A, Antony MM, Liss A, et al. Changes in perfectionism following cognitive-behavioral treatment for social phobia. Depress Anxiety 2007;24:169-77.
25. Reda MA, Carpiniello B, Secchiaroli L, Blanco S. Thinking, depression, and antidepressants: modified and unmodified depressive beliefs during treatment with amitriptyline. Cognit Ther Res 1985;9:135-43.
1. Hewitt PL, Flett GL. Perfectionism in the self and social contexts: conceptualization, assessment, and association with psychopathology. J Pers Soc Psychol 1991;60:456-70.
2. Slade PD, Owens RG. A dual process model of perfectionism based on reinforcement theory. Behav Modif 1998;22:372-90.
3. Hewitt PL, Flett GL, Sherry SB, et al. The interpersonal expression of perfectionism: perfectionistic self-presentation and psychological distress. J Pers Soc Psychol 2003;84:1303-25.
4. Flett GL, Hewitt PL. Perfectionism: theory, research and treatment. Washington, DC: American Psychological Association; 2002.
5. Flett GL, Hewitt PL, Blankstein K, Gray L. Psychological distress and the frequency of perfectionistic thinking. J Pers Soc Psychol 1998;75:1363-81.
6. Hewitt PL, Flett GL. Dimensions of perfectionism in unipolar depression. J Abnorm Psychol 1991;100:98-101.
7. Hewitt PL, Flett GL. Perfectionism, hassles, and depression: a test of the vulnerability hypothesis. J Abnorm Psychol 1993;102:58-65.
8. Hewitt PL, Flett GL, Ediger E. Perfectionism and depression: longitudinal assessment of a specific vulnerability hypothesis. J Abnorm Psychol 1996;105:276-80.
9. Cockell S, Hewitt PL, Seal B, et al. Trait and self-presentational dimensions of perfectionism among women with anorexia nervosa. Cognit Ther Res 2002;26:745-58.
10. Hewitt PL, Flett GL, Turnbull W. Borderline personality disorder: an investigation with the Multidimensional Perfectionism Scale. European Journal of Psychological Assessment 1994;10:28-33.
11. McCown W, Carlson G. Narcissism, perfectionism, and self-termination from treatment in outpatient cocaine abusers. Journal of Rational-Emotive and Cognitive-Behavior Therapy 2004;22:329-40.
12. Hewitt PL, Flett GL, Mikail S. Perfectionism and relationship adjustment in pain patients and their spouses. J Fam Psychol 1995;9:335-47.
13. Antony M, Purdon CL, Huda V, Swinson RP. Dimensions of perfectionism across the anxiety disorders. Behav Res Ther 1998;36:1143-54.
14. Hewitt PL, Norton GR, Flett GL, et al. Dimensions of perfectionism, hopelessness, and attempted suicide in a sample of alcoholics. Suicide Life Threat Behav 1998;28:395-406.
15. Hewitt PL, Newton J, Flett GL, Callander L. Perfectionism and suicide ideation in adolescent psychiatric patients. J Abnorm Child Psychol 1997;25:95-101.
16. Blatt SJ. The differential effect of psychotherapy and psychoanalysis on anaclitic and introjective patients: the Menninger Psychotherapy Research Project revisited. J Am Psychoanal Assoc 1992;40:691-724.
17. Blatt SJ. Experiences of depression: theoretical, clinical, and research perspectives. Washington, DC: American Psychological Association; 2004.
18. Hewitt PL, Flett GL. The Multidimensional Perfectionism Scale: technical manual. Toronto: Multihealth Systems Inc; 2004.
19. DiBartolo PM, Frost RO, Dixon A, Almodovar S. Can cognitive restructuring reduce the disruption associated with perfectionistic concerns? Behav Ther 2001;32:167-84.
20. Ferguson KL, Rodway MR. Cognitive behavioral therapy of perfectionism: initial evaluation studies. Res Soc Work Pract 1994;4:283-308.
21. Enns WM, Cox BJ, Pidlubny SR. Group cognitive behaviour therapy for residual depression: effectiveness and predictors of response. Cogn Behav Ther 2002;31:31-40.
22. Cox BJ, Enns MW. Relative stability of dimensions of perfectionism in depression. Can J Behav Sci 2003;35:124-32.
23. Lundh L, Ost L. Attentional bias, self-consciousness and perfectionism in social phobia before and after cognitive-behaviour therapy. Scandinavian Journal of Behaviour Therapy 2001;30:4-16.
24. Ashbaugh A, Antony MM, Liss A, et al. Changes in perfectionism following cognitive-behavioral treatment for social phobia. Depress Anxiety 2007;24:169-77.
25. Reda MA, Carpiniello B, Secchiaroli L, Blanco S. Thinking, depression, and antidepressants: modified and unmodified depressive beliefs during treatment with amitriptyline. Cognit Ther Res 1985;9:135-43.
‘Meth’ recovery: 3 steps to successful chronic management
Clinicians could become discouraged when confronting methamphetamine-dependent patients’ wide-ranging psychiatric symptoms.
These patients often present with:
- overlapping primary psychiatric syndromes and secondary substance abuse
- complex histories fraught with psychological trauma, limited social supports, and court involvement.
Treatment can be successful, however, and patients can change their addictive behaviors with a chronic disease management approach that targets the drug’s cognitive sequelae and psychiatric effects. Medications show limited benefit (Box 1),1-8 but behavioral treatments—including cognitive behavioral therapy (CBT) and motivational incentives—have proven efficacy in treating methamphetamine addiction.
This article discusses how to counteract methamphetamine’s negative cognitive effects and enable patients to engage in psychosocial treatment. Our discussion is informed by an extensive literature search and clinical experience from treating patients in the Midwest—at the geographic heart of the “meth” epidemic.
CASE REPORT: Overwhelmed and suicidal
Ms. D, age 27, presents to the emergency department with anxiety, dysphoria, and a plan to commit suicide by overdose. She feels overwhelmed by her 4-hour-a-day customer service job—a prerequisite for staying at the halfway house where she has lived for 2 months. She has a 13-year history of polysubstance dependence and is under court order to complete chemical dependence treatment or go to jail.
No medications are FDA-approved for treating methamphetamine dependence, and evidence supporting medication use in methamphetamine dependence is extremely limited. Research efforts are aimed at finding medications that might be neuroprotective, decrease craving, block reinforcement mechanisms, or affect other factors behind methamphetamine addiction and relapse.1 Most trials have been conducted in animal models or controlled laboratory evaluations of drug effects on methamphetamine-induced states.
Bupropion has shown slight treatment efficacy, possibly by decreasing neuronal damage and blocking reinforcement.2-4 Modafinil5 and baclofen6 may have potential, but evidence is lacking.
Some results have been unexpectedly negative. Sertraline might be contraindicated in methamphetamine dependence treatment, according to results of a randomized, placebo-controlled trial7 of sertraline and contingency management (Table 1). In a human laboratory study,8 topiramate accentuated—rather than diminished—subjective response to methamphetamine (Table 2).
Ms. D began using drugs at age 14 and has 3 convictions for driving under the influence of alcohol. An average student, she dropped out of high school but obtained a GED certificate. She first had psychiatric contact at age 16 and has been diagnosed at various times with attention deficit/hyperactivity disorder, bipolar disorder, and anxiety disorder. She also has been violently sexually assaulted while engaging in prostitution to support her drug habit.
Ms. D has been hospitalized multiple times—voluntarily and involuntarily—in dual diagnosis treatment centers. Her 5-year-old son no longer lives with her, and she has limited social supports beyond her parents, who live in a neighboring state.
Table 1
Antidepressant trials for treating methamphetamine dependence
| Drug | Investigation | Comments |
|---|---|---|
| Bupropion2-4 | Laboratory | Safety of bupropion with MAP |
| Laboratory | Reduced subjective effects and cue-induced craving | |
| Clinical trial | Trend toward reduced MAP use compared with placebo | |
| Sertraline7 | Clinical trial | Sertraline-treated subjects showed higher use of MAP compared with those receiving placebo and were less likely to complete treatment |
| MAP: methamphetamine | ||
3-step approach
For patients such as Ms. D, clinical evidence supports a 3-step approach to treating methamphetamine dependence:
- step 1: institute acute management and stabilization
- step 2: eliminate or decrease methamphetamine use to “move the frontal lobe back to the front”
- step 3: identify and target psychiatric and psychosocial comorbidities.
- help her eliminate or decrease methamphetamine use to allow neuronal systems to recover
- target maladaptive behaviors that hinder sobriety while providing motivational incentives to help her maintain a methamphetamine-free life.
How ‘meth’ affects cognition
Methamphetamine use has been associated with cognitive dysfunction at initial abstinence and even years later in some patients.10 Ms. D’s cognitive limitations in a fast-paced customer service job—even though hours are limited—lead to anxiety, dysphoria, and loss of self-esteem when she can’t manage patrons’ requests.
Methamphetamine has profound acute and chronic effects on the sympathetic nervous system, and dopaminergic, serotonergic, and noradrenergic neuronal networks. Most evidence of chronic neuronal effects comes from animal research and reflects toxic damage to dopaminergic and serotonergic neuronal systems. Postmortem human studies of direct neurotoxicity from chronic methamphetamine exposure show:
- decreased dopamine and tyrosine hydroxylase levels
- reduced concentrations of dopamine transporters.11
In chronic methamphetamine abusers, functional magnetic resonance imaging, proton magnetic resonance spectroscopy, and positron emission tomography show:
- changes in neurotransmitter, protein, brain metabolism, and transporter levels
- damage in multiple brain areas including the frontal region, basal ganglia, grey matter, corpus callosum, and striatum; smaller hippocampi; and cerebral vasculature changes.14-16
CASE CONTINUED: Does she understand?
After Ms. D is stabilized, her case manager expresses concern about her ability to follow through with treatment planning. He says, “I just don’t think she understands some of the things we discuss.” She then is referred for neuropsychological testing, which shows clear cognitive impairment. Specifically, she has a slowed rate of thinking, general cognitive ineficiency, deficits in learning and memory retention, and mild impulsivity.
Patients with a history of extensive methamphetamine abuse are ruled by the limbic system and may have higher cortical damage that complicates initiating, maintaining, and fully participating in treatment. Patients’ deficits in memory, executive functioning, attention, and cognitive speed may require you to simplify, repeat, and otherwise modify your treatment plan. You will need to provide clear instructions and consistent support—individually and psychosocially—and to recognize and reinforce patients’ treatment gains.
Even before using methamphetamine, patients may have had academic problems or learning disabilities that will compromise their ability to participate in treatment. Infection with HIV, syphilis, or hepatitis C can further hamper cognitive function.18
What treatments are effective?
Medications. Evidence is extremely limited, and no medications are approved to treat methamphetamine-addicted patients. Bupropion has shown some efficacy (Table 1),2-4,7 but other drugs such as sertraline and topiramate may aggravate rather than diminish methamphetamine dependence (Table 2).5,6,8,19
Behavioral treatments supply the evidence basis for methamphetamine dependence treatment. Cognitive behavioral therapy (CBT),20 contingency management (CM),21,22 and a manualized structured treatment—the Matrix Model23—all have proven efficacy.
CBT involves functional analysis and skills training. Patients are guided through analyzing their drug use and associated cognitions, emotions, and expectations and in identifying situations that trigger methamphetamine use or relapse. Skills training involves identifying, reinforcing, and practicing coping skills to help the patient avoid drug use and reinforce the ability to refuse use.
CM is based on operant conditioning—the use of consequences to modify behavior. It involves establishing a “contingent” relationship between a desired behavior/outcome (such as methamphetamine-free urinalysis) and delivering a positive reinforcing event to promote abstinence:
- Vouchers, privileges, or small amounts of money linked to healthy behaviors serve as incentives for negative urine testing.
- Rewards increase as periods of confirmed abstinence lengthen and are reset to smaller rewards if relapse occurs.
CM does not require extensive staff training and has been described as relatively simple to implement. CM also has been used successfully in urban gay and bisexual men with methamphetamine dependence (Box 2).18,25-29
Although CM’s efficacy is well-supported by clinical trials, we have encountered some resistance to the idea of “paying individuals to not use drugs” when training medical students, allied health staff, and residents. The National Institute on Drug Abuse (NIDA) supports the use of motivational incentives in treating substance abuse and offers support materials, resources, and training on this approach (see Related Resources).
Multiple studies show that CBT and CM are equally effective for treating chronic methamphetamine abuse at a 1-year follow-up, although CM may be more effective than CBT for acute treatment.
The Matrix model is a 4-month intensive, manualized treatment program that uses CBT, education on drug effects, positive reinforcement for intended behavioral change, and a 12-step approach.
Methamphetamine dependence outcomes based on the Matrix treatment model were compared with community treatment as usual in a project sponsored by The Center for Substance Abuse Treatment of the Substance Abuse and Mental Health Services Administration, U.S. Department of Health and Human Services.30 End-point outcomes were similar, but the Matrix treatment was more effective in early treatment, including decreased urinalyses positive for methamphetamine and increased abstinence.
Methamphetamine use is estimated to be 5 to 10 times more prevalent in U.S. urban gay and bisexual groups than in the general population25 and likely is contributing to rising human immunodeficiency virus (HIV) infection rates in men having sex with men (MSM).
Used to enhance sexual performance, libido, and mood, methamphetamine is associated with increased rates of unprotected anal sex and multiple partners in MSM.26 An HIV infection rate of 61% was reported in methamphetamine-dependent MSM seeking treatment in a Los Angeles clinical trial.27 Methamphetamine also results in high-risk sexual practices and multiple partners among heterosexual men and women.28
Although seroconverted men report using methamphetamine to alleviate HIV-associated depression, the combination of HIV infection and methamphetamine use may have powerful negative effects. Methamphetamine use is associated with HIV treatment nonadherence and also may suppress immune function.29 Cognitive impairments associated with HIV and methamphetamine use are additive and are further exacerbated by hepatitis C infection.18
Recommendation. Screen for methamphetamine use in MSM populations, and educate these patients about risks associated with methamphetamine use. In all patient groups who report using methamphetamine, provide counseling on high-risk sexual behavior, screen for sexually transmitted diseases, and ensure that patients are vaccinated against hepatitis A and B infection (see Related Resources). Most important, refer for medical treatment when indicated.
In patients such as Ms. D, the structure of court-ordered treatment can provide accountability, enforced abstinence, and mandated treatment resources. This, in turn, may give your patient a better chance to engage a recovering and better functioning frontal lobe to inhibit urges for methamphetamine use and manage stress.
Table 2
Other agents studied in methamphetamine dependence trials
| Drug | Investigation | Comment |
|---|---|---|
| Baclofen6 (GABAergic) | Clinical trial | No statistically significant effect compared with placebo; post hoc analysis showed ‘small’ treatment effects vs placebo |
| Gabapentin6 (GABAergic) | Clinical trial | No statistically signicant effect compared with placebo; post hoc analysis showed no treatment effects vs placebo |
| Topiramate8 (anticonvulsant) | Laboratory | Accentuated (rather than diminished) subjective effects of MAP |
| Aripiprazole19 (SGA) | Laboratory | Decreased subjective effects of amphetamine |
| Modafinil5 (wakefulness agent) | Clinical trial | Successful trial in cocaine dependence; potential option for MAP |
| MAP: methamphetamine; SGA: second-generation antipsychotic | ||
CASE CONTINUED: Racing thoughts and psychosis
Before hospital admission, Ms. D was being treated with gabapentin, 300 mg bid, and sustained-release bupropion, 150 mg/d, for anxiety and dysphoria. Previously, she has received multiple antidepressants and mood stabilizers with reportedly little effect.
Initially guarded, she at first denies psychotic symptoms but acknowledges their extent several days later. She describes periods of 6 months or more when she feels “lost.” The treatment team titrates quetiapine up to 200 mg/d and restarts duloxetine, 30 mg/d, for depressive symptoms, based on her past positive response to this antidepressant.
Methamphetamine abuse can cause and exacerbate psychiatric symptoms. Keep in mind 2 priorities as you approach these symptoms:
Aim for abstinence. Methamphetamine abuse produces a remarkable array of adverse effects. It causes dysphoria, anxiety, and psychosis during active use and in the interval after initial abstinence. Many of methamphetamine’s use and withdrawal symptoms resolve with time, however, and may not require pharmacologic treatment.31 Therefore, achieving abstinence and keeping patients in treatment is high priority.
Use behavioral approaches whenever feasible. Balance the need to use benzodiazepines for ongoing treatment of severe anxiety or agitation with the high risk of addiction or diversion in this group. Anxiety may resolve over time in association with sustained abstinence. Similarly, receiving treatment for methamphetamine dependence and maintaining abstinence appears to ease depressive symptoms, as shown by sustained improvements in Beck Depression Inventory scores at 1 year.32
Manage stress. Stress can worsen psychiatric symptoms, trigger methamphetamine abuse relapse and psychosis, and acutely and chronically augment methamphetamine’s toxic effects.33 You can help patients manage stress by:
- providing case management and CBT training
- advising them about proper sleep, nutrition, and medical care.
Targeting psychiatric symptoms
Step 3 in the chronic disease management approach to methamphetamine dependence is to identify and target psychiatric and psychosocial comorbidities. When approaching psychiatric symptoms, high priorities are to aim for abstinence and manage the patient’s stress (Box 3).31-33
In clinical practice, we find it difficult to diagnostically categorize and treat methamphetamine-abusing patients who show residual post-acute psychotic symptoms. Some appear to have no risk factors for primary psychotic illness, and their symptoms show an association with the severity of their past methamphetamine abuse.
Other patient presentations can be difficult to separate from family histories of psychotic illness. Research suggests that genetic risk factors may be associated with methamphetamine psychosis in some vulnerable patients.35
Unfortunately, no data exist to guide the use of antipsychotics to maintain symptom control. Some patients may need low-dose antipsychotics for maintenance treatment, and second-generation antipsychotics may have a theoretical advantage over first-generation antipsychotics. Use your clinical judgment in determining dosing and treatment duration, and in weighing risks and benefits of continued treatment.
Using imaging, researchers found aggression severity to be directly correlated with past total methamphetamine use and globally decreased serotonin transporter density.36 Serotonin transporter densities were 30% lower in methamphetamine users vs controls after >1 year of abstinence.
CASE CONTINUED: Discharge plans
Because of the severity of her psychiatric symptoms, Ms. D is unable to return to the halfway house after discharge. As her treatment team works to coordinate discharge placement, Ms. D continues to improve. Her psychotic and dysphoria symptoms resolve, and she shows increased spontaneity. These changes—attributed to supports during hospitalization, decreased stressors, and quetiapine treatment—continue until her discharge to a combined mental illness and chemical dependence program.
- Methamphetamine use and sexually transmitted diseases. Centers for Disease Control and Prevention. www.cdc.gov/std/DearColleagueRiskBehaviorMetUse8-18-2006.pdf.
- National Institute on Drug Abuse Blending Initiative. Promoting Awareness of Motivational Incentives (PAMI). www.drugabuse.gov/blending/PAMI.html.
- Aripiprazole • Abilify
- Baclofen • various
- Bupropion • Wellbutrin
- Duloxetine • Cymbalta
- Gabapentin • Neurontin
- Modafinil • Provigil
- Quetiapine • Seroquel
- Sertraline • Zoloft
- Topiramate • Topamax
- Trazodone • Desyrel
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
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13. Armstrong BD, Noguchi KK. The neurotoxic effects of 3,4-methylenedioxymethamphetamine (MDMA) and methamphetamine on serotonin, dopamine, and GABAergic terminals: an in-vitro autoradiographic study in rats. Neurotoxicology 2004;25:905-14.
14. London ED, Berman SM, Voytek B, et al. Cerebral metabolic dysfunction and impaired vigilance in recently abstinent methamphetamine abusers. Biol Psychiatry 2005;58:770-8.
15. London ED, Simon SL, Berman SM, et al. Mood disturbances and regional cerebral metabolic abnormalities in recently abstinent methamphetamine abusers. Arch Gen Psychiatry 2004;61:73-84.
16. Nordahl TE, Salo R, Leamon M. Neuropsychological effects of chronic methamphetamine use on neurotransmitters and cognition: a review. J Neuropsychiatry Clin Neurosci 2003;15:317-25.
17. Wang GJ, Volkow ND, Chang L, et al. Partial recovery of brain metabolism in methamphetamine abusers after protracted abstinence. Am J Psychiatry 2004;161:242-8.
18. Cherner M, Letendre S, Heaton RK, et al. Hepatitis C augments cognitive deficits associated with HIV infection and methamphetamine. Neurology 2005;64:1343-7.
19. Stoops WW. Aripiprazole as a potential pharmacotherapy for stimulant dependence: human laboratory studies with damphetamine. Exp Clin Psychopharmacol 2006;14:413-21.
20. Yen CF, Wu HY, Yen JY, Ko CH. Effects of brief cognitive-behavioral interventions on confidence to resist the urges to use heroin and methamphetamine in relapse-related situations. J Nerv Ment Dis 2004;192:788-91.
21. Roll JM, Petry NM, Stitzer ML, et al. Contingency management for the treatment of methamphetamine use disorders. Am J Psychiatry 2006;163:1993-9.
22. Shoptaw S, Klausner JD, Reback CJ, et al. A public health response to the methamphetamine epidemic: the implementation of contingency management to treat methamphetamine dependence. BMC Public Health 2006;6:214.-
23. Shoptaw S, Rawson RA, McCann MJ, Obert JL. The Matrix model of outpatient stimulant abuse treatment: evidence of efficacy. J Addict Dis 1994;13:129-41.
24. Sindelar J, Elbel B, Petry NM. What do we get for our money? Cost-effectiveness of adding contingency management. Addiction 2007;102:309-16.
25. Shoptaw S. Methamphetamine use in urban gay and bisexual populations. Top HIV Med 2006;14:84-7.
26. Bolding G, Hart G, Sherr L, Elford J. Use of crystal methamphetamine among gay men in London. Addiction 2006;101:1622-30.
27. Peck JA, Shoptaw S, Rotheram-Fuller E, et al. HIV-associated medical, behavioral, and psychiatric characteristics of treatment-seeking, methamphetamine-dependent men who have sex with men. J Addict Dis 2005;24:115-32.
28. Semple SJ, Patterson TL, Grant I. The context of sexual risk behavior among heterosexual methamphetamine users. Addict Behav 2004;29:807-10.
29. Mahajan SD, Hu Z, Reynolds JL, et al. Methamphetamine modulates gene expression patterns in monocyte derived mature dendritic cells: implications for HIV-1 pathogenesis. Mol Diagn Ther 2006;10:257-69.
30. Rawson RA, Marinelli-Casey P, Anglin MD, et al. A multi-site comparison of psychosocial approaches for the treatment of methamphetamine dependence. Addiction 2004;99:708-17.
31. McGregor C, Srisurapanont M, Jittiwutikarn J, et al. The nature, time course and severity of methamphetamine withdrawal. Addiction 2005;100:1320-9.
32. Peck JA, Reback CJ, Yang X, et al. Sustained reductions in drug use and depression symptoms from treatment for drug abuse in methamphetamine-dependent gay and bisexual men. J Urban Health 2005;82:i100-8.
33. Matuszewich L, Yamamoto BK. Chronic stress augments the long-term and acute effects of methamphetamine. Neuroscience 2004;124:637-46.
34. Batki SL, Harris DS. Quantitative drug levels in stimulant psychosis: relationship to symptom severity, catecholamines and hyperkinesia. Am J Addict 2004;13:461-70.
35. Suzuki A, Nakamura K, Sekine Y, et al. An association study between catechol-O-methyl transferase gene polymorphism and methamphetamine psychotic disorder. Psychiatr Genet 2006;16:133-8.
36. Sekine Y, Ouchi Y, Takei N, et al. Brain serotonin transporter density and aggression in abstinent methamphetamine abusers. Arch Gen Psychiatry 2006;63:90-100.
Clinicians could become discouraged when confronting methamphetamine-dependent patients’ wide-ranging psychiatric symptoms.
These patients often present with:
- overlapping primary psychiatric syndromes and secondary substance abuse
- complex histories fraught with psychological trauma, limited social supports, and court involvement.
Treatment can be successful, however, and patients can change their addictive behaviors with a chronic disease management approach that targets the drug’s cognitive sequelae and psychiatric effects. Medications show limited benefit (Box 1),1-8 but behavioral treatments—including cognitive behavioral therapy (CBT) and motivational incentives—have proven efficacy in treating methamphetamine addiction.
This article discusses how to counteract methamphetamine’s negative cognitive effects and enable patients to engage in psychosocial treatment. Our discussion is informed by an extensive literature search and clinical experience from treating patients in the Midwest—at the geographic heart of the “meth” epidemic.
CASE REPORT: Overwhelmed and suicidal
Ms. D, age 27, presents to the emergency department with anxiety, dysphoria, and a plan to commit suicide by overdose. She feels overwhelmed by her 4-hour-a-day customer service job—a prerequisite for staying at the halfway house where she has lived for 2 months. She has a 13-year history of polysubstance dependence and is under court order to complete chemical dependence treatment or go to jail.
No medications are FDA-approved for treating methamphetamine dependence, and evidence supporting medication use in methamphetamine dependence is extremely limited. Research efforts are aimed at finding medications that might be neuroprotective, decrease craving, block reinforcement mechanisms, or affect other factors behind methamphetamine addiction and relapse.1 Most trials have been conducted in animal models or controlled laboratory evaluations of drug effects on methamphetamine-induced states.
Bupropion has shown slight treatment efficacy, possibly by decreasing neuronal damage and blocking reinforcement.2-4 Modafinil5 and baclofen6 may have potential, but evidence is lacking.
Some results have been unexpectedly negative. Sertraline might be contraindicated in methamphetamine dependence treatment, according to results of a randomized, placebo-controlled trial7 of sertraline and contingency management (Table 1). In a human laboratory study,8 topiramate accentuated—rather than diminished—subjective response to methamphetamine (Table 2).
Ms. D began using drugs at age 14 and has 3 convictions for driving under the influence of alcohol. An average student, she dropped out of high school but obtained a GED certificate. She first had psychiatric contact at age 16 and has been diagnosed at various times with attention deficit/hyperactivity disorder, bipolar disorder, and anxiety disorder. She also has been violently sexually assaulted while engaging in prostitution to support her drug habit.
Ms. D has been hospitalized multiple times—voluntarily and involuntarily—in dual diagnosis treatment centers. Her 5-year-old son no longer lives with her, and she has limited social supports beyond her parents, who live in a neighboring state.
Table 1
Antidepressant trials for treating methamphetamine dependence
| Drug | Investigation | Comments |
|---|---|---|
| Bupropion2-4 | Laboratory | Safety of bupropion with MAP |
| Laboratory | Reduced subjective effects and cue-induced craving | |
| Clinical trial | Trend toward reduced MAP use compared with placebo | |
| Sertraline7 | Clinical trial | Sertraline-treated subjects showed higher use of MAP compared with those receiving placebo and were less likely to complete treatment |
| MAP: methamphetamine | ||
3-step approach
For patients such as Ms. D, clinical evidence supports a 3-step approach to treating methamphetamine dependence:
- step 1: institute acute management and stabilization
- step 2: eliminate or decrease methamphetamine use to “move the frontal lobe back to the front”
- step 3: identify and target psychiatric and psychosocial comorbidities.
- help her eliminate or decrease methamphetamine use to allow neuronal systems to recover
- target maladaptive behaviors that hinder sobriety while providing motivational incentives to help her maintain a methamphetamine-free life.
How ‘meth’ affects cognition
Methamphetamine use has been associated with cognitive dysfunction at initial abstinence and even years later in some patients.10 Ms. D’s cognitive limitations in a fast-paced customer service job—even though hours are limited—lead to anxiety, dysphoria, and loss of self-esteem when she can’t manage patrons’ requests.
Methamphetamine has profound acute and chronic effects on the sympathetic nervous system, and dopaminergic, serotonergic, and noradrenergic neuronal networks. Most evidence of chronic neuronal effects comes from animal research and reflects toxic damage to dopaminergic and serotonergic neuronal systems. Postmortem human studies of direct neurotoxicity from chronic methamphetamine exposure show:
- decreased dopamine and tyrosine hydroxylase levels
- reduced concentrations of dopamine transporters.11
In chronic methamphetamine abusers, functional magnetic resonance imaging, proton magnetic resonance spectroscopy, and positron emission tomography show:
- changes in neurotransmitter, protein, brain metabolism, and transporter levels
- damage in multiple brain areas including the frontal region, basal ganglia, grey matter, corpus callosum, and striatum; smaller hippocampi; and cerebral vasculature changes.14-16
CASE CONTINUED: Does she understand?
After Ms. D is stabilized, her case manager expresses concern about her ability to follow through with treatment planning. He says, “I just don’t think she understands some of the things we discuss.” She then is referred for neuropsychological testing, which shows clear cognitive impairment. Specifically, she has a slowed rate of thinking, general cognitive ineficiency, deficits in learning and memory retention, and mild impulsivity.
Patients with a history of extensive methamphetamine abuse are ruled by the limbic system and may have higher cortical damage that complicates initiating, maintaining, and fully participating in treatment. Patients’ deficits in memory, executive functioning, attention, and cognitive speed may require you to simplify, repeat, and otherwise modify your treatment plan. You will need to provide clear instructions and consistent support—individually and psychosocially—and to recognize and reinforce patients’ treatment gains.
Even before using methamphetamine, patients may have had academic problems or learning disabilities that will compromise their ability to participate in treatment. Infection with HIV, syphilis, or hepatitis C can further hamper cognitive function.18
What treatments are effective?
Medications. Evidence is extremely limited, and no medications are approved to treat methamphetamine-addicted patients. Bupropion has shown some efficacy (Table 1),2-4,7 but other drugs such as sertraline and topiramate may aggravate rather than diminish methamphetamine dependence (Table 2).5,6,8,19
Behavioral treatments supply the evidence basis for methamphetamine dependence treatment. Cognitive behavioral therapy (CBT),20 contingency management (CM),21,22 and a manualized structured treatment—the Matrix Model23—all have proven efficacy.
CBT involves functional analysis and skills training. Patients are guided through analyzing their drug use and associated cognitions, emotions, and expectations and in identifying situations that trigger methamphetamine use or relapse. Skills training involves identifying, reinforcing, and practicing coping skills to help the patient avoid drug use and reinforce the ability to refuse use.
CM is based on operant conditioning—the use of consequences to modify behavior. It involves establishing a “contingent” relationship between a desired behavior/outcome (such as methamphetamine-free urinalysis) and delivering a positive reinforcing event to promote abstinence:
- Vouchers, privileges, or small amounts of money linked to healthy behaviors serve as incentives for negative urine testing.
- Rewards increase as periods of confirmed abstinence lengthen and are reset to smaller rewards if relapse occurs.
CM does not require extensive staff training and has been described as relatively simple to implement. CM also has been used successfully in urban gay and bisexual men with methamphetamine dependence (Box 2).18,25-29
Although CM’s efficacy is well-supported by clinical trials, we have encountered some resistance to the idea of “paying individuals to not use drugs” when training medical students, allied health staff, and residents. The National Institute on Drug Abuse (NIDA) supports the use of motivational incentives in treating substance abuse and offers support materials, resources, and training on this approach (see Related Resources).
Multiple studies show that CBT and CM are equally effective for treating chronic methamphetamine abuse at a 1-year follow-up, although CM may be more effective than CBT for acute treatment.
The Matrix model is a 4-month intensive, manualized treatment program that uses CBT, education on drug effects, positive reinforcement for intended behavioral change, and a 12-step approach.
Methamphetamine dependence outcomes based on the Matrix treatment model were compared with community treatment as usual in a project sponsored by The Center for Substance Abuse Treatment of the Substance Abuse and Mental Health Services Administration, U.S. Department of Health and Human Services.30 End-point outcomes were similar, but the Matrix treatment was more effective in early treatment, including decreased urinalyses positive for methamphetamine and increased abstinence.
Methamphetamine use is estimated to be 5 to 10 times more prevalent in U.S. urban gay and bisexual groups than in the general population25 and likely is contributing to rising human immunodeficiency virus (HIV) infection rates in men having sex with men (MSM).
Used to enhance sexual performance, libido, and mood, methamphetamine is associated with increased rates of unprotected anal sex and multiple partners in MSM.26 An HIV infection rate of 61% was reported in methamphetamine-dependent MSM seeking treatment in a Los Angeles clinical trial.27 Methamphetamine also results in high-risk sexual practices and multiple partners among heterosexual men and women.28
Although seroconverted men report using methamphetamine to alleviate HIV-associated depression, the combination of HIV infection and methamphetamine use may have powerful negative effects. Methamphetamine use is associated with HIV treatment nonadherence and also may suppress immune function.29 Cognitive impairments associated with HIV and methamphetamine use are additive and are further exacerbated by hepatitis C infection.18
Recommendation. Screen for methamphetamine use in MSM populations, and educate these patients about risks associated with methamphetamine use. In all patient groups who report using methamphetamine, provide counseling on high-risk sexual behavior, screen for sexually transmitted diseases, and ensure that patients are vaccinated against hepatitis A and B infection (see Related Resources). Most important, refer for medical treatment when indicated.
In patients such as Ms. D, the structure of court-ordered treatment can provide accountability, enforced abstinence, and mandated treatment resources. This, in turn, may give your patient a better chance to engage a recovering and better functioning frontal lobe to inhibit urges for methamphetamine use and manage stress.
Table 2
Other agents studied in methamphetamine dependence trials
| Drug | Investigation | Comment |
|---|---|---|
| Baclofen6 (GABAergic) | Clinical trial | No statistically significant effect compared with placebo; post hoc analysis showed ‘small’ treatment effects vs placebo |
| Gabapentin6 (GABAergic) | Clinical trial | No statistically signicant effect compared with placebo; post hoc analysis showed no treatment effects vs placebo |
| Topiramate8 (anticonvulsant) | Laboratory | Accentuated (rather than diminished) subjective effects of MAP |
| Aripiprazole19 (SGA) | Laboratory | Decreased subjective effects of amphetamine |
| Modafinil5 (wakefulness agent) | Clinical trial | Successful trial in cocaine dependence; potential option for MAP |
| MAP: methamphetamine; SGA: second-generation antipsychotic | ||
CASE CONTINUED: Racing thoughts and psychosis
Before hospital admission, Ms. D was being treated with gabapentin, 300 mg bid, and sustained-release bupropion, 150 mg/d, for anxiety and dysphoria. Previously, she has received multiple antidepressants and mood stabilizers with reportedly little effect.
Initially guarded, she at first denies psychotic symptoms but acknowledges their extent several days later. She describes periods of 6 months or more when she feels “lost.” The treatment team titrates quetiapine up to 200 mg/d and restarts duloxetine, 30 mg/d, for depressive symptoms, based on her past positive response to this antidepressant.
Methamphetamine abuse can cause and exacerbate psychiatric symptoms. Keep in mind 2 priorities as you approach these symptoms:
Aim for abstinence. Methamphetamine abuse produces a remarkable array of adverse effects. It causes dysphoria, anxiety, and psychosis during active use and in the interval after initial abstinence. Many of methamphetamine’s use and withdrawal symptoms resolve with time, however, and may not require pharmacologic treatment.31 Therefore, achieving abstinence and keeping patients in treatment is high priority.
Use behavioral approaches whenever feasible. Balance the need to use benzodiazepines for ongoing treatment of severe anxiety or agitation with the high risk of addiction or diversion in this group. Anxiety may resolve over time in association with sustained abstinence. Similarly, receiving treatment for methamphetamine dependence and maintaining abstinence appears to ease depressive symptoms, as shown by sustained improvements in Beck Depression Inventory scores at 1 year.32
Manage stress. Stress can worsen psychiatric symptoms, trigger methamphetamine abuse relapse and psychosis, and acutely and chronically augment methamphetamine’s toxic effects.33 You can help patients manage stress by:
- providing case management and CBT training
- advising them about proper sleep, nutrition, and medical care.
Targeting psychiatric symptoms
Step 3 in the chronic disease management approach to methamphetamine dependence is to identify and target psychiatric and psychosocial comorbidities. When approaching psychiatric symptoms, high priorities are to aim for abstinence and manage the patient’s stress (Box 3).31-33
In clinical practice, we find it difficult to diagnostically categorize and treat methamphetamine-abusing patients who show residual post-acute psychotic symptoms. Some appear to have no risk factors for primary psychotic illness, and their symptoms show an association with the severity of their past methamphetamine abuse.
Other patient presentations can be difficult to separate from family histories of psychotic illness. Research suggests that genetic risk factors may be associated with methamphetamine psychosis in some vulnerable patients.35
Unfortunately, no data exist to guide the use of antipsychotics to maintain symptom control. Some patients may need low-dose antipsychotics for maintenance treatment, and second-generation antipsychotics may have a theoretical advantage over first-generation antipsychotics. Use your clinical judgment in determining dosing and treatment duration, and in weighing risks and benefits of continued treatment.
Using imaging, researchers found aggression severity to be directly correlated with past total methamphetamine use and globally decreased serotonin transporter density.36 Serotonin transporter densities were 30% lower in methamphetamine users vs controls after >1 year of abstinence.
CASE CONTINUED: Discharge plans
Because of the severity of her psychiatric symptoms, Ms. D is unable to return to the halfway house after discharge. As her treatment team works to coordinate discharge placement, Ms. D continues to improve. Her psychotic and dysphoria symptoms resolve, and she shows increased spontaneity. These changes—attributed to supports during hospitalization, decreased stressors, and quetiapine treatment—continue until her discharge to a combined mental illness and chemical dependence program.
- Methamphetamine use and sexually transmitted diseases. Centers for Disease Control and Prevention. www.cdc.gov/std/DearColleagueRiskBehaviorMetUse8-18-2006.pdf.
- National Institute on Drug Abuse Blending Initiative. Promoting Awareness of Motivational Incentives (PAMI). www.drugabuse.gov/blending/PAMI.html.
- Aripiprazole • Abilify
- Baclofen • various
- Bupropion • Wellbutrin
- Duloxetine • Cymbalta
- Gabapentin • Neurontin
- Modafinil • Provigil
- Quetiapine • Seroquel
- Sertraline • Zoloft
- Topiramate • Topamax
- Trazodone • Desyrel
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
Clinicians could become discouraged when confronting methamphetamine-dependent patients’ wide-ranging psychiatric symptoms.
These patients often present with:
- overlapping primary psychiatric syndromes and secondary substance abuse
- complex histories fraught with psychological trauma, limited social supports, and court involvement.
Treatment can be successful, however, and patients can change their addictive behaviors with a chronic disease management approach that targets the drug’s cognitive sequelae and psychiatric effects. Medications show limited benefit (Box 1),1-8 but behavioral treatments—including cognitive behavioral therapy (CBT) and motivational incentives—have proven efficacy in treating methamphetamine addiction.
This article discusses how to counteract methamphetamine’s negative cognitive effects and enable patients to engage in psychosocial treatment. Our discussion is informed by an extensive literature search and clinical experience from treating patients in the Midwest—at the geographic heart of the “meth” epidemic.
CASE REPORT: Overwhelmed and suicidal
Ms. D, age 27, presents to the emergency department with anxiety, dysphoria, and a plan to commit suicide by overdose. She feels overwhelmed by her 4-hour-a-day customer service job—a prerequisite for staying at the halfway house where she has lived for 2 months. She has a 13-year history of polysubstance dependence and is under court order to complete chemical dependence treatment or go to jail.
No medications are FDA-approved for treating methamphetamine dependence, and evidence supporting medication use in methamphetamine dependence is extremely limited. Research efforts are aimed at finding medications that might be neuroprotective, decrease craving, block reinforcement mechanisms, or affect other factors behind methamphetamine addiction and relapse.1 Most trials have been conducted in animal models or controlled laboratory evaluations of drug effects on methamphetamine-induced states.
Bupropion has shown slight treatment efficacy, possibly by decreasing neuronal damage and blocking reinforcement.2-4 Modafinil5 and baclofen6 may have potential, but evidence is lacking.
Some results have been unexpectedly negative. Sertraline might be contraindicated in methamphetamine dependence treatment, according to results of a randomized, placebo-controlled trial7 of sertraline and contingency management (Table 1). In a human laboratory study,8 topiramate accentuated—rather than diminished—subjective response to methamphetamine (Table 2).
Ms. D began using drugs at age 14 and has 3 convictions for driving under the influence of alcohol. An average student, she dropped out of high school but obtained a GED certificate. She first had psychiatric contact at age 16 and has been diagnosed at various times with attention deficit/hyperactivity disorder, bipolar disorder, and anxiety disorder. She also has been violently sexually assaulted while engaging in prostitution to support her drug habit.
Ms. D has been hospitalized multiple times—voluntarily and involuntarily—in dual diagnosis treatment centers. Her 5-year-old son no longer lives with her, and she has limited social supports beyond her parents, who live in a neighboring state.
Table 1
Antidepressant trials for treating methamphetamine dependence
| Drug | Investigation | Comments |
|---|---|---|
| Bupropion2-4 | Laboratory | Safety of bupropion with MAP |
| Laboratory | Reduced subjective effects and cue-induced craving | |
| Clinical trial | Trend toward reduced MAP use compared with placebo | |
| Sertraline7 | Clinical trial | Sertraline-treated subjects showed higher use of MAP compared with those receiving placebo and were less likely to complete treatment |
| MAP: methamphetamine | ||
3-step approach
For patients such as Ms. D, clinical evidence supports a 3-step approach to treating methamphetamine dependence:
- step 1: institute acute management and stabilization
- step 2: eliminate or decrease methamphetamine use to “move the frontal lobe back to the front”
- step 3: identify and target psychiatric and psychosocial comorbidities.
- help her eliminate or decrease methamphetamine use to allow neuronal systems to recover
- target maladaptive behaviors that hinder sobriety while providing motivational incentives to help her maintain a methamphetamine-free life.
How ‘meth’ affects cognition
Methamphetamine use has been associated with cognitive dysfunction at initial abstinence and even years later in some patients.10 Ms. D’s cognitive limitations in a fast-paced customer service job—even though hours are limited—lead to anxiety, dysphoria, and loss of self-esteem when she can’t manage patrons’ requests.
Methamphetamine has profound acute and chronic effects on the sympathetic nervous system, and dopaminergic, serotonergic, and noradrenergic neuronal networks. Most evidence of chronic neuronal effects comes from animal research and reflects toxic damage to dopaminergic and serotonergic neuronal systems. Postmortem human studies of direct neurotoxicity from chronic methamphetamine exposure show:
- decreased dopamine and tyrosine hydroxylase levels
- reduced concentrations of dopamine transporters.11
In chronic methamphetamine abusers, functional magnetic resonance imaging, proton magnetic resonance spectroscopy, and positron emission tomography show:
- changes in neurotransmitter, protein, brain metabolism, and transporter levels
- damage in multiple brain areas including the frontal region, basal ganglia, grey matter, corpus callosum, and striatum; smaller hippocampi; and cerebral vasculature changes.14-16
CASE CONTINUED: Does she understand?
After Ms. D is stabilized, her case manager expresses concern about her ability to follow through with treatment planning. He says, “I just don’t think she understands some of the things we discuss.” She then is referred for neuropsychological testing, which shows clear cognitive impairment. Specifically, she has a slowed rate of thinking, general cognitive ineficiency, deficits in learning and memory retention, and mild impulsivity.
Patients with a history of extensive methamphetamine abuse are ruled by the limbic system and may have higher cortical damage that complicates initiating, maintaining, and fully participating in treatment. Patients’ deficits in memory, executive functioning, attention, and cognitive speed may require you to simplify, repeat, and otherwise modify your treatment plan. You will need to provide clear instructions and consistent support—individually and psychosocially—and to recognize and reinforce patients’ treatment gains.
Even before using methamphetamine, patients may have had academic problems or learning disabilities that will compromise their ability to participate in treatment. Infection with HIV, syphilis, or hepatitis C can further hamper cognitive function.18
What treatments are effective?
Medications. Evidence is extremely limited, and no medications are approved to treat methamphetamine-addicted patients. Bupropion has shown some efficacy (Table 1),2-4,7 but other drugs such as sertraline and topiramate may aggravate rather than diminish methamphetamine dependence (Table 2).5,6,8,19
Behavioral treatments supply the evidence basis for methamphetamine dependence treatment. Cognitive behavioral therapy (CBT),20 contingency management (CM),21,22 and a manualized structured treatment—the Matrix Model23—all have proven efficacy.
CBT involves functional analysis and skills training. Patients are guided through analyzing their drug use and associated cognitions, emotions, and expectations and in identifying situations that trigger methamphetamine use or relapse. Skills training involves identifying, reinforcing, and practicing coping skills to help the patient avoid drug use and reinforce the ability to refuse use.
CM is based on operant conditioning—the use of consequences to modify behavior. It involves establishing a “contingent” relationship between a desired behavior/outcome (such as methamphetamine-free urinalysis) and delivering a positive reinforcing event to promote abstinence:
- Vouchers, privileges, or small amounts of money linked to healthy behaviors serve as incentives for negative urine testing.
- Rewards increase as periods of confirmed abstinence lengthen and are reset to smaller rewards if relapse occurs.
CM does not require extensive staff training and has been described as relatively simple to implement. CM also has been used successfully in urban gay and bisexual men with methamphetamine dependence (Box 2).18,25-29
Although CM’s efficacy is well-supported by clinical trials, we have encountered some resistance to the idea of “paying individuals to not use drugs” when training medical students, allied health staff, and residents. The National Institute on Drug Abuse (NIDA) supports the use of motivational incentives in treating substance abuse and offers support materials, resources, and training on this approach (see Related Resources).
Multiple studies show that CBT and CM are equally effective for treating chronic methamphetamine abuse at a 1-year follow-up, although CM may be more effective than CBT for acute treatment.
The Matrix model is a 4-month intensive, manualized treatment program that uses CBT, education on drug effects, positive reinforcement for intended behavioral change, and a 12-step approach.
Methamphetamine dependence outcomes based on the Matrix treatment model were compared with community treatment as usual in a project sponsored by The Center for Substance Abuse Treatment of the Substance Abuse and Mental Health Services Administration, U.S. Department of Health and Human Services.30 End-point outcomes were similar, but the Matrix treatment was more effective in early treatment, including decreased urinalyses positive for methamphetamine and increased abstinence.
Methamphetamine use is estimated to be 5 to 10 times more prevalent in U.S. urban gay and bisexual groups than in the general population25 and likely is contributing to rising human immunodeficiency virus (HIV) infection rates in men having sex with men (MSM).
Used to enhance sexual performance, libido, and mood, methamphetamine is associated with increased rates of unprotected anal sex and multiple partners in MSM.26 An HIV infection rate of 61% was reported in methamphetamine-dependent MSM seeking treatment in a Los Angeles clinical trial.27 Methamphetamine also results in high-risk sexual practices and multiple partners among heterosexual men and women.28
Although seroconverted men report using methamphetamine to alleviate HIV-associated depression, the combination of HIV infection and methamphetamine use may have powerful negative effects. Methamphetamine use is associated with HIV treatment nonadherence and also may suppress immune function.29 Cognitive impairments associated with HIV and methamphetamine use are additive and are further exacerbated by hepatitis C infection.18
Recommendation. Screen for methamphetamine use in MSM populations, and educate these patients about risks associated with methamphetamine use. In all patient groups who report using methamphetamine, provide counseling on high-risk sexual behavior, screen for sexually transmitted diseases, and ensure that patients are vaccinated against hepatitis A and B infection (see Related Resources). Most important, refer for medical treatment when indicated.
In patients such as Ms. D, the structure of court-ordered treatment can provide accountability, enforced abstinence, and mandated treatment resources. This, in turn, may give your patient a better chance to engage a recovering and better functioning frontal lobe to inhibit urges for methamphetamine use and manage stress.
Table 2
Other agents studied in methamphetamine dependence trials
| Drug | Investigation | Comment |
|---|---|---|
| Baclofen6 (GABAergic) | Clinical trial | No statistically significant effect compared with placebo; post hoc analysis showed ‘small’ treatment effects vs placebo |
| Gabapentin6 (GABAergic) | Clinical trial | No statistically signicant effect compared with placebo; post hoc analysis showed no treatment effects vs placebo |
| Topiramate8 (anticonvulsant) | Laboratory | Accentuated (rather than diminished) subjective effects of MAP |
| Aripiprazole19 (SGA) | Laboratory | Decreased subjective effects of amphetamine |
| Modafinil5 (wakefulness agent) | Clinical trial | Successful trial in cocaine dependence; potential option for MAP |
| MAP: methamphetamine; SGA: second-generation antipsychotic | ||
CASE CONTINUED: Racing thoughts and psychosis
Before hospital admission, Ms. D was being treated with gabapentin, 300 mg bid, and sustained-release bupropion, 150 mg/d, for anxiety and dysphoria. Previously, she has received multiple antidepressants and mood stabilizers with reportedly little effect.
Initially guarded, she at first denies psychotic symptoms but acknowledges their extent several days later. She describes periods of 6 months or more when she feels “lost.” The treatment team titrates quetiapine up to 200 mg/d and restarts duloxetine, 30 mg/d, for depressive symptoms, based on her past positive response to this antidepressant.
Methamphetamine abuse can cause and exacerbate psychiatric symptoms. Keep in mind 2 priorities as you approach these symptoms:
Aim for abstinence. Methamphetamine abuse produces a remarkable array of adverse effects. It causes dysphoria, anxiety, and psychosis during active use and in the interval after initial abstinence. Many of methamphetamine’s use and withdrawal symptoms resolve with time, however, and may not require pharmacologic treatment.31 Therefore, achieving abstinence and keeping patients in treatment is high priority.
Use behavioral approaches whenever feasible. Balance the need to use benzodiazepines for ongoing treatment of severe anxiety or agitation with the high risk of addiction or diversion in this group. Anxiety may resolve over time in association with sustained abstinence. Similarly, receiving treatment for methamphetamine dependence and maintaining abstinence appears to ease depressive symptoms, as shown by sustained improvements in Beck Depression Inventory scores at 1 year.32
Manage stress. Stress can worsen psychiatric symptoms, trigger methamphetamine abuse relapse and psychosis, and acutely and chronically augment methamphetamine’s toxic effects.33 You can help patients manage stress by:
- providing case management and CBT training
- advising them about proper sleep, nutrition, and medical care.
Targeting psychiatric symptoms
Step 3 in the chronic disease management approach to methamphetamine dependence is to identify and target psychiatric and psychosocial comorbidities. When approaching psychiatric symptoms, high priorities are to aim for abstinence and manage the patient’s stress (Box 3).31-33
In clinical practice, we find it difficult to diagnostically categorize and treat methamphetamine-abusing patients who show residual post-acute psychotic symptoms. Some appear to have no risk factors for primary psychotic illness, and their symptoms show an association with the severity of their past methamphetamine abuse.
Other patient presentations can be difficult to separate from family histories of psychotic illness. Research suggests that genetic risk factors may be associated with methamphetamine psychosis in some vulnerable patients.35
Unfortunately, no data exist to guide the use of antipsychotics to maintain symptom control. Some patients may need low-dose antipsychotics for maintenance treatment, and second-generation antipsychotics may have a theoretical advantage over first-generation antipsychotics. Use your clinical judgment in determining dosing and treatment duration, and in weighing risks and benefits of continued treatment.
Using imaging, researchers found aggression severity to be directly correlated with past total methamphetamine use and globally decreased serotonin transporter density.36 Serotonin transporter densities were 30% lower in methamphetamine users vs controls after >1 year of abstinence.
CASE CONTINUED: Discharge plans
Because of the severity of her psychiatric symptoms, Ms. D is unable to return to the halfway house after discharge. As her treatment team works to coordinate discharge placement, Ms. D continues to improve. Her psychotic and dysphoria symptoms resolve, and she shows increased spontaneity. These changes—attributed to supports during hospitalization, decreased stressors, and quetiapine treatment—continue until her discharge to a combined mental illness and chemical dependence program.
- Methamphetamine use and sexually transmitted diseases. Centers for Disease Control and Prevention. www.cdc.gov/std/DearColleagueRiskBehaviorMetUse8-18-2006.pdf.
- National Institute on Drug Abuse Blending Initiative. Promoting Awareness of Motivational Incentives (PAMI). www.drugabuse.gov/blending/PAMI.html.
- Aripiprazole • Abilify
- Baclofen • various
- Bupropion • Wellbutrin
- Duloxetine • Cymbalta
- Gabapentin • Neurontin
- Modafinil • Provigil
- Quetiapine • Seroquel
- Sertraline • Zoloft
- Topiramate • Topamax
- Trazodone • Desyrel
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Vocci FJ, Acri J, Elkashef A. Medication development for addictive disorders: the state of the science. Am J Psychiatry 2005;162:1432-4.
2. Newton TF, Roache JD, De La Garza R, 2nd, et al. Safety of intravenous methamphetamine administration during treatment with bupropion. Psychopharmacology (Berl) 2005;182:426-35.
3. Newton TF, Roache JD, De La Garza R, et al. Bupropion reduces methamphetamine-induced subjective effects and cue-induced craving. Neuropsychopharmacology 2006;31:1537-44.
4. Ling W, Rawson R, Shoptaw S. Management of methamphetamine abuse and dependence. Curr Psychiatry Rep 2006;8:345-54.
5. Umanoff DF. Trial of modafinil for cocaine dependence. Neuropsychopharmacology 2005;30:2298; author reply 2299-300.
6. Heinzerling KG, Shoptaw S, Peck JA, et al. Randomized, placebo-controlled trial of baclofen and gabapentin for the treatment of methamphetamine dependence. Drug Alcohol Depend 2006;85:177-84.
7. Shoptaw S, Huber A, Peck J, et al. Randomized, placebo-controlled trial of sertraline and contingency management for the treatment of methamphetamine dependence. Drug Alcohol Depend 2006;85:12-8.
8. Johnson BA, Roache JD, Ait-Daoud N, et al. Effects of acute topiramate dosing on methamphetamine-induced subjective mood. Int J Neuropsychopharmacol 2007;10:85-98.
9. Bostwick J, Lineberry T. The ‘meth’ epidemic: Managing acute psychosis, agitation, and suicide risk. Current Psychiatry 2006;5(11):46-62.
10. Simon SL, Dacey J, Glynn S, et al. The effect of relapse on cognition in abstinent methamphetamine abusers. J Subst Abuse Treat 2004;27:59-66.
11. Wilson JM, Kalasinsky KS, Levey AI, et al. Striatal dopamine nerve terminal markers in human, chronic methamphetamine users. Nat Med 1996;2:699-703.
12. Moszczynska A, Fitzmaurice P, Ang L, et al. Why is parkinsonism not a feature of human methamphetamine users? Brain 2004;127:363-70.
13. Armstrong BD, Noguchi KK. The neurotoxic effects of 3,4-methylenedioxymethamphetamine (MDMA) and methamphetamine on serotonin, dopamine, and GABAergic terminals: an in-vitro autoradiographic study in rats. Neurotoxicology 2004;25:905-14.
14. London ED, Berman SM, Voytek B, et al. Cerebral metabolic dysfunction and impaired vigilance in recently abstinent methamphetamine abusers. Biol Psychiatry 2005;58:770-8.
15. London ED, Simon SL, Berman SM, et al. Mood disturbances and regional cerebral metabolic abnormalities in recently abstinent methamphetamine abusers. Arch Gen Psychiatry 2004;61:73-84.
16. Nordahl TE, Salo R, Leamon M. Neuropsychological effects of chronic methamphetamine use on neurotransmitters and cognition: a review. J Neuropsychiatry Clin Neurosci 2003;15:317-25.
17. Wang GJ, Volkow ND, Chang L, et al. Partial recovery of brain metabolism in methamphetamine abusers after protracted abstinence. Am J Psychiatry 2004;161:242-8.
18. Cherner M, Letendre S, Heaton RK, et al. Hepatitis C augments cognitive deficits associated with HIV infection and methamphetamine. Neurology 2005;64:1343-7.
19. Stoops WW. Aripiprazole as a potential pharmacotherapy for stimulant dependence: human laboratory studies with damphetamine. Exp Clin Psychopharmacol 2006;14:413-21.
20. Yen CF, Wu HY, Yen JY, Ko CH. Effects of brief cognitive-behavioral interventions on confidence to resist the urges to use heroin and methamphetamine in relapse-related situations. J Nerv Ment Dis 2004;192:788-91.
21. Roll JM, Petry NM, Stitzer ML, et al. Contingency management for the treatment of methamphetamine use disorders. Am J Psychiatry 2006;163:1993-9.
22. Shoptaw S, Klausner JD, Reback CJ, et al. A public health response to the methamphetamine epidemic: the implementation of contingency management to treat methamphetamine dependence. BMC Public Health 2006;6:214.-
23. Shoptaw S, Rawson RA, McCann MJ, Obert JL. The Matrix model of outpatient stimulant abuse treatment: evidence of efficacy. J Addict Dis 1994;13:129-41.
24. Sindelar J, Elbel B, Petry NM. What do we get for our money? Cost-effectiveness of adding contingency management. Addiction 2007;102:309-16.
25. Shoptaw S. Methamphetamine use in urban gay and bisexual populations. Top HIV Med 2006;14:84-7.
26. Bolding G, Hart G, Sherr L, Elford J. Use of crystal methamphetamine among gay men in London. Addiction 2006;101:1622-30.
27. Peck JA, Shoptaw S, Rotheram-Fuller E, et al. HIV-associated medical, behavioral, and psychiatric characteristics of treatment-seeking, methamphetamine-dependent men who have sex with men. J Addict Dis 2005;24:115-32.
28. Semple SJ, Patterson TL, Grant I. The context of sexual risk behavior among heterosexual methamphetamine users. Addict Behav 2004;29:807-10.
29. Mahajan SD, Hu Z, Reynolds JL, et al. Methamphetamine modulates gene expression patterns in monocyte derived mature dendritic cells: implications for HIV-1 pathogenesis. Mol Diagn Ther 2006;10:257-69.
30. Rawson RA, Marinelli-Casey P, Anglin MD, et al. A multi-site comparison of psychosocial approaches for the treatment of methamphetamine dependence. Addiction 2004;99:708-17.
31. McGregor C, Srisurapanont M, Jittiwutikarn J, et al. The nature, time course and severity of methamphetamine withdrawal. Addiction 2005;100:1320-9.
32. Peck JA, Reback CJ, Yang X, et al. Sustained reductions in drug use and depression symptoms from treatment for drug abuse in methamphetamine-dependent gay and bisexual men. J Urban Health 2005;82:i100-8.
33. Matuszewich L, Yamamoto BK. Chronic stress augments the long-term and acute effects of methamphetamine. Neuroscience 2004;124:637-46.
34. Batki SL, Harris DS. Quantitative drug levels in stimulant psychosis: relationship to symptom severity, catecholamines and hyperkinesia. Am J Addict 2004;13:461-70.
35. Suzuki A, Nakamura K, Sekine Y, et al. An association study between catechol-O-methyl transferase gene polymorphism and methamphetamine psychotic disorder. Psychiatr Genet 2006;16:133-8.
36. Sekine Y, Ouchi Y, Takei N, et al. Brain serotonin transporter density and aggression in abstinent methamphetamine abusers. Arch Gen Psychiatry 2006;63:90-100.
1. Vocci FJ, Acri J, Elkashef A. Medication development for addictive disorders: the state of the science. Am J Psychiatry 2005;162:1432-4.
2. Newton TF, Roache JD, De La Garza R, 2nd, et al. Safety of intravenous methamphetamine administration during treatment with bupropion. Psychopharmacology (Berl) 2005;182:426-35.
3. Newton TF, Roache JD, De La Garza R, et al. Bupropion reduces methamphetamine-induced subjective effects and cue-induced craving. Neuropsychopharmacology 2006;31:1537-44.
4. Ling W, Rawson R, Shoptaw S. Management of methamphetamine abuse and dependence. Curr Psychiatry Rep 2006;8:345-54.
5. Umanoff DF. Trial of modafinil for cocaine dependence. Neuropsychopharmacology 2005;30:2298; author reply 2299-300.
6. Heinzerling KG, Shoptaw S, Peck JA, et al. Randomized, placebo-controlled trial of baclofen and gabapentin for the treatment of methamphetamine dependence. Drug Alcohol Depend 2006;85:177-84.
7. Shoptaw S, Huber A, Peck J, et al. Randomized, placebo-controlled trial of sertraline and contingency management for the treatment of methamphetamine dependence. Drug Alcohol Depend 2006;85:12-8.
8. Johnson BA, Roache JD, Ait-Daoud N, et al. Effects of acute topiramate dosing on methamphetamine-induced subjective mood. Int J Neuropsychopharmacol 2007;10:85-98.
9. Bostwick J, Lineberry T. The ‘meth’ epidemic: Managing acute psychosis, agitation, and suicide risk. Current Psychiatry 2006;5(11):46-62.
10. Simon SL, Dacey J, Glynn S, et al. The effect of relapse on cognition in abstinent methamphetamine abusers. J Subst Abuse Treat 2004;27:59-66.
11. Wilson JM, Kalasinsky KS, Levey AI, et al. Striatal dopamine nerve terminal markers in human, chronic methamphetamine users. Nat Med 1996;2:699-703.
12. Moszczynska A, Fitzmaurice P, Ang L, et al. Why is parkinsonism not a feature of human methamphetamine users? Brain 2004;127:363-70.
13. Armstrong BD, Noguchi KK. The neurotoxic effects of 3,4-methylenedioxymethamphetamine (MDMA) and methamphetamine on serotonin, dopamine, and GABAergic terminals: an in-vitro autoradiographic study in rats. Neurotoxicology 2004;25:905-14.
14. London ED, Berman SM, Voytek B, et al. Cerebral metabolic dysfunction and impaired vigilance in recently abstinent methamphetamine abusers. Biol Psychiatry 2005;58:770-8.
15. London ED, Simon SL, Berman SM, et al. Mood disturbances and regional cerebral metabolic abnormalities in recently abstinent methamphetamine abusers. Arch Gen Psychiatry 2004;61:73-84.
16. Nordahl TE, Salo R, Leamon M. Neuropsychological effects of chronic methamphetamine use on neurotransmitters and cognition: a review. J Neuropsychiatry Clin Neurosci 2003;15:317-25.
17. Wang GJ, Volkow ND, Chang L, et al. Partial recovery of brain metabolism in methamphetamine abusers after protracted abstinence. Am J Psychiatry 2004;161:242-8.
18. Cherner M, Letendre S, Heaton RK, et al. Hepatitis C augments cognitive deficits associated with HIV infection and methamphetamine. Neurology 2005;64:1343-7.
19. Stoops WW. Aripiprazole as a potential pharmacotherapy for stimulant dependence: human laboratory studies with damphetamine. Exp Clin Psychopharmacol 2006;14:413-21.
20. Yen CF, Wu HY, Yen JY, Ko CH. Effects of brief cognitive-behavioral interventions on confidence to resist the urges to use heroin and methamphetamine in relapse-related situations. J Nerv Ment Dis 2004;192:788-91.
21. Roll JM, Petry NM, Stitzer ML, et al. Contingency management for the treatment of methamphetamine use disorders. Am J Psychiatry 2006;163:1993-9.
22. Shoptaw S, Klausner JD, Reback CJ, et al. A public health response to the methamphetamine epidemic: the implementation of contingency management to treat methamphetamine dependence. BMC Public Health 2006;6:214.-
23. Shoptaw S, Rawson RA, McCann MJ, Obert JL. The Matrix model of outpatient stimulant abuse treatment: evidence of efficacy. J Addict Dis 1994;13:129-41.
24. Sindelar J, Elbel B, Petry NM. What do we get for our money? Cost-effectiveness of adding contingency management. Addiction 2007;102:309-16.
25. Shoptaw S. Methamphetamine use in urban gay and bisexual populations. Top HIV Med 2006;14:84-7.
26. Bolding G, Hart G, Sherr L, Elford J. Use of crystal methamphetamine among gay men in London. Addiction 2006;101:1622-30.
27. Peck JA, Shoptaw S, Rotheram-Fuller E, et al. HIV-associated medical, behavioral, and psychiatric characteristics of treatment-seeking, methamphetamine-dependent men who have sex with men. J Addict Dis 2005;24:115-32.
28. Semple SJ, Patterson TL, Grant I. The context of sexual risk behavior among heterosexual methamphetamine users. Addict Behav 2004;29:807-10.
29. Mahajan SD, Hu Z, Reynolds JL, et al. Methamphetamine modulates gene expression patterns in monocyte derived mature dendritic cells: implications for HIV-1 pathogenesis. Mol Diagn Ther 2006;10:257-69.
30. Rawson RA, Marinelli-Casey P, Anglin MD, et al. A multi-site comparison of psychosocial approaches for the treatment of methamphetamine dependence. Addiction 2004;99:708-17.
31. McGregor C, Srisurapanont M, Jittiwutikarn J, et al. The nature, time course and severity of methamphetamine withdrawal. Addiction 2005;100:1320-9.
32. Peck JA, Reback CJ, Yang X, et al. Sustained reductions in drug use and depression symptoms from treatment for drug abuse in methamphetamine-dependent gay and bisexual men. J Urban Health 2005;82:i100-8.
33. Matuszewich L, Yamamoto BK. Chronic stress augments the long-term and acute effects of methamphetamine. Neuroscience 2004;124:637-46.
34. Batki SL, Harris DS. Quantitative drug levels in stimulant psychosis: relationship to symptom severity, catecholamines and hyperkinesia. Am J Addict 2004;13:461-70.
35. Suzuki A, Nakamura K, Sekine Y, et al. An association study between catechol-O-methyl transferase gene polymorphism and methamphetamine psychotic disorder. Psychiatr Genet 2006;16:133-8.
36. Sekine Y, Ouchi Y, Takei N, et al. Brain serotonin transporter density and aggression in abstinent methamphetamine abusers. Arch Gen Psychiatry 2006;63:90-100.
Curbing nocturnal binges in sleep-related eating disorder
Ms. G, age 39, has a body mass index (BMI) >35 kg/m2 and is pursuing bariatric surgery to treat obesity. She is frustrated with dieting and describes a decade of unconscious nocturnal eating, including peanut butter and uncooked spaghetti.
This behavior began after her divorce 10 years ago. Initially she had partial recall of the nocturnal binges, but now describes full amnesia. Treatment for a depressive episode did not control her nocturnal eating.
Sleep-related eating disorder (SRED) can be associated with disrupted sleep, weight gain, and major chronic morbidity. In SRED—involuntary eating while asleep, with partial or complete amnesia—the normal suppression of eating during the sleep period is disinhibited. The disorder can be idiopathic, associated with medication use, or linked to other sleep disorders such as somnambulism (sleepwalking), restless legs syndrome (RLS), periodic limb movement disorder (PLMD), or obstructive sleep apnea (OSA).
SRED is more common in women than men; it usually begins in the third decade of life but can begin in childhood or middle age. About one-half of SRED patients also have a psychiatric illness, usually a mood disorder. Unremitting SRED may lead to psychopathology, as the onset of sleep-related eating usually precedes the onset of a psychiatric disorder by years.
SRED often is unrecognized, but it can be effectively identified and treated. This article examines how to:
- distinguish SRED from nocturnal eating syndrome (NES) and other disorders
- identify precipitating causes
- select effective pharmacologic therapy.
Because hormones that regulate appetite, food intake, and body weight also play a role in sleep regulation, patients with eating disorders often have associated sleep disorders. For example, obesity is related to obstructive sleep apnea (OSA)—weight gain is a risk factor for OSA, and weight loss often is an effective treatment.1 Moreover, patients with anorexia nervosa frequently demonstrate sleep initiation and maintenance insomnia.2
Conversely, epidemiologic studies have demonstrated that sleep duration is inversely correlated with body mass index. In particular, individuals with shorter sleep times are more likely to be overweight.3 The nature of this association is unclear; however, hormones that normally regulate appetite are disrupted in patients with sleep deprivation. For instance, leptin is an appetite suppressant that is normally released from adipocytes during sleep, so sleep deprivation may promote hunger by restricting its secretion.4
Differentiating SRED from NES
Eating and sleeping—and disorders of each—are closely linked (Box).1-4 SRED and night eating syndrome (NES) are 2 principal night eating disorders. SRED is characterized by inappropriately consuming food after falling asleep,5 whereas NES is characterized by hyperphagia after the evening meal, either before bedtime or after fully awakening during the night.6
To meet diagnostic criteria for SRED, patients must experience involuntary nocturnal eating and demonstrate at least 1 other symptom, such as:
- eating peculiar, inedible, or toxic substances
- engaging in dangerous behavior while preparing food (Table 1).
Level of consciousness. In both SRED and NES, patients demonstrate morning anorexia. However, patients with NES report being awake and alert during their nocturnal eating, whereas patients with SRED describe partial or complete amnesia. SRED patients with partial awareness often describe the experience as being involuntary, dream-like, and “out-of-control.” Interestingly, hunger is notably absent during most episodes in which patients have at least partial awareness.
Typically, patients cannot be awakened easily from a sleep-eating episode. In this regard, SRED resembles sleepwalking. Sleepwalking without eating often precedes SRED, but once eating develops it often becomes the predominant or exclusive sleepwalking behavior. This pattern has led many researchers to consider SRED a “sleepwalking variant disorder.”
Eating episodes in SRED are often characterized by binge eating, and many patients describe at least one episode per night.5 They usually eat high-calorie foods. The spectrum of cuisine is broad, ranging from dry cereal to hot meals that require more than 30 minutes to prepare. Patients treated at our sleep center report eating foods that are high in simple carbohydrates, fats, and—to a lesser extent—protein. Peanut butter—a preferred item—can lead to near-choking episodes when patients fall asleep with peanut butter in their mouths and wake up gasping for air. Alcohol consumption is rare.
SRED episodes can be hazardous, with risks of drinking or eating excessively hot liquids or solids, choking on thick foods, or receiving lacerations while using knives to prepare food. Patients may consume foods to which they are allergic or eat inedible or even toxic substances (Table 2).5,7-9
Table 1
Differences between expressive and supportive psychotherapy
|
| Source: International classification of sleep disorders: diagnostic and coding manual, 2nd ed. Westchester, IL: American Academy of Sleep Medicine; 2005:174-5. |
Table 2
Typical foods consumed while sleep-eating
| Simple | Peanut butter, dry cereal, candy, bread/toast |
| Peculiar | Uncooked spaghetti, sugar/ salt sandwiches, cat/dog food, frozen food |
| Inedible/toxic | Egg shells, coffee beans, sunfl ower shells, buttered cigarettes, glue/cleaning solutions |
Chain of consequences
Repeated nocturnal binge eating episodes can have multiple adverse health effects.5,7 Patients often wake up with painful abdominal distention. Weight gain and subsequent increased BMI may compromise the control of medical complications such as diabetes mellitus, hyperlipidemia, hypertriglyceridemia, hypertension, OSA, and cardiovascular disease. Patients with SRED also report dental problems such as tooth chipping and increased incidence of caries.
Failure to control nocturnal eating can lead to secondary depressive disorders related to excessive weight gain. Moreover, SRED patients’ nighttime behaviors may disrupt their bed partners’ sleep and cause interpersonal and marital problems.
Untreated SRED is usually unremitting. In our experience, most patients describe suffering for years before seeking treatment. Many report that their symptoms have been dismissed by other physicians or wrongly attributed to a mood disorder. Not surprisingly, patients in obesity clinics and eating disorder groups regularly report SRED.
Multiple causes
Medication-induced. The commonly prescribed hypnotic zolpidem can induce SRED.10,11 Sporadic cases of SRED have been reported with other psychotropics, such as tricyclic antidepressants, anticholinergics, lithium, triazolam, olanzapine, and risperidone.12
Life stressors. For a subgroup of patients, such as Ms. G, a life stressor such as a death or divorce precipitates the disorder. Others report SRED onset with cessation of cigarette smoking, ethanol abuse, or amphetamine/cocaine abuse.5,7 Thus, SRED can be viewed as a “final common pathway disorder” that can be triggered by a variety of sleep disorders, medical-neurologic disorders, medications, and stress. It also can be idiopathic (Table 3).12
Table 3
Sleep disorders and medications associated with SRED
| Sleep disorders | Sleepwalking, obstructive sleep apnea, restless legs syndrome, circadian rhythm disorder, narcolepsy |
| Medications | Zolpidem, lithium, triazolam, olanzapine, risperidone, anticholinergics |
| Source: References 5,7-9 | |
CASE CONTINUED: Reaching a diagnosis
Ms. G’s psychiatrist refers her to an accredited sleep center, where she is instructed to keep a diary of her eating and sleeping behaviors for 2 weeks. She returns to the center and undergoes overnight video polysomnography (PSG). During this test, Ms. G demonstrates recurrent confusional arousals arising from non-rapid eye movement sleep (NREM) and eating binges while asleep with no subsequent recall.
Sleep studies aid diagnosis
Diagnosing a patient with SRED requires taking a diligent history to:
- characterize nocturnal eating
- identify predisposing or precipitating factors
- differentiate the behavior from other sleep-related or eating disorders.
At our sleep center, we frequently ask patients and their families to track the patient’s sleep and nocturnal eating behavior 2 weeks before a clinic visit. These diaries help document sleep and eating patterns and assess the patient’s awareness and subsequent recall.
As described above, recurrent nighttime eating with full awareness and control would be best characterized as NES. How-ever, there is some debate as to the extent that SRED can manifest with substantial or full alertness and subsequent recall.13 SRED and NES might be at opposite poles of a pathology continuum, in which a sub-group of patients falls into a “gray area” of mixed SRED/NES features.13,14
Self-induced emesis or other purging behavior usually is not seen in SRED. If a patient presents with this symptom, consider an alternate diagnosis such as bulimia nervosa. A patient with SRED may be diagnosed with a coexisting eating disorder, however, as long as the diagnostic features of the eating disorder are not associated with the nocturnal episodes of SRED.
Finally, at least 2 reports exist of a nocturnal dissociative disorder, in which a recurrent nocturnal “eating personality” emerges.7
Sleep laboratory testing. Overnight video PSG—recording the biophysiologic changes that occur during sleep—often is valuable in characterizing SRED and identifying other sleep disorders. To facilitate the eating behavior, we ask patients to bring to the sleep laboratory commonly consumed food to be placed within reach of their bed.
If the patient does eat during the study, we identify the sleep state (non-REM sleep or REM sleep) that precipitates the behavior. Confusional arousals, both with and without eating, usually arise from nonREM sleep.
In patients with SRED, PSG often helps to identify other sleep abnormalities that trigger arousal. Reversible disorders such as RLS, PLMD, and OSA or more subtle sleep disordered breathing are especially important to identify so they can be properly treated. Recently, PSG found rhythmic masticatory muscle activity in stages 1 and 2 non-REM sleep in 29 of 35 patients diagnosed with SRED.15
CASE CONTINUED: Adding medication
After diagnosing SRED, Ms. G’s psychiatrist initiates the anticonvulsant topiramate, 25 mg at bedtime. After the dose is gradually increased in 25-mg increments to 100 mg at bedtime, Ms. G achieves full control of recurrent nocturnal eating. She loses 40 pounds within the next 6 months.
Pharmacotherapy
SRED is treatable and a reversible cause of obesity. The choice of medication depends on:
- which form of SRED the patient exhibits (drug-induced or idiopathic)
- whether the patient has treatable comorbid conditions.
Temazepam. Switch patients whose SRED is triggered by zolpidem or another hypnotic to a different agent. We have had excellent success with temazepam, 15 to 30 mg at bedtime.
Topiramate. For idiopathic SRED or the sleepwalking variant of SRED, trials from 2 academic institutions suggest that off-label use of topiramate, 25 to 150 mg at bedtime, may be the treatment of choice.16-18
Start topiramate at 25 mg, and increase in 25-mg increments every 5 to 7 days until the night eating episodes are eliminated. Paresthesias, visual symptoms, and (rarely) renal calculus are reported side effects.
Other medications. Other agents that have shown at least some benefit in patients with SRED include dopaminergic agonists, opiates, and clonazepam.14 Patients with SRED and a history of chemical dependency may respond to combined levodopa, trazodone, and bupropion (dopaminergic/noradrenergic antidepressant) therapy at bedtime.19 Also focus treatment on any coexisting sleep disorder, such as RLS or OSA.
Related resources
- American Obesity Association. www.obesity.org.
- American Insomnia Association. www.americaninsomniaassociation.org.
- Schenck CH. Paradox lost: midnight in the battleground of sleep and dreams. Minneapolis, MN: Extreme-Nights, LLC; 2006.
Drug brand names
- Bupropion • Wellbutrin
- Clonazepam • Klonopin
- Levodopa/carbidopa • Sinemet
- Lithium • Eskalith, Lithobid
- Olanzapine • Zyprexa
- Risperidone • Risperdal
- Temazepam • Restoril
- Topiramate • Topamax
- Trazodone • Desyrel
- Triazolam • Halcion
- Zolpidem • Ambien
Disclosures
Drs. Howell and Schenck report no financial relationships with any companies whose products are mentioned in this article or with manufacturers of competing products.
Dr. Crow has received grants or research support from Bristol-Myers Squibb and Pfizer Inc. and served as a consultant to Eli Lilly and Company.
1. Flemons WW. Obstructive sleep apnea. N Engl J Med 2002;347:498-504.
2. Levy AB, Dixon KN, Schmidt H. Sleep architecture in anorexia nervosa and bulimia. Biol Psychiatry 1988;23:99-101.
3. Gangwisch JE, Malaspina D, Boden-Albala B, Heymsfield SB. Inadequate sleep as a risk factor for obesity: analyses of the NHANES I. Sleep 2005;28:1289-96.
4. Mullington JM, Chan JL, Van Dongen HP, et al. Sleep loss reduces the diurnal rhythm amplitude of leptin in healthy men. J Neuroendocrinol 2003;15:851-4.
5. International classification of sleep disorders: diagnostic and coding manual, 2nd ed. Westchester, IL: American Academy of Sleep Medicine; 2005.
6. Rogers NL, Dinges DF, Allison KC, et al. Assessment of sleep in women with night eating syndrome. Sleep 2006;29:814-19.
7. Schenck CH, Mahowald MW. Review of nocturnal sleep-related eating disorders. Int J Eat Disord 1994;15:343-56.
8. Winkelman JW. Clinical and polysomnographic features of sleep-related eating disorder. J Clin Psychiatry 1998;59:14-9.
9. Schenck CH. Paradox lost: midnight in the battleground of sleep and dreams. Minneapolis, MN: Extreme-Nights, LLC; 2006.
10. Morgenthaler TI, Silber MH. Amnestic sleep-related eating disorder associated with zolpidem. Sleep Med 2002;3:323-7.
11. Schenck CH, Connoy DA, Castellanos M, et al. Zolpidem-induced sleep-related eating disorder (SRED) in 19 patients. Sleep 2005;28:A259.-
12. Schenck CH, Hurwitz TD, O’Connor KA, Mahowald MW. Additional categories of sleep-related eating disorders and the current status of treatment. Sleep 1993;16:457-66.
13. Winkelman JW. Sleep-related eating disorder and night eating syndrome: sleep disorders, eating disorders, or both? Sleep 2006;29:876-7.
14. Schenck CH. Journal search and commentary: a study of circadian eating and sleeping patterns in night eating syndrome (NES) points the way to future studies on NES and sleep-related eating disorder. Sleep Medicine 2006;7:653-6.
15. Vetrugno R, Manconi M, Ferini-Strambi L, et al. Nocturnal eating: sleep-related eating disorder or night eating syndrome? A videopolysomnographic study. Sleep 2006;29:949-54.
16. Winkelman JW. Treatment of nocturnal eating syndrome and sleep-related eating disorder with topiramate. Sleep Medicine 2003;4:243-6.
17. Schenck CH, Mahowald MW. Topiramate therapy of sleep related eating disorder. Sleep 2006;29:A268.-
18. Winkelman JW. Efficacy and tolerability of topiramate in the treatment of sleep related eating disorders: an open-label, retrospective case series. J Clin Psychiatry In press.
19. Schenck CH, Mahowald MW. Combined bupropionlevodopa-trazodone therapy of sleep-related eating and sleep disruption in two adults with chemical dependency. Sleep 2000;23:587-8.
Ms. G, age 39, has a body mass index (BMI) >35 kg/m2 and is pursuing bariatric surgery to treat obesity. She is frustrated with dieting and describes a decade of unconscious nocturnal eating, including peanut butter and uncooked spaghetti.
This behavior began after her divorce 10 years ago. Initially she had partial recall of the nocturnal binges, but now describes full amnesia. Treatment for a depressive episode did not control her nocturnal eating.
Sleep-related eating disorder (SRED) can be associated with disrupted sleep, weight gain, and major chronic morbidity. In SRED—involuntary eating while asleep, with partial or complete amnesia—the normal suppression of eating during the sleep period is disinhibited. The disorder can be idiopathic, associated with medication use, or linked to other sleep disorders such as somnambulism (sleepwalking), restless legs syndrome (RLS), periodic limb movement disorder (PLMD), or obstructive sleep apnea (OSA).
SRED is more common in women than men; it usually begins in the third decade of life but can begin in childhood or middle age. About one-half of SRED patients also have a psychiatric illness, usually a mood disorder. Unremitting SRED may lead to psychopathology, as the onset of sleep-related eating usually precedes the onset of a psychiatric disorder by years.
SRED often is unrecognized, but it can be effectively identified and treated. This article examines how to:
- distinguish SRED from nocturnal eating syndrome (NES) and other disorders
- identify precipitating causes
- select effective pharmacologic therapy.
Because hormones that regulate appetite, food intake, and body weight also play a role in sleep regulation, patients with eating disorders often have associated sleep disorders. For example, obesity is related to obstructive sleep apnea (OSA)—weight gain is a risk factor for OSA, and weight loss often is an effective treatment.1 Moreover, patients with anorexia nervosa frequently demonstrate sleep initiation and maintenance insomnia.2
Conversely, epidemiologic studies have demonstrated that sleep duration is inversely correlated with body mass index. In particular, individuals with shorter sleep times are more likely to be overweight.3 The nature of this association is unclear; however, hormones that normally regulate appetite are disrupted in patients with sleep deprivation. For instance, leptin is an appetite suppressant that is normally released from adipocytes during sleep, so sleep deprivation may promote hunger by restricting its secretion.4
Differentiating SRED from NES
Eating and sleeping—and disorders of each—are closely linked (Box).1-4 SRED and night eating syndrome (NES) are 2 principal night eating disorders. SRED is characterized by inappropriately consuming food after falling asleep,5 whereas NES is characterized by hyperphagia after the evening meal, either before bedtime or after fully awakening during the night.6
To meet diagnostic criteria for SRED, patients must experience involuntary nocturnal eating and demonstrate at least 1 other symptom, such as:
- eating peculiar, inedible, or toxic substances
- engaging in dangerous behavior while preparing food (Table 1).
Level of consciousness. In both SRED and NES, patients demonstrate morning anorexia. However, patients with NES report being awake and alert during their nocturnal eating, whereas patients with SRED describe partial or complete amnesia. SRED patients with partial awareness often describe the experience as being involuntary, dream-like, and “out-of-control.” Interestingly, hunger is notably absent during most episodes in which patients have at least partial awareness.
Typically, patients cannot be awakened easily from a sleep-eating episode. In this regard, SRED resembles sleepwalking. Sleepwalking without eating often precedes SRED, but once eating develops it often becomes the predominant or exclusive sleepwalking behavior. This pattern has led many researchers to consider SRED a “sleepwalking variant disorder.”
Eating episodes in SRED are often characterized by binge eating, and many patients describe at least one episode per night.5 They usually eat high-calorie foods. The spectrum of cuisine is broad, ranging from dry cereal to hot meals that require more than 30 minutes to prepare. Patients treated at our sleep center report eating foods that are high in simple carbohydrates, fats, and—to a lesser extent—protein. Peanut butter—a preferred item—can lead to near-choking episodes when patients fall asleep with peanut butter in their mouths and wake up gasping for air. Alcohol consumption is rare.
SRED episodes can be hazardous, with risks of drinking or eating excessively hot liquids or solids, choking on thick foods, or receiving lacerations while using knives to prepare food. Patients may consume foods to which they are allergic or eat inedible or even toxic substances (Table 2).5,7-9
Table 1
Differences between expressive and supportive psychotherapy
|
| Source: International classification of sleep disorders: diagnostic and coding manual, 2nd ed. Westchester, IL: American Academy of Sleep Medicine; 2005:174-5. |
Table 2
Typical foods consumed while sleep-eating
| Simple | Peanut butter, dry cereal, candy, bread/toast |
| Peculiar | Uncooked spaghetti, sugar/ salt sandwiches, cat/dog food, frozen food |
| Inedible/toxic | Egg shells, coffee beans, sunfl ower shells, buttered cigarettes, glue/cleaning solutions |
Chain of consequences
Repeated nocturnal binge eating episodes can have multiple adverse health effects.5,7 Patients often wake up with painful abdominal distention. Weight gain and subsequent increased BMI may compromise the control of medical complications such as diabetes mellitus, hyperlipidemia, hypertriglyceridemia, hypertension, OSA, and cardiovascular disease. Patients with SRED also report dental problems such as tooth chipping and increased incidence of caries.
Failure to control nocturnal eating can lead to secondary depressive disorders related to excessive weight gain. Moreover, SRED patients’ nighttime behaviors may disrupt their bed partners’ sleep and cause interpersonal and marital problems.
Untreated SRED is usually unremitting. In our experience, most patients describe suffering for years before seeking treatment. Many report that their symptoms have been dismissed by other physicians or wrongly attributed to a mood disorder. Not surprisingly, patients in obesity clinics and eating disorder groups regularly report SRED.
Multiple causes
Medication-induced. The commonly prescribed hypnotic zolpidem can induce SRED.10,11 Sporadic cases of SRED have been reported with other psychotropics, such as tricyclic antidepressants, anticholinergics, lithium, triazolam, olanzapine, and risperidone.12
Life stressors. For a subgroup of patients, such as Ms. G, a life stressor such as a death or divorce precipitates the disorder. Others report SRED onset with cessation of cigarette smoking, ethanol abuse, or amphetamine/cocaine abuse.5,7 Thus, SRED can be viewed as a “final common pathway disorder” that can be triggered by a variety of sleep disorders, medical-neurologic disorders, medications, and stress. It also can be idiopathic (Table 3).12
Table 3
Sleep disorders and medications associated with SRED
| Sleep disorders | Sleepwalking, obstructive sleep apnea, restless legs syndrome, circadian rhythm disorder, narcolepsy |
| Medications | Zolpidem, lithium, triazolam, olanzapine, risperidone, anticholinergics |
| Source: References 5,7-9 | |
CASE CONTINUED: Reaching a diagnosis
Ms. G’s psychiatrist refers her to an accredited sleep center, where she is instructed to keep a diary of her eating and sleeping behaviors for 2 weeks. She returns to the center and undergoes overnight video polysomnography (PSG). During this test, Ms. G demonstrates recurrent confusional arousals arising from non-rapid eye movement sleep (NREM) and eating binges while asleep with no subsequent recall.
Sleep studies aid diagnosis
Diagnosing a patient with SRED requires taking a diligent history to:
- characterize nocturnal eating
- identify predisposing or precipitating factors
- differentiate the behavior from other sleep-related or eating disorders.
At our sleep center, we frequently ask patients and their families to track the patient’s sleep and nocturnal eating behavior 2 weeks before a clinic visit. These diaries help document sleep and eating patterns and assess the patient’s awareness and subsequent recall.
As described above, recurrent nighttime eating with full awareness and control would be best characterized as NES. How-ever, there is some debate as to the extent that SRED can manifest with substantial or full alertness and subsequent recall.13 SRED and NES might be at opposite poles of a pathology continuum, in which a sub-group of patients falls into a “gray area” of mixed SRED/NES features.13,14
Self-induced emesis or other purging behavior usually is not seen in SRED. If a patient presents with this symptom, consider an alternate diagnosis such as bulimia nervosa. A patient with SRED may be diagnosed with a coexisting eating disorder, however, as long as the diagnostic features of the eating disorder are not associated with the nocturnal episodes of SRED.
Finally, at least 2 reports exist of a nocturnal dissociative disorder, in which a recurrent nocturnal “eating personality” emerges.7
Sleep laboratory testing. Overnight video PSG—recording the biophysiologic changes that occur during sleep—often is valuable in characterizing SRED and identifying other sleep disorders. To facilitate the eating behavior, we ask patients to bring to the sleep laboratory commonly consumed food to be placed within reach of their bed.
If the patient does eat during the study, we identify the sleep state (non-REM sleep or REM sleep) that precipitates the behavior. Confusional arousals, both with and without eating, usually arise from nonREM sleep.
In patients with SRED, PSG often helps to identify other sleep abnormalities that trigger arousal. Reversible disorders such as RLS, PLMD, and OSA or more subtle sleep disordered breathing are especially important to identify so they can be properly treated. Recently, PSG found rhythmic masticatory muscle activity in stages 1 and 2 non-REM sleep in 29 of 35 patients diagnosed with SRED.15
CASE CONTINUED: Adding medication
After diagnosing SRED, Ms. G’s psychiatrist initiates the anticonvulsant topiramate, 25 mg at bedtime. After the dose is gradually increased in 25-mg increments to 100 mg at bedtime, Ms. G achieves full control of recurrent nocturnal eating. She loses 40 pounds within the next 6 months.
Pharmacotherapy
SRED is treatable and a reversible cause of obesity. The choice of medication depends on:
- which form of SRED the patient exhibits (drug-induced or idiopathic)
- whether the patient has treatable comorbid conditions.
Temazepam. Switch patients whose SRED is triggered by zolpidem or another hypnotic to a different agent. We have had excellent success with temazepam, 15 to 30 mg at bedtime.
Topiramate. For idiopathic SRED or the sleepwalking variant of SRED, trials from 2 academic institutions suggest that off-label use of topiramate, 25 to 150 mg at bedtime, may be the treatment of choice.16-18
Start topiramate at 25 mg, and increase in 25-mg increments every 5 to 7 days until the night eating episodes are eliminated. Paresthesias, visual symptoms, and (rarely) renal calculus are reported side effects.
Other medications. Other agents that have shown at least some benefit in patients with SRED include dopaminergic agonists, opiates, and clonazepam.14 Patients with SRED and a history of chemical dependency may respond to combined levodopa, trazodone, and bupropion (dopaminergic/noradrenergic antidepressant) therapy at bedtime.19 Also focus treatment on any coexisting sleep disorder, such as RLS or OSA.
Related resources
- American Obesity Association. www.obesity.org.
- American Insomnia Association. www.americaninsomniaassociation.org.
- Schenck CH. Paradox lost: midnight in the battleground of sleep and dreams. Minneapolis, MN: Extreme-Nights, LLC; 2006.
Drug brand names
- Bupropion • Wellbutrin
- Clonazepam • Klonopin
- Levodopa/carbidopa • Sinemet
- Lithium • Eskalith, Lithobid
- Olanzapine • Zyprexa
- Risperidone • Risperdal
- Temazepam • Restoril
- Topiramate • Topamax
- Trazodone • Desyrel
- Triazolam • Halcion
- Zolpidem • Ambien
Disclosures
Drs. Howell and Schenck report no financial relationships with any companies whose products are mentioned in this article or with manufacturers of competing products.
Dr. Crow has received grants or research support from Bristol-Myers Squibb and Pfizer Inc. and served as a consultant to Eli Lilly and Company.
Ms. G, age 39, has a body mass index (BMI) >35 kg/m2 and is pursuing bariatric surgery to treat obesity. She is frustrated with dieting and describes a decade of unconscious nocturnal eating, including peanut butter and uncooked spaghetti.
This behavior began after her divorce 10 years ago. Initially she had partial recall of the nocturnal binges, but now describes full amnesia. Treatment for a depressive episode did not control her nocturnal eating.
Sleep-related eating disorder (SRED) can be associated with disrupted sleep, weight gain, and major chronic morbidity. In SRED—involuntary eating while asleep, with partial or complete amnesia—the normal suppression of eating during the sleep period is disinhibited. The disorder can be idiopathic, associated with medication use, or linked to other sleep disorders such as somnambulism (sleepwalking), restless legs syndrome (RLS), periodic limb movement disorder (PLMD), or obstructive sleep apnea (OSA).
SRED is more common in women than men; it usually begins in the third decade of life but can begin in childhood or middle age. About one-half of SRED patients also have a psychiatric illness, usually a mood disorder. Unremitting SRED may lead to psychopathology, as the onset of sleep-related eating usually precedes the onset of a psychiatric disorder by years.
SRED often is unrecognized, but it can be effectively identified and treated. This article examines how to:
- distinguish SRED from nocturnal eating syndrome (NES) and other disorders
- identify precipitating causes
- select effective pharmacologic therapy.
Because hormones that regulate appetite, food intake, and body weight also play a role in sleep regulation, patients with eating disorders often have associated sleep disorders. For example, obesity is related to obstructive sleep apnea (OSA)—weight gain is a risk factor for OSA, and weight loss often is an effective treatment.1 Moreover, patients with anorexia nervosa frequently demonstrate sleep initiation and maintenance insomnia.2
Conversely, epidemiologic studies have demonstrated that sleep duration is inversely correlated with body mass index. In particular, individuals with shorter sleep times are more likely to be overweight.3 The nature of this association is unclear; however, hormones that normally regulate appetite are disrupted in patients with sleep deprivation. For instance, leptin is an appetite suppressant that is normally released from adipocytes during sleep, so sleep deprivation may promote hunger by restricting its secretion.4
Differentiating SRED from NES
Eating and sleeping—and disorders of each—are closely linked (Box).1-4 SRED and night eating syndrome (NES) are 2 principal night eating disorders. SRED is characterized by inappropriately consuming food after falling asleep,5 whereas NES is characterized by hyperphagia after the evening meal, either before bedtime or after fully awakening during the night.6
To meet diagnostic criteria for SRED, patients must experience involuntary nocturnal eating and demonstrate at least 1 other symptom, such as:
- eating peculiar, inedible, or toxic substances
- engaging in dangerous behavior while preparing food (Table 1).
Level of consciousness. In both SRED and NES, patients demonstrate morning anorexia. However, patients with NES report being awake and alert during their nocturnal eating, whereas patients with SRED describe partial or complete amnesia. SRED patients with partial awareness often describe the experience as being involuntary, dream-like, and “out-of-control.” Interestingly, hunger is notably absent during most episodes in which patients have at least partial awareness.
Typically, patients cannot be awakened easily from a sleep-eating episode. In this regard, SRED resembles sleepwalking. Sleepwalking without eating often precedes SRED, but once eating develops it often becomes the predominant or exclusive sleepwalking behavior. This pattern has led many researchers to consider SRED a “sleepwalking variant disorder.”
Eating episodes in SRED are often characterized by binge eating, and many patients describe at least one episode per night.5 They usually eat high-calorie foods. The spectrum of cuisine is broad, ranging from dry cereal to hot meals that require more than 30 minutes to prepare. Patients treated at our sleep center report eating foods that are high in simple carbohydrates, fats, and—to a lesser extent—protein. Peanut butter—a preferred item—can lead to near-choking episodes when patients fall asleep with peanut butter in their mouths and wake up gasping for air. Alcohol consumption is rare.
SRED episodes can be hazardous, with risks of drinking or eating excessively hot liquids or solids, choking on thick foods, or receiving lacerations while using knives to prepare food. Patients may consume foods to which they are allergic or eat inedible or even toxic substances (Table 2).5,7-9
Table 1
Differences between expressive and supportive psychotherapy
|
| Source: International classification of sleep disorders: diagnostic and coding manual, 2nd ed. Westchester, IL: American Academy of Sleep Medicine; 2005:174-5. |
Table 2
Typical foods consumed while sleep-eating
| Simple | Peanut butter, dry cereal, candy, bread/toast |
| Peculiar | Uncooked spaghetti, sugar/ salt sandwiches, cat/dog food, frozen food |
| Inedible/toxic | Egg shells, coffee beans, sunfl ower shells, buttered cigarettes, glue/cleaning solutions |
Chain of consequences
Repeated nocturnal binge eating episodes can have multiple adverse health effects.5,7 Patients often wake up with painful abdominal distention. Weight gain and subsequent increased BMI may compromise the control of medical complications such as diabetes mellitus, hyperlipidemia, hypertriglyceridemia, hypertension, OSA, and cardiovascular disease. Patients with SRED also report dental problems such as tooth chipping and increased incidence of caries.
Failure to control nocturnal eating can lead to secondary depressive disorders related to excessive weight gain. Moreover, SRED patients’ nighttime behaviors may disrupt their bed partners’ sleep and cause interpersonal and marital problems.
Untreated SRED is usually unremitting. In our experience, most patients describe suffering for years before seeking treatment. Many report that their symptoms have been dismissed by other physicians or wrongly attributed to a mood disorder. Not surprisingly, patients in obesity clinics and eating disorder groups regularly report SRED.
Multiple causes
Medication-induced. The commonly prescribed hypnotic zolpidem can induce SRED.10,11 Sporadic cases of SRED have been reported with other psychotropics, such as tricyclic antidepressants, anticholinergics, lithium, triazolam, olanzapine, and risperidone.12
Life stressors. For a subgroup of patients, such as Ms. G, a life stressor such as a death or divorce precipitates the disorder. Others report SRED onset with cessation of cigarette smoking, ethanol abuse, or amphetamine/cocaine abuse.5,7 Thus, SRED can be viewed as a “final common pathway disorder” that can be triggered by a variety of sleep disorders, medical-neurologic disorders, medications, and stress. It also can be idiopathic (Table 3).12
Table 3
Sleep disorders and medications associated with SRED
| Sleep disorders | Sleepwalking, obstructive sleep apnea, restless legs syndrome, circadian rhythm disorder, narcolepsy |
| Medications | Zolpidem, lithium, triazolam, olanzapine, risperidone, anticholinergics |
| Source: References 5,7-9 | |
CASE CONTINUED: Reaching a diagnosis
Ms. G’s psychiatrist refers her to an accredited sleep center, where she is instructed to keep a diary of her eating and sleeping behaviors for 2 weeks. She returns to the center and undergoes overnight video polysomnography (PSG). During this test, Ms. G demonstrates recurrent confusional arousals arising from non-rapid eye movement sleep (NREM) and eating binges while asleep with no subsequent recall.
Sleep studies aid diagnosis
Diagnosing a patient with SRED requires taking a diligent history to:
- characterize nocturnal eating
- identify predisposing or precipitating factors
- differentiate the behavior from other sleep-related or eating disorders.
At our sleep center, we frequently ask patients and their families to track the patient’s sleep and nocturnal eating behavior 2 weeks before a clinic visit. These diaries help document sleep and eating patterns and assess the patient’s awareness and subsequent recall.
As described above, recurrent nighttime eating with full awareness and control would be best characterized as NES. How-ever, there is some debate as to the extent that SRED can manifest with substantial or full alertness and subsequent recall.13 SRED and NES might be at opposite poles of a pathology continuum, in which a sub-group of patients falls into a “gray area” of mixed SRED/NES features.13,14
Self-induced emesis or other purging behavior usually is not seen in SRED. If a patient presents with this symptom, consider an alternate diagnosis such as bulimia nervosa. A patient with SRED may be diagnosed with a coexisting eating disorder, however, as long as the diagnostic features of the eating disorder are not associated with the nocturnal episodes of SRED.
Finally, at least 2 reports exist of a nocturnal dissociative disorder, in which a recurrent nocturnal “eating personality” emerges.7
Sleep laboratory testing. Overnight video PSG—recording the biophysiologic changes that occur during sleep—often is valuable in characterizing SRED and identifying other sleep disorders. To facilitate the eating behavior, we ask patients to bring to the sleep laboratory commonly consumed food to be placed within reach of their bed.
If the patient does eat during the study, we identify the sleep state (non-REM sleep or REM sleep) that precipitates the behavior. Confusional arousals, both with and without eating, usually arise from nonREM sleep.
In patients with SRED, PSG often helps to identify other sleep abnormalities that trigger arousal. Reversible disorders such as RLS, PLMD, and OSA or more subtle sleep disordered breathing are especially important to identify so they can be properly treated. Recently, PSG found rhythmic masticatory muscle activity in stages 1 and 2 non-REM sleep in 29 of 35 patients diagnosed with SRED.15
CASE CONTINUED: Adding medication
After diagnosing SRED, Ms. G’s psychiatrist initiates the anticonvulsant topiramate, 25 mg at bedtime. After the dose is gradually increased in 25-mg increments to 100 mg at bedtime, Ms. G achieves full control of recurrent nocturnal eating. She loses 40 pounds within the next 6 months.
Pharmacotherapy
SRED is treatable and a reversible cause of obesity. The choice of medication depends on:
- which form of SRED the patient exhibits (drug-induced or idiopathic)
- whether the patient has treatable comorbid conditions.
Temazepam. Switch patients whose SRED is triggered by zolpidem or another hypnotic to a different agent. We have had excellent success with temazepam, 15 to 30 mg at bedtime.
Topiramate. For idiopathic SRED or the sleepwalking variant of SRED, trials from 2 academic institutions suggest that off-label use of topiramate, 25 to 150 mg at bedtime, may be the treatment of choice.16-18
Start topiramate at 25 mg, and increase in 25-mg increments every 5 to 7 days until the night eating episodes are eliminated. Paresthesias, visual symptoms, and (rarely) renal calculus are reported side effects.
Other medications. Other agents that have shown at least some benefit in patients with SRED include dopaminergic agonists, opiates, and clonazepam.14 Patients with SRED and a history of chemical dependency may respond to combined levodopa, trazodone, and bupropion (dopaminergic/noradrenergic antidepressant) therapy at bedtime.19 Also focus treatment on any coexisting sleep disorder, such as RLS or OSA.
Related resources
- American Obesity Association. www.obesity.org.
- American Insomnia Association. www.americaninsomniaassociation.org.
- Schenck CH. Paradox lost: midnight in the battleground of sleep and dreams. Minneapolis, MN: Extreme-Nights, LLC; 2006.
Drug brand names
- Bupropion • Wellbutrin
- Clonazepam • Klonopin
- Levodopa/carbidopa • Sinemet
- Lithium • Eskalith, Lithobid
- Olanzapine • Zyprexa
- Risperidone • Risperdal
- Temazepam • Restoril
- Topiramate • Topamax
- Trazodone • Desyrel
- Triazolam • Halcion
- Zolpidem • Ambien
Disclosures
Drs. Howell and Schenck report no financial relationships with any companies whose products are mentioned in this article or with manufacturers of competing products.
Dr. Crow has received grants or research support from Bristol-Myers Squibb and Pfizer Inc. and served as a consultant to Eli Lilly and Company.
1. Flemons WW. Obstructive sleep apnea. N Engl J Med 2002;347:498-504.
2. Levy AB, Dixon KN, Schmidt H. Sleep architecture in anorexia nervosa and bulimia. Biol Psychiatry 1988;23:99-101.
3. Gangwisch JE, Malaspina D, Boden-Albala B, Heymsfield SB. Inadequate sleep as a risk factor for obesity: analyses of the NHANES I. Sleep 2005;28:1289-96.
4. Mullington JM, Chan JL, Van Dongen HP, et al. Sleep loss reduces the diurnal rhythm amplitude of leptin in healthy men. J Neuroendocrinol 2003;15:851-4.
5. International classification of sleep disorders: diagnostic and coding manual, 2nd ed. Westchester, IL: American Academy of Sleep Medicine; 2005.
6. Rogers NL, Dinges DF, Allison KC, et al. Assessment of sleep in women with night eating syndrome. Sleep 2006;29:814-19.
7. Schenck CH, Mahowald MW. Review of nocturnal sleep-related eating disorders. Int J Eat Disord 1994;15:343-56.
8. Winkelman JW. Clinical and polysomnographic features of sleep-related eating disorder. J Clin Psychiatry 1998;59:14-9.
9. Schenck CH. Paradox lost: midnight in the battleground of sleep and dreams. Minneapolis, MN: Extreme-Nights, LLC; 2006.
10. Morgenthaler TI, Silber MH. Amnestic sleep-related eating disorder associated with zolpidem. Sleep Med 2002;3:323-7.
11. Schenck CH, Connoy DA, Castellanos M, et al. Zolpidem-induced sleep-related eating disorder (SRED) in 19 patients. Sleep 2005;28:A259.-
12. Schenck CH, Hurwitz TD, O’Connor KA, Mahowald MW. Additional categories of sleep-related eating disorders and the current status of treatment. Sleep 1993;16:457-66.
13. Winkelman JW. Sleep-related eating disorder and night eating syndrome: sleep disorders, eating disorders, or both? Sleep 2006;29:876-7.
14. Schenck CH. Journal search and commentary: a study of circadian eating and sleeping patterns in night eating syndrome (NES) points the way to future studies on NES and sleep-related eating disorder. Sleep Medicine 2006;7:653-6.
15. Vetrugno R, Manconi M, Ferini-Strambi L, et al. Nocturnal eating: sleep-related eating disorder or night eating syndrome? A videopolysomnographic study. Sleep 2006;29:949-54.
16. Winkelman JW. Treatment of nocturnal eating syndrome and sleep-related eating disorder with topiramate. Sleep Medicine 2003;4:243-6.
17. Schenck CH, Mahowald MW. Topiramate therapy of sleep related eating disorder. Sleep 2006;29:A268.-
18. Winkelman JW. Efficacy and tolerability of topiramate in the treatment of sleep related eating disorders: an open-label, retrospective case series. J Clin Psychiatry In press.
19. Schenck CH, Mahowald MW. Combined bupropionlevodopa-trazodone therapy of sleep-related eating and sleep disruption in two adults with chemical dependency. Sleep 2000;23:587-8.
1. Flemons WW. Obstructive sleep apnea. N Engl J Med 2002;347:498-504.
2. Levy AB, Dixon KN, Schmidt H. Sleep architecture in anorexia nervosa and bulimia. Biol Psychiatry 1988;23:99-101.
3. Gangwisch JE, Malaspina D, Boden-Albala B, Heymsfield SB. Inadequate sleep as a risk factor for obesity: analyses of the NHANES I. Sleep 2005;28:1289-96.
4. Mullington JM, Chan JL, Van Dongen HP, et al. Sleep loss reduces the diurnal rhythm amplitude of leptin in healthy men. J Neuroendocrinol 2003;15:851-4.
5. International classification of sleep disorders: diagnostic and coding manual, 2nd ed. Westchester, IL: American Academy of Sleep Medicine; 2005.
6. Rogers NL, Dinges DF, Allison KC, et al. Assessment of sleep in women with night eating syndrome. Sleep 2006;29:814-19.
7. Schenck CH, Mahowald MW. Review of nocturnal sleep-related eating disorders. Int J Eat Disord 1994;15:343-56.
8. Winkelman JW. Clinical and polysomnographic features of sleep-related eating disorder. J Clin Psychiatry 1998;59:14-9.
9. Schenck CH. Paradox lost: midnight in the battleground of sleep and dreams. Minneapolis, MN: Extreme-Nights, LLC; 2006.
10. Morgenthaler TI, Silber MH. Amnestic sleep-related eating disorder associated with zolpidem. Sleep Med 2002;3:323-7.
11. Schenck CH, Connoy DA, Castellanos M, et al. Zolpidem-induced sleep-related eating disorder (SRED) in 19 patients. Sleep 2005;28:A259.-
12. Schenck CH, Hurwitz TD, O’Connor KA, Mahowald MW. Additional categories of sleep-related eating disorders and the current status of treatment. Sleep 1993;16:457-66.
13. Winkelman JW. Sleep-related eating disorder and night eating syndrome: sleep disorders, eating disorders, or both? Sleep 2006;29:876-7.
14. Schenck CH. Journal search and commentary: a study of circadian eating and sleeping patterns in night eating syndrome (NES) points the way to future studies on NES and sleep-related eating disorder. Sleep Medicine 2006;7:653-6.
15. Vetrugno R, Manconi M, Ferini-Strambi L, et al. Nocturnal eating: sleep-related eating disorder or night eating syndrome? A videopolysomnographic study. Sleep 2006;29:949-54.
16. Winkelman JW. Treatment of nocturnal eating syndrome and sleep-related eating disorder with topiramate. Sleep Medicine 2003;4:243-6.
17. Schenck CH, Mahowald MW. Topiramate therapy of sleep related eating disorder. Sleep 2006;29:A268.-
18. Winkelman JW. Efficacy and tolerability of topiramate in the treatment of sleep related eating disorders: an open-label, retrospective case series. J Clin Psychiatry In press.
19. Schenck CH, Mahowald MW. Combined bupropionlevodopa-trazodone therapy of sleep-related eating and sleep disruption in two adults with chemical dependency. Sleep 2000;23:587-8.
FLIGHTY patients a clue to hypomania
Dramatic, provocative, and confusing often describes the presentation of individuals with hypomania. But their lack of insight, rationalization, and minimization of maladaptive behavior can complicate diagnosis. Hypomanic patients often go for as long as a decade without receiving a correct diagnosis.
Full-blown mania usually is easy to recognize, but hypomania and other bipolar spectrum disorders that do not meet DSM-IV-TR criteria for bipolar I disorder are less obvious.1 The dictionary defines “flighty” as frivolous, irresponsible, capricious, mercurial, and volatile, words that also could describe hypomanic individuals. To help diagnose hypomania, I came up with a mnemonic called FLIGHTY based on the 7 DSM-IV-TR criteria for hypomania:
Flight of ideas, racing thoughts. Ask patients if they talk before they think or if their thinking is too fast.
Lacking attention and concentration, distractible. Ask patients if they have trouble reading or watching television or if they become preoccupied with unimportant details.
Insomnia or decreased need for sleep. Patients report feeling energetic despite remarkably few hours of sleep.
Grandiosity, inflated self-esteem. Inquire if patients feel more creative and powerful than others.
Hyperactive, psychomotor agitation. Determine of patients have an increase in repetitive activities or if they start many tasks but complete few.
Talkative, pressured speech. A reliable third party often can best assess talkativeness, though some patients are aware of their pressured speech and recount being “tongue-tied.”
Yearnings that lead to excessive involvement in pleasurable activities and risky behaviors. Ask whether patients have given in to their yearnings or engaged in behaviors with high potential for harm or legal consequences.
Many hypomania symptoms overlap with those of other illnesses such as attention-deficit/hyperactivity disorder, personality disorders, and anxiety disorders. Accurate diagnosis of hypomania can be critical. Chemical dependence, sexual indiscretions, delusional thinking, spending sprees, unexplained travel, suicide, and more symptoms can contribute to morbidity. Remember that DSM-IV-TR criteria for hypomania require a 4-day period of elevated or irritable mood with:
- 3 of the above symptoms if there is expansive mood
- 4 if there is only irritable mood.
Clinical judgment and examination of the overall picture—not 1 or 2 isolated symptoms—are key to the correct diagnosis.
Reference
1. Young RC, Klerman GL. Mania in late life: focus on age at onset. Am J Psychiatry 1992;149:867-76.
Dr. Wagner is assistant clinical professor, Indiana University, Bloomington, and staff psychiatrist, Richard L. Roudebush Veterans Affairs Medical Center, Indianapolis.
Dramatic, provocative, and confusing often describes the presentation of individuals with hypomania. But their lack of insight, rationalization, and minimization of maladaptive behavior can complicate diagnosis. Hypomanic patients often go for as long as a decade without receiving a correct diagnosis.
Full-blown mania usually is easy to recognize, but hypomania and other bipolar spectrum disorders that do not meet DSM-IV-TR criteria for bipolar I disorder are less obvious.1 The dictionary defines “flighty” as frivolous, irresponsible, capricious, mercurial, and volatile, words that also could describe hypomanic individuals. To help diagnose hypomania, I came up with a mnemonic called FLIGHTY based on the 7 DSM-IV-TR criteria for hypomania:
Flight of ideas, racing thoughts. Ask patients if they talk before they think or if their thinking is too fast.
Lacking attention and concentration, distractible. Ask patients if they have trouble reading or watching television or if they become preoccupied with unimportant details.
Insomnia or decreased need for sleep. Patients report feeling energetic despite remarkably few hours of sleep.
Grandiosity, inflated self-esteem. Inquire if patients feel more creative and powerful than others.
Hyperactive, psychomotor agitation. Determine of patients have an increase in repetitive activities or if they start many tasks but complete few.
Talkative, pressured speech. A reliable third party often can best assess talkativeness, though some patients are aware of their pressured speech and recount being “tongue-tied.”
Yearnings that lead to excessive involvement in pleasurable activities and risky behaviors. Ask whether patients have given in to their yearnings or engaged in behaviors with high potential for harm or legal consequences.
Many hypomania symptoms overlap with those of other illnesses such as attention-deficit/hyperactivity disorder, personality disorders, and anxiety disorders. Accurate diagnosis of hypomania can be critical. Chemical dependence, sexual indiscretions, delusional thinking, spending sprees, unexplained travel, suicide, and more symptoms can contribute to morbidity. Remember that DSM-IV-TR criteria for hypomania require a 4-day period of elevated or irritable mood with:
- 3 of the above symptoms if there is expansive mood
- 4 if there is only irritable mood.
Clinical judgment and examination of the overall picture—not 1 or 2 isolated symptoms—are key to the correct diagnosis.
Dramatic, provocative, and confusing often describes the presentation of individuals with hypomania. But their lack of insight, rationalization, and minimization of maladaptive behavior can complicate diagnosis. Hypomanic patients often go for as long as a decade without receiving a correct diagnosis.
Full-blown mania usually is easy to recognize, but hypomania and other bipolar spectrum disorders that do not meet DSM-IV-TR criteria for bipolar I disorder are less obvious.1 The dictionary defines “flighty” as frivolous, irresponsible, capricious, mercurial, and volatile, words that also could describe hypomanic individuals. To help diagnose hypomania, I came up with a mnemonic called FLIGHTY based on the 7 DSM-IV-TR criteria for hypomania:
Flight of ideas, racing thoughts. Ask patients if they talk before they think or if their thinking is too fast.
Lacking attention and concentration, distractible. Ask patients if they have trouble reading or watching television or if they become preoccupied with unimportant details.
Insomnia or decreased need for sleep. Patients report feeling energetic despite remarkably few hours of sleep.
Grandiosity, inflated self-esteem. Inquire if patients feel more creative and powerful than others.
Hyperactive, psychomotor agitation. Determine of patients have an increase in repetitive activities or if they start many tasks but complete few.
Talkative, pressured speech. A reliable third party often can best assess talkativeness, though some patients are aware of their pressured speech and recount being “tongue-tied.”
Yearnings that lead to excessive involvement in pleasurable activities and risky behaviors. Ask whether patients have given in to their yearnings or engaged in behaviors with high potential for harm or legal consequences.
Many hypomania symptoms overlap with those of other illnesses such as attention-deficit/hyperactivity disorder, personality disorders, and anxiety disorders. Accurate diagnosis of hypomania can be critical. Chemical dependence, sexual indiscretions, delusional thinking, spending sprees, unexplained travel, suicide, and more symptoms can contribute to morbidity. Remember that DSM-IV-TR criteria for hypomania require a 4-day period of elevated or irritable mood with:
- 3 of the above symptoms if there is expansive mood
- 4 if there is only irritable mood.
Clinical judgment and examination of the overall picture—not 1 or 2 isolated symptoms—are key to the correct diagnosis.
Reference
1. Young RC, Klerman GL. Mania in late life: focus on age at onset. Am J Psychiatry 1992;149:867-76.
Dr. Wagner is assistant clinical professor, Indiana University, Bloomington, and staff psychiatrist, Richard L. Roudebush Veterans Affairs Medical Center, Indianapolis.
Reference
1. Young RC, Klerman GL. Mania in late life: focus on age at onset. Am J Psychiatry 1992;149:867-76.
Dr. Wagner is assistant clinical professor, Indiana University, Bloomington, and staff psychiatrist, Richard L. Roudebush Veterans Affairs Medical Center, Indianapolis.
Lisdexamfetamine for ADHD
Lisdexamfetamine—FDA-approved to treat attention-deficit/hyperactivity disorder (ADHD) in children ages 6 to 12 (Table 1)—reduces ADHD symptoms during and after school and may be less likely to be abused than other psychostimulants, particularly immediate-release preparations, clinical data suggest.
Table 1
Lisdexamfetamine: Fast facts
| Brand name: Vyvanse |
| Indication: ADHD in children ages 6 to 12 |
| Approval date: February 23, 2007 |
| Manufacturers: New River Pharmaceuticals and Shire |
| Dosing forms: 30-, 50-, and 70-mg capsules |
| Recommended dosage: Start at 30 mg/d. If necessary, titrate by 20 mg every 3 to 7 days to a maximum 70 mg/d. |
Clinical implications
Because it is effective for about 12 hours, lisdexamfetamine might improve the child’s ability to complete homework and participate in extracurricular activities, which in turn might enhance academic performance and/or socialization skills.
Lisdexamfetamine could help the child with ADHD who shows no contraindications to the drug —particularly if he or she needs daylong coverage.
How it works
Lisdexamfetamine—a dextroamphetamine derivative—is rapidly absorbed and converted to dextroamphetamine, which is believed to exert therapeutic effect by:
- blocking norepinephrine and dopamine reuptake into presynaptic neurons
- increasing the neurotransmitters’ release into the extraneuronal space.
The medication’s amphetamine release is highly predictable, which contributes to its therapeutic benefit in ADHD. Amphetamine is released through GI metabolism of lisdexamfetamine, which produces the active d-amphetamine moiety that reaches the bloodstream. The medication is derived from d-amphetamine, with negligible amounts of lysine cleaved.
Lisdexamfetamine requires in vivo metabolism (in the GI tract) to its active constituent d-amphetamine. As a result, the medication will not produce high d-amphetamine blood levels—and should not cause euphoria or other reinforcing effects—if injected or snorted. Its abuse potential is lower overall compared with immediate-release psychostimulant formulations.
Pharmacokinetics
Dextroamphetamine’s plasma elimination half-life is approximately 9½ hours—which accounts for lisdexamfetamine’s extended action. The drug reaches steady-state concentrations in 2 to 3 days.
Food does not affect absorption and delays maximum concentration by 1 hour or less, so taking lisdexamfetamine during breakfast should not slow its therapeutic effect. Because dextroamphetamine reaches maximum concentration in approximately 3½ hours, the medication should take effect by the time the child gets to school. In one randomized, phase-2 trial, children with ADHD who received lisdexamfetamine, 30 to 70 mg/d, showed overall improvement within 2 hours after dosing.1
Efficacy
Lisdexamfetamine reduced ADHD symptoms in 2 double-blind studies: a phase-2 crossover study and a phase-3 random-dose trial.
Phase-2 crossover study.2 Fifty-two children ages 6 to 12 with combined or hyperactive-impulsive type ADHD received extended-release mixed amphetamine salts (MAS) for 3 weeks. Subjects received 10 mg/d or dosages titrated to 20 or 30 mg/d based on response to medication.
The youths then were divided into 3 groups based on optimal MAS dosage and received 3 treatments for 1 week each:
- group 1: placebo; MAS, 10 mg/d; lisdexamfetamine, 30 mg/d
- group 2: placebo; MAS, 20 mg/d; lisdexamfetamine, 50 mg/d
- group 3: placebo; MAS, 30 mg/d; lisdexamfetamine, 70 mg/d.
While taking lisdexamfetamine or MAS, subjects showed similar improvement in behavior, based on Swanson, Kotkin, Agler, M-Flynn, and Pelham (SKAMP) scores, and inattention, based on SKAMP and Permanent Product Measure of Performance scores.
Both psychostimulants outperformed placebo in both measures, and both improved behavior more decisively than inattention. Based on post-hoc analysis, improvement 12 hours after dosing was more substantial with lisdexamfetamine than with MAS.
Phase-3 random-dose trial.3 A total of 290 children ages 6 to 12 with combined or hyperactive-impulsive type ADHD were “washed out” from prior medications over 1 week, then received lisdexamfetamine or placebo for 4 weeks. Treatment-group children were started at 30 mg/d; some received dosages titrated at random to 50 or 70 mg/d in weekly 20-mg increments.
Over 4 weeks, ADHD Rating Scale Version IV (ADHD-RS-IV) scores fell 50% to 59% among the 3 lisdexamfetamine dosage groups, compared with a 15% reduction in the placebo group. Substantial ADHD-RS-IV score improvements after 1 week of lisdexamfetamine were maintained throughout the trial, suggesting the medication sustains ADHD symptom improvement. Controlled trials have not addressed lisdexamfetamine use >4 weeks, however.
Based on parents’ and guardians’ reports, treatment-group patients’ ADHD symptoms were notably less severe at 10 AM, 2 PM, and 6 PM compared with placebo-group children.3 This suggests that lisdexamfetamine offers a daylong therapeutic effect.
Tolerability
In the phase-3 study,3 162 of 218 (74%) children receiving any dosage of lisdexamfetamine reported an adverse event, compared with 34 of 72 (47%) children in the placebo group. Overall, 39% of lisdexamfetamine-group patients reported decreased appetite. Also common were insomnia, headaches, irritability, upper abdominal pain, vomiting, and weight loss (Table 2).
Although most adverse events were mild to moderate, 9.2% of treatment-group children dropped out because of intolerability, compared with 1.4% of the placebo group. The investigators increased dosages quickly, regardless of efficacy or tolerability,3 which might have increased side-effect incidence among the treatment groups.
In the phase-2 crossover trial,2 adverse event rates were similar among the lisdexamfetamine, extended-release MAS, and placebo groups (15% to 18%). Among youths receiving lisdexamfetamine, 8% reported insomnia and 6% reported appetite loss, compared with 2% and 4% of the MAS group, respectively.
Table 2
Rates of commonly reported adverse effects
during phase-3 lisdexamfetamine (LDX) study
| Adverse effect | LDX 30 mg/d | LDX 50 mg/d* | LDX 70 mg/d* | LDX all dosages | Placebo |
|---|---|---|---|---|---|
| All adverse effects | 72% | 68% | 84% | 74% | 47% |
| Decreased appetite | 37% | 31% | 49% | 39% | 4% |
| Insomnia | 16% | 16% | 25% | 19% | 3% |
| Upper abdominal pain | 14% | 7% | 15% | 12% | 6% |
| Headache | 10% | 10% | 16% | 12% | 10% |
| Irritability | 11% | 8% | 10% | 10% | 0% |
| Vomiting | 7% | 5% | 14% | 9% | 4% |
| Weight loss | 6% | 3% | 19% | 9% | 1% |
| *Dosages were randomly titrated regardless of efficacy or tolerability. | |||||
| Source: Reference 3 | |||||
Safety
Findling et al4 found a larger change in corrected QT interval with lisdexamfetamine (7 to 14 msec) than with extended-release MAS (5 to 10 msec) 5 and 10½ hours after dosing. The authors reasoned that these findings are atypical, and no children suffered serious adverse events during the trial. Nonetheless, more research on whether lisdexamfetamine increases cardiac risk is needed.
In a lethal-dose study in rats,5 oral lisdexamfetamine doses up to 1,000 mg/kg did not result in death, suggesting the medication might undergo saturation kinetics in the GI tract that may protect against overdose or abuse at higher dosages. By comparison, the median lethal oral dosage of d-amphetamine in rats was 96.8 mg/kg.5
Abuse potential
As with other psychostimulants indicated for ADHD, the Drug Enforcement Administration has classified lisdexamfetamine as a schedule II drug, which applies to addictive prescription-only medications with an accepted medical use.
Clinical data suggest, however, that lisdexamfetamine might be less “enjoyable”—and less likely to be abused intravenously, orally, or intranasally—than equipotent d-amphetamine. In an abuse liability study,6 12 adults with histories of stimulant abuse received intravenous immediate-release (IR) d-amphetamine, 10 or 20 mg. Two days later, they received a comparable dose of IV lisdexamfetamine, 25 or 50 mg. The researchers found that:
- Plasma d-amphetamine peaked within 5 minutes after injection, compared with 2 to 3 hours after lisdexamfetamine dosing.
- Subjects who received IR d-amphetamine said they felt euphoria within 15 minutes of injection. By contrast, no one reported euphoria or amphetamine-like subjective effects after receiving lisdexamfetamine.
When asked which medication they would try again, 9 of 12 subjects chose IR d-amphetamine and 1 chose lisdexamfetamine.
In a double-blind, randomized, placebo-controlled study,7 oral lisdexamfetamine, 50 or 100 mg, was not more “likeable” than placebo. Subjects reported “liking” effects with 150 mg of lisdexamfetamine, however, suggesting the medication could be misused or abused at higher-than-therapeutic dosages.
As with other psychostimulants, do not give lisdexamfetamine to youths with preexisting serious structural cardiac abnormalities or other heart problems. Assess patient and family history of heart disease before prescribing this medication.
Do not prescribe lisdexamfetamine to patients taking a monoamine oxidase inhibitor (MAOI). By slowing amphetamine metabolism, these antidepressants intensify amphetamines’ effect on monoamine release, which can cause headaches and lead to hypertensive crisis. Before starting lisdexamfetamine, ask if the patient is taking an MAOI or has taken one within 2 weeks of presentation.
Use caution when prescribing lisdexamfetamine to patients with:
- a comorbid eating disorder or sleep disturbance. Determine whether to address the comorbidity before treating ADHD symptoms, and make sure lisdexamfetamine is not worsening the comorbid symptoms.
- untreated hypertension or other cardiovascular conditions, as stimulant medications can increase blood pressure and heart rate. Watch for significant heart rate and blood pressure changes in patients taking lisdexamfetamine, which probably would not cause sustained blood pressure increase in patients taking antihypertensives.8
Related resources
- Lisdexamfetamine Web site. www.vyvanse.com.
Drug brand names
- Extended-release mixed amphetamine salts • Adderall XR
- Lisdexamfetamine • Vyvanse
Disclosure
Dr. Wilens receives research/grant support from Abbott Laboratories, Eli Lilly and Company, National Institute on Drug Abuse, NeuroSearch, Ortho-McNeil, and Shire; is a speaker for Novartis Pharmaceuticals Corp., Ortho-McNeil, and Shire; and is a consultant to Abbott Laboratories, Eli Lilly and Company, GlaxoSmithKline, National Institute on Drug Abuse, Novartis Pharmaceuticals Corp., Ortho-McNeil, Pfizer, and Shire.
1. Lopez FA, Boellner SW, Childress A, et al. ADHD symptom improvement in children treated with lisdexamfetamine dimesylate (LDX). Poster presented at: Annual Meeting of the American Academy of Child and Adolescent Psychiatry; October 24-29, 2006; San Diego, CA.
2. Biederman J, Boellner SW, Childress A, et al. Improvements in symptoms of attention-deficit/hyperactivity disorder in school-aged children with lisdexamfetamine (NRP 104) and mixed amphetamine salts, extended-release versus placebo. Poster presented at: Annual Meeting of the American Psychiatric Association; May 20-25, 2006; Toronto, Canada.
3. Biederman J, Krishnan S, Zhang Y, et al. Efficacy and tolerability of lisdexamfetamine dimesylate (NRP 104) in children with attention-deficit/hyperactivity disorder: a phase III, multicenter, randomized, double-blind, forced-dose, parallel-group study. Clin Ther 2007;29:450-63.
4. Findling FL, Biederman J, Wilens TE, et al. Short- and long-term cardiovascular effects of mixed amphetamine salts extended release in children. J Pediatr 2005;147:348-54.
5. Krishnan S. Toxicity profile of lisdexamfetamine dimesylate (LDX NRP104) in three independent rat toxicology studies. Basic Clin Phamacol Toxicol. In press.
6. Jasinski DR. Abuse liability of intravenous L-lysine-d-amphetamine (NRP 104). Poster presented at: Annual Meeting of the College on Problems of Drug Dependence; June 17-22, 2006; Scottsdale, AZ. Available at: http://xml.10kwizard.com/filing_raw.php?repo=tenk&ipage=4234033. Accessed April 5, 2007.
7. Jasinski D, Krishnan S. A double-blind, randomized, placebo and active-controlled, six-period crossover study to evaluate the likeability, safety, and abuse liability of NRP 104 in healthy adult volunteers with histories of stimulant abuse (NRP104. A03). Poster presented at: Annual Meeting of the College on Problems of Drug Dependence; June 17-22, 2006; Scottsdale, AZ. Available at: http://www.secinfo.com/d12Pk6.v9Ac.d.htm. Accessed May 14, 2007.
8. Wilens TE, Zusman RM, Hammerness PG, et al. An open-label study of the tolerability of mixed amphetamine salts in adults with attention-deficit/hyperactivity disorder and treated primary essential hypertension. J Clin Psychiatry 2006;67:696-702.
Lisdexamfetamine—FDA-approved to treat attention-deficit/hyperactivity disorder (ADHD) in children ages 6 to 12 (Table 1)—reduces ADHD symptoms during and after school and may be less likely to be abused than other psychostimulants, particularly immediate-release preparations, clinical data suggest.
Table 1
Lisdexamfetamine: Fast facts
| Brand name: Vyvanse |
| Indication: ADHD in children ages 6 to 12 |
| Approval date: February 23, 2007 |
| Manufacturers: New River Pharmaceuticals and Shire |
| Dosing forms: 30-, 50-, and 70-mg capsules |
| Recommended dosage: Start at 30 mg/d. If necessary, titrate by 20 mg every 3 to 7 days to a maximum 70 mg/d. |
Clinical implications
Because it is effective for about 12 hours, lisdexamfetamine might improve the child’s ability to complete homework and participate in extracurricular activities, which in turn might enhance academic performance and/or socialization skills.
Lisdexamfetamine could help the child with ADHD who shows no contraindications to the drug —particularly if he or she needs daylong coverage.
How it works
Lisdexamfetamine—a dextroamphetamine derivative—is rapidly absorbed and converted to dextroamphetamine, which is believed to exert therapeutic effect by:
- blocking norepinephrine and dopamine reuptake into presynaptic neurons
- increasing the neurotransmitters’ release into the extraneuronal space.
The medication’s amphetamine release is highly predictable, which contributes to its therapeutic benefit in ADHD. Amphetamine is released through GI metabolism of lisdexamfetamine, which produces the active d-amphetamine moiety that reaches the bloodstream. The medication is derived from d-amphetamine, with negligible amounts of lysine cleaved.
Lisdexamfetamine requires in vivo metabolism (in the GI tract) to its active constituent d-amphetamine. As a result, the medication will not produce high d-amphetamine blood levels—and should not cause euphoria or other reinforcing effects—if injected or snorted. Its abuse potential is lower overall compared with immediate-release psychostimulant formulations.
Pharmacokinetics
Dextroamphetamine’s plasma elimination half-life is approximately 9½ hours—which accounts for lisdexamfetamine’s extended action. The drug reaches steady-state concentrations in 2 to 3 days.
Food does not affect absorption and delays maximum concentration by 1 hour or less, so taking lisdexamfetamine during breakfast should not slow its therapeutic effect. Because dextroamphetamine reaches maximum concentration in approximately 3½ hours, the medication should take effect by the time the child gets to school. In one randomized, phase-2 trial, children with ADHD who received lisdexamfetamine, 30 to 70 mg/d, showed overall improvement within 2 hours after dosing.1
Efficacy
Lisdexamfetamine reduced ADHD symptoms in 2 double-blind studies: a phase-2 crossover study and a phase-3 random-dose trial.
Phase-2 crossover study.2 Fifty-two children ages 6 to 12 with combined or hyperactive-impulsive type ADHD received extended-release mixed amphetamine salts (MAS) for 3 weeks. Subjects received 10 mg/d or dosages titrated to 20 or 30 mg/d based on response to medication.
The youths then were divided into 3 groups based on optimal MAS dosage and received 3 treatments for 1 week each:
- group 1: placebo; MAS, 10 mg/d; lisdexamfetamine, 30 mg/d
- group 2: placebo; MAS, 20 mg/d; lisdexamfetamine, 50 mg/d
- group 3: placebo; MAS, 30 mg/d; lisdexamfetamine, 70 mg/d.
While taking lisdexamfetamine or MAS, subjects showed similar improvement in behavior, based on Swanson, Kotkin, Agler, M-Flynn, and Pelham (SKAMP) scores, and inattention, based on SKAMP and Permanent Product Measure of Performance scores.
Both psychostimulants outperformed placebo in both measures, and both improved behavior more decisively than inattention. Based on post-hoc analysis, improvement 12 hours after dosing was more substantial with lisdexamfetamine than with MAS.
Phase-3 random-dose trial.3 A total of 290 children ages 6 to 12 with combined or hyperactive-impulsive type ADHD were “washed out” from prior medications over 1 week, then received lisdexamfetamine or placebo for 4 weeks. Treatment-group children were started at 30 mg/d; some received dosages titrated at random to 50 or 70 mg/d in weekly 20-mg increments.
Over 4 weeks, ADHD Rating Scale Version IV (ADHD-RS-IV) scores fell 50% to 59% among the 3 lisdexamfetamine dosage groups, compared with a 15% reduction in the placebo group. Substantial ADHD-RS-IV score improvements after 1 week of lisdexamfetamine were maintained throughout the trial, suggesting the medication sustains ADHD symptom improvement. Controlled trials have not addressed lisdexamfetamine use >4 weeks, however.
Based on parents’ and guardians’ reports, treatment-group patients’ ADHD symptoms were notably less severe at 10 AM, 2 PM, and 6 PM compared with placebo-group children.3 This suggests that lisdexamfetamine offers a daylong therapeutic effect.
Tolerability
In the phase-3 study,3 162 of 218 (74%) children receiving any dosage of lisdexamfetamine reported an adverse event, compared with 34 of 72 (47%) children in the placebo group. Overall, 39% of lisdexamfetamine-group patients reported decreased appetite. Also common were insomnia, headaches, irritability, upper abdominal pain, vomiting, and weight loss (Table 2).
Although most adverse events were mild to moderate, 9.2% of treatment-group children dropped out because of intolerability, compared with 1.4% of the placebo group. The investigators increased dosages quickly, regardless of efficacy or tolerability,3 which might have increased side-effect incidence among the treatment groups.
In the phase-2 crossover trial,2 adverse event rates were similar among the lisdexamfetamine, extended-release MAS, and placebo groups (15% to 18%). Among youths receiving lisdexamfetamine, 8% reported insomnia and 6% reported appetite loss, compared with 2% and 4% of the MAS group, respectively.
Table 2
Rates of commonly reported adverse effects
during phase-3 lisdexamfetamine (LDX) study
| Adverse effect | LDX 30 mg/d | LDX 50 mg/d* | LDX 70 mg/d* | LDX all dosages | Placebo |
|---|---|---|---|---|---|
| All adverse effects | 72% | 68% | 84% | 74% | 47% |
| Decreased appetite | 37% | 31% | 49% | 39% | 4% |
| Insomnia | 16% | 16% | 25% | 19% | 3% |
| Upper abdominal pain | 14% | 7% | 15% | 12% | 6% |
| Headache | 10% | 10% | 16% | 12% | 10% |
| Irritability | 11% | 8% | 10% | 10% | 0% |
| Vomiting | 7% | 5% | 14% | 9% | 4% |
| Weight loss | 6% | 3% | 19% | 9% | 1% |
| *Dosages were randomly titrated regardless of efficacy or tolerability. | |||||
| Source: Reference 3 | |||||
Safety
Findling et al4 found a larger change in corrected QT interval with lisdexamfetamine (7 to 14 msec) than with extended-release MAS (5 to 10 msec) 5 and 10½ hours after dosing. The authors reasoned that these findings are atypical, and no children suffered serious adverse events during the trial. Nonetheless, more research on whether lisdexamfetamine increases cardiac risk is needed.
In a lethal-dose study in rats,5 oral lisdexamfetamine doses up to 1,000 mg/kg did not result in death, suggesting the medication might undergo saturation kinetics in the GI tract that may protect against overdose or abuse at higher dosages. By comparison, the median lethal oral dosage of d-amphetamine in rats was 96.8 mg/kg.5
Abuse potential
As with other psychostimulants indicated for ADHD, the Drug Enforcement Administration has classified lisdexamfetamine as a schedule II drug, which applies to addictive prescription-only medications with an accepted medical use.
Clinical data suggest, however, that lisdexamfetamine might be less “enjoyable”—and less likely to be abused intravenously, orally, or intranasally—than equipotent d-amphetamine. In an abuse liability study,6 12 adults with histories of stimulant abuse received intravenous immediate-release (IR) d-amphetamine, 10 or 20 mg. Two days later, they received a comparable dose of IV lisdexamfetamine, 25 or 50 mg. The researchers found that:
- Plasma d-amphetamine peaked within 5 minutes after injection, compared with 2 to 3 hours after lisdexamfetamine dosing.
- Subjects who received IR d-amphetamine said they felt euphoria within 15 minutes of injection. By contrast, no one reported euphoria or amphetamine-like subjective effects after receiving lisdexamfetamine.
When asked which medication they would try again, 9 of 12 subjects chose IR d-amphetamine and 1 chose lisdexamfetamine.
In a double-blind, randomized, placebo-controlled study,7 oral lisdexamfetamine, 50 or 100 mg, was not more “likeable” than placebo. Subjects reported “liking” effects with 150 mg of lisdexamfetamine, however, suggesting the medication could be misused or abused at higher-than-therapeutic dosages.
As with other psychostimulants, do not give lisdexamfetamine to youths with preexisting serious structural cardiac abnormalities or other heart problems. Assess patient and family history of heart disease before prescribing this medication.
Do not prescribe lisdexamfetamine to patients taking a monoamine oxidase inhibitor (MAOI). By slowing amphetamine metabolism, these antidepressants intensify amphetamines’ effect on monoamine release, which can cause headaches and lead to hypertensive crisis. Before starting lisdexamfetamine, ask if the patient is taking an MAOI or has taken one within 2 weeks of presentation.
Use caution when prescribing lisdexamfetamine to patients with:
- a comorbid eating disorder or sleep disturbance. Determine whether to address the comorbidity before treating ADHD symptoms, and make sure lisdexamfetamine is not worsening the comorbid symptoms.
- untreated hypertension or other cardiovascular conditions, as stimulant medications can increase blood pressure and heart rate. Watch for significant heart rate and blood pressure changes in patients taking lisdexamfetamine, which probably would not cause sustained blood pressure increase in patients taking antihypertensives.8
Related resources
- Lisdexamfetamine Web site. www.vyvanse.com.
Drug brand names
- Extended-release mixed amphetamine salts • Adderall XR
- Lisdexamfetamine • Vyvanse
Disclosure
Dr. Wilens receives research/grant support from Abbott Laboratories, Eli Lilly and Company, National Institute on Drug Abuse, NeuroSearch, Ortho-McNeil, and Shire; is a speaker for Novartis Pharmaceuticals Corp., Ortho-McNeil, and Shire; and is a consultant to Abbott Laboratories, Eli Lilly and Company, GlaxoSmithKline, National Institute on Drug Abuse, Novartis Pharmaceuticals Corp., Ortho-McNeil, Pfizer, and Shire.
Lisdexamfetamine—FDA-approved to treat attention-deficit/hyperactivity disorder (ADHD) in children ages 6 to 12 (Table 1)—reduces ADHD symptoms during and after school and may be less likely to be abused than other psychostimulants, particularly immediate-release preparations, clinical data suggest.
Table 1
Lisdexamfetamine: Fast facts
| Brand name: Vyvanse |
| Indication: ADHD in children ages 6 to 12 |
| Approval date: February 23, 2007 |
| Manufacturers: New River Pharmaceuticals and Shire |
| Dosing forms: 30-, 50-, and 70-mg capsules |
| Recommended dosage: Start at 30 mg/d. If necessary, titrate by 20 mg every 3 to 7 days to a maximum 70 mg/d. |
Clinical implications
Because it is effective for about 12 hours, lisdexamfetamine might improve the child’s ability to complete homework and participate in extracurricular activities, which in turn might enhance academic performance and/or socialization skills.
Lisdexamfetamine could help the child with ADHD who shows no contraindications to the drug —particularly if he or she needs daylong coverage.
How it works
Lisdexamfetamine—a dextroamphetamine derivative—is rapidly absorbed and converted to dextroamphetamine, which is believed to exert therapeutic effect by:
- blocking norepinephrine and dopamine reuptake into presynaptic neurons
- increasing the neurotransmitters’ release into the extraneuronal space.
The medication’s amphetamine release is highly predictable, which contributes to its therapeutic benefit in ADHD. Amphetamine is released through GI metabolism of lisdexamfetamine, which produces the active d-amphetamine moiety that reaches the bloodstream. The medication is derived from d-amphetamine, with negligible amounts of lysine cleaved.
Lisdexamfetamine requires in vivo metabolism (in the GI tract) to its active constituent d-amphetamine. As a result, the medication will not produce high d-amphetamine blood levels—and should not cause euphoria or other reinforcing effects—if injected or snorted. Its abuse potential is lower overall compared with immediate-release psychostimulant formulations.
Pharmacokinetics
Dextroamphetamine’s plasma elimination half-life is approximately 9½ hours—which accounts for lisdexamfetamine’s extended action. The drug reaches steady-state concentrations in 2 to 3 days.
Food does not affect absorption and delays maximum concentration by 1 hour or less, so taking lisdexamfetamine during breakfast should not slow its therapeutic effect. Because dextroamphetamine reaches maximum concentration in approximately 3½ hours, the medication should take effect by the time the child gets to school. In one randomized, phase-2 trial, children with ADHD who received lisdexamfetamine, 30 to 70 mg/d, showed overall improvement within 2 hours after dosing.1
Efficacy
Lisdexamfetamine reduced ADHD symptoms in 2 double-blind studies: a phase-2 crossover study and a phase-3 random-dose trial.
Phase-2 crossover study.2 Fifty-two children ages 6 to 12 with combined or hyperactive-impulsive type ADHD received extended-release mixed amphetamine salts (MAS) for 3 weeks. Subjects received 10 mg/d or dosages titrated to 20 or 30 mg/d based on response to medication.
The youths then were divided into 3 groups based on optimal MAS dosage and received 3 treatments for 1 week each:
- group 1: placebo; MAS, 10 mg/d; lisdexamfetamine, 30 mg/d
- group 2: placebo; MAS, 20 mg/d; lisdexamfetamine, 50 mg/d
- group 3: placebo; MAS, 30 mg/d; lisdexamfetamine, 70 mg/d.
While taking lisdexamfetamine or MAS, subjects showed similar improvement in behavior, based on Swanson, Kotkin, Agler, M-Flynn, and Pelham (SKAMP) scores, and inattention, based on SKAMP and Permanent Product Measure of Performance scores.
Both psychostimulants outperformed placebo in both measures, and both improved behavior more decisively than inattention. Based on post-hoc analysis, improvement 12 hours after dosing was more substantial with lisdexamfetamine than with MAS.
Phase-3 random-dose trial.3 A total of 290 children ages 6 to 12 with combined or hyperactive-impulsive type ADHD were “washed out” from prior medications over 1 week, then received lisdexamfetamine or placebo for 4 weeks. Treatment-group children were started at 30 mg/d; some received dosages titrated at random to 50 or 70 mg/d in weekly 20-mg increments.
Over 4 weeks, ADHD Rating Scale Version IV (ADHD-RS-IV) scores fell 50% to 59% among the 3 lisdexamfetamine dosage groups, compared with a 15% reduction in the placebo group. Substantial ADHD-RS-IV score improvements after 1 week of lisdexamfetamine were maintained throughout the trial, suggesting the medication sustains ADHD symptom improvement. Controlled trials have not addressed lisdexamfetamine use >4 weeks, however.
Based on parents’ and guardians’ reports, treatment-group patients’ ADHD symptoms were notably less severe at 10 AM, 2 PM, and 6 PM compared with placebo-group children.3 This suggests that lisdexamfetamine offers a daylong therapeutic effect.
Tolerability
In the phase-3 study,3 162 of 218 (74%) children receiving any dosage of lisdexamfetamine reported an adverse event, compared with 34 of 72 (47%) children in the placebo group. Overall, 39% of lisdexamfetamine-group patients reported decreased appetite. Also common were insomnia, headaches, irritability, upper abdominal pain, vomiting, and weight loss (Table 2).
Although most adverse events were mild to moderate, 9.2% of treatment-group children dropped out because of intolerability, compared with 1.4% of the placebo group. The investigators increased dosages quickly, regardless of efficacy or tolerability,3 which might have increased side-effect incidence among the treatment groups.
In the phase-2 crossover trial,2 adverse event rates were similar among the lisdexamfetamine, extended-release MAS, and placebo groups (15% to 18%). Among youths receiving lisdexamfetamine, 8% reported insomnia and 6% reported appetite loss, compared with 2% and 4% of the MAS group, respectively.
Table 2
Rates of commonly reported adverse effects
during phase-3 lisdexamfetamine (LDX) study
| Adverse effect | LDX 30 mg/d | LDX 50 mg/d* | LDX 70 mg/d* | LDX all dosages | Placebo |
|---|---|---|---|---|---|
| All adverse effects | 72% | 68% | 84% | 74% | 47% |
| Decreased appetite | 37% | 31% | 49% | 39% | 4% |
| Insomnia | 16% | 16% | 25% | 19% | 3% |
| Upper abdominal pain | 14% | 7% | 15% | 12% | 6% |
| Headache | 10% | 10% | 16% | 12% | 10% |
| Irritability | 11% | 8% | 10% | 10% | 0% |
| Vomiting | 7% | 5% | 14% | 9% | 4% |
| Weight loss | 6% | 3% | 19% | 9% | 1% |
| *Dosages were randomly titrated regardless of efficacy or tolerability. | |||||
| Source: Reference 3 | |||||
Safety
Findling et al4 found a larger change in corrected QT interval with lisdexamfetamine (7 to 14 msec) than with extended-release MAS (5 to 10 msec) 5 and 10½ hours after dosing. The authors reasoned that these findings are atypical, and no children suffered serious adverse events during the trial. Nonetheless, more research on whether lisdexamfetamine increases cardiac risk is needed.
In a lethal-dose study in rats,5 oral lisdexamfetamine doses up to 1,000 mg/kg did not result in death, suggesting the medication might undergo saturation kinetics in the GI tract that may protect against overdose or abuse at higher dosages. By comparison, the median lethal oral dosage of d-amphetamine in rats was 96.8 mg/kg.5
Abuse potential
As with other psychostimulants indicated for ADHD, the Drug Enforcement Administration has classified lisdexamfetamine as a schedule II drug, which applies to addictive prescription-only medications with an accepted medical use.
Clinical data suggest, however, that lisdexamfetamine might be less “enjoyable”—and less likely to be abused intravenously, orally, or intranasally—than equipotent d-amphetamine. In an abuse liability study,6 12 adults with histories of stimulant abuse received intravenous immediate-release (IR) d-amphetamine, 10 or 20 mg. Two days later, they received a comparable dose of IV lisdexamfetamine, 25 or 50 mg. The researchers found that:
- Plasma d-amphetamine peaked within 5 minutes after injection, compared with 2 to 3 hours after lisdexamfetamine dosing.
- Subjects who received IR d-amphetamine said they felt euphoria within 15 minutes of injection. By contrast, no one reported euphoria or amphetamine-like subjective effects after receiving lisdexamfetamine.
When asked which medication they would try again, 9 of 12 subjects chose IR d-amphetamine and 1 chose lisdexamfetamine.
In a double-blind, randomized, placebo-controlled study,7 oral lisdexamfetamine, 50 or 100 mg, was not more “likeable” than placebo. Subjects reported “liking” effects with 150 mg of lisdexamfetamine, however, suggesting the medication could be misused or abused at higher-than-therapeutic dosages.
As with other psychostimulants, do not give lisdexamfetamine to youths with preexisting serious structural cardiac abnormalities or other heart problems. Assess patient and family history of heart disease before prescribing this medication.
Do not prescribe lisdexamfetamine to patients taking a monoamine oxidase inhibitor (MAOI). By slowing amphetamine metabolism, these antidepressants intensify amphetamines’ effect on monoamine release, which can cause headaches and lead to hypertensive crisis. Before starting lisdexamfetamine, ask if the patient is taking an MAOI or has taken one within 2 weeks of presentation.
Use caution when prescribing lisdexamfetamine to patients with:
- a comorbid eating disorder or sleep disturbance. Determine whether to address the comorbidity before treating ADHD symptoms, and make sure lisdexamfetamine is not worsening the comorbid symptoms.
- untreated hypertension or other cardiovascular conditions, as stimulant medications can increase blood pressure and heart rate. Watch for significant heart rate and blood pressure changes in patients taking lisdexamfetamine, which probably would not cause sustained blood pressure increase in patients taking antihypertensives.8
Related resources
- Lisdexamfetamine Web site. www.vyvanse.com.
Drug brand names
- Extended-release mixed amphetamine salts • Adderall XR
- Lisdexamfetamine • Vyvanse
Disclosure
Dr. Wilens receives research/grant support from Abbott Laboratories, Eli Lilly and Company, National Institute on Drug Abuse, NeuroSearch, Ortho-McNeil, and Shire; is a speaker for Novartis Pharmaceuticals Corp., Ortho-McNeil, and Shire; and is a consultant to Abbott Laboratories, Eli Lilly and Company, GlaxoSmithKline, National Institute on Drug Abuse, Novartis Pharmaceuticals Corp., Ortho-McNeil, Pfizer, and Shire.
1. Lopez FA, Boellner SW, Childress A, et al. ADHD symptom improvement in children treated with lisdexamfetamine dimesylate (LDX). Poster presented at: Annual Meeting of the American Academy of Child and Adolescent Psychiatry; October 24-29, 2006; San Diego, CA.
2. Biederman J, Boellner SW, Childress A, et al. Improvements in symptoms of attention-deficit/hyperactivity disorder in school-aged children with lisdexamfetamine (NRP 104) and mixed amphetamine salts, extended-release versus placebo. Poster presented at: Annual Meeting of the American Psychiatric Association; May 20-25, 2006; Toronto, Canada.
3. Biederman J, Krishnan S, Zhang Y, et al. Efficacy and tolerability of lisdexamfetamine dimesylate (NRP 104) in children with attention-deficit/hyperactivity disorder: a phase III, multicenter, randomized, double-blind, forced-dose, parallel-group study. Clin Ther 2007;29:450-63.
4. Findling FL, Biederman J, Wilens TE, et al. Short- and long-term cardiovascular effects of mixed amphetamine salts extended release in children. J Pediatr 2005;147:348-54.
5. Krishnan S. Toxicity profile of lisdexamfetamine dimesylate (LDX NRP104) in three independent rat toxicology studies. Basic Clin Phamacol Toxicol. In press.
6. Jasinski DR. Abuse liability of intravenous L-lysine-d-amphetamine (NRP 104). Poster presented at: Annual Meeting of the College on Problems of Drug Dependence; June 17-22, 2006; Scottsdale, AZ. Available at: http://xml.10kwizard.com/filing_raw.php?repo=tenk&ipage=4234033. Accessed April 5, 2007.
7. Jasinski D, Krishnan S. A double-blind, randomized, placebo and active-controlled, six-period crossover study to evaluate the likeability, safety, and abuse liability of NRP 104 in healthy adult volunteers with histories of stimulant abuse (NRP104. A03). Poster presented at: Annual Meeting of the College on Problems of Drug Dependence; June 17-22, 2006; Scottsdale, AZ. Available at: http://www.secinfo.com/d12Pk6.v9Ac.d.htm. Accessed May 14, 2007.
8. Wilens TE, Zusman RM, Hammerness PG, et al. An open-label study of the tolerability of mixed amphetamine salts in adults with attention-deficit/hyperactivity disorder and treated primary essential hypertension. J Clin Psychiatry 2006;67:696-702.
1. Lopez FA, Boellner SW, Childress A, et al. ADHD symptom improvement in children treated with lisdexamfetamine dimesylate (LDX). Poster presented at: Annual Meeting of the American Academy of Child and Adolescent Psychiatry; October 24-29, 2006; San Diego, CA.
2. Biederman J, Boellner SW, Childress A, et al. Improvements in symptoms of attention-deficit/hyperactivity disorder in school-aged children with lisdexamfetamine (NRP 104) and mixed amphetamine salts, extended-release versus placebo. Poster presented at: Annual Meeting of the American Psychiatric Association; May 20-25, 2006; Toronto, Canada.
3. Biederman J, Krishnan S, Zhang Y, et al. Efficacy and tolerability of lisdexamfetamine dimesylate (NRP 104) in children with attention-deficit/hyperactivity disorder: a phase III, multicenter, randomized, double-blind, forced-dose, parallel-group study. Clin Ther 2007;29:450-63.
4. Findling FL, Biederman J, Wilens TE, et al. Short- and long-term cardiovascular effects of mixed amphetamine salts extended release in children. J Pediatr 2005;147:348-54.
5. Krishnan S. Toxicity profile of lisdexamfetamine dimesylate (LDX NRP104) in three independent rat toxicology studies. Basic Clin Phamacol Toxicol. In press.
6. Jasinski DR. Abuse liability of intravenous L-lysine-d-amphetamine (NRP 104). Poster presented at: Annual Meeting of the College on Problems of Drug Dependence; June 17-22, 2006; Scottsdale, AZ. Available at: http://xml.10kwizard.com/filing_raw.php?repo=tenk&ipage=4234033. Accessed April 5, 2007.
7. Jasinski D, Krishnan S. A double-blind, randomized, placebo and active-controlled, six-period crossover study to evaluate the likeability, safety, and abuse liability of NRP 104 in healthy adult volunteers with histories of stimulant abuse (NRP104. A03). Poster presented at: Annual Meeting of the College on Problems of Drug Dependence; June 17-22, 2006; Scottsdale, AZ. Available at: http://www.secinfo.com/d12Pk6.v9Ac.d.htm. Accessed May 14, 2007.
8. Wilens TE, Zusman RM, Hammerness PG, et al. An open-label study of the tolerability of mixed amphetamine salts in adults with attention-deficit/hyperactivity disorder and treated primary essential hypertension. J Clin Psychiatry 2006;67:696-702.
