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SSRIs in pregnancy: What should you tell your depressed patient?
Mrs. D is a 28-year-old married woman who became depressed after her first pregnancy. The depression was treated successfully with paroxetine, 20 mg/d. Before beginning treatment, she reported low mood, spent most of the day in bed, was unable to care for herself, and confessed to thoughts of harming her child.
Mrs. D presents to your clinic asking whether she should continue her selective serotonin reuptake inhibitor (SSRI) because she and her husband are thinking about having a second child. Recently, she tells you, she saw a news article suggesting that antidepressants show little benefit, and she is concerned that her baby might have a heart defect if she continues paroxetine.
Mrs. D wants to discontinue her medication, but her husband thought she should discuss doing so with you first. During this visit she takes a pregnancy test, which is positive. She wants to know what to do.
women experience depression; 3.8% of pregnant women receive an SSRI.1 SSRIs are the most commonly prescribed antidepressants during pregnancy, but their use remains controversial. There is disagreement about the maternal and neonatal risks of untreated depression and SSRI exposure.2-10 Media reports of studies demonstrating adverse effects associated with SSRIs may generate fear among women, possibly prompting them to self-discontinue medication.
Evidence of risks and benefits
Clinicians should be aware of possible adverse effects of SSRI use and untreated depression (Table).2-10 The available data precludes definitive associations between untreated depression and poor outcomes (Box). Studies of SSRI use during pregnancy have shown conflicting results for all potential outcomes. Absolute risk, with the exception of neonatal adaptation syndrome, is estimated to be small. Neonatal adaptation syndrome—which is characterized by jitteriness, poor muscle tone, weak cries, respiratory distress, hypoglycemia, low Apgar scores, and seizures—occurs in 15% to 30% of infants born to mothers taking SSRIs, but it is transient and resolves during the first weeks of life.
Treatment recommendations
Given the conflicting nature of the evidence, treatment plans should be individualized, weighing the risks and benefits of treatment and the patient’s beliefs and psychiatric history. Consider severity of symptoms and history, including effective therapy and history of relapse. For women with mild or moderate depression, cognitive-behavioral therapy might be an appropriate first-line therapy. However, non-pharmacotherapeutic interventions might not relieve severe depression or be available to all women. When discontinuing an SSRI before pregnancy, counsel the patient to not discontinue the medication abruptly and provide an appropriate taper schedule. See Related Resources for detailed recommendations from the American Psychiatric Association and the American College of Obstetricians and Gynecologists.
Reviewing the SSRI literature regarding pregnancy
Sertraline, paroxetine, citalopram, and fluoxetine are the most studied SSRIs during pregnancy; little information is available on escitalopram and fluvoxamine.11 Prescribing preference generally is given to the medications with the most evidence; paroxetine may be an exception. In 2005, the FDA requested a change in paroxetine’s pregnancy category from C to D, indicating that adequate studies demonstrated a risk of congenital cardiac malformations.11 Additional studies have been conducted, and the teratogenicity of paroxetine is debatable. A recent review reports 8 studies that suggest a malformation risk, compared with 15 studies that show no risk.12
The American Academy of Pediatrics considers SSRIs to be compatible with breast-feeding.13 The best-studied drugs include sertraline and paroxetine. Fluoxetine should be avoided when possible because a long elimination half-life can cause the drug to accumulate in the newborn, increasing the risk of irritability, hypertonia, sedation, and poor suckle.7
There is no best SSRI for all pregnant women. Risks and benefits, including previous treatment success and failure, should be taken into account before starting or switching therapy. Whenever possible, consider monotherapy to avoid compounding the risk of harm.
Related Resources
- Yonkers KA, Wisner KL, Stewart DE, et al. The management of depression during pregnancy: a report from the American Psychiatric Association and the American College of Obstetricians and Gynecologists. Gen Hosp Psychiatry. 2009;31:403-413.
- MGH Center for Women’s Mental Health. www.womensmentalhealth.org.
Drug Brand Names
Citalopram • Celexa Escitalopram • Lexapro Fluoxetine • Prozac
Fluvoxamine • Luvox Paroxetine • Paxil Sertraline • Zoloft
Disclosures
Dr. Leino reports no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products. Dr. Ellingrod receives grant support from the National Institute of Mental Health.
1. Alwan S, Reefhuis J, Rasmussen SA, et al. Patterns of antidepressant medication use among pregnant women in a United States population. J Clin Pharmacol. 2011;51(2):264-270.
2. Domar AD, Moragianni VA, Ryley DA, et al. The risks of selective serotonin reuptake inhibitor use in infertile women: a review of the impact on fertility, pregnancy, neonatal health and beyond. Hum Reprod. 20113;28(1):160-171.
3. Davalos DB, Yadon CA, Tregellas HC. Untreated prenatal maternal depression and the potential risks to offspring: a review. Arch Womens Ment Health. 2012;15(1):1-14.
4. Spinelli M. Antidepressant treatment during pregnancy. Am J Psychiatry. 2012;169(2):121-124.
5. Oyebode F, Rastogi A, Berrisford G, et al. Psychotropics in pregnancy: safety and other considerations. Pharmacol Ther. 2012;135(1):71-77.
6. Byatt N, Deligiannidis KM, Freeman MP. Antidepressant use in pregnancy: a critical review focused on risks and controversies. Acta Psychiatr Scand. 2013;127(2):94-114.
7. Sie SD, Wennink JM, van Driel JJ, et al. Maternal use of SSRIs, SNRIs and NaSSAs: practical recommendations during pregnancy and lactation. Arch Dis Child Fetal Neonatal Ed. 2012;97(6):F472-476.
8. Jimenez-Solem E, Andersen JT, Petersen M, et al. SSRI use during pregnancy and risk of stillbirth and neonatal mortality. Am J Psychiatry. 2013;170(3):299-304.
9. Nikfar S, Rahimi R, Hendoiee N, et al. Increasing the risk of spontaneous abortion and major malformations in newborns following use of serotonin reuptake inhibitors during pregnancy: a systematic review and updated meta-analysis. Daru. 2012;20(1):75.
10. Stephansson O, Kieler H, Haglund B, et al. Selective serotonin reuptake inhibitors during pregnancy and risk of stillbirth and infant mortality. JAMA. 2013;309(1):48-54.
11. U.S. Food and Drug Administration. Public health advisory: paroxetine. http://www.fda.gov/Drugs/DrugSafety/PostmarketDrugSafetyInformationforPatientsandProviders/DrugSafetyInformationforHeathcareProfessionals/Public HealthAdvisories/ucm051731.htm. Published December 8, 2005. Accessed September 27, 2013.
12. Koren G, Nordeng H. Antidepressant use during pregnancy: the benefit-risk ratio. Am J Obstet Gynecol. 2012;207(3):157-163.
13. American Academy of Pediatrics Committee on Drugs. Transfer of drugs and other chemicals into human milk. Pediatrics. 2001;108:776-789.
Mrs. D is a 28-year-old married woman who became depressed after her first pregnancy. The depression was treated successfully with paroxetine, 20 mg/d. Before beginning treatment, she reported low mood, spent most of the day in bed, was unable to care for herself, and confessed to thoughts of harming her child.
Mrs. D presents to your clinic asking whether she should continue her selective serotonin reuptake inhibitor (SSRI) because she and her husband are thinking about having a second child. Recently, she tells you, she saw a news article suggesting that antidepressants show little benefit, and she is concerned that her baby might have a heart defect if she continues paroxetine.
Mrs. D wants to discontinue her medication, but her husband thought she should discuss doing so with you first. During this visit she takes a pregnancy test, which is positive. She wants to know what to do.
women experience depression; 3.8% of pregnant women receive an SSRI.1 SSRIs are the most commonly prescribed antidepressants during pregnancy, but their use remains controversial. There is disagreement about the maternal and neonatal risks of untreated depression and SSRI exposure.2-10 Media reports of studies demonstrating adverse effects associated with SSRIs may generate fear among women, possibly prompting them to self-discontinue medication.
Evidence of risks and benefits
Clinicians should be aware of possible adverse effects of SSRI use and untreated depression (Table).2-10 The available data precludes definitive associations between untreated depression and poor outcomes (Box). Studies of SSRI use during pregnancy have shown conflicting results for all potential outcomes. Absolute risk, with the exception of neonatal adaptation syndrome, is estimated to be small. Neonatal adaptation syndrome—which is characterized by jitteriness, poor muscle tone, weak cries, respiratory distress, hypoglycemia, low Apgar scores, and seizures—occurs in 15% to 30% of infants born to mothers taking SSRIs, but it is transient and resolves during the first weeks of life.
Treatment recommendations
Given the conflicting nature of the evidence, treatment plans should be individualized, weighing the risks and benefits of treatment and the patient’s beliefs and psychiatric history. Consider severity of symptoms and history, including effective therapy and history of relapse. For women with mild or moderate depression, cognitive-behavioral therapy might be an appropriate first-line therapy. However, non-pharmacotherapeutic interventions might not relieve severe depression or be available to all women. When discontinuing an SSRI before pregnancy, counsel the patient to not discontinue the medication abruptly and provide an appropriate taper schedule. See Related Resources for detailed recommendations from the American Psychiatric Association and the American College of Obstetricians and Gynecologists.
Reviewing the SSRI literature regarding pregnancy
Sertraline, paroxetine, citalopram, and fluoxetine are the most studied SSRIs during pregnancy; little information is available on escitalopram and fluvoxamine.11 Prescribing preference generally is given to the medications with the most evidence; paroxetine may be an exception. In 2005, the FDA requested a change in paroxetine’s pregnancy category from C to D, indicating that adequate studies demonstrated a risk of congenital cardiac malformations.11 Additional studies have been conducted, and the teratogenicity of paroxetine is debatable. A recent review reports 8 studies that suggest a malformation risk, compared with 15 studies that show no risk.12
The American Academy of Pediatrics considers SSRIs to be compatible with breast-feeding.13 The best-studied drugs include sertraline and paroxetine. Fluoxetine should be avoided when possible because a long elimination half-life can cause the drug to accumulate in the newborn, increasing the risk of irritability, hypertonia, sedation, and poor suckle.7
There is no best SSRI for all pregnant women. Risks and benefits, including previous treatment success and failure, should be taken into account before starting or switching therapy. Whenever possible, consider monotherapy to avoid compounding the risk of harm.
Related Resources
- Yonkers KA, Wisner KL, Stewart DE, et al. The management of depression during pregnancy: a report from the American Psychiatric Association and the American College of Obstetricians and Gynecologists. Gen Hosp Psychiatry. 2009;31:403-413.
- MGH Center for Women’s Mental Health. www.womensmentalhealth.org.
Drug Brand Names
Citalopram • Celexa Escitalopram • Lexapro Fluoxetine • Prozac
Fluvoxamine • Luvox Paroxetine • Paxil Sertraline • Zoloft
Disclosures
Dr. Leino reports no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products. Dr. Ellingrod receives grant support from the National Institute of Mental Health.
Mrs. D is a 28-year-old married woman who became depressed after her first pregnancy. The depression was treated successfully with paroxetine, 20 mg/d. Before beginning treatment, she reported low mood, spent most of the day in bed, was unable to care for herself, and confessed to thoughts of harming her child.
Mrs. D presents to your clinic asking whether she should continue her selective serotonin reuptake inhibitor (SSRI) because she and her husband are thinking about having a second child. Recently, she tells you, she saw a news article suggesting that antidepressants show little benefit, and she is concerned that her baby might have a heart defect if she continues paroxetine.
Mrs. D wants to discontinue her medication, but her husband thought she should discuss doing so with you first. During this visit she takes a pregnancy test, which is positive. She wants to know what to do.
women experience depression; 3.8% of pregnant women receive an SSRI.1 SSRIs are the most commonly prescribed antidepressants during pregnancy, but their use remains controversial. There is disagreement about the maternal and neonatal risks of untreated depression and SSRI exposure.2-10 Media reports of studies demonstrating adverse effects associated with SSRIs may generate fear among women, possibly prompting them to self-discontinue medication.
Evidence of risks and benefits
Clinicians should be aware of possible adverse effects of SSRI use and untreated depression (Table).2-10 The available data precludes definitive associations between untreated depression and poor outcomes (Box). Studies of SSRI use during pregnancy have shown conflicting results for all potential outcomes. Absolute risk, with the exception of neonatal adaptation syndrome, is estimated to be small. Neonatal adaptation syndrome—which is characterized by jitteriness, poor muscle tone, weak cries, respiratory distress, hypoglycemia, low Apgar scores, and seizures—occurs in 15% to 30% of infants born to mothers taking SSRIs, but it is transient and resolves during the first weeks of life.
Treatment recommendations
Given the conflicting nature of the evidence, treatment plans should be individualized, weighing the risks and benefits of treatment and the patient’s beliefs and psychiatric history. Consider severity of symptoms and history, including effective therapy and history of relapse. For women with mild or moderate depression, cognitive-behavioral therapy might be an appropriate first-line therapy. However, non-pharmacotherapeutic interventions might not relieve severe depression or be available to all women. When discontinuing an SSRI before pregnancy, counsel the patient to not discontinue the medication abruptly and provide an appropriate taper schedule. See Related Resources for detailed recommendations from the American Psychiatric Association and the American College of Obstetricians and Gynecologists.
Reviewing the SSRI literature regarding pregnancy
Sertraline, paroxetine, citalopram, and fluoxetine are the most studied SSRIs during pregnancy; little information is available on escitalopram and fluvoxamine.11 Prescribing preference generally is given to the medications with the most evidence; paroxetine may be an exception. In 2005, the FDA requested a change in paroxetine’s pregnancy category from C to D, indicating that adequate studies demonstrated a risk of congenital cardiac malformations.11 Additional studies have been conducted, and the teratogenicity of paroxetine is debatable. A recent review reports 8 studies that suggest a malformation risk, compared with 15 studies that show no risk.12
The American Academy of Pediatrics considers SSRIs to be compatible with breast-feeding.13 The best-studied drugs include sertraline and paroxetine. Fluoxetine should be avoided when possible because a long elimination half-life can cause the drug to accumulate in the newborn, increasing the risk of irritability, hypertonia, sedation, and poor suckle.7
There is no best SSRI for all pregnant women. Risks and benefits, including previous treatment success and failure, should be taken into account before starting or switching therapy. Whenever possible, consider monotherapy to avoid compounding the risk of harm.
Related Resources
- Yonkers KA, Wisner KL, Stewart DE, et al. The management of depression during pregnancy: a report from the American Psychiatric Association and the American College of Obstetricians and Gynecologists. Gen Hosp Psychiatry. 2009;31:403-413.
- MGH Center for Women’s Mental Health. www.womensmentalhealth.org.
Drug Brand Names
Citalopram • Celexa Escitalopram • Lexapro Fluoxetine • Prozac
Fluvoxamine • Luvox Paroxetine • Paxil Sertraline • Zoloft
Disclosures
Dr. Leino reports no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products. Dr. Ellingrod receives grant support from the National Institute of Mental Health.
1. Alwan S, Reefhuis J, Rasmussen SA, et al. Patterns of antidepressant medication use among pregnant women in a United States population. J Clin Pharmacol. 2011;51(2):264-270.
2. Domar AD, Moragianni VA, Ryley DA, et al. The risks of selective serotonin reuptake inhibitor use in infertile women: a review of the impact on fertility, pregnancy, neonatal health and beyond. Hum Reprod. 20113;28(1):160-171.
3. Davalos DB, Yadon CA, Tregellas HC. Untreated prenatal maternal depression and the potential risks to offspring: a review. Arch Womens Ment Health. 2012;15(1):1-14.
4. Spinelli M. Antidepressant treatment during pregnancy. Am J Psychiatry. 2012;169(2):121-124.
5. Oyebode F, Rastogi A, Berrisford G, et al. Psychotropics in pregnancy: safety and other considerations. Pharmacol Ther. 2012;135(1):71-77.
6. Byatt N, Deligiannidis KM, Freeman MP. Antidepressant use in pregnancy: a critical review focused on risks and controversies. Acta Psychiatr Scand. 2013;127(2):94-114.
7. Sie SD, Wennink JM, van Driel JJ, et al. Maternal use of SSRIs, SNRIs and NaSSAs: practical recommendations during pregnancy and lactation. Arch Dis Child Fetal Neonatal Ed. 2012;97(6):F472-476.
8. Jimenez-Solem E, Andersen JT, Petersen M, et al. SSRI use during pregnancy and risk of stillbirth and neonatal mortality. Am J Psychiatry. 2013;170(3):299-304.
9. Nikfar S, Rahimi R, Hendoiee N, et al. Increasing the risk of spontaneous abortion and major malformations in newborns following use of serotonin reuptake inhibitors during pregnancy: a systematic review and updated meta-analysis. Daru. 2012;20(1):75.
10. Stephansson O, Kieler H, Haglund B, et al. Selective serotonin reuptake inhibitors during pregnancy and risk of stillbirth and infant mortality. JAMA. 2013;309(1):48-54.
11. U.S. Food and Drug Administration. Public health advisory: paroxetine. http://www.fda.gov/Drugs/DrugSafety/PostmarketDrugSafetyInformationforPatientsandProviders/DrugSafetyInformationforHeathcareProfessionals/Public HealthAdvisories/ucm051731.htm. Published December 8, 2005. Accessed September 27, 2013.
12. Koren G, Nordeng H. Antidepressant use during pregnancy: the benefit-risk ratio. Am J Obstet Gynecol. 2012;207(3):157-163.
13. American Academy of Pediatrics Committee on Drugs. Transfer of drugs and other chemicals into human milk. Pediatrics. 2001;108:776-789.
1. Alwan S, Reefhuis J, Rasmussen SA, et al. Patterns of antidepressant medication use among pregnant women in a United States population. J Clin Pharmacol. 2011;51(2):264-270.
2. Domar AD, Moragianni VA, Ryley DA, et al. The risks of selective serotonin reuptake inhibitor use in infertile women: a review of the impact on fertility, pregnancy, neonatal health and beyond. Hum Reprod. 20113;28(1):160-171.
3. Davalos DB, Yadon CA, Tregellas HC. Untreated prenatal maternal depression and the potential risks to offspring: a review. Arch Womens Ment Health. 2012;15(1):1-14.
4. Spinelli M. Antidepressant treatment during pregnancy. Am J Psychiatry. 2012;169(2):121-124.
5. Oyebode F, Rastogi A, Berrisford G, et al. Psychotropics in pregnancy: safety and other considerations. Pharmacol Ther. 2012;135(1):71-77.
6. Byatt N, Deligiannidis KM, Freeman MP. Antidepressant use in pregnancy: a critical review focused on risks and controversies. Acta Psychiatr Scand. 2013;127(2):94-114.
7. Sie SD, Wennink JM, van Driel JJ, et al. Maternal use of SSRIs, SNRIs and NaSSAs: practical recommendations during pregnancy and lactation. Arch Dis Child Fetal Neonatal Ed. 2012;97(6):F472-476.
8. Jimenez-Solem E, Andersen JT, Petersen M, et al. SSRI use during pregnancy and risk of stillbirth and neonatal mortality. Am J Psychiatry. 2013;170(3):299-304.
9. Nikfar S, Rahimi R, Hendoiee N, et al. Increasing the risk of spontaneous abortion and major malformations in newborns following use of serotonin reuptake inhibitors during pregnancy: a systematic review and updated meta-analysis. Daru. 2012;20(1):75.
10. Stephansson O, Kieler H, Haglund B, et al. Selective serotonin reuptake inhibitors during pregnancy and risk of stillbirth and infant mortality. JAMA. 2013;309(1):48-54.
11. U.S. Food and Drug Administration. Public health advisory: paroxetine. http://www.fda.gov/Drugs/DrugSafety/PostmarketDrugSafetyInformationforPatientsandProviders/DrugSafetyInformationforHeathcareProfessionals/Public HealthAdvisories/ucm051731.htm. Published December 8, 2005. Accessed September 27, 2013.
12. Koren G, Nordeng H. Antidepressant use during pregnancy: the benefit-risk ratio. Am J Obstet Gynecol. 2012;207(3):157-163.
13. American Academy of Pediatrics Committee on Drugs. Transfer of drugs and other chemicals into human milk. Pediatrics. 2001;108:776-789.
Know your BIOTEACHERS when you assess sexual health
Psychiatrists often are required to obtain basic sexual information as part of a thorough clinical assessment.1 Although a detailed sexual health assessment comprises multiple elaborate domains,2 it’s important that mental health professionals remember a set of topics and related questions (Table) that can help investigate, diagnose, and treat sexual dysfunction, and contribute to a biopsychosocial formulation of your patient’s sexuality. The BIOTEACHERS mnemonic can remind you what to ask when taking a patient’s sexual history; it is not intended to be an alternative to a comprehensive sexual health evaluation.
Each letter stands for a component of the sexual assessment. The grouped letters of the acronym break down into different relevant areas that aid in remembering each category.
BIO
Background of the problem or the patient’s biophysical state
Identity
Orientation
BIO gathers basic medical information, then creates an opportunity to understand the patient’s gender identity. This step allows for nonjudgmental discussions about the patient’s sexual orientation.
TEACH
Thoughts of a sexual nature
Erotic desire or sexual interest
Arousal
Climax during sex
How often
TEACH incorporates a common chronology of sexual response and activity, starting with sexual thoughts, feelings of erotic desire, development of sexual arousal, ability and quality of a patient’s orgasm, as well as frequency of sexual activity.
ERS
Education
Repertoire or relationship dynamics
Self-stimulation
ERS comprises somewhat more complicated subjects: education (questions about a person’s sexual awareness and communication style); formal sexual knowledge; and health practices. These areas of questioning also normalize discussion of the patient’s sexual repertoire (what activities he [she] does and avoids), reviews qualities of the sexual relationship, and broaches the issue of self-stimulation.
Remember: All discussions of sexuality should be appropriate to the clinical context and considerate of the deeply personal nature of the information.
Disclosure
The authors report no financial relationships with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgement
The authors thank Sallie Foley, LMSW, Daniela Wittmann, LMSW, and the University of Michigan Sexual Health Certificate program for their assistance.
1. Levine SB, Scott DL. Sexual education for psychiatric residents. Acad Psychiatry. 2010;34(5):349-352.
2. Downey JI, Friedman RC. Taking a sexual history: the adult psychiatric patient. Focus. 2009;7(4):435-440.
Psychiatrists often are required to obtain basic sexual information as part of a thorough clinical assessment.1 Although a detailed sexual health assessment comprises multiple elaborate domains,2 it’s important that mental health professionals remember a set of topics and related questions (Table) that can help investigate, diagnose, and treat sexual dysfunction, and contribute to a biopsychosocial formulation of your patient’s sexuality. The BIOTEACHERS mnemonic can remind you what to ask when taking a patient’s sexual history; it is not intended to be an alternative to a comprehensive sexual health evaluation.
Each letter stands for a component of the sexual assessment. The grouped letters of the acronym break down into different relevant areas that aid in remembering each category.
BIO
Background of the problem or the patient’s biophysical state
Identity
Orientation
BIO gathers basic medical information, then creates an opportunity to understand the patient’s gender identity. This step allows for nonjudgmental discussions about the patient’s sexual orientation.
TEACH
Thoughts of a sexual nature
Erotic desire or sexual interest
Arousal
Climax during sex
How often
TEACH incorporates a common chronology of sexual response and activity, starting with sexual thoughts, feelings of erotic desire, development of sexual arousal, ability and quality of a patient’s orgasm, as well as frequency of sexual activity.
ERS
Education
Repertoire or relationship dynamics
Self-stimulation
ERS comprises somewhat more complicated subjects: education (questions about a person’s sexual awareness and communication style); formal sexual knowledge; and health practices. These areas of questioning also normalize discussion of the patient’s sexual repertoire (what activities he [she] does and avoids), reviews qualities of the sexual relationship, and broaches the issue of self-stimulation.
Remember: All discussions of sexuality should be appropriate to the clinical context and considerate of the deeply personal nature of the information.
Disclosure
The authors report no financial relationships with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgement
The authors thank Sallie Foley, LMSW, Daniela Wittmann, LMSW, and the University of Michigan Sexual Health Certificate program for their assistance.
Psychiatrists often are required to obtain basic sexual information as part of a thorough clinical assessment.1 Although a detailed sexual health assessment comprises multiple elaborate domains,2 it’s important that mental health professionals remember a set of topics and related questions (Table) that can help investigate, diagnose, and treat sexual dysfunction, and contribute to a biopsychosocial formulation of your patient’s sexuality. The BIOTEACHERS mnemonic can remind you what to ask when taking a patient’s sexual history; it is not intended to be an alternative to a comprehensive sexual health evaluation.
Each letter stands for a component of the sexual assessment. The grouped letters of the acronym break down into different relevant areas that aid in remembering each category.
BIO
Background of the problem or the patient’s biophysical state
Identity
Orientation
BIO gathers basic medical information, then creates an opportunity to understand the patient’s gender identity. This step allows for nonjudgmental discussions about the patient’s sexual orientation.
TEACH
Thoughts of a sexual nature
Erotic desire or sexual interest
Arousal
Climax during sex
How often
TEACH incorporates a common chronology of sexual response and activity, starting with sexual thoughts, feelings of erotic desire, development of sexual arousal, ability and quality of a patient’s orgasm, as well as frequency of sexual activity.
ERS
Education
Repertoire or relationship dynamics
Self-stimulation
ERS comprises somewhat more complicated subjects: education (questions about a person’s sexual awareness and communication style); formal sexual knowledge; and health practices. These areas of questioning also normalize discussion of the patient’s sexual repertoire (what activities he [she] does and avoids), reviews qualities of the sexual relationship, and broaches the issue of self-stimulation.
Remember: All discussions of sexuality should be appropriate to the clinical context and considerate of the deeply personal nature of the information.
Disclosure
The authors report no financial relationships with any company whose products are mentioned in this article or with manufacturers of competing products.
Acknowledgement
The authors thank Sallie Foley, LMSW, Daniela Wittmann, LMSW, and the University of Michigan Sexual Health Certificate program for their assistance.
1. Levine SB, Scott DL. Sexual education for psychiatric residents. Acad Psychiatry. 2010;34(5):349-352.
2. Downey JI, Friedman RC. Taking a sexual history: the adult psychiatric patient. Focus. 2009;7(4):435-440.
1. Levine SB, Scott DL. Sexual education for psychiatric residents. Acad Psychiatry. 2010;34(5):349-352.
2. Downey JI, Friedman RC. Taking a sexual history: the adult psychiatric patient. Focus. 2009;7(4):435-440.
One shade of gray, 50 shades of ignorance
With its tissue a unique shade of gray, the brain is a glorious organ: Although it is only 1 of 200 types of tissue in the body, 50% of the approximately 22,000 genes in the human karyotype are dedicated to brain development.
The brain’s supremacy among all organs is readily attributable to its transcendent mind, comprising the essence of personhood in the individual. The mental functions of the mind, such as self-awareness, thinking, speaking, feeling, remembering, communicating, and deciding, are by far the most advanced traits of Homo sapiens.
The profound complexity of the brain and its mind has triggered the explosive growth of neuroscience research over the past few decades, thanks to remarkable advances in neuroimaging and molecular biology. Scientists are perpetually humbled by the divine complexity of the brain, and readily admit to ignorance about many of its functions—despite astonishing increases in
knowledge they have generated about the physical brain and its avatar, the mind.
Ignorance has many faces
The incomplete understanding of brain and mind that neuroscience
researchers admit to is a shade of insightful ignorance, one that fuels intense motivation to persist in exploring it to elucidate its stunning enigmas. There are, however, other shades of ignorance, especially surrounding the mind and its “mental” disorders. Several adjectives come to mind: blatant, partial, smug, inexcusable, malicious, stupid, and dangerous ignorance. When prominent persons, who have an advanced degree in their field of study, demonstrate a shocking lack of understanding of psychiatric disorders emanating from brain pathology, however, I label that disappointing ignorance.
Take David Brooks, renowned syndicated New York Times columnist whose political analysis and insights I have always enjoyed. My heart sank in dismay when, in a column earlier this year, he stated—emphatically—that psychiatry is not a “real science,” a status he does bestow on physics and biology!1 Brooks disparaged DSM-5
(a popular blood sport these days) and called psychiatrists “heroes of uncertainty.”
I wish this esteemed writer had stuck to one of his areas of expertise, such as politics, and abstained from remarks that betray a surprising shade of ignorance. My disappointment escalated into alarm when I considered the millions of readers who regard him as credible and will be misled by his erroneous comments, which perpetuate ugly misconceptions about mental illness and disparage the people who seek help for a psychiatric medical disorder. Anti-psychiatry fanatics and professional detractors will be emboldened by misstatements such as “psychiatry is not a real science,” which help them spread virulent falsehoods and malicious propaganda against psychiatry.
A ‘colossal body of scientific evidence’ informs psychiatry
There was a time when physics, Brooks’s favorite science, was in a primitive stage of knowledge and would not have qualified as “real science.” Gravity, the laws of thermodynamics, quantum physics, the theory of relativity, the structure of the atom, the astrophysics of our solar system—all these were unknown until a short historical time ago. The scientific transformation of psychiatry is even more recent because of the past challenges of studying the brain and understanding the neurobiology of its mental processes in vivo.
There exists a colossal body of elegant scientific evidence for the biological basis of mental illness and brain-behavior links. Perhaps we psychiatrists aren’t doing a good job disseminating scientific discoveries about the neuro-anatomic, neurophysiologic, neurochemical, and molecular underpinnings of perceptual, affective, thought, behavioral, and cognitive disorders.
The hazard of obsolete knowledge
Emily Dickinson said, “The truth must dazzle gradually/Or every man be blind.” The scientific truth of psychiatry is unfolding at a breathtaking pace, yet even intelligent people continue to harbor decades-old misconceptions about the mind and its disorders. Indeed, “A little learning is a dangerous thing,” as Alexander Pope asserted, especially when it is obsolete. And, whoever said, “Ignorance is bliss” was in utter denial—perhaps the worst shade of ignorance.
Reference
1. Brooks D. Heroes of uncertainty. The New York Times. May 27, 2013:A19.
With its tissue a unique shade of gray, the brain is a glorious organ: Although it is only 1 of 200 types of tissue in the body, 50% of the approximately 22,000 genes in the human karyotype are dedicated to brain development.
The brain’s supremacy among all organs is readily attributable to its transcendent mind, comprising the essence of personhood in the individual. The mental functions of the mind, such as self-awareness, thinking, speaking, feeling, remembering, communicating, and deciding, are by far the most advanced traits of Homo sapiens.
The profound complexity of the brain and its mind has triggered the explosive growth of neuroscience research over the past few decades, thanks to remarkable advances in neuroimaging and molecular biology. Scientists are perpetually humbled by the divine complexity of the brain, and readily admit to ignorance about many of its functions—despite astonishing increases in
knowledge they have generated about the physical brain and its avatar, the mind.
Ignorance has many faces
The incomplete understanding of brain and mind that neuroscience
researchers admit to is a shade of insightful ignorance, one that fuels intense motivation to persist in exploring it to elucidate its stunning enigmas. There are, however, other shades of ignorance, especially surrounding the mind and its “mental” disorders. Several adjectives come to mind: blatant, partial, smug, inexcusable, malicious, stupid, and dangerous ignorance. When prominent persons, who have an advanced degree in their field of study, demonstrate a shocking lack of understanding of psychiatric disorders emanating from brain pathology, however, I label that disappointing ignorance.
Take David Brooks, renowned syndicated New York Times columnist whose political analysis and insights I have always enjoyed. My heart sank in dismay when, in a column earlier this year, he stated—emphatically—that psychiatry is not a “real science,” a status he does bestow on physics and biology!1 Brooks disparaged DSM-5
(a popular blood sport these days) and called psychiatrists “heroes of uncertainty.”
I wish this esteemed writer had stuck to one of his areas of expertise, such as politics, and abstained from remarks that betray a surprising shade of ignorance. My disappointment escalated into alarm when I considered the millions of readers who regard him as credible and will be misled by his erroneous comments, which perpetuate ugly misconceptions about mental illness and disparage the people who seek help for a psychiatric medical disorder. Anti-psychiatry fanatics and professional detractors will be emboldened by misstatements such as “psychiatry is not a real science,” which help them spread virulent falsehoods and malicious propaganda against psychiatry.
A ‘colossal body of scientific evidence’ informs psychiatry
There was a time when physics, Brooks’s favorite science, was in a primitive stage of knowledge and would not have qualified as “real science.” Gravity, the laws of thermodynamics, quantum physics, the theory of relativity, the structure of the atom, the astrophysics of our solar system—all these were unknown until a short historical time ago. The scientific transformation of psychiatry is even more recent because of the past challenges of studying the brain and understanding the neurobiology of its mental processes in vivo.
There exists a colossal body of elegant scientific evidence for the biological basis of mental illness and brain-behavior links. Perhaps we psychiatrists aren’t doing a good job disseminating scientific discoveries about the neuro-anatomic, neurophysiologic, neurochemical, and molecular underpinnings of perceptual, affective, thought, behavioral, and cognitive disorders.
The hazard of obsolete knowledge
Emily Dickinson said, “The truth must dazzle gradually/Or every man be blind.” The scientific truth of psychiatry is unfolding at a breathtaking pace, yet even intelligent people continue to harbor decades-old misconceptions about the mind and its disorders. Indeed, “A little learning is a dangerous thing,” as Alexander Pope asserted, especially when it is obsolete. And, whoever said, “Ignorance is bliss” was in utter denial—perhaps the worst shade of ignorance.
With its tissue a unique shade of gray, the brain is a glorious organ: Although it is only 1 of 200 types of tissue in the body, 50% of the approximately 22,000 genes in the human karyotype are dedicated to brain development.
The brain’s supremacy among all organs is readily attributable to its transcendent mind, comprising the essence of personhood in the individual. The mental functions of the mind, such as self-awareness, thinking, speaking, feeling, remembering, communicating, and deciding, are by far the most advanced traits of Homo sapiens.
The profound complexity of the brain and its mind has triggered the explosive growth of neuroscience research over the past few decades, thanks to remarkable advances in neuroimaging and molecular biology. Scientists are perpetually humbled by the divine complexity of the brain, and readily admit to ignorance about many of its functions—despite astonishing increases in
knowledge they have generated about the physical brain and its avatar, the mind.
Ignorance has many faces
The incomplete understanding of brain and mind that neuroscience
researchers admit to is a shade of insightful ignorance, one that fuels intense motivation to persist in exploring it to elucidate its stunning enigmas. There are, however, other shades of ignorance, especially surrounding the mind and its “mental” disorders. Several adjectives come to mind: blatant, partial, smug, inexcusable, malicious, stupid, and dangerous ignorance. When prominent persons, who have an advanced degree in their field of study, demonstrate a shocking lack of understanding of psychiatric disorders emanating from brain pathology, however, I label that disappointing ignorance.
Take David Brooks, renowned syndicated New York Times columnist whose political analysis and insights I have always enjoyed. My heart sank in dismay when, in a column earlier this year, he stated—emphatically—that psychiatry is not a “real science,” a status he does bestow on physics and biology!1 Brooks disparaged DSM-5
(a popular blood sport these days) and called psychiatrists “heroes of uncertainty.”
I wish this esteemed writer had stuck to one of his areas of expertise, such as politics, and abstained from remarks that betray a surprising shade of ignorance. My disappointment escalated into alarm when I considered the millions of readers who regard him as credible and will be misled by his erroneous comments, which perpetuate ugly misconceptions about mental illness and disparage the people who seek help for a psychiatric medical disorder. Anti-psychiatry fanatics and professional detractors will be emboldened by misstatements such as “psychiatry is not a real science,” which help them spread virulent falsehoods and malicious propaganda against psychiatry.
A ‘colossal body of scientific evidence’ informs psychiatry
There was a time when physics, Brooks’s favorite science, was in a primitive stage of knowledge and would not have qualified as “real science.” Gravity, the laws of thermodynamics, quantum physics, the theory of relativity, the structure of the atom, the astrophysics of our solar system—all these were unknown until a short historical time ago. The scientific transformation of psychiatry is even more recent because of the past challenges of studying the brain and understanding the neurobiology of its mental processes in vivo.
There exists a colossal body of elegant scientific evidence for the biological basis of mental illness and brain-behavior links. Perhaps we psychiatrists aren’t doing a good job disseminating scientific discoveries about the neuro-anatomic, neurophysiologic, neurochemical, and molecular underpinnings of perceptual, affective, thought, behavioral, and cognitive disorders.
The hazard of obsolete knowledge
Emily Dickinson said, “The truth must dazzle gradually/Or every man be blind.” The scientific truth of psychiatry is unfolding at a breathtaking pace, yet even intelligent people continue to harbor decades-old misconceptions about the mind and its disorders. Indeed, “A little learning is a dangerous thing,” as Alexander Pope asserted, especially when it is obsolete. And, whoever said, “Ignorance is bliss” was in utter denial—perhaps the worst shade of ignorance.
Reference
1. Brooks D. Heroes of uncertainty. The New York Times. May 27, 2013:A19.
Reference
1. Brooks D. Heroes of uncertainty. The New York Times. May 27, 2013:A19.
Angry, inattentive, and sidelined
CASE Angry and depressed
Y is a 16-year-old male who presents with his mother to our clinic for medication evaluation because of anger issues and problems learning in school. He says he has been feeling depressed for several months and noticed significant irritability. Y sleeps excessively, sometimes for more than 12 hours a day, and eats more than he usually does. He reports feeling hopeless, helpless, and guilty for letting his family down. Y, who is in the 10th grade, acknowledges trouble focusing and concentrating but attributed this to a previous diagnosis of attention-deficit/hyperactivity disorder (ADHD). He stopped taking his stimulant medication several months ago because he did not like taking it. He denies thoughts of self-harm or thinking about death.
Y’s mother reports that her son had been athletic but had to stop playing football because he has had 5 concussions. Y’s inability to play sports appears to be a precipitating factor in his decline in mood (Box). He had his first concussion at age 13; the last one was several months before his presenting to the clinic. Y experienced loss of consciousness and unsteady gait after his concussions and was hospitalized for some of them. Y says his life goals are “playing sports and being a marine,” which may be compromised because of his head injuries.
His mother reports Y is having more anger outbursts and says his personality is changing. Y viewed this change as just being more assertive and fails to see that others may be scared by his behavior. He is getting into more fights at school and is more impulsive and unpredictable, according to his mother. Y is struggling in school with cognitive deficits and memory problems; his grade point average (GPA) drops from 3.5 to 0.3 over several months. He had been homeschooled initially because of uncontrolled impulsivity and aggression, but was reintegrated to public school. Y has a history of a mathematics disorder but had done well without school accommodations before the head injuries. Lack of access to his peers and poor self-esteem because of his declining grades are making his mood worse. He denies a history of substance use and his urine drug screen is negative.
Recently, Y’s grandfather, with whom he had been close, died and 2 friends were killed in car accidents in the last few years. Y has no history of psychiatric hospitalization. He had seen a psychotherapist for depression. He had been on lisdexamfetamine, 30 mg/d, citalopram, 10 mg/d, and an unknown dose of dextroamphetamine. He had no major medical comorbidities. He lives with his mother. His parents are separated but he has frequent contact with his father. His developmental history is unremarkable. There was a questionable family history of schizophrenia, “nervous breakdowns,” depression, and bipolar disorder. There was no family history of suicide.
On his initial mental status examination, Y appears to be his stated age and is dressed appropriately. He is well dressed, suggesting that he puts a lot of care into his personal appearance. He is alert and oriented. He is cooperative and has fair eye contact. His gait is normal and no motor abnormalities are evident. His speech is normal in rate, rhythm, and volume. He can remember events with great accuracy. He reports that his mood is depressed and “down.” His affect appears irritable and he has low frustration tolerance, especially towards his mother. He is easy to anger but is re-directable. He does not endorse thoughts of suicidality or harm to others. He denies auditory or visual hallucinations, and paranoia. He does not appear to be responding to internal stimuli. His judgment and insight are fair.
a) major depressive disorder
b) oppositional defiant disorder
c) bipolar disorder, most recent episode depressed
d) ADHD, untreated
e) post-concussion syndrome
The authors' observations
Traumatic brain injury (TBI) affects 1.7 to 3.8 million people in the United States. More than 473,000 children present to the emergency room annually with TBI, approximately 75% of whom are given a label of mild TBI in the United States.1-3 TBI patients present with varying degrees of problems ranging from headaches to cognitive deficits and death. Symptoms may be transient or permanent.4 Prepubescent children are at higher risk and are more likely to sustain permanent damage post-TBI, with problems in attention, executive functioning, memory, and cognition.5-7
Prognosis depends on severity of injury and environmental factors, including socioeconomic status, family dysfunction, and access to resources.8 Patients may present during the acute concussion phase with physical symptoms, such as headaches, nausea, vomiting, sensitivity to light and sounds, and memory deficits, and psychiatric complaints such as anger, irritability, and mood swings. Symptoms may persist post-concussion, leading to problems in personal relationships and social and occupational functioning, and neuropsychiatric manifestations, including changes in personality, depression, suicidal thoughts, and substance dependence. As seen in this case, Y had neuropsychiatric manifestations after his TBI but other factors, such as his ADHD diagnosis and the death of his grandfather and friends, may have contributed to his presentation.
Up to one-half of children with brain injuries may be at increased risk for unfavorable behavioral outcomes, which include internalizing and externalizing presentations.9 These behavioral problems may emerge several years after the injury and often persist or get worse with time. Behavioral functioning before injury usually dictates long-term outcomes post injury. The American Academy of Neurology recently released guidelines for the assessment and treatment of athletes with concussions (see Related Resources).
TREATMENT Restart medication
We restart Y on citalopram, 10 mg/d, which he tolerated in the past, and increase it to 20 mg/d after 4 days to address his depression and irritability. He also is restarted on lisdexamfetamine, 30 mg/d, for his ADHD. We give his mother the Child Behavior Checklist and Teacher’s Report Forms to gather additional collateral information. We ask Y to follow up in 1 month and we encourage him to continue seeing his psychotherapist.
a) neuropsychological testing
b) neurology referral
c) imaging studies
d) no testing
EVALUATION Testing
Although Y denies feeling depressed to the neuropsychologist, the examiner notes her concerns about his depression based on his mental status examination during testing.
Neuropsychological testing reveals a discrepancy noted between normal verbal skills and perceptual intellectual skills that were in the borderline range (Table). Testing revealed results supporting executive dysfunction and distractibility, which are consistent with his history of ADHD. Y’s broad reading scores are in the 20th percentile and math scores in the 30th percentile. Although he has a history of a mathematics disorder, his reading deficits are considered a decline compared with his previous performance.
The authors' observations
Y is a 16-year-old male who presented with anger, depression, and academic problems. He had genetic loading with a questionable family history of schizophrenia, “nervous breakdowns,” depression, and bipolar disorder. Other than his concussions, Y was healthy, however, he had pre-morbid, untreated ADHD. He was doing well academically until his concussions, after which he started to see a steep decline in his grades. He was struggling with low self-esteem, which affected his mood. Multiple contributors perpetuated his difficulties, including, his inability to play sports; being home-schooled; removal from his friends; deaths of close friends and family; and a concern that his medical limitation to refrain from physical activities was affecting his career ambitions, contributing to his sense of hopelessness.
Y responded well to the stimulant and antidepressant, but it is important to note the increased risk of non-compliance in teenagers, even when they report seemingly minor side effects, despite doing well clinically. Y required frequent psychiatric follow up and repeat neuropsychological evaluation to monitor his progress.
OUTCOME Back on the playing field
At Y’s 1 month follow up, he reports feeling less depressed but citalopram, 20 mg/d, makes him feel “plain.” His GPA increases to 2.5 and he completes 10th grade. Lisdexamfetamine is titrated to 60 mg/d, he is focusing at school, and his anger is better controlled. Y’s mother is hesitant to change any medications because of her son’s overall improvement.
A few weeks before his next follow up appointment, Y’s mother calls stating that his depression is worse as he has not been taking citalopram because he doesn’t like how it makes him feel. He is started on fluoxetine, 10 mg/d. At his next appointment, Y says that he tolerates fluoxetine. His mood improves substantially and he is doing much better. Y’s mother says she feel that her son is more social, smiling more, and sleeping and eating better.
Several months after Y’s school performance, mood, and behaviors improve, his physicians give him permission to play non-contact sports. He is excited to play baseball. Because of his symptoms, we recommend continuing treating his ADHD and depressive symptoms and monitoring the need for medication. We discussed with Y nonpharmacotherapeutic options, including access to an individualized education plan at school, individual therapy, and formalized cognitive training.
Bottom Line
Traumatic brain injury (TBI) affects children and adults with long-term sequelae, which affects outcomes. Outcome is dependent on several risk factors. Many patients with TBI also suffer from neuropsychiatric symptoms that affect their functioning at home and in social and occupational settings. Those with premorbid psychiatric conditions need to be closely monitored because they may be at greater risk for problems with mood and executive function. Treatment should be targeted to individual complaints.
Related Resources
- Giza CC, Kutcher JS, Ashwal S, et al. Summary of evidence-based guideline update: evaluation and management of concussion in sports: report of the Guideline Development Subcommittee of the American Academy of Neurology. Neurology. 2013;80(24): 2250-2257.
- Reardon CL, Factor RM. Sport psychiatry: a systematic review of diagnosis and medical treatment of mental illness in athletes. Sports Med. 2010;40(11):961-980.
Drug Brand Names
Citalopram • Celexa Dextroamphetamine • Adderall
Fluoxetine • Prozac Lisdexamfetamine dimesylate • Vyvanse
Disclosure
The authors report no financial relationships with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Jager TE, Weiss HB, Coben JH, et al. Traumatic brain injuries evaluated in US emergency departments, 1992-1994. Acad Emerg Med. 2000;7(2):134-140.
2. Committee on Quality Improvement American Academy of Pediatrics; Commission on Clinical Policies and Research American Academy of Family Physicians. The management of minor closed head injury in children. Pediatrics. 1999;104(6):1407-1415.
3. Koepsell TD, Rivara FP, Vavilala MS, et al. Incidence and descriptive epidemiologic features of traumatic brain injury in King County, Washington. Pediatrics. 2011;128(5):946-954.
4. Sahler CS, Greenwald BD. Traumatic brain injury in sports: a review [published online July 9, 2012]. Rehabil Res Pract. 2012;2012:659652. doi: 10.1155/2012/659652.
5. Crowe L, Babl F, Anderson V, et al. The epidemiology of paediatric head injuries: data from a referral centre in Victoria, Australia. J Paediatr Child Health. 2009;45(6):346-350.
6. Anderson V, Catroppa C, Morse S, et al. Intellectual outcome from preschool traumatic brain injury: a 5-year prospective, longitudinal study. Pediatrics. 2009;124(6):e1064-1071.
7. Jaffe KM, Fay GC, Polissar NL, et al. Severity of pediatric traumatic brain injury and neurobehavioral recovery at one year—a cohort study. Arch Phys Med Rehabil. 1993; 74(6):587-595.
8. Anderson VA, Catroppa C, Dudgeon P, et al. Understanding predictors of functional recovery and outcome 30 months following early childhood head injury. Neuropsychology. 2006;20(1):42-57.
9. Li L, Liu J. The effect of pediatric traumatic brain injury on behavioral outcomes: a systematic review. Dev Med Child Neurol. 2013;55(1):37-45.
CASE Angry and depressed
Y is a 16-year-old male who presents with his mother to our clinic for medication evaluation because of anger issues and problems learning in school. He says he has been feeling depressed for several months and noticed significant irritability. Y sleeps excessively, sometimes for more than 12 hours a day, and eats more than he usually does. He reports feeling hopeless, helpless, and guilty for letting his family down. Y, who is in the 10th grade, acknowledges trouble focusing and concentrating but attributed this to a previous diagnosis of attention-deficit/hyperactivity disorder (ADHD). He stopped taking his stimulant medication several months ago because he did not like taking it. He denies thoughts of self-harm or thinking about death.
Y’s mother reports that her son had been athletic but had to stop playing football because he has had 5 concussions. Y’s inability to play sports appears to be a precipitating factor in his decline in mood (Box). He had his first concussion at age 13; the last one was several months before his presenting to the clinic. Y experienced loss of consciousness and unsteady gait after his concussions and was hospitalized for some of them. Y says his life goals are “playing sports and being a marine,” which may be compromised because of his head injuries.
His mother reports Y is having more anger outbursts and says his personality is changing. Y viewed this change as just being more assertive and fails to see that others may be scared by his behavior. He is getting into more fights at school and is more impulsive and unpredictable, according to his mother. Y is struggling in school with cognitive deficits and memory problems; his grade point average (GPA) drops from 3.5 to 0.3 over several months. He had been homeschooled initially because of uncontrolled impulsivity and aggression, but was reintegrated to public school. Y has a history of a mathematics disorder but had done well without school accommodations before the head injuries. Lack of access to his peers and poor self-esteem because of his declining grades are making his mood worse. He denies a history of substance use and his urine drug screen is negative.
Recently, Y’s grandfather, with whom he had been close, died and 2 friends were killed in car accidents in the last few years. Y has no history of psychiatric hospitalization. He had seen a psychotherapist for depression. He had been on lisdexamfetamine, 30 mg/d, citalopram, 10 mg/d, and an unknown dose of dextroamphetamine. He had no major medical comorbidities. He lives with his mother. His parents are separated but he has frequent contact with his father. His developmental history is unremarkable. There was a questionable family history of schizophrenia, “nervous breakdowns,” depression, and bipolar disorder. There was no family history of suicide.
On his initial mental status examination, Y appears to be his stated age and is dressed appropriately. He is well dressed, suggesting that he puts a lot of care into his personal appearance. He is alert and oriented. He is cooperative and has fair eye contact. His gait is normal and no motor abnormalities are evident. His speech is normal in rate, rhythm, and volume. He can remember events with great accuracy. He reports that his mood is depressed and “down.” His affect appears irritable and he has low frustration tolerance, especially towards his mother. He is easy to anger but is re-directable. He does not endorse thoughts of suicidality or harm to others. He denies auditory or visual hallucinations, and paranoia. He does not appear to be responding to internal stimuli. His judgment and insight are fair.
a) major depressive disorder
b) oppositional defiant disorder
c) bipolar disorder, most recent episode depressed
d) ADHD, untreated
e) post-concussion syndrome
The authors' observations
Traumatic brain injury (TBI) affects 1.7 to 3.8 million people in the United States. More than 473,000 children present to the emergency room annually with TBI, approximately 75% of whom are given a label of mild TBI in the United States.1-3 TBI patients present with varying degrees of problems ranging from headaches to cognitive deficits and death. Symptoms may be transient or permanent.4 Prepubescent children are at higher risk and are more likely to sustain permanent damage post-TBI, with problems in attention, executive functioning, memory, and cognition.5-7
Prognosis depends on severity of injury and environmental factors, including socioeconomic status, family dysfunction, and access to resources.8 Patients may present during the acute concussion phase with physical symptoms, such as headaches, nausea, vomiting, sensitivity to light and sounds, and memory deficits, and psychiatric complaints such as anger, irritability, and mood swings. Symptoms may persist post-concussion, leading to problems in personal relationships and social and occupational functioning, and neuropsychiatric manifestations, including changes in personality, depression, suicidal thoughts, and substance dependence. As seen in this case, Y had neuropsychiatric manifestations after his TBI but other factors, such as his ADHD diagnosis and the death of his grandfather and friends, may have contributed to his presentation.
Up to one-half of children with brain injuries may be at increased risk for unfavorable behavioral outcomes, which include internalizing and externalizing presentations.9 These behavioral problems may emerge several years after the injury and often persist or get worse with time. Behavioral functioning before injury usually dictates long-term outcomes post injury. The American Academy of Neurology recently released guidelines for the assessment and treatment of athletes with concussions (see Related Resources).
TREATMENT Restart medication
We restart Y on citalopram, 10 mg/d, which he tolerated in the past, and increase it to 20 mg/d after 4 days to address his depression and irritability. He also is restarted on lisdexamfetamine, 30 mg/d, for his ADHD. We give his mother the Child Behavior Checklist and Teacher’s Report Forms to gather additional collateral information. We ask Y to follow up in 1 month and we encourage him to continue seeing his psychotherapist.
a) neuropsychological testing
b) neurology referral
c) imaging studies
d) no testing
EVALUATION Testing
Although Y denies feeling depressed to the neuropsychologist, the examiner notes her concerns about his depression based on his mental status examination during testing.
Neuropsychological testing reveals a discrepancy noted between normal verbal skills and perceptual intellectual skills that were in the borderline range (Table). Testing revealed results supporting executive dysfunction and distractibility, which are consistent with his history of ADHD. Y’s broad reading scores are in the 20th percentile and math scores in the 30th percentile. Although he has a history of a mathematics disorder, his reading deficits are considered a decline compared with his previous performance.
The authors' observations
Y is a 16-year-old male who presented with anger, depression, and academic problems. He had genetic loading with a questionable family history of schizophrenia, “nervous breakdowns,” depression, and bipolar disorder. Other than his concussions, Y was healthy, however, he had pre-morbid, untreated ADHD. He was doing well academically until his concussions, after which he started to see a steep decline in his grades. He was struggling with low self-esteem, which affected his mood. Multiple contributors perpetuated his difficulties, including, his inability to play sports; being home-schooled; removal from his friends; deaths of close friends and family; and a concern that his medical limitation to refrain from physical activities was affecting his career ambitions, contributing to his sense of hopelessness.
Y responded well to the stimulant and antidepressant, but it is important to note the increased risk of non-compliance in teenagers, even when they report seemingly minor side effects, despite doing well clinically. Y required frequent psychiatric follow up and repeat neuropsychological evaluation to monitor his progress.
OUTCOME Back on the playing field
At Y’s 1 month follow up, he reports feeling less depressed but citalopram, 20 mg/d, makes him feel “plain.” His GPA increases to 2.5 and he completes 10th grade. Lisdexamfetamine is titrated to 60 mg/d, he is focusing at school, and his anger is better controlled. Y’s mother is hesitant to change any medications because of her son’s overall improvement.
A few weeks before his next follow up appointment, Y’s mother calls stating that his depression is worse as he has not been taking citalopram because he doesn’t like how it makes him feel. He is started on fluoxetine, 10 mg/d. At his next appointment, Y says that he tolerates fluoxetine. His mood improves substantially and he is doing much better. Y’s mother says she feel that her son is more social, smiling more, and sleeping and eating better.
Several months after Y’s school performance, mood, and behaviors improve, his physicians give him permission to play non-contact sports. He is excited to play baseball. Because of his symptoms, we recommend continuing treating his ADHD and depressive symptoms and monitoring the need for medication. We discussed with Y nonpharmacotherapeutic options, including access to an individualized education plan at school, individual therapy, and formalized cognitive training.
Bottom Line
Traumatic brain injury (TBI) affects children and adults with long-term sequelae, which affects outcomes. Outcome is dependent on several risk factors. Many patients with TBI also suffer from neuropsychiatric symptoms that affect their functioning at home and in social and occupational settings. Those with premorbid psychiatric conditions need to be closely monitored because they may be at greater risk for problems with mood and executive function. Treatment should be targeted to individual complaints.
Related Resources
- Giza CC, Kutcher JS, Ashwal S, et al. Summary of evidence-based guideline update: evaluation and management of concussion in sports: report of the Guideline Development Subcommittee of the American Academy of Neurology. Neurology. 2013;80(24): 2250-2257.
- Reardon CL, Factor RM. Sport psychiatry: a systematic review of diagnosis and medical treatment of mental illness in athletes. Sports Med. 2010;40(11):961-980.
Drug Brand Names
Citalopram • Celexa Dextroamphetamine • Adderall
Fluoxetine • Prozac Lisdexamfetamine dimesylate • Vyvanse
Disclosure
The authors report no financial relationships with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE Angry and depressed
Y is a 16-year-old male who presents with his mother to our clinic for medication evaluation because of anger issues and problems learning in school. He says he has been feeling depressed for several months and noticed significant irritability. Y sleeps excessively, sometimes for more than 12 hours a day, and eats more than he usually does. He reports feeling hopeless, helpless, and guilty for letting his family down. Y, who is in the 10th grade, acknowledges trouble focusing and concentrating but attributed this to a previous diagnosis of attention-deficit/hyperactivity disorder (ADHD). He stopped taking his stimulant medication several months ago because he did not like taking it. He denies thoughts of self-harm or thinking about death.
Y’s mother reports that her son had been athletic but had to stop playing football because he has had 5 concussions. Y’s inability to play sports appears to be a precipitating factor in his decline in mood (Box). He had his first concussion at age 13; the last one was several months before his presenting to the clinic. Y experienced loss of consciousness and unsteady gait after his concussions and was hospitalized for some of them. Y says his life goals are “playing sports and being a marine,” which may be compromised because of his head injuries.
His mother reports Y is having more anger outbursts and says his personality is changing. Y viewed this change as just being more assertive and fails to see that others may be scared by his behavior. He is getting into more fights at school and is more impulsive and unpredictable, according to his mother. Y is struggling in school with cognitive deficits and memory problems; his grade point average (GPA) drops from 3.5 to 0.3 over several months. He had been homeschooled initially because of uncontrolled impulsivity and aggression, but was reintegrated to public school. Y has a history of a mathematics disorder but had done well without school accommodations before the head injuries. Lack of access to his peers and poor self-esteem because of his declining grades are making his mood worse. He denies a history of substance use and his urine drug screen is negative.
Recently, Y’s grandfather, with whom he had been close, died and 2 friends were killed in car accidents in the last few years. Y has no history of psychiatric hospitalization. He had seen a psychotherapist for depression. He had been on lisdexamfetamine, 30 mg/d, citalopram, 10 mg/d, and an unknown dose of dextroamphetamine. He had no major medical comorbidities. He lives with his mother. His parents are separated but he has frequent contact with his father. His developmental history is unremarkable. There was a questionable family history of schizophrenia, “nervous breakdowns,” depression, and bipolar disorder. There was no family history of suicide.
On his initial mental status examination, Y appears to be his stated age and is dressed appropriately. He is well dressed, suggesting that he puts a lot of care into his personal appearance. He is alert and oriented. He is cooperative and has fair eye contact. His gait is normal and no motor abnormalities are evident. His speech is normal in rate, rhythm, and volume. He can remember events with great accuracy. He reports that his mood is depressed and “down.” His affect appears irritable and he has low frustration tolerance, especially towards his mother. He is easy to anger but is re-directable. He does not endorse thoughts of suicidality or harm to others. He denies auditory or visual hallucinations, and paranoia. He does not appear to be responding to internal stimuli. His judgment and insight are fair.
a) major depressive disorder
b) oppositional defiant disorder
c) bipolar disorder, most recent episode depressed
d) ADHD, untreated
e) post-concussion syndrome
The authors' observations
Traumatic brain injury (TBI) affects 1.7 to 3.8 million people in the United States. More than 473,000 children present to the emergency room annually with TBI, approximately 75% of whom are given a label of mild TBI in the United States.1-3 TBI patients present with varying degrees of problems ranging from headaches to cognitive deficits and death. Symptoms may be transient or permanent.4 Prepubescent children are at higher risk and are more likely to sustain permanent damage post-TBI, with problems in attention, executive functioning, memory, and cognition.5-7
Prognosis depends on severity of injury and environmental factors, including socioeconomic status, family dysfunction, and access to resources.8 Patients may present during the acute concussion phase with physical symptoms, such as headaches, nausea, vomiting, sensitivity to light and sounds, and memory deficits, and psychiatric complaints such as anger, irritability, and mood swings. Symptoms may persist post-concussion, leading to problems in personal relationships and social and occupational functioning, and neuropsychiatric manifestations, including changes in personality, depression, suicidal thoughts, and substance dependence. As seen in this case, Y had neuropsychiatric manifestations after his TBI but other factors, such as his ADHD diagnosis and the death of his grandfather and friends, may have contributed to his presentation.
Up to one-half of children with brain injuries may be at increased risk for unfavorable behavioral outcomes, which include internalizing and externalizing presentations.9 These behavioral problems may emerge several years after the injury and often persist or get worse with time. Behavioral functioning before injury usually dictates long-term outcomes post injury. The American Academy of Neurology recently released guidelines for the assessment and treatment of athletes with concussions (see Related Resources).
TREATMENT Restart medication
We restart Y on citalopram, 10 mg/d, which he tolerated in the past, and increase it to 20 mg/d after 4 days to address his depression and irritability. He also is restarted on lisdexamfetamine, 30 mg/d, for his ADHD. We give his mother the Child Behavior Checklist and Teacher’s Report Forms to gather additional collateral information. We ask Y to follow up in 1 month and we encourage him to continue seeing his psychotherapist.
a) neuropsychological testing
b) neurology referral
c) imaging studies
d) no testing
EVALUATION Testing
Although Y denies feeling depressed to the neuropsychologist, the examiner notes her concerns about his depression based on his mental status examination during testing.
Neuropsychological testing reveals a discrepancy noted between normal verbal skills and perceptual intellectual skills that were in the borderline range (Table). Testing revealed results supporting executive dysfunction and distractibility, which are consistent with his history of ADHD. Y’s broad reading scores are in the 20th percentile and math scores in the 30th percentile. Although he has a history of a mathematics disorder, his reading deficits are considered a decline compared with his previous performance.
The authors' observations
Y is a 16-year-old male who presented with anger, depression, and academic problems. He had genetic loading with a questionable family history of schizophrenia, “nervous breakdowns,” depression, and bipolar disorder. Other than his concussions, Y was healthy, however, he had pre-morbid, untreated ADHD. He was doing well academically until his concussions, after which he started to see a steep decline in his grades. He was struggling with low self-esteem, which affected his mood. Multiple contributors perpetuated his difficulties, including, his inability to play sports; being home-schooled; removal from his friends; deaths of close friends and family; and a concern that his medical limitation to refrain from physical activities was affecting his career ambitions, contributing to his sense of hopelessness.
Y responded well to the stimulant and antidepressant, but it is important to note the increased risk of non-compliance in teenagers, even when they report seemingly minor side effects, despite doing well clinically. Y required frequent psychiatric follow up and repeat neuropsychological evaluation to monitor his progress.
OUTCOME Back on the playing field
At Y’s 1 month follow up, he reports feeling less depressed but citalopram, 20 mg/d, makes him feel “plain.” His GPA increases to 2.5 and he completes 10th grade. Lisdexamfetamine is titrated to 60 mg/d, he is focusing at school, and his anger is better controlled. Y’s mother is hesitant to change any medications because of her son’s overall improvement.
A few weeks before his next follow up appointment, Y’s mother calls stating that his depression is worse as he has not been taking citalopram because he doesn’t like how it makes him feel. He is started on fluoxetine, 10 mg/d. At his next appointment, Y says that he tolerates fluoxetine. His mood improves substantially and he is doing much better. Y’s mother says she feel that her son is more social, smiling more, and sleeping and eating better.
Several months after Y’s school performance, mood, and behaviors improve, his physicians give him permission to play non-contact sports. He is excited to play baseball. Because of his symptoms, we recommend continuing treating his ADHD and depressive symptoms and monitoring the need for medication. We discussed with Y nonpharmacotherapeutic options, including access to an individualized education plan at school, individual therapy, and formalized cognitive training.
Bottom Line
Traumatic brain injury (TBI) affects children and adults with long-term sequelae, which affects outcomes. Outcome is dependent on several risk factors. Many patients with TBI also suffer from neuropsychiatric symptoms that affect their functioning at home and in social and occupational settings. Those with premorbid psychiatric conditions need to be closely monitored because they may be at greater risk for problems with mood and executive function. Treatment should be targeted to individual complaints.
Related Resources
- Giza CC, Kutcher JS, Ashwal S, et al. Summary of evidence-based guideline update: evaluation and management of concussion in sports: report of the Guideline Development Subcommittee of the American Academy of Neurology. Neurology. 2013;80(24): 2250-2257.
- Reardon CL, Factor RM. Sport psychiatry: a systematic review of diagnosis and medical treatment of mental illness in athletes. Sports Med. 2010;40(11):961-980.
Drug Brand Names
Citalopram • Celexa Dextroamphetamine • Adderall
Fluoxetine • Prozac Lisdexamfetamine dimesylate • Vyvanse
Disclosure
The authors report no financial relationships with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Jager TE, Weiss HB, Coben JH, et al. Traumatic brain injuries evaluated in US emergency departments, 1992-1994. Acad Emerg Med. 2000;7(2):134-140.
2. Committee on Quality Improvement American Academy of Pediatrics; Commission on Clinical Policies and Research American Academy of Family Physicians. The management of minor closed head injury in children. Pediatrics. 1999;104(6):1407-1415.
3. Koepsell TD, Rivara FP, Vavilala MS, et al. Incidence and descriptive epidemiologic features of traumatic brain injury in King County, Washington. Pediatrics. 2011;128(5):946-954.
4. Sahler CS, Greenwald BD. Traumatic brain injury in sports: a review [published online July 9, 2012]. Rehabil Res Pract. 2012;2012:659652. doi: 10.1155/2012/659652.
5. Crowe L, Babl F, Anderson V, et al. The epidemiology of paediatric head injuries: data from a referral centre in Victoria, Australia. J Paediatr Child Health. 2009;45(6):346-350.
6. Anderson V, Catroppa C, Morse S, et al. Intellectual outcome from preschool traumatic brain injury: a 5-year prospective, longitudinal study. Pediatrics. 2009;124(6):e1064-1071.
7. Jaffe KM, Fay GC, Polissar NL, et al. Severity of pediatric traumatic brain injury and neurobehavioral recovery at one year—a cohort study. Arch Phys Med Rehabil. 1993; 74(6):587-595.
8. Anderson VA, Catroppa C, Dudgeon P, et al. Understanding predictors of functional recovery and outcome 30 months following early childhood head injury. Neuropsychology. 2006;20(1):42-57.
9. Li L, Liu J. The effect of pediatric traumatic brain injury on behavioral outcomes: a systematic review. Dev Med Child Neurol. 2013;55(1):37-45.
1. Jager TE, Weiss HB, Coben JH, et al. Traumatic brain injuries evaluated in US emergency departments, 1992-1994. Acad Emerg Med. 2000;7(2):134-140.
2. Committee on Quality Improvement American Academy of Pediatrics; Commission on Clinical Policies and Research American Academy of Family Physicians. The management of minor closed head injury in children. Pediatrics. 1999;104(6):1407-1415.
3. Koepsell TD, Rivara FP, Vavilala MS, et al. Incidence and descriptive epidemiologic features of traumatic brain injury in King County, Washington. Pediatrics. 2011;128(5):946-954.
4. Sahler CS, Greenwald BD. Traumatic brain injury in sports: a review [published online July 9, 2012]. Rehabil Res Pract. 2012;2012:659652. doi: 10.1155/2012/659652.
5. Crowe L, Babl F, Anderson V, et al. The epidemiology of paediatric head injuries: data from a referral centre in Victoria, Australia. J Paediatr Child Health. 2009;45(6):346-350.
6. Anderson V, Catroppa C, Morse S, et al. Intellectual outcome from preschool traumatic brain injury: a 5-year prospective, longitudinal study. Pediatrics. 2009;124(6):e1064-1071.
7. Jaffe KM, Fay GC, Polissar NL, et al. Severity of pediatric traumatic brain injury and neurobehavioral recovery at one year—a cohort study. Arch Phys Med Rehabil. 1993; 74(6):587-595.
8. Anderson VA, Catroppa C, Dudgeon P, et al. Understanding predictors of functional recovery and outcome 30 months following early childhood head injury. Neuropsychology. 2006;20(1):42-57.
9. Li L, Liu J. The effect of pediatric traumatic brain injury on behavioral outcomes: a systematic review. Dev Med Child Neurol. 2013;55(1):37-45.
Managing Bipolar Depression: An Evidence-Based Approach
Bipolar disorder is characterized by the cyclical occurrence of elevated (manic or hypomanic) and depressed mood states. The illness, which includes the bipolar I and bipolar II subtypes, exacts a heavy toll in terms of quality of life, functioning, morbidity, comorbidity, and mortality.1 Depressive episodes and symptoms deserve particular attention: Not only do they dominate the long-term course of the illness; they are associated with similar or greater psychosocial impairment than corresponding levels of manic or hypomanic symptoms.1
Bipolar disorder is characterized by the cyclical occurrence of elevated (manic or hypomanic) and depressed mood states. The illness, which includes the bipolar I and bipolar II subtypes, exacts a heavy toll in terms of quality of life, functioning, morbidity, comorbidity, and mortality.1 Depressive episodes and symptoms deserve particular attention: Not only do they dominate the long-term course of the illness; they are associated with similar or greater psychosocial impairment than corresponding levels of manic or hypomanic symptoms.1
Bipolar disorder is characterized by the cyclical occurrence of elevated (manic or hypomanic) and depressed mood states. The illness, which includes the bipolar I and bipolar II subtypes, exacts a heavy toll in terms of quality of life, functioning, morbidity, comorbidity, and mortality.1 Depressive episodes and symptoms deserve particular attention: Not only do they dominate the long-term course of the illness; they are associated with similar or greater psychosocial impairment than corresponding levels of manic or hypomanic symptoms.1
Did the authors slip on SOAPP?
I found “Chronic non-cancer pain and substance use disorders: Challenges and strategies.” (Current Psychiatry, July 2013, p. 35-41; http://bit.ly/162NTCO) interesting. However, as an author of one of the references cited, I feel I should speak up when there is a factual error. The authors cite our Moore et al 20091 study as finding that “the SOAPP-R is 90% sensitive in detecting CNCP/SUD.”
First, what was identified was those patients misusing opioid medications in some way that might or might not represent a substance use disorder. Second, the sensitivity was 73%, not 90%. Most important, the instrument to which the authors are referring is the SOAPP, not the SOAPP-R. Our later studies have shown that the SOAPP-R has much less sensitivity than the SOAPP and, therefore, the two tools are not comparable.
Ted W. Jones, PhD
Psychologist
Behavioral Medicine Institute, P.C.
Pain Consultants of East Tennessee
Knoxville, Tennessee
Reference
1. Moore TM, Jones T, Browder JH, et al. A comparison of common screening methods for predicting aberrant drug-related behavior among patients receiving opioids for chronic pain management. Pain Med. 2009;10(8):1426-1433.
I found “Chronic non-cancer pain and substance use disorders: Challenges and strategies.” (Current Psychiatry, July 2013, p. 35-41; http://bit.ly/162NTCO) interesting. However, as an author of one of the references cited, I feel I should speak up when there is a factual error. The authors cite our Moore et al 20091 study as finding that “the SOAPP-R is 90% sensitive in detecting CNCP/SUD.”
First, what was identified was those patients misusing opioid medications in some way that might or might not represent a substance use disorder. Second, the sensitivity was 73%, not 90%. Most important, the instrument to which the authors are referring is the SOAPP, not the SOAPP-R. Our later studies have shown that the SOAPP-R has much less sensitivity than the SOAPP and, therefore, the two tools are not comparable.
Ted W. Jones, PhD
Psychologist
Behavioral Medicine Institute, P.C.
Pain Consultants of East Tennessee
Knoxville, Tennessee
Reference
1. Moore TM, Jones T, Browder JH, et al. A comparison of common screening methods for predicting aberrant drug-related behavior among patients receiving opioids for chronic pain management. Pain Med. 2009;10(8):1426-1433.
I found “Chronic non-cancer pain and substance use disorders: Challenges and strategies.” (Current Psychiatry, July 2013, p. 35-41; http://bit.ly/162NTCO) interesting. However, as an author of one of the references cited, I feel I should speak up when there is a factual error. The authors cite our Moore et al 20091 study as finding that “the SOAPP-R is 90% sensitive in detecting CNCP/SUD.”
First, what was identified was those patients misusing opioid medications in some way that might or might not represent a substance use disorder. Second, the sensitivity was 73%, not 90%. Most important, the instrument to which the authors are referring is the SOAPP, not the SOAPP-R. Our later studies have shown that the SOAPP-R has much less sensitivity than the SOAPP and, therefore, the two tools are not comparable.
Ted W. Jones, PhD
Psychologist
Behavioral Medicine Institute, P.C.
Pain Consultants of East Tennessee
Knoxville, Tennessee
Reference
1. Moore TM, Jones T, Browder JH, et al. A comparison of common screening methods for predicting aberrant drug-related behavior among patients receiving opioids for chronic pain management. Pain Med. 2009;10(8):1426-1433.
A forum for haloperidol
‘Farewell’ to haloperidol?
In response to “Haloperidol clearly is neurotoxic. Should it be banned?” (Current Psychiatry, From the Editor, July 2013, p. 7-8; http://bit.ly/1eMegnr), let me clarify several issues before a consensus is established on whether to discontinue the use of haloperidol.
Remember that since the first use of haloperidol—one of the butyrophenones—more than a half a century ago, practitioners and researchers were aware of its neurotoxicity. Nevertheless, butyrophenones are unique chemicals capable of controlling psychotic symptoms and severe brain dysfunctions, such as extrapyramidal reactions, neuroleptic malignant syndrome, akathisia, tardive dyskinesia, and galactorrhea, among others. Dr. Paul Janssen—founder of the laboratory that first released haloperidol—made a fortune that subsequently prevented him from being awarded the Nobel Prize in Physiology or Medicine.1
A product that was the cornerstone of psychiatric treatment for half a century deserves a better farewell than the one Dr. Nasrallah is offering. Atypical antipsychotics present a number of drawbacks and have dangerous toxicity levels that still need study. I am concerned about metabolic syndrome (diabetes mellitus, hypercholesterolemia, gynecomastia, severe obesity, etc.), which may cost even more to treat than the cost of psychiatric care. In addition to the burden of their high and often unreasonable cost, quetiapine, olanzapine, clozapine, aripiprazole, risperidone, and other atypical antipsychotics have clinical limitations that often restrict their use.
If psychiatry needs a good, immediate fix, it would be in the development and approval of new chemicals that are both better tolerated than the butyrophenones and more affordable than atypical antipsychotics.2
Enrique S. Garza-Trevino, MD
Medical Director
San Antonio Mood Disorders Clinic
San Antonio, Texas
References
1. Healy D. The psychopharmacologist II: interviews by David Healy. Philadelphia, PA: Lippincott-Raven Publishers; 1998.
2. Garza-Trevino ES, Hollister LE, Overall JE. Combination of intramuscular hypnotics and neuroleptics for control of psychotic agitated patients. Am J Psychiatry. 1989;146:1598-1602.
Superior efficacy of atypical antipsychotics
Regarding Dr. Nasrallah’s editorial (July 2013) on the research delineating some of the neurotoxic aspects of first-generation antipsychotics, including haloperidol, he seems to shoot clinical psychiatry in the foot when he describes second-generation agents as having been “much safer for the brain than their older-generation counterparts (although they are not more efficacious).” This closing assertion is not followed by a reference. Indeed, one would anticipate that the newer agents would display greater efficacy given the neurotropic properties of the atypicals described by Dr. Nasrallah in his previous editorial, "Beyond dopamine: The 'other' effects of antipsychotics" (Current Psychiatry, June 2013, p. 8-9; http://bit.ly/1aA7MZw).
The only real study attempting to clarify this issue has been the Clinical Antipsychotic Trials of Intervention Effectiveness (CATIE) study; patients in that study were chronic and refractory to any intervention. In my practice, I have seen clear and compelling evidence supporting the superiority of atypical antipsychotics—as well as chronicity with multiple relapses and rehospitalizations.
More research into this matter is necessary. In the meantime, we need to be mindful of assertions that might be premature and damaging.
Robert Barris, MD
Nassau University Medical Center
East Meadow, New York
Dr. Nasrallah responds
I appreciate the comments of Drs. Garza-Trevino and Barris in response to my editorial. Here is my reply to the points they addressed:
The efficacy and neurotoxicity of haloperidol are independent mechanisms. Blocking dopamine receptors controls psychotic symptoms, but neurotoxicity involves triggering apoptosis, increasing free radicals, binding to sigma receptors, increasing intracellular calcium, decreasing neurotropic factors, increasing P53, T-box, Jun kinase, etc. Neurotoxicity is separate from extrapyramidal side effects. Similarly, the neuroprotective effects of atypical antipsychotics, such as enhancement, neuroplasticity, increasing neurogenesis, and growth factors, are separate from their antipsychotic efficacy.
Only some of the CATIE study patients who responded to clozapine in phase II after not responding to any of the antipsychotics in phase I were refractory.
The assertion about the neurotoxicity of haloperidol is based on 28 published studies in neuroscience journals (which are rarely accessed or read by clinicians). Thus, the terms “premature and damaging” do not apply. I served as a messenger summarizing all these destructive properties of haloperidol1 and I certainly was prepared to parry and deflect some arrows.
Meta-analysis of the efficacy of first- and second-generation antipsychotics
(SGAs) showed that most SGAs are similar to first-generation antipsychotics (FGAs).2 What the SGAs do that gives the appearance of additional efficacy is avoid
the secondary negative and cognitive deficits associated with extrapyramidal side effects, which are much lower with SGAs.
The treatment of primary negative symptoms and cognitive impairment of schizophrenia remains a huge, unmet need—but there is some emerging data on glutamate modulation as a path to improving negative symptoms.
Finally, just as the FGAs vary in their extrapyramidal side effect profile, so do SGAs in their metabolic adverse effects. There are several SGAs that are metabolically benign, and there are also some FGAs that can cause serious weight gain and hyperglycemia.
Henry A. Nasrallah, MD
Editor-In-Chief
References
1. Nasrallah HA, Rush S. First generation antipsychotics are neurotoxic and impair neuroplasticity via multiple mechanisms. Biol Psychiatry. 2013;73:61S.
2. Davis JM, Chen N, Glick ID. A meta-analysis of second-generation antipsychotics. Arch Gen Psychiatry. 2003;60:553-564.
‘Farewell’ to haloperidol?
In response to “Haloperidol clearly is neurotoxic. Should it be banned?” (Current Psychiatry, From the Editor, July 2013, p. 7-8; http://bit.ly/1eMegnr), let me clarify several issues before a consensus is established on whether to discontinue the use of haloperidol.
Remember that since the first use of haloperidol—one of the butyrophenones—more than a half a century ago, practitioners and researchers were aware of its neurotoxicity. Nevertheless, butyrophenones are unique chemicals capable of controlling psychotic symptoms and severe brain dysfunctions, such as extrapyramidal reactions, neuroleptic malignant syndrome, akathisia, tardive dyskinesia, and galactorrhea, among others. Dr. Paul Janssen—founder of the laboratory that first released haloperidol—made a fortune that subsequently prevented him from being awarded the Nobel Prize in Physiology or Medicine.1
A product that was the cornerstone of psychiatric treatment for half a century deserves a better farewell than the one Dr. Nasrallah is offering. Atypical antipsychotics present a number of drawbacks and have dangerous toxicity levels that still need study. I am concerned about metabolic syndrome (diabetes mellitus, hypercholesterolemia, gynecomastia, severe obesity, etc.), which may cost even more to treat than the cost of psychiatric care. In addition to the burden of their high and often unreasonable cost, quetiapine, olanzapine, clozapine, aripiprazole, risperidone, and other atypical antipsychotics have clinical limitations that often restrict their use.
If psychiatry needs a good, immediate fix, it would be in the development and approval of new chemicals that are both better tolerated than the butyrophenones and more affordable than atypical antipsychotics.2
Enrique S. Garza-Trevino, MD
Medical Director
San Antonio Mood Disorders Clinic
San Antonio, Texas
References
1. Healy D. The psychopharmacologist II: interviews by David Healy. Philadelphia, PA: Lippincott-Raven Publishers; 1998.
2. Garza-Trevino ES, Hollister LE, Overall JE. Combination of intramuscular hypnotics and neuroleptics for control of psychotic agitated patients. Am J Psychiatry. 1989;146:1598-1602.
Superior efficacy of atypical antipsychotics
Regarding Dr. Nasrallah’s editorial (July 2013) on the research delineating some of the neurotoxic aspects of first-generation antipsychotics, including haloperidol, he seems to shoot clinical psychiatry in the foot when he describes second-generation agents as having been “much safer for the brain than their older-generation counterparts (although they are not more efficacious).” This closing assertion is not followed by a reference. Indeed, one would anticipate that the newer agents would display greater efficacy given the neurotropic properties of the atypicals described by Dr. Nasrallah in his previous editorial, "Beyond dopamine: The 'other' effects of antipsychotics" (Current Psychiatry, June 2013, p. 8-9; http://bit.ly/1aA7MZw).
The only real study attempting to clarify this issue has been the Clinical Antipsychotic Trials of Intervention Effectiveness (CATIE) study; patients in that study were chronic and refractory to any intervention. In my practice, I have seen clear and compelling evidence supporting the superiority of atypical antipsychotics—as well as chronicity with multiple relapses and rehospitalizations.
More research into this matter is necessary. In the meantime, we need to be mindful of assertions that might be premature and damaging.
Robert Barris, MD
Nassau University Medical Center
East Meadow, New York
Dr. Nasrallah responds
I appreciate the comments of Drs. Garza-Trevino and Barris in response to my editorial. Here is my reply to the points they addressed:
The efficacy and neurotoxicity of haloperidol are independent mechanisms. Blocking dopamine receptors controls psychotic symptoms, but neurotoxicity involves triggering apoptosis, increasing free radicals, binding to sigma receptors, increasing intracellular calcium, decreasing neurotropic factors, increasing P53, T-box, Jun kinase, etc. Neurotoxicity is separate from extrapyramidal side effects. Similarly, the neuroprotective effects of atypical antipsychotics, such as enhancement, neuroplasticity, increasing neurogenesis, and growth factors, are separate from their antipsychotic efficacy.
Only some of the CATIE study patients who responded to clozapine in phase II after not responding to any of the antipsychotics in phase I were refractory.
The assertion about the neurotoxicity of haloperidol is based on 28 published studies in neuroscience journals (which are rarely accessed or read by clinicians). Thus, the terms “premature and damaging” do not apply. I served as a messenger summarizing all these destructive properties of haloperidol1 and I certainly was prepared to parry and deflect some arrows.
Meta-analysis of the efficacy of first- and second-generation antipsychotics
(SGAs) showed that most SGAs are similar to first-generation antipsychotics (FGAs).2 What the SGAs do that gives the appearance of additional efficacy is avoid
the secondary negative and cognitive deficits associated with extrapyramidal side effects, which are much lower with SGAs.
The treatment of primary negative symptoms and cognitive impairment of schizophrenia remains a huge, unmet need—but there is some emerging data on glutamate modulation as a path to improving negative symptoms.
Finally, just as the FGAs vary in their extrapyramidal side effect profile, so do SGAs in their metabolic adverse effects. There are several SGAs that are metabolically benign, and there are also some FGAs that can cause serious weight gain and hyperglycemia.
Henry A. Nasrallah, MD
Editor-In-Chief
References
1. Nasrallah HA, Rush S. First generation antipsychotics are neurotoxic and impair neuroplasticity via multiple mechanisms. Biol Psychiatry. 2013;73:61S.
2. Davis JM, Chen N, Glick ID. A meta-analysis of second-generation antipsychotics. Arch Gen Psychiatry. 2003;60:553-564.
‘Farewell’ to haloperidol?
In response to “Haloperidol clearly is neurotoxic. Should it be banned?” (Current Psychiatry, From the Editor, July 2013, p. 7-8; http://bit.ly/1eMegnr), let me clarify several issues before a consensus is established on whether to discontinue the use of haloperidol.
Remember that since the first use of haloperidol—one of the butyrophenones—more than a half a century ago, practitioners and researchers were aware of its neurotoxicity. Nevertheless, butyrophenones are unique chemicals capable of controlling psychotic symptoms and severe brain dysfunctions, such as extrapyramidal reactions, neuroleptic malignant syndrome, akathisia, tardive dyskinesia, and galactorrhea, among others. Dr. Paul Janssen—founder of the laboratory that first released haloperidol—made a fortune that subsequently prevented him from being awarded the Nobel Prize in Physiology or Medicine.1
A product that was the cornerstone of psychiatric treatment for half a century deserves a better farewell than the one Dr. Nasrallah is offering. Atypical antipsychotics present a number of drawbacks and have dangerous toxicity levels that still need study. I am concerned about metabolic syndrome (diabetes mellitus, hypercholesterolemia, gynecomastia, severe obesity, etc.), which may cost even more to treat than the cost of psychiatric care. In addition to the burden of their high and often unreasonable cost, quetiapine, olanzapine, clozapine, aripiprazole, risperidone, and other atypical antipsychotics have clinical limitations that often restrict their use.
If psychiatry needs a good, immediate fix, it would be in the development and approval of new chemicals that are both better tolerated than the butyrophenones and more affordable than atypical antipsychotics.2
Enrique S. Garza-Trevino, MD
Medical Director
San Antonio Mood Disorders Clinic
San Antonio, Texas
References
1. Healy D. The psychopharmacologist II: interviews by David Healy. Philadelphia, PA: Lippincott-Raven Publishers; 1998.
2. Garza-Trevino ES, Hollister LE, Overall JE. Combination of intramuscular hypnotics and neuroleptics for control of psychotic agitated patients. Am J Psychiatry. 1989;146:1598-1602.
Superior efficacy of atypical antipsychotics
Regarding Dr. Nasrallah’s editorial (July 2013) on the research delineating some of the neurotoxic aspects of first-generation antipsychotics, including haloperidol, he seems to shoot clinical psychiatry in the foot when he describes second-generation agents as having been “much safer for the brain than their older-generation counterparts (although they are not more efficacious).” This closing assertion is not followed by a reference. Indeed, one would anticipate that the newer agents would display greater efficacy given the neurotropic properties of the atypicals described by Dr. Nasrallah in his previous editorial, "Beyond dopamine: The 'other' effects of antipsychotics" (Current Psychiatry, June 2013, p. 8-9; http://bit.ly/1aA7MZw).
The only real study attempting to clarify this issue has been the Clinical Antipsychotic Trials of Intervention Effectiveness (CATIE) study; patients in that study were chronic and refractory to any intervention. In my practice, I have seen clear and compelling evidence supporting the superiority of atypical antipsychotics—as well as chronicity with multiple relapses and rehospitalizations.
More research into this matter is necessary. In the meantime, we need to be mindful of assertions that might be premature and damaging.
Robert Barris, MD
Nassau University Medical Center
East Meadow, New York
Dr. Nasrallah responds
I appreciate the comments of Drs. Garza-Trevino and Barris in response to my editorial. Here is my reply to the points they addressed:
The efficacy and neurotoxicity of haloperidol are independent mechanisms. Blocking dopamine receptors controls psychotic symptoms, but neurotoxicity involves triggering apoptosis, increasing free radicals, binding to sigma receptors, increasing intracellular calcium, decreasing neurotropic factors, increasing P53, T-box, Jun kinase, etc. Neurotoxicity is separate from extrapyramidal side effects. Similarly, the neuroprotective effects of atypical antipsychotics, such as enhancement, neuroplasticity, increasing neurogenesis, and growth factors, are separate from their antipsychotic efficacy.
Only some of the CATIE study patients who responded to clozapine in phase II after not responding to any of the antipsychotics in phase I were refractory.
The assertion about the neurotoxicity of haloperidol is based on 28 published studies in neuroscience journals (which are rarely accessed or read by clinicians). Thus, the terms “premature and damaging” do not apply. I served as a messenger summarizing all these destructive properties of haloperidol1 and I certainly was prepared to parry and deflect some arrows.
Meta-analysis of the efficacy of first- and second-generation antipsychotics
(SGAs) showed that most SGAs are similar to first-generation antipsychotics (FGAs).2 What the SGAs do that gives the appearance of additional efficacy is avoid
the secondary negative and cognitive deficits associated with extrapyramidal side effects, which are much lower with SGAs.
The treatment of primary negative symptoms and cognitive impairment of schizophrenia remains a huge, unmet need—but there is some emerging data on glutamate modulation as a path to improving negative symptoms.
Finally, just as the FGAs vary in their extrapyramidal side effect profile, so do SGAs in their metabolic adverse effects. There are several SGAs that are metabolically benign, and there are also some FGAs that can cause serious weight gain and hyperglycemia.
Henry A. Nasrallah, MD
Editor-In-Chief
References
1. Nasrallah HA, Rush S. First generation antipsychotics are neurotoxic and impair neuroplasticity via multiple mechanisms. Biol Psychiatry. 2013;73:61S.
2. Davis JM, Chen N, Glick ID. A meta-analysis of second-generation antipsychotics. Arch Gen Psychiatry. 2003;60:553-564.
Weakness and facial droop: Is it a stroke?
CASE Sudden weakness
Ms. G, age 59, presents to a local critical access (rural) hospital after an episode of sudden-onset left-sided weakness followed by unconsciousness. She regained consciousness quickly and is awake when she arrives at the hospital. This event was not witnessed, although family members were nearby to call emergency personnel.
a) CT scan
b) MRI
c) EEG
d) head and neck magnetic resonance angiogram (MRA)
EXAMINATION Unremarkable
In the emergency department, Ms. G demonstrates left facial droop, left-sided weakness of her arm and leg, and aphasia. She says she has a severe headache that began after she regained consciousness. She is unable to see out of her left eye.
Ms. G’s NIH Stroke Scale score is 13, indicating a moderate stroke; an emergent head CT does not demonstrate any acute hemorrhagic process. Tissue plasminogen activator (tPA) is administered for a suspected stroke approximately 2 hours after her symptoms began. She is transferred to a larger, tertiary care hospital for further workup and observation.
Upon admission to the ICU, Ms. G’s laboratory values are: sodium, 137 mEq/L; potassium, 5.1 mEq/L; creatinine, 1.26 mg/dL; lipase, 126 U/L; and lactic acid, 9 mg/dL. The glucose level is within normal limits and her urinalysis is unremarkable.
Vital signs are stable and Ms. G is not in acute distress. A physical exam demonstrates 4/5 strength in the left-upper and -lower extremities. Additionally, there are 2+ deep tendon reflexes bilaterally in the biceps, triceps, and brachioradialis. She has left-sided facial droop while in the ICU, and continues to demonstrate some aphasia—although she is alert and oriented to person, time, and place.
The medical history is significant for depression, restless leg syndrome, tonic-clonic seizures, and previous stroke-like events. Medications include amitriptyline, 25 mg/d; citalopram, 20 mg/d; valproate, 1,200 mg/d; and ropinirole, 0.5 mg/d. Her mother has a history of stroke-like events, but her family history and social history are otherwise unremarkable.
The authors' observations
Conversion disorder requires the exclusion of medical causes that could explain the patient’s neurologic symptoms. It is prudent to rule out the most serious of the potential contributors to Ms. G’s condition—namely, an acute cerebrovascular accident. A CT scan did not find any significant pathology, however. In the ICU, an MRI showed no evidence of acute infarction based on diffusion-weighted imaging. A head and neck MRA demonstrated no hemodynamically significant stenosis of the internal carotid arteries. An EEG revealed generalized, polymorphic slow activity without evidence of seizures or epilepsy. An electrocardiogram showed normal ventricular size with an appropriate ejection fraction.
The ICU staff consulted psychiatry to evaluate a psychiatric cause of Ms. G’s symptoms.
An exhaustive and comprehensive workup was performed; there were no significant findings. Although laboratory tests were performed, it was the physical exam that suggested the diagnosis of conversion disorder. In that sense, the diagnostic tests were more of a supportive adjunct to the findings of the physical examination, which consistently failed to indicate a neurologic insult.
Hoover’s sign is a well-established test of functional weakness, in which the patient extends his (her) hip when the contralateral hip is flexed. However, there are other tests of functional weakness that can be useful when considering a conversion disorder diagnosis, including co-contraction, the so-called arm-drop sign, and the sternocleidomastoid test. Diukova and colleagues reported that 80% of patients with functional weakness demonstrated ipsilateral sternocleidomastoid weakness, compared with 11% with vascular hemiparesis.1
a) stroke
b) transient ischemic attack
c) conversion disorder
d) seizure disorder
Ms. G appeared to have suffered an acute ischemic event that caused her neurologic symptoms; her rather extensive psychiatric history was overlooked before the psychiatric service was consulted. When Ms. G was admitted to the ICU, the working differential was postictal seizure state rather than cerebrovascular accident. Ms. G had a poorly defined seizure history, and her history of stroke-like events was murky, at best. She had not been treated previously with tPA, and in all past instances her symptoms resolved spontaneously.
Ms. G’s case illustrates why conversion disorder is difficult to diagnose and why, perhaps, it is even a dangerous diagnostic consideration. Booij and colleagues described two patients with neurologic sequelae thought to be the result of conversion disorder; subsequent imaging demonstrated a posterior stroke.2 Over a 6-year period in an emergency department, Glick and coworkers identified six patients with neurologic pathology who were misdiagnosed with conversion disorder.3 In a study of 4,220 patients presenting to a psychiatric emergency service, three patients complained of extremity paralysis or pain, which was attributed to conversion disorder but later attributed to an organic disease.4
These studies emphasize the precarious nature of diagnosing conversion disorder. For that reason, an extensive medical workup is necessary prior to considering a diagnosis of conversion disorder. In Ms. G’s case, a reasonably thorough workup failed to reveal any obvious pathology. Only then was conversion disorder included as a diagnostic possibility.
EVALUATION Childhood abuse
When performing a mental status exam, Ms. G has poor eye contact, but is cooperative with our interview. She is disheveled and overweight, and denies suicidal or homicidal ideation. She displays constricted affect.
During the interview, we note a left facial droop, although Ms. G is able to smile fully. As the interview progresses, her facial droop seems to become more apparent as we discuss her past, including a history of childhood physical and sexual abuse. She has a history of depression and has been seeing an outpatient psychiatrist for the past year. Ms. G describes being hospitalized in a psychiatric unit, but she is unable to provide any details about when and where this occurred.
Ms. G admits to occasional auditory and visual hallucinations, mostly relating to the abuse she experienced as a child by her parents. She exhibits no other signs or symptoms of psychosis; the hallucinations she describes are consistent with flashbacks and vivid memories relating to the abuse. Ms. G also recently lost her job and is experiencing numerous financial stressors.
The authors' observations
There are many examples in the literature of patients with conversion disorder (Table 1),4 ranging from pseudoseizures, which are relatively common, to intriguing cases, such as cochlear implant failure.5
Some studies estimate that the prevalence of conversion disorder symptoms ranges from 16.1% to 21.9% in the general population.6 Somatoform disorders, including conversion disorder, often are comorbid with anxiety and depression. In one study, 26% of somatoform disorder patients also had depression or anxiety, or both.7 Patients with conversion disorder often report a history of childhood physical or sexual abuse.6 In many patients with conversion disorder, there also appears to be a significant association between the disorder and a recent and distant history of psychosocial stressors.8
Ms. G had an extensive history of abuse by her parents. Conversion disorder presenting as a stroke with realistic and convincing physical manifestations is an unusual presentation. There are case reports that detail this presentation, particularly in the emergency department setting.6
Clinical considerations
The relative uncertainty that accompanies a diagnosis of conversion disorder can be discomforting for clinicians. As demonstrated by Ms. G, as well as other case reports of conversion disorder, it takes time for the patient to find a clinician who will consider a diagnosis of conversion disorder.9 Largely, this is because DSM-5 requires that other medical causes be ruled out (Table 2).10 This often proves to be problematic because feigning, or the lack thereof, is difficult to prove.9
Further complicating the diagnosis is the lack of a diagnostic test. Neurologists can use video EEG or physical exam maneuvers such as the Hoover’s sign to help make a diagnosis of conversion disorder.11 In this sense, the physical exam maneuvers form the basis of making a diagnosis, while imaging and lab work support the diagnosis. Hoover’s sign, for example, has not been well studied in a controlled manner, but is recognized as a test that may aid a conversion disorder diagnosis. Clinicians should not solely rely upon these physical exam maneuvers; interpreting them in the context of the patient’s overall presentation is critical. This demonstrates the importance of using the physical exam as a way to guide the diagnosis in association with other tests.12
Despite the lack of pathology, studies demonstrate that patients with conversion disorder may have abnormal brain activity that causes them to perceive motor symptoms as involuntary.11 Therefore, there is a clear need for an increased understanding of psychiatric and neurologic components of diagnosing conversion disorder.8
With Ms. G, it was prudent to make a conversion disorder diagnosis to prevent harm to the patient should future stroke-like events occur. Without considering a conversion disorder diagnosis, a patient may continue to receive unnecessary interventions. Basic physical exam maneuvers, such as Hoover’s sign, can be performed quickly in the ED setting before proceeding with other potentially harmful interventions, such as administering tPA.
Treatment. There are few therapies for conversion disorder. This is, in part, because of lack of understanding about the disorder’s neurologic and biologic etiologies. Although there are some studies that support the use of cognitive-behavioral therapy (CBT), there is little evidence advocating the use of a single mechanism to treat conversion disorder.13 There is evidence that CBT is an effective treatment for several somatoform disorders, including conversion disorder. Research suggests that patients with somatoform disorder have better outcomes when CBT is added to a traditional follow-up.14,15
In Ms. G’s case, we provided information about the diagnosis and scheduled visits to continue her outpatient therapy.
Bottom Line
Conversion disorder is difficult to diagnose, and can mimic potentially life- threatening medical conditions. Conduct a thorough medical workup of these patients, even when it is tempting to jump to a diagnosis of conversion disorder. The use of physical exam maneuvers such as Hoover’s sign may help guide the diagnosis when used in conjunction with other testing.
Related Resources
- Conversion disorder. www.nlm.nih.gov/medlineplus/ency/ article/000954.htm.
- Couprie W, Wijdicks EF, Rooijmans HG, et al. Outcome in conver- sion disorder: a follow up study. J Neurol Neurosurg Psychiatry. 1995;58(6):750-752.
Drug Brand Names
Amitriptyline • Elavil Citalopram • Celexa
Ropinirole • Requip Valproate • Depakote
Disclosure
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Diukova GM, Stolajrova AV, Vein AM. Sternocleidomastoid (SCM) muscle test in patients with hysterical and organic paresis. J Neurol Sci. 2001;187(suppl 1):S108.
2. Booij HA, Hamburger HL, Jöbsis GJ, et al. Stroke mimicking conversion disorder: two young women who put our feet back on the ground. Pract Neurol. 2012;12(3):179-181.
3. Glick TH, Workman TP, Gaufberg SV. Suspected conversion disorder: foreseeable risks and avoidable errors. Acad Emerg Med. 2000;7(11):1272-1277.
4. Fishbain DA, Goldberg M. The misdiagnosis of conversion disorder in a psychiatric emergency service. Gen Hosp Psychiatry. 1991;13(3):177-181.
5. Carlson ML, Archibald DJ, Gifford RH, et al. Conversion disorder: a missed diagnosis leading to cochlear reimplantation. Otol Neurotol. 2011;32(1):36-38.
6. Sar V, Akyüz G, Kundakçi T, et al. Childhood trauma, dissociation, and psychiatric comorbidity in patients with conversion disorder. Am J Psychiatry. 2004;161(12):2271-2276.
7. de Waal MW, Arnold IA, Eekhof JA, et al. Somatoform disorders in general practice: prevalence, functional impairment and comorbidity with anxiety and depressive disorders. Br J Psychiatry. 2004;184:470-476.
8. Nicholson TR, Stone J, Kanaan RA. Conversion disorder: a problematic diagnosis. J Neurol Neurosurg Psychiatry. 2011;82(11):1267-1273.
9. Stone J, LaFrance WC, Jr, Levenson JL, et al. Issues for
DSM-5: conversion disorder. Am J Psychiatry. 2010;167(6): 626-627.
10. Diagnostic and statistical manual of mental disorders, 5th ed. Washington, DC: American Psychiatric Association; 2013.
11. Voon V, Gallea C, Hattori N, et al. The involuntary nature of conversion disorder. Neurology. 2010;74(3):223-228.
12. Stone J, Zeman A, Sharpe M. Functional weakness and sensory disturbance. J Neurol Neurosurg Psychiatry. 2002; 73:241-245.
13. Aybek S, Kanaan RA, David AS. The neuropsychiatry of conversion disorder. Curr Opin Psychiatry. 2008;21(3):275-280.
14. Kroenke K. Efficacy of treatment for somatoform disorders: a review of randomized controlled trials. Psychosom Med. 2007;69(9):881-888.
15. Sharpe M, Walker J, Williams C, et al. Guided self-help for functional (psychogenic) symptoms: a randomized controlled efficacy trial. Neurology. 2011;77(6):564-572.
CASE Sudden weakness
Ms. G, age 59, presents to a local critical access (rural) hospital after an episode of sudden-onset left-sided weakness followed by unconsciousness. She regained consciousness quickly and is awake when she arrives at the hospital. This event was not witnessed, although family members were nearby to call emergency personnel.
a) CT scan
b) MRI
c) EEG
d) head and neck magnetic resonance angiogram (MRA)
EXAMINATION Unremarkable
In the emergency department, Ms. G demonstrates left facial droop, left-sided weakness of her arm and leg, and aphasia. She says she has a severe headache that began after she regained consciousness. She is unable to see out of her left eye.
Ms. G’s NIH Stroke Scale score is 13, indicating a moderate stroke; an emergent head CT does not demonstrate any acute hemorrhagic process. Tissue plasminogen activator (tPA) is administered for a suspected stroke approximately 2 hours after her symptoms began. She is transferred to a larger, tertiary care hospital for further workup and observation.
Upon admission to the ICU, Ms. G’s laboratory values are: sodium, 137 mEq/L; potassium, 5.1 mEq/L; creatinine, 1.26 mg/dL; lipase, 126 U/L; and lactic acid, 9 mg/dL. The glucose level is within normal limits and her urinalysis is unremarkable.
Vital signs are stable and Ms. G is not in acute distress. A physical exam demonstrates 4/5 strength in the left-upper and -lower extremities. Additionally, there are 2+ deep tendon reflexes bilaterally in the biceps, triceps, and brachioradialis. She has left-sided facial droop while in the ICU, and continues to demonstrate some aphasia—although she is alert and oriented to person, time, and place.
The medical history is significant for depression, restless leg syndrome, tonic-clonic seizures, and previous stroke-like events. Medications include amitriptyline, 25 mg/d; citalopram, 20 mg/d; valproate, 1,200 mg/d; and ropinirole, 0.5 mg/d. Her mother has a history of stroke-like events, but her family history and social history are otherwise unremarkable.
The authors' observations
Conversion disorder requires the exclusion of medical causes that could explain the patient’s neurologic symptoms. It is prudent to rule out the most serious of the potential contributors to Ms. G’s condition—namely, an acute cerebrovascular accident. A CT scan did not find any significant pathology, however. In the ICU, an MRI showed no evidence of acute infarction based on diffusion-weighted imaging. A head and neck MRA demonstrated no hemodynamically significant stenosis of the internal carotid arteries. An EEG revealed generalized, polymorphic slow activity without evidence of seizures or epilepsy. An electrocardiogram showed normal ventricular size with an appropriate ejection fraction.
The ICU staff consulted psychiatry to evaluate a psychiatric cause of Ms. G’s symptoms.
An exhaustive and comprehensive workup was performed; there were no significant findings. Although laboratory tests were performed, it was the physical exam that suggested the diagnosis of conversion disorder. In that sense, the diagnostic tests were more of a supportive adjunct to the findings of the physical examination, which consistently failed to indicate a neurologic insult.
Hoover’s sign is a well-established test of functional weakness, in which the patient extends his (her) hip when the contralateral hip is flexed. However, there are other tests of functional weakness that can be useful when considering a conversion disorder diagnosis, including co-contraction, the so-called arm-drop sign, and the sternocleidomastoid test. Diukova and colleagues reported that 80% of patients with functional weakness demonstrated ipsilateral sternocleidomastoid weakness, compared with 11% with vascular hemiparesis.1
a) stroke
b) transient ischemic attack
c) conversion disorder
d) seizure disorder
Ms. G appeared to have suffered an acute ischemic event that caused her neurologic symptoms; her rather extensive psychiatric history was overlooked before the psychiatric service was consulted. When Ms. G was admitted to the ICU, the working differential was postictal seizure state rather than cerebrovascular accident. Ms. G had a poorly defined seizure history, and her history of stroke-like events was murky, at best. She had not been treated previously with tPA, and in all past instances her symptoms resolved spontaneously.
Ms. G’s case illustrates why conversion disorder is difficult to diagnose and why, perhaps, it is even a dangerous diagnostic consideration. Booij and colleagues described two patients with neurologic sequelae thought to be the result of conversion disorder; subsequent imaging demonstrated a posterior stroke.2 Over a 6-year period in an emergency department, Glick and coworkers identified six patients with neurologic pathology who were misdiagnosed with conversion disorder.3 In a study of 4,220 patients presenting to a psychiatric emergency service, three patients complained of extremity paralysis or pain, which was attributed to conversion disorder but later attributed to an organic disease.4
These studies emphasize the precarious nature of diagnosing conversion disorder. For that reason, an extensive medical workup is necessary prior to considering a diagnosis of conversion disorder. In Ms. G’s case, a reasonably thorough workup failed to reveal any obvious pathology. Only then was conversion disorder included as a diagnostic possibility.
EVALUATION Childhood abuse
When performing a mental status exam, Ms. G has poor eye contact, but is cooperative with our interview. She is disheveled and overweight, and denies suicidal or homicidal ideation. She displays constricted affect.
During the interview, we note a left facial droop, although Ms. G is able to smile fully. As the interview progresses, her facial droop seems to become more apparent as we discuss her past, including a history of childhood physical and sexual abuse. She has a history of depression and has been seeing an outpatient psychiatrist for the past year. Ms. G describes being hospitalized in a psychiatric unit, but she is unable to provide any details about when and where this occurred.
Ms. G admits to occasional auditory and visual hallucinations, mostly relating to the abuse she experienced as a child by her parents. She exhibits no other signs or symptoms of psychosis; the hallucinations she describes are consistent with flashbacks and vivid memories relating to the abuse. Ms. G also recently lost her job and is experiencing numerous financial stressors.
The authors' observations
There are many examples in the literature of patients with conversion disorder (Table 1),4 ranging from pseudoseizures, which are relatively common, to intriguing cases, such as cochlear implant failure.5
Some studies estimate that the prevalence of conversion disorder symptoms ranges from 16.1% to 21.9% in the general population.6 Somatoform disorders, including conversion disorder, often are comorbid with anxiety and depression. In one study, 26% of somatoform disorder patients also had depression or anxiety, or both.7 Patients with conversion disorder often report a history of childhood physical or sexual abuse.6 In many patients with conversion disorder, there also appears to be a significant association between the disorder and a recent and distant history of psychosocial stressors.8
Ms. G had an extensive history of abuse by her parents. Conversion disorder presenting as a stroke with realistic and convincing physical manifestations is an unusual presentation. There are case reports that detail this presentation, particularly in the emergency department setting.6
Clinical considerations
The relative uncertainty that accompanies a diagnosis of conversion disorder can be discomforting for clinicians. As demonstrated by Ms. G, as well as other case reports of conversion disorder, it takes time for the patient to find a clinician who will consider a diagnosis of conversion disorder.9 Largely, this is because DSM-5 requires that other medical causes be ruled out (Table 2).10 This often proves to be problematic because feigning, or the lack thereof, is difficult to prove.9
Further complicating the diagnosis is the lack of a diagnostic test. Neurologists can use video EEG or physical exam maneuvers such as the Hoover’s sign to help make a diagnosis of conversion disorder.11 In this sense, the physical exam maneuvers form the basis of making a diagnosis, while imaging and lab work support the diagnosis. Hoover’s sign, for example, has not been well studied in a controlled manner, but is recognized as a test that may aid a conversion disorder diagnosis. Clinicians should not solely rely upon these physical exam maneuvers; interpreting them in the context of the patient’s overall presentation is critical. This demonstrates the importance of using the physical exam as a way to guide the diagnosis in association with other tests.12
Despite the lack of pathology, studies demonstrate that patients with conversion disorder may have abnormal brain activity that causes them to perceive motor symptoms as involuntary.11 Therefore, there is a clear need for an increased understanding of psychiatric and neurologic components of diagnosing conversion disorder.8
With Ms. G, it was prudent to make a conversion disorder diagnosis to prevent harm to the patient should future stroke-like events occur. Without considering a conversion disorder diagnosis, a patient may continue to receive unnecessary interventions. Basic physical exam maneuvers, such as Hoover’s sign, can be performed quickly in the ED setting before proceeding with other potentially harmful interventions, such as administering tPA.
Treatment. There are few therapies for conversion disorder. This is, in part, because of lack of understanding about the disorder’s neurologic and biologic etiologies. Although there are some studies that support the use of cognitive-behavioral therapy (CBT), there is little evidence advocating the use of a single mechanism to treat conversion disorder.13 There is evidence that CBT is an effective treatment for several somatoform disorders, including conversion disorder. Research suggests that patients with somatoform disorder have better outcomes when CBT is added to a traditional follow-up.14,15
In Ms. G’s case, we provided information about the diagnosis and scheduled visits to continue her outpatient therapy.
Bottom Line
Conversion disorder is difficult to diagnose, and can mimic potentially life- threatening medical conditions. Conduct a thorough medical workup of these patients, even when it is tempting to jump to a diagnosis of conversion disorder. The use of physical exam maneuvers such as Hoover’s sign may help guide the diagnosis when used in conjunction with other testing.
Related Resources
- Conversion disorder. www.nlm.nih.gov/medlineplus/ency/ article/000954.htm.
- Couprie W, Wijdicks EF, Rooijmans HG, et al. Outcome in conver- sion disorder: a follow up study. J Neurol Neurosurg Psychiatry. 1995;58(6):750-752.
Drug Brand Names
Amitriptyline • Elavil Citalopram • Celexa
Ropinirole • Requip Valproate • Depakote
Disclosure
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
CASE Sudden weakness
Ms. G, age 59, presents to a local critical access (rural) hospital after an episode of sudden-onset left-sided weakness followed by unconsciousness. She regained consciousness quickly and is awake when she arrives at the hospital. This event was not witnessed, although family members were nearby to call emergency personnel.
a) CT scan
b) MRI
c) EEG
d) head and neck magnetic resonance angiogram (MRA)
EXAMINATION Unremarkable
In the emergency department, Ms. G demonstrates left facial droop, left-sided weakness of her arm and leg, and aphasia. She says she has a severe headache that began after she regained consciousness. She is unable to see out of her left eye.
Ms. G’s NIH Stroke Scale score is 13, indicating a moderate stroke; an emergent head CT does not demonstrate any acute hemorrhagic process. Tissue plasminogen activator (tPA) is administered for a suspected stroke approximately 2 hours after her symptoms began. She is transferred to a larger, tertiary care hospital for further workup and observation.
Upon admission to the ICU, Ms. G’s laboratory values are: sodium, 137 mEq/L; potassium, 5.1 mEq/L; creatinine, 1.26 mg/dL; lipase, 126 U/L; and lactic acid, 9 mg/dL. The glucose level is within normal limits and her urinalysis is unremarkable.
Vital signs are stable and Ms. G is not in acute distress. A physical exam demonstrates 4/5 strength in the left-upper and -lower extremities. Additionally, there are 2+ deep tendon reflexes bilaterally in the biceps, triceps, and brachioradialis. She has left-sided facial droop while in the ICU, and continues to demonstrate some aphasia—although she is alert and oriented to person, time, and place.
The medical history is significant for depression, restless leg syndrome, tonic-clonic seizures, and previous stroke-like events. Medications include amitriptyline, 25 mg/d; citalopram, 20 mg/d; valproate, 1,200 mg/d; and ropinirole, 0.5 mg/d. Her mother has a history of stroke-like events, but her family history and social history are otherwise unremarkable.
The authors' observations
Conversion disorder requires the exclusion of medical causes that could explain the patient’s neurologic symptoms. It is prudent to rule out the most serious of the potential contributors to Ms. G’s condition—namely, an acute cerebrovascular accident. A CT scan did not find any significant pathology, however. In the ICU, an MRI showed no evidence of acute infarction based on diffusion-weighted imaging. A head and neck MRA demonstrated no hemodynamically significant stenosis of the internal carotid arteries. An EEG revealed generalized, polymorphic slow activity without evidence of seizures or epilepsy. An electrocardiogram showed normal ventricular size with an appropriate ejection fraction.
The ICU staff consulted psychiatry to evaluate a psychiatric cause of Ms. G’s symptoms.
An exhaustive and comprehensive workup was performed; there were no significant findings. Although laboratory tests were performed, it was the physical exam that suggested the diagnosis of conversion disorder. In that sense, the diagnostic tests were more of a supportive adjunct to the findings of the physical examination, which consistently failed to indicate a neurologic insult.
Hoover’s sign is a well-established test of functional weakness, in which the patient extends his (her) hip when the contralateral hip is flexed. However, there are other tests of functional weakness that can be useful when considering a conversion disorder diagnosis, including co-contraction, the so-called arm-drop sign, and the sternocleidomastoid test. Diukova and colleagues reported that 80% of patients with functional weakness demonstrated ipsilateral sternocleidomastoid weakness, compared with 11% with vascular hemiparesis.1
a) stroke
b) transient ischemic attack
c) conversion disorder
d) seizure disorder
Ms. G appeared to have suffered an acute ischemic event that caused her neurologic symptoms; her rather extensive psychiatric history was overlooked before the psychiatric service was consulted. When Ms. G was admitted to the ICU, the working differential was postictal seizure state rather than cerebrovascular accident. Ms. G had a poorly defined seizure history, and her history of stroke-like events was murky, at best. She had not been treated previously with tPA, and in all past instances her symptoms resolved spontaneously.
Ms. G’s case illustrates why conversion disorder is difficult to diagnose and why, perhaps, it is even a dangerous diagnostic consideration. Booij and colleagues described two patients with neurologic sequelae thought to be the result of conversion disorder; subsequent imaging demonstrated a posterior stroke.2 Over a 6-year period in an emergency department, Glick and coworkers identified six patients with neurologic pathology who were misdiagnosed with conversion disorder.3 In a study of 4,220 patients presenting to a psychiatric emergency service, three patients complained of extremity paralysis or pain, which was attributed to conversion disorder but later attributed to an organic disease.4
These studies emphasize the precarious nature of diagnosing conversion disorder. For that reason, an extensive medical workup is necessary prior to considering a diagnosis of conversion disorder. In Ms. G’s case, a reasonably thorough workup failed to reveal any obvious pathology. Only then was conversion disorder included as a diagnostic possibility.
EVALUATION Childhood abuse
When performing a mental status exam, Ms. G has poor eye contact, but is cooperative with our interview. She is disheveled and overweight, and denies suicidal or homicidal ideation. She displays constricted affect.
During the interview, we note a left facial droop, although Ms. G is able to smile fully. As the interview progresses, her facial droop seems to become more apparent as we discuss her past, including a history of childhood physical and sexual abuse. She has a history of depression and has been seeing an outpatient psychiatrist for the past year. Ms. G describes being hospitalized in a psychiatric unit, but she is unable to provide any details about when and where this occurred.
Ms. G admits to occasional auditory and visual hallucinations, mostly relating to the abuse she experienced as a child by her parents. She exhibits no other signs or symptoms of psychosis; the hallucinations she describes are consistent with flashbacks and vivid memories relating to the abuse. Ms. G also recently lost her job and is experiencing numerous financial stressors.
The authors' observations
There are many examples in the literature of patients with conversion disorder (Table 1),4 ranging from pseudoseizures, which are relatively common, to intriguing cases, such as cochlear implant failure.5
Some studies estimate that the prevalence of conversion disorder symptoms ranges from 16.1% to 21.9% in the general population.6 Somatoform disorders, including conversion disorder, often are comorbid with anxiety and depression. In one study, 26% of somatoform disorder patients also had depression or anxiety, or both.7 Patients with conversion disorder often report a history of childhood physical or sexual abuse.6 In many patients with conversion disorder, there also appears to be a significant association between the disorder and a recent and distant history of psychosocial stressors.8
Ms. G had an extensive history of abuse by her parents. Conversion disorder presenting as a stroke with realistic and convincing physical manifestations is an unusual presentation. There are case reports that detail this presentation, particularly in the emergency department setting.6
Clinical considerations
The relative uncertainty that accompanies a diagnosis of conversion disorder can be discomforting for clinicians. As demonstrated by Ms. G, as well as other case reports of conversion disorder, it takes time for the patient to find a clinician who will consider a diagnosis of conversion disorder.9 Largely, this is because DSM-5 requires that other medical causes be ruled out (Table 2).10 This often proves to be problematic because feigning, or the lack thereof, is difficult to prove.9
Further complicating the diagnosis is the lack of a diagnostic test. Neurologists can use video EEG or physical exam maneuvers such as the Hoover’s sign to help make a diagnosis of conversion disorder.11 In this sense, the physical exam maneuvers form the basis of making a diagnosis, while imaging and lab work support the diagnosis. Hoover’s sign, for example, has not been well studied in a controlled manner, but is recognized as a test that may aid a conversion disorder diagnosis. Clinicians should not solely rely upon these physical exam maneuvers; interpreting them in the context of the patient’s overall presentation is critical. This demonstrates the importance of using the physical exam as a way to guide the diagnosis in association with other tests.12
Despite the lack of pathology, studies demonstrate that patients with conversion disorder may have abnormal brain activity that causes them to perceive motor symptoms as involuntary.11 Therefore, there is a clear need for an increased understanding of psychiatric and neurologic components of diagnosing conversion disorder.8
With Ms. G, it was prudent to make a conversion disorder diagnosis to prevent harm to the patient should future stroke-like events occur. Without considering a conversion disorder diagnosis, a patient may continue to receive unnecessary interventions. Basic physical exam maneuvers, such as Hoover’s sign, can be performed quickly in the ED setting before proceeding with other potentially harmful interventions, such as administering tPA.
Treatment. There are few therapies for conversion disorder. This is, in part, because of lack of understanding about the disorder’s neurologic and biologic etiologies. Although there are some studies that support the use of cognitive-behavioral therapy (CBT), there is little evidence advocating the use of a single mechanism to treat conversion disorder.13 There is evidence that CBT is an effective treatment for several somatoform disorders, including conversion disorder. Research suggests that patients with somatoform disorder have better outcomes when CBT is added to a traditional follow-up.14,15
In Ms. G’s case, we provided information about the diagnosis and scheduled visits to continue her outpatient therapy.
Bottom Line
Conversion disorder is difficult to diagnose, and can mimic potentially life- threatening medical conditions. Conduct a thorough medical workup of these patients, even when it is tempting to jump to a diagnosis of conversion disorder. The use of physical exam maneuvers such as Hoover’s sign may help guide the diagnosis when used in conjunction with other testing.
Related Resources
- Conversion disorder. www.nlm.nih.gov/medlineplus/ency/ article/000954.htm.
- Couprie W, Wijdicks EF, Rooijmans HG, et al. Outcome in conver- sion disorder: a follow up study. J Neurol Neurosurg Psychiatry. 1995;58(6):750-752.
Drug Brand Names
Amitriptyline • Elavil Citalopram • Celexa
Ropinirole • Requip Valproate • Depakote
Disclosure
The authors report no financial relationship with any company whose products are mentioned in this article or with manufacturers of competing products.
1. Diukova GM, Stolajrova AV, Vein AM. Sternocleidomastoid (SCM) muscle test in patients with hysterical and organic paresis. J Neurol Sci. 2001;187(suppl 1):S108.
2. Booij HA, Hamburger HL, Jöbsis GJ, et al. Stroke mimicking conversion disorder: two young women who put our feet back on the ground. Pract Neurol. 2012;12(3):179-181.
3. Glick TH, Workman TP, Gaufberg SV. Suspected conversion disorder: foreseeable risks and avoidable errors. Acad Emerg Med. 2000;7(11):1272-1277.
4. Fishbain DA, Goldberg M. The misdiagnosis of conversion disorder in a psychiatric emergency service. Gen Hosp Psychiatry. 1991;13(3):177-181.
5. Carlson ML, Archibald DJ, Gifford RH, et al. Conversion disorder: a missed diagnosis leading to cochlear reimplantation. Otol Neurotol. 2011;32(1):36-38.
6. Sar V, Akyüz G, Kundakçi T, et al. Childhood trauma, dissociation, and psychiatric comorbidity in patients with conversion disorder. Am J Psychiatry. 2004;161(12):2271-2276.
7. de Waal MW, Arnold IA, Eekhof JA, et al. Somatoform disorders in general practice: prevalence, functional impairment and comorbidity with anxiety and depressive disorders. Br J Psychiatry. 2004;184:470-476.
8. Nicholson TR, Stone J, Kanaan RA. Conversion disorder: a problematic diagnosis. J Neurol Neurosurg Psychiatry. 2011;82(11):1267-1273.
9. Stone J, LaFrance WC, Jr, Levenson JL, et al. Issues for
DSM-5: conversion disorder. Am J Psychiatry. 2010;167(6): 626-627.
10. Diagnostic and statistical manual of mental disorders, 5th ed. Washington, DC: American Psychiatric Association; 2013.
11. Voon V, Gallea C, Hattori N, et al. The involuntary nature of conversion disorder. Neurology. 2010;74(3):223-228.
12. Stone J, Zeman A, Sharpe M. Functional weakness and sensory disturbance. J Neurol Neurosurg Psychiatry. 2002; 73:241-245.
13. Aybek S, Kanaan RA, David AS. The neuropsychiatry of conversion disorder. Curr Opin Psychiatry. 2008;21(3):275-280.
14. Kroenke K. Efficacy of treatment for somatoform disorders: a review of randomized controlled trials. Psychosom Med. 2007;69(9):881-888.
15. Sharpe M, Walker J, Williams C, et al. Guided self-help for functional (psychogenic) symptoms: a randomized controlled efficacy trial. Neurology. 2011;77(6):564-572.
1. Diukova GM, Stolajrova AV, Vein AM. Sternocleidomastoid (SCM) muscle test in patients with hysterical and organic paresis. J Neurol Sci. 2001;187(suppl 1):S108.
2. Booij HA, Hamburger HL, Jöbsis GJ, et al. Stroke mimicking conversion disorder: two young women who put our feet back on the ground. Pract Neurol. 2012;12(3):179-181.
3. Glick TH, Workman TP, Gaufberg SV. Suspected conversion disorder: foreseeable risks and avoidable errors. Acad Emerg Med. 2000;7(11):1272-1277.
4. Fishbain DA, Goldberg M. The misdiagnosis of conversion disorder in a psychiatric emergency service. Gen Hosp Psychiatry. 1991;13(3):177-181.
5. Carlson ML, Archibald DJ, Gifford RH, et al. Conversion disorder: a missed diagnosis leading to cochlear reimplantation. Otol Neurotol. 2011;32(1):36-38.
6. Sar V, Akyüz G, Kundakçi T, et al. Childhood trauma, dissociation, and psychiatric comorbidity in patients with conversion disorder. Am J Psychiatry. 2004;161(12):2271-2276.
7. de Waal MW, Arnold IA, Eekhof JA, et al. Somatoform disorders in general practice: prevalence, functional impairment and comorbidity with anxiety and depressive disorders. Br J Psychiatry. 2004;184:470-476.
8. Nicholson TR, Stone J, Kanaan RA. Conversion disorder: a problematic diagnosis. J Neurol Neurosurg Psychiatry. 2011;82(11):1267-1273.
9. Stone J, LaFrance WC, Jr, Levenson JL, et al. Issues for
DSM-5: conversion disorder. Am J Psychiatry. 2010;167(6): 626-627.
10. Diagnostic and statistical manual of mental disorders, 5th ed. Washington, DC: American Psychiatric Association; 2013.
11. Voon V, Gallea C, Hattori N, et al. The involuntary nature of conversion disorder. Neurology. 2010;74(3):223-228.
12. Stone J, Zeman A, Sharpe M. Functional weakness and sensory disturbance. J Neurol Neurosurg Psychiatry. 2002; 73:241-245.
13. Aybek S, Kanaan RA, David AS. The neuropsychiatry of conversion disorder. Curr Opin Psychiatry. 2008;21(3):275-280.
14. Kroenke K. Efficacy of treatment for somatoform disorders: a review of randomized controlled trials. Psychosom Med. 2007;69(9):881-888.
15. Sharpe M, Walker J, Williams C, et al. Guided self-help for functional (psychogenic) symptoms: a randomized controlled efficacy trial. Neurology. 2011;77(6):564-572.
Misdiagnosing bipolar depression as major depressive disorder
The therapeutic consequences can be depressing!
A study published recently found a difference in brain blood flow between unipolar depression, also known as major depressive disorder (MDD), and the depressive phase of bipolar I (BD I) and bipolar II (BD II) disorders, known as bipolar depression.1 Researchers performed arterial spin labeling and submitted the resulting data to pattern recognition analysis to correctly classify 81% of subjects. This type of investigation augurs that objective biomarkers might halt the unrelenting misdiagnosis of bipolar depression as MDD and end the iatrogenic suffering of millions of bipolar disorder patients who became victims of a “therapeutic misadventure.”
It is perplexing that this problem has festered so long, simply because the two types of depression look deceptively alike.
This takes me back to my days in residency
Although I trained in one of the top psychiatry programs at the time, I was never taught that I must first classify my depressed patient as unipolar or bipolar before embarking on a treatment plan. Back then, “depression was depression” and treatment was the same for all depressed patients: Start with a tricyclic antidepressant (TCA). If there is no response within a few weeks, consider a different TCA or move to a monoamine oxidase inhibitor. If that does not work, perform electroconvulsive therapy (ECT).
Quite a few depressed patients actually worsened on antidepressant drugs, becoming agitated, irritable, and angry—yet clinicians did not recognize that change as a switch to irritable mania or hypomania, or a mixed depressed state. In fact, in those days, patients suffering mania or hypomania were expected to be euphoric and expansive, and the fact that almost one-half of bipolar mania presents with irritable, rather than euphoric, mood was not widely recognized, either.
I recall psychodynamic discussions as a resident about the anger and hostility that some patients with depression manifest. It was not widely recognized that treating bipolar depression with an antidepressant might lead to any of four undesirable switches: mania, hypomania, mixed state, or rapid cycling. We saw patients with all of these complications and simply labeled their condition “treatment-resistant depression,” especially if the patient switched to rapid cycling with recurrent depressions (which often happens with BD II patients who receive antidepressant monotherapy).
Frankly, BD II was not on our radar screen, and practically all such patients were given a misdiagnosis of MDD. No wonder we all marveled at how ECT finally helped out the so-called treatment-resistant patients!
Sadly, the state of the art treatment of bipolar depression back then was actually a state of incomplete knowledge. Okay—call it a state of ignorance wrapped in good intentions.
The dots did not get connected…
There were phenomenologic clues that, had we noticed them, could have corrected our clinical blind spot about the ways bipolar depression is different from unipolar depression. Yet we did not connect the dots about how bipolar depression is different from MDD (Table).
Treatment clues also should have opened our eyes to the different types of depression:
Clue #1: Patients with treatment-resistant depression often responded when lithium was added to an antidepressant. This led to the belief that lithium has antidepressant properties, instead of clueing us that treatment-resistant depression is actually a bipolar type of depression.
Clue #2: Likewise, patients with treatment-resistant depression improved when an antipsychotic agent, which is also anti-manic, was added to an antidepressant (seasoned clinicians might remember the amitriptyline-perphenazine combination pill, sold as Triavil, that was a precursor of the olanzapine-fluoxetine combination developed a few years ago to treat bipolar depression).
Clue #3: ECT exerted efficacy in patients who failed an antidepressant or who got worse taking one (ie, switched to a mixed state).
A new age of therapeutics
In the past few years, we’ve witnessed the development of several pharmacotherapeutic agents for bipolar depression. First, the olanzapine-fluoxetine combination was approved for this indication in 2003. That was followed by quetiapine monotherapy in 2005 and, most recently, in 2013, lurasidone (both as monotherapy and as an adjunct to a mood stabilizer).
With those three FDA-approved options for bipolar depression, clinicians can now treat this type of depression without putting the patient at risk of complications that ensue when antidepressants approved only for MDD are used erroneously as monotherapy for bipolar depression.
These days, psychiatry residents are rigorously trained to differentiate unipolar and bipolar depression and to select the most appropriate, evidence-based treatment for bipolar depression. The state of ignorance surrounding this psychiatric condition is lifting, although there are pockets of persisting nonrecognition in some settings. Gaps in knowledge underpin and perpetuate hoary practices, but innovative research—such as the study cited here on brain blood-flow biomarkers—is the ultimate antidote to ignorance.
Reference
1. Almeida JR, Mourao-Miranda J, Aizenstein HJ, et al. Pattern recognition analysis of anterior cingulated cortex blood flow to classify depression polarity [published online August 22, 2013]. Br J Psychiatry. doi: bjp.bp.112.122838.
The therapeutic consequences can be depressing!
A study published recently found a difference in brain blood flow between unipolar depression, also known as major depressive disorder (MDD), and the depressive phase of bipolar I (BD I) and bipolar II (BD II) disorders, known as bipolar depression.1 Researchers performed arterial spin labeling and submitted the resulting data to pattern recognition analysis to correctly classify 81% of subjects. This type of investigation augurs that objective biomarkers might halt the unrelenting misdiagnosis of bipolar depression as MDD and end the iatrogenic suffering of millions of bipolar disorder patients who became victims of a “therapeutic misadventure.”
It is perplexing that this problem has festered so long, simply because the two types of depression look deceptively alike.
This takes me back to my days in residency
Although I trained in one of the top psychiatry programs at the time, I was never taught that I must first classify my depressed patient as unipolar or bipolar before embarking on a treatment plan. Back then, “depression was depression” and treatment was the same for all depressed patients: Start with a tricyclic antidepressant (TCA). If there is no response within a few weeks, consider a different TCA or move to a monoamine oxidase inhibitor. If that does not work, perform electroconvulsive therapy (ECT).
Quite a few depressed patients actually worsened on antidepressant drugs, becoming agitated, irritable, and angry—yet clinicians did not recognize that change as a switch to irritable mania or hypomania, or a mixed depressed state. In fact, in those days, patients suffering mania or hypomania were expected to be euphoric and expansive, and the fact that almost one-half of bipolar mania presents with irritable, rather than euphoric, mood was not widely recognized, either.
I recall psychodynamic discussions as a resident about the anger and hostility that some patients with depression manifest. It was not widely recognized that treating bipolar depression with an antidepressant might lead to any of four undesirable switches: mania, hypomania, mixed state, or rapid cycling. We saw patients with all of these complications and simply labeled their condition “treatment-resistant depression,” especially if the patient switched to rapid cycling with recurrent depressions (which often happens with BD II patients who receive antidepressant monotherapy).
Frankly, BD II was not on our radar screen, and practically all such patients were given a misdiagnosis of MDD. No wonder we all marveled at how ECT finally helped out the so-called treatment-resistant patients!
Sadly, the state of the art treatment of bipolar depression back then was actually a state of incomplete knowledge. Okay—call it a state of ignorance wrapped in good intentions.
The dots did not get connected…
There were phenomenologic clues that, had we noticed them, could have corrected our clinical blind spot about the ways bipolar depression is different from unipolar depression. Yet we did not connect the dots about how bipolar depression is different from MDD (Table).
Treatment clues also should have opened our eyes to the different types of depression:
Clue #1: Patients with treatment-resistant depression often responded when lithium was added to an antidepressant. This led to the belief that lithium has antidepressant properties, instead of clueing us that treatment-resistant depression is actually a bipolar type of depression.
Clue #2: Likewise, patients with treatment-resistant depression improved when an antipsychotic agent, which is also anti-manic, was added to an antidepressant (seasoned clinicians might remember the amitriptyline-perphenazine combination pill, sold as Triavil, that was a precursor of the olanzapine-fluoxetine combination developed a few years ago to treat bipolar depression).
Clue #3: ECT exerted efficacy in patients who failed an antidepressant or who got worse taking one (ie, switched to a mixed state).
A new age of therapeutics
In the past few years, we’ve witnessed the development of several pharmacotherapeutic agents for bipolar depression. First, the olanzapine-fluoxetine combination was approved for this indication in 2003. That was followed by quetiapine monotherapy in 2005 and, most recently, in 2013, lurasidone (both as monotherapy and as an adjunct to a mood stabilizer).
With those three FDA-approved options for bipolar depression, clinicians can now treat this type of depression without putting the patient at risk of complications that ensue when antidepressants approved only for MDD are used erroneously as monotherapy for bipolar depression.
These days, psychiatry residents are rigorously trained to differentiate unipolar and bipolar depression and to select the most appropriate, evidence-based treatment for bipolar depression. The state of ignorance surrounding this psychiatric condition is lifting, although there are pockets of persisting nonrecognition in some settings. Gaps in knowledge underpin and perpetuate hoary practices, but innovative research—such as the study cited here on brain blood-flow biomarkers—is the ultimate antidote to ignorance.
The therapeutic consequences can be depressing!
A study published recently found a difference in brain blood flow between unipolar depression, also known as major depressive disorder (MDD), and the depressive phase of bipolar I (BD I) and bipolar II (BD II) disorders, known as bipolar depression.1 Researchers performed arterial spin labeling and submitted the resulting data to pattern recognition analysis to correctly classify 81% of subjects. This type of investigation augurs that objective biomarkers might halt the unrelenting misdiagnosis of bipolar depression as MDD and end the iatrogenic suffering of millions of bipolar disorder patients who became victims of a “therapeutic misadventure.”
It is perplexing that this problem has festered so long, simply because the two types of depression look deceptively alike.
This takes me back to my days in residency
Although I trained in one of the top psychiatry programs at the time, I was never taught that I must first classify my depressed patient as unipolar or bipolar before embarking on a treatment plan. Back then, “depression was depression” and treatment was the same for all depressed patients: Start with a tricyclic antidepressant (TCA). If there is no response within a few weeks, consider a different TCA or move to a monoamine oxidase inhibitor. If that does not work, perform electroconvulsive therapy (ECT).
Quite a few depressed patients actually worsened on antidepressant drugs, becoming agitated, irritable, and angry—yet clinicians did not recognize that change as a switch to irritable mania or hypomania, or a mixed depressed state. In fact, in those days, patients suffering mania or hypomania were expected to be euphoric and expansive, and the fact that almost one-half of bipolar mania presents with irritable, rather than euphoric, mood was not widely recognized, either.
I recall psychodynamic discussions as a resident about the anger and hostility that some patients with depression manifest. It was not widely recognized that treating bipolar depression with an antidepressant might lead to any of four undesirable switches: mania, hypomania, mixed state, or rapid cycling. We saw patients with all of these complications and simply labeled their condition “treatment-resistant depression,” especially if the patient switched to rapid cycling with recurrent depressions (which often happens with BD II patients who receive antidepressant monotherapy).
Frankly, BD II was not on our radar screen, and practically all such patients were given a misdiagnosis of MDD. No wonder we all marveled at how ECT finally helped out the so-called treatment-resistant patients!
Sadly, the state of the art treatment of bipolar depression back then was actually a state of incomplete knowledge. Okay—call it a state of ignorance wrapped in good intentions.
The dots did not get connected…
There were phenomenologic clues that, had we noticed them, could have corrected our clinical blind spot about the ways bipolar depression is different from unipolar depression. Yet we did not connect the dots about how bipolar depression is different from MDD (Table).
Treatment clues also should have opened our eyes to the different types of depression:
Clue #1: Patients with treatment-resistant depression often responded when lithium was added to an antidepressant. This led to the belief that lithium has antidepressant properties, instead of clueing us that treatment-resistant depression is actually a bipolar type of depression.
Clue #2: Likewise, patients with treatment-resistant depression improved when an antipsychotic agent, which is also anti-manic, was added to an antidepressant (seasoned clinicians might remember the amitriptyline-perphenazine combination pill, sold as Triavil, that was a precursor of the olanzapine-fluoxetine combination developed a few years ago to treat bipolar depression).
Clue #3: ECT exerted efficacy in patients who failed an antidepressant or who got worse taking one (ie, switched to a mixed state).
A new age of therapeutics
In the past few years, we’ve witnessed the development of several pharmacotherapeutic agents for bipolar depression. First, the olanzapine-fluoxetine combination was approved for this indication in 2003. That was followed by quetiapine monotherapy in 2005 and, most recently, in 2013, lurasidone (both as monotherapy and as an adjunct to a mood stabilizer).
With those three FDA-approved options for bipolar depression, clinicians can now treat this type of depression without putting the patient at risk of complications that ensue when antidepressants approved only for MDD are used erroneously as monotherapy for bipolar depression.
These days, psychiatry residents are rigorously trained to differentiate unipolar and bipolar depression and to select the most appropriate, evidence-based treatment for bipolar depression. The state of ignorance surrounding this psychiatric condition is lifting, although there are pockets of persisting nonrecognition in some settings. Gaps in knowledge underpin and perpetuate hoary practices, but innovative research—such as the study cited here on brain blood-flow biomarkers—is the ultimate antidote to ignorance.
Reference
1. Almeida JR, Mourao-Miranda J, Aizenstein HJ, et al. Pattern recognition analysis of anterior cingulated cortex blood flow to classify depression polarity [published online August 22, 2013]. Br J Psychiatry. doi: bjp.bp.112.122838.
Reference
1. Almeida JR, Mourao-Miranda J, Aizenstein HJ, et al. Pattern recognition analysis of anterior cingulated cortex blood flow to classify depression polarity [published online August 22, 2013]. Br J Psychiatry. doi: bjp.bp.112.122838.
Let’s eliminate these imprecisions in chart notes of psychiatric evaluations
In private practice, government, and (especially) academically affiliated settings, chart notations that are neither erroneous nor accurate but just imprecise are seen regularly. Academic supervisors may overlook these ambiguous notations by medical students and residents because of their regularity; others may be actively taught by supervisors who use ambiguous notations themselves.
In my experience, the most frequently seen imprecisions are in diagnoses of personality disorders: for example, the terms “clusters” and “deferred,” and the symptomatic overlap between antisocial personality disorder (APD) and substance abuse. Least helpful are qualifying phrases added to substance abuse diagnoses, along with an abundance of abbreviations. The latter occurs despite efforts by the U.S. Department of Veteran Affairs and other agencies to standardize acceptable lists of abbreviations. Many imprecisions could qualify for highlighting; here are 5 of the most unhelpful:
Clusters. Personality disorders are grouped into 3 “clusters,” according to similar characteristics (eg, Cluster A includes paranoid, schizoid, and schizotypal personality disorders and focuses on patients’ oddities and eccentricities). The need for identifying “clusters” could be debated, but a “cluster” is not a diagnosis. A psychiatric evaluation that notes “Cluster B traits” in lieu of a specific personality disorder is not informative, especially to a nonpsychiatric clinician. Which Cluster B traits apply? Is the patient unstable? Self-absorbed? Needy? Dramatic? Criminal? Assaultive?
In complicated or ambiguous cases, the diagnosis of a personality disorder not otherwise specified is appropriate, indicating that traits need to be clarified.
Deferred. This notation frequently is seen under axis II, and often is carried through the medical record for months or years. Psychiatrists are reluctant to diagnose a personality disorder because of the pejorative nature a diagnosis conveys. Nevertheless, by the second or third visit—after 2 or 3 hours of interview contact—it should be evident whether a personality disorder exists. If none does, “no diagnosis” should be documented. This notation can be adjusted if such evidence comes to light.
APD (or APD traits). This diagnosis often is made mistakenly when the root problem is in fact a substance abuse disorder. A multi-decade study of alcoholism and antisocial personality attributes in university students illustrated this phenomenon.1
To be a successful substance abuser—that is, to satisfy the overwhelming urge to drink or use drugs—it’s essential to lie, cheat, and steal. Substance abusers might become belligerent when intoxicated. They might be arrested in bar fights, drive while intoxicated, and buy illegal substances. The result is incarceration, a common consequence of substance abuse and of APD. The latter diagnosis should be made only if the patient has exhibited a pattern of criminal behavior—often starting in adolescence—irrespective of substance abuse, such as breaking and entering, robbery, or assault with a deadly weapon.
Substance abusers often feel guilt and self-loathing for their “weakness,” and cannot gain control over their addiction; the APD patient, on the other hand, feels entitled to plunder and often justifies his (her) actions by attributing fault to the victim.
Keep in mind that many APD patients also are substance abusers; both diagnoses should be listed in the chart when that is the determination. Recognize that substance abuse and APD are distinct entities that should not be confused by the common denominator of having spent time in jail.
Early, late, full remission. These qualifiers often are appended to substance abuse disorders, but they do not convey useful information. How early is “early”? How late is “late”? Perhaps the most misleading term is “full” or “partial” remission,
because there is no clear definition of either.
If one is referring to length of time sober or a reduction in volume consumed, noting the date of the last use is more helpful—eg, “alcohol abuse in remission since summer of 2012.” If “partial” remission means the patient has reduced his intake, then that is not remission. The reduction can be specified—eg, “alcohol abuse, reduced to 1 or 2 beers per weekend.”
Abbreviations. Psychiatric evaluations should contain only standard, well-known medical shorthand (such as MSE for mental status exam). The military may be the biggest offender, devising acronyms and abbreviations for everything.
Two examples of abbreviations that I see in military psychiatric progress notes are AEB (“as evidenced by”) and LLGD (“linear, logical, and goal-directed”). Psychiatrists have a leg up on deciphering abbreviations in psychiatric notes; other providers might be compelled to resort to consultation. That wastes more time than typing out the words and results in frustration and lost productivity.
Reference
1. Vaillant GE. The natural history of alcoholism. Cambridge, MA: Harvard University Press; 1983.
In private practice, government, and (especially) academically affiliated settings, chart notations that are neither erroneous nor accurate but just imprecise are seen regularly. Academic supervisors may overlook these ambiguous notations by medical students and residents because of their regularity; others may be actively taught by supervisors who use ambiguous notations themselves.
In my experience, the most frequently seen imprecisions are in diagnoses of personality disorders: for example, the terms “clusters” and “deferred,” and the symptomatic overlap between antisocial personality disorder (APD) and substance abuse. Least helpful are qualifying phrases added to substance abuse diagnoses, along with an abundance of abbreviations. The latter occurs despite efforts by the U.S. Department of Veteran Affairs and other agencies to standardize acceptable lists of abbreviations. Many imprecisions could qualify for highlighting; here are 5 of the most unhelpful:
Clusters. Personality disorders are grouped into 3 “clusters,” according to similar characteristics (eg, Cluster A includes paranoid, schizoid, and schizotypal personality disorders and focuses on patients’ oddities and eccentricities). The need for identifying “clusters” could be debated, but a “cluster” is not a diagnosis. A psychiatric evaluation that notes “Cluster B traits” in lieu of a specific personality disorder is not informative, especially to a nonpsychiatric clinician. Which Cluster B traits apply? Is the patient unstable? Self-absorbed? Needy? Dramatic? Criminal? Assaultive?
In complicated or ambiguous cases, the diagnosis of a personality disorder not otherwise specified is appropriate, indicating that traits need to be clarified.
Deferred. This notation frequently is seen under axis II, and often is carried through the medical record for months or years. Psychiatrists are reluctant to diagnose a personality disorder because of the pejorative nature a diagnosis conveys. Nevertheless, by the second or third visit—after 2 or 3 hours of interview contact—it should be evident whether a personality disorder exists. If none does, “no diagnosis” should be documented. This notation can be adjusted if such evidence comes to light.
APD (or APD traits). This diagnosis often is made mistakenly when the root problem is in fact a substance abuse disorder. A multi-decade study of alcoholism and antisocial personality attributes in university students illustrated this phenomenon.1
To be a successful substance abuser—that is, to satisfy the overwhelming urge to drink or use drugs—it’s essential to lie, cheat, and steal. Substance abusers might become belligerent when intoxicated. They might be arrested in bar fights, drive while intoxicated, and buy illegal substances. The result is incarceration, a common consequence of substance abuse and of APD. The latter diagnosis should be made only if the patient has exhibited a pattern of criminal behavior—often starting in adolescence—irrespective of substance abuse, such as breaking and entering, robbery, or assault with a deadly weapon.
Substance abusers often feel guilt and self-loathing for their “weakness,” and cannot gain control over their addiction; the APD patient, on the other hand, feels entitled to plunder and often justifies his (her) actions by attributing fault to the victim.
Keep in mind that many APD patients also are substance abusers; both diagnoses should be listed in the chart when that is the determination. Recognize that substance abuse and APD are distinct entities that should not be confused by the common denominator of having spent time in jail.
Early, late, full remission. These qualifiers often are appended to substance abuse disorders, but they do not convey useful information. How early is “early”? How late is “late”? Perhaps the most misleading term is “full” or “partial” remission,
because there is no clear definition of either.
If one is referring to length of time sober or a reduction in volume consumed, noting the date of the last use is more helpful—eg, “alcohol abuse in remission since summer of 2012.” If “partial” remission means the patient has reduced his intake, then that is not remission. The reduction can be specified—eg, “alcohol abuse, reduced to 1 or 2 beers per weekend.”
Abbreviations. Psychiatric evaluations should contain only standard, well-known medical shorthand (such as MSE for mental status exam). The military may be the biggest offender, devising acronyms and abbreviations for everything.
Two examples of abbreviations that I see in military psychiatric progress notes are AEB (“as evidenced by”) and LLGD (“linear, logical, and goal-directed”). Psychiatrists have a leg up on deciphering abbreviations in psychiatric notes; other providers might be compelled to resort to consultation. That wastes more time than typing out the words and results in frustration and lost productivity.
In private practice, government, and (especially) academically affiliated settings, chart notations that are neither erroneous nor accurate but just imprecise are seen regularly. Academic supervisors may overlook these ambiguous notations by medical students and residents because of their regularity; others may be actively taught by supervisors who use ambiguous notations themselves.
In my experience, the most frequently seen imprecisions are in diagnoses of personality disorders: for example, the terms “clusters” and “deferred,” and the symptomatic overlap between antisocial personality disorder (APD) and substance abuse. Least helpful are qualifying phrases added to substance abuse diagnoses, along with an abundance of abbreviations. The latter occurs despite efforts by the U.S. Department of Veteran Affairs and other agencies to standardize acceptable lists of abbreviations. Many imprecisions could qualify for highlighting; here are 5 of the most unhelpful:
Clusters. Personality disorders are grouped into 3 “clusters,” according to similar characteristics (eg, Cluster A includes paranoid, schizoid, and schizotypal personality disorders and focuses on patients’ oddities and eccentricities). The need for identifying “clusters” could be debated, but a “cluster” is not a diagnosis. A psychiatric evaluation that notes “Cluster B traits” in lieu of a specific personality disorder is not informative, especially to a nonpsychiatric clinician. Which Cluster B traits apply? Is the patient unstable? Self-absorbed? Needy? Dramatic? Criminal? Assaultive?
In complicated or ambiguous cases, the diagnosis of a personality disorder not otherwise specified is appropriate, indicating that traits need to be clarified.
Deferred. This notation frequently is seen under axis II, and often is carried through the medical record for months or years. Psychiatrists are reluctant to diagnose a personality disorder because of the pejorative nature a diagnosis conveys. Nevertheless, by the second or third visit—after 2 or 3 hours of interview contact—it should be evident whether a personality disorder exists. If none does, “no diagnosis” should be documented. This notation can be adjusted if such evidence comes to light.
APD (or APD traits). This diagnosis often is made mistakenly when the root problem is in fact a substance abuse disorder. A multi-decade study of alcoholism and antisocial personality attributes in university students illustrated this phenomenon.1
To be a successful substance abuser—that is, to satisfy the overwhelming urge to drink or use drugs—it’s essential to lie, cheat, and steal. Substance abusers might become belligerent when intoxicated. They might be arrested in bar fights, drive while intoxicated, and buy illegal substances. The result is incarceration, a common consequence of substance abuse and of APD. The latter diagnosis should be made only if the patient has exhibited a pattern of criminal behavior—often starting in adolescence—irrespective of substance abuse, such as breaking and entering, robbery, or assault with a deadly weapon.
Substance abusers often feel guilt and self-loathing for their “weakness,” and cannot gain control over their addiction; the APD patient, on the other hand, feels entitled to plunder and often justifies his (her) actions by attributing fault to the victim.
Keep in mind that many APD patients also are substance abusers; both diagnoses should be listed in the chart when that is the determination. Recognize that substance abuse and APD are distinct entities that should not be confused by the common denominator of having spent time in jail.
Early, late, full remission. These qualifiers often are appended to substance abuse disorders, but they do not convey useful information. How early is “early”? How late is “late”? Perhaps the most misleading term is “full” or “partial” remission,
because there is no clear definition of either.
If one is referring to length of time sober or a reduction in volume consumed, noting the date of the last use is more helpful—eg, “alcohol abuse in remission since summer of 2012.” If “partial” remission means the patient has reduced his intake, then that is not remission. The reduction can be specified—eg, “alcohol abuse, reduced to 1 or 2 beers per weekend.”
Abbreviations. Psychiatric evaluations should contain only standard, well-known medical shorthand (such as MSE for mental status exam). The military may be the biggest offender, devising acronyms and abbreviations for everything.
Two examples of abbreviations that I see in military psychiatric progress notes are AEB (“as evidenced by”) and LLGD (“linear, logical, and goal-directed”). Psychiatrists have a leg up on deciphering abbreviations in psychiatric notes; other providers might be compelled to resort to consultation. That wastes more time than typing out the words and results in frustration and lost productivity.
Reference
1. Vaillant GE. The natural history of alcoholism. Cambridge, MA: Harvard University Press; 1983.
Reference
1. Vaillant GE. The natural history of alcoholism. Cambridge, MA: Harvard University Press; 1983.