Findings raise questions about migraine and sleep

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CHARLOTTE, N.C. – What may be the largest case-based study of patients with migraine and sleep-disordered breathing to date has found that, counter to prevailing thought, they may not be at higher risk of having obstructive sleep apnea (OSA) than nonmigraine patients, although further prospective studies are needed to validate that finding.

“This in no way for me changes the fact that, for patients that complain of headaches, sleep apnea remains to be something that should be considered as possible cause of their headaches,” neurologist and Cleveland Clinic postdoctoral fellow Eric Gruenthal, MD, said in an interview after he presented his results at the annual meeting of the Associated Professional Sleep Societies.

Dr. Eric Gruenthal

The study suggested that patients with migraine may have an OSA risk that “may be a little lower” than their nonmigraine counterparts, Dr. Gruenthal said. “But we have really yet to determine whether that’s true or not.”
 

Large case-based study

The retrospective case study included 4,783 migraine cases from the Cleveland Clinic electronic health record database who were case matched on a 1:3 basis with 14,287 controls. Patients with migraine had an average age of 47.5 years (±13.3) and body mass index of 33.7 kg/m2 (±8.6), and 76.4% were White. All patients had polysomnography (PSG) at a Cleveland Clinic facility from 1998 to 2021.

The analysis evaluated the collected data in two domains: sleep architecture, consisting of arousal index (AI), total sleep time (TST) and percentage of sleep stage time; and sleep-disordered breathing, including apnea hypopnea index (AHI) and mean oxygen saturation. The key findings of the migraine patients versus controls include:

  • Lower AI, 19.6 (95% confidence interval, 12.8-30.9) versus 22.6 (95% CI, 14.7-34.9; P < .001).
  • Shorter TST, 359 (95% CI, 307-421) versus 363 (95% CI, 306-432.5) minutes (P = .01).
  • With regard to sleep stage, the percentage of N2 sleep was higher, 67.8% (95% CI, 59.6%-75.6%) versus 67% (95% CI, 58.4%-74.8%; P < .001); but the percentage of REM was lower at 16.7% (95% CI, 10%-22%) versus 17% (95% CI, 11.1%-22.2%; P = .012).
  • Lower AHI, 7.4 (95% CI, 2.6-17) versus 9.5 (95% CI, 3.7-22.1, P < .001).
  • Higher mean oxygen saturation, 93.7 (±2.4) versus 93.3% (±2.6; P < .001).

“Also,” Dr. Gruenthal added, “we found that the percentage of sleep time with oxygen saturation below 90% was lower among patients with migraine, at 1.3% versus 2.4%” (P < .001).
 

A unique profile?

The goal of the study was to determine whether migraine patients would have a unique PSG profile, Dr. Gruenthal said. “We were trying to overcome some of the limitations of previous studies, most notably those that use small sample sizes, and in some cases a lack of controls.”

The findings that migraine patients would have higher AI and elevated AHI ran counter to the study’s hypotheses, but fell in line with the expectation that they would have reduced TST, Dr. Gruenthal said.

Patients with migraine “may, in fact, exhibit a lower burden of sleep-disordered breathing, and that’s based on our findings such as the lower AHI and decreased burden of hypoxemia,” he said. “We theorized that this may be related to patients with migraine having a unique CGRP [calcitonin gene-related peptide] and serotonin physiology.” He noted that previously published research has shown that sleep CGRP and serotonin have a central role in causing arousal in response to rising CO2 levels during sleep, which can occur during apneas and hypopneas.

Dr. Gruenthal noted that the researchers are still analyzing the findings. “We theorized that possible indication bias may be present in our study,” he said. “It may be the case that patients with migraine are more likely to get their PSG done because of their headache and not for things like snoring and witnessed apneas, which may be more predictive of significant sleep apnea.” They’re also evaluating the “question of medicine confounding.”

Dr. Gruenthal added that “the big unanswered question out there is, if you have a patient with migraine who also has sleep apnea, by treating the sleep apnea will that improve their migraine?”
 

 

 

More questions than answers

Commenting on the study, Donald Bliwise, PhD, professor of neurology at Emory Sleep Center, Atlanta, said the study findings shouldn’t change how clinicians approach migraine in relation to sleep.

Dr. Donald Bliwise

“It’s a case series, it’s retrospective,” said Dr. Bliwise, who was not involved in the study. “It’s the largest study that I know of that has ever looked at the diagnosis of migraine in relation to polysomnographic measures of sleep, but it’s imprecise to the extent that migraine is a clinical diagnosis, so not everyone that carries the diagnosis of migraine has the diagnosis made by a neurologist.”

The study raises more questions than it answers, he said, “but that’s not necessarily a bad thing. I think we need more prospective studies.” Those studies should be more granular in how they analyze sleep in migraine patients “Since migraine is an intermittent event, and sleep quality and length, and percentage of REM sleep and even sleep apnea can vary from night to night, it would be fascinating to look at headaches over a month in relation to sleep over a month.”

Dr. Gruenthal and Dr. Bliwise have no disclosures. The Association of Migraine Disorders provided funding for the study.

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CHARLOTTE, N.C. – What may be the largest case-based study of patients with migraine and sleep-disordered breathing to date has found that, counter to prevailing thought, they may not be at higher risk of having obstructive sleep apnea (OSA) than nonmigraine patients, although further prospective studies are needed to validate that finding.

“This in no way for me changes the fact that, for patients that complain of headaches, sleep apnea remains to be something that should be considered as possible cause of their headaches,” neurologist and Cleveland Clinic postdoctoral fellow Eric Gruenthal, MD, said in an interview after he presented his results at the annual meeting of the Associated Professional Sleep Societies.

Dr. Eric Gruenthal

The study suggested that patients with migraine may have an OSA risk that “may be a little lower” than their nonmigraine counterparts, Dr. Gruenthal said. “But we have really yet to determine whether that’s true or not.”
 

Large case-based study

The retrospective case study included 4,783 migraine cases from the Cleveland Clinic electronic health record database who were case matched on a 1:3 basis with 14,287 controls. Patients with migraine had an average age of 47.5 years (±13.3) and body mass index of 33.7 kg/m2 (±8.6), and 76.4% were White. All patients had polysomnography (PSG) at a Cleveland Clinic facility from 1998 to 2021.

The analysis evaluated the collected data in two domains: sleep architecture, consisting of arousal index (AI), total sleep time (TST) and percentage of sleep stage time; and sleep-disordered breathing, including apnea hypopnea index (AHI) and mean oxygen saturation. The key findings of the migraine patients versus controls include:

  • Lower AI, 19.6 (95% confidence interval, 12.8-30.9) versus 22.6 (95% CI, 14.7-34.9; P < .001).
  • Shorter TST, 359 (95% CI, 307-421) versus 363 (95% CI, 306-432.5) minutes (P = .01).
  • With regard to sleep stage, the percentage of N2 sleep was higher, 67.8% (95% CI, 59.6%-75.6%) versus 67% (95% CI, 58.4%-74.8%; P < .001); but the percentage of REM was lower at 16.7% (95% CI, 10%-22%) versus 17% (95% CI, 11.1%-22.2%; P = .012).
  • Lower AHI, 7.4 (95% CI, 2.6-17) versus 9.5 (95% CI, 3.7-22.1, P < .001).
  • Higher mean oxygen saturation, 93.7 (±2.4) versus 93.3% (±2.6; P < .001).

“Also,” Dr. Gruenthal added, “we found that the percentage of sleep time with oxygen saturation below 90% was lower among patients with migraine, at 1.3% versus 2.4%” (P < .001).
 

A unique profile?

The goal of the study was to determine whether migraine patients would have a unique PSG profile, Dr. Gruenthal said. “We were trying to overcome some of the limitations of previous studies, most notably those that use small sample sizes, and in some cases a lack of controls.”

The findings that migraine patients would have higher AI and elevated AHI ran counter to the study’s hypotheses, but fell in line with the expectation that they would have reduced TST, Dr. Gruenthal said.

Patients with migraine “may, in fact, exhibit a lower burden of sleep-disordered breathing, and that’s based on our findings such as the lower AHI and decreased burden of hypoxemia,” he said. “We theorized that this may be related to patients with migraine having a unique CGRP [calcitonin gene-related peptide] and serotonin physiology.” He noted that previously published research has shown that sleep CGRP and serotonin have a central role in causing arousal in response to rising CO2 levels during sleep, which can occur during apneas and hypopneas.

Dr. Gruenthal noted that the researchers are still analyzing the findings. “We theorized that possible indication bias may be present in our study,” he said. “It may be the case that patients with migraine are more likely to get their PSG done because of their headache and not for things like snoring and witnessed apneas, which may be more predictive of significant sleep apnea.” They’re also evaluating the “question of medicine confounding.”

Dr. Gruenthal added that “the big unanswered question out there is, if you have a patient with migraine who also has sleep apnea, by treating the sleep apnea will that improve their migraine?”
 

 

 

More questions than answers

Commenting on the study, Donald Bliwise, PhD, professor of neurology at Emory Sleep Center, Atlanta, said the study findings shouldn’t change how clinicians approach migraine in relation to sleep.

Dr. Donald Bliwise

“It’s a case series, it’s retrospective,” said Dr. Bliwise, who was not involved in the study. “It’s the largest study that I know of that has ever looked at the diagnosis of migraine in relation to polysomnographic measures of sleep, but it’s imprecise to the extent that migraine is a clinical diagnosis, so not everyone that carries the diagnosis of migraine has the diagnosis made by a neurologist.”

The study raises more questions than it answers, he said, “but that’s not necessarily a bad thing. I think we need more prospective studies.” Those studies should be more granular in how they analyze sleep in migraine patients “Since migraine is an intermittent event, and sleep quality and length, and percentage of REM sleep and even sleep apnea can vary from night to night, it would be fascinating to look at headaches over a month in relation to sleep over a month.”

Dr. Gruenthal and Dr. Bliwise have no disclosures. The Association of Migraine Disorders provided funding for the study.

CHARLOTTE, N.C. – What may be the largest case-based study of patients with migraine and sleep-disordered breathing to date has found that, counter to prevailing thought, they may not be at higher risk of having obstructive sleep apnea (OSA) than nonmigraine patients, although further prospective studies are needed to validate that finding.

“This in no way for me changes the fact that, for patients that complain of headaches, sleep apnea remains to be something that should be considered as possible cause of their headaches,” neurologist and Cleveland Clinic postdoctoral fellow Eric Gruenthal, MD, said in an interview after he presented his results at the annual meeting of the Associated Professional Sleep Societies.

Dr. Eric Gruenthal

The study suggested that patients with migraine may have an OSA risk that “may be a little lower” than their nonmigraine counterparts, Dr. Gruenthal said. “But we have really yet to determine whether that’s true or not.”
 

Large case-based study

The retrospective case study included 4,783 migraine cases from the Cleveland Clinic electronic health record database who were case matched on a 1:3 basis with 14,287 controls. Patients with migraine had an average age of 47.5 years (±13.3) and body mass index of 33.7 kg/m2 (±8.6), and 76.4% were White. All patients had polysomnography (PSG) at a Cleveland Clinic facility from 1998 to 2021.

The analysis evaluated the collected data in two domains: sleep architecture, consisting of arousal index (AI), total sleep time (TST) and percentage of sleep stage time; and sleep-disordered breathing, including apnea hypopnea index (AHI) and mean oxygen saturation. The key findings of the migraine patients versus controls include:

  • Lower AI, 19.6 (95% confidence interval, 12.8-30.9) versus 22.6 (95% CI, 14.7-34.9; P < .001).
  • Shorter TST, 359 (95% CI, 307-421) versus 363 (95% CI, 306-432.5) minutes (P = .01).
  • With regard to sleep stage, the percentage of N2 sleep was higher, 67.8% (95% CI, 59.6%-75.6%) versus 67% (95% CI, 58.4%-74.8%; P < .001); but the percentage of REM was lower at 16.7% (95% CI, 10%-22%) versus 17% (95% CI, 11.1%-22.2%; P = .012).
  • Lower AHI, 7.4 (95% CI, 2.6-17) versus 9.5 (95% CI, 3.7-22.1, P < .001).
  • Higher mean oxygen saturation, 93.7 (±2.4) versus 93.3% (±2.6; P < .001).

“Also,” Dr. Gruenthal added, “we found that the percentage of sleep time with oxygen saturation below 90% was lower among patients with migraine, at 1.3% versus 2.4%” (P < .001).
 

A unique profile?

The goal of the study was to determine whether migraine patients would have a unique PSG profile, Dr. Gruenthal said. “We were trying to overcome some of the limitations of previous studies, most notably those that use small sample sizes, and in some cases a lack of controls.”

The findings that migraine patients would have higher AI and elevated AHI ran counter to the study’s hypotheses, but fell in line with the expectation that they would have reduced TST, Dr. Gruenthal said.

Patients with migraine “may, in fact, exhibit a lower burden of sleep-disordered breathing, and that’s based on our findings such as the lower AHI and decreased burden of hypoxemia,” he said. “We theorized that this may be related to patients with migraine having a unique CGRP [calcitonin gene-related peptide] and serotonin physiology.” He noted that previously published research has shown that sleep CGRP and serotonin have a central role in causing arousal in response to rising CO2 levels during sleep, which can occur during apneas and hypopneas.

Dr. Gruenthal noted that the researchers are still analyzing the findings. “We theorized that possible indication bias may be present in our study,” he said. “It may be the case that patients with migraine are more likely to get their PSG done because of their headache and not for things like snoring and witnessed apneas, which may be more predictive of significant sleep apnea.” They’re also evaluating the “question of medicine confounding.”

Dr. Gruenthal added that “the big unanswered question out there is, if you have a patient with migraine who also has sleep apnea, by treating the sleep apnea will that improve their migraine?”
 

 

 

More questions than answers

Commenting on the study, Donald Bliwise, PhD, professor of neurology at Emory Sleep Center, Atlanta, said the study findings shouldn’t change how clinicians approach migraine in relation to sleep.

Dr. Donald Bliwise

“It’s a case series, it’s retrospective,” said Dr. Bliwise, who was not involved in the study. “It’s the largest study that I know of that has ever looked at the diagnosis of migraine in relation to polysomnographic measures of sleep, but it’s imprecise to the extent that migraine is a clinical diagnosis, so not everyone that carries the diagnosis of migraine has the diagnosis made by a neurologist.”

The study raises more questions than it answers, he said, “but that’s not necessarily a bad thing. I think we need more prospective studies.” Those studies should be more granular in how they analyze sleep in migraine patients “Since migraine is an intermittent event, and sleep quality and length, and percentage of REM sleep and even sleep apnea can vary from night to night, it would be fascinating to look at headaches over a month in relation to sleep over a month.”

Dr. Gruenthal and Dr. Bliwise have no disclosures. The Association of Migraine Disorders provided funding for the study.

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AT SLEEP 2022

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Taking the time to get it right

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I cannot agree more with Dr. Hickner’s editorial, “The power of the pause to prevent diagnostic error” (J Fam Pract. 2022;71:102). In 1974, when I started at the Medical College of Virginia, I thought I was going to be a medical researcher. By mid-1978, I had completely changed my focus to family medicine. Fortunately, my drive for detail and accuracy remained, albeit at odds with a whirlwind residency and solo practice. I drove my staff (and wife) crazy because I frequently spent more than the “allotted” time with a patient. The time was not wasted; it was most important for me to gain the trust of the patient and then to get it right—or find a path to the answer.

Jeff Ginther, MD
Bristol, VA

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I cannot agree more with Dr. Hickner’s editorial, “The power of the pause to prevent diagnostic error” (J Fam Pract. 2022;71:102). In 1974, when I started at the Medical College of Virginia, I thought I was going to be a medical researcher. By mid-1978, I had completely changed my focus to family medicine. Fortunately, my drive for detail and accuracy remained, albeit at odds with a whirlwind residency and solo practice. I drove my staff (and wife) crazy because I frequently spent more than the “allotted” time with a patient. The time was not wasted; it was most important for me to gain the trust of the patient and then to get it right—or find a path to the answer.

Jeff Ginther, MD
Bristol, VA

I cannot agree more with Dr. Hickner’s editorial, “The power of the pause to prevent diagnostic error” (J Fam Pract. 2022;71:102). In 1974, when I started at the Medical College of Virginia, I thought I was going to be a medical researcher. By mid-1978, I had completely changed my focus to family medicine. Fortunately, my drive for detail and accuracy remained, albeit at odds with a whirlwind residency and solo practice. I drove my staff (and wife) crazy because I frequently spent more than the “allotted” time with a patient. The time was not wasted; it was most important for me to gain the trust of the patient and then to get it right—or find a path to the answer.

Jeff Ginther, MD
Bristol, VA

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Center-based childcare associated with healthier body weight

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Children who attend center-based childcare are more likely to maintain a healthier body weight than children who receive nonparental, non–center-based care – especially if they come from lower-income families – a new study finds.

The findings of the prospective Canadian study suggest that professional childcare centers that engage in standard practices are having a positive and lasting impact on children’s health, reported lead author Michaela Kucab, RD, MHSc, of the University of Toronto and colleagues.

“Attending center-based childcare in early childhood may influence important health behaviors including nutrition, physical activity, and routines related to child growth and weight status,” the investigators wrote in their abstract, which Ms. Kucab presented at the virtual conference sponsored by the American Society for Nutrition.

Their study involved 3,503 children who attended childcare in Canada during early childhood (mean age at baseline was 2.7 years) with follow-up from ages 4-10.
 

Overweight/obesity risk reduced

Children who received full-time, center-based care had a 22% lower risk of overweight/obesity and a mean body mass index z score (zBMI) that was 0.11 points lower at age 4 and 7 years than those who received non–center-based care. The benefits of center-based care were even more pronounced among children from lower-income families, who, at age 10, had a 48% lower risk of overweight/obesity and a mean zBMI that was 0.32 points lower with center-based versus non–center-based care.

In a written comment, Ms. Kucab and principal author Jonathon Maguire, MD, MSc, of the University of Toronto, explained that the former difference in zBMI translates to approximately half a pound of bodyweight in an average child, whereas the larger difference in zBMI among children from lower-income families would amount to approximately three pounds. They emphasized that these are rough estimations.

Ms. Kucab and Dr. Maguire noted that body weight differences correlated with the amount of time spent in center-based care.

“There was an observed trend, whereby the estimated mean difference [in zBMI] became slightly larger (or stronger) with a higher intensity of center-based childcare compared to non–center-based childcare,” they said.

To learn more about the earliest impacts of center-based care, the investigators are conducting a clinical trial, The Nutrition Recommendation Intervention Trials in Children’s Health Care (NuRISH), which will involve 600 children aged younger than 2 years.
 

Center-based childcare may reduce disadvantages of low-income children

“Although more research is needed, our findings suggest that center-based childcare may help” reduce disadvantages children from low-income families experience related to their heath,” Ms. Kucab said in a press release.

Laurent Legault, MD, an associate professor specializing in endocrinology in the department of pediatrics at McGill University, Montreal, highlighted the “quite significant” sample size of more than 3,000 participants, noting that “it’s quite tough to have numerous children” involved in a study, especially with several years of follow-up.

Dr. Legault also praised the investigators for considering socioeconomic status, “which is absolutely paramount, because, unfortunately, it’s not necessarily an even playing field for these families.”

He said the findings deserve to be promoted, as they highlight the benefits of center-based care, including ones with room for physical activity, opportunities for social interaction with other children, and a structured routine.

Still, Dr. Legault said it’s “very difficult to pinpoint specifically” what led to healthier body weights. “The problem, of course, is that obesity is very multifactorial in nature,” although “early intervention is more likely to be efficient.”

Center-based care appears to be one such intervention, he said, which should “push people to make centered care more affordable and easy to access for everyone.”The investigators and Dr. Legault reported no conflicts of interest.

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Children who attend center-based childcare are more likely to maintain a healthier body weight than children who receive nonparental, non–center-based care – especially if they come from lower-income families – a new study finds.

The findings of the prospective Canadian study suggest that professional childcare centers that engage in standard practices are having a positive and lasting impact on children’s health, reported lead author Michaela Kucab, RD, MHSc, of the University of Toronto and colleagues.

“Attending center-based childcare in early childhood may influence important health behaviors including nutrition, physical activity, and routines related to child growth and weight status,” the investigators wrote in their abstract, which Ms. Kucab presented at the virtual conference sponsored by the American Society for Nutrition.

Their study involved 3,503 children who attended childcare in Canada during early childhood (mean age at baseline was 2.7 years) with follow-up from ages 4-10.
 

Overweight/obesity risk reduced

Children who received full-time, center-based care had a 22% lower risk of overweight/obesity and a mean body mass index z score (zBMI) that was 0.11 points lower at age 4 and 7 years than those who received non–center-based care. The benefits of center-based care were even more pronounced among children from lower-income families, who, at age 10, had a 48% lower risk of overweight/obesity and a mean zBMI that was 0.32 points lower with center-based versus non–center-based care.

In a written comment, Ms. Kucab and principal author Jonathon Maguire, MD, MSc, of the University of Toronto, explained that the former difference in zBMI translates to approximately half a pound of bodyweight in an average child, whereas the larger difference in zBMI among children from lower-income families would amount to approximately three pounds. They emphasized that these are rough estimations.

Ms. Kucab and Dr. Maguire noted that body weight differences correlated with the amount of time spent in center-based care.

“There was an observed trend, whereby the estimated mean difference [in zBMI] became slightly larger (or stronger) with a higher intensity of center-based childcare compared to non–center-based childcare,” they said.

To learn more about the earliest impacts of center-based care, the investigators are conducting a clinical trial, The Nutrition Recommendation Intervention Trials in Children’s Health Care (NuRISH), which will involve 600 children aged younger than 2 years.
 

Center-based childcare may reduce disadvantages of low-income children

“Although more research is needed, our findings suggest that center-based childcare may help” reduce disadvantages children from low-income families experience related to their heath,” Ms. Kucab said in a press release.

Laurent Legault, MD, an associate professor specializing in endocrinology in the department of pediatrics at McGill University, Montreal, highlighted the “quite significant” sample size of more than 3,000 participants, noting that “it’s quite tough to have numerous children” involved in a study, especially with several years of follow-up.

Dr. Legault also praised the investigators for considering socioeconomic status, “which is absolutely paramount, because, unfortunately, it’s not necessarily an even playing field for these families.”

He said the findings deserve to be promoted, as they highlight the benefits of center-based care, including ones with room for physical activity, opportunities for social interaction with other children, and a structured routine.

Still, Dr. Legault said it’s “very difficult to pinpoint specifically” what led to healthier body weights. “The problem, of course, is that obesity is very multifactorial in nature,” although “early intervention is more likely to be efficient.”

Center-based care appears to be one such intervention, he said, which should “push people to make centered care more affordable and easy to access for everyone.”The investigators and Dr. Legault reported no conflicts of interest.

Children who attend center-based childcare are more likely to maintain a healthier body weight than children who receive nonparental, non–center-based care – especially if they come from lower-income families – a new study finds.

The findings of the prospective Canadian study suggest that professional childcare centers that engage in standard practices are having a positive and lasting impact on children’s health, reported lead author Michaela Kucab, RD, MHSc, of the University of Toronto and colleagues.

“Attending center-based childcare in early childhood may influence important health behaviors including nutrition, physical activity, and routines related to child growth and weight status,” the investigators wrote in their abstract, which Ms. Kucab presented at the virtual conference sponsored by the American Society for Nutrition.

Their study involved 3,503 children who attended childcare in Canada during early childhood (mean age at baseline was 2.7 years) with follow-up from ages 4-10.
 

Overweight/obesity risk reduced

Children who received full-time, center-based care had a 22% lower risk of overweight/obesity and a mean body mass index z score (zBMI) that was 0.11 points lower at age 4 and 7 years than those who received non–center-based care. The benefits of center-based care were even more pronounced among children from lower-income families, who, at age 10, had a 48% lower risk of overweight/obesity and a mean zBMI that was 0.32 points lower with center-based versus non–center-based care.

In a written comment, Ms. Kucab and principal author Jonathon Maguire, MD, MSc, of the University of Toronto, explained that the former difference in zBMI translates to approximately half a pound of bodyweight in an average child, whereas the larger difference in zBMI among children from lower-income families would amount to approximately three pounds. They emphasized that these are rough estimations.

Ms. Kucab and Dr. Maguire noted that body weight differences correlated with the amount of time spent in center-based care.

“There was an observed trend, whereby the estimated mean difference [in zBMI] became slightly larger (or stronger) with a higher intensity of center-based childcare compared to non–center-based childcare,” they said.

To learn more about the earliest impacts of center-based care, the investigators are conducting a clinical trial, The Nutrition Recommendation Intervention Trials in Children’s Health Care (NuRISH), which will involve 600 children aged younger than 2 years.
 

Center-based childcare may reduce disadvantages of low-income children

“Although more research is needed, our findings suggest that center-based childcare may help” reduce disadvantages children from low-income families experience related to their heath,” Ms. Kucab said in a press release.

Laurent Legault, MD, an associate professor specializing in endocrinology in the department of pediatrics at McGill University, Montreal, highlighted the “quite significant” sample size of more than 3,000 participants, noting that “it’s quite tough to have numerous children” involved in a study, especially with several years of follow-up.

Dr. Legault also praised the investigators for considering socioeconomic status, “which is absolutely paramount, because, unfortunately, it’s not necessarily an even playing field for these families.”

He said the findings deserve to be promoted, as they highlight the benefits of center-based care, including ones with room for physical activity, opportunities for social interaction with other children, and a structured routine.

Still, Dr. Legault said it’s “very difficult to pinpoint specifically” what led to healthier body weights. “The problem, of course, is that obesity is very multifactorial in nature,” although “early intervention is more likely to be efficient.”

Center-based care appears to be one such intervention, he said, which should “push people to make centered care more affordable and easy to access for everyone.”The investigators and Dr. Legault reported no conflicts of interest.

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FTC decision to investigate pharmacy benefit managers applauded by rheumatologists

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The Federal Trade Commission’s announcement June 7 of a plan to investigate the business practices of pharmacy benefit managers (PBMs) was welcome news to rheumatologists. Widespread concern about the cost of prescription drugs and an additional 24,000 comments from the public prompted the agency’s decision to examine PBMs, which act as intermediaries between insurers, manufacturers, and pharmacies.

PBMs negotiate drug prices and rebates with manufacturers, reimburse pharmacies for drug costs, and create insurers’ drug formularies. But it’s widely held that instead of managing and leveling costs, PBMs have ratcheted up prices at multiple junctures to gain more profit.

The FTC’s investigation will focus on the six largest PBMs: CVS Caremark, Express Scripts, OptumRx, Humana, Prime Therapeutics, and MedImpact Healthcare Systems. CVS Caremark is owned by CVS, Express Scripts is owned by Cigna, and OptumRx is owned by UnitedHealth. The companies will have 90 days to respond to the commission’s official request for information.



Some of the information the FTC plans to ask about includes how the companies may be pushing patients toward using PBM-owned pharmacies and how rebates affect insurers’ formularies and the cost of drugs for patients.

The purchase or establishment of PBMs by the largest insurance companies – known as vertical integration – makes it nearly impossible for outsiders to determine what’s really causing price increases for prescription drugs. “The black box of secretive contracts and monies changing hands between manufacturers and PBMs has grown quite large since the Department of Justice and the FTC allowed the big three PBMs to be part of the three largest health insurance companies,” Madelaine A. Feldman, MD, a rheumatologist at the Rheumatology Group, New Orleans, and president of the Coalition of State Rheumatology Organizations, told this news organization.

Dr. Madelaine Feldman


Dr. Feldman and fellow rheumatologists at the American College of Rheumatology are happy that the FTC has decided to pursue this investigation. They note that rheumatologists have been calling for action for years and are eager to see change.

This probe aims to determine not only how the PBM industry affects pharmacists but also how their practices create ripple effects across the prescription drug industry, said Dr. Feldman. “I was very happy to see that they will be investigating how rebates and other manufacturer price concessions affect formulary construction and utilization management tools, ultimately increasing drug prices and patient cost share.”

A version of this article first appeared on Medscape.com.

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The Federal Trade Commission’s announcement June 7 of a plan to investigate the business practices of pharmacy benefit managers (PBMs) was welcome news to rheumatologists. Widespread concern about the cost of prescription drugs and an additional 24,000 comments from the public prompted the agency’s decision to examine PBMs, which act as intermediaries between insurers, manufacturers, and pharmacies.

PBMs negotiate drug prices and rebates with manufacturers, reimburse pharmacies for drug costs, and create insurers’ drug formularies. But it’s widely held that instead of managing and leveling costs, PBMs have ratcheted up prices at multiple junctures to gain more profit.

The FTC’s investigation will focus on the six largest PBMs: CVS Caremark, Express Scripts, OptumRx, Humana, Prime Therapeutics, and MedImpact Healthcare Systems. CVS Caremark is owned by CVS, Express Scripts is owned by Cigna, and OptumRx is owned by UnitedHealth. The companies will have 90 days to respond to the commission’s official request for information.



Some of the information the FTC plans to ask about includes how the companies may be pushing patients toward using PBM-owned pharmacies and how rebates affect insurers’ formularies and the cost of drugs for patients.

The purchase or establishment of PBMs by the largest insurance companies – known as vertical integration – makes it nearly impossible for outsiders to determine what’s really causing price increases for prescription drugs. “The black box of secretive contracts and monies changing hands between manufacturers and PBMs has grown quite large since the Department of Justice and the FTC allowed the big three PBMs to be part of the three largest health insurance companies,” Madelaine A. Feldman, MD, a rheumatologist at the Rheumatology Group, New Orleans, and president of the Coalition of State Rheumatology Organizations, told this news organization.

Dr. Madelaine Feldman


Dr. Feldman and fellow rheumatologists at the American College of Rheumatology are happy that the FTC has decided to pursue this investigation. They note that rheumatologists have been calling for action for years and are eager to see change.

This probe aims to determine not only how the PBM industry affects pharmacists but also how their practices create ripple effects across the prescription drug industry, said Dr. Feldman. “I was very happy to see that they will be investigating how rebates and other manufacturer price concessions affect formulary construction and utilization management tools, ultimately increasing drug prices and patient cost share.”

A version of this article first appeared on Medscape.com.

The Federal Trade Commission’s announcement June 7 of a plan to investigate the business practices of pharmacy benefit managers (PBMs) was welcome news to rheumatologists. Widespread concern about the cost of prescription drugs and an additional 24,000 comments from the public prompted the agency’s decision to examine PBMs, which act as intermediaries between insurers, manufacturers, and pharmacies.

PBMs negotiate drug prices and rebates with manufacturers, reimburse pharmacies for drug costs, and create insurers’ drug formularies. But it’s widely held that instead of managing and leveling costs, PBMs have ratcheted up prices at multiple junctures to gain more profit.

The FTC’s investigation will focus on the six largest PBMs: CVS Caremark, Express Scripts, OptumRx, Humana, Prime Therapeutics, and MedImpact Healthcare Systems. CVS Caremark is owned by CVS, Express Scripts is owned by Cigna, and OptumRx is owned by UnitedHealth. The companies will have 90 days to respond to the commission’s official request for information.



Some of the information the FTC plans to ask about includes how the companies may be pushing patients toward using PBM-owned pharmacies and how rebates affect insurers’ formularies and the cost of drugs for patients.

The purchase or establishment of PBMs by the largest insurance companies – known as vertical integration – makes it nearly impossible for outsiders to determine what’s really causing price increases for prescription drugs. “The black box of secretive contracts and monies changing hands between manufacturers and PBMs has grown quite large since the Department of Justice and the FTC allowed the big three PBMs to be part of the three largest health insurance companies,” Madelaine A. Feldman, MD, a rheumatologist at the Rheumatology Group, New Orleans, and president of the Coalition of State Rheumatology Organizations, told this news organization.

Dr. Madelaine Feldman


Dr. Feldman and fellow rheumatologists at the American College of Rheumatology are happy that the FTC has decided to pursue this investigation. They note that rheumatologists have been calling for action for years and are eager to see change.

This probe aims to determine not only how the PBM industry affects pharmacists but also how their practices create ripple effects across the prescription drug industry, said Dr. Feldman. “I was very happy to see that they will be investigating how rebates and other manufacturer price concessions affect formulary construction and utilization management tools, ultimately increasing drug prices and patient cost share.”

A version of this article first appeared on Medscape.com.

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Is nonoperative treatment effective for acute Achilles tendon rupture?

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Is nonoperative treatment effective for acute Achilles tendon rupture?

Evidence summary

Surgical repair: Re-injury risk goes down, complications risk goes up

A 2021 network meta-analysis including 38 RCTs (N = 2480) reported outcomes in patients ages 18 and older with acute Achilles tendon rupture (AATR) and 3 or more months of follow-up.1 A significant increase in re-rupture rate was shown in patients who underwent nonoperative vs open repair (risk ratio [RR] = 2.41; 95% CI, 1.12-5.18). There was a significant decrease in wound-related complications in nonoperative vs open-repair patients (RR = 0.23; 95% CI, 0.06-0.88). There was also a significant difference in incidence of sural nerve injury in nonoperative vs open repair (RR = 0.27; 95% CI, 0.08-0.94). There were no significant differences in return to sport between open repair and nonoperative repair (RR = 0.62; 95% CI, 0.22-1.77). Insufficient data were reported to calculate the number needed to treat (NNT) and number needed to harm (NNH) for these outcomes.

Additionally, the authors looked at traditional standard rehabilitation and accelerated functional rehabilitation in both the operative and the nonoperative setting. The type of rehabilitation program did not have a significant impact on complications of re-rupture, wound, or sural nerve injury.

The included studies had an overall low risk of publication bias based on Begg’s funnel plot test (Pr > |z| = 0.86). The highest risk was performance bias, as neither the participants nor personnel were blinded to treatment in 71% of the studies.

 

Functional outcomes are similar for surgical vs nonoperative repair

In a 2019 meta-analysis of 9 RCTs (N = 822), adults ages 18 and older with AATR and a minimum of 12 months’ follow-up were randomized to either operative or nonoperative repair. There was a decreased rate of rupture with surgical repair and an associated increased rate of complications (ie, superficial wound infections and nerve injury). However, there was no significant difference in Physical Activity Scale (PAS) score between the 2 groups (mean difference, –0.05; 95% CI, –0.37 to 0.27).2 With surgical intervention, the NNT for Achilles tendon re-rupture was 15, and the NNH for superficial wound infection and nerve injury, respectively, were 22 and 28. Limitations of the study included different operative techniques and rehab protocols, which may have affected the results of the included studies.

Large data sets with consistent results show that nonoperative treatment of Achilles tendon rupture is an excellent option.

A third meta-analysis consisted of 10 RCTs and 19 observational studies (N = 15,862) with patients ages 16 years and older treated operatively vs nonoperatively. Function and return-to-activity rates in both the short term (≤ 1 year) and long term (> 1 year) were evaluated using the Achilles tendon Total Rupture Score (ATRS).3 Surgical management was associated with decreased re-rupture rates but increased complication rates. However, when the analysis was limited to studies using accelerated functional rehabilitation programs, there was no significant difference in re-rupture rate (RR = 0.26 to 1.37; P = .23). Only 1 observational study found a statistically significant difference in short-term functional outcomes favoring operative management, and no studies found a significant difference in long-term functional outcomes. These functional outcomes were not pooled for statistical analysis due to high interrater variability of the ATRS.

An RCT showed equal “customer satisfaction”

One RCT randomized 61 patients to either surgical or nonsurgical management and followed them for a mean of 15.7 years.4 Patient-reported outcomes of function, symptoms, and impact on daily life were measured using various surveys. There was no statistically significant difference in the function and impact on daily life after treatment according to the Short Musculoskeletal Function Assessment or the ATRS (P = .289 and .313, respectively). When assessed using the Net Promoter Score (a single-question metric used in consumer industry to assess whether an individual would recommend the product to others), there was no statistical significance for the patients to recommend one treatment over another: 79% of operatively managed patients vs 87% of nonoperatively managed patients would recommend their treatment to others (P = .225).

Recommendations from others

The American College of Foot and Ankle Surgeons consensus statement finds no difference between operative and nonoperative management with regard to complications, functional outcome, and return to activity long term, when looking at available Level 1 evidence.5 They do acknowledge that although some Level III studies suggest operative intervention will return high-­functioning patients to full activity sooner, there should be discussion regarding the risks and complications of both operative and nonoperative management. Patients with increased risk factors for postoperative complications (diabetes, obesity, cigarette smoking) should have special considerations regarding the decision to operate.

Editor’s takeaway

Large data sets with consistent results show that nonoperative treatment of Achilles tendon rupture is an excellent option. However, we cannot say if it is better or worse than operative treatment, because both options have advantages and disadvantages. One must weigh the alternatives with individual patient preferences and circumstances.

References

1. Shi F, Wu S, Cai W, et al. Multiple comparisons of the efficacy and safety for six treatments in acute Achilles tendon rupture patients: a systematic review and network meta-analysis. Foot Ankle Surg. 2021;27:468-479. doi: 10.1016/j.fas.2020.07.004

2. Reda Y, Farouk A, Abdelmonem I, et al. Surgical versus non-surgical treatment for acute Achilles tendon rupture. A systematic review of literature and meta-analysis. Foot Ankle Surg. 2020;26:280-288. doi: 10.1016/j.fas.2019.03.010

3. Ochen Y, Beks RB, van Heijl M, et al. Operative treatment versus nonoperative treatment of Achilles tendon ruptures: systematic review and meta-analysis. BMJ. 2019;364:k5120. doi: 10.1136/bmj.k5120

4. Maempel JF, Clement ND, Wickramasinghe NR, et al. Operative repair of acute Achilles tendon rupture does not give superior patient-reported outcomes to nonoperative management. Bone Joint J. 2020;102-B:933-940. doi: 10.1302/0301-620x.102b7.bjj-2019-0783.r3

5. Naldo J, Agnew P, Brucato M, et al. ACFAS clinical consensus statement: acute Achilles tendon pathology. J Foot Ankle Surg. 2021;60:93-101. doi: 10.1053/j.jfas.2020.02.006

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Advocate Health Care Illinois Masonic Medical Center Program, Chicago

The opinions and assertions contained herein are the private views of the authors and are not to be construed as official or as reflecting the views of the US Air Force, the US Air Force Medical Service, the Defense Health Agency, the Uniformed Services University of the Health Sciences, the Department of Defense, or the US government.

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Advocate Health Care Illinois Masonic Medical Center Program, Chicago

The opinions and assertions contained herein are the private views of the authors and are not to be construed as official or as reflecting the views of the US Air Force, the US Air Force Medical Service, the Defense Health Agency, the Uniformed Services University of the Health Sciences, the Department of Defense, or the US government.

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DEPUTY EDITOR
Rick Guthmann, MD, MPH

Advocate Health Care Illinois Masonic Medical Center Program, Chicago

The opinions and assertions contained herein are the private views of the authors and are not to be construed as official or as reflecting the views of the US Air Force, the US Air Force Medical Service, the Defense Health Agency, the Uniformed Services University of the Health Sciences, the Department of Defense, or the US government.

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Evidence summary

Surgical repair: Re-injury risk goes down, complications risk goes up

A 2021 network meta-analysis including 38 RCTs (N = 2480) reported outcomes in patients ages 18 and older with acute Achilles tendon rupture (AATR) and 3 or more months of follow-up.1 A significant increase in re-rupture rate was shown in patients who underwent nonoperative vs open repair (risk ratio [RR] = 2.41; 95% CI, 1.12-5.18). There was a significant decrease in wound-related complications in nonoperative vs open-repair patients (RR = 0.23; 95% CI, 0.06-0.88). There was also a significant difference in incidence of sural nerve injury in nonoperative vs open repair (RR = 0.27; 95% CI, 0.08-0.94). There were no significant differences in return to sport between open repair and nonoperative repair (RR = 0.62; 95% CI, 0.22-1.77). Insufficient data were reported to calculate the number needed to treat (NNT) and number needed to harm (NNH) for these outcomes.

Additionally, the authors looked at traditional standard rehabilitation and accelerated functional rehabilitation in both the operative and the nonoperative setting. The type of rehabilitation program did not have a significant impact on complications of re-rupture, wound, or sural nerve injury.

The included studies had an overall low risk of publication bias based on Begg’s funnel plot test (Pr > |z| = 0.86). The highest risk was performance bias, as neither the participants nor personnel were blinded to treatment in 71% of the studies.

 

Functional outcomes are similar for surgical vs nonoperative repair

In a 2019 meta-analysis of 9 RCTs (N = 822), adults ages 18 and older with AATR and a minimum of 12 months’ follow-up were randomized to either operative or nonoperative repair. There was a decreased rate of rupture with surgical repair and an associated increased rate of complications (ie, superficial wound infections and nerve injury). However, there was no significant difference in Physical Activity Scale (PAS) score between the 2 groups (mean difference, –0.05; 95% CI, –0.37 to 0.27).2 With surgical intervention, the NNT for Achilles tendon re-rupture was 15, and the NNH for superficial wound infection and nerve injury, respectively, were 22 and 28. Limitations of the study included different operative techniques and rehab protocols, which may have affected the results of the included studies.

Large data sets with consistent results show that nonoperative treatment of Achilles tendon rupture is an excellent option.

A third meta-analysis consisted of 10 RCTs and 19 observational studies (N = 15,862) with patients ages 16 years and older treated operatively vs nonoperatively. Function and return-to-activity rates in both the short term (≤ 1 year) and long term (> 1 year) were evaluated using the Achilles tendon Total Rupture Score (ATRS).3 Surgical management was associated with decreased re-rupture rates but increased complication rates. However, when the analysis was limited to studies using accelerated functional rehabilitation programs, there was no significant difference in re-rupture rate (RR = 0.26 to 1.37; P = .23). Only 1 observational study found a statistically significant difference in short-term functional outcomes favoring operative management, and no studies found a significant difference in long-term functional outcomes. These functional outcomes were not pooled for statistical analysis due to high interrater variability of the ATRS.

An RCT showed equal “customer satisfaction”

One RCT randomized 61 patients to either surgical or nonsurgical management and followed them for a mean of 15.7 years.4 Patient-reported outcomes of function, symptoms, and impact on daily life were measured using various surveys. There was no statistically significant difference in the function and impact on daily life after treatment according to the Short Musculoskeletal Function Assessment or the ATRS (P = .289 and .313, respectively). When assessed using the Net Promoter Score (a single-question metric used in consumer industry to assess whether an individual would recommend the product to others), there was no statistical significance for the patients to recommend one treatment over another: 79% of operatively managed patients vs 87% of nonoperatively managed patients would recommend their treatment to others (P = .225).

Recommendations from others

The American College of Foot and Ankle Surgeons consensus statement finds no difference between operative and nonoperative management with regard to complications, functional outcome, and return to activity long term, when looking at available Level 1 evidence.5 They do acknowledge that although some Level III studies suggest operative intervention will return high-­functioning patients to full activity sooner, there should be discussion regarding the risks and complications of both operative and nonoperative management. Patients with increased risk factors for postoperative complications (diabetes, obesity, cigarette smoking) should have special considerations regarding the decision to operate.

Editor’s takeaway

Large data sets with consistent results show that nonoperative treatment of Achilles tendon rupture is an excellent option. However, we cannot say if it is better or worse than operative treatment, because both options have advantages and disadvantages. One must weigh the alternatives with individual patient preferences and circumstances.

Evidence summary

Surgical repair: Re-injury risk goes down, complications risk goes up

A 2021 network meta-analysis including 38 RCTs (N = 2480) reported outcomes in patients ages 18 and older with acute Achilles tendon rupture (AATR) and 3 or more months of follow-up.1 A significant increase in re-rupture rate was shown in patients who underwent nonoperative vs open repair (risk ratio [RR] = 2.41; 95% CI, 1.12-5.18). There was a significant decrease in wound-related complications in nonoperative vs open-repair patients (RR = 0.23; 95% CI, 0.06-0.88). There was also a significant difference in incidence of sural nerve injury in nonoperative vs open repair (RR = 0.27; 95% CI, 0.08-0.94). There were no significant differences in return to sport between open repair and nonoperative repair (RR = 0.62; 95% CI, 0.22-1.77). Insufficient data were reported to calculate the number needed to treat (NNT) and number needed to harm (NNH) for these outcomes.

Additionally, the authors looked at traditional standard rehabilitation and accelerated functional rehabilitation in both the operative and the nonoperative setting. The type of rehabilitation program did not have a significant impact on complications of re-rupture, wound, or sural nerve injury.

The included studies had an overall low risk of publication bias based on Begg’s funnel plot test (Pr > |z| = 0.86). The highest risk was performance bias, as neither the participants nor personnel were blinded to treatment in 71% of the studies.

 

Functional outcomes are similar for surgical vs nonoperative repair

In a 2019 meta-analysis of 9 RCTs (N = 822), adults ages 18 and older with AATR and a minimum of 12 months’ follow-up were randomized to either operative or nonoperative repair. There was a decreased rate of rupture with surgical repair and an associated increased rate of complications (ie, superficial wound infections and nerve injury). However, there was no significant difference in Physical Activity Scale (PAS) score between the 2 groups (mean difference, –0.05; 95% CI, –0.37 to 0.27).2 With surgical intervention, the NNT for Achilles tendon re-rupture was 15, and the NNH for superficial wound infection and nerve injury, respectively, were 22 and 28. Limitations of the study included different operative techniques and rehab protocols, which may have affected the results of the included studies.

Large data sets with consistent results show that nonoperative treatment of Achilles tendon rupture is an excellent option.

A third meta-analysis consisted of 10 RCTs and 19 observational studies (N = 15,862) with patients ages 16 years and older treated operatively vs nonoperatively. Function and return-to-activity rates in both the short term (≤ 1 year) and long term (> 1 year) were evaluated using the Achilles tendon Total Rupture Score (ATRS).3 Surgical management was associated with decreased re-rupture rates but increased complication rates. However, when the analysis was limited to studies using accelerated functional rehabilitation programs, there was no significant difference in re-rupture rate (RR = 0.26 to 1.37; P = .23). Only 1 observational study found a statistically significant difference in short-term functional outcomes favoring operative management, and no studies found a significant difference in long-term functional outcomes. These functional outcomes were not pooled for statistical analysis due to high interrater variability of the ATRS.

An RCT showed equal “customer satisfaction”

One RCT randomized 61 patients to either surgical or nonsurgical management and followed them for a mean of 15.7 years.4 Patient-reported outcomes of function, symptoms, and impact on daily life were measured using various surveys. There was no statistically significant difference in the function and impact on daily life after treatment according to the Short Musculoskeletal Function Assessment or the ATRS (P = .289 and .313, respectively). When assessed using the Net Promoter Score (a single-question metric used in consumer industry to assess whether an individual would recommend the product to others), there was no statistical significance for the patients to recommend one treatment over another: 79% of operatively managed patients vs 87% of nonoperatively managed patients would recommend their treatment to others (P = .225).

Recommendations from others

The American College of Foot and Ankle Surgeons consensus statement finds no difference between operative and nonoperative management with regard to complications, functional outcome, and return to activity long term, when looking at available Level 1 evidence.5 They do acknowledge that although some Level III studies suggest operative intervention will return high-­functioning patients to full activity sooner, there should be discussion regarding the risks and complications of both operative and nonoperative management. Patients with increased risk factors for postoperative complications (diabetes, obesity, cigarette smoking) should have special considerations regarding the decision to operate.

Editor’s takeaway

Large data sets with consistent results show that nonoperative treatment of Achilles tendon rupture is an excellent option. However, we cannot say if it is better or worse than operative treatment, because both options have advantages and disadvantages. One must weigh the alternatives with individual patient preferences and circumstances.

References

1. Shi F, Wu S, Cai W, et al. Multiple comparisons of the efficacy and safety for six treatments in acute Achilles tendon rupture patients: a systematic review and network meta-analysis. Foot Ankle Surg. 2021;27:468-479. doi: 10.1016/j.fas.2020.07.004

2. Reda Y, Farouk A, Abdelmonem I, et al. Surgical versus non-surgical treatment for acute Achilles tendon rupture. A systematic review of literature and meta-analysis. Foot Ankle Surg. 2020;26:280-288. doi: 10.1016/j.fas.2019.03.010

3. Ochen Y, Beks RB, van Heijl M, et al. Operative treatment versus nonoperative treatment of Achilles tendon ruptures: systematic review and meta-analysis. BMJ. 2019;364:k5120. doi: 10.1136/bmj.k5120

4. Maempel JF, Clement ND, Wickramasinghe NR, et al. Operative repair of acute Achilles tendon rupture does not give superior patient-reported outcomes to nonoperative management. Bone Joint J. 2020;102-B:933-940. doi: 10.1302/0301-620x.102b7.bjj-2019-0783.r3

5. Naldo J, Agnew P, Brucato M, et al. ACFAS clinical consensus statement: acute Achilles tendon pathology. J Foot Ankle Surg. 2021;60:93-101. doi: 10.1053/j.jfas.2020.02.006

References

1. Shi F, Wu S, Cai W, et al. Multiple comparisons of the efficacy and safety for six treatments in acute Achilles tendon rupture patients: a systematic review and network meta-analysis. Foot Ankle Surg. 2021;27:468-479. doi: 10.1016/j.fas.2020.07.004

2. Reda Y, Farouk A, Abdelmonem I, et al. Surgical versus non-surgical treatment for acute Achilles tendon rupture. A systematic review of literature and meta-analysis. Foot Ankle Surg. 2020;26:280-288. doi: 10.1016/j.fas.2019.03.010

3. Ochen Y, Beks RB, van Heijl M, et al. Operative treatment versus nonoperative treatment of Achilles tendon ruptures: systematic review and meta-analysis. BMJ. 2019;364:k5120. doi: 10.1136/bmj.k5120

4. Maempel JF, Clement ND, Wickramasinghe NR, et al. Operative repair of acute Achilles tendon rupture does not give superior patient-reported outcomes to nonoperative management. Bone Joint J. 2020;102-B:933-940. doi: 10.1302/0301-620x.102b7.bjj-2019-0783.r3

5. Naldo J, Agnew P, Brucato M, et al. ACFAS clinical consensus statement: acute Achilles tendon pathology. J Foot Ankle Surg. 2021;60:93-101. doi: 10.1053/j.jfas.2020.02.006

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EVIDENCE-BASED ANSWER:

YES. Nonoperative and open sur- gical interventions provide equal long-term functional outcomes of the affected Achilles tendon and ankle (strength of recommendation [SOR], A; based on 2 meta-analyses and a separate randomized controlled trial [RCT]). Although nonoperative management is associated with increased risk of re-rupture, it confers lower risk for complications including wound infection and nerve injury (SOR, A; based on meta-analysis and separate RCT).

Select individuals—high-performing athletes or those who otherwise require near-baseline strength and function of their Achilles tendon—would likely benefit from surgical intervention (SOR, A; based on meta-analysis and consensus recommendations).

Patients with comorbid conditions that would put them at greater risk for postoperative complications should be advised to consider nonoperative treatment of acute Achilles tendon rupture (SOR, C; based on consensus opinion).

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Helping patients move forward following traumatic brain injury

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Helping patients move forward following traumatic brain injury

THE CASE

Declan M*, a 42-year-old man, presents as a new patient for general medical care. One year ago, he sustained a severe frontal traumatic brain injury (TBI) when he was hit by a car while crossing a street. He developed a subdural hematoma and was in a coma for 6 days. He also had fractured ribs and a fractured left foot. When he regained consciousness, he had posttraumatic amnesia. He also had executive function deficits and memory difficulties, so a guardian was appointed.

Mr. M no longer works as an auto mechanic, a career he once greatly enjoyed. Mr. M’s guardian reports that recently, Mr. M has lost interest in activities he’d previously enjoyed, is frequently irritable, has poor sleep, is socially isolated, and is spending increasing amounts of time at home. When his new primary care physician (PCP) enters the examining room, Mr. M is seated in a chair with his arms folded across his chest. He states that he is “fine” and just needs to “get a doctor.”

HOW WOULD YOU PROCEED WITH THIS PATIENT?

*This patient is an amalgam of patients for whom the author has provided care.

 

 

TBI ranges from mild to severe and can produce a number of profound effects that are a direct—or indirect—result of the physical injury.1 The location and the severity of the injury affect symptoms.2 Even mild TBI can cause impairment, and severe TBI can lead to broad cognitive, behavioral, and physical difficulties. As numbers of TBI cases increase globally, primary care providers need to recognize the symptoms and assess accordingly.1 The Acute Concussion Evaluation (ACE; Physician/Clinician Office Version) facilitates a structured evaluation for patients presenting with possible TBI symptoms. It can easily be accessed on the Centers for Disease Control and Prevention website.3

Direct effects of TBI include impulsivity, depression, reduced frustration tolerance, reduced motivation, low awareness, and insomnia and other sleep difficulties.4,5 Depression may also result indirectly from, or be exacerbated by, new posttraumatic limitations and lifestyle changes as well as loss of career and community.4 Both direct and indirect depression often manifest as feelings of hopelessness and worthlessness and a lack of interest in once enjoyable activities. Depression can worsen other TBI sequelae such as difficulty concentrating, lack of initiation, flat affect, irritability, reduced independence, reduced functional performance, loss of inhibition, and physical pain.6

Suicidality in TBI is a chronic concern. Assess for its presence no matter how long ago the TBI occurred.

Nationwide, most mental health concerns continue to be addressed in the primary care setting.7 Individuals with TBI experience major depression at a rate 5 to 6 times higher than those in the general population, with a prevalence rate of 45%.8

 

Suicide. The subject of suicide must be explored with survivors of TBI; evidence suggests a correlation between TBI, depression, and increased risk for suicide.9 Among those who have TBI, as many as 22% experience suicidal ideation; the risk of suicide in survivors of severe TBI is 3 to 4 times the risk in the general population.10 Additionally, suicidality in this context appears to be a chronic concern; therefore, carefully assess for its presence no matter how long ago the TBI occurred.10

Additional TBI-associated health concerns

Grief and loss. We so often focus on death as the only cause for grief, but grief can occur for other types of loss, as well. Individuals with TBI often experience a radical negative change in self-concept after their injury, which is associated with feelings of grief.11 Helping patients recognize that they are grieving the loss of the person they once were can help set a framework for their experience.

Continue to: Relationship loss

 

 

Relationship loss. Many people with TBI lose close relationships.12 This can be due to life changes such as job loss, loss of function or ability to do previously enjoyed activities, or personality changes. These relationship losses can affect a person profoundly.12 Going forward, they may have difficulty trusting others, for example.

Existential issues. Many people with TBI also find that cognitive deficits prevent them from engaging in formerly meaningful work. For example, Mr. M lost his longstanding career as an auto mechanic and therefore part of his identity. Not being able to find purpose and meaning can be a strong contributor to coping difficulties in those with TBI.13

Chronic pain. More than half of people with TBI experience chronic pain. Headaches are the most common pain condition among all TBI survivors.14

Substance use disorders. The directionality of substance use disorders and TBI is not always clear; however, most evidence suggests that substance abuse is highly prevalent, premorbid, and often a contributing factor in TBI (eg, car accidents).15 Alcohol abuse is the most common risk factor, followed by drug abuse.16 Substance abuse may be exacerbated after TBI when it becomes a coping mechanism under worsening stressors; additionally, executive function deficits or other neurologic problems may result in poor decision-making with regard to substance use.15 While substance abuse may decline in the immediate post-TBI period, it can return to pre-injury levels within a year.17

Selective serotonin reuptake inhibitors may help

Few studies have explored the efficacy of antidepressant medication in TBI survivors. In a controlled study of patients with TBI, Fann and colleagues18 found no significant improvement in depression symptoms between sertraline and a placebo. However, they did note some possibilities for this lack of significance: socially isolated TBI survivors in the placebo group may have demonstrated improvement in depression symptoms because of increased social interaction; members of both the sertraline and placebo groups had many psychosocial difficulties; and the study had a relatively small sample size. Worth noting: Subjects given sertraline did demonstrate improvement in information processing.

Continue to: Other research has found...

 

 

Other research has found that sertraline improved both depression and quality of life for men with post-TBI depression.19 In a ­meta-analysis of 4 studies, Paraschakis and Katsanos20 found that sertraline demonstrated a “trend toward significance” in the treatment of depression among patients with TBI. Silverberg and Panenka21 argue that selective serotonin reuptake inhibitors should be used as first-line treatment for depression in survivors of TBI. They note that in non-randomized studies, treatment effects with antidepressants are significant. Additionally, patients who do not respond to the first antidepressant prescribed will often respond to adjunctive or different medications. Finally, they argue that depression measures can capture symptoms related to the physical brain injury, in addition to symptoms of depression, thus confounding results.

THE CASE

Mr. M’s chart showed that he was not taking any medication and that he had no history of substance abuse or tobacco use. He refused to fill out the Patient Health Questionnaire (PHQ)-2. His guardian said that Mr. M was spending much of his time at home, and that he used to be an avid painter and guitar player but had not engaged in either activity for months. Furthermore, Mr. M used to enjoy working out but did so rarely now.

During the interview, the PCP was careful to make eye contact with Mr. M as well as his guardian, thereby making sure Mr. M was part of the conversation about his care. Pacing of questions was deliberate and unhurried; a return visit would be scheduled to further explore any concerns not covered in this visit. This collaborative, inclusive, patient-centered approach to the clinical interview seemed to place Mr. M at ease. When his guardian said he thought Mr. M was depressed, Mr. M agreed. Although Mr. M still refused to fill out the PHQ-2, he was now willing to answer questions about depression. He acknowledged that he was feeling hopeless and took little pleasure in activities he used to enjoy, thereby indicating a positive screen for depression.

The PCP opted to read the PHQ-9 questions aloud, and Mr. M agreed with most of the items but strongly denied suicidal ideation, citing his religious faith.

The PCP determined that Mr. M’s depression was likely a combination of the direct and indirect effects of his TBI. A quantitative estimate based on Mr. M’s report yielded a PHQ-9 score of 17, indicating moderately severe depression.

Continue to: In addition to building rapport...

 

 

In addition to building rapport, careful listening garnered important information about Mr. M. For example, until his accident and subsequent depression, Mr. M had long prioritized his physical health through diet and exercise. He followed a vegetarian diet but recently had little appetite and was eating one microwaveable meal a day. He had an irregular sleep schedule and struggled with insomnia. He lost his closest long-term relationship after his accident due to difficulties with affect regulation. He also lost his job as he could no longer cognitively handle the tasks required.

Hearing Mr. M’s story provided the opportunity to customize education about self-management skills including regular diet, exercise, and sleep hygiene. Due to limited visit time, the PCP elected to use this first visit to focus on sleep and depression. As cognitive behavioral therapy (CBT) for insomnia is first-line treatment for both primary insomnia and insomnia due to a medical condition such as TBI,5 a sleep aid was not prescribed. Fortunately, the clinic psychologist who offered CBT was able to join the interview to meet Mr. M and explain the treatment.

Mr. M expressed some initial reluctance to try an antidepressant. However, acknowledging he “just hasn’t been the same” since his TBI, he agreed to a prescription for sertraline and said he hoped it could make him “more like [he] was.”

 

RETURN VISIT

Four weeks after Mr. M began taking sertraline and participating in weekly CBT sessions, he returned for a follow-up visit with his PCP. He had a noticeably brighter affect, and his guardian reported that he had been playing the guitar again. Mr. M said that he had more energy as a result of improved sleep and mood, and that he felt like his “thinking was clearer.” Mr. M noted that he never thought he would meet with a psychologist but was finding CBT for insomnia helpful.

Patients who do not respond to the first antidepressant prescribed will often respond to adjunctive or different medications.

The psychologist’s notes proposed a treatment plan that would also include targeted grief and existential therapies to address Mr. M’s sudden life changes. At this visit, Mr. M admitted that his reading comprehension and speed were negatively affected by the accident and said this is why he did not wish to fill out the PHQ-2. But he was again willing to have the PHQ-9 questions read to him with his guardian’s support. Results showed a score of 6, indicating mild depression.

A follow-up appointment with Mr. M was scheduled for 6 weeks later, and the team was confident he was getting the behavioral and mental health support he needed through medication and therapy.

CORRESPONDENCE
Elizabeth Imbesi, PhD, VA Ann Arbor Healthcare System, 2215 Fuller Road, Ann Arbor, MI 48105; [email protected]

References

1. CDC. Traumatic brain injury & concussion. 2020. Accessed May 19, 2022. www.cdc.gov/traumaticbraininjury/index.html

2. Finset A, Anderson S. Coping strategies in patients with acquired brain injury: relationships between coping, apathy, depression and lesion location. Brain Inj. 2009;14:887-905. doi: 10.1080/026990500445718

3. CDC. Gioia G, Collins M. Acute concussion evaluation. 2006. Accessed May 19, 2022. www.cdc.gov/headsup/pdfs/providers/ace_v2-a.pdf

4. Prigatano GP. Psychotherapy and the process of coping with a brain disorder. Oral presentation at: American Psychological Association annual convention. August 2015; Toronto, Canada.

5. Ouellet M, Beaulieu-Bonneau S, Savard J, Morin C. Insomnia and Fatigue After Traumatic Brain Injury: A CBT Approach to Assessment and Treatment. Elsevier Academic Press: 2019.

6. Lewis FD, Horn GH. Depression following traumatic brain injury: impact on post-hospital residential rehabilitation outcomes. NeuroRehabilitation. 2017;40:401-410. doi: 10.3233/NRE-161427

7. Barkil-Oteo A. Collaborative care for depression in primary care: how psychiatry could “troubleshoot” current treatments and practices. Yale J Bio Med. 2013;86:139-146.

8. Whelan-Goodinson R, Ponsford J, Johnston L, et al. Psychiatric disorders following traumatic brain injury: their nature and frequency. J Head Trauma Rehabil. 2009;24:324-332. doi: 10.1097/HTR.0b013e3181a712aa

9. Reeves RR, Laizer JT. Traumatic brain injury and suicide. J Psychosoc Nurs Ment Health Serv. 2012;50:32-38. doi: 10.3928/02793695-20120207-02

10. Simpson G, Tate R. Suicidality in people surviving a traumatic brain injury: Prevalence, risk factors and implications for clinical management. Brain Inj. 2007;21:1335-1351. doi: 10.1080/02699050701785542

11. Carroll E, Coetzer R. Identity, grief and self-awareness after traumatic brain injury. Neuropsychol Rehabil. 2011;21:289-305. doi: 10.1080/09602011.2011.555972

12. Salas CE, Casassus M, Rowlands L, et al. “Relating through sameness”: a qualitative study of friendship and social isolation in chronic traumatic brain injury. Neuropsychol Rehabil. 2018;28:1161-1178. doi: 10.1080/09602011.2016.1247730

13. Hinkebein JA, Stucky R. Coping with traumatic brain injury: existential challenges and managing hope. In: Martz E, Livneh H, eds. Coping with Chronic Illness and Disability: Theoretical, Empirical, and Clinical Aspects. Springer Science & Business Media; 2007:389-409.

14. Khoury S, Benavides R. Pain with traumatic brain injury and psychological disorders. Prog Neuropsychopharmacol and Biol Psychiatry. 2018;87:224-233. doi: 10.1016/j.pnpbp.2017.06.007

15. Bjork JM, Grant SJ. Does traumatic brain injury increase risk for substance abuse? J Neurotrauma. 2009;26:1077-1082. doi: 10.1089/neu.2008.0849

16. Unsworth DJ, Mathias JL. Traumatic brain injury and alcohol/substance abuse: a Bayesian meta-analysis comparing the outcomes of people with and without a history of abuse. J Clin Exp Neuropsychol. 2017,39:547-562. doi: 10.1080/13803395.2016.1248812

17. Beaulieu-Bonneau S, St-Onge F, Blackburn M, et al. Alcohol and drug use before and during the first year after traumatic brain injury. J Head Trauma Rehabil. 2018;33:E51-E60. doi: 10.1097/HTR.0000000000000341

18. Fann JR, Bombardier CH, Temkin N, et al. Sertraline for major depression during the year following traumatic brain injury: a randomized control trial. J Head Trauma Rehabil. 2017;32:332-342. doi: 10.1097/HTR.0000000000000322

19. Ansari A, Jain A, Sharma A, et al. Role of sertraline in posttraumatic brain injury depression and quality of life in TBI. Asian J Neurosurg. 2014;9:182-188. doi: 10.4103/1793-5482.146597

20. Paraschakis A, Katsanos AH. Antidepressants for depression associated with traumatic brain injury: a meta-analytical study of randomized control trials. East Asian Arch Psychiatry. 2017;27:142-149.

21. Silverberg ND, Panenka WJ. Antidepressants for depression after concussion and traumatic brain injury are still best practice. BMC Psychiatry. 2019;19:100. doi: 10.1186/s12888-019-2076-9

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THE CASE

Declan M*, a 42-year-old man, presents as a new patient for general medical care. One year ago, he sustained a severe frontal traumatic brain injury (TBI) when he was hit by a car while crossing a street. He developed a subdural hematoma and was in a coma for 6 days. He also had fractured ribs and a fractured left foot. When he regained consciousness, he had posttraumatic amnesia. He also had executive function deficits and memory difficulties, so a guardian was appointed.

Mr. M no longer works as an auto mechanic, a career he once greatly enjoyed. Mr. M’s guardian reports that recently, Mr. M has lost interest in activities he’d previously enjoyed, is frequently irritable, has poor sleep, is socially isolated, and is spending increasing amounts of time at home. When his new primary care physician (PCP) enters the examining room, Mr. M is seated in a chair with his arms folded across his chest. He states that he is “fine” and just needs to “get a doctor.”

HOW WOULD YOU PROCEED WITH THIS PATIENT?

*This patient is an amalgam of patients for whom the author has provided care.

 

 

TBI ranges from mild to severe and can produce a number of profound effects that are a direct—or indirect—result of the physical injury.1 The location and the severity of the injury affect symptoms.2 Even mild TBI can cause impairment, and severe TBI can lead to broad cognitive, behavioral, and physical difficulties. As numbers of TBI cases increase globally, primary care providers need to recognize the symptoms and assess accordingly.1 The Acute Concussion Evaluation (ACE; Physician/Clinician Office Version) facilitates a structured evaluation for patients presenting with possible TBI symptoms. It can easily be accessed on the Centers for Disease Control and Prevention website.3

Direct effects of TBI include impulsivity, depression, reduced frustration tolerance, reduced motivation, low awareness, and insomnia and other sleep difficulties.4,5 Depression may also result indirectly from, or be exacerbated by, new posttraumatic limitations and lifestyle changes as well as loss of career and community.4 Both direct and indirect depression often manifest as feelings of hopelessness and worthlessness and a lack of interest in once enjoyable activities. Depression can worsen other TBI sequelae such as difficulty concentrating, lack of initiation, flat affect, irritability, reduced independence, reduced functional performance, loss of inhibition, and physical pain.6

Suicidality in TBI is a chronic concern. Assess for its presence no matter how long ago the TBI occurred.

Nationwide, most mental health concerns continue to be addressed in the primary care setting.7 Individuals with TBI experience major depression at a rate 5 to 6 times higher than those in the general population, with a prevalence rate of 45%.8

 

Suicide. The subject of suicide must be explored with survivors of TBI; evidence suggests a correlation between TBI, depression, and increased risk for suicide.9 Among those who have TBI, as many as 22% experience suicidal ideation; the risk of suicide in survivors of severe TBI is 3 to 4 times the risk in the general population.10 Additionally, suicidality in this context appears to be a chronic concern; therefore, carefully assess for its presence no matter how long ago the TBI occurred.10

Additional TBI-associated health concerns

Grief and loss. We so often focus on death as the only cause for grief, but grief can occur for other types of loss, as well. Individuals with TBI often experience a radical negative change in self-concept after their injury, which is associated with feelings of grief.11 Helping patients recognize that they are grieving the loss of the person they once were can help set a framework for their experience.

Continue to: Relationship loss

 

 

Relationship loss. Many people with TBI lose close relationships.12 This can be due to life changes such as job loss, loss of function or ability to do previously enjoyed activities, or personality changes. These relationship losses can affect a person profoundly.12 Going forward, they may have difficulty trusting others, for example.

Existential issues. Many people with TBI also find that cognitive deficits prevent them from engaging in formerly meaningful work. For example, Mr. M lost his longstanding career as an auto mechanic and therefore part of his identity. Not being able to find purpose and meaning can be a strong contributor to coping difficulties in those with TBI.13

Chronic pain. More than half of people with TBI experience chronic pain. Headaches are the most common pain condition among all TBI survivors.14

Substance use disorders. The directionality of substance use disorders and TBI is not always clear; however, most evidence suggests that substance abuse is highly prevalent, premorbid, and often a contributing factor in TBI (eg, car accidents).15 Alcohol abuse is the most common risk factor, followed by drug abuse.16 Substance abuse may be exacerbated after TBI when it becomes a coping mechanism under worsening stressors; additionally, executive function deficits or other neurologic problems may result in poor decision-making with regard to substance use.15 While substance abuse may decline in the immediate post-TBI period, it can return to pre-injury levels within a year.17

Selective serotonin reuptake inhibitors may help

Few studies have explored the efficacy of antidepressant medication in TBI survivors. In a controlled study of patients with TBI, Fann and colleagues18 found no significant improvement in depression symptoms between sertraline and a placebo. However, they did note some possibilities for this lack of significance: socially isolated TBI survivors in the placebo group may have demonstrated improvement in depression symptoms because of increased social interaction; members of both the sertraline and placebo groups had many psychosocial difficulties; and the study had a relatively small sample size. Worth noting: Subjects given sertraline did demonstrate improvement in information processing.

Continue to: Other research has found...

 

 

Other research has found that sertraline improved both depression and quality of life for men with post-TBI depression.19 In a ­meta-analysis of 4 studies, Paraschakis and Katsanos20 found that sertraline demonstrated a “trend toward significance” in the treatment of depression among patients with TBI. Silverberg and Panenka21 argue that selective serotonin reuptake inhibitors should be used as first-line treatment for depression in survivors of TBI. They note that in non-randomized studies, treatment effects with antidepressants are significant. Additionally, patients who do not respond to the first antidepressant prescribed will often respond to adjunctive or different medications. Finally, they argue that depression measures can capture symptoms related to the physical brain injury, in addition to symptoms of depression, thus confounding results.

THE CASE

Mr. M’s chart showed that he was not taking any medication and that he had no history of substance abuse or tobacco use. He refused to fill out the Patient Health Questionnaire (PHQ)-2. His guardian said that Mr. M was spending much of his time at home, and that he used to be an avid painter and guitar player but had not engaged in either activity for months. Furthermore, Mr. M used to enjoy working out but did so rarely now.

During the interview, the PCP was careful to make eye contact with Mr. M as well as his guardian, thereby making sure Mr. M was part of the conversation about his care. Pacing of questions was deliberate and unhurried; a return visit would be scheduled to further explore any concerns not covered in this visit. This collaborative, inclusive, patient-centered approach to the clinical interview seemed to place Mr. M at ease. When his guardian said he thought Mr. M was depressed, Mr. M agreed. Although Mr. M still refused to fill out the PHQ-2, he was now willing to answer questions about depression. He acknowledged that he was feeling hopeless and took little pleasure in activities he used to enjoy, thereby indicating a positive screen for depression.

The PCP opted to read the PHQ-9 questions aloud, and Mr. M agreed with most of the items but strongly denied suicidal ideation, citing his religious faith.

The PCP determined that Mr. M’s depression was likely a combination of the direct and indirect effects of his TBI. A quantitative estimate based on Mr. M’s report yielded a PHQ-9 score of 17, indicating moderately severe depression.

Continue to: In addition to building rapport...

 

 

In addition to building rapport, careful listening garnered important information about Mr. M. For example, until his accident and subsequent depression, Mr. M had long prioritized his physical health through diet and exercise. He followed a vegetarian diet but recently had little appetite and was eating one microwaveable meal a day. He had an irregular sleep schedule and struggled with insomnia. He lost his closest long-term relationship after his accident due to difficulties with affect regulation. He also lost his job as he could no longer cognitively handle the tasks required.

Hearing Mr. M’s story provided the opportunity to customize education about self-management skills including regular diet, exercise, and sleep hygiene. Due to limited visit time, the PCP elected to use this first visit to focus on sleep and depression. As cognitive behavioral therapy (CBT) for insomnia is first-line treatment for both primary insomnia and insomnia due to a medical condition such as TBI,5 a sleep aid was not prescribed. Fortunately, the clinic psychologist who offered CBT was able to join the interview to meet Mr. M and explain the treatment.

Mr. M expressed some initial reluctance to try an antidepressant. However, acknowledging he “just hasn’t been the same” since his TBI, he agreed to a prescription for sertraline and said he hoped it could make him “more like [he] was.”

 

RETURN VISIT

Four weeks after Mr. M began taking sertraline and participating in weekly CBT sessions, he returned for a follow-up visit with his PCP. He had a noticeably brighter affect, and his guardian reported that he had been playing the guitar again. Mr. M said that he had more energy as a result of improved sleep and mood, and that he felt like his “thinking was clearer.” Mr. M noted that he never thought he would meet with a psychologist but was finding CBT for insomnia helpful.

Patients who do not respond to the first antidepressant prescribed will often respond to adjunctive or different medications.

The psychologist’s notes proposed a treatment plan that would also include targeted grief and existential therapies to address Mr. M’s sudden life changes. At this visit, Mr. M admitted that his reading comprehension and speed were negatively affected by the accident and said this is why he did not wish to fill out the PHQ-2. But he was again willing to have the PHQ-9 questions read to him with his guardian’s support. Results showed a score of 6, indicating mild depression.

A follow-up appointment with Mr. M was scheduled for 6 weeks later, and the team was confident he was getting the behavioral and mental health support he needed through medication and therapy.

CORRESPONDENCE
Elizabeth Imbesi, PhD, VA Ann Arbor Healthcare System, 2215 Fuller Road, Ann Arbor, MI 48105; [email protected]

THE CASE

Declan M*, a 42-year-old man, presents as a new patient for general medical care. One year ago, he sustained a severe frontal traumatic brain injury (TBI) when he was hit by a car while crossing a street. He developed a subdural hematoma and was in a coma for 6 days. He also had fractured ribs and a fractured left foot. When he regained consciousness, he had posttraumatic amnesia. He also had executive function deficits and memory difficulties, so a guardian was appointed.

Mr. M no longer works as an auto mechanic, a career he once greatly enjoyed. Mr. M’s guardian reports that recently, Mr. M has lost interest in activities he’d previously enjoyed, is frequently irritable, has poor sleep, is socially isolated, and is spending increasing amounts of time at home. When his new primary care physician (PCP) enters the examining room, Mr. M is seated in a chair with his arms folded across his chest. He states that he is “fine” and just needs to “get a doctor.”

HOW WOULD YOU PROCEED WITH THIS PATIENT?

*This patient is an amalgam of patients for whom the author has provided care.

 

 

TBI ranges from mild to severe and can produce a number of profound effects that are a direct—or indirect—result of the physical injury.1 The location and the severity of the injury affect symptoms.2 Even mild TBI can cause impairment, and severe TBI can lead to broad cognitive, behavioral, and physical difficulties. As numbers of TBI cases increase globally, primary care providers need to recognize the symptoms and assess accordingly.1 The Acute Concussion Evaluation (ACE; Physician/Clinician Office Version) facilitates a structured evaluation for patients presenting with possible TBI symptoms. It can easily be accessed on the Centers for Disease Control and Prevention website.3

Direct effects of TBI include impulsivity, depression, reduced frustration tolerance, reduced motivation, low awareness, and insomnia and other sleep difficulties.4,5 Depression may also result indirectly from, or be exacerbated by, new posttraumatic limitations and lifestyle changes as well as loss of career and community.4 Both direct and indirect depression often manifest as feelings of hopelessness and worthlessness and a lack of interest in once enjoyable activities. Depression can worsen other TBI sequelae such as difficulty concentrating, lack of initiation, flat affect, irritability, reduced independence, reduced functional performance, loss of inhibition, and physical pain.6

Suicidality in TBI is a chronic concern. Assess for its presence no matter how long ago the TBI occurred.

Nationwide, most mental health concerns continue to be addressed in the primary care setting.7 Individuals with TBI experience major depression at a rate 5 to 6 times higher than those in the general population, with a prevalence rate of 45%.8

 

Suicide. The subject of suicide must be explored with survivors of TBI; evidence suggests a correlation between TBI, depression, and increased risk for suicide.9 Among those who have TBI, as many as 22% experience suicidal ideation; the risk of suicide in survivors of severe TBI is 3 to 4 times the risk in the general population.10 Additionally, suicidality in this context appears to be a chronic concern; therefore, carefully assess for its presence no matter how long ago the TBI occurred.10

Additional TBI-associated health concerns

Grief and loss. We so often focus on death as the only cause for grief, but grief can occur for other types of loss, as well. Individuals with TBI often experience a radical negative change in self-concept after their injury, which is associated with feelings of grief.11 Helping patients recognize that they are grieving the loss of the person they once were can help set a framework for their experience.

Continue to: Relationship loss

 

 

Relationship loss. Many people with TBI lose close relationships.12 This can be due to life changes such as job loss, loss of function or ability to do previously enjoyed activities, or personality changes. These relationship losses can affect a person profoundly.12 Going forward, they may have difficulty trusting others, for example.

Existential issues. Many people with TBI also find that cognitive deficits prevent them from engaging in formerly meaningful work. For example, Mr. M lost his longstanding career as an auto mechanic and therefore part of his identity. Not being able to find purpose and meaning can be a strong contributor to coping difficulties in those with TBI.13

Chronic pain. More than half of people with TBI experience chronic pain. Headaches are the most common pain condition among all TBI survivors.14

Substance use disorders. The directionality of substance use disorders and TBI is not always clear; however, most evidence suggests that substance abuse is highly prevalent, premorbid, and often a contributing factor in TBI (eg, car accidents).15 Alcohol abuse is the most common risk factor, followed by drug abuse.16 Substance abuse may be exacerbated after TBI when it becomes a coping mechanism under worsening stressors; additionally, executive function deficits or other neurologic problems may result in poor decision-making with regard to substance use.15 While substance abuse may decline in the immediate post-TBI period, it can return to pre-injury levels within a year.17

Selective serotonin reuptake inhibitors may help

Few studies have explored the efficacy of antidepressant medication in TBI survivors. In a controlled study of patients with TBI, Fann and colleagues18 found no significant improvement in depression symptoms between sertraline and a placebo. However, they did note some possibilities for this lack of significance: socially isolated TBI survivors in the placebo group may have demonstrated improvement in depression symptoms because of increased social interaction; members of both the sertraline and placebo groups had many psychosocial difficulties; and the study had a relatively small sample size. Worth noting: Subjects given sertraline did demonstrate improvement in information processing.

Continue to: Other research has found...

 

 

Other research has found that sertraline improved both depression and quality of life for men with post-TBI depression.19 In a ­meta-analysis of 4 studies, Paraschakis and Katsanos20 found that sertraline demonstrated a “trend toward significance” in the treatment of depression among patients with TBI. Silverberg and Panenka21 argue that selective serotonin reuptake inhibitors should be used as first-line treatment for depression in survivors of TBI. They note that in non-randomized studies, treatment effects with antidepressants are significant. Additionally, patients who do not respond to the first antidepressant prescribed will often respond to adjunctive or different medications. Finally, they argue that depression measures can capture symptoms related to the physical brain injury, in addition to symptoms of depression, thus confounding results.

THE CASE

Mr. M’s chart showed that he was not taking any medication and that he had no history of substance abuse or tobacco use. He refused to fill out the Patient Health Questionnaire (PHQ)-2. His guardian said that Mr. M was spending much of his time at home, and that he used to be an avid painter and guitar player but had not engaged in either activity for months. Furthermore, Mr. M used to enjoy working out but did so rarely now.

During the interview, the PCP was careful to make eye contact with Mr. M as well as his guardian, thereby making sure Mr. M was part of the conversation about his care. Pacing of questions was deliberate and unhurried; a return visit would be scheduled to further explore any concerns not covered in this visit. This collaborative, inclusive, patient-centered approach to the clinical interview seemed to place Mr. M at ease. When his guardian said he thought Mr. M was depressed, Mr. M agreed. Although Mr. M still refused to fill out the PHQ-2, he was now willing to answer questions about depression. He acknowledged that he was feeling hopeless and took little pleasure in activities he used to enjoy, thereby indicating a positive screen for depression.

The PCP opted to read the PHQ-9 questions aloud, and Mr. M agreed with most of the items but strongly denied suicidal ideation, citing his religious faith.

The PCP determined that Mr. M’s depression was likely a combination of the direct and indirect effects of his TBI. A quantitative estimate based on Mr. M’s report yielded a PHQ-9 score of 17, indicating moderately severe depression.

Continue to: In addition to building rapport...

 

 

In addition to building rapport, careful listening garnered important information about Mr. M. For example, until his accident and subsequent depression, Mr. M had long prioritized his physical health through diet and exercise. He followed a vegetarian diet but recently had little appetite and was eating one microwaveable meal a day. He had an irregular sleep schedule and struggled with insomnia. He lost his closest long-term relationship after his accident due to difficulties with affect regulation. He also lost his job as he could no longer cognitively handle the tasks required.

Hearing Mr. M’s story provided the opportunity to customize education about self-management skills including regular diet, exercise, and sleep hygiene. Due to limited visit time, the PCP elected to use this first visit to focus on sleep and depression. As cognitive behavioral therapy (CBT) for insomnia is first-line treatment for both primary insomnia and insomnia due to a medical condition such as TBI,5 a sleep aid was not prescribed. Fortunately, the clinic psychologist who offered CBT was able to join the interview to meet Mr. M and explain the treatment.

Mr. M expressed some initial reluctance to try an antidepressant. However, acknowledging he “just hasn’t been the same” since his TBI, he agreed to a prescription for sertraline and said he hoped it could make him “more like [he] was.”

 

RETURN VISIT

Four weeks after Mr. M began taking sertraline and participating in weekly CBT sessions, he returned for a follow-up visit with his PCP. He had a noticeably brighter affect, and his guardian reported that he had been playing the guitar again. Mr. M said that he had more energy as a result of improved sleep and mood, and that he felt like his “thinking was clearer.” Mr. M noted that he never thought he would meet with a psychologist but was finding CBT for insomnia helpful.

Patients who do not respond to the first antidepressant prescribed will often respond to adjunctive or different medications.

The psychologist’s notes proposed a treatment plan that would also include targeted grief and existential therapies to address Mr. M’s sudden life changes. At this visit, Mr. M admitted that his reading comprehension and speed were negatively affected by the accident and said this is why he did not wish to fill out the PHQ-2. But he was again willing to have the PHQ-9 questions read to him with his guardian’s support. Results showed a score of 6, indicating mild depression.

A follow-up appointment with Mr. M was scheduled for 6 weeks later, and the team was confident he was getting the behavioral and mental health support he needed through medication and therapy.

CORRESPONDENCE
Elizabeth Imbesi, PhD, VA Ann Arbor Healthcare System, 2215 Fuller Road, Ann Arbor, MI 48105; [email protected]

References

1. CDC. Traumatic brain injury & concussion. 2020. Accessed May 19, 2022. www.cdc.gov/traumaticbraininjury/index.html

2. Finset A, Anderson S. Coping strategies in patients with acquired brain injury: relationships between coping, apathy, depression and lesion location. Brain Inj. 2009;14:887-905. doi: 10.1080/026990500445718

3. CDC. Gioia G, Collins M. Acute concussion evaluation. 2006. Accessed May 19, 2022. www.cdc.gov/headsup/pdfs/providers/ace_v2-a.pdf

4. Prigatano GP. Psychotherapy and the process of coping with a brain disorder. Oral presentation at: American Psychological Association annual convention. August 2015; Toronto, Canada.

5. Ouellet M, Beaulieu-Bonneau S, Savard J, Morin C. Insomnia and Fatigue After Traumatic Brain Injury: A CBT Approach to Assessment and Treatment. Elsevier Academic Press: 2019.

6. Lewis FD, Horn GH. Depression following traumatic brain injury: impact on post-hospital residential rehabilitation outcomes. NeuroRehabilitation. 2017;40:401-410. doi: 10.3233/NRE-161427

7. Barkil-Oteo A. Collaborative care for depression in primary care: how psychiatry could “troubleshoot” current treatments and practices. Yale J Bio Med. 2013;86:139-146.

8. Whelan-Goodinson R, Ponsford J, Johnston L, et al. Psychiatric disorders following traumatic brain injury: their nature and frequency. J Head Trauma Rehabil. 2009;24:324-332. doi: 10.1097/HTR.0b013e3181a712aa

9. Reeves RR, Laizer JT. Traumatic brain injury and suicide. J Psychosoc Nurs Ment Health Serv. 2012;50:32-38. doi: 10.3928/02793695-20120207-02

10. Simpson G, Tate R. Suicidality in people surviving a traumatic brain injury: Prevalence, risk factors and implications for clinical management. Brain Inj. 2007;21:1335-1351. doi: 10.1080/02699050701785542

11. Carroll E, Coetzer R. Identity, grief and self-awareness after traumatic brain injury. Neuropsychol Rehabil. 2011;21:289-305. doi: 10.1080/09602011.2011.555972

12. Salas CE, Casassus M, Rowlands L, et al. “Relating through sameness”: a qualitative study of friendship and social isolation in chronic traumatic brain injury. Neuropsychol Rehabil. 2018;28:1161-1178. doi: 10.1080/09602011.2016.1247730

13. Hinkebein JA, Stucky R. Coping with traumatic brain injury: existential challenges and managing hope. In: Martz E, Livneh H, eds. Coping with Chronic Illness and Disability: Theoretical, Empirical, and Clinical Aspects. Springer Science & Business Media; 2007:389-409.

14. Khoury S, Benavides R. Pain with traumatic brain injury and psychological disorders. Prog Neuropsychopharmacol and Biol Psychiatry. 2018;87:224-233. doi: 10.1016/j.pnpbp.2017.06.007

15. Bjork JM, Grant SJ. Does traumatic brain injury increase risk for substance abuse? J Neurotrauma. 2009;26:1077-1082. doi: 10.1089/neu.2008.0849

16. Unsworth DJ, Mathias JL. Traumatic brain injury and alcohol/substance abuse: a Bayesian meta-analysis comparing the outcomes of people with and without a history of abuse. J Clin Exp Neuropsychol. 2017,39:547-562. doi: 10.1080/13803395.2016.1248812

17. Beaulieu-Bonneau S, St-Onge F, Blackburn M, et al. Alcohol and drug use before and during the first year after traumatic brain injury. J Head Trauma Rehabil. 2018;33:E51-E60. doi: 10.1097/HTR.0000000000000341

18. Fann JR, Bombardier CH, Temkin N, et al. Sertraline for major depression during the year following traumatic brain injury: a randomized control trial. J Head Trauma Rehabil. 2017;32:332-342. doi: 10.1097/HTR.0000000000000322

19. Ansari A, Jain A, Sharma A, et al. Role of sertraline in posttraumatic brain injury depression and quality of life in TBI. Asian J Neurosurg. 2014;9:182-188. doi: 10.4103/1793-5482.146597

20. Paraschakis A, Katsanos AH. Antidepressants for depression associated with traumatic brain injury: a meta-analytical study of randomized control trials. East Asian Arch Psychiatry. 2017;27:142-149.

21. Silverberg ND, Panenka WJ. Antidepressants for depression after concussion and traumatic brain injury are still best practice. BMC Psychiatry. 2019;19:100. doi: 10.1186/s12888-019-2076-9

References

1. CDC. Traumatic brain injury & concussion. 2020. Accessed May 19, 2022. www.cdc.gov/traumaticbraininjury/index.html

2. Finset A, Anderson S. Coping strategies in patients with acquired brain injury: relationships between coping, apathy, depression and lesion location. Brain Inj. 2009;14:887-905. doi: 10.1080/026990500445718

3. CDC. Gioia G, Collins M. Acute concussion evaluation. 2006. Accessed May 19, 2022. www.cdc.gov/headsup/pdfs/providers/ace_v2-a.pdf

4. Prigatano GP. Psychotherapy and the process of coping with a brain disorder. Oral presentation at: American Psychological Association annual convention. August 2015; Toronto, Canada.

5. Ouellet M, Beaulieu-Bonneau S, Savard J, Morin C. Insomnia and Fatigue After Traumatic Brain Injury: A CBT Approach to Assessment and Treatment. Elsevier Academic Press: 2019.

6. Lewis FD, Horn GH. Depression following traumatic brain injury: impact on post-hospital residential rehabilitation outcomes. NeuroRehabilitation. 2017;40:401-410. doi: 10.3233/NRE-161427

7. Barkil-Oteo A. Collaborative care for depression in primary care: how psychiatry could “troubleshoot” current treatments and practices. Yale J Bio Med. 2013;86:139-146.

8. Whelan-Goodinson R, Ponsford J, Johnston L, et al. Psychiatric disorders following traumatic brain injury: their nature and frequency. J Head Trauma Rehabil. 2009;24:324-332. doi: 10.1097/HTR.0b013e3181a712aa

9. Reeves RR, Laizer JT. Traumatic brain injury and suicide. J Psychosoc Nurs Ment Health Serv. 2012;50:32-38. doi: 10.3928/02793695-20120207-02

10. Simpson G, Tate R. Suicidality in people surviving a traumatic brain injury: Prevalence, risk factors and implications for clinical management. Brain Inj. 2007;21:1335-1351. doi: 10.1080/02699050701785542

11. Carroll E, Coetzer R. Identity, grief and self-awareness after traumatic brain injury. Neuropsychol Rehabil. 2011;21:289-305. doi: 10.1080/09602011.2011.555972

12. Salas CE, Casassus M, Rowlands L, et al. “Relating through sameness”: a qualitative study of friendship and social isolation in chronic traumatic brain injury. Neuropsychol Rehabil. 2018;28:1161-1178. doi: 10.1080/09602011.2016.1247730

13. Hinkebein JA, Stucky R. Coping with traumatic brain injury: existential challenges and managing hope. In: Martz E, Livneh H, eds. Coping with Chronic Illness and Disability: Theoretical, Empirical, and Clinical Aspects. Springer Science & Business Media; 2007:389-409.

14. Khoury S, Benavides R. Pain with traumatic brain injury and psychological disorders. Prog Neuropsychopharmacol and Biol Psychiatry. 2018;87:224-233. doi: 10.1016/j.pnpbp.2017.06.007

15. Bjork JM, Grant SJ. Does traumatic brain injury increase risk for substance abuse? J Neurotrauma. 2009;26:1077-1082. doi: 10.1089/neu.2008.0849

16. Unsworth DJ, Mathias JL. Traumatic brain injury and alcohol/substance abuse: a Bayesian meta-analysis comparing the outcomes of people with and without a history of abuse. J Clin Exp Neuropsychol. 2017,39:547-562. doi: 10.1080/13803395.2016.1248812

17. Beaulieu-Bonneau S, St-Onge F, Blackburn M, et al. Alcohol and drug use before and during the first year after traumatic brain injury. J Head Trauma Rehabil. 2018;33:E51-E60. doi: 10.1097/HTR.0000000000000341

18. Fann JR, Bombardier CH, Temkin N, et al. Sertraline for major depression during the year following traumatic brain injury: a randomized control trial. J Head Trauma Rehabil. 2017;32:332-342. doi: 10.1097/HTR.0000000000000322

19. Ansari A, Jain A, Sharma A, et al. Role of sertraline in posttraumatic brain injury depression and quality of life in TBI. Asian J Neurosurg. 2014;9:182-188. doi: 10.4103/1793-5482.146597

20. Paraschakis A, Katsanos AH. Antidepressants for depression associated with traumatic brain injury: a meta-analytical study of randomized control trials. East Asian Arch Psychiatry. 2017;27:142-149.

21. Silverberg ND, Panenka WJ. Antidepressants for depression after concussion and traumatic brain injury are still best practice. BMC Psychiatry. 2019;19:100. doi: 10.1186/s12888-019-2076-9

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Long-term erratic sleep may foretell cognitive problems

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– Erratic sleep patterns over years or even decades, along with a patient’s age and history of depression, may be harbingers of cognitive impairment later in life, an analysis of decades of data from a large sleep study has found.

“What we were a little surprised to find in this model was that sleep duration, whether short, long or average, was not significant, but the sleep variability – the change in sleep across those time measurements—was significantly impacting the incidence of cognitive impairment,” Samantha Keil, PhD, a postdoctoral fellow at the University of Washington, Seattle, reported at the at the annual meeting of the Associated Professional Sleep Societies.

Dr. Samantha Keil

The researchers analyzed sleep and cognition data collected over decades on 1,104 adults who participated in the Seattle Longitudinal Study. Study participants ranged from age 55 to over 100, with almost 80% of the study cohort aged 65 and older.

The Seattle Longitudinal Study first started gathering data in the 1950s. Participants in the study cohort underwent an extensive cognitive battery, which was added to the study in 1984 and gathered every 5-7 years, and completed a health behavioral questionnaire (HBQ), which was added in 1993 and administered every 3-5 years, Dr. Keil said. The HBQ included a question on average nightly sleep duration.

The study used a multivariable Cox proportional hazard regression model to evaluate the overall effect of average sleep duration and changes in sleep duration over time on cognitive impairment. Covariates used in the model included apolipoprotein E4 (APOE4) genotype, gender, years of education, ethnicity, and depression.

Dr. Keil said the model found, as expected, that the  demographic variables of education, APOE status, and depression were significantly associated with cognitive impairment (hazard ratios of 1.11; 95% confidence interval [CI], 1.02-1.21; P = .01; and 2.08; 95% CI, 1.31-3.31; P < .005; and 1.08; 95% CI, 1.04-1.13; P < .005, respectively). Importantly, when evaluating the duration, change and variability of sleep, the researchers found that increased sleep variability was significantly associated with cognitive impairment (HR, 3.15; 95% CI, 1.69-5.87; P < .005).  

Under this analysis, “sleep variability over time and not median sleep duration was associated with cognitive impairment,” she said. When sleep variability was added into the model, it improved the concordance score – a value that reflects the ability of a model to predict an outcome better than random chance – from .63 to .73 (a value of .5 indicates the model is no better at predicting an outcome than a random chance model; a value of .7 or greater indicates a good model).

Identification of sleep variability as a sleep pattern of interest in longitudinal studies is important, Dr. Keil said, because simply evaluating mean or median sleep duration across time might not account for a subject’s variable sleep phenotype. Most importantly, further evaluation of sleep variability with a linear regression prediction analysis (F statistic 8.796, P < .0001, adjusted R-squared .235) found that increased age, depression, and sleep variability significantly predicted cognitive impairment 10 years downstream. “Longitudinal sleep variability is perhaps for the first time being reported as significantly associated with the development of downstream cognitive impairment,” Dr. Keil said.

What makes this study unique, Dr. Keil said in an interview, is that it used self-reported longitudinal data gathered at 3- to 5-year intervals for up to 25 years, allowing for the assessment of variation of sleep duration across this entire time frame. “If you could use that shift in sleep duration as a point of therapeutic intervention, that would be really exciting,” she said.

Future research will evaluate how sleep variability and cognitive function are impacted by other variables gathered in the Seattle Longitudinal Study over the years, including factors such as diabetes and hypertension status, diet, alcohol and tobacco use, and marital and family status. Follow-up studies will be investigating the impact of sleep variability on neuropathologic disease progression and lymphatic system impairment, Dr. Keil said.
 

 

 

A newer approach

By linking sleep variability and daytime functioning, the study employs a “newer approach,” said Joseph M. Dzierzewski, PhD, director of behavioral medicine concentration in the department of psychology at Virginia Commonwealth University in Richmond. “While some previous work has examined night-to-night fluctuation in various sleep characteristics and cognitive functioning, what differentiates the present study from these previous works is the duration of the investigation,” he said. The “richness of data” in the Seattle Longitudinal Study and how it tracks sleep and cognition over years make it “quite unique and novel.”

Dr. Joseph M. Dzierzewski

Future studies, he said, should be deliberate in how they evaluate sleep and neurocognitive function across years. “Disentangling short-term moment-to-moment and day-to-day fluctuation, which may be more reversible in nature, from long-term, enduring month-to-month or year-to-year fluctuation, which may be more permanent, will be important for continuing to advance our understanding of these complex phenomena,” Dr. Dzierzewski said. “An additional important area of future investigation would be to continue the hunt for a common biological factor underpinning both sleep variability and Alzheimer’s disease.” That, he said, may help identify potential intervention targets.

Dr. Keil and Dr. Dzierzewski have no relevant disclosures.

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– Erratic sleep patterns over years or even decades, along with a patient’s age and history of depression, may be harbingers of cognitive impairment later in life, an analysis of decades of data from a large sleep study has found.

“What we were a little surprised to find in this model was that sleep duration, whether short, long or average, was not significant, but the sleep variability – the change in sleep across those time measurements—was significantly impacting the incidence of cognitive impairment,” Samantha Keil, PhD, a postdoctoral fellow at the University of Washington, Seattle, reported at the at the annual meeting of the Associated Professional Sleep Societies.

Dr. Samantha Keil

The researchers analyzed sleep and cognition data collected over decades on 1,104 adults who participated in the Seattle Longitudinal Study. Study participants ranged from age 55 to over 100, with almost 80% of the study cohort aged 65 and older.

The Seattle Longitudinal Study first started gathering data in the 1950s. Participants in the study cohort underwent an extensive cognitive battery, which was added to the study in 1984 and gathered every 5-7 years, and completed a health behavioral questionnaire (HBQ), which was added in 1993 and administered every 3-5 years, Dr. Keil said. The HBQ included a question on average nightly sleep duration.

The study used a multivariable Cox proportional hazard regression model to evaluate the overall effect of average sleep duration and changes in sleep duration over time on cognitive impairment. Covariates used in the model included apolipoprotein E4 (APOE4) genotype, gender, years of education, ethnicity, and depression.

Dr. Keil said the model found, as expected, that the  demographic variables of education, APOE status, and depression were significantly associated with cognitive impairment (hazard ratios of 1.11; 95% confidence interval [CI], 1.02-1.21; P = .01; and 2.08; 95% CI, 1.31-3.31; P < .005; and 1.08; 95% CI, 1.04-1.13; P < .005, respectively). Importantly, when evaluating the duration, change and variability of sleep, the researchers found that increased sleep variability was significantly associated with cognitive impairment (HR, 3.15; 95% CI, 1.69-5.87; P < .005).  

Under this analysis, “sleep variability over time and not median sleep duration was associated with cognitive impairment,” she said. When sleep variability was added into the model, it improved the concordance score – a value that reflects the ability of a model to predict an outcome better than random chance – from .63 to .73 (a value of .5 indicates the model is no better at predicting an outcome than a random chance model; a value of .7 or greater indicates a good model).

Identification of sleep variability as a sleep pattern of interest in longitudinal studies is important, Dr. Keil said, because simply evaluating mean or median sleep duration across time might not account for a subject’s variable sleep phenotype. Most importantly, further evaluation of sleep variability with a linear regression prediction analysis (F statistic 8.796, P < .0001, adjusted R-squared .235) found that increased age, depression, and sleep variability significantly predicted cognitive impairment 10 years downstream. “Longitudinal sleep variability is perhaps for the first time being reported as significantly associated with the development of downstream cognitive impairment,” Dr. Keil said.

What makes this study unique, Dr. Keil said in an interview, is that it used self-reported longitudinal data gathered at 3- to 5-year intervals for up to 25 years, allowing for the assessment of variation of sleep duration across this entire time frame. “If you could use that shift in sleep duration as a point of therapeutic intervention, that would be really exciting,” she said.

Future research will evaluate how sleep variability and cognitive function are impacted by other variables gathered in the Seattle Longitudinal Study over the years, including factors such as diabetes and hypertension status, diet, alcohol and tobacco use, and marital and family status. Follow-up studies will be investigating the impact of sleep variability on neuropathologic disease progression and lymphatic system impairment, Dr. Keil said.
 

 

 

A newer approach

By linking sleep variability and daytime functioning, the study employs a “newer approach,” said Joseph M. Dzierzewski, PhD, director of behavioral medicine concentration in the department of psychology at Virginia Commonwealth University in Richmond. “While some previous work has examined night-to-night fluctuation in various sleep characteristics and cognitive functioning, what differentiates the present study from these previous works is the duration of the investigation,” he said. The “richness of data” in the Seattle Longitudinal Study and how it tracks sleep and cognition over years make it “quite unique and novel.”

Dr. Joseph M. Dzierzewski

Future studies, he said, should be deliberate in how they evaluate sleep and neurocognitive function across years. “Disentangling short-term moment-to-moment and day-to-day fluctuation, which may be more reversible in nature, from long-term, enduring month-to-month or year-to-year fluctuation, which may be more permanent, will be important for continuing to advance our understanding of these complex phenomena,” Dr. Dzierzewski said. “An additional important area of future investigation would be to continue the hunt for a common biological factor underpinning both sleep variability and Alzheimer’s disease.” That, he said, may help identify potential intervention targets.

Dr. Keil and Dr. Dzierzewski have no relevant disclosures.

– Erratic sleep patterns over years or even decades, along with a patient’s age and history of depression, may be harbingers of cognitive impairment later in life, an analysis of decades of data from a large sleep study has found.

“What we were a little surprised to find in this model was that sleep duration, whether short, long or average, was not significant, but the sleep variability – the change in sleep across those time measurements—was significantly impacting the incidence of cognitive impairment,” Samantha Keil, PhD, a postdoctoral fellow at the University of Washington, Seattle, reported at the at the annual meeting of the Associated Professional Sleep Societies.

Dr. Samantha Keil

The researchers analyzed sleep and cognition data collected over decades on 1,104 adults who participated in the Seattle Longitudinal Study. Study participants ranged from age 55 to over 100, with almost 80% of the study cohort aged 65 and older.

The Seattle Longitudinal Study first started gathering data in the 1950s. Participants in the study cohort underwent an extensive cognitive battery, which was added to the study in 1984 and gathered every 5-7 years, and completed a health behavioral questionnaire (HBQ), which was added in 1993 and administered every 3-5 years, Dr. Keil said. The HBQ included a question on average nightly sleep duration.

The study used a multivariable Cox proportional hazard regression model to evaluate the overall effect of average sleep duration and changes in sleep duration over time on cognitive impairment. Covariates used in the model included apolipoprotein E4 (APOE4) genotype, gender, years of education, ethnicity, and depression.

Dr. Keil said the model found, as expected, that the  demographic variables of education, APOE status, and depression were significantly associated with cognitive impairment (hazard ratios of 1.11; 95% confidence interval [CI], 1.02-1.21; P = .01; and 2.08; 95% CI, 1.31-3.31; P < .005; and 1.08; 95% CI, 1.04-1.13; P < .005, respectively). Importantly, when evaluating the duration, change and variability of sleep, the researchers found that increased sleep variability was significantly associated with cognitive impairment (HR, 3.15; 95% CI, 1.69-5.87; P < .005).  

Under this analysis, “sleep variability over time and not median sleep duration was associated with cognitive impairment,” she said. When sleep variability was added into the model, it improved the concordance score – a value that reflects the ability of a model to predict an outcome better than random chance – from .63 to .73 (a value of .5 indicates the model is no better at predicting an outcome than a random chance model; a value of .7 or greater indicates a good model).

Identification of sleep variability as a sleep pattern of interest in longitudinal studies is important, Dr. Keil said, because simply evaluating mean or median sleep duration across time might not account for a subject’s variable sleep phenotype. Most importantly, further evaluation of sleep variability with a linear regression prediction analysis (F statistic 8.796, P < .0001, adjusted R-squared .235) found that increased age, depression, and sleep variability significantly predicted cognitive impairment 10 years downstream. “Longitudinal sleep variability is perhaps for the first time being reported as significantly associated with the development of downstream cognitive impairment,” Dr. Keil said.

What makes this study unique, Dr. Keil said in an interview, is that it used self-reported longitudinal data gathered at 3- to 5-year intervals for up to 25 years, allowing for the assessment of variation of sleep duration across this entire time frame. “If you could use that shift in sleep duration as a point of therapeutic intervention, that would be really exciting,” she said.

Future research will evaluate how sleep variability and cognitive function are impacted by other variables gathered in the Seattle Longitudinal Study over the years, including factors such as diabetes and hypertension status, diet, alcohol and tobacco use, and marital and family status. Follow-up studies will be investigating the impact of sleep variability on neuropathologic disease progression and lymphatic system impairment, Dr. Keil said.
 

 

 

A newer approach

By linking sleep variability and daytime functioning, the study employs a “newer approach,” said Joseph M. Dzierzewski, PhD, director of behavioral medicine concentration in the department of psychology at Virginia Commonwealth University in Richmond. “While some previous work has examined night-to-night fluctuation in various sleep characteristics and cognitive functioning, what differentiates the present study from these previous works is the duration of the investigation,” he said. The “richness of data” in the Seattle Longitudinal Study and how it tracks sleep and cognition over years make it “quite unique and novel.”

Dr. Joseph M. Dzierzewski

Future studies, he said, should be deliberate in how they evaluate sleep and neurocognitive function across years. “Disentangling short-term moment-to-moment and day-to-day fluctuation, which may be more reversible in nature, from long-term, enduring month-to-month or year-to-year fluctuation, which may be more permanent, will be important for continuing to advance our understanding of these complex phenomena,” Dr. Dzierzewski said. “An additional important area of future investigation would be to continue the hunt for a common biological factor underpinning both sleep variability and Alzheimer’s disease.” That, he said, may help identify potential intervention targets.

Dr. Keil and Dr. Dzierzewski have no relevant disclosures.

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Top children’s hospitals report includes rankings by region to aid families

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Boston Children’s Hospital led the list of 10 children’s hospitals across the United States named to the Best Children’s Hospitals Honor Roll for 2022-2023, issued by U.S. News & World Report.

The 16th annual Best Children’s Hospitals rankings were published on June 14.

Rounding out the top 10 on the Honor Roll were Children’s Hospital of Philadelphia; Texas Children’s Hospital, Houston; Cincinnati Children’s Hospital Medical Center; Children’s Hospital Los Angeles; Children’s Hospital Colorado, Aurora; Children’s National Hospital, Washington, D.C.; Nationwide Children’s Hospital, Columbus, Ohio; UPMC Children’s Hospital of Pittsburgh; and Lucile Packard Children’s Hospital, Palo Alto, Calif.

The Honor Roll hospitals were chosen based on being highly ranked in multiple specialties, such as cancer, cardiology, and orthopedics.

For the second time, the rankings included top hospitals not only in each state, but also in seven multistate regions. The goal of the regional rankings is to help families identify the high-quality pediatric care centers closest to them, according to the U.S. News press release accompanying the rankings.

The top-ranked hospitals for the seven regions were Children’s Hospital Los Angeles (Pacific); Children’s Hospital Colorado, Aurora (Rocky Mountains); Texas Children’s Hospital, Houston (Southwest); Children’s Healthcare of Atlanta and Monroe Carell Jr. Children’s Hospital at Vanderbilt, Nashville, Tenn. (tie for Southeast); Cincinnati Children’s Hospital Medical Center (Midwest); Children’s Hospital of Philadelphia (Mid-Atlantic); and Boston Children’s Hospital (New England).

The 2022-2023 U.S. News rankings identify the top 50 centers across the United States in each of 10 pediatric specialties: cancer, cardiology/ heart surgery, diabetes/endocrinology, gastroenterology/gastrointestinal surgery, neonatology, nephrology, neurology/neurosurgery, orthopedics, pulmonology/lung surgery, and urology.

For the 2022-2023 rankings, U.S. News requested medical data and other information from 200 pediatric facilities across the United States; 119 responded and were evaluated in at least one specialty, and 90 were ranked in one or more specialties.

Approximately one-third of each hospital’s score was based on outcomes such as survival, infections, and surgical complications (although outcomes counted for 38.3% of scores for cardiology and heart surgery). Approximately 13% of the score was based on reputation/expert opinion, determined by an annual survey of experts in the 10 specialties (8% of scores for cardiology and heart surgery), and nearly 60% was based on patient safety, excellence, and family centeredness, according to a statement from U.S. News.

“The Best Children’s Hospitals rankings spotlight hospitals that excel in specialized care, offering parents and their pediatricians a helpful starting point in choosing the facility that’s best for their child,” said Ben Harder, chief of health analysis and managing editor at U.S. News, in a press release accompanying the rankings.

Also new to the ranking system this year was a measure to assess hospitals’ efforts to improve equity of care and to promote diversity and inclusion, which accounts for 2% of each hospital’s score in each specialty, according to U.S. News.

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Boston Children’s Hospital led the list of 10 children’s hospitals across the United States named to the Best Children’s Hospitals Honor Roll for 2022-2023, issued by U.S. News & World Report.

The 16th annual Best Children’s Hospitals rankings were published on June 14.

Rounding out the top 10 on the Honor Roll were Children’s Hospital of Philadelphia; Texas Children’s Hospital, Houston; Cincinnati Children’s Hospital Medical Center; Children’s Hospital Los Angeles; Children’s Hospital Colorado, Aurora; Children’s National Hospital, Washington, D.C.; Nationwide Children’s Hospital, Columbus, Ohio; UPMC Children’s Hospital of Pittsburgh; and Lucile Packard Children’s Hospital, Palo Alto, Calif.

The Honor Roll hospitals were chosen based on being highly ranked in multiple specialties, such as cancer, cardiology, and orthopedics.

For the second time, the rankings included top hospitals not only in each state, but also in seven multistate regions. The goal of the regional rankings is to help families identify the high-quality pediatric care centers closest to them, according to the U.S. News press release accompanying the rankings.

The top-ranked hospitals for the seven regions were Children’s Hospital Los Angeles (Pacific); Children’s Hospital Colorado, Aurora (Rocky Mountains); Texas Children’s Hospital, Houston (Southwest); Children’s Healthcare of Atlanta and Monroe Carell Jr. Children’s Hospital at Vanderbilt, Nashville, Tenn. (tie for Southeast); Cincinnati Children’s Hospital Medical Center (Midwest); Children’s Hospital of Philadelphia (Mid-Atlantic); and Boston Children’s Hospital (New England).

The 2022-2023 U.S. News rankings identify the top 50 centers across the United States in each of 10 pediatric specialties: cancer, cardiology/ heart surgery, diabetes/endocrinology, gastroenterology/gastrointestinal surgery, neonatology, nephrology, neurology/neurosurgery, orthopedics, pulmonology/lung surgery, and urology.

For the 2022-2023 rankings, U.S. News requested medical data and other information from 200 pediatric facilities across the United States; 119 responded and were evaluated in at least one specialty, and 90 were ranked in one or more specialties.

Approximately one-third of each hospital’s score was based on outcomes such as survival, infections, and surgical complications (although outcomes counted for 38.3% of scores for cardiology and heart surgery). Approximately 13% of the score was based on reputation/expert opinion, determined by an annual survey of experts in the 10 specialties (8% of scores for cardiology and heart surgery), and nearly 60% was based on patient safety, excellence, and family centeredness, according to a statement from U.S. News.

“The Best Children’s Hospitals rankings spotlight hospitals that excel in specialized care, offering parents and their pediatricians a helpful starting point in choosing the facility that’s best for their child,” said Ben Harder, chief of health analysis and managing editor at U.S. News, in a press release accompanying the rankings.

Also new to the ranking system this year was a measure to assess hospitals’ efforts to improve equity of care and to promote diversity and inclusion, which accounts for 2% of each hospital’s score in each specialty, according to U.S. News.

Boston Children’s Hospital led the list of 10 children’s hospitals across the United States named to the Best Children’s Hospitals Honor Roll for 2022-2023, issued by U.S. News & World Report.

The 16th annual Best Children’s Hospitals rankings were published on June 14.

Rounding out the top 10 on the Honor Roll were Children’s Hospital of Philadelphia; Texas Children’s Hospital, Houston; Cincinnati Children’s Hospital Medical Center; Children’s Hospital Los Angeles; Children’s Hospital Colorado, Aurora; Children’s National Hospital, Washington, D.C.; Nationwide Children’s Hospital, Columbus, Ohio; UPMC Children’s Hospital of Pittsburgh; and Lucile Packard Children’s Hospital, Palo Alto, Calif.

The Honor Roll hospitals were chosen based on being highly ranked in multiple specialties, such as cancer, cardiology, and orthopedics.

For the second time, the rankings included top hospitals not only in each state, but also in seven multistate regions. The goal of the regional rankings is to help families identify the high-quality pediatric care centers closest to them, according to the U.S. News press release accompanying the rankings.

The top-ranked hospitals for the seven regions were Children’s Hospital Los Angeles (Pacific); Children’s Hospital Colorado, Aurora (Rocky Mountains); Texas Children’s Hospital, Houston (Southwest); Children’s Healthcare of Atlanta and Monroe Carell Jr. Children’s Hospital at Vanderbilt, Nashville, Tenn. (tie for Southeast); Cincinnati Children’s Hospital Medical Center (Midwest); Children’s Hospital of Philadelphia (Mid-Atlantic); and Boston Children’s Hospital (New England).

The 2022-2023 U.S. News rankings identify the top 50 centers across the United States in each of 10 pediatric specialties: cancer, cardiology/ heart surgery, diabetes/endocrinology, gastroenterology/gastrointestinal surgery, neonatology, nephrology, neurology/neurosurgery, orthopedics, pulmonology/lung surgery, and urology.

For the 2022-2023 rankings, U.S. News requested medical data and other information from 200 pediatric facilities across the United States; 119 responded and were evaluated in at least one specialty, and 90 were ranked in one or more specialties.

Approximately one-third of each hospital’s score was based on outcomes such as survival, infections, and surgical complications (although outcomes counted for 38.3% of scores for cardiology and heart surgery). Approximately 13% of the score was based on reputation/expert opinion, determined by an annual survey of experts in the 10 specialties (8% of scores for cardiology and heart surgery), and nearly 60% was based on patient safety, excellence, and family centeredness, according to a statement from U.S. News.

“The Best Children’s Hospitals rankings spotlight hospitals that excel in specialized care, offering parents and their pediatricians a helpful starting point in choosing the facility that’s best for their child,” said Ben Harder, chief of health analysis and managing editor at U.S. News, in a press release accompanying the rankings.

Also new to the ranking system this year was a measure to assess hospitals’ efforts to improve equity of care and to promote diversity and inclusion, which accounts for 2% of each hospital’s score in each specialty, according to U.S. News.

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New onset-depression after RA diagnosis raises mortality risk ‘more than sixfold’

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The development of depression after a rheumatoid arthritis diagnosis increased the risk for death “more than sixfold” when compared with having no depression at diagnosis, according to Danish researchers.

Cumulative mortality at 10 years was approximately 37% in patients with comorbid RA and depression versus around 13.5% of RA patients with no depression, Jens Kristian Pedersen, MD, PhD, of Odense (Denmark) University Hospital–Svendborg Hospital and the department of clinical research at the University of Southern Denmark, also in Odense, reported at the annual European Congress of Rheumatology.

Dr. Jens Kristian Pedersen

“According to [antidepressant] exposure status, the cumulative mortality followed two clearly different paths,” Dr. Pedersen said. “The mortality curves separated early and already within the first and second year of follow-up.”
 

RA, depression, and mortality

Rates of depression in patients with RA are high, Dr. Pedersen said, and while it’s previously been reported that their coexistence can increase mortality, this is the first time that the link has been investigated in a population newly diagnosed with RA.

In this study, Dr. Pedersen and collaborators wanted to look at the association in incident RA and defined depression as the first filling of an antidepressant prescription.

“Although antidepressants are used for different indications, we have recently described that in RA the most frequent indication for filling antidepressants is depression,” he explained. Moreover, that research found that “the frequency of filling coincides with the occurrence of depressive disorder previously reported in the scientific literature.”
 

Data sourced from multiple Danish registers

To examine the mortality risk associated with newly diagnosed RA and new-onset depression, Dr. Pedersen described how five different Danish registers were used.

First, data from the DANBIO register were used to identify patients with incident RA living in Denmark over a 10-year period ending in December 2018. Although perhaps widely known as a biologics register, DANBIO is required by the Danish National Board of Health to collect information on all patients with RA, regardless of their treatment.

Next, the Danish National Prescription Register and Danish National Patient Register were consulted to obtain data on patients who had a first prescription for antidepressant treatment and information on those who developed a diagnosis of depression. Demographic, vital status, and socioeconomic data were collated from the Danish Civil Registration System and Statistics Denmark databases.

To be sure they were looking at incident cases of RA and new cases of depression, the researchers excluded anyone with an existing prescription of antidepressants or methotrexate, or who had a confirmed diagnosis of either disorder 3 years prior to the index date of Jan. 1, 2008.

This meant that, from a total population of 18,000 patients in the DANBIO database, there were just over 11,000 who could be included in the analyses.

Overall, the median age at RA diagnosis was 61 years, two-thirds were female, and two-thirds had seropositive disease.

New-onset depression in incident RA

“During follow-up, about 10% filled a prescription of antidepressants,” said Dr. Pedersen, adding that there were 671 deaths, representing around 57,000 person-years at risk.

“The majority died from natural causes,” he said, although the cause of death was unknown in 30% of cases.

Comparing those who did and did not have a prescription for antidepressants, there were some differences in the age at which death occurred, the percentage of females to males, the presence of other comorbidities, and levels of higher education and income. These were all adjusted for in the analyses.

Adjusted hazard rate ratios were calculated to look at the mortality risk in patients who had antidepressant exposure. The highest HRR for mortality with antidepressant use was seen in patients aged 55 years or younger at 6.66, with the next highest HRRs being for male gender (3.70) and seropositive RA (3.45).

But HRRs for seronegative RA, female gender, and age 55-70 years or older than 75 years were all still around 3.0.
 

Depression definition questioned

“My only concern is about the definition of depression in your analysis,” said a member of the audience at the congress.

“You used antidepressant use as a proxy of depression diagnosis, but it might be that most or many patients have taken [medication] like duloxetine for pain control, and you are just seeing higher disease activity and more aggressive RA.”

Dr. Pedersen responded: “After the EULAR 2022 submission deadline, we reanalyzed our data using two other measures of depression.

“First, we use treatment with antidepressants with a positive indication of depression, according to the prescribing physician, and secondly, we used first diagnosis with depression according to ICD-10 Code F32 – ‘depressive episode after discharge from hospital as an outpatient,’ ” he said.

“All definitions end up with a hazard rate ratio of about three. So, in my opinion, it doesn’t matter whether you focus on one measure of depression or the other.”

David Isenberg, MD, FRCP, professor of rheumatology at University College London, wanted to know more about the antecedent history of depression and whether people who had been depressed maybe a decade or 2 decades before, were more likely to get RA.

That calculation has not been done, Dr. Pedersen said, adding that the study also can’t account for people who may have had recurrent depression. Depression treatment guidelines often recommend nonpharmacologic intervention in the first instance, “so we do not necessarily get the right picture of recurrent depression if we look further back.”

Pointing out that the sixfold increase in mortality was impressive, another delegate asked about whether it was because of a higher disease activity or joint damage and if the mortality risk might be lower in patients who are in remission.

“We don’t know that yet,” Dr. Pedersen answered. “We haven’t done the calculations, but there is the issue of residual confounding if we don’t take all relevant covariates into account. So, we need to do that calculation as well.”

The study was supported by the Danish Rheumatism Association. Dr. Pedersen had no conflicts of interest to disclose.
 

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The development of depression after a rheumatoid arthritis diagnosis increased the risk for death “more than sixfold” when compared with having no depression at diagnosis, according to Danish researchers.

Cumulative mortality at 10 years was approximately 37% in patients with comorbid RA and depression versus around 13.5% of RA patients with no depression, Jens Kristian Pedersen, MD, PhD, of Odense (Denmark) University Hospital–Svendborg Hospital and the department of clinical research at the University of Southern Denmark, also in Odense, reported at the annual European Congress of Rheumatology.

Dr. Jens Kristian Pedersen

“According to [antidepressant] exposure status, the cumulative mortality followed two clearly different paths,” Dr. Pedersen said. “The mortality curves separated early and already within the first and second year of follow-up.”
 

RA, depression, and mortality

Rates of depression in patients with RA are high, Dr. Pedersen said, and while it’s previously been reported that their coexistence can increase mortality, this is the first time that the link has been investigated in a population newly diagnosed with RA.

In this study, Dr. Pedersen and collaborators wanted to look at the association in incident RA and defined depression as the first filling of an antidepressant prescription.

“Although antidepressants are used for different indications, we have recently described that in RA the most frequent indication for filling antidepressants is depression,” he explained. Moreover, that research found that “the frequency of filling coincides with the occurrence of depressive disorder previously reported in the scientific literature.”
 

Data sourced from multiple Danish registers

To examine the mortality risk associated with newly diagnosed RA and new-onset depression, Dr. Pedersen described how five different Danish registers were used.

First, data from the DANBIO register were used to identify patients with incident RA living in Denmark over a 10-year period ending in December 2018. Although perhaps widely known as a biologics register, DANBIO is required by the Danish National Board of Health to collect information on all patients with RA, regardless of their treatment.

Next, the Danish National Prescription Register and Danish National Patient Register were consulted to obtain data on patients who had a first prescription for antidepressant treatment and information on those who developed a diagnosis of depression. Demographic, vital status, and socioeconomic data were collated from the Danish Civil Registration System and Statistics Denmark databases.

To be sure they were looking at incident cases of RA and new cases of depression, the researchers excluded anyone with an existing prescription of antidepressants or methotrexate, or who had a confirmed diagnosis of either disorder 3 years prior to the index date of Jan. 1, 2008.

This meant that, from a total population of 18,000 patients in the DANBIO database, there were just over 11,000 who could be included in the analyses.

Overall, the median age at RA diagnosis was 61 years, two-thirds were female, and two-thirds had seropositive disease.

New-onset depression in incident RA

“During follow-up, about 10% filled a prescription of antidepressants,” said Dr. Pedersen, adding that there were 671 deaths, representing around 57,000 person-years at risk.

“The majority died from natural causes,” he said, although the cause of death was unknown in 30% of cases.

Comparing those who did and did not have a prescription for antidepressants, there were some differences in the age at which death occurred, the percentage of females to males, the presence of other comorbidities, and levels of higher education and income. These were all adjusted for in the analyses.

Adjusted hazard rate ratios were calculated to look at the mortality risk in patients who had antidepressant exposure. The highest HRR for mortality with antidepressant use was seen in patients aged 55 years or younger at 6.66, with the next highest HRRs being for male gender (3.70) and seropositive RA (3.45).

But HRRs for seronegative RA, female gender, and age 55-70 years or older than 75 years were all still around 3.0.
 

Depression definition questioned

“My only concern is about the definition of depression in your analysis,” said a member of the audience at the congress.

“You used antidepressant use as a proxy of depression diagnosis, but it might be that most or many patients have taken [medication] like duloxetine for pain control, and you are just seeing higher disease activity and more aggressive RA.”

Dr. Pedersen responded: “After the EULAR 2022 submission deadline, we reanalyzed our data using two other measures of depression.

“First, we use treatment with antidepressants with a positive indication of depression, according to the prescribing physician, and secondly, we used first diagnosis with depression according to ICD-10 Code F32 – ‘depressive episode after discharge from hospital as an outpatient,’ ” he said.

“All definitions end up with a hazard rate ratio of about three. So, in my opinion, it doesn’t matter whether you focus on one measure of depression or the other.”

David Isenberg, MD, FRCP, professor of rheumatology at University College London, wanted to know more about the antecedent history of depression and whether people who had been depressed maybe a decade or 2 decades before, were more likely to get RA.

That calculation has not been done, Dr. Pedersen said, adding that the study also can’t account for people who may have had recurrent depression. Depression treatment guidelines often recommend nonpharmacologic intervention in the first instance, “so we do not necessarily get the right picture of recurrent depression if we look further back.”

Pointing out that the sixfold increase in mortality was impressive, another delegate asked about whether it was because of a higher disease activity or joint damage and if the mortality risk might be lower in patients who are in remission.

“We don’t know that yet,” Dr. Pedersen answered. “We haven’t done the calculations, but there is the issue of residual confounding if we don’t take all relevant covariates into account. So, we need to do that calculation as well.”

The study was supported by the Danish Rheumatism Association. Dr. Pedersen had no conflicts of interest to disclose.
 

The development of depression after a rheumatoid arthritis diagnosis increased the risk for death “more than sixfold” when compared with having no depression at diagnosis, according to Danish researchers.

Cumulative mortality at 10 years was approximately 37% in patients with comorbid RA and depression versus around 13.5% of RA patients with no depression, Jens Kristian Pedersen, MD, PhD, of Odense (Denmark) University Hospital–Svendborg Hospital and the department of clinical research at the University of Southern Denmark, also in Odense, reported at the annual European Congress of Rheumatology.

Dr. Jens Kristian Pedersen

“According to [antidepressant] exposure status, the cumulative mortality followed two clearly different paths,” Dr. Pedersen said. “The mortality curves separated early and already within the first and second year of follow-up.”
 

RA, depression, and mortality

Rates of depression in patients with RA are high, Dr. Pedersen said, and while it’s previously been reported that their coexistence can increase mortality, this is the first time that the link has been investigated in a population newly diagnosed with RA.

In this study, Dr. Pedersen and collaborators wanted to look at the association in incident RA and defined depression as the first filling of an antidepressant prescription.

“Although antidepressants are used for different indications, we have recently described that in RA the most frequent indication for filling antidepressants is depression,” he explained. Moreover, that research found that “the frequency of filling coincides with the occurrence of depressive disorder previously reported in the scientific literature.”
 

Data sourced from multiple Danish registers

To examine the mortality risk associated with newly diagnosed RA and new-onset depression, Dr. Pedersen described how five different Danish registers were used.

First, data from the DANBIO register were used to identify patients with incident RA living in Denmark over a 10-year period ending in December 2018. Although perhaps widely known as a biologics register, DANBIO is required by the Danish National Board of Health to collect information on all patients with RA, regardless of their treatment.

Next, the Danish National Prescription Register and Danish National Patient Register were consulted to obtain data on patients who had a first prescription for antidepressant treatment and information on those who developed a diagnosis of depression. Demographic, vital status, and socioeconomic data were collated from the Danish Civil Registration System and Statistics Denmark databases.

To be sure they were looking at incident cases of RA and new cases of depression, the researchers excluded anyone with an existing prescription of antidepressants or methotrexate, or who had a confirmed diagnosis of either disorder 3 years prior to the index date of Jan. 1, 2008.

This meant that, from a total population of 18,000 patients in the DANBIO database, there were just over 11,000 who could be included in the analyses.

Overall, the median age at RA diagnosis was 61 years, two-thirds were female, and two-thirds had seropositive disease.

New-onset depression in incident RA

“During follow-up, about 10% filled a prescription of antidepressants,” said Dr. Pedersen, adding that there were 671 deaths, representing around 57,000 person-years at risk.

“The majority died from natural causes,” he said, although the cause of death was unknown in 30% of cases.

Comparing those who did and did not have a prescription for antidepressants, there were some differences in the age at which death occurred, the percentage of females to males, the presence of other comorbidities, and levels of higher education and income. These were all adjusted for in the analyses.

Adjusted hazard rate ratios were calculated to look at the mortality risk in patients who had antidepressant exposure. The highest HRR for mortality with antidepressant use was seen in patients aged 55 years or younger at 6.66, with the next highest HRRs being for male gender (3.70) and seropositive RA (3.45).

But HRRs for seronegative RA, female gender, and age 55-70 years or older than 75 years were all still around 3.0.
 

Depression definition questioned

“My only concern is about the definition of depression in your analysis,” said a member of the audience at the congress.

“You used antidepressant use as a proxy of depression diagnosis, but it might be that most or many patients have taken [medication] like duloxetine for pain control, and you are just seeing higher disease activity and more aggressive RA.”

Dr. Pedersen responded: “After the EULAR 2022 submission deadline, we reanalyzed our data using two other measures of depression.

“First, we use treatment with antidepressants with a positive indication of depression, according to the prescribing physician, and secondly, we used first diagnosis with depression according to ICD-10 Code F32 – ‘depressive episode after discharge from hospital as an outpatient,’ ” he said.

“All definitions end up with a hazard rate ratio of about three. So, in my opinion, it doesn’t matter whether you focus on one measure of depression or the other.”

David Isenberg, MD, FRCP, professor of rheumatology at University College London, wanted to know more about the antecedent history of depression and whether people who had been depressed maybe a decade or 2 decades before, were more likely to get RA.

That calculation has not been done, Dr. Pedersen said, adding that the study also can’t account for people who may have had recurrent depression. Depression treatment guidelines often recommend nonpharmacologic intervention in the first instance, “so we do not necessarily get the right picture of recurrent depression if we look further back.”

Pointing out that the sixfold increase in mortality was impressive, another delegate asked about whether it was because of a higher disease activity or joint damage and if the mortality risk might be lower in patients who are in remission.

“We don’t know that yet,” Dr. Pedersen answered. “We haven’t done the calculations, but there is the issue of residual confounding if we don’t take all relevant covariates into account. So, we need to do that calculation as well.”

The study was supported by the Danish Rheumatism Association. Dr. Pedersen had no conflicts of interest to disclose.
 

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FROM THE EULAR 2022 CONGRESS

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Migraine relief in 20 minutes using eyedrops?

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Migraine relief in 20 minutes using eyedrops?

ILLUSTRATIVE CASE

A 35-year-old woman with no significant past medical history presents for follow-up of migraine. At the previous visit, she was prescribed sumatriptan for abortive therapy. However, she has been having significant adverse effect intolerance from the oral formulation, and the nasal formulation is cost prohibitive. What can you recommend as an alternative abortive therapy for this patient’s migraine?

Migraine is among the most common causes of disability worldwide, affecting more than 10% of the global population.2 The prevalence of migraine is between 2.6% and 21.7% across multiple countries.3 On a scale of 0% to 100%, disability caused by migraine is 43.3%, comparable to the first 2 days after an acute myocardial infarction (42.2%) and severe dementia (43.8%).4

Abortive therapy for acute migraine includes nonsteroidal anti-inflammatory drugs (NSAIDs), triptans, ergots, and antiemetics. However, these options are predominantly administered by mouth; non-oral formulations tend to be cost prohibitive and difficult to obtain.

Nausea and vomiting, common components of migraine (that are included in International Classification of Headache Disorders, 3rd edition [ICHD-3] criteria for migraine5) present obstacles to effective oral administration if experienced by the patient. In addition, for migraine refractory to first-line treatments, abortive options—including the recently approved calcitonin gene-related peptide (CGRP) receptor antagonists ubrogepant and rimegepant—are also cost prohibitive, potentially costing more than $1000 for 10 tablets (100 mg), depending on insurance coverage.6

Two oral beta-blockers, propranolol and timolol, are approved by the US Food and Drug Administration for migraine prophylaxis. Unfortunately, oral beta-blockers are ineffective for abortive treatment.7 Ophthalmic timolol is typically used in the treatment of glaucoma, but there have been case reports describing its benefits in acute migraine treatment.8,9 In addition, ophthalmic timolol is far cheaper than medications such as ubrogepant.10 A 2014 case series of 7 patients discussed ophthalmic beta-blockers as an effective and possibly cheaper option for acute migraine treatment.8 A randomized, crossover, placebo-controlled pilot study of 198 migraine attacks in 10 participants using timolol eyedrops for abortive therapy found timolol was not significantly more effective than placebo.9 However, it was an underpowered pilot study, with a lack of masking and an imperfect placebo. The trial discussed here was a controlled, prospective study investigating topical beta-blockers for acute migraine treatment.

STUDY SUMMARY

Crossover study achieved primary endpoint in pain reduction

This randomized, single-center, double-masked, crossover trial compared timolol maleate ophthalmic solution 0.5% with placebo among 43 patients ages 12 or older presenting with a diagnosis of migraine based on ICHD-3 (beta) criteria. Patients were eligible if they had not taken any antimigraine medications for at least 1 month prior to the study and were excluded if they had taken systemic beta-blockers at baseline, or had asthma, bradyarrhythmias, or cardiac dysfunction.

Patients were randomized 1:1 to treatment with timolol maleate 0.5% eyedrops or placebo. At the earliest onset of migraine, patients used 1 drop of timolol maleate 0.5% or placebo in each eye; if they experienced no relief after 10 minutes, they used a second drop or matching placebo. Patients were instructed to score their headache pain on a 10-point scale prior to using the eyedrops and then again 20 minutes after treatment. If a patient had migraine with aura, they were asked to use the eyedrops at the onset of the aura but measure their score at headache onset. If no headaches developed within 20 minutes of the aura, the episode was not included for analysis. All patients were permitted to use their standard oral rescue medication if no relief occurred after 20 minutes of pain onset.

Continue to: The groups were observed...

 

 

The groups were observed for 3 months and then followed for a 1-month washout period, during which they received no study medications. The groups were then crossed over to the other treatment and were observed for another 3 months. The primary outcome was a reduction in pain score by 4 or more points, or to 0 on a 10-point pain scale, 20 minutes after treatment. The secondary outcome was nonuse of oral rescue medication.

The primary outcome was achieved in 233 of 284 (82%) timolol-treated migraines, compared to 38 of 271 (14%) placebo-treated migraines.

Forty-three patients were included in a modified intention-to-treat analysis. The primary outcome was achieved in 233 of 284 (82%) timolol-treated migraines, compared to 38 of 271 (14%) placebo-treated migraines (percentage difference = 68 percentage points; 95% CI, 62-74 percentage points; P < .001). The mean pain score at the onset of migraine attacks was 6.01 for those treated with timolol and 5.93 for those treated with placebo. Patients treated with timolol had a reduction in pain of 5.98 points, compared with 0.93 points after using placebo (difference = 5.05; 95% CI, 4.19-5.91). No attacks included in the data required oral rescue medications, and there were no systemic adverse effects from the timolol eyedrops.

 

WHAT’S NEW

Evidence of benefit as abortive therapy for acute migraine

This randomized controlled trial (RCT) showed evidence to support timolol maleate ophthalmic solution 0.5% vs placebo for treatment of acute migraine by significantly reducing pain when taken at the onset of an acute migraine attack.

CAVEATS

Single-center trial, measuring limited response time

The generalizability of this RCT is limited because it was a single-center trial with a study population from a single region in India. It is unknown whether pain relief, adverse effects, or adherence would differ for the global population. Additionally, only migraines with headache were included in the analysis, limiting non-headache migraine subgroup-directed treatment. Also, this trial evaluated only the response to treatment at 20 minutes, and it is unknown if pain response continued for several hours. Headaches that began more than 20 minutes after the onset of aura were not evaluated.

CHALLENGES TO IMPLEMENTATION

Timolol’s systemic adverse effects require caution

Systemic beta-blocker effects (eg, bradycardia, hypotension, drowsiness, and bronchospasm) from topical timolol have been reported. Caution should be used when prescribing timolol for patients with current cardiovascular and pulmonary conditions. 

ACKNOWLEDGEMENT

The PURLs Surveillance System was supported in part by Grant Number UL1RR024999 from the National Center for Research Resources, a Clinical Translational Science Award to the University of Chicago. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Center for Research Resources or the National Institutes of Health.

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References
  1. Kurian A, Reghunadhan I, Thilak P, et al. Short-term efficacy and safety of topical β-blockers (timolol maleate ophthalmic solution, 0.5%) in acute migraine: a randomized crossover trial. JAMA Ophthalmol. 2020;138:1160-1166. doi: 10.1001/jamaophthalmol.2020.3676
  2. Global Burden of Disease Study 2013 Collaborators. Global, regional, and national incidence, prevalence, and years lived with disability for 301 acute and chronic diseases and injuries in 188 countries, 1990-2013: a systematic analysis for the Global Burden of Disease Study 2013. Lancet. 2015;386:743-800. doi: 10.1016/S0140-6736(15)60692-4
  3. Yeh WZ, Blizzard L, Taylor BV. What is the actual prevalence of migraine? Brain Behav. 2018;8:e00950. doi: 10.1002/brb3.950
  4. Leonardi M, Raggi A. Burden of migraine: international perspectives. Neurol Sci. 2013;34(suppl 1):S117-S118. doi: 10.1007/s10072-013-1387-8
  5. Headache Classification Committee of the International Headache Society (IHS). The International Classification of Headache Disorders, 3rd edition (beta version). Cephalalgia. 2013;33:629-808. doi: 10.1177/0333102413485658
  6. Ubrogepant. GoodRx. Accessed May 23, 2022. www.goodrx.com/ubrogepant
  7. Orr SL, Friedman BW, Christie S, et al. Management of adults with acute migraine in the emergency department: the American Headache Society evidence assessment of parenteral pharmacotherapies. Headache. 2016;56:911-940. doi: 10.1111/head.12835
  8. 8. Migliazzo CV, Hagan JC III. Beta blocker eye drops for treatment of acute migraine. Mo Med. 2014;111:283-288.
  9. 9. Cossack M, Nabrinsky E, Turner H, et al. Timolol eyedrops in the treatment of acute migraine attacks: a randomized crossover study. JAMA Neurol. 2018;75:1024-1025. doi: 10.1001/jamaneurol.2018.0970
  10. 10. Timolol. GoodRx. Accessed May 23, 2022. www.goodrx.com/timolol
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ILLUSTRATIVE CASE

A 35-year-old woman with no significant past medical history presents for follow-up of migraine. At the previous visit, she was prescribed sumatriptan for abortive therapy. However, she has been having significant adverse effect intolerance from the oral formulation, and the nasal formulation is cost prohibitive. What can you recommend as an alternative abortive therapy for this patient’s migraine?

Migraine is among the most common causes of disability worldwide, affecting more than 10% of the global population.2 The prevalence of migraine is between 2.6% and 21.7% across multiple countries.3 On a scale of 0% to 100%, disability caused by migraine is 43.3%, comparable to the first 2 days after an acute myocardial infarction (42.2%) and severe dementia (43.8%).4

Abortive therapy for acute migraine includes nonsteroidal anti-inflammatory drugs (NSAIDs), triptans, ergots, and antiemetics. However, these options are predominantly administered by mouth; non-oral formulations tend to be cost prohibitive and difficult to obtain.

Nausea and vomiting, common components of migraine (that are included in International Classification of Headache Disorders, 3rd edition [ICHD-3] criteria for migraine5) present obstacles to effective oral administration if experienced by the patient. In addition, for migraine refractory to first-line treatments, abortive options—including the recently approved calcitonin gene-related peptide (CGRP) receptor antagonists ubrogepant and rimegepant—are also cost prohibitive, potentially costing more than $1000 for 10 tablets (100 mg), depending on insurance coverage.6

Two oral beta-blockers, propranolol and timolol, are approved by the US Food and Drug Administration for migraine prophylaxis. Unfortunately, oral beta-blockers are ineffective for abortive treatment.7 Ophthalmic timolol is typically used in the treatment of glaucoma, but there have been case reports describing its benefits in acute migraine treatment.8,9 In addition, ophthalmic timolol is far cheaper than medications such as ubrogepant.10 A 2014 case series of 7 patients discussed ophthalmic beta-blockers as an effective and possibly cheaper option for acute migraine treatment.8 A randomized, crossover, placebo-controlled pilot study of 198 migraine attacks in 10 participants using timolol eyedrops for abortive therapy found timolol was not significantly more effective than placebo.9 However, it was an underpowered pilot study, with a lack of masking and an imperfect placebo. The trial discussed here was a controlled, prospective study investigating topical beta-blockers for acute migraine treatment.

STUDY SUMMARY

Crossover study achieved primary endpoint in pain reduction

This randomized, single-center, double-masked, crossover trial compared timolol maleate ophthalmic solution 0.5% with placebo among 43 patients ages 12 or older presenting with a diagnosis of migraine based on ICHD-3 (beta) criteria. Patients were eligible if they had not taken any antimigraine medications for at least 1 month prior to the study and were excluded if they had taken systemic beta-blockers at baseline, or had asthma, bradyarrhythmias, or cardiac dysfunction.

Patients were randomized 1:1 to treatment with timolol maleate 0.5% eyedrops or placebo. At the earliest onset of migraine, patients used 1 drop of timolol maleate 0.5% or placebo in each eye; if they experienced no relief after 10 minutes, they used a second drop or matching placebo. Patients were instructed to score their headache pain on a 10-point scale prior to using the eyedrops and then again 20 minutes after treatment. If a patient had migraine with aura, they were asked to use the eyedrops at the onset of the aura but measure their score at headache onset. If no headaches developed within 20 minutes of the aura, the episode was not included for analysis. All patients were permitted to use their standard oral rescue medication if no relief occurred after 20 minutes of pain onset.

Continue to: The groups were observed...

 

 

The groups were observed for 3 months and then followed for a 1-month washout period, during which they received no study medications. The groups were then crossed over to the other treatment and were observed for another 3 months. The primary outcome was a reduction in pain score by 4 or more points, or to 0 on a 10-point pain scale, 20 minutes after treatment. The secondary outcome was nonuse of oral rescue medication.

The primary outcome was achieved in 233 of 284 (82%) timolol-treated migraines, compared to 38 of 271 (14%) placebo-treated migraines.

Forty-three patients were included in a modified intention-to-treat analysis. The primary outcome was achieved in 233 of 284 (82%) timolol-treated migraines, compared to 38 of 271 (14%) placebo-treated migraines (percentage difference = 68 percentage points; 95% CI, 62-74 percentage points; P < .001). The mean pain score at the onset of migraine attacks was 6.01 for those treated with timolol and 5.93 for those treated with placebo. Patients treated with timolol had a reduction in pain of 5.98 points, compared with 0.93 points after using placebo (difference = 5.05; 95% CI, 4.19-5.91). No attacks included in the data required oral rescue medications, and there were no systemic adverse effects from the timolol eyedrops.

 

WHAT’S NEW

Evidence of benefit as abortive therapy for acute migraine

This randomized controlled trial (RCT) showed evidence to support timolol maleate ophthalmic solution 0.5% vs placebo for treatment of acute migraine by significantly reducing pain when taken at the onset of an acute migraine attack.

CAVEATS

Single-center trial, measuring limited response time

The generalizability of this RCT is limited because it was a single-center trial with a study population from a single region in India. It is unknown whether pain relief, adverse effects, or adherence would differ for the global population. Additionally, only migraines with headache were included in the analysis, limiting non-headache migraine subgroup-directed treatment. Also, this trial evaluated only the response to treatment at 20 minutes, and it is unknown if pain response continued for several hours. Headaches that began more than 20 minutes after the onset of aura were not evaluated.

CHALLENGES TO IMPLEMENTATION

Timolol’s systemic adverse effects require caution

Systemic beta-blocker effects (eg, bradycardia, hypotension, drowsiness, and bronchospasm) from topical timolol have been reported. Caution should be used when prescribing timolol for patients with current cardiovascular and pulmonary conditions. 

ACKNOWLEDGEMENT

The PURLs Surveillance System was supported in part by Grant Number UL1RR024999 from the National Center for Research Resources, a Clinical Translational Science Award to the University of Chicago. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Center for Research Resources or the National Institutes of Health.

ILLUSTRATIVE CASE

A 35-year-old woman with no significant past medical history presents for follow-up of migraine. At the previous visit, she was prescribed sumatriptan for abortive therapy. However, she has been having significant adverse effect intolerance from the oral formulation, and the nasal formulation is cost prohibitive. What can you recommend as an alternative abortive therapy for this patient’s migraine?

Migraine is among the most common causes of disability worldwide, affecting more than 10% of the global population.2 The prevalence of migraine is between 2.6% and 21.7% across multiple countries.3 On a scale of 0% to 100%, disability caused by migraine is 43.3%, comparable to the first 2 days after an acute myocardial infarction (42.2%) and severe dementia (43.8%).4

Abortive therapy for acute migraine includes nonsteroidal anti-inflammatory drugs (NSAIDs), triptans, ergots, and antiemetics. However, these options are predominantly administered by mouth; non-oral formulations tend to be cost prohibitive and difficult to obtain.

Nausea and vomiting, common components of migraine (that are included in International Classification of Headache Disorders, 3rd edition [ICHD-3] criteria for migraine5) present obstacles to effective oral administration if experienced by the patient. In addition, for migraine refractory to first-line treatments, abortive options—including the recently approved calcitonin gene-related peptide (CGRP) receptor antagonists ubrogepant and rimegepant—are also cost prohibitive, potentially costing more than $1000 for 10 tablets (100 mg), depending on insurance coverage.6

Two oral beta-blockers, propranolol and timolol, are approved by the US Food and Drug Administration for migraine prophylaxis. Unfortunately, oral beta-blockers are ineffective for abortive treatment.7 Ophthalmic timolol is typically used in the treatment of glaucoma, but there have been case reports describing its benefits in acute migraine treatment.8,9 In addition, ophthalmic timolol is far cheaper than medications such as ubrogepant.10 A 2014 case series of 7 patients discussed ophthalmic beta-blockers as an effective and possibly cheaper option for acute migraine treatment.8 A randomized, crossover, placebo-controlled pilot study of 198 migraine attacks in 10 participants using timolol eyedrops for abortive therapy found timolol was not significantly more effective than placebo.9 However, it was an underpowered pilot study, with a lack of masking and an imperfect placebo. The trial discussed here was a controlled, prospective study investigating topical beta-blockers for acute migraine treatment.

STUDY SUMMARY

Crossover study achieved primary endpoint in pain reduction

This randomized, single-center, double-masked, crossover trial compared timolol maleate ophthalmic solution 0.5% with placebo among 43 patients ages 12 or older presenting with a diagnosis of migraine based on ICHD-3 (beta) criteria. Patients were eligible if they had not taken any antimigraine medications for at least 1 month prior to the study and were excluded if they had taken systemic beta-blockers at baseline, or had asthma, bradyarrhythmias, or cardiac dysfunction.

Patients were randomized 1:1 to treatment with timolol maleate 0.5% eyedrops or placebo. At the earliest onset of migraine, patients used 1 drop of timolol maleate 0.5% or placebo in each eye; if they experienced no relief after 10 minutes, they used a second drop or matching placebo. Patients were instructed to score their headache pain on a 10-point scale prior to using the eyedrops and then again 20 minutes after treatment. If a patient had migraine with aura, they were asked to use the eyedrops at the onset of the aura but measure their score at headache onset. If no headaches developed within 20 minutes of the aura, the episode was not included for analysis. All patients were permitted to use their standard oral rescue medication if no relief occurred after 20 minutes of pain onset.

Continue to: The groups were observed...

 

 

The groups were observed for 3 months and then followed for a 1-month washout period, during which they received no study medications. The groups were then crossed over to the other treatment and were observed for another 3 months. The primary outcome was a reduction in pain score by 4 or more points, or to 0 on a 10-point pain scale, 20 minutes after treatment. The secondary outcome was nonuse of oral rescue medication.

The primary outcome was achieved in 233 of 284 (82%) timolol-treated migraines, compared to 38 of 271 (14%) placebo-treated migraines.

Forty-three patients were included in a modified intention-to-treat analysis. The primary outcome was achieved in 233 of 284 (82%) timolol-treated migraines, compared to 38 of 271 (14%) placebo-treated migraines (percentage difference = 68 percentage points; 95% CI, 62-74 percentage points; P < .001). The mean pain score at the onset of migraine attacks was 6.01 for those treated with timolol and 5.93 for those treated with placebo. Patients treated with timolol had a reduction in pain of 5.98 points, compared with 0.93 points after using placebo (difference = 5.05; 95% CI, 4.19-5.91). No attacks included in the data required oral rescue medications, and there were no systemic adverse effects from the timolol eyedrops.

 

WHAT’S NEW

Evidence of benefit as abortive therapy for acute migraine

This randomized controlled trial (RCT) showed evidence to support timolol maleate ophthalmic solution 0.5% vs placebo for treatment of acute migraine by significantly reducing pain when taken at the onset of an acute migraine attack.

CAVEATS

Single-center trial, measuring limited response time

The generalizability of this RCT is limited because it was a single-center trial with a study population from a single region in India. It is unknown whether pain relief, adverse effects, or adherence would differ for the global population. Additionally, only migraines with headache were included in the analysis, limiting non-headache migraine subgroup-directed treatment. Also, this trial evaluated only the response to treatment at 20 minutes, and it is unknown if pain response continued for several hours. Headaches that began more than 20 minutes after the onset of aura were not evaluated.

CHALLENGES TO IMPLEMENTATION

Timolol’s systemic adverse effects require caution

Systemic beta-blocker effects (eg, bradycardia, hypotension, drowsiness, and bronchospasm) from topical timolol have been reported. Caution should be used when prescribing timolol for patients with current cardiovascular and pulmonary conditions. 

ACKNOWLEDGEMENT

The PURLs Surveillance System was supported in part by Grant Number UL1RR024999 from the National Center for Research Resources, a Clinical Translational Science Award to the University of Chicago. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Center for Research Resources or the National Institutes of Health.

References
  1. Kurian A, Reghunadhan I, Thilak P, et al. Short-term efficacy and safety of topical β-blockers (timolol maleate ophthalmic solution, 0.5%) in acute migraine: a randomized crossover trial. JAMA Ophthalmol. 2020;138:1160-1166. doi: 10.1001/jamaophthalmol.2020.3676
  2. Global Burden of Disease Study 2013 Collaborators. Global, regional, and national incidence, prevalence, and years lived with disability for 301 acute and chronic diseases and injuries in 188 countries, 1990-2013: a systematic analysis for the Global Burden of Disease Study 2013. Lancet. 2015;386:743-800. doi: 10.1016/S0140-6736(15)60692-4
  3. Yeh WZ, Blizzard L, Taylor BV. What is the actual prevalence of migraine? Brain Behav. 2018;8:e00950. doi: 10.1002/brb3.950
  4. Leonardi M, Raggi A. Burden of migraine: international perspectives. Neurol Sci. 2013;34(suppl 1):S117-S118. doi: 10.1007/s10072-013-1387-8
  5. Headache Classification Committee of the International Headache Society (IHS). The International Classification of Headache Disorders, 3rd edition (beta version). Cephalalgia. 2013;33:629-808. doi: 10.1177/0333102413485658
  6. Ubrogepant. GoodRx. Accessed May 23, 2022. www.goodrx.com/ubrogepant
  7. Orr SL, Friedman BW, Christie S, et al. Management of adults with acute migraine in the emergency department: the American Headache Society evidence assessment of parenteral pharmacotherapies. Headache. 2016;56:911-940. doi: 10.1111/head.12835
  8. 8. Migliazzo CV, Hagan JC III. Beta blocker eye drops for treatment of acute migraine. Mo Med. 2014;111:283-288.
  9. 9. Cossack M, Nabrinsky E, Turner H, et al. Timolol eyedrops in the treatment of acute migraine attacks: a randomized crossover study. JAMA Neurol. 2018;75:1024-1025. doi: 10.1001/jamaneurol.2018.0970
  10. 10. Timolol. GoodRx. Accessed May 23, 2022. www.goodrx.com/timolol
References
  1. Kurian A, Reghunadhan I, Thilak P, et al. Short-term efficacy and safety of topical β-blockers (timolol maleate ophthalmic solution, 0.5%) in acute migraine: a randomized crossover trial. JAMA Ophthalmol. 2020;138:1160-1166. doi: 10.1001/jamaophthalmol.2020.3676
  2. Global Burden of Disease Study 2013 Collaborators. Global, regional, and national incidence, prevalence, and years lived with disability for 301 acute and chronic diseases and injuries in 188 countries, 1990-2013: a systematic analysis for the Global Burden of Disease Study 2013. Lancet. 2015;386:743-800. doi: 10.1016/S0140-6736(15)60692-4
  3. Yeh WZ, Blizzard L, Taylor BV. What is the actual prevalence of migraine? Brain Behav. 2018;8:e00950. doi: 10.1002/brb3.950
  4. Leonardi M, Raggi A. Burden of migraine: international perspectives. Neurol Sci. 2013;34(suppl 1):S117-S118. doi: 10.1007/s10072-013-1387-8
  5. Headache Classification Committee of the International Headache Society (IHS). The International Classification of Headache Disorders, 3rd edition (beta version). Cephalalgia. 2013;33:629-808. doi: 10.1177/0333102413485658
  6. Ubrogepant. GoodRx. Accessed May 23, 2022. www.goodrx.com/ubrogepant
  7. Orr SL, Friedman BW, Christie S, et al. Management of adults with acute migraine in the emergency department: the American Headache Society evidence assessment of parenteral pharmacotherapies. Headache. 2016;56:911-940. doi: 10.1111/head.12835
  8. 8. Migliazzo CV, Hagan JC III. Beta blocker eye drops for treatment of acute migraine. Mo Med. 2014;111:283-288.
  9. 9. Cossack M, Nabrinsky E, Turner H, et al. Timolol eyedrops in the treatment of acute migraine attacks: a randomized crossover study. JAMA Neurol. 2018;75:1024-1025. doi: 10.1001/jamaneurol.2018.0970
  10. 10. Timolol. GoodRx. Accessed May 23, 2022. www.goodrx.com/timolol
Issue
The Journal of Family Practice - 71(5)
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The Journal of Family Practice - 71(5)
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222-223,226
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Migraine relief in 20 minutes using eyedrops?
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Inside the Article

PRACTICE CHANGER

Consider timolol maleate 0.5% eyedrops as a quick and effective abortive therapy for migraine.1

STRENGTH OF RECOMMENDATION

B: Based on a single randomized controlled trial.1

Kurian A, Reghunadhan I, Thilak P, et al. Short-term efficacy and safety of topical β-blockers (timolol maleate ophthalmic solution, 0.5%) in acute migraine: a randomized crossover trial. JAMA Ophthalmol. 2020;138:1160-1166.

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