Asthma is a heterogeneous condition characterized by airway hyperresponsiveness and obstruction, with associated airway inflammation and remodeling.² Asthma affects 25 million people in the United States and 334 million people worldwide, with significant healthcare disparities across race and ethnicity.^2-6 Asthma is the third most common reason for hospitalizations in pediatrics, accounting for 180,000 annual hospitalizations for children and adults.^3,7 In 2020, the National Heart, Lung, and Blood Institute (NHLBI) Expert Panel provided a focused update to the Asthma Management Guidelines, centered on six topics with sufficient new evidence. The management of status asthmaticus was not included in this update. We spotlight four of the recommendations applicable to the practice of pediatric hospital medicine.

Recommendation 1. Children 0 to 4 years old with recurrent wheezing triggered by a respiratory tract infection (RTI) and no wheezing between infections should receive a short course of daily inhaled corticosteroids (ICS) at the onset of a RTI, with an as-needed short-acting beta agonist (SABA) for quick-relief therapy compared to SABA alone (evidence quality: high; recommendation strength: conditional).

Recurrent wheezing is defined as clinically significant periods of wheezing that are reversible or consistent with bronchospasm and as ≥3 episodes in a lifetime or 2 episodes in the past year. It is important to adhere to this definition to prevent inappropriate use of ICS for bronchiolitis. This treatment is associated with a reduction of use of systemic steroids (relative risk [RR], 0.67; 95% CI, 0.46-0.98) without a statistical decrease in acute care visits (RR, 0.90; 95% CI, 0.77-1.05) or hospitalizations (RR, 0.77; 95% CI, 0.06-9.68). Improved transition of care is essential between the primary care provider, hospitalist, and family to ensure an understanding of how/when to initiate ICS at the onset of a RTI. Potential harms include effect on growth and overprescribing. Growth should be monitored because data are conflicting.

Recommendation 2. Individuals ages 12 years and older with mild persistent asthma should use as-needed SABA and may use either daily low-dose ICS or as-needed ICS when symptoms flare (evidence quality: moderate; recommendation strength: conditional).

In intermittent therapy, patients take a SABA followed by an ICS as needed for acute asthma symptoms. This recommendation is driven by asthma-control and quality-of-life outcomes, with caregivers reporting that intermittent dosing could “offer flexibility and potentially reduce side effects.” There were no differences between management regimens with respect to systemic steroid use (RR, 0.70; 95% CI, 0.30-1.64) or urgent care visits (RR, 0.25; 95% CI, 0.05-1.16). Differing perception of symptoms by individuals may lead to undertreating or overtreating, and intermittent administration makes it challenging for clinicians to assess the need to adjust therapy.

Recommendation 3. Children 4 years and older with moderate to severe persistent asthma should use ICS-formoterol in a single inhaler used as both daily controller and reliever therapy compared to either (a) higher-dose ICS as daily controller therapy and SABA for quick-relief therapy or (b) a same-dose ICS-long-acting beta agonist (LABA) as daily controller therapy and SABA for quick-relief therapy (evidence quality: high for ages ≥12 years, moderate for ages 4-11 years; recommendation strength: strong).

For children 4 years and older, it is recommended to use “single maintenance and reliever therapy” (SMART) with a single-inhaler containing either low- or medium-dose ICS and formoterol when stepping up from Step 2 (daily low-dose ICS and as-needed SABA) to Step 3 (daily and as-needed low-dose ICS-formoterol) and Step 4 (daily and as-needed medium-dose ICS-formoterol). It is preferred to use this single inhaler as needed when symptoms flare rather than an additional as-needed SABA. However, this may be impractical if insurance does not cover multiple prescriptions per month. Formoterol is specified because it is the only LABA studied. Studies have shown reductions in hospitalizations, systemic corticosteroids, and ED visits with this regimen. “ICS-formoterol should be administered as maintenance therapy with 1-2 puffs once to twice daily and 1-2 puffs as needed for asthma symptoms. The maximum number of puffs per day is 12 (54 mcg formoterol) for individuals ages 12 years and older and 8 (36 mcg formoterol) for children ages 4-11 years.”¹

Recommendation 4. If individuals with asthma have symptoms related to indoor allergens, confirmed by history or allergy testing, they should use a multicomponent allergen-specific mitigation intervention. Allergen mitigation interventions should not be a part of routine asthma management for individuals with asthma who do not have symptoms related to exposure to specific indoor allergens (evidence quality: low; recommendation strength: conditional).

Providers often emphasize exposure to potential indoor allergens such as carpets and pets when taking an asthma history and counsel removal of these triggers. However, all recommendations related to allergies in the 2020 updates have low-moderate evidence quality and conditional recommendation strength. Hospitalists should instead focus their questions on allergy symptoms and triggers and recommend multicomponent mitigation intervention only if there is a confirmed allergy history. Families should continue routine good practices such as house cleaning and laundering, but other interventions are not evidence-based.

Methods

The Expert Panel included a diverse group of clinicians, a pharmacist, and health policy experts. In 2015, a needs assessment identified 6 out of 17 priority topics with sufficient new information for updates. Key questions were drafted, and systematic reviews were published through 2018. The Expert Panel made its recommendations using the GRADE (Grading of Recommendations Assessment, Development and Evaluation) approach. The Expert Panel informed its recommendations with input from focus groups, including individuals with asthma and caregivers. The NHLBI posted the draft report for public review, and comments were considered. We believe these methods effectively developed evidence-based recommendations, and the diversity of stakeholders increases the value of this guideline. However, the infrequency of updates limits the utility of the NHLBI guidelines as compared with annual GINA (Global Initiative for Asthma) updates.

There are important considerations in assessing these guidelines. Specifically, the validity of systemic steroid courses as an outcome for children ages 0 to 4 years is controversial. Second, the studies cited in defense of intermittent ICS use in children >12 years of age excluded pediatric patients and did not include readmissions as a primary outcome, which is of particular interest to the hospitalist.

Potential Conflicts for Guideline Authors

The Expert Panel reported all potential conflicts of interest (COIs), which were rated by the Expert Panel Chair and Journal of Allergy and Clinical Immunology editors. Individuals with high COIs were excluded from the Expert Panel. Those with moderate COIs were recused for that topic. Low COIs were not related to the guideline.

Generalizability of the Guideline

These guidelines are based on systematic reviews with large sample sizes and patients of all ages. They are generalizable. However, the authors recognize that variations in asthma require individualized approaches. They identify this as a reason for the lack of strong recommendations for asthma standards of care.

Biologics have progressed considerably since revision of the guidelines. The 2020 guidelines did not address these to prevent delay of the guideline release, but recommendations should be included in future guidelines. Future studies should address healthcare disparities in asthma, barriers to equitable care, and how to eliminate them, as guided by the President’s Task Force.⁸ Status asthmaticus should be included in future updates.

Asthma is a heterogeneous condition characterized by airway hyperresponsiveness and obstruction, with associated airway inflammation and remodeling.² Asthma affects 25 million people in the United States and 334 million people worldwide, with significant healthcare disparities across race and ethnicity.^2-6 Asthma is the third most common reason for hospitalizations in pediatrics, accounting for 180,000 annual hospitalizations for children and adults.^3,7 In 2020, the National Heart, Lung, and Blood Institute (NHLBI) Expert Panel provided a focused update to the Asthma Management Guidelines, centered on six topics with sufficient new evidence. The management of status asthmaticus was not included in this update. We spotlight four of the recommendations applicable to the practice of pediatric hospital medicine.

Recommendation 1. Children 0 to 4 years old with recurrent wheezing triggered by a respiratory tract infection (RTI) and no wheezing between infections should receive a short course of daily inhaled corticosteroids (ICS) at the onset of a RTI, with an as-needed short-acting beta agonist (SABA) for quick-relief therapy compared to SABA alone (evidence quality: high; recommendation strength: conditional).

Recurrent wheezing is defined as clinically significant periods of wheezing that are reversible or consistent with bronchospasm and as ≥3 episodes in a lifetime or 2 episodes in the past year. It is important to adhere to this definition to prevent inappropriate use of ICS for bronchiolitis. This treatment is associated with a reduction of use of systemic steroids (relative risk [RR], 0.67; 95% CI, 0.46-0.98) without a statistical decrease in acute care visits (RR, 0.90; 95% CI, 0.77-1.05) or hospitalizations (RR, 0.77; 95% CI, 0.06-9.68). Improved transition of care is essential between the primary care provider, hospitalist, and family to ensure an understanding of how/when to initiate ICS at the onset of a RTI. Potential harms include effect on growth and overprescribing. Growth should be monitored because data are conflicting.

Recommendation 2. Individuals ages 12 years and older with mild persistent asthma should use as-needed SABA and may use either daily low-dose ICS or as-needed ICS when symptoms flare (evidence quality: moderate; recommendation strength: conditional).

In intermittent therapy, patients take a SABA followed by an ICS as needed for acute asthma symptoms. This recommendation is driven by asthma-control and quality-of-life outcomes, with caregivers reporting that intermittent dosing could “offer flexibility and potentially reduce side effects.” There were no differences between management regimens with respect to systemic steroid use (RR, 0.70; 95% CI, 0.30-1.64) or urgent care visits (RR, 0.25; 95% CI, 0.05-1.16). Differing perception of symptoms by individuals may lead to undertreating or overtreating, and intermittent administration makes it challenging for clinicians to assess the need to adjust therapy.

Recommendation 3. Children 4 years and older with moderate to severe persistent asthma should use ICS-formoterol in a single inhaler used as both daily controller and reliever therapy compared to either (a) higher-dose ICS as daily controller therapy and SABA for quick-relief therapy or (b) a same-dose ICS-long-acting beta agonist (LABA) as daily controller therapy and SABA for quick-relief therapy (evidence quality: high for ages ≥12 years, moderate for ages 4-11 years; recommendation strength: strong).

For children 4 years and older, it is recommended to use “single maintenance and reliever therapy” (SMART) with a single-inhaler containing either low- or medium-dose ICS and formoterol when stepping up from Step 2 (daily low-dose ICS and as-needed SABA) to Step 3 (daily and as-needed low-dose ICS-formoterol) and Step 4 (daily and as-needed medium-dose ICS-formoterol). It is preferred to use this single inhaler as needed when symptoms flare rather than an additional as-needed SABA. However, this may be impractical if insurance does not cover multiple prescriptions per month. Formoterol is specified because it is the only LABA studied. Studies have shown reductions in hospitalizations, systemic corticosteroids, and ED visits with this regimen. “ICS-formoterol should be administered as maintenance therapy with 1-2 puffs once to twice daily and 1-2 puffs as needed for asthma symptoms. The maximum number of puffs per day is 12 (54 mcg formoterol) for individuals ages 12 years and older and 8 (36 mcg formoterol) for children ages 4-11 years.”¹

Recommendation 4. If individuals with asthma have symptoms related to indoor allergens, confirmed by history or allergy testing, they should use a multicomponent allergen-specific mitigation intervention. Allergen mitigation interventions should not be a part of routine asthma management for individuals with asthma who do not have symptoms related to exposure to specific indoor allergens (evidence quality: low; recommendation strength: conditional).

Providers often emphasize exposure to potential indoor allergens such as carpets and pets when taking an asthma history and counsel removal of these triggers. However, all recommendations related to allergies in the 2020 updates have low-moderate evidence quality and conditional recommendation strength. Hospitalists should instead focus their questions on allergy symptoms and triggers and recommend multicomponent mitigation intervention only if there is a confirmed allergy history. Families should continue routine good practices such as house cleaning and laundering, but other interventions are not evidence-based.

Methods

The Expert Panel included a diverse group of clinicians, a pharmacist, and health policy experts. In 2015, a needs assessment identified 6 out of 17 priority topics with sufficient new information for updates. Key questions were drafted, and systematic reviews were published through 2018. The Expert Panel made its recommendations using the GRADE (Grading of Recommendations Assessment, Development and Evaluation) approach. The Expert Panel informed its recommendations with input from focus groups, including individuals with asthma and caregivers. The NHLBI posted the draft report for public review, and comments were considered. We believe these methods effectively developed evidence-based recommendations, and the diversity of stakeholders increases the value of this guideline. However, the infrequency of updates limits the utility of the NHLBI guidelines as compared with annual GINA (Global Initiative for Asthma) updates.

There are important considerations in assessing these guidelines. Specifically, the validity of systemic steroid courses as an outcome for children ages 0 to 4 years is controversial. Second, the studies cited in defense of intermittent ICS use in children >12 years of age excluded pediatric patients and did not include readmissions as a primary outcome, which is of particular interest to the hospitalist.

Potential Conflicts for Guideline Authors

The Expert Panel reported all potential conflicts of interest (COIs), which were rated by the Expert Panel Chair and Journal of Allergy and Clinical Immunology editors. Individuals with high COIs were excluded from the Expert Panel. Those with moderate COIs were recused for that topic. Low COIs were not related to the guideline.

Generalizability of the Guideline

These guidelines are based on systematic reviews with large sample sizes and patients of all ages. They are generalizable. However, the authors recognize that variations in asthma require individualized approaches. They identify this as a reason for the lack of strong recommendations for asthma standards of care.

Biologics have progressed considerably since revision of the guidelines. The 2020 guidelines did not address these to prevent delay of the guideline release, but recommendations should be included in future guidelines. Future studies should address healthcare disparities in asthma, barriers to equitable care, and how to eliminate them, as guided by the President’s Task Force.⁸ Status asthmaticus should be included in future updates.

Asthma is a heterogeneous condition characterized by airway hyperresponsiveness and obstruction, with associated airway inflammation and remodeling.² Asthma affects 25 million people in the United States and 334 million people worldwide, with significant healthcare disparities across race and ethnicity.^2-6 Asthma is the third most common reason for hospitalizations in pediatrics, accounting for 180,000 annual hospitalizations for children and adults.^3,7 In 2020, the National Heart, Lung, and Blood Institute (NHLBI) Expert Panel provided a focused update to the Asthma Management Guidelines, centered on six topics with sufficient new evidence. The management of status asthmaticus was not included in this update. We spotlight four of the recommendations applicable to the practice of pediatric hospital medicine.

Recommendation 1. Children 0 to 4 years old with recurrent wheezing triggered by a respiratory tract infection (RTI) and no wheezing between infections should receive a short course of daily inhaled corticosteroids (ICS) at the onset of a RTI, with an as-needed short-acting beta agonist (SABA) for quick-relief therapy compared to SABA alone (evidence quality: high; recommendation strength: conditional).

Recurrent wheezing is defined as clinically significant periods of wheezing that are reversible or consistent with bronchospasm and as ≥3 episodes in a lifetime or 2 episodes in the past year. It is important to adhere to this definition to prevent inappropriate use of ICS for bronchiolitis. This treatment is associated with a reduction of use of systemic steroids (relative risk [RR], 0.67; 95% CI, 0.46-0.98) without a statistical decrease in acute care visits (RR, 0.90; 95% CI, 0.77-1.05) or hospitalizations (RR, 0.77; 95% CI, 0.06-9.68). Improved transition of care is essential between the primary care provider, hospitalist, and family to ensure an understanding of how/when to initiate ICS at the onset of a RTI. Potential harms include effect on growth and overprescribing. Growth should be monitored because data are conflicting.

Recommendation 2. Individuals ages 12 years and older with mild persistent asthma should use as-needed SABA and may use either daily low-dose ICS or as-needed ICS when symptoms flare (evidence quality: moderate; recommendation strength: conditional).

In intermittent therapy, patients take a SABA followed by an ICS as needed for acute asthma symptoms. This recommendation is driven by asthma-control and quality-of-life outcomes, with caregivers reporting that intermittent dosing could “offer flexibility and potentially reduce side effects.” There were no differences between management regimens with respect to systemic steroid use (RR, 0.70; 95% CI, 0.30-1.64) or urgent care visits (RR, 0.25; 95% CI, 0.05-1.16). Differing perception of symptoms by individuals may lead to undertreating or overtreating, and intermittent administration makes it challenging for clinicians to assess the need to adjust therapy.

Recommendation 3. Children 4 years and older with moderate to severe persistent asthma should use ICS-formoterol in a single inhaler used as both daily controller and reliever therapy compared to either (a) higher-dose ICS as daily controller therapy and SABA for quick-relief therapy or (b) a same-dose ICS-long-acting beta agonist (LABA) as daily controller therapy and SABA for quick-relief therapy (evidence quality: high for ages ≥12 years, moderate for ages 4-11 years; recommendation strength: strong).

For children 4 years and older, it is recommended to use “single maintenance and reliever therapy” (SMART) with a single-inhaler containing either low- or medium-dose ICS and formoterol when stepping up from Step 2 (daily low-dose ICS and as-needed SABA) to Step 3 (daily and as-needed low-dose ICS-formoterol) and Step 4 (daily and as-needed medium-dose ICS-formoterol). It is preferred to use this single inhaler as needed when symptoms flare rather than an additional as-needed SABA. However, this may be impractical if insurance does not cover multiple prescriptions per month. Formoterol is specified because it is the only LABA studied. Studies have shown reductions in hospitalizations, systemic corticosteroids, and ED visits with this regimen. “ICS-formoterol should be administered as maintenance therapy with 1-2 puffs once to twice daily and 1-2 puffs as needed for asthma symptoms. The maximum number of puffs per day is 12 (54 mcg formoterol) for individuals ages 12 years and older and 8 (36 mcg formoterol) for children ages 4-11 years.”¹

Recommendation 4. If individuals with asthma have symptoms related to indoor allergens, confirmed by history or allergy testing, they should use a multicomponent allergen-specific mitigation intervention. Allergen mitigation interventions should not be a part of routine asthma management for individuals with asthma who do not have symptoms related to exposure to specific indoor allergens (evidence quality: low; recommendation strength: conditional).

Providers often emphasize exposure to potential indoor allergens such as carpets and pets when taking an asthma history and counsel removal of these triggers. However, all recommendations related to allergies in the 2020 updates have low-moderate evidence quality and conditional recommendation strength. Hospitalists should instead focus their questions on allergy symptoms and triggers and recommend multicomponent mitigation intervention only if there is a confirmed allergy history. Families should continue routine good practices such as house cleaning and laundering, but other interventions are not evidence-based.

Methods

The Expert Panel included a diverse group of clinicians, a pharmacist, and health policy experts. In 2015, a needs assessment identified 6 out of 17 priority topics with sufficient new information for updates. Key questions were drafted, and systematic reviews were published through 2018. The Expert Panel made its recommendations using the GRADE (Grading of Recommendations Assessment, Development and Evaluation) approach. The Expert Panel informed its recommendations with input from focus groups, including individuals with asthma and caregivers. The NHLBI posted the draft report for public review, and comments were considered. We believe these methods effectively developed evidence-based recommendations, and the diversity of stakeholders increases the value of this guideline. However, the infrequency of updates limits the utility of the NHLBI guidelines as compared with annual GINA (Global Initiative for Asthma) updates.

There are important considerations in assessing these guidelines. Specifically, the validity of systemic steroid courses as an outcome for children ages 0 to 4 years is controversial. Second, the studies cited in defense of intermittent ICS use in children >12 years of age excluded pediatric patients and did not include readmissions as a primary outcome, which is of particular interest to the hospitalist.

Potential Conflicts for Guideline Authors

The Expert Panel reported all potential conflicts of interest (COIs), which were rated by the Expert Panel Chair and Journal of Allergy and Clinical Immunology editors. Individuals with high COIs were excluded from the Expert Panel. Those with moderate COIs were recused for that topic. Low COIs were not related to the guideline.

Generalizability of the Guideline

These guidelines are based on systematic reviews with large sample sizes and patients of all ages. They are generalizable. However, the authors recognize that variations in asthma require individualized approaches. They identify this as a reason for the lack of strong recommendations for asthma standards of care.

Biologics have progressed considerably since revision of the guidelines. The 2020 guidelines did not address these to prevent delay of the guideline release, but recommendations should be included in future guidelines. Future studies should address healthcare disparities in asthma, barriers to equitable care, and how to eliminate them, as guided by the President’s Task Force.⁸ Status asthmaticus should be included in future updates.

Inspired by the ABIM Foundation’s Choosing Wisely^® campaign, the “Things We Do for No Reason^™” (TWDFNR) series reviews practices that have become common parts of hospital care but may provide little value to our patients. Practices reviewed in the TWDFNR series do not represent clear-cut conclusions or clinical practice standards but are meant as a starting place for research and active discussions among hospitalists and patients. We invite you to be part of that discussion.

A 56-year-old man with alcohol use disorder (AUD) is admitted with decompensated heart failure and experiences alcohol withdrawal during the hospitalization. He improves with guideline-directed heart failure therapy and benzodiazepines for alcohol withdrawal. Discharge medications are metoprolol succinate, lisinopril, furosemide, aspirin, atorvastatin, thiamine, folic acid, and a multivitamin. No medications are offered for AUD treatment. At follow-up a week later, he presents with dyspnea and reports poor medication adherence and a return to heavy drinking.

AUD is common among hospitalized patients.¹ AUD increases the risk of vitamin deficiencies due to the toxic effects of alcohol on the gastrointestinal tract and liver, causing impaired digestion, reduced absorption, and increased degradation of key micronutrients.^2,3 Other risk factors for AUD-associated vitamin deficiencies include food insecurity and the replacement of nutrient-rich food with alcohol. Since the body does not readily store water-soluble vitamins, including thiamine (vitamin B₁) and folate (vitamin B₉), people require regular dietary replenishment of these nutrients. Thus, if individuals with AUD eat less fortified food, they risk developing thiamine, folate, niacin, and other vitamin deficiencies. Since AUD puts patients at risk for vitamin deficiencies, hospitalized patients typically receive vitamin supplementation, including thiamine, folic acid, and a multivitamin (most formulations contain water-soluble vitamins B and C and micronutrients).¹ Hospitalists often continue these medications at discharge.

Thiamine deficiency may manifest as Wernicke encephalopathy (WE), peripheral neuropathy, or a high-output heart failure state. Untreated, acute WE can progress to irreversible Korsakoff psychosis. Given the serious morbidity and mortality of unrecognized and untreated WE, hospitalists often start high-dose intravenous (IV) thiamine at 200 to 500 mg every 8 hours for at least 72 hours for patients with WE risk factors (including AUD) or those with suspected WE based on clinical presentation.^4,5

Hospitalists empirically treat with thiamine, folate, and other vitamins upon hospital admission with the intent of reducing morbidity associated with nutritional deficiencies.¹ Repletion poses few risks to patients since the kidneys eliminate water-soluble vitamins. Multivitamins also have a low potential for direct harm and a low cost. Given the consequences of missing a deficiency, alcohol withdrawal–management order sets commonly embed vitamin repletion orders.⁶

Hospitalists often reflexively continue vitamin supplementation on discharge. Unfortunately, there is no evidence that prescribing vitamin supplementation leads to clinically significant improvements for people with AUD, and patients can experience harms.

Literature and specialty guidelines lack consensus on rational vitamin supplementation in patients with AUD.^2,7,8 Folate testing is not recommended due to inaccuracies.⁹ In fact, clinical data, such as body mass index, more accurately predict alcohol-related cognitive impairment than blood levels of vitamins.¹⁰ In one small study of vitamin deficiencies among patients with acute alcohol intoxication, none had low B₁₂ or folate levels.¹¹ A systematic review among people experiencing homelessness with unhealthy alcohol use showed no clear pattern of vitamin deficiencies across studies, although vitamin C and thiamine deficiencies predominated.¹²

In the absence of reliable thiamine and folate testing to confirm deficiencies, clinicians must use their clinical assessment skills. Clinicians rarely evaluate patients with AUD for vitamin deficiency risk factors and instead reflexively prescribe vitamin supplementation. An AUD diagnosis may serve as a sensitive, but not specific, risk factor for those in need of vitamin supplementation. Once the diagnosis of AUD is made, further investigation can help discern which AUD patients will benefit from vitamins after discharge.

Other limitations make prescribing oral vitamins reflexively at discharge a low-value practice. Thiamine, often prescribed orally in the hospital and on discharge, has poor oral bioavailability.¹³ Unfortunately, people with AUD have decreased and variable thiamine absorption. To prevent WE, thiamine must cross the blood-brain barrier, and the literature provides insufficient evidence to guide clinicians on an appropriate oral thiamine dose, frequency, or duration of treatment.¹⁴ While early high-dose IV thiamine may treat or prevent WE during hospitalization, low-dose oral thiamine may not provide benefit to patients with AUD.⁵

The literature also provides sparse evidence for folate supplementation and its optimal dose. Since 1998, when the United States mandated fortifying grain products with folic acid, people rarely have low serum folate levels. Though patients with AUD have lower folate levels relative to the general population,¹⁵ this difference does not seem clinically significant. While limited data show an association between oral multivitamin supplementation and improved serum nutrient levels among people with AUD, we lack evidence on clinical outcomes.¹⁶

Most importantly, for a practice lacking strong evidence, prescribing multiple vitamins at discharge may result in harm from polypharmacy and unnecessary costs for the recently hospitalized patient. Alcohol use is associated with decreased adherence to medications for chronic conditions,¹⁷ including HIV, hypertension, hyperlipidemia, and psychiatric diseases. In addition, research shows an association between an increased number of discharge medications and higher risk for hospital readmission. The harm may actually correlate with the number of medications and complexity of the regimen rather than the risk profile of the medications themselves.¹⁸ Providers underestimate the impact of adding multiple vitamins at discharge, especially for patients who have several co-occurring medical conditions that require other medications. Furthermore, insurance rarely covers vitamins, leading hospitals or patients to incur the costs at discharge.

When treating patients with AUD, consider the potential benefit of vitamin supplementation for the individual. If a patient with regular, heavy alcohol use is at high risk of vitamin deficiencies due to ongoing risk factors (Table), hospitalists should discuss vitamin therapy via a patient-centered risk-benefit process.

When considering discharge vitamins, make concurrent efforts to enhance patient nutrition via decreased alcohol consumption and improved healthy food intake. While some patients do not have a goal of abstaining from alcohol, providing resources to food access may help decrease the harms of drinking. Education may help patients learn that vitamin deficiencies can result from heavy alcohol use.

Multivitamin formulations have variable doses of vitamins but can contain 100% or more of the daily value of thiamine and folic acid. For patients with AUD at lower risk of vitamin deficiencies (ie, mild alcohol use disorder with a healthy diet), discuss risks and benefits of supplementation. If they desire supplementation, a single thiamine-containing vitamin alone may be highest yield since it is the most morbid vitamin deficiency. Conversely, a patient with heavy alcohol intake and other risk factors for malnutrition may benefit from a higher dose of supplementation, achieved by prescribing a multivitamin alongside additional doses of thiamine and folate. However, the literature lacks evidence to guide clinicians on optimal vitamin dosing and formulations.

Instead of reflexively prescribing thiamine, folate, and multivitamin, clinicians can assess patients for AUD, provide motivational interviewing, and offer AUD treatment. Hospitalists should initiate and prescribe evidence-based medications for AUD for patients interested in reducing or stopping their alcohol intake. We can choose from Food and Drug Administration–approved AUD medications, including naltrexone and acamprosate. Unfortunately, less than 3% of patients with AUD receive medication therapy.¹⁹ Our healthcare systems can also refer individuals to community psychosocial treatment.

For patients with risk factors, prescribe empiric IV thiamine during hospitalization. Clinicians should then perform a risk-benefit assessment rather than reflexively prescribe vitamins to patients with AUD at discharge. We should also counsel patients to eat food when drinking to decrease alcohol-related harms.²⁰ Patients experiencing food insecurity should be linked to food resources through inpatient nutritional and social work consultations.

Elicit patient preference around vitamin supplementation after discharge. For patients with AUD who desire supplementation without risk factors for malnutrition (Table), consider prescribing a single thiamine-containing vitamin for prevention of thiamine deficiency, which, unlike other vitamin deficiencies, has the potential to be irreversible and life-threatening. Though no evidence currently supports this practice, it stands to reason that prescribing a single tablet could decrease the number of pills for patients who struggle with pill burden.

• Offer evidence-based medication treatment for AUD.
• Connect patients experiencing food insecurity with appropriate resources.
• For patients initiated on a multivitamin, folate, and high-dose IV thiamine at admission, perform vitamin de-escalation during hospitalization.
• Risk-stratify hospitalized patients with AUD for additional risk factors for vitamin deficiencies (Table). In those with additional risk factors, offer supplementation if consistent with patient preference. Balance the benefits of vitamin supplementation with the risks of polypharmacy, particularly if the patient has conditions requiring multiple medications.

Returning to our case, the hospitalist initiates IV thiamine, folate, and a multivitamin at admission and assesses the patient’s nutritional status and food insecurity. The hospitalist deems the patient—who eats regular, balanced meals—to be at low risk for vitamin deficiencies. The medical team discontinues folate and multivitamins before discharge and continues IV thiamine throughout the 3-day hospitalization. The patient and clinician agree that unaddressed AUD played a key role in the patient’s heart failure exacerbation. The clinician elicits the patient’s goals around their alcohol use, discusses AUD treatment, and initiates naltrexone for AUD.

Do you think this is a low-value practice? Is this truly a “Thing We Do for No Reason™”? Share what you do in your practice and join in the conversation online by retweeting it on Twitter (#TWDFNR) and liking it on Facebook. We invite you to propose ideas for other “Things We Do for No Reason™” topics by emailing [email protected].

Inspired by the ABIM Foundation’s Choosing Wisely^® campaign, the “Things We Do for No Reason^™” (TWDFNR) series reviews practices that have become common parts of hospital care but may provide little value to our patients. Practices reviewed in the TWDFNR series do not represent clear-cut conclusions or clinical practice standards but are meant as a starting place for research and active discussions among hospitalists and patients. We invite you to be part of that discussion.

A 56-year-old man with alcohol use disorder (AUD) is admitted with decompensated heart failure and experiences alcohol withdrawal during the hospitalization. He improves with guideline-directed heart failure therapy and benzodiazepines for alcohol withdrawal. Discharge medications are metoprolol succinate, lisinopril, furosemide, aspirin, atorvastatin, thiamine, folic acid, and a multivitamin. No medications are offered for AUD treatment. At follow-up a week later, he presents with dyspnea and reports poor medication adherence and a return to heavy drinking.

AUD is common among hospitalized patients.¹ AUD increases the risk of vitamin deficiencies due to the toxic effects of alcohol on the gastrointestinal tract and liver, causing impaired digestion, reduced absorption, and increased degradation of key micronutrients.^2,3 Other risk factors for AUD-associated vitamin deficiencies include food insecurity and the replacement of nutrient-rich food with alcohol. Since the body does not readily store water-soluble vitamins, including thiamine (vitamin B₁) and folate (vitamin B₉), people require regular dietary replenishment of these nutrients. Thus, if individuals with AUD eat less fortified food, they risk developing thiamine, folate, niacin, and other vitamin deficiencies. Since AUD puts patients at risk for vitamin deficiencies, hospitalized patients typically receive vitamin supplementation, including thiamine, folic acid, and a multivitamin (most formulations contain water-soluble vitamins B and C and micronutrients).¹ Hospitalists often continue these medications at discharge.

Thiamine deficiency may manifest as Wernicke encephalopathy (WE), peripheral neuropathy, or a high-output heart failure state. Untreated, acute WE can progress to irreversible Korsakoff psychosis. Given the serious morbidity and mortality of unrecognized and untreated WE, hospitalists often start high-dose intravenous (IV) thiamine at 200 to 500 mg every 8 hours for at least 72 hours for patients with WE risk factors (including AUD) or those with suspected WE based on clinical presentation.^4,5

Hospitalists empirically treat with thiamine, folate, and other vitamins upon hospital admission with the intent of reducing morbidity associated with nutritional deficiencies.¹ Repletion poses few risks to patients since the kidneys eliminate water-soluble vitamins. Multivitamins also have a low potential for direct harm and a low cost. Given the consequences of missing a deficiency, alcohol withdrawal–management order sets commonly embed vitamin repletion orders.⁶

Hospitalists often reflexively continue vitamin supplementation on discharge. Unfortunately, there is no evidence that prescribing vitamin supplementation leads to clinically significant improvements for people with AUD, and patients can experience harms.

Literature and specialty guidelines lack consensus on rational vitamin supplementation in patients with AUD.^2,7,8 Folate testing is not recommended due to inaccuracies.⁹ In fact, clinical data, such as body mass index, more accurately predict alcohol-related cognitive impairment than blood levels of vitamins.¹⁰ In one small study of vitamin deficiencies among patients with acute alcohol intoxication, none had low B₁₂ or folate levels.¹¹ A systematic review among people experiencing homelessness with unhealthy alcohol use showed no clear pattern of vitamin deficiencies across studies, although vitamin C and thiamine deficiencies predominated.¹²

In the absence of reliable thiamine and folate testing to confirm deficiencies, clinicians must use their clinical assessment skills. Clinicians rarely evaluate patients with AUD for vitamin deficiency risk factors and instead reflexively prescribe vitamin supplementation. An AUD diagnosis may serve as a sensitive, but not specific, risk factor for those in need of vitamin supplementation. Once the diagnosis of AUD is made, further investigation can help discern which AUD patients will benefit from vitamins after discharge.

Other limitations make prescribing oral vitamins reflexively at discharge a low-value practice. Thiamine, often prescribed orally in the hospital and on discharge, has poor oral bioavailability.¹³ Unfortunately, people with AUD have decreased and variable thiamine absorption. To prevent WE, thiamine must cross the blood-brain barrier, and the literature provides insufficient evidence to guide clinicians on an appropriate oral thiamine dose, frequency, or duration of treatment.¹⁴ While early high-dose IV thiamine may treat or prevent WE during hospitalization, low-dose oral thiamine may not provide benefit to patients with AUD.⁵

The literature also provides sparse evidence for folate supplementation and its optimal dose. Since 1998, when the United States mandated fortifying grain products with folic acid, people rarely have low serum folate levels. Though patients with AUD have lower folate levels relative to the general population,¹⁵ this difference does not seem clinically significant. While limited data show an association between oral multivitamin supplementation and improved serum nutrient levels among people with AUD, we lack evidence on clinical outcomes.¹⁶

Most importantly, for a practice lacking strong evidence, prescribing multiple vitamins at discharge may result in harm from polypharmacy and unnecessary costs for the recently hospitalized patient. Alcohol use is associated with decreased adherence to medications for chronic conditions,¹⁷ including HIV, hypertension, hyperlipidemia, and psychiatric diseases. In addition, research shows an association between an increased number of discharge medications and higher risk for hospital readmission. The harm may actually correlate with the number of medications and complexity of the regimen rather than the risk profile of the medications themselves.¹⁸ Providers underestimate the impact of adding multiple vitamins at discharge, especially for patients who have several co-occurring medical conditions that require other medications. Furthermore, insurance rarely covers vitamins, leading hospitals or patients to incur the costs at discharge.

When treating patients with AUD, consider the potential benefit of vitamin supplementation for the individual. If a patient with regular, heavy alcohol use is at high risk of vitamin deficiencies due to ongoing risk factors (Table), hospitalists should discuss vitamin therapy via a patient-centered risk-benefit process.

When considering discharge vitamins, make concurrent efforts to enhance patient nutrition via decreased alcohol consumption and improved healthy food intake. While some patients do not have a goal of abstaining from alcohol, providing resources to food access may help decrease the harms of drinking. Education may help patients learn that vitamin deficiencies can result from heavy alcohol use.

Multivitamin formulations have variable doses of vitamins but can contain 100% or more of the daily value of thiamine and folic acid. For patients with AUD at lower risk of vitamin deficiencies (ie, mild alcohol use disorder with a healthy diet), discuss risks and benefits of supplementation. If they desire supplementation, a single thiamine-containing vitamin alone may be highest yield since it is the most morbid vitamin deficiency. Conversely, a patient with heavy alcohol intake and other risk factors for malnutrition may benefit from a higher dose of supplementation, achieved by prescribing a multivitamin alongside additional doses of thiamine and folate. However, the literature lacks evidence to guide clinicians on optimal vitamin dosing and formulations.

Instead of reflexively prescribing thiamine, folate, and multivitamin, clinicians can assess patients for AUD, provide motivational interviewing, and offer AUD treatment. Hospitalists should initiate and prescribe evidence-based medications for AUD for patients interested in reducing or stopping their alcohol intake. We can choose from Food and Drug Administration–approved AUD medications, including naltrexone and acamprosate. Unfortunately, less than 3% of patients with AUD receive medication therapy.¹⁹ Our healthcare systems can also refer individuals to community psychosocial treatment.

For patients with risk factors, prescribe empiric IV thiamine during hospitalization. Clinicians should then perform a risk-benefit assessment rather than reflexively prescribe vitamins to patients with AUD at discharge. We should also counsel patients to eat food when drinking to decrease alcohol-related harms.²⁰ Patients experiencing food insecurity should be linked to food resources through inpatient nutritional and social work consultations.

Elicit patient preference around vitamin supplementation after discharge. For patients with AUD who desire supplementation without risk factors for malnutrition (Table), consider prescribing a single thiamine-containing vitamin for prevention of thiamine deficiency, which, unlike other vitamin deficiencies, has the potential to be irreversible and life-threatening. Though no evidence currently supports this practice, it stands to reason that prescribing a single tablet could decrease the number of pills for patients who struggle with pill burden.

• Offer evidence-based medication treatment for AUD.
• Connect patients experiencing food insecurity with appropriate resources.
• For patients initiated on a multivitamin, folate, and high-dose IV thiamine at admission, perform vitamin de-escalation during hospitalization.
• Risk-stratify hospitalized patients with AUD for additional risk factors for vitamin deficiencies (Table). In those with additional risk factors, offer supplementation if consistent with patient preference. Balance the benefits of vitamin supplementation with the risks of polypharmacy, particularly if the patient has conditions requiring multiple medications.

Returning to our case, the hospitalist initiates IV thiamine, folate, and a multivitamin at admission and assesses the patient’s nutritional status and food insecurity. The hospitalist deems the patient—who eats regular, balanced meals—to be at low risk for vitamin deficiencies. The medical team discontinues folate and multivitamins before discharge and continues IV thiamine throughout the 3-day hospitalization. The patient and clinician agree that unaddressed AUD played a key role in the patient’s heart failure exacerbation. The clinician elicits the patient’s goals around their alcohol use, discusses AUD treatment, and initiates naltrexone for AUD.

Do you think this is a low-value practice? Is this truly a “Thing We Do for No Reason™”? Share what you do in your practice and join in the conversation online by retweeting it on Twitter (#TWDFNR) and liking it on Facebook. We invite you to propose ideas for other “Things We Do for No Reason™” topics by emailing [email protected].

Inspired by the ABIM Foundation’s Choosing Wisely^® campaign, the “Things We Do for No Reason^™” (TWDFNR) series reviews practices that have become common parts of hospital care but may provide little value to our patients. Practices reviewed in the TWDFNR series do not represent clear-cut conclusions or clinical practice standards but are meant as a starting place for research and active discussions among hospitalists and patients. We invite you to be part of that discussion.

A 56-year-old man with alcohol use disorder (AUD) is admitted with decompensated heart failure and experiences alcohol withdrawal during the hospitalization. He improves with guideline-directed heart failure therapy and benzodiazepines for alcohol withdrawal. Discharge medications are metoprolol succinate, lisinopril, furosemide, aspirin, atorvastatin, thiamine, folic acid, and a multivitamin. No medications are offered for AUD treatment. At follow-up a week later, he presents with dyspnea and reports poor medication adherence and a return to heavy drinking.

AUD is common among hospitalized patients.¹ AUD increases the risk of vitamin deficiencies due to the toxic effects of alcohol on the gastrointestinal tract and liver, causing impaired digestion, reduced absorption, and increased degradation of key micronutrients.^2,3 Other risk factors for AUD-associated vitamin deficiencies include food insecurity and the replacement of nutrient-rich food with alcohol. Since the body does not readily store water-soluble vitamins, including thiamine (vitamin B₁) and folate (vitamin B₉), people require regular dietary replenishment of these nutrients. Thus, if individuals with AUD eat less fortified food, they risk developing thiamine, folate, niacin, and other vitamin deficiencies. Since AUD puts patients at risk for vitamin deficiencies, hospitalized patients typically receive vitamin supplementation, including thiamine, folic acid, and a multivitamin (most formulations contain water-soluble vitamins B and C and micronutrients).¹ Hospitalists often continue these medications at discharge.

Thiamine deficiency may manifest as Wernicke encephalopathy (WE), peripheral neuropathy, or a high-output heart failure state. Untreated, acute WE can progress to irreversible Korsakoff psychosis. Given the serious morbidity and mortality of unrecognized and untreated WE, hospitalists often start high-dose intravenous (IV) thiamine at 200 to 500 mg every 8 hours for at least 72 hours for patients with WE risk factors (including AUD) or those with suspected WE based on clinical presentation.^4,5

Hospitalists empirically treat with thiamine, folate, and other vitamins upon hospital admission with the intent of reducing morbidity associated with nutritional deficiencies.¹ Repletion poses few risks to patients since the kidneys eliminate water-soluble vitamins. Multivitamins also have a low potential for direct harm and a low cost. Given the consequences of missing a deficiency, alcohol withdrawal–management order sets commonly embed vitamin repletion orders.⁶

Hospitalists often reflexively continue vitamin supplementation on discharge. Unfortunately, there is no evidence that prescribing vitamin supplementation leads to clinically significant improvements for people with AUD, and patients can experience harms.

Literature and specialty guidelines lack consensus on rational vitamin supplementation in patients with AUD.^2,7,8 Folate testing is not recommended due to inaccuracies.⁹ In fact, clinical data, such as body mass index, more accurately predict alcohol-related cognitive impairment than blood levels of vitamins.¹⁰ In one small study of vitamin deficiencies among patients with acute alcohol intoxication, none had low B₁₂ or folate levels.¹¹ A systematic review among people experiencing homelessness with unhealthy alcohol use showed no clear pattern of vitamin deficiencies across studies, although vitamin C and thiamine deficiencies predominated.¹²

In the absence of reliable thiamine and folate testing to confirm deficiencies, clinicians must use their clinical assessment skills. Clinicians rarely evaluate patients with AUD for vitamin deficiency risk factors and instead reflexively prescribe vitamin supplementation. An AUD diagnosis may serve as a sensitive, but not specific, risk factor for those in need of vitamin supplementation. Once the diagnosis of AUD is made, further investigation can help discern which AUD patients will benefit from vitamins after discharge.

Other limitations make prescribing oral vitamins reflexively at discharge a low-value practice. Thiamine, often prescribed orally in the hospital and on discharge, has poor oral bioavailability.¹³ Unfortunately, people with AUD have decreased and variable thiamine absorption. To prevent WE, thiamine must cross the blood-brain barrier, and the literature provides insufficient evidence to guide clinicians on an appropriate oral thiamine dose, frequency, or duration of treatment.¹⁴ While early high-dose IV thiamine may treat or prevent WE during hospitalization, low-dose oral thiamine may not provide benefit to patients with AUD.⁵

The literature also provides sparse evidence for folate supplementation and its optimal dose. Since 1998, when the United States mandated fortifying grain products with folic acid, people rarely have low serum folate levels. Though patients with AUD have lower folate levels relative to the general population,¹⁵ this difference does not seem clinically significant. While limited data show an association between oral multivitamin supplementation and improved serum nutrient levels among people with AUD, we lack evidence on clinical outcomes.¹⁶

Most importantly, for a practice lacking strong evidence, prescribing multiple vitamins at discharge may result in harm from polypharmacy and unnecessary costs for the recently hospitalized patient. Alcohol use is associated with decreased adherence to medications for chronic conditions,¹⁷ including HIV, hypertension, hyperlipidemia, and psychiatric diseases. In addition, research shows an association between an increased number of discharge medications and higher risk for hospital readmission. The harm may actually correlate with the number of medications and complexity of the regimen rather than the risk profile of the medications themselves.¹⁸ Providers underestimate the impact of adding multiple vitamins at discharge, especially for patients who have several co-occurring medical conditions that require other medications. Furthermore, insurance rarely covers vitamins, leading hospitals or patients to incur the costs at discharge.

When treating patients with AUD, consider the potential benefit of vitamin supplementation for the individual. If a patient with regular, heavy alcohol use is at high risk of vitamin deficiencies due to ongoing risk factors (Table), hospitalists should discuss vitamin therapy via a patient-centered risk-benefit process.

When considering discharge vitamins, make concurrent efforts to enhance patient nutrition via decreased alcohol consumption and improved healthy food intake. While some patients do not have a goal of abstaining from alcohol, providing resources to food access may help decrease the harms of drinking. Education may help patients learn that vitamin deficiencies can result from heavy alcohol use.

Multivitamin formulations have variable doses of vitamins but can contain 100% or more of the daily value of thiamine and folic acid. For patients with AUD at lower risk of vitamin deficiencies (ie, mild alcohol use disorder with a healthy diet), discuss risks and benefits of supplementation. If they desire supplementation, a single thiamine-containing vitamin alone may be highest yield since it is the most morbid vitamin deficiency. Conversely, a patient with heavy alcohol intake and other risk factors for malnutrition may benefit from a higher dose of supplementation, achieved by prescribing a multivitamin alongside additional doses of thiamine and folate. However, the literature lacks evidence to guide clinicians on optimal vitamin dosing and formulations.

Instead of reflexively prescribing thiamine, folate, and multivitamin, clinicians can assess patients for AUD, provide motivational interviewing, and offer AUD treatment. Hospitalists should initiate and prescribe evidence-based medications for AUD for patients interested in reducing or stopping their alcohol intake. We can choose from Food and Drug Administration–approved AUD medications, including naltrexone and acamprosate. Unfortunately, less than 3% of patients with AUD receive medication therapy.¹⁹ Our healthcare systems can also refer individuals to community psychosocial treatment.

For patients with risk factors, prescribe empiric IV thiamine during hospitalization. Clinicians should then perform a risk-benefit assessment rather than reflexively prescribe vitamins to patients with AUD at discharge. We should also counsel patients to eat food when drinking to decrease alcohol-related harms.²⁰ Patients experiencing food insecurity should be linked to food resources through inpatient nutritional and social work consultations.

Elicit patient preference around vitamin supplementation after discharge. For patients with AUD who desire supplementation without risk factors for malnutrition (Table), consider prescribing a single thiamine-containing vitamin for prevention of thiamine deficiency, which, unlike other vitamin deficiencies, has the potential to be irreversible and life-threatening. Though no evidence currently supports this practice, it stands to reason that prescribing a single tablet could decrease the number of pills for patients who struggle with pill burden.

• Offer evidence-based medication treatment for AUD.
• Connect patients experiencing food insecurity with appropriate resources.
• For patients initiated on a multivitamin, folate, and high-dose IV thiamine at admission, perform vitamin de-escalation during hospitalization.
• Risk-stratify hospitalized patients with AUD for additional risk factors for vitamin deficiencies (Table). In those with additional risk factors, offer supplementation if consistent with patient preference. Balance the benefits of vitamin supplementation with the risks of polypharmacy, particularly if the patient has conditions requiring multiple medications.

Returning to our case, the hospitalist initiates IV thiamine, folate, and a multivitamin at admission and assesses the patient’s nutritional status and food insecurity. The hospitalist deems the patient—who eats regular, balanced meals—to be at low risk for vitamin deficiencies. The medical team discontinues folate and multivitamins before discharge and continues IV thiamine throughout the 3-day hospitalization. The patient and clinician agree that unaddressed AUD played a key role in the patient’s heart failure exacerbation. The clinician elicits the patient’s goals around their alcohol use, discusses AUD treatment, and initiates naltrexone for AUD.

Do you think this is a low-value practice? Is this truly a “Thing We Do for No Reason™”? Share what you do in your practice and join in the conversation online by retweeting it on Twitter (#TWDFNR) and liking it on Facebook. We invite you to propose ideas for other “Things We Do for No Reason™” topics by emailing [email protected].

Inspired by the ABIM Foundation’s Choosing Wisely^® campaign, the “Things We Do for No Reason^™” (TWDFNR) series reviews practices that have become common parts of hospital care but may provide little value to our patients. Practices reviewed in the TWDFNR series do not represent clear-cut conclusions or clinical practice standards but are meant as a starting place for research and active discussions among hospitalists and patients. We invite you to be part of that discussion.

The hospitalist admits an 80-year-old man for a chronic obstructive pulmonary disease exacerbation. The patient’s history is significant for chronic right knee pain. While hospitalized, the patient reports worsening of his knee pain. Radiographs of the right knee show severe osteoarthritic changes. Since acetaminophen does not relieve the patient’s pain, the hospitalist orders tramadol as needed.

Hospitalists, who commonly evaluate and treat acute and chronic pain in the inpatient setting, have a wide selection of interventions from which to choose, including tramadol. Tramadol hydrochloride is a synthetic, central-acting analgesic with multiple mechanisms of action. It is a serotonin-norepinephrine reuptake inhibitor (SNRI) with a structure similar to venlafaxine and produces antineuropathic analgesic effects.¹ Tramadol and its primary active metabolite O-desmethyltramadol (also known as the M1 metabolite) mediate its effects by binding at the mu-opioid receptor.² Phase I metabolism in the liver by cytochrome P450 isoenzyme 2D6 (CYP2D6) facilitates conversion of tramadol to M1 (Figure). Importantly, genetic polymorphisms in CYP2D6 result in individual variations in gene expression, which impacts the metabolism of tramadol.²

Although tramadol is available over the counter in some countries, in the United States it is a Schedule IV controlled substance. Tramadol consistently ranks among the top 50 prescribed medications in the United States.³

Given the growing concerns regarding the use of opioids, the pharmaceutical industry has marketed tramadol as a safer opioid option for pain management. Tramadol binds at the mu-opioid receptor with an affinity that is less than 4000-fold that of morphine; the binding potency of M1, the metabolite of tramadol, is less than 5-fold that of morphine.⁴ Due to its lower binding affinity at the mu-opioid receptor, tramadol is considered a weak opioid, one believed to have minimal withdrawal symptoms and a lower potential for overdose or misuse compared to other opioids.^1,5 Based on this characterization, many clinicians prescribe tramadol for elderly patients or patients otherwise at risk for medication misuse or adverse effects of opioids.⁶ In addition, hospitalized patients often have contraindications to nonopioid medications (eg, acetaminophen, nonsteroidal anti-inflammatory drugs [NSAIDs]), limiting their options for pain management.

Despite being marketed as an effective and safe medication, tramadol has an unpredictable metabolism, complex pharmacology, and drug-drug interactions that can cause significant adverse effects. Similar to other opioids, tramadol is associated with a risk of misuse, physiologic dependency, and overdose. In addition, tramadol has a black box warning for addiction, misuse, respiratory depression, ultra-rapid metabolism, neonatal opioid withdrawal syndrome, CYP450 drug interactions, and interactions with other central nervous system depressants.

While tramadol has multiple mechanisms of action, the literature lacks high-quality evidence (eg, large randomized controlled trials) supporting its use, especially in hospitalized medical patients. A recent retrospective study of tramadol looked at the diagnoses of 250 hospitalized patients who received tramadol for pain management. While this study did not examine efficacy, it found mild-to-moderate acute noncancer pain to be the primary reason for prescribing tramadol.⁷ This study also showed the risk of severe drug-drug interactions increased the longer patients were on tramadol.⁷

As a result of the limited evidence in hospitalized patients, hospitalists must rely on outpatient studies.^8-10 The size and quality of these studies, especially given the magnitude of tramadol prescribing in the United States, make them less useful. A series of Cochrane reviews examining the beneficial effects of tramadol for neuropathic pain, osteoarthritis, and cancer pain show insufficient evidence for tramadol when compared to placebo or active controls such as acetaminophen, NSAIDs, or other opioids.^8-10

The side-effect profile of tramadol outweighs its mild analgesic effects. The 2019 American Geriatric Society Beers criteria for potentially inappropriate medication use in older adults strongly recommends clinicians use caution when prescribing tramadol to older adult patients, as tramadol may worsen or cause hyponatremia.¹¹ In one large, population-based study, the use of tramadol doubled patients’ risk of hospitalization for hyponatremia when compared to codeine, though the incidence remains rather low at 4.6 per 10,000 person-months.¹² Studies have also demonstrated an increased risk of hospitalization for hypoglycemia in nondiabetic patients receiving tramadol.¹³ A large propensity-score matched cohort study of patients with osteoarthritis found tramadol to have an associated higher all-cause mortality compared to NSAIDs; however, these differences may be due to confounding variables.¹ In addition to hyponatremia and all-cause mortality, patients taking tramadol also have an associated increased risk of falls and hip fractures when compared to codeine or NSAIDs.¹⁴

The increased serotonergic activity associated with tramadol can lead to serotonin syndrome (serotonin toxicity), a rare but serious condition. Although serotonin syndrome can develop in patients taking tramadol as a monotherapy, the risk for this toxidrome increases when tramadol is taken in combination with other serotonergic agents or agents that inhibit metabolism of tramadol at CYP2D6.⁵ Seizures may also occur with tramadol at therapeutic and supratherapeutic doses. Population-based studies estimate seizures occur in 0.15% to 0.86% of patients receiving tramadol, which is two to six times the risk of those not on tramadol.⁵ Patients concurrently taking tramadol with a tricyclic antidepressant (TCA) or selective serotonin reuptake inhibitor (SSRI) are estimated to have seizures five to nine times more often than patients not taking a TCA or SSRI.⁵ Risk factors for tramadol-induced seizure include tramadol misuse or overdose, tramadol doses >1000 mg daily (maximum recommended dose is 400 mg/day), chronic tramadol use, concurrent use of a serotonergic agent or medications that inhibit CYP2D6, and history of epilepsy, renal disease, stroke, or traumatic brain injury.⁵ 

Differences in the genetic polymorphisms of CYP2D6 can produce a range of CYP2D6 activity from “poor metabolizers” (little-to-no analgesic effect) to “ultra-rapid metabolizers” (enhanced analgesia and increased risk of adverse effects), leading to unpredictable pharmacodynamic effects of tramadol.² In North Africa and the Arabian peninsula, more than 25% of the population rapidly metabolizes tramadol; these pharmacogenomic effects result in higher rates of tramadol addiction and overdose in these regions.⁵ An estimated 7% to 10% of Caucasians slowly metabolize tramadol, which may place them at risk of adverse effects from tramadol in addition to inadequate analgesia.¹⁵ In contrast, Ethiopian populations have the highest rate of ultra-rapid tramadol metabolism at 29%.¹⁵

Drugs that induce CYP2D6 (eg, dexamethasone, rifampin) or inhibit CYP2D6 (eg, bupropion, fluoxetine) also impact tramadol efficacy, pharmacokinetics, and pharmacodynamics.^16,17 Patients taking strong CYP2D6 inhibitors require significantly higher doses of tramadol to achieve analgesic effects.¹⁷ Tramadol undergoes extensive hepatic metabolism, producing several active metabolites, including M1 (Figure). Hepatic impairment increases the elimination half-life of tramadol and its metabolites.¹⁸ The majority of tramadol and its metabolites are eliminated through the kidneys. Accumulation of tramadol and its metabolites may occur in patients with renal impairment, placing them at increased risk of adverse effects.²

Finally, although some clinicians assume that tramadol has lower rates of misuse, diversion, or overdose compared to other opioids, rates of nonprescription use have increased with its proliferation.^19,20 The US Substance Abuse and Mental Health Services Administration estimates that 1,287,000 persons misused tramadol in 2019.²¹ Patients may exhibit symptoms of physiologic opioid dependence and withdrawal from chronic tramadol use.^2,22 In one study, patients prescribed tramadol monotherapy for acute pain from elective surgery had an increased risk for prolonged opioid use compared to patients prescribed other short-acting opioids.²²

Clinicians should determine the nature of the patient’s pain by obtaining a complete medical history, performing a thorough physical examination, and ordering diagnostic tests and imaging studies, as necessary. After consulting with the patient’s primary care physician, the clinician should employ a multimodal approach to pain that includes topical agents, psychotherapy, injections or interventions, and nonopioid medications. Patients with neuropathic pain may benefit from adjuvant analgesics such as gabapentinoids, TCAs, or SNRIs. In patients with evidence-based indications for opioid therapy (eg, pancreatitis, cancer pain, postsurgical pain), the hospitalist should assess the risk for opioid misuse and discuss risks and benefits with the patient before considering a time-limited trial of opioid therapy. If available and when indicated, clinicians should consult with specialists in pain management or palliative care. For cases wherein clinicians have already prescribed tramadol to the patient, they should discuss deprescribing strategies and alternative analgesic options with the patient and the patient’s primary care physician. Finally, before initiating tramadol therapy for hospitalized patients with pain, hospitalists should consider the risks, benefits, and alternative approaches to prescribing tramadol.

• For hospitalized patients reporting pain, complete a pain assessment by history, physical exam, chart review, and diagnostic studies to examine the etiology of the pain.
• Utilize multiple modalities for pain control when possible, including acetaminophen, NSAIDs, topical agents, ice or heat, neuropathic pain medications, and interventions such as injections, psychotherapy, or radiation, if indicated.
• Avoid prescribing tramadol due to unpredictable pharmacodynamics, adverse effects, and lack of quality evidence for efficacy in hospitalized medical patients.

Tramadol is a commonly used opioid medication associated with adverse effects and unpredictable analgesia. Regarding this case scenario, the use of tramadol in this patient places him at risk for drug-drug interactions, hyponatremia, hypoglycemia, serotonin syndrome, seizures, and pronounced side effects of opioid medications. Moderate quality evidence in the outpatient setting suggests that tramadol is unlikely to provide significant analgesia for his osteoarthritic pain.⁹ Instead of prescribing tramadol, the hospitalist should consider alternative treatments for this patient’s pain, such as intraarticular glucocorticoids, a short course of oral NSAIDs (unless contraindicated), topical treatments (eg, menthol, capsaicin, NSAIDs), physical therapy, and close follow-up with an orthopedist after hospital discharge. Further randomized controlled studies of tramadol vs active controls are needed.

Do you think this is a low-value practice? Is this truly a “Thing We Do for No Reason™”? Share what you do in your practice and join in the conversation online by retweeting it on Twitter (#TWDFNR) and liking it on Facebook. We invite you to propose ideas for other “Things We Do for No Reason™” topics by emailing [email protected].

Inspired by the ABIM Foundation’s Choosing Wisely^® campaign, the “Things We Do for No Reason^™” (TWDFNR) series reviews practices that have become common parts of hospital care but may provide little value to our patients. Practices reviewed in the TWDFNR series do not represent clear-cut conclusions or clinical practice standards but are meant as a starting place for research and active discussions among hospitalists and patients. We invite you to be part of that discussion.

The hospitalist admits an 80-year-old man for a chronic obstructive pulmonary disease exacerbation. The patient’s history is significant for chronic right knee pain. While hospitalized, the patient reports worsening of his knee pain. Radiographs of the right knee show severe osteoarthritic changes. Since acetaminophen does not relieve the patient’s pain, the hospitalist orders tramadol as needed.

Hospitalists, who commonly evaluate and treat acute and chronic pain in the inpatient setting, have a wide selection of interventions from which to choose, including tramadol. Tramadol hydrochloride is a synthetic, central-acting analgesic with multiple mechanisms of action. It is a serotonin-norepinephrine reuptake inhibitor (SNRI) with a structure similar to venlafaxine and produces antineuropathic analgesic effects.¹ Tramadol and its primary active metabolite O-desmethyltramadol (also known as the M1 metabolite) mediate its effects by binding at the mu-opioid receptor.² Phase I metabolism in the liver by cytochrome P450 isoenzyme 2D6 (CYP2D6) facilitates conversion of tramadol to M1 (Figure). Importantly, genetic polymorphisms in CYP2D6 result in individual variations in gene expression, which impacts the metabolism of tramadol.²

Although tramadol is available over the counter in some countries, in the United States it is a Schedule IV controlled substance. Tramadol consistently ranks among the top 50 prescribed medications in the United States.³

Given the growing concerns regarding the use of opioids, the pharmaceutical industry has marketed tramadol as a safer opioid option for pain management. Tramadol binds at the mu-opioid receptor with an affinity that is less than 4000-fold that of morphine; the binding potency of M1, the metabolite of tramadol, is less than 5-fold that of morphine.⁴ Due to its lower binding affinity at the mu-opioid receptor, tramadol is considered a weak opioid, one believed to have minimal withdrawal symptoms and a lower potential for overdose or misuse compared to other opioids.^1,5 Based on this characterization, many clinicians prescribe tramadol for elderly patients or patients otherwise at risk for medication misuse or adverse effects of opioids.⁶ In addition, hospitalized patients often have contraindications to nonopioid medications (eg, acetaminophen, nonsteroidal anti-inflammatory drugs [NSAIDs]), limiting their options for pain management.

Despite being marketed as an effective and safe medication, tramadol has an unpredictable metabolism, complex pharmacology, and drug-drug interactions that can cause significant adverse effects. Similar to other opioids, tramadol is associated with a risk of misuse, physiologic dependency, and overdose. In addition, tramadol has a black box warning for addiction, misuse, respiratory depression, ultra-rapid metabolism, neonatal opioid withdrawal syndrome, CYP450 drug interactions, and interactions with other central nervous system depressants.

While tramadol has multiple mechanisms of action, the literature lacks high-quality evidence (eg, large randomized controlled trials) supporting its use, especially in hospitalized medical patients. A recent retrospective study of tramadol looked at the diagnoses of 250 hospitalized patients who received tramadol for pain management. While this study did not examine efficacy, it found mild-to-moderate acute noncancer pain to be the primary reason for prescribing tramadol.⁷ This study also showed the risk of severe drug-drug interactions increased the longer patients were on tramadol.⁷

As a result of the limited evidence in hospitalized patients, hospitalists must rely on outpatient studies.^8-10 The size and quality of these studies, especially given the magnitude of tramadol prescribing in the United States, make them less useful. A series of Cochrane reviews examining the beneficial effects of tramadol for neuropathic pain, osteoarthritis, and cancer pain show insufficient evidence for tramadol when compared to placebo or active controls such as acetaminophen, NSAIDs, or other opioids.^8-10

The side-effect profile of tramadol outweighs its mild analgesic effects. The 2019 American Geriatric Society Beers criteria for potentially inappropriate medication use in older adults strongly recommends clinicians use caution when prescribing tramadol to older adult patients, as tramadol may worsen or cause hyponatremia.¹¹ In one large, population-based study, the use of tramadol doubled patients’ risk of hospitalization for hyponatremia when compared to codeine, though the incidence remains rather low at 4.6 per 10,000 person-months.¹² Studies have also demonstrated an increased risk of hospitalization for hypoglycemia in nondiabetic patients receiving tramadol.¹³ A large propensity-score matched cohort study of patients with osteoarthritis found tramadol to have an associated higher all-cause mortality compared to NSAIDs; however, these differences may be due to confounding variables.¹ In addition to hyponatremia and all-cause mortality, patients taking tramadol also have an associated increased risk of falls and hip fractures when compared to codeine or NSAIDs.¹⁴

The increased serotonergic activity associated with tramadol can lead to serotonin syndrome (serotonin toxicity), a rare but serious condition. Although serotonin syndrome can develop in patients taking tramadol as a monotherapy, the risk for this toxidrome increases when tramadol is taken in combination with other serotonergic agents or agents that inhibit metabolism of tramadol at CYP2D6.⁵ Seizures may also occur with tramadol at therapeutic and supratherapeutic doses. Population-based studies estimate seizures occur in 0.15% to 0.86% of patients receiving tramadol, which is two to six times the risk of those not on tramadol.⁵ Patients concurrently taking tramadol with a tricyclic antidepressant (TCA) or selective serotonin reuptake inhibitor (SSRI) are estimated to have seizures five to nine times more often than patients not taking a TCA or SSRI.⁵ Risk factors for tramadol-induced seizure include tramadol misuse or overdose, tramadol doses >1000 mg daily (maximum recommended dose is 400 mg/day), chronic tramadol use, concurrent use of a serotonergic agent or medications that inhibit CYP2D6, and history of epilepsy, renal disease, stroke, or traumatic brain injury.⁵ 

Differences in the genetic polymorphisms of CYP2D6 can produce a range of CYP2D6 activity from “poor metabolizers” (little-to-no analgesic effect) to “ultra-rapid metabolizers” (enhanced analgesia and increased risk of adverse effects), leading to unpredictable pharmacodynamic effects of tramadol.² In North Africa and the Arabian peninsula, more than 25% of the population rapidly metabolizes tramadol; these pharmacogenomic effects result in higher rates of tramadol addiction and overdose in these regions.⁵ An estimated 7% to 10% of Caucasians slowly metabolize tramadol, which may place them at risk of adverse effects from tramadol in addition to inadequate analgesia.¹⁵ In contrast, Ethiopian populations have the highest rate of ultra-rapid tramadol metabolism at 29%.¹⁵

Drugs that induce CYP2D6 (eg, dexamethasone, rifampin) or inhibit CYP2D6 (eg, bupropion, fluoxetine) also impact tramadol efficacy, pharmacokinetics, and pharmacodynamics.^16,17 Patients taking strong CYP2D6 inhibitors require significantly higher doses of tramadol to achieve analgesic effects.¹⁷ Tramadol undergoes extensive hepatic metabolism, producing several active metabolites, including M1 (Figure). Hepatic impairment increases the elimination half-life of tramadol and its metabolites.¹⁸ The majority of tramadol and its metabolites are eliminated through the kidneys. Accumulation of tramadol and its metabolites may occur in patients with renal impairment, placing them at increased risk of adverse effects.²

Finally, although some clinicians assume that tramadol has lower rates of misuse, diversion, or overdose compared to other opioids, rates of nonprescription use have increased with its proliferation.^19,20 The US Substance Abuse and Mental Health Services Administration estimates that 1,287,000 persons misused tramadol in 2019.²¹ Patients may exhibit symptoms of physiologic opioid dependence and withdrawal from chronic tramadol use.^2,22 In one study, patients prescribed tramadol monotherapy for acute pain from elective surgery had an increased risk for prolonged opioid use compared to patients prescribed other short-acting opioids.²²

Clinicians should determine the nature of the patient’s pain by obtaining a complete medical history, performing a thorough physical examination, and ordering diagnostic tests and imaging studies, as necessary. After consulting with the patient’s primary care physician, the clinician should employ a multimodal approach to pain that includes topical agents, psychotherapy, injections or interventions, and nonopioid medications. Patients with neuropathic pain may benefit from adjuvant analgesics such as gabapentinoids, TCAs, or SNRIs. In patients with evidence-based indications for opioid therapy (eg, pancreatitis, cancer pain, postsurgical pain), the hospitalist should assess the risk for opioid misuse and discuss risks and benefits with the patient before considering a time-limited trial of opioid therapy. If available and when indicated, clinicians should consult with specialists in pain management or palliative care. For cases wherein clinicians have already prescribed tramadol to the patient, they should discuss deprescribing strategies and alternative analgesic options with the patient and the patient’s primary care physician. Finally, before initiating tramadol therapy for hospitalized patients with pain, hospitalists should consider the risks, benefits, and alternative approaches to prescribing tramadol.

• For hospitalized patients reporting pain, complete a pain assessment by history, physical exam, chart review, and diagnostic studies to examine the etiology of the pain.
• Utilize multiple modalities for pain control when possible, including acetaminophen, NSAIDs, topical agents, ice or heat, neuropathic pain medications, and interventions such as injections, psychotherapy, or radiation, if indicated.
• Avoid prescribing tramadol due to unpredictable pharmacodynamics, adverse effects, and lack of quality evidence for efficacy in hospitalized medical patients.

Tramadol is a commonly used opioid medication associated with adverse effects and unpredictable analgesia. Regarding this case scenario, the use of tramadol in this patient places him at risk for drug-drug interactions, hyponatremia, hypoglycemia, serotonin syndrome, seizures, and pronounced side effects of opioid medications. Moderate quality evidence in the outpatient setting suggests that tramadol is unlikely to provide significant analgesia for his osteoarthritic pain.⁹ Instead of prescribing tramadol, the hospitalist should consider alternative treatments for this patient’s pain, such as intraarticular glucocorticoids, a short course of oral NSAIDs (unless contraindicated), topical treatments (eg, menthol, capsaicin, NSAIDs), physical therapy, and close follow-up with an orthopedist after hospital discharge. Further randomized controlled studies of tramadol vs active controls are needed.

Do you think this is a low-value practice? Is this truly a “Thing We Do for No Reason™”? Share what you do in your practice and join in the conversation online by retweeting it on Twitter (#TWDFNR) and liking it on Facebook. We invite you to propose ideas for other “Things We Do for No Reason™” topics by emailing [email protected].

Inspired by the ABIM Foundation’s Choosing Wisely^® campaign, the “Things We Do for No Reason^™” (TWDFNR) series reviews practices that have become common parts of hospital care but may provide little value to our patients. Practices reviewed in the TWDFNR series do not represent clear-cut conclusions or clinical practice standards but are meant as a starting place for research and active discussions among hospitalists and patients. We invite you to be part of that discussion.

The hospitalist admits an 80-year-old man for a chronic obstructive pulmonary disease exacerbation. The patient’s history is significant for chronic right knee pain. While hospitalized, the patient reports worsening of his knee pain. Radiographs of the right knee show severe osteoarthritic changes. Since acetaminophen does not relieve the patient’s pain, the hospitalist orders tramadol as needed.

Hospitalists, who commonly evaluate and treat acute and chronic pain in the inpatient setting, have a wide selection of interventions from which to choose, including tramadol. Tramadol hydrochloride is a synthetic, central-acting analgesic with multiple mechanisms of action. It is a serotonin-norepinephrine reuptake inhibitor (SNRI) with a structure similar to venlafaxine and produces antineuropathic analgesic effects.¹ Tramadol and its primary active metabolite O-desmethyltramadol (also known as the M1 metabolite) mediate its effects by binding at the mu-opioid receptor.² Phase I metabolism in the liver by cytochrome P450 isoenzyme 2D6 (CYP2D6) facilitates conversion of tramadol to M1 (Figure). Importantly, genetic polymorphisms in CYP2D6 result in individual variations in gene expression, which impacts the metabolism of tramadol.²

Although tramadol is available over the counter in some countries, in the United States it is a Schedule IV controlled substance. Tramadol consistently ranks among the top 50 prescribed medications in the United States.³

Given the growing concerns regarding the use of opioids, the pharmaceutical industry has marketed tramadol as a safer opioid option for pain management. Tramadol binds at the mu-opioid receptor with an affinity that is less than 4000-fold that of morphine; the binding potency of M1, the metabolite of tramadol, is less than 5-fold that of morphine.⁴ Due to its lower binding affinity at the mu-opioid receptor, tramadol is considered a weak opioid, one believed to have minimal withdrawal symptoms and a lower potential for overdose or misuse compared to other opioids.^1,5 Based on this characterization, many clinicians prescribe tramadol for elderly patients or patients otherwise at risk for medication misuse or adverse effects of opioids.⁶ In addition, hospitalized patients often have contraindications to nonopioid medications (eg, acetaminophen, nonsteroidal anti-inflammatory drugs [NSAIDs]), limiting their options for pain management.

Despite being marketed as an effective and safe medication, tramadol has an unpredictable metabolism, complex pharmacology, and drug-drug interactions that can cause significant adverse effects. Similar to other opioids, tramadol is associated with a risk of misuse, physiologic dependency, and overdose. In addition, tramadol has a black box warning for addiction, misuse, respiratory depression, ultra-rapid metabolism, neonatal opioid withdrawal syndrome, CYP450 drug interactions, and interactions with other central nervous system depressants.

While tramadol has multiple mechanisms of action, the literature lacks high-quality evidence (eg, large randomized controlled trials) supporting its use, especially in hospitalized medical patients. A recent retrospective study of tramadol looked at the diagnoses of 250 hospitalized patients who received tramadol for pain management. While this study did not examine efficacy, it found mild-to-moderate acute noncancer pain to be the primary reason for prescribing tramadol.⁷ This study also showed the risk of severe drug-drug interactions increased the longer patients were on tramadol.⁷

As a result of the limited evidence in hospitalized patients, hospitalists must rely on outpatient studies.^8-10 The size and quality of these studies, especially given the magnitude of tramadol prescribing in the United States, make them less useful. A series of Cochrane reviews examining the beneficial effects of tramadol for neuropathic pain, osteoarthritis, and cancer pain show insufficient evidence for tramadol when compared to placebo or active controls such as acetaminophen, NSAIDs, or other opioids.^8-10

The side-effect profile of tramadol outweighs its mild analgesic effects. The 2019 American Geriatric Society Beers criteria for potentially inappropriate medication use in older adults strongly recommends clinicians use caution when prescribing tramadol to older adult patients, as tramadol may worsen or cause hyponatremia.¹¹ In one large, population-based study, the use of tramadol doubled patients’ risk of hospitalization for hyponatremia when compared to codeine, though the incidence remains rather low at 4.6 per 10,000 person-months.¹² Studies have also demonstrated an increased risk of hospitalization for hypoglycemia in nondiabetic patients receiving tramadol.¹³ A large propensity-score matched cohort study of patients with osteoarthritis found tramadol to have an associated higher all-cause mortality compared to NSAIDs; however, these differences may be due to confounding variables.¹ In addition to hyponatremia and all-cause mortality, patients taking tramadol also have an associated increased risk of falls and hip fractures when compared to codeine or NSAIDs.¹⁴

The increased serotonergic activity associated with tramadol can lead to serotonin syndrome (serotonin toxicity), a rare but serious condition. Although serotonin syndrome can develop in patients taking tramadol as a monotherapy, the risk for this toxidrome increases when tramadol is taken in combination with other serotonergic agents or agents that inhibit metabolism of tramadol at CYP2D6.⁵ Seizures may also occur with tramadol at therapeutic and supratherapeutic doses. Population-based studies estimate seizures occur in 0.15% to 0.86% of patients receiving tramadol, which is two to six times the risk of those not on tramadol.⁵ Patients concurrently taking tramadol with a tricyclic antidepressant (TCA) or selective serotonin reuptake inhibitor (SSRI) are estimated to have seizures five to nine times more often than patients not taking a TCA or SSRI.⁵ Risk factors for tramadol-induced seizure include tramadol misuse or overdose, tramadol doses >1000 mg daily (maximum recommended dose is 400 mg/day), chronic tramadol use, concurrent use of a serotonergic agent or medications that inhibit CYP2D6, and history of epilepsy, renal disease, stroke, or traumatic brain injury.⁵ 

Differences in the genetic polymorphisms of CYP2D6 can produce a range of CYP2D6 activity from “poor metabolizers” (little-to-no analgesic effect) to “ultra-rapid metabolizers” (enhanced analgesia and increased risk of adverse effects), leading to unpredictable pharmacodynamic effects of tramadol.² In North Africa and the Arabian peninsula, more than 25% of the population rapidly metabolizes tramadol; these pharmacogenomic effects result in higher rates of tramadol addiction and overdose in these regions.⁵ An estimated 7% to 10% of Caucasians slowly metabolize tramadol, which may place them at risk of adverse effects from tramadol in addition to inadequate analgesia.¹⁵ In contrast, Ethiopian populations have the highest rate of ultra-rapid tramadol metabolism at 29%.¹⁵

Drugs that induce CYP2D6 (eg, dexamethasone, rifampin) or inhibit CYP2D6 (eg, bupropion, fluoxetine) also impact tramadol efficacy, pharmacokinetics, and pharmacodynamics.^16,17 Patients taking strong CYP2D6 inhibitors require significantly higher doses of tramadol to achieve analgesic effects.¹⁷ Tramadol undergoes extensive hepatic metabolism, producing several active metabolites, including M1 (Figure). Hepatic impairment increases the elimination half-life of tramadol and its metabolites.¹⁸ The majority of tramadol and its metabolites are eliminated through the kidneys. Accumulation of tramadol and its metabolites may occur in patients with renal impairment, placing them at increased risk of adverse effects.²

Finally, although some clinicians assume that tramadol has lower rates of misuse, diversion, or overdose compared to other opioids, rates of nonprescription use have increased with its proliferation.^19,20 The US Substance Abuse and Mental Health Services Administration estimates that 1,287,000 persons misused tramadol in 2019.²¹ Patients may exhibit symptoms of physiologic opioid dependence and withdrawal from chronic tramadol use.^2,22 In one study, patients prescribed tramadol monotherapy for acute pain from elective surgery had an increased risk for prolonged opioid use compared to patients prescribed other short-acting opioids.²²

Clinicians should determine the nature of the patient’s pain by obtaining a complete medical history, performing a thorough physical examination, and ordering diagnostic tests and imaging studies, as necessary. After consulting with the patient’s primary care physician, the clinician should employ a multimodal approach to pain that includes topical agents, psychotherapy, injections or interventions, and nonopioid medications. Patients with neuropathic pain may benefit from adjuvant analgesics such as gabapentinoids, TCAs, or SNRIs. In patients with evidence-based indications for opioid therapy (eg, pancreatitis, cancer pain, postsurgical pain), the hospitalist should assess the risk for opioid misuse and discuss risks and benefits with the patient before considering a time-limited trial of opioid therapy. If available and when indicated, clinicians should consult with specialists in pain management or palliative care. For cases wherein clinicians have already prescribed tramadol to the patient, they should discuss deprescribing strategies and alternative analgesic options with the patient and the patient’s primary care physician. Finally, before initiating tramadol therapy for hospitalized patients with pain, hospitalists should consider the risks, benefits, and alternative approaches to prescribing tramadol.

• For hospitalized patients reporting pain, complete a pain assessment by history, physical exam, chart review, and diagnostic studies to examine the etiology of the pain.
• Utilize multiple modalities for pain control when possible, including acetaminophen, NSAIDs, topical agents, ice or heat, neuropathic pain medications, and interventions such as injections, psychotherapy, or radiation, if indicated.
• Avoid prescribing tramadol due to unpredictable pharmacodynamics, adverse effects, and lack of quality evidence for efficacy in hospitalized medical patients.

Tramadol is a commonly used opioid medication associated with adverse effects and unpredictable analgesia. Regarding this case scenario, the use of tramadol in this patient places him at risk for drug-drug interactions, hyponatremia, hypoglycemia, serotonin syndrome, seizures, and pronounced side effects of opioid medications. Moderate quality evidence in the outpatient setting suggests that tramadol is unlikely to provide significant analgesia for his osteoarthritic pain.⁹ Instead of prescribing tramadol, the hospitalist should consider alternative treatments for this patient’s pain, such as intraarticular glucocorticoids, a short course of oral NSAIDs (unless contraindicated), topical treatments (eg, menthol, capsaicin, NSAIDs), physical therapy, and close follow-up with an orthopedist after hospital discharge. Further randomized controlled studies of tramadol vs active controls are needed.

Do you think this is a low-value practice? Is this truly a “Thing We Do for No Reason™”? Share what you do in your practice and join in the conversation online by retweeting it on Twitter (#TWDFNR) and liking it on Facebook. We invite you to propose ideas for other “Things We Do for No Reason™” topics by emailing [email protected].

When pediatricians and other pediatric providers are given training and resource materials, levels of firearm screenings and anticipatory guidance about firearm safety increase significantly, according to two new studies presented at the annual meeting of the American Academy of Pediatrics.

“With the rise in firearm sales and injuries during the COVID-19 pandemic, it is more important than ever that pediatricians address the firearm epidemic,” said Alexandra Byrne, MD, a pediatric resident at the University of Florida in Gainesville, who presented one of the studies.

There were 4.3 million more firearms purchased from March through July 2020 than expected, a recent study estimates, and 4,075 more firearm injuries than expected from April through July 2020.

In states with more excess purchases, firearm injuries related to domestic violence increased in April (rate ratio, 2.60; 95% CI, 1.32-5.93) and May (RR, 1.79; 95% CI, 1.19-2.91) 2020. However, excess gun purchases had no effect on rates of firearm violence outside the home.

In addition to the link between firearms in the home and domestic violence, they are also linked to a three- to fourfold greater risk for teen suicide, and both depression and suicidal thoughts have risen in teens during the pandemic.

“The data are pretty clear that if you have an unlocked, loaded weapon in your home, and you have a kid who’s depressed or anxious or dysregulated or doing maladaptive things for the pandemic, they’re much more likely to inadvertently take their own or someone else’s life by grabbing [a gun],” said Cora Breuner, MD, MPH, professor of pediatrics at Seattle Children’s Hospital.

However, there is no difference in gun ownership or gun-safety measures between homes with and without at-risk children, previous research shows.
 

Training, guidance, and locks

Previous research has also shown that there has been a reluctance by pediatricians to conduct firearm screenings and counsel parents about gun safety in the home.

For their two-step program, Dr. Byrne’s team used a plan-do-study-act approach. They started by providing training on firearm safety, evidence-based recommendations for firearm screening, and anticipatory guidance regarding safe firearm storage to members of the general pediatrics division at the University of Florida. And they supplied clinics with free firearm locks.

Next they supplied clinics with posters and educational cards from the Be SMART campaign, an initiative of the Everytown for Gun Safety Support Fund, which provides materials for anyone, including physicians, to use.

During their study, the researchers sent three anonymous six-question online surveys – at baseline and 3 to 4 months after each of the two steps – to pediatric residents, physician assistants, advanced practice registered nurses, and attendings to assess the project. There were 52 responses to the first survey, for a response rate of 58.4%, 42 responses to the second survey, for a response rate of 47.2%, and 23 responses to the third survey, for a rate of response 25.8%.

The program nearly doubled screenings during well-child visits and dramatically increased the proportion of families who received a firearm lock when they told providers they had a firearm at home.

Adding a social-history component

A program to increase firearm screening was also presented at the AAP conference.

After random review of medical records from 30 patients admitted to the hospital documented zero firearm screenings, Marjorie Farrington, MD, and Samantha Gunkelman, MD, from Akron Children’s Hospital in Ohio, implemented a program that they hope will increase firearm screenings during inpatient admissions to at least 50%.

They started their ongoing program in April 2020 by adding a social-history component to the history and physical (H&P) exam template and educating residents on how to screen and included guidance on safe firearm storage.

They also had physicians with firearm expertise give gun-safety lectures, and they plan to involve the Family Resource Center at their hospital in the creation of resources that can be incorporated into discharge instructions.

From April 2020 to June 2021, after the addition to the H&P template, 63% of the 5196 patients admitted to the hospital underwent a firearm screening. Of the 25% of patients who reported guns at home, 3% were not storing their firearms safely.

The pair used the “Store It Safe” Physician Handout provided by the Ohio chapter of the AAP.

Many pediatricians and pediatric trainees are not comfortable counseling on firearm safety, often a result of inadequate training on the topic.

The BulletPoints Project — developed by the Violence Prevention Research Program at the University of California, Davis — can also help physicians talk to patients about guns.

“Many pediatricians and pediatric trainees are not comfortable counseling on firearm safety, often a result of inadequate training on the topic,” Dr. Byrne said in an interview. “Additionally, it is a challenging topic that can often be met with resistance from patients and families. Lack of time during visits is also a huge barrier.”

Lack of training is an obstacle to greater firearm screenings, Dr. Greeley agreed, as are the feeling that guidance simply won’t make a difference and concerns about political pressure and divineness. The lack of research on firearm injuries and the impact of firearm screenings and anticipatory guidance is a challenge, he added, although that is starting to change.

Pediatricians need education on how to make a difference when it comes to firearm safety, and should follow AAP guidelines, Dr. Greeley said.

Counseling on firearm safety is in the same category as immunizations, seatbelts, substance use, helmets, and other public-health issues that are important to address at visits, regardless of how difficult it might be, Dr. Breuner told this news organization.

“It is our mission, as pediatricians, to provide every ounce of prevention in our well-child and anticipatory guidance visits,” she said. “It’s our job, so we shouldn’t shy away from it even though it’s hard.”

Doctors are more comfortable discussing firearm safety if they are firearm owners, previous research has shown, so she advises pediatricians who feel unqualified to discuss firearms to seek guidance from their peers on how to approach screenings and anticipatory guidance, she noted.

The firearm study being done in an academic center gives me great pause. The populations are often very different than private practice.

Both of these studies were conducted at single institutions and might not reflect what would work in private clinics.

“The firearm study being done in an academic center gives me great pause,” Dr. Greeley said. “The populations are often very different than private practice. I think that there is still a lot that remains unknown about decreasing household firearm injury and death.”

And the degree to which findings from these two gun-safety programs can be generalized to other academic centers or children’s hospitals is unclear.

“There are states where, I suspect, firearm screening is much more common. Some states have very pro-firearm cultures and others are anti-firearm,” Dr. Greeley said. “There are also likely differences within states,” particularly between urban and rural regions.

“Firearms are often a very personal issue for families, and pediatricians in ‘pro-firearm’ communities may have greater resistance to working on this,” he pointed out.

Nevertheless, Dr. Greeley said, “this is a promising strategy that could be part of a broad injury prevention initiative.”

Neither study noted any external funding. Dr. Byrne is a member of the Moms Demand Action Gainesville Chapter, which donated the firearm locks for the project. Dr. Breuner, Dr. Greeley, and Dr. Farrington have disclosed no relevant financial relationships.

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

When pediatricians and other pediatric providers are given training and resource materials, levels of firearm screenings and anticipatory guidance about firearm safety increase significantly, according to two new studies presented at the annual meeting of the American Academy of Pediatrics.

“With the rise in firearm sales and injuries during the COVID-19 pandemic, it is more important than ever that pediatricians address the firearm epidemic,” said Alexandra Byrne, MD, a pediatric resident at the University of Florida in Gainesville, who presented one of the studies.

There were 4.3 million more firearms purchased from March through July 2020 than expected, a recent study estimates, and 4,075 more firearm injuries than expected from April through July 2020.

In states with more excess purchases, firearm injuries related to domestic violence increased in April (rate ratio, 2.60; 95% CI, 1.32-5.93) and May (RR, 1.79; 95% CI, 1.19-2.91) 2020. However, excess gun purchases had no effect on rates of firearm violence outside the home.

In addition to the link between firearms in the home and domestic violence, they are also linked to a three- to fourfold greater risk for teen suicide, and both depression and suicidal thoughts have risen in teens during the pandemic.

“The data are pretty clear that if you have an unlocked, loaded weapon in your home, and you have a kid who’s depressed or anxious or dysregulated or doing maladaptive things for the pandemic, they’re much more likely to inadvertently take their own or someone else’s life by grabbing [a gun],” said Cora Breuner, MD, MPH, professor of pediatrics at Seattle Children’s Hospital.

However, there is no difference in gun ownership or gun-safety measures between homes with and without at-risk children, previous research shows.
 

Training, guidance, and locks

Previous research has also shown that there has been a reluctance by pediatricians to conduct firearm screenings and counsel parents about gun safety in the home.

For their two-step program, Dr. Byrne’s team used a plan-do-study-act approach. They started by providing training on firearm safety, evidence-based recommendations for firearm screening, and anticipatory guidance regarding safe firearm storage to members of the general pediatrics division at the University of Florida. And they supplied clinics with free firearm locks.

Next they supplied clinics with posters and educational cards from the Be SMART campaign, an initiative of the Everytown for Gun Safety Support Fund, which provides materials for anyone, including physicians, to use.

During their study, the researchers sent three anonymous six-question online surveys – at baseline and 3 to 4 months after each of the two steps – to pediatric residents, physician assistants, advanced practice registered nurses, and attendings to assess the project. There were 52 responses to the first survey, for a response rate of 58.4%, 42 responses to the second survey, for a response rate of 47.2%, and 23 responses to the third survey, for a rate of response 25.8%.

The program nearly doubled screenings during well-child visits and dramatically increased the proportion of families who received a firearm lock when they told providers they had a firearm at home.

Adding a social-history component

A program to increase firearm screening was also presented at the AAP conference.

After random review of medical records from 30 patients admitted to the hospital documented zero firearm screenings, Marjorie Farrington, MD, and Samantha Gunkelman, MD, from Akron Children’s Hospital in Ohio, implemented a program that they hope will increase firearm screenings during inpatient admissions to at least 50%.

They started their ongoing program in April 2020 by adding a social-history component to the history and physical (H&P) exam template and educating residents on how to screen and included guidance on safe firearm storage.

They also had physicians with firearm expertise give gun-safety lectures, and they plan to involve the Family Resource Center at their hospital in the creation of resources that can be incorporated into discharge instructions.

From April 2020 to June 2021, after the addition to the H&P template, 63% of the 5196 patients admitted to the hospital underwent a firearm screening. Of the 25% of patients who reported guns at home, 3% were not storing their firearms safely.

The pair used the “Store It Safe” Physician Handout provided by the Ohio chapter of the AAP.

Many pediatricians and pediatric trainees are not comfortable counseling on firearm safety, often a result of inadequate training on the topic.

The BulletPoints Project — developed by the Violence Prevention Research Program at the University of California, Davis — can also help physicians talk to patients about guns.

“Many pediatricians and pediatric trainees are not comfortable counseling on firearm safety, often a result of inadequate training on the topic,” Dr. Byrne said in an interview. “Additionally, it is a challenging topic that can often be met with resistance from patients and families. Lack of time during visits is also a huge barrier.”

Lack of training is an obstacle to greater firearm screenings, Dr. Greeley agreed, as are the feeling that guidance simply won’t make a difference and concerns about political pressure and divineness. The lack of research on firearm injuries and the impact of firearm screenings and anticipatory guidance is a challenge, he added, although that is starting to change.

Pediatricians need education on how to make a difference when it comes to firearm safety, and should follow AAP guidelines, Dr. Greeley said.

Counseling on firearm safety is in the same category as immunizations, seatbelts, substance use, helmets, and other public-health issues that are important to address at visits, regardless of how difficult it might be, Dr. Breuner told this news organization.

“It is our mission, as pediatricians, to provide every ounce of prevention in our well-child and anticipatory guidance visits,” she said. “It’s our job, so we shouldn’t shy away from it even though it’s hard.”

Doctors are more comfortable discussing firearm safety if they are firearm owners, previous research has shown, so she advises pediatricians who feel unqualified to discuss firearms to seek guidance from their peers on how to approach screenings and anticipatory guidance, she noted.

The firearm study being done in an academic center gives me great pause. The populations are often very different than private practice.

Both of these studies were conducted at single institutions and might not reflect what would work in private clinics.

“The firearm study being done in an academic center gives me great pause,” Dr. Greeley said. “The populations are often very different than private practice. I think that there is still a lot that remains unknown about decreasing household firearm injury and death.”

And the degree to which findings from these two gun-safety programs can be generalized to other academic centers or children’s hospitals is unclear.

“There are states where, I suspect, firearm screening is much more common. Some states have very pro-firearm cultures and others are anti-firearm,” Dr. Greeley said. “There are also likely differences within states,” particularly between urban and rural regions.

“Firearms are often a very personal issue for families, and pediatricians in ‘pro-firearm’ communities may have greater resistance to working on this,” he pointed out.

Nevertheless, Dr. Greeley said, “this is a promising strategy that could be part of a broad injury prevention initiative.”

Neither study noted any external funding. Dr. Byrne is a member of the Moms Demand Action Gainesville Chapter, which donated the firearm locks for the project. Dr. Breuner, Dr. Greeley, and Dr. Farrington have disclosed no relevant financial relationships.

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

When pediatricians and other pediatric providers are given training and resource materials, levels of firearm screenings and anticipatory guidance about firearm safety increase significantly, according to two new studies presented at the annual meeting of the American Academy of Pediatrics.

“With the rise in firearm sales and injuries during the COVID-19 pandemic, it is more important than ever that pediatricians address the firearm epidemic,” said Alexandra Byrne, MD, a pediatric resident at the University of Florida in Gainesville, who presented one of the studies.

There were 4.3 million more firearms purchased from March through July 2020 than expected, a recent study estimates, and 4,075 more firearm injuries than expected from April through July 2020.

In states with more excess purchases, firearm injuries related to domestic violence increased in April (rate ratio, 2.60; 95% CI, 1.32-5.93) and May (RR, 1.79; 95% CI, 1.19-2.91) 2020. However, excess gun purchases had no effect on rates of firearm violence outside the home.

In addition to the link between firearms in the home and domestic violence, they are also linked to a three- to fourfold greater risk for teen suicide, and both depression and suicidal thoughts have risen in teens during the pandemic.

“The data are pretty clear that if you have an unlocked, loaded weapon in your home, and you have a kid who’s depressed or anxious or dysregulated or doing maladaptive things for the pandemic, they’re much more likely to inadvertently take their own or someone else’s life by grabbing [a gun],” said Cora Breuner, MD, MPH, professor of pediatrics at Seattle Children’s Hospital.

However, there is no difference in gun ownership or gun-safety measures between homes with and without at-risk children, previous research shows.
 

Training, guidance, and locks

Previous research has also shown that there has been a reluctance by pediatricians to conduct firearm screenings and counsel parents about gun safety in the home.

For their two-step program, Dr. Byrne’s team used a plan-do-study-act approach. They started by providing training on firearm safety, evidence-based recommendations for firearm screening, and anticipatory guidance regarding safe firearm storage to members of the general pediatrics division at the University of Florida. And they supplied clinics with free firearm locks.

Next they supplied clinics with posters and educational cards from the Be SMART campaign, an initiative of the Everytown for Gun Safety Support Fund, which provides materials for anyone, including physicians, to use.

During their study, the researchers sent three anonymous six-question online surveys – at baseline and 3 to 4 months after each of the two steps – to pediatric residents, physician assistants, advanced practice registered nurses, and attendings to assess the project. There were 52 responses to the first survey, for a response rate of 58.4%, 42 responses to the second survey, for a response rate of 47.2%, and 23 responses to the third survey, for a rate of response 25.8%.

The program nearly doubled screenings during well-child visits and dramatically increased the proportion of families who received a firearm lock when they told providers they had a firearm at home.

Adding a social-history component

A program to increase firearm screening was also presented at the AAP conference.

After random review of medical records from 30 patients admitted to the hospital documented zero firearm screenings, Marjorie Farrington, MD, and Samantha Gunkelman, MD, from Akron Children’s Hospital in Ohio, implemented a program that they hope will increase firearm screenings during inpatient admissions to at least 50%.

They started their ongoing program in April 2020 by adding a social-history component to the history and physical (H&P) exam template and educating residents on how to screen and included guidance on safe firearm storage.

They also had physicians with firearm expertise give gun-safety lectures, and they plan to involve the Family Resource Center at their hospital in the creation of resources that can be incorporated into discharge instructions.

From April 2020 to June 2021, after the addition to the H&P template, 63% of the 5196 patients admitted to the hospital underwent a firearm screening. Of the 25% of patients who reported guns at home, 3% were not storing their firearms safely.

The pair used the “Store It Safe” Physician Handout provided by the Ohio chapter of the AAP.

Many pediatricians and pediatric trainees are not comfortable counseling on firearm safety, often a result of inadequate training on the topic.

The BulletPoints Project — developed by the Violence Prevention Research Program at the University of California, Davis — can also help physicians talk to patients about guns.

“Many pediatricians and pediatric trainees are not comfortable counseling on firearm safety, often a result of inadequate training on the topic,” Dr. Byrne said in an interview. “Additionally, it is a challenging topic that can often be met with resistance from patients and families. Lack of time during visits is also a huge barrier.”

Lack of training is an obstacle to greater firearm screenings, Dr. Greeley agreed, as are the feeling that guidance simply won’t make a difference and concerns about political pressure and divineness. The lack of research on firearm injuries and the impact of firearm screenings and anticipatory guidance is a challenge, he added, although that is starting to change.

Pediatricians need education on how to make a difference when it comes to firearm safety, and should follow AAP guidelines, Dr. Greeley said.

Counseling on firearm safety is in the same category as immunizations, seatbelts, substance use, helmets, and other public-health issues that are important to address at visits, regardless of how difficult it might be, Dr. Breuner told this news organization.

“It is our mission, as pediatricians, to provide every ounce of prevention in our well-child and anticipatory guidance visits,” she said. “It’s our job, so we shouldn’t shy away from it even though it’s hard.”

Doctors are more comfortable discussing firearm safety if they are firearm owners, previous research has shown, so she advises pediatricians who feel unqualified to discuss firearms to seek guidance from their peers on how to approach screenings and anticipatory guidance, she noted.

The firearm study being done in an academic center gives me great pause. The populations are often very different than private practice.

Both of these studies were conducted at single institutions and might not reflect what would work in private clinics.

“The firearm study being done in an academic center gives me great pause,” Dr. Greeley said. “The populations are often very different than private practice. I think that there is still a lot that remains unknown about decreasing household firearm injury and death.”

And the degree to which findings from these two gun-safety programs can be generalized to other academic centers or children’s hospitals is unclear.

“There are states where, I suspect, firearm screening is much more common. Some states have very pro-firearm cultures and others are anti-firearm,” Dr. Greeley said. “There are also likely differences within states,” particularly between urban and rural regions.

“Firearms are often a very personal issue for families, and pediatricians in ‘pro-firearm’ communities may have greater resistance to working on this,” he pointed out.

Nevertheless, Dr. Greeley said, “this is a promising strategy that could be part of a broad injury prevention initiative.”

Neither study noted any external funding. Dr. Byrne is a member of the Moms Demand Action Gainesville Chapter, which donated the firearm locks for the project. Dr. Breuner, Dr. Greeley, and Dr. Farrington have disclosed no relevant financial relationships.

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

The prevalence of homicide was 16% higher in pregnant women or postpartum women than nonpregnant or nonpostpartum women in the United States, according to 2018 and 2019 mortality data from the National Center for Health Statistics.

Homicide has long been identified as a leading cause of death during pregnancy, but homicide is not counted in estimates of maternal mortality, nor is it emphasized as a target for prevention and intervention, wrote Maeve Wallace, PhD, of Tulane University, New Orleans, and colleagues.

Data on maternal mortality (defined as “death while pregnant or within 42 days of the end of pregnancy from causes related to or aggravated by pregnancy”) were limited until the addition of pregnancy to the U.S. Standard Certificate of Death in 2003; all 50 states had adopted it by 2018, the researchers noted.

In a study published in Obstetrics & Gynecology, the researchers analyzed the first 2 years of nationally available data to identify pregnancy-associated mortality and characterize other risk factors such as age and race.

The researchers identified 4,705 female homicides in 2018 and 2019. Of these, 273 (5.8%) occurred in women who were pregnant or within a year of the end of pregnancy. Approximately half (50.2%) of the pregnant or postpartum victims were non-Hispanic Black, 30% were non-Hispanic white, 9.5% were Hispanic, and 10.3% were other races; approximately one-third (35.5%) were in the 20- to 24-year age group.

Overall, the ratio was 3.62 homicides per 100,000 live births among females who were either pregnant or within 1 year post partum, compared to 3.12 homicides per 100,000 live births in nonpregnant, nonpostpartum females aged 10-44 years (P = .05).

“Patterns were similar in further stratification by both race and age such that pregnancy was associated with more than a doubled risk of homicide among girls and women aged 10–24 in both the non-Hispanic White and non-Hispanic Black populations,” the researchers wrote.

The findings are consistent with previous studies, which “implicates health and social system failures. Although we are unable to directly evaluate the involvement of intimate partner violence (IPV) in this report, we did find that a majority of pregnancy-associated homicides occurred in the home, implicating the likelihood of involvement by persons known to the victim,” they noted. In addition, the data showed that approximately 70% of the incidents of homicide in pregnant and postpartum women involved a firearm, an increase over previous estimates.

The study findings were limited by several factors including the lack of circumstantial information and incomplete data on victim characteristics, the researchers noted. Other key limitations included the potential for false-positives and false-negatives when recording pregnancy status, which could lead to underestimates of pregnancy-associated homicides, and the lack of data on pregnancy outcomes for women who experienced live birth, abortion, or miscarriage within a year of death.

However, the results highlight the need for increased awareness and training of physicians in completing the pregnancy checkbox on death certificates, and the need for action on recommendations and interventions to prevent maternal deaths from homicide, they emphasized.

“Although encouraging, a commitment to the actual implementation of policies and investments known to be effective at protecting and the promoting the health and safety of girls and women must follow,” they concluded.
 

Data highlight disparities

“This study could not be done effectively prior to now, as the adoption of the pregnancy checkbox on the U.S. Standard Certificate of Death was only available in all 50 states as of 2018,” Sarah W. Prager, MD, of the University of Washington, Seattle, said in an interview.

“This study also demonstrates what was already known, which is that pregnancy is a high-risk time period for intimate partner violence, including homicide. The differences in homicide rates based on race and ethnicity also highlight the clear disparities in maternal mortality in the U.S. that are attributable to racism. There is more attention being paid to maternal mortality and the differential experience based on race, and this demonstrates that simply addressing medical management during pregnancy is not enough – we need to address root causes of racism if we truly want to reduce maternal mortality,” Dr. Prager said. 

“The primary take-home message for clinicians is to ascertain safety from every patient, and to try to reduce the impacts of racism on health care for patients, especially during pregnancy,” she said. 

Although more detailed records would help with elucidating causes versus associations, “more research is not the answer,” Dr. Prager stated. “The real solution here is to have better gun safety laws, and to put significant resources toward reducing the impacts of racism on health care and our society.”

The study was supported by the Eunice Kennedy Shriver National Institute of Child Health and Human Development. The researchers had no financial conflicts to disclose. Dr. Prager had no financial conflicts to disclose, but serves on the editorial advisory board of Ob.Gyn News.

The prevalence of homicide was 16% higher in pregnant women or postpartum women than nonpregnant or nonpostpartum women in the United States, according to 2018 and 2019 mortality data from the National Center for Health Statistics.

Homicide has long been identified as a leading cause of death during pregnancy, but homicide is not counted in estimates of maternal mortality, nor is it emphasized as a target for prevention and intervention, wrote Maeve Wallace, PhD, of Tulane University, New Orleans, and colleagues.

Data on maternal mortality (defined as “death while pregnant or within 42 days of the end of pregnancy from causes related to or aggravated by pregnancy”) were limited until the addition of pregnancy to the U.S. Standard Certificate of Death in 2003; all 50 states had adopted it by 2018, the researchers noted.

In a study published in Obstetrics & Gynecology, the researchers analyzed the first 2 years of nationally available data to identify pregnancy-associated mortality and characterize other risk factors such as age and race.

The researchers identified 4,705 female homicides in 2018 and 2019. Of these, 273 (5.8%) occurred in women who were pregnant or within a year of the end of pregnancy. Approximately half (50.2%) of the pregnant or postpartum victims were non-Hispanic Black, 30% were non-Hispanic white, 9.5% were Hispanic, and 10.3% were other races; approximately one-third (35.5%) were in the 20- to 24-year age group.

Overall, the ratio was 3.62 homicides per 100,000 live births among females who were either pregnant or within 1 year post partum, compared to 3.12 homicides per 100,000 live births in nonpregnant, nonpostpartum females aged 10-44 years (P = .05).

“Patterns were similar in further stratification by both race and age such that pregnancy was associated with more than a doubled risk of homicide among girls and women aged 10–24 in both the non-Hispanic White and non-Hispanic Black populations,” the researchers wrote.

The findings are consistent with previous studies, which “implicates health and social system failures. Although we are unable to directly evaluate the involvement of intimate partner violence (IPV) in this report, we did find that a majority of pregnancy-associated homicides occurred in the home, implicating the likelihood of involvement by persons known to the victim,” they noted. In addition, the data showed that approximately 70% of the incidents of homicide in pregnant and postpartum women involved a firearm, an increase over previous estimates.

The study findings were limited by several factors including the lack of circumstantial information and incomplete data on victim characteristics, the researchers noted. Other key limitations included the potential for false-positives and false-negatives when recording pregnancy status, which could lead to underestimates of pregnancy-associated homicides, and the lack of data on pregnancy outcomes for women who experienced live birth, abortion, or miscarriage within a year of death.

However, the results highlight the need for increased awareness and training of physicians in completing the pregnancy checkbox on death certificates, and the need for action on recommendations and interventions to prevent maternal deaths from homicide, they emphasized.

“Although encouraging, a commitment to the actual implementation of policies and investments known to be effective at protecting and the promoting the health and safety of girls and women must follow,” they concluded.
 

Data highlight disparities

“This study could not be done effectively prior to now, as the adoption of the pregnancy checkbox on the U.S. Standard Certificate of Death was only available in all 50 states as of 2018,” Sarah W. Prager, MD, of the University of Washington, Seattle, said in an interview.

“This study also demonstrates what was already known, which is that pregnancy is a high-risk time period for intimate partner violence, including homicide. The differences in homicide rates based on race and ethnicity also highlight the clear disparities in maternal mortality in the U.S. that are attributable to racism. There is more attention being paid to maternal mortality and the differential experience based on race, and this demonstrates that simply addressing medical management during pregnancy is not enough – we need to address root causes of racism if we truly want to reduce maternal mortality,” Dr. Prager said. 

“The primary take-home message for clinicians is to ascertain safety from every patient, and to try to reduce the impacts of racism on health care for patients, especially during pregnancy,” she said. 

Although more detailed records would help with elucidating causes versus associations, “more research is not the answer,” Dr. Prager stated. “The real solution here is to have better gun safety laws, and to put significant resources toward reducing the impacts of racism on health care and our society.”

The study was supported by the Eunice Kennedy Shriver National Institute of Child Health and Human Development. The researchers had no financial conflicts to disclose. Dr. Prager had no financial conflicts to disclose, but serves on the editorial advisory board of Ob.Gyn News.

The prevalence of homicide was 16% higher in pregnant women or postpartum women than nonpregnant or nonpostpartum women in the United States, according to 2018 and 2019 mortality data from the National Center for Health Statistics.

Homicide has long been identified as a leading cause of death during pregnancy, but homicide is not counted in estimates of maternal mortality, nor is it emphasized as a target for prevention and intervention, wrote Maeve Wallace, PhD, of Tulane University, New Orleans, and colleagues.

Data on maternal mortality (defined as “death while pregnant or within 42 days of the end of pregnancy from causes related to or aggravated by pregnancy”) were limited until the addition of pregnancy to the U.S. Standard Certificate of Death in 2003; all 50 states had adopted it by 2018, the researchers noted.

In a study published in Obstetrics & Gynecology, the researchers analyzed the first 2 years of nationally available data to identify pregnancy-associated mortality and characterize other risk factors such as age and race.

The researchers identified 4,705 female homicides in 2018 and 2019. Of these, 273 (5.8%) occurred in women who were pregnant or within a year of the end of pregnancy. Approximately half (50.2%) of the pregnant or postpartum victims were non-Hispanic Black, 30% were non-Hispanic white, 9.5% were Hispanic, and 10.3% were other races; approximately one-third (35.5%) were in the 20- to 24-year age group.

Overall, the ratio was 3.62 homicides per 100,000 live births among females who were either pregnant or within 1 year post partum, compared to 3.12 homicides per 100,000 live births in nonpregnant, nonpostpartum females aged 10-44 years (P = .05).

“Patterns were similar in further stratification by both race and age such that pregnancy was associated with more than a doubled risk of homicide among girls and women aged 10–24 in both the non-Hispanic White and non-Hispanic Black populations,” the researchers wrote.

The findings are consistent with previous studies, which “implicates health and social system failures. Although we are unable to directly evaluate the involvement of intimate partner violence (IPV) in this report, we did find that a majority of pregnancy-associated homicides occurred in the home, implicating the likelihood of involvement by persons known to the victim,” they noted. In addition, the data showed that approximately 70% of the incidents of homicide in pregnant and postpartum women involved a firearm, an increase over previous estimates.

The study findings were limited by several factors including the lack of circumstantial information and incomplete data on victim characteristics, the researchers noted. Other key limitations included the potential for false-positives and false-negatives when recording pregnancy status, which could lead to underestimates of pregnancy-associated homicides, and the lack of data on pregnancy outcomes for women who experienced live birth, abortion, or miscarriage within a year of death.

However, the results highlight the need for increased awareness and training of physicians in completing the pregnancy checkbox on death certificates, and the need for action on recommendations and interventions to prevent maternal deaths from homicide, they emphasized.

“Although encouraging, a commitment to the actual implementation of policies and investments known to be effective at protecting and the promoting the health and safety of girls and women must follow,” they concluded.
 

Data highlight disparities

“This study could not be done effectively prior to now, as the adoption of the pregnancy checkbox on the U.S. Standard Certificate of Death was only available in all 50 states as of 2018,” Sarah W. Prager, MD, of the University of Washington, Seattle, said in an interview.

“This study also demonstrates what was already known, which is that pregnancy is a high-risk time period for intimate partner violence, including homicide. The differences in homicide rates based on race and ethnicity also highlight the clear disparities in maternal mortality in the U.S. that are attributable to racism. There is more attention being paid to maternal mortality and the differential experience based on race, and this demonstrates that simply addressing medical management during pregnancy is not enough – we need to address root causes of racism if we truly want to reduce maternal mortality,” Dr. Prager said. 

“The primary take-home message for clinicians is to ascertain safety from every patient, and to try to reduce the impacts of racism on health care for patients, especially during pregnancy,” she said. 

Although more detailed records would help with elucidating causes versus associations, “more research is not the answer,” Dr. Prager stated. “The real solution here is to have better gun safety laws, and to put significant resources toward reducing the impacts of racism on health care and our society.”

The study was supported by the Eunice Kennedy Shriver National Institute of Child Health and Human Development. The researchers had no financial conflicts to disclose. Dr. Prager had no financial conflicts to disclose, but serves on the editorial advisory board of Ob.Gyn News.

The first patient of the afternoon is a 4-month-old in for his health maintenance visit. You’ve known his 20-year-old mother since she was a toddler. This infant has a 2-year-old sister. Also in the exam room is a young man you don’t recognize whom the mother introduces as Jason, her new boyfriend. He never makes eye contact and despite your best efforts you can’t get him to engage.

At the child’s next visit you are relieved to see the 6-month-old is alive and well and learn that your former patient and her two children have moved back in with her parents and Jason is no longer in the picture.

You don’t have to have been doing pediatrics very long to have learned that a “family” that includes an infant and a young adult male who is probably not the father is an environment in which the infant’s health and well-being is at significant risk. It is a situation in which child abuse even to the point of infanticide should be waving a red flag in your face.

Infanticide occurs in many animal species including our own. As abhorrent we may find the act, it occurs often enough to be, if not normal, at least not unexpected in certain circumstances. Theories abound as to what advantage the act of infanticide might convey to the success of a species. However, little if anything is known about any possible mechanisms that would allow it to occur.

Recently, a professor of molecular and cellular biology at Harvard University discovered a specific set of neurons in the mouse brain that controls aggressive behavior toward infants (Biological triggers for infant abuse, by Juan Siliezar, The Harvard Gazette, Sept 27, 2021). This same set of neurons also appears to trigger avoidance and neglect behaviors as well.

Research in other animal species has found that these antiparental behaviors occur in both virgins and sexually mature males who are strangers to the group. Interestingly, the behaviors switch off once individuals have their own offspring or have had the opportunity to familiarize themselves with infants. Not surprisingly, other studies have found that in some species environmental stress such as food shortage or threats of predation have triggered females to attack or ignore their offspring.

I think it is safe to assume a similar collection of neurons controlling aggressive behavior also exists in humans. One can imagine some well-read defense attorney dredging up this study and claiming that because his client had not yet fathered a child of his own that it was his nervous system’s normal response that made him toss his girlfriend’s baby against the wall.

The lead author of the study intends to study this collection of neurons in more depth to discover more about the process. It is conceivable that with more information her initial findings may help in the development of treatment and specific prevention strategies. Until that happens, we must rely on our intuition and keep our antennae tuned and alert for high-risk scenarios like the one I described at the opening of this letter.

We are left with leaning heavily on our community social work networks to keep close tabs on these high-risk families, offering both financial and emotional support. Parenting classes may be helpful, but some of this research leads me to suspect that immersing these young parents-to-be in hands-on child care situations might provide the best protection we can offer.
 

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].

The first patient of the afternoon is a 4-month-old in for his health maintenance visit. You’ve known his 20-year-old mother since she was a toddler. This infant has a 2-year-old sister. Also in the exam room is a young man you don’t recognize whom the mother introduces as Jason, her new boyfriend. He never makes eye contact and despite your best efforts you can’t get him to engage.

At the child’s next visit you are relieved to see the 6-month-old is alive and well and learn that your former patient and her two children have moved back in with her parents and Jason is no longer in the picture.

You don’t have to have been doing pediatrics very long to have learned that a “family” that includes an infant and a young adult male who is probably not the father is an environment in which the infant’s health and well-being is at significant risk. It is a situation in which child abuse even to the point of infanticide should be waving a red flag in your face.

Infanticide occurs in many animal species including our own. As abhorrent we may find the act, it occurs often enough to be, if not normal, at least not unexpected in certain circumstances. Theories abound as to what advantage the act of infanticide might convey to the success of a species. However, little if anything is known about any possible mechanisms that would allow it to occur.

Recently, a professor of molecular and cellular biology at Harvard University discovered a specific set of neurons in the mouse brain that controls aggressive behavior toward infants (Biological triggers for infant abuse, by Juan Siliezar, The Harvard Gazette, Sept 27, 2021). This same set of neurons also appears to trigger avoidance and neglect behaviors as well.

Research in other animal species has found that these antiparental behaviors occur in both virgins and sexually mature males who are strangers to the group. Interestingly, the behaviors switch off once individuals have their own offspring or have had the opportunity to familiarize themselves with infants. Not surprisingly, other studies have found that in some species environmental stress such as food shortage or threats of predation have triggered females to attack or ignore their offspring.

I think it is safe to assume a similar collection of neurons controlling aggressive behavior also exists in humans. One can imagine some well-read defense attorney dredging up this study and claiming that because his client had not yet fathered a child of his own that it was his nervous system’s normal response that made him toss his girlfriend’s baby against the wall.

The lead author of the study intends to study this collection of neurons in more depth to discover more about the process. It is conceivable that with more information her initial findings may help in the development of treatment and specific prevention strategies. Until that happens, we must rely on our intuition and keep our antennae tuned and alert for high-risk scenarios like the one I described at the opening of this letter.

We are left with leaning heavily on our community social work networks to keep close tabs on these high-risk families, offering both financial and emotional support. Parenting classes may be helpful, but some of this research leads me to suspect that immersing these young parents-to-be in hands-on child care situations might provide the best protection we can offer.
 

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].

The first patient of the afternoon is a 4-month-old in for his health maintenance visit. You’ve known his 20-year-old mother since she was a toddler. This infant has a 2-year-old sister. Also in the exam room is a young man you don’t recognize whom the mother introduces as Jason, her new boyfriend. He never makes eye contact and despite your best efforts you can’t get him to engage.

At the child’s next visit you are relieved to see the 6-month-old is alive and well and learn that your former patient and her two children have moved back in with her parents and Jason is no longer in the picture.

You don’t have to have been doing pediatrics very long to have learned that a “family” that includes an infant and a young adult male who is probably not the father is an environment in which the infant’s health and well-being is at significant risk. It is a situation in which child abuse even to the point of infanticide should be waving a red flag in your face.

Infanticide occurs in many animal species including our own. As abhorrent we may find the act, it occurs often enough to be, if not normal, at least not unexpected in certain circumstances. Theories abound as to what advantage the act of infanticide might convey to the success of a species. However, little if anything is known about any possible mechanisms that would allow it to occur.

Recently, a professor of molecular and cellular biology at Harvard University discovered a specific set of neurons in the mouse brain that controls aggressive behavior toward infants (Biological triggers for infant abuse, by Juan Siliezar, The Harvard Gazette, Sept 27, 2021). This same set of neurons also appears to trigger avoidance and neglect behaviors as well.

Research in other animal species has found that these antiparental behaviors occur in both virgins and sexually mature males who are strangers to the group. Interestingly, the behaviors switch off once individuals have their own offspring or have had the opportunity to familiarize themselves with infants. Not surprisingly, other studies have found that in some species environmental stress such as food shortage or threats of predation have triggered females to attack or ignore their offspring.

I think it is safe to assume a similar collection of neurons controlling aggressive behavior also exists in humans. One can imagine some well-read defense attorney dredging up this study and claiming that because his client had not yet fathered a child of his own that it was his nervous system’s normal response that made him toss his girlfriend’s baby against the wall.

The lead author of the study intends to study this collection of neurons in more depth to discover more about the process. It is conceivable that with more information her initial findings may help in the development of treatment and specific prevention strategies. Until that happens, we must rely on our intuition and keep our antennae tuned and alert for high-risk scenarios like the one I described at the opening of this letter.

We are left with leaning heavily on our community social work networks to keep close tabs on these high-risk families, offering both financial and emotional support. Parenting classes may be helpful, but some of this research leads me to suspect that immersing these young parents-to-be in hands-on child care situations might provide the best protection we can offer.
 

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].

Daily exposure to phthalates, which are synthetic chemicals founds in many consumer products, may lead to hundreds of thousands of early deaths each year among older adults in the United States, according to a new study published Oct. 12, 2021, in the peer-reviewed journal Environmental Pollution.

The chemicals are found in hundreds of types of products, including children’s toys, food storage containers, makeup, perfume, and shampoo. In the study, those with the highest levels of phthalates had a greater risk of death from any cause, especially heart disease.

“This study adds to the growing database on the impact of plastics on the human body and bolsters public health and business cases for reducing or eliminating the use of plastics,” Leonardo Trasande, MD, the lead author and a professor of environmental medicine and population health at New York University Langone Health, told CNN.

Dr. Trasande and colleagues measured the urine concentration of phthalates in more than 5,000 adults aged 55-64 and compared the levels with the risk of early death over an average of 10 years. The research team controlled for preexisting heart diseases, diabetes, cancer, poor eating habits, physical activity, body mass, and other known hormone disruptors such as bisphenol A, or BPA, an industrial chemical that’s been used since the 1950s to make certain plastics and resins, according to the Mayo Clinic

The research team found that phthalates could contribute to 91,000-107,000 premature deaths per year in the United States. These early deaths could cost the nation $40 billion to $47 billion each year in lost economic productivity.

Phthalates interrupt the body’s endocrine system and hormone production. Previous studies have found that the chemicals are linked with developmental, reproductive, and immune system problems, according to NYU Langone Health. They’ve also been linked with asthma, childhood obesity, heart issues, and cancer.

“These chemicals have a rap sheet,” Dr. Trasande told CNN. “And the fact of the matter is that when you look at the entire body of evidence, it provides a haunting pattern of concern.”

Phthalates are often called “everywhere chemicals” because they are so common, CNN reported. Also called “plasticizers,” they are added to products to make them more durable, including PVC plumbing, vinyl flooring, medical tubing, garden hoses, food packaging, detergents, clothing, furniture, and automotive materials.

People are often exposed when they breathe contaminated air or consume food that comes into contact with the chemical, according to the Centers for Disease Control and Prevention. Children may be exposed by touching plastic items and putting their hands in their mouth.

Dr. Trasande told CNN that it’s possible to lessen exposure to phthalates and other endocrine disruptors such as BPA by using unscented lotions, laundry detergents, and cleaning supplies, as well as substituting glass, stainless steel, ceramic, and wood for plastic food storage.

“First, avoid plastics as much as you can. Never put plastic containers in the microwave or dishwasher, where the heat can break down the linings so they might be absorbed more readily,” he said. “In addition, cooking at home and reducing your use of processed foods can reduce the levels of the chemical exposures you come in contact with.”

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

Daily exposure to phthalates, which are synthetic chemicals founds in many consumer products, may lead to hundreds of thousands of early deaths each year among older adults in the United States, according to a new study published Oct. 12, 2021, in the peer-reviewed journal Environmental Pollution.

The chemicals are found in hundreds of types of products, including children’s toys, food storage containers, makeup, perfume, and shampoo. In the study, those with the highest levels of phthalates had a greater risk of death from any cause, especially heart disease.

“This study adds to the growing database on the impact of plastics on the human body and bolsters public health and business cases for reducing or eliminating the use of plastics,” Leonardo Trasande, MD, the lead author and a professor of environmental medicine and population health at New York University Langone Health, told CNN.

Dr. Trasande and colleagues measured the urine concentration of phthalates in more than 5,000 adults aged 55-64 and compared the levels with the risk of early death over an average of 10 years. The research team controlled for preexisting heart diseases, diabetes, cancer, poor eating habits, physical activity, body mass, and other known hormone disruptors such as bisphenol A, or BPA, an industrial chemical that’s been used since the 1950s to make certain plastics and resins, according to the Mayo Clinic

The research team found that phthalates could contribute to 91,000-107,000 premature deaths per year in the United States. These early deaths could cost the nation $40 billion to $47 billion each year in lost economic productivity.

Phthalates interrupt the body’s endocrine system and hormone production. Previous studies have found that the chemicals are linked with developmental, reproductive, and immune system problems, according to NYU Langone Health. They’ve also been linked with asthma, childhood obesity, heart issues, and cancer.

“These chemicals have a rap sheet,” Dr. Trasande told CNN. “And the fact of the matter is that when you look at the entire body of evidence, it provides a haunting pattern of concern.”

Phthalates are often called “everywhere chemicals” because they are so common, CNN reported. Also called “plasticizers,” they are added to products to make them more durable, including PVC plumbing, vinyl flooring, medical tubing, garden hoses, food packaging, detergents, clothing, furniture, and automotive materials.

People are often exposed when they breathe contaminated air or consume food that comes into contact with the chemical, according to the Centers for Disease Control and Prevention. Children may be exposed by touching plastic items and putting their hands in their mouth.

Dr. Trasande told CNN that it’s possible to lessen exposure to phthalates and other endocrine disruptors such as BPA by using unscented lotions, laundry detergents, and cleaning supplies, as well as substituting glass, stainless steel, ceramic, and wood for plastic food storage.

“First, avoid plastics as much as you can. Never put plastic containers in the microwave or dishwasher, where the heat can break down the linings so they might be absorbed more readily,” he said. “In addition, cooking at home and reducing your use of processed foods can reduce the levels of the chemical exposures you come in contact with.”

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

Daily exposure to phthalates, which are synthetic chemicals founds in many consumer products, may lead to hundreds of thousands of early deaths each year among older adults in the United States, according to a new study published Oct. 12, 2021, in the peer-reviewed journal Environmental Pollution.

The chemicals are found in hundreds of types of products, including children’s toys, food storage containers, makeup, perfume, and shampoo. In the study, those with the highest levels of phthalates had a greater risk of death from any cause, especially heart disease.

“This study adds to the growing database on the impact of plastics on the human body and bolsters public health and business cases for reducing or eliminating the use of plastics,” Leonardo Trasande, MD, the lead author and a professor of environmental medicine and population health at New York University Langone Health, told CNN.

Dr. Trasande and colleagues measured the urine concentration of phthalates in more than 5,000 adults aged 55-64 and compared the levels with the risk of early death over an average of 10 years. The research team controlled for preexisting heart diseases, diabetes, cancer, poor eating habits, physical activity, body mass, and other known hormone disruptors such as bisphenol A, or BPA, an industrial chemical that’s been used since the 1950s to make certain plastics and resins, according to the Mayo Clinic

The research team found that phthalates could contribute to 91,000-107,000 premature deaths per year in the United States. These early deaths could cost the nation $40 billion to $47 billion each year in lost economic productivity.

Phthalates interrupt the body’s endocrine system and hormone production. Previous studies have found that the chemicals are linked with developmental, reproductive, and immune system problems, according to NYU Langone Health. They’ve also been linked with asthma, childhood obesity, heart issues, and cancer.

“These chemicals have a rap sheet,” Dr. Trasande told CNN. “And the fact of the matter is that when you look at the entire body of evidence, it provides a haunting pattern of concern.”

Phthalates are often called “everywhere chemicals” because they are so common, CNN reported. Also called “plasticizers,” they are added to products to make them more durable, including PVC plumbing, vinyl flooring, medical tubing, garden hoses, food packaging, detergents, clothing, furniture, and automotive materials.

People are often exposed when they breathe contaminated air or consume food that comes into contact with the chemical, according to the Centers for Disease Control and Prevention. Children may be exposed by touching plastic items and putting their hands in their mouth.

Dr. Trasande told CNN that it’s possible to lessen exposure to phthalates and other endocrine disruptors such as BPA by using unscented lotions, laundry detergents, and cleaning supplies, as well as substituting glass, stainless steel, ceramic, and wood for plastic food storage.

“First, avoid plastics as much as you can. Never put plastic containers in the microwave or dishwasher, where the heat can break down the linings so they might be absorbed more readily,” he said. “In addition, cooking at home and reducing your use of processed foods can reduce the levels of the chemical exposures you come in contact with.”

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

The United States just passed the 6-million mark in COVID-19 cases among children, with the last million cases taking less time to record than any of the first five, according to new data from the American Academy of Pediatrics and the Children’s Hospital Association.

The five-millionth case was reported during the week of Aug. 27 to Sept. 2, and case number 6 million came during the week of Oct. 1-7, just 5 weeks later, compared with the 6 weeks it took to go from 1 million to 2 million last November and December, the AAP and CHA said in their weekly COVID-19 report.

There were 148,222 new cases reported during the week ending Oct. 7, bringing the total case count to 6,047,371 since the pandemic started. New cases continued to drop, however, and that weekly count was down by 14.6% from the previous week and by 41.1% from the peak of almost 252,000 reached in early September, the two groups said while also noting limitations to the data, such as three states (Alabama, Nebraska, and Texas) that are no longer updating their COVID-19 dashboards.

Other metrics show similar drops in recent weeks. Among children aged 0-11 years, emergency department visits involving a COVID-19 diagnosis dropped from 4.1% of all ED visits in late August to 1.4% of ED visits on Oct. 6. ED visits with a COVID-19 diagnosis fell from a peak of 8.5% on Aug. 22 to 1.5% on Oct. 6 for 12- to 15-year-olds and from 8.5% to 1.5% in those aged 16-17 years, according to data from the Centers for Disease Control and Prevention.

The rate of new hospital admissions for children aged 0-17 years was down to 0.26 per 100,000 population on Oct. 9 after reaching 0.51 per 100,000 on Sept. 4. Hospitalizations in children totaled just over 64,000 from Aug. 1, 2020, to Oct. 9, 2021, which is just over 2% of all COVID-19–related admissions over that time period, the CDC said on its COVID Data Tracker.

That pattern, unfortunately, also applies to vaccinations. “The number of children receiving their first COVID-19 vaccine this week [Sept. 30 to Oct. 6], about 156,000, was the lowest number since vaccines were available,” the AAP said in a separate report on vaccination trends, adding that “the number of children receiving their first dose has steadily declined from 8 weeks ago when 586,000 children received their initial dose the week ending Aug. 11.”

[email protected]

The United States just passed the 6-million mark in COVID-19 cases among children, with the last million cases taking less time to record than any of the first five, according to new data from the American Academy of Pediatrics and the Children’s Hospital Association.

The five-millionth case was reported during the week of Aug. 27 to Sept. 2, and case number 6 million came during the week of Oct. 1-7, just 5 weeks later, compared with the 6 weeks it took to go from 1 million to 2 million last November and December, the AAP and CHA said in their weekly COVID-19 report.

There were 148,222 new cases reported during the week ending Oct. 7, bringing the total case count to 6,047,371 since the pandemic started. New cases continued to drop, however, and that weekly count was down by 14.6% from the previous week and by 41.1% from the peak of almost 252,000 reached in early September, the two groups said while also noting limitations to the data, such as three states (Alabama, Nebraska, and Texas) that are no longer updating their COVID-19 dashboards.

Other metrics show similar drops in recent weeks. Among children aged 0-11 years, emergency department visits involving a COVID-19 diagnosis dropped from 4.1% of all ED visits in late August to 1.4% of ED visits on Oct. 6. ED visits with a COVID-19 diagnosis fell from a peak of 8.5% on Aug. 22 to 1.5% on Oct. 6 for 12- to 15-year-olds and from 8.5% to 1.5% in those aged 16-17 years, according to data from the Centers for Disease Control and Prevention.

The rate of new hospital admissions for children aged 0-17 years was down to 0.26 per 100,000 population on Oct. 9 after reaching 0.51 per 100,000 on Sept. 4. Hospitalizations in children totaled just over 64,000 from Aug. 1, 2020, to Oct. 9, 2021, which is just over 2% of all COVID-19–related admissions over that time period, the CDC said on its COVID Data Tracker.

That pattern, unfortunately, also applies to vaccinations. “The number of children receiving their first COVID-19 vaccine this week [Sept. 30 to Oct. 6], about 156,000, was the lowest number since vaccines were available,” the AAP said in a separate report on vaccination trends, adding that “the number of children receiving their first dose has steadily declined from 8 weeks ago when 586,000 children received their initial dose the week ending Aug. 11.”

[email protected]

The United States just passed the 6-million mark in COVID-19 cases among children, with the last million cases taking less time to record than any of the first five, according to new data from the American Academy of Pediatrics and the Children’s Hospital Association.

The five-millionth case was reported during the week of Aug. 27 to Sept. 2, and case number 6 million came during the week of Oct. 1-7, just 5 weeks later, compared with the 6 weeks it took to go from 1 million to 2 million last November and December, the AAP and CHA said in their weekly COVID-19 report.

There were 148,222 new cases reported during the week ending Oct. 7, bringing the total case count to 6,047,371 since the pandemic started. New cases continued to drop, however, and that weekly count was down by 14.6% from the previous week and by 41.1% from the peak of almost 252,000 reached in early September, the two groups said while also noting limitations to the data, such as three states (Alabama, Nebraska, and Texas) that are no longer updating their COVID-19 dashboards.

Other metrics show similar drops in recent weeks. Among children aged 0-11 years, emergency department visits involving a COVID-19 diagnosis dropped from 4.1% of all ED visits in late August to 1.4% of ED visits on Oct. 6. ED visits with a COVID-19 diagnosis fell from a peak of 8.5% on Aug. 22 to 1.5% on Oct. 6 for 12- to 15-year-olds and from 8.5% to 1.5% in those aged 16-17 years, according to data from the Centers for Disease Control and Prevention.

The rate of new hospital admissions for children aged 0-17 years was down to 0.26 per 100,000 population on Oct. 9 after reaching 0.51 per 100,000 on Sept. 4. Hospitalizations in children totaled just over 64,000 from Aug. 1, 2020, to Oct. 9, 2021, which is just over 2% of all COVID-19–related admissions over that time period, the CDC said on its COVID Data Tracker.

That pattern, unfortunately, also applies to vaccinations. “The number of children receiving their first COVID-19 vaccine this week [Sept. 30 to Oct. 6], about 156,000, was the lowest number since vaccines were available,” the AAP said in a separate report on vaccination trends, adding that “the number of children receiving their first dose has steadily declined from 8 weeks ago when 586,000 children received their initial dose the week ending Aug. 11.”

[email protected]

The COVID-19 pandemic has markedly changed the dermatology residency application process. As medical students head into this application cycle, the impacts of systemic racism and deeply rooted structural barriers continue to be exacerbated for students who identify as an underrepresented minority (URM) in medicine—historically defined as those who self-identify as Hispanic or Latinx; Black or African American; American Indian or Alaska Native; or Native Hawaiian or Pacific Islander. The Association of American Medical Colleges (AAMC) defines URMs as racial and ethnic populations that are underrepresented in medicine relative to their numbers in the general population.¹ Although these groups account for approximately 34% of the population of the United States, they constitute only 11% of the country’s physician workforce.^2,3

Of the total physician workforce in the United States, Black and African American physicians account for 5% of practicing physicians; Hispanic physicians, 5.8%; American Indian and Alaska Native physicians, 0.3%; and Native Hawaiian and Pacific Islander physicians, 0.1%.² In competitive medical specialties, the disproportionality of these numbers compared to our current demographics in the United States as shown above is even more staggering. In 2018, for example, 10% of practicing dermatologists identified as female URM physicians; 6%, as male URM physicians.² In this article, we discuss some of the challenges and considerations for URM students applying to dermatology residency in the era of the COVID-19 pandemic.

Barriers for URM Students in Dermatology

Multiple studies have attempted to identify some of the barriers faced by URM students in medicine that might explain the lack of diversity in competitive specialties. Vasquez and colleagues⁴ identified 4 major factors that play a role in dermatology: lack of equitable resources, lack of support, financial limitations, and the lack of group identity. More than half of URM students surveyed (1) identified lack of support as a barrier and (2) reported having been encouraged to seek a specialty more reflective of their community.⁴

Soliman et al⁵ reported that URM barriers in dermatology extend to include lack of diversity in the field, socioeconomic factors, lack of mentorship, and a negative perception of minority students by residency programs. Dermatology is the second least diverse specialty in medicine after orthopedic surgery, which, in and of itself, might further discourage URM students from applying to dermatology.⁵

With the minimal exposure that URM students have to the field of dermatology, the lack of pipeline programs, and reports that URMs often are encouraged to pursue primary care, the current diversity deficiency in dermatology comes as no surprise. In addition, the substantial disadvantage for URM students is perpetuated by the traditional highly selective process that favors grades, board scores, and honor society status over holistic assessment of the individual student and their unique experiences and potential for contribution.

Looking Beyond Test Scores

The US Medical Licensing Examination (USMLE) traditionally has been used to select dermatology residency applicants, with high cutoff scores often excluding outstanding URM students. Research has suggested that the use of USMLE examination test scores for residency recruitment lacks validity because it has poor predictability of residency performance.⁶ Although the USMLE Step 1 examination is transitioning to pass/fail scoring, applicants for the next cycle will still have a 3-digit numerical score.

We strongly recommend that dermatology programs transition from emphasizing scores of residency candidates to reviewing each candidate holistically. The AAMC defines “holistic review” as a “flexible, individualized way of assessing an applicant’s capabilities, by which balanced consideration is given to experiences, attributes, competencies, and academic or scholarly metrics and, when considered in combination, how the individual might contribute value to the institution’s mission.”⁷ Furthermore, we recommend that dermatology residency programs have multiple faculty members review each application, including a representative of the diversity, inclusion, and equity committee.

In the COVID-19 era, dermatology externship opportunities that would have allowed URM students to work directly with potential residency programs, showcase their abilities, and network have been limited. Virtual residency interviews could make it more challenging to evaluate candidates, especially URM students from less prestigious programs or unusual socioeconomic backgrounds, or with lower board scores. In addition, virtual interviews can more easily become one-dimensional, depriving URM students of the opportunity to gauge their personal fit in a specific dermatology residency program and its community. Questions and concerns of URM students might include: Will I be appropriately supported and mentored? Will my cultural preferences, religion, sexual preference, hairstyle, and beliefs be accepted? Can I advocate for minorities and support antiracism and diversity and inclusion initiatives? To that end, we recommend that dermatology programs continue to host virtual meet-and-greet events for potential students to meet faculty and learn more about the program. In addition, programs should consider having current residents interact virtually with candidates to allow students to better understand the culture of the department and residents’ experiences as trainees in such an environment. For URM students, this is highly important because diversity, inclusion, and antiracism policies and initiatives might not be explicitly available on the institution’s website or residency information page.

Organizations Championing Diversity

Recently, multiple dermatology societies and organizations have been emphasizing the need for diversity and inclusion as well as promoting holistic application review. The American Academy of Dermatology pioneered the Diversity Champion Workshop in 2019 and continues to offer the Diversity Mentorship program, connecting URM students to mentors nationally. The Skin of Color Society offers yearly grants and awards to medical students to develop mentorship and research, and recently hosted webinars to guide medical students and residency programs on diversity and inclusion, residency application and review, and COVID-19 virtual interviews. Other national societies, such as the Student National Medical Association and Latino Medical Student Association, have been promoting workshops and interview mentoring for URM students, including dermatology-specific events. Although it is estimated that more than 90% of medical schools in the United States already perform holistic application review and that such review has been adopted by many dermatology programs nationwide, data regarding dermatology residency programs’ implementation of holistic application review are lacking.⁸

In addition, we encourage continuation of the proposed coordinated interview invite release from the Association of Professors of Dermatology, which was implemented in the 2020-2021 cycle. In light of the recent AAMC letter⁹ on the maldistribution of interview invitations to highest-tier applicants, coordination of interview release dates and other similar initiatives to prevent programs from offering more invites than their available slots and improve transparency about interview days are needed. Furthermore, continuing to offer optional virtual interviews for applicants in future cycles could make the process less cost-prohibitive for many URM students.^4,5

Final Thoughts

Dermatology residency programs must intentionally guard against falling back to traditional standards of assessment as the only means of student evaluation, especially in this virtual era. It is our responsibility to remove artificial barriers that continue to stall progress in diversity, inclusion, equity, and belonging in dermatology.

The COVID-19 pandemic has markedly changed the dermatology residency application process. As medical students head into this application cycle, the impacts of systemic racism and deeply rooted structural barriers continue to be exacerbated for students who identify as an underrepresented minority (URM) in medicine—historically defined as those who self-identify as Hispanic or Latinx; Black or African American; American Indian or Alaska Native; or Native Hawaiian or Pacific Islander. The Association of American Medical Colleges (AAMC) defines URMs as racial and ethnic populations that are underrepresented in medicine relative to their numbers in the general population.¹ Although these groups account for approximately 34% of the population of the United States, they constitute only 11% of the country’s physician workforce.^2,3

Of the total physician workforce in the United States, Black and African American physicians account for 5% of practicing physicians; Hispanic physicians, 5.8%; American Indian and Alaska Native physicians, 0.3%; and Native Hawaiian and Pacific Islander physicians, 0.1%.² In competitive medical specialties, the disproportionality of these numbers compared to our current demographics in the United States as shown above is even more staggering. In 2018, for example, 10% of practicing dermatologists identified as female URM physicians; 6%, as male URM physicians.² In this article, we discuss some of the challenges and considerations for URM students applying to dermatology residency in the era of the COVID-19 pandemic.

Barriers for URM Students in Dermatology

Multiple studies have attempted to identify some of the barriers faced by URM students in medicine that might explain the lack of diversity in competitive specialties. Vasquez and colleagues⁴ identified 4 major factors that play a role in dermatology: lack of equitable resources, lack of support, financial limitations, and the lack of group identity. More than half of URM students surveyed (1) identified lack of support as a barrier and (2) reported having been encouraged to seek a specialty more reflective of their community.⁴

Soliman et al⁵ reported that URM barriers in dermatology extend to include lack of diversity in the field, socioeconomic factors, lack of mentorship, and a negative perception of minority students by residency programs. Dermatology is the second least diverse specialty in medicine after orthopedic surgery, which, in and of itself, might further discourage URM students from applying to dermatology.⁵

With the minimal exposure that URM students have to the field of dermatology, the lack of pipeline programs, and reports that URMs often are encouraged to pursue primary care, the current diversity deficiency in dermatology comes as no surprise. In addition, the substantial disadvantage for URM students is perpetuated by the traditional highly selective process that favors grades, board scores, and honor society status over holistic assessment of the individual student and their unique experiences and potential for contribution.

Looking Beyond Test Scores

The US Medical Licensing Examination (USMLE) traditionally has been used to select dermatology residency applicants, with high cutoff scores often excluding outstanding URM students. Research has suggested that the use of USMLE examination test scores for residency recruitment lacks validity because it has poor predictability of residency performance.⁶ Although the USMLE Step 1 examination is transitioning to pass/fail scoring, applicants for the next cycle will still have a 3-digit numerical score.

We strongly recommend that dermatology programs transition from emphasizing scores of residency candidates to reviewing each candidate holistically. The AAMC defines “holistic review” as a “flexible, individualized way of assessing an applicant’s capabilities, by which balanced consideration is given to experiences, attributes, competencies, and academic or scholarly metrics and, when considered in combination, how the individual might contribute value to the institution’s mission.”⁷ Furthermore, we recommend that dermatology residency programs have multiple faculty members review each application, including a representative of the diversity, inclusion, and equity committee.

In the COVID-19 era, dermatology externship opportunities that would have allowed URM students to work directly with potential residency programs, showcase their abilities, and network have been limited. Virtual residency interviews could make it more challenging to evaluate candidates, especially URM students from less prestigious programs or unusual socioeconomic backgrounds, or with lower board scores. In addition, virtual interviews can more easily become one-dimensional, depriving URM students of the opportunity to gauge their personal fit in a specific dermatology residency program and its community. Questions and concerns of URM students might include: Will I be appropriately supported and mentored? Will my cultural preferences, religion, sexual preference, hairstyle, and beliefs be accepted? Can I advocate for minorities and support antiracism and diversity and inclusion initiatives? To that end, we recommend that dermatology programs continue to host virtual meet-and-greet events for potential students to meet faculty and learn more about the program. In addition, programs should consider having current residents interact virtually with candidates to allow students to better understand the culture of the department and residents’ experiences as trainees in such an environment. For URM students, this is highly important because diversity, inclusion, and antiracism policies and initiatives might not be explicitly available on the institution’s website or residency information page.

Organizations Championing Diversity

Recently, multiple dermatology societies and organizations have been emphasizing the need for diversity and inclusion as well as promoting holistic application review. The American Academy of Dermatology pioneered the Diversity Champion Workshop in 2019 and continues to offer the Diversity Mentorship program, connecting URM students to mentors nationally. The Skin of Color Society offers yearly grants and awards to medical students to develop mentorship and research, and recently hosted webinars to guide medical students and residency programs on diversity and inclusion, residency application and review, and COVID-19 virtual interviews. Other national societies, such as the Student National Medical Association and Latino Medical Student Association, have been promoting workshops and interview mentoring for URM students, including dermatology-specific events. Although it is estimated that more than 90% of medical schools in the United States already perform holistic application review and that such review has been adopted by many dermatology programs nationwide, data regarding dermatology residency programs’ implementation of holistic application review are lacking.⁸

In addition, we encourage continuation of the proposed coordinated interview invite release from the Association of Professors of Dermatology, which was implemented in the 2020-2021 cycle. In light of the recent AAMC letter⁹ on the maldistribution of interview invitations to highest-tier applicants, coordination of interview release dates and other similar initiatives to prevent programs from offering more invites than their available slots and improve transparency about interview days are needed. Furthermore, continuing to offer optional virtual interviews for applicants in future cycles could make the process less cost-prohibitive for many URM students.^4,5

Final Thoughts

Dermatology residency programs must intentionally guard against falling back to traditional standards of assessment as the only means of student evaluation, especially in this virtual era. It is our responsibility to remove artificial barriers that continue to stall progress in diversity, inclusion, equity, and belonging in dermatology.

The COVID-19 pandemic has markedly changed the dermatology residency application process. As medical students head into this application cycle, the impacts of systemic racism and deeply rooted structural barriers continue to be exacerbated for students who identify as an underrepresented minority (URM) in medicine—historically defined as those who self-identify as Hispanic or Latinx; Black or African American; American Indian or Alaska Native; or Native Hawaiian or Pacific Islander. The Association of American Medical Colleges (AAMC) defines URMs as racial and ethnic populations that are underrepresented in medicine relative to their numbers in the general population.¹ Although these groups account for approximately 34% of the population of the United States, they constitute only 11% of the country’s physician workforce.^2,3

Of the total physician workforce in the United States, Black and African American physicians account for 5% of practicing physicians; Hispanic physicians, 5.8%; American Indian and Alaska Native physicians, 0.3%; and Native Hawaiian and Pacific Islander physicians, 0.1%.² In competitive medical specialties, the disproportionality of these numbers compared to our current demographics in the United States as shown above is even more staggering. In 2018, for example, 10% of practicing dermatologists identified as female URM physicians; 6%, as male URM physicians.² In this article, we discuss some of the challenges and considerations for URM students applying to dermatology residency in the era of the COVID-19 pandemic.

Barriers for URM Students in Dermatology

Multiple studies have attempted to identify some of the barriers faced by URM students in medicine that might explain the lack of diversity in competitive specialties. Vasquez and colleagues⁴ identified 4 major factors that play a role in dermatology: lack of equitable resources, lack of support, financial limitations, and the lack of group identity. More than half of URM students surveyed (1) identified lack of support as a barrier and (2) reported having been encouraged to seek a specialty more reflective of their community.⁴

Soliman et al⁵ reported that URM barriers in dermatology extend to include lack of diversity in the field, socioeconomic factors, lack of mentorship, and a negative perception of minority students by residency programs. Dermatology is the second least diverse specialty in medicine after orthopedic surgery, which, in and of itself, might further discourage URM students from applying to dermatology.⁵

With the minimal exposure that URM students have to the field of dermatology, the lack of pipeline programs, and reports that URMs often are encouraged to pursue primary care, the current diversity deficiency in dermatology comes as no surprise. In addition, the substantial disadvantage for URM students is perpetuated by the traditional highly selective process that favors grades, board scores, and honor society status over holistic assessment of the individual student and their unique experiences and potential for contribution.

Looking Beyond Test Scores

The US Medical Licensing Examination (USMLE) traditionally has been used to select dermatology residency applicants, with high cutoff scores often excluding outstanding URM students. Research has suggested that the use of USMLE examination test scores for residency recruitment lacks validity because it has poor predictability of residency performance.⁶ Although the USMLE Step 1 examination is transitioning to pass/fail scoring, applicants for the next cycle will still have a 3-digit numerical score.

We strongly recommend that dermatology programs transition from emphasizing scores of residency candidates to reviewing each candidate holistically. The AAMC defines “holistic review” as a “flexible, individualized way of assessing an applicant’s capabilities, by which balanced consideration is given to experiences, attributes, competencies, and academic or scholarly metrics and, when considered in combination, how the individual might contribute value to the institution’s mission.”⁷ Furthermore, we recommend that dermatology residency programs have multiple faculty members review each application, including a representative of the diversity, inclusion, and equity committee.

In the COVID-19 era, dermatology externship opportunities that would have allowed URM students to work directly with potential residency programs, showcase their abilities, and network have been limited. Virtual residency interviews could make it more challenging to evaluate candidates, especially URM students from less prestigious programs or unusual socioeconomic backgrounds, or with lower board scores. In addition, virtual interviews can more easily become one-dimensional, depriving URM students of the opportunity to gauge their personal fit in a specific dermatology residency program and its community. Questions and concerns of URM students might include: Will I be appropriately supported and mentored? Will my cultural preferences, religion, sexual preference, hairstyle, and beliefs be accepted? Can I advocate for minorities and support antiracism and diversity and inclusion initiatives? To that end, we recommend that dermatology programs continue to host virtual meet-and-greet events for potential students to meet faculty and learn more about the program. In addition, programs should consider having current residents interact virtually with candidates to allow students to better understand the culture of the department and residents’ experiences as trainees in such an environment. For URM students, this is highly important because diversity, inclusion, and antiracism policies and initiatives might not be explicitly available on the institution’s website or residency information page.

Organizations Championing Diversity

Recently, multiple dermatology societies and organizations have been emphasizing the need for diversity and inclusion as well as promoting holistic application review. The American Academy of Dermatology pioneered the Diversity Champion Workshop in 2019 and continues to offer the Diversity Mentorship program, connecting URM students to mentors nationally. The Skin of Color Society offers yearly grants and awards to medical students to develop mentorship and research, and recently hosted webinars to guide medical students and residency programs on diversity and inclusion, residency application and review, and COVID-19 virtual interviews. Other national societies, such as the Student National Medical Association and Latino Medical Student Association, have been promoting workshops and interview mentoring for URM students, including dermatology-specific events. Although it is estimated that more than 90% of medical schools in the United States already perform holistic application review and that such review has been adopted by many dermatology programs nationwide, data regarding dermatology residency programs’ implementation of holistic application review are lacking.⁸

In addition, we encourage continuation of the proposed coordinated interview invite release from the Association of Professors of Dermatology, which was implemented in the 2020-2021 cycle. In light of the recent AAMC letter⁹ on the maldistribution of interview invitations to highest-tier applicants, coordination of interview release dates and other similar initiatives to prevent programs from offering more invites than their available slots and improve transparency about interview days are needed. Furthermore, continuing to offer optional virtual interviews for applicants in future cycles could make the process less cost-prohibitive for many URM students.^4,5

Final Thoughts

Dermatology residency programs must intentionally guard against falling back to traditional standards of assessment as the only means of student evaluation, especially in this virtual era. It is our responsibility to remove artificial barriers that continue to stall progress in diversity, inclusion, equity, and belonging in dermatology.

Anxiety and depression symptoms increased in adults last winter as COVID-19 surged in the United States but declined in the spring as COVID activity approached its nadir, according to an analysis from the Centers for Disease Control and Prevention.

“The relative increases and decreases in frequency of reported symptoms of anxiety and depression at both the national and state levels mirrored the national weekly number of new COVID-19 cases during the same period,” Haomiao Jia, PhD, and associates wrote in the Morbidity and Mortality Weekly Report.

In a national survey conducted Aug. 19-31, 2020, the average anxiety severity score was 2.0 and the average depression score was 1.6 among adults in all 50 states. Those scores rose to 2.3 (+13.0%) and 2.0 (+14.8%), respectively, by Dec. 9-21, but then fell to 1.7 (–26.8%) and 1.4 (–24.8%) during the survey conducted from May 26 to June 7, 2021, the investigators reported.

Despite that decrease in the spring, however, “the frequency of symptoms ... in June 2021 remained elevated compared with estimates from” 2019, said Dr. Jia of Columbia University, New York, and associates. Data from the National Health Interview Survey put the prepandemic severity scores at 0.63 for anxiety and 0.51 for depression.

Weekly symptom frequency in the Household Pulse Survey, which began in April 2020, was assessed with the four-item Patient Health Questionnaire, which includes two questions on anxiety and two on depression. Each answer scored on a scale from 0 (no symptoms at all) to 3 (symptoms nearly every day), making a total of 6 possible for each severity score, they explained. Sample sizes for the biweekly surveys ranged from 58,729 to 110,019.

Among the states, there was something of a pattern involving the drop in scores during the fall and the rise over the winter and spring months. “States with larger increases in severity scores during August–December 2020 also tended to have larger decreases during January–June 2021,” the researchers noted.

That group includes Minnesota, Mississippi, South Dakota, and Utah for anxiety and Idaho, Michigan, Minnesota, and Wisconsin for depression, the survey data show.

Florida and New York had the smallest increases in depression and anxiety scores, respectively, from August to December, and New York had the smallest decrease in both anxiety and depression from January to June, Dr. Jia and associates said.

“Real-time monitoring of mental health symptoms can provide important information for responding to surges in the demand for mental health services during national emergencies. The observed differences in severity score magnitude and peaks across states in this study indicate that these efforts are important at both the national and state levels,” they wrote.

[email protected]

Anxiety and depression symptoms increased in adults last winter as COVID-19 surged in the United States but declined in the spring as COVID activity approached its nadir, according to an analysis from the Centers for Disease Control and Prevention.

“The relative increases and decreases in frequency of reported symptoms of anxiety and depression at both the national and state levels mirrored the national weekly number of new COVID-19 cases during the same period,” Haomiao Jia, PhD, and associates wrote in the Morbidity and Mortality Weekly Report.

In a national survey conducted Aug. 19-31, 2020, the average anxiety severity score was 2.0 and the average depression score was 1.6 among adults in all 50 states. Those scores rose to 2.3 (+13.0%) and 2.0 (+14.8%), respectively, by Dec. 9-21, but then fell to 1.7 (–26.8%) and 1.4 (–24.8%) during the survey conducted from May 26 to June 7, 2021, the investigators reported.

Despite that decrease in the spring, however, “the frequency of symptoms ... in June 2021 remained elevated compared with estimates from” 2019, said Dr. Jia of Columbia University, New York, and associates. Data from the National Health Interview Survey put the prepandemic severity scores at 0.63 for anxiety and 0.51 for depression.

Weekly symptom frequency in the Household Pulse Survey, which began in April 2020, was assessed with the four-item Patient Health Questionnaire, which includes two questions on anxiety and two on depression. Each answer scored on a scale from 0 (no symptoms at all) to 3 (symptoms nearly every day), making a total of 6 possible for each severity score, they explained. Sample sizes for the biweekly surveys ranged from 58,729 to 110,019.

Among the states, there was something of a pattern involving the drop in scores during the fall and the rise over the winter and spring months. “States with larger increases in severity scores during August–December 2020 also tended to have larger decreases during January–June 2021,” the researchers noted.

That group includes Minnesota, Mississippi, South Dakota, and Utah for anxiety and Idaho, Michigan, Minnesota, and Wisconsin for depression, the survey data show.

Florida and New York had the smallest increases in depression and anxiety scores, respectively, from August to December, and New York had the smallest decrease in both anxiety and depression from January to June, Dr. Jia and associates said.

“Real-time monitoring of mental health symptoms can provide important information for responding to surges in the demand for mental health services during national emergencies. The observed differences in severity score magnitude and peaks across states in this study indicate that these efforts are important at both the national and state levels,” they wrote.

[email protected]

Anxiety and depression symptoms increased in adults last winter as COVID-19 surged in the United States but declined in the spring as COVID activity approached its nadir, according to an analysis from the Centers for Disease Control and Prevention.

“The relative increases and decreases in frequency of reported symptoms of anxiety and depression at both the national and state levels mirrored the national weekly number of new COVID-19 cases during the same period,” Haomiao Jia, PhD, and associates wrote in the Morbidity and Mortality Weekly Report.

In a national survey conducted Aug. 19-31, 2020, the average anxiety severity score was 2.0 and the average depression score was 1.6 among adults in all 50 states. Those scores rose to 2.3 (+13.0%) and 2.0 (+14.8%), respectively, by Dec. 9-21, but then fell to 1.7 (–26.8%) and 1.4 (–24.8%) during the survey conducted from May 26 to June 7, 2021, the investigators reported.

Despite that decrease in the spring, however, “the frequency of symptoms ... in June 2021 remained elevated compared with estimates from” 2019, said Dr. Jia of Columbia University, New York, and associates. Data from the National Health Interview Survey put the prepandemic severity scores at 0.63 for anxiety and 0.51 for depression.

Weekly symptom frequency in the Household Pulse Survey, which began in April 2020, was assessed with the four-item Patient Health Questionnaire, which includes two questions on anxiety and two on depression. Each answer scored on a scale from 0 (no symptoms at all) to 3 (symptoms nearly every day), making a total of 6 possible for each severity score, they explained. Sample sizes for the biweekly surveys ranged from 58,729 to 110,019.

Among the states, there was something of a pattern involving the drop in scores during the fall and the rise over the winter and spring months. “States with larger increases in severity scores during August–December 2020 also tended to have larger decreases during January–June 2021,” the researchers noted.

That group includes Minnesota, Mississippi, South Dakota, and Utah for anxiety and Idaho, Michigan, Minnesota, and Wisconsin for depression, the survey data show.

Florida and New York had the smallest increases in depression and anxiety scores, respectively, from August to December, and New York had the smallest decrease in both anxiety and depression from January to June, Dr. Jia and associates said.

“Real-time monitoring of mental health symptoms can provide important information for responding to surges in the demand for mental health services during national emergencies. The observed differences in severity score magnitude and peaks across states in this study indicate that these efforts are important at both the national and state levels,” they wrote.

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