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How physicians can provide better care to transgender patients
People who identify as transgender experience many health disparities, in addition to lack of access to quality care. The most commonly cited barrier is the lack of providers who are knowledgeable about transgender health care, according to past surveys.
Even those who do seek care often have unpleasant experiences. A 2015 survey conducted by the National Center for Transgender Equality found that 33% of those who saw a health care provider reported at least one unfavorable experience related to being transgender, such as being verbally harassed or refused treatment because of their gender identity. In fact, 23% of those surveyed say they did not seek health care they needed in the past year because of fear of being mistreated as a transgender person.
This interview has been edited for length and clarity.
Question: Surveys have shown that many people who identify as transgender will seek only transition care, not primary or preventive care. Why is that?
Dr. Brandt: My answer is multifactorial. Transgender patients do seek primary care – just not as readily. There’s a lot of misconceptions about health care needs for the LGBT community in general. For example, lesbian or bisexual women may be not as well informed about the need for Pap smears compared with their heterosexual counterparts. These misconceptions are further exacerbated in the transgender community.
The fact that a lot of patients seek only transition-related care, but not preventive services, such as primary care and gynecologic care, is also related to fears of discrimination and lack of education of providers. These patients are afraid when they walk into an office that they will be misgendered or their physician won’t be familiar with their health care needs.
What can clinics and clinicians do to create a safe and welcoming environment?
Dr. Brandt: It starts with educating office staff about terminology and gender identities.
A key feature of our EHR is the sexual orientation and gender identity platform, which asks questions about a patient’s gender identity, sexual orientation, sex assigned at birth, and organ inventory. These data are then found in the patient information tab and are just as relevant as their insurance status, age, and date of birth.
There are many ways a doctor’s office can signal to patients that they are inclusive. They can hang LGBTQ-friendly flags or symbols or a sign saying, “We have an anti-discrimination policy” in the waiting room. A welcoming environment can also be achieved by revising patient questionnaires or forms so that they aren’t gender-specific or binary.
Given that the patient may have limited contact with a primary care clinician, how do you prioritize what you address during the visit?
Dr. Brandt: Similar to cisgender patients, it depends initially on the age of the patient and the reason for the visit. The priorities of an otherwise healthy transgender patient in their 20s are going to be largely the same as for a cisgender patient of the same age. As patients age in the primary care world, you’re addressing more issues, such as colorectal screening, lipid disorders, and mammograms, and that doesn’t change. For the most part, the problems that you address should be specific for that age group.
It becomes more complicated when you add in factors such as hormone therapy and whether patients have had any type of gender-affirming surgery. Those things can change the usual recommendations for screening or risk assessment. We try to figure out what routine health maintenance and cancer screening a patient needs based on age and risk factors, in addition to hormone status and surgical state.
Do you think that many physicians are educated about the care of underserved populations such as transgender patients?
Dr. Brandt: Yes and no. We are definitely getting better at it. For example, the American College of Obstetricians and Gynecologists published a committee opinion highlighting transgender care. So organizations are starting to prioritize these populations and recognize that they are, in fact, underserved and they have special health care needs.
However, the knowledge gaps are still pretty big. I get calls daily from providers asking questions about how to manage patients on hormones, or how to examine a patient who has undergone a vaginoplasty. I hear a lot of horror stories from transgender patients who had their hormones stopped for absurd and medically misinformed reasons.
But I definitely think it’s getting better and it’s being addressed at all levels – the medical school level, the residency level, and the attending level. It just takes time to inform people and for people to get used to the health care needs of these patients.
What should physicians keep in mind when treating patients who identify as transgender?
Dr. Brandt: First and foremost, understanding the terminology and the difference between gender identity, sex, and sexual orientation. Being familiar with that language and being able to speak that language very comfortably and not being awkward about it is a really important thing for primary care physicians and indeed any physician who treats transgender patients.
Physicians should also be aware that any underserved population has higher rates of mental health issues, such as depression and anxiety. Obviously, that goes along with being underserved and the stigma and the disparities that exist for these patients. Having providers educate themselves about what those disparities are and how they impact a patient’s daily life and health is paramount to knowing how to treat patients.
What are your top health concerns for these patients and how do you address them?
Dr. Brandt: I think mental health and safety is probably the number one for me. About 41% of transgender adults have attempted suicide. That number is roughly 51% in transgender youth. That is an astonishing number. These patients have much higher rates of domestic violence, intimate partner violence, and sexual assault, especially trans women and trans women of color. So understanding those statistics is huge.
Obesity, smoking, and substance abuse are my next three. Again, those are things that should be addressed at any visit, regardless of the gender identity or sexual orientation of the patient, but those rates are particularly high in this population.
Fertility and long-term care for patients should be addressed. Many patients who identify as transgender are told they can’t have a family. As a primary care physician, you may see a patient before they are seen by an ob.gyn. or surgeon. Talking about what a patient’s long-term life goals are with fertility and family planning, and what that looks like for them, is a big thing for me. Other providers may not feel that’s a concern, but I believe it should be discussed before initiation of hormone therapy, which can significantly impact fertility in some patients.
Are there nuances to the physical examination that primary care physicians should be aware of when dealing with transmasculine patients vs. transfeminine patients?
Dr. Brandt: Absolutely. And this interview can’t cover the scope of those nuances. An example that comes to mind is the genital exam. For transgender women who have undergone a vaginoplasty, the pelvic exam can be very affirming. Whereas for transgender men, a gynecologic exam can significantly exacerbate dysphoria and there are ways to conduct the exam to limit this discomfort and avoid creating a traumatic experience for the patient. It’s important to be aware that the genital exam, or any type of genitourinary exam, can be either affirming or not affirming.
Sexually transmitted infections are up in the general population, and the trans population is at even higher risk. What should physicians think about when they assess this risk?
Dr. Brandt: It’s really important for primary care clinicians and for gynecologists to learn to be comfortable talking about sexual practices, because what people do behind closed doors is really a key to how to counsel patients about safe sex.
People are well aware of the need to have safe sex. However, depending on the type of sex that you’re having, what body parts go where, what is truly safe can vary and people may not know, for example, to wear a condom when sex toys are involved or that a transgender male on testosterone can become pregnant during penile-vaginal intercourse. Providers really should be very educated on the array of sexual practices that people have and how to counsel them about those. They should know how to ask patients the gender identity of their sexual partners, the sexual orientation of their partners, and what parts go where during sex.
Providers should also talk to patients about PrEP [pre-exposure prophylaxis], whether they identify as cisgender or transgender. My trans patients tend to be a lot more educated about PrEP than other patients. It’s something that many of the residents, even in a standard gynecologic clinic, for example, don’t talk to cisgender patients about because of the stigma surrounding HIV. Many providers still think that the only people who are at risk for HIV are men who have sex with men. And while those rates are higher in some populations, depending on sexual practices, those aren’t the only patients who qualify for PrEP.
Overall, in order to counsel patients about STIs and safe sexual practices, providers should learn to be comfortable talking about sex.
Do you have any strategies on how to make the appointment more successful in addressing those issues?
Dr. Brandt: Bedside manner is a hard thing to teach, and comfort in talking about sex, gender identity, and sexual orientation can vary – but there are a lot of continuing medical education courses that physicians can utilize through the World Professional Association for Transgender Health.
If providers start to notice an influx of patients who identify as transgender or if they want to start seeing transgender patients, it’s really important for them to have that training before they start interacting with patients. In all of medicine, we sort of learn as we go, but this patient population has been subjected to discrimination, violence, error, and misgendering. They have dealt with providers who didn’t understand their health care needs. While this field is evolving, knowing how to appropriately address a patient (using their correct name, pronouns, etc.) is an absolute must.
That needs to be part of a provider’s routine vernacular and not something that they sort of stumble through. You can scare a patient away as soon as they walk into the office with an uneducated front desk staff and things that are seen in the office. Seeking out those educational tools, being aware of your own deficits as a provider and the educational needs of your office, and addressing those needs is really key.
A version of this article first appeared on Medscape.com.
People who identify as transgender experience many health disparities, in addition to lack of access to quality care. The most commonly cited barrier is the lack of providers who are knowledgeable about transgender health care, according to past surveys.
Even those who do seek care often have unpleasant experiences. A 2015 survey conducted by the National Center for Transgender Equality found that 33% of those who saw a health care provider reported at least one unfavorable experience related to being transgender, such as being verbally harassed or refused treatment because of their gender identity. In fact, 23% of those surveyed say they did not seek health care they needed in the past year because of fear of being mistreated as a transgender person.
This interview has been edited for length and clarity.
Question: Surveys have shown that many people who identify as transgender will seek only transition care, not primary or preventive care. Why is that?
Dr. Brandt: My answer is multifactorial. Transgender patients do seek primary care – just not as readily. There’s a lot of misconceptions about health care needs for the LGBT community in general. For example, lesbian or bisexual women may be not as well informed about the need for Pap smears compared with their heterosexual counterparts. These misconceptions are further exacerbated in the transgender community.
The fact that a lot of patients seek only transition-related care, but not preventive services, such as primary care and gynecologic care, is also related to fears of discrimination and lack of education of providers. These patients are afraid when they walk into an office that they will be misgendered or their physician won’t be familiar with their health care needs.
What can clinics and clinicians do to create a safe and welcoming environment?
Dr. Brandt: It starts with educating office staff about terminology and gender identities.
A key feature of our EHR is the sexual orientation and gender identity platform, which asks questions about a patient’s gender identity, sexual orientation, sex assigned at birth, and organ inventory. These data are then found in the patient information tab and are just as relevant as their insurance status, age, and date of birth.
There are many ways a doctor’s office can signal to patients that they are inclusive. They can hang LGBTQ-friendly flags or symbols or a sign saying, “We have an anti-discrimination policy” in the waiting room. A welcoming environment can also be achieved by revising patient questionnaires or forms so that they aren’t gender-specific or binary.
Given that the patient may have limited contact with a primary care clinician, how do you prioritize what you address during the visit?
Dr. Brandt: Similar to cisgender patients, it depends initially on the age of the patient and the reason for the visit. The priorities of an otherwise healthy transgender patient in their 20s are going to be largely the same as for a cisgender patient of the same age. As patients age in the primary care world, you’re addressing more issues, such as colorectal screening, lipid disorders, and mammograms, and that doesn’t change. For the most part, the problems that you address should be specific for that age group.
It becomes more complicated when you add in factors such as hormone therapy and whether patients have had any type of gender-affirming surgery. Those things can change the usual recommendations for screening or risk assessment. We try to figure out what routine health maintenance and cancer screening a patient needs based on age and risk factors, in addition to hormone status and surgical state.
Do you think that many physicians are educated about the care of underserved populations such as transgender patients?
Dr. Brandt: Yes and no. We are definitely getting better at it. For example, the American College of Obstetricians and Gynecologists published a committee opinion highlighting transgender care. So organizations are starting to prioritize these populations and recognize that they are, in fact, underserved and they have special health care needs.
However, the knowledge gaps are still pretty big. I get calls daily from providers asking questions about how to manage patients on hormones, or how to examine a patient who has undergone a vaginoplasty. I hear a lot of horror stories from transgender patients who had their hormones stopped for absurd and medically misinformed reasons.
But I definitely think it’s getting better and it’s being addressed at all levels – the medical school level, the residency level, and the attending level. It just takes time to inform people and for people to get used to the health care needs of these patients.
What should physicians keep in mind when treating patients who identify as transgender?
Dr. Brandt: First and foremost, understanding the terminology and the difference between gender identity, sex, and sexual orientation. Being familiar with that language and being able to speak that language very comfortably and not being awkward about it is a really important thing for primary care physicians and indeed any physician who treats transgender patients.
Physicians should also be aware that any underserved population has higher rates of mental health issues, such as depression and anxiety. Obviously, that goes along with being underserved and the stigma and the disparities that exist for these patients. Having providers educate themselves about what those disparities are and how they impact a patient’s daily life and health is paramount to knowing how to treat patients.
What are your top health concerns for these patients and how do you address them?
Dr. Brandt: I think mental health and safety is probably the number one for me. About 41% of transgender adults have attempted suicide. That number is roughly 51% in transgender youth. That is an astonishing number. These patients have much higher rates of domestic violence, intimate partner violence, and sexual assault, especially trans women and trans women of color. So understanding those statistics is huge.
Obesity, smoking, and substance abuse are my next three. Again, those are things that should be addressed at any visit, regardless of the gender identity or sexual orientation of the patient, but those rates are particularly high in this population.
Fertility and long-term care for patients should be addressed. Many patients who identify as transgender are told they can’t have a family. As a primary care physician, you may see a patient before they are seen by an ob.gyn. or surgeon. Talking about what a patient’s long-term life goals are with fertility and family planning, and what that looks like for them, is a big thing for me. Other providers may not feel that’s a concern, but I believe it should be discussed before initiation of hormone therapy, which can significantly impact fertility in some patients.
Are there nuances to the physical examination that primary care physicians should be aware of when dealing with transmasculine patients vs. transfeminine patients?
Dr. Brandt: Absolutely. And this interview can’t cover the scope of those nuances. An example that comes to mind is the genital exam. For transgender women who have undergone a vaginoplasty, the pelvic exam can be very affirming. Whereas for transgender men, a gynecologic exam can significantly exacerbate dysphoria and there are ways to conduct the exam to limit this discomfort and avoid creating a traumatic experience for the patient. It’s important to be aware that the genital exam, or any type of genitourinary exam, can be either affirming or not affirming.
Sexually transmitted infections are up in the general population, and the trans population is at even higher risk. What should physicians think about when they assess this risk?
Dr. Brandt: It’s really important for primary care clinicians and for gynecologists to learn to be comfortable talking about sexual practices, because what people do behind closed doors is really a key to how to counsel patients about safe sex.
People are well aware of the need to have safe sex. However, depending on the type of sex that you’re having, what body parts go where, what is truly safe can vary and people may not know, for example, to wear a condom when sex toys are involved or that a transgender male on testosterone can become pregnant during penile-vaginal intercourse. Providers really should be very educated on the array of sexual practices that people have and how to counsel them about those. They should know how to ask patients the gender identity of their sexual partners, the sexual orientation of their partners, and what parts go where during sex.
Providers should also talk to patients about PrEP [pre-exposure prophylaxis], whether they identify as cisgender or transgender. My trans patients tend to be a lot more educated about PrEP than other patients. It’s something that many of the residents, even in a standard gynecologic clinic, for example, don’t talk to cisgender patients about because of the stigma surrounding HIV. Many providers still think that the only people who are at risk for HIV are men who have sex with men. And while those rates are higher in some populations, depending on sexual practices, those aren’t the only patients who qualify for PrEP.
Overall, in order to counsel patients about STIs and safe sexual practices, providers should learn to be comfortable talking about sex.
Do you have any strategies on how to make the appointment more successful in addressing those issues?
Dr. Brandt: Bedside manner is a hard thing to teach, and comfort in talking about sex, gender identity, and sexual orientation can vary – but there are a lot of continuing medical education courses that physicians can utilize through the World Professional Association for Transgender Health.
If providers start to notice an influx of patients who identify as transgender or if they want to start seeing transgender patients, it’s really important for them to have that training before they start interacting with patients. In all of medicine, we sort of learn as we go, but this patient population has been subjected to discrimination, violence, error, and misgendering. They have dealt with providers who didn’t understand their health care needs. While this field is evolving, knowing how to appropriately address a patient (using their correct name, pronouns, etc.) is an absolute must.
That needs to be part of a provider’s routine vernacular and not something that they sort of stumble through. You can scare a patient away as soon as they walk into the office with an uneducated front desk staff and things that are seen in the office. Seeking out those educational tools, being aware of your own deficits as a provider and the educational needs of your office, and addressing those needs is really key.
A version of this article first appeared on Medscape.com.
People who identify as transgender experience many health disparities, in addition to lack of access to quality care. The most commonly cited barrier is the lack of providers who are knowledgeable about transgender health care, according to past surveys.
Even those who do seek care often have unpleasant experiences. A 2015 survey conducted by the National Center for Transgender Equality found that 33% of those who saw a health care provider reported at least one unfavorable experience related to being transgender, such as being verbally harassed or refused treatment because of their gender identity. In fact, 23% of those surveyed say they did not seek health care they needed in the past year because of fear of being mistreated as a transgender person.
This interview has been edited for length and clarity.
Question: Surveys have shown that many people who identify as transgender will seek only transition care, not primary or preventive care. Why is that?
Dr. Brandt: My answer is multifactorial. Transgender patients do seek primary care – just not as readily. There’s a lot of misconceptions about health care needs for the LGBT community in general. For example, lesbian or bisexual women may be not as well informed about the need for Pap smears compared with their heterosexual counterparts. These misconceptions are further exacerbated in the transgender community.
The fact that a lot of patients seek only transition-related care, but not preventive services, such as primary care and gynecologic care, is also related to fears of discrimination and lack of education of providers. These patients are afraid when they walk into an office that they will be misgendered or their physician won’t be familiar with their health care needs.
What can clinics and clinicians do to create a safe and welcoming environment?
Dr. Brandt: It starts with educating office staff about terminology and gender identities.
A key feature of our EHR is the sexual orientation and gender identity platform, which asks questions about a patient’s gender identity, sexual orientation, sex assigned at birth, and organ inventory. These data are then found in the patient information tab and are just as relevant as their insurance status, age, and date of birth.
There are many ways a doctor’s office can signal to patients that they are inclusive. They can hang LGBTQ-friendly flags or symbols or a sign saying, “We have an anti-discrimination policy” in the waiting room. A welcoming environment can also be achieved by revising patient questionnaires or forms so that they aren’t gender-specific or binary.
Given that the patient may have limited contact with a primary care clinician, how do you prioritize what you address during the visit?
Dr. Brandt: Similar to cisgender patients, it depends initially on the age of the patient and the reason for the visit. The priorities of an otherwise healthy transgender patient in their 20s are going to be largely the same as for a cisgender patient of the same age. As patients age in the primary care world, you’re addressing more issues, such as colorectal screening, lipid disorders, and mammograms, and that doesn’t change. For the most part, the problems that you address should be specific for that age group.
It becomes more complicated when you add in factors such as hormone therapy and whether patients have had any type of gender-affirming surgery. Those things can change the usual recommendations for screening or risk assessment. We try to figure out what routine health maintenance and cancer screening a patient needs based on age and risk factors, in addition to hormone status and surgical state.
Do you think that many physicians are educated about the care of underserved populations such as transgender patients?
Dr. Brandt: Yes and no. We are definitely getting better at it. For example, the American College of Obstetricians and Gynecologists published a committee opinion highlighting transgender care. So organizations are starting to prioritize these populations and recognize that they are, in fact, underserved and they have special health care needs.
However, the knowledge gaps are still pretty big. I get calls daily from providers asking questions about how to manage patients on hormones, or how to examine a patient who has undergone a vaginoplasty. I hear a lot of horror stories from transgender patients who had their hormones stopped for absurd and medically misinformed reasons.
But I definitely think it’s getting better and it’s being addressed at all levels – the medical school level, the residency level, and the attending level. It just takes time to inform people and for people to get used to the health care needs of these patients.
What should physicians keep in mind when treating patients who identify as transgender?
Dr. Brandt: First and foremost, understanding the terminology and the difference between gender identity, sex, and sexual orientation. Being familiar with that language and being able to speak that language very comfortably and not being awkward about it is a really important thing for primary care physicians and indeed any physician who treats transgender patients.
Physicians should also be aware that any underserved population has higher rates of mental health issues, such as depression and anxiety. Obviously, that goes along with being underserved and the stigma and the disparities that exist for these patients. Having providers educate themselves about what those disparities are and how they impact a patient’s daily life and health is paramount to knowing how to treat patients.
What are your top health concerns for these patients and how do you address them?
Dr. Brandt: I think mental health and safety is probably the number one for me. About 41% of transgender adults have attempted suicide. That number is roughly 51% in transgender youth. That is an astonishing number. These patients have much higher rates of domestic violence, intimate partner violence, and sexual assault, especially trans women and trans women of color. So understanding those statistics is huge.
Obesity, smoking, and substance abuse are my next three. Again, those are things that should be addressed at any visit, regardless of the gender identity or sexual orientation of the patient, but those rates are particularly high in this population.
Fertility and long-term care for patients should be addressed. Many patients who identify as transgender are told they can’t have a family. As a primary care physician, you may see a patient before they are seen by an ob.gyn. or surgeon. Talking about what a patient’s long-term life goals are with fertility and family planning, and what that looks like for them, is a big thing for me. Other providers may not feel that’s a concern, but I believe it should be discussed before initiation of hormone therapy, which can significantly impact fertility in some patients.
Are there nuances to the physical examination that primary care physicians should be aware of when dealing with transmasculine patients vs. transfeminine patients?
Dr. Brandt: Absolutely. And this interview can’t cover the scope of those nuances. An example that comes to mind is the genital exam. For transgender women who have undergone a vaginoplasty, the pelvic exam can be very affirming. Whereas for transgender men, a gynecologic exam can significantly exacerbate dysphoria and there are ways to conduct the exam to limit this discomfort and avoid creating a traumatic experience for the patient. It’s important to be aware that the genital exam, or any type of genitourinary exam, can be either affirming or not affirming.
Sexually transmitted infections are up in the general population, and the trans population is at even higher risk. What should physicians think about when they assess this risk?
Dr. Brandt: It’s really important for primary care clinicians and for gynecologists to learn to be comfortable talking about sexual practices, because what people do behind closed doors is really a key to how to counsel patients about safe sex.
People are well aware of the need to have safe sex. However, depending on the type of sex that you’re having, what body parts go where, what is truly safe can vary and people may not know, for example, to wear a condom when sex toys are involved or that a transgender male on testosterone can become pregnant during penile-vaginal intercourse. Providers really should be very educated on the array of sexual practices that people have and how to counsel them about those. They should know how to ask patients the gender identity of their sexual partners, the sexual orientation of their partners, and what parts go where during sex.
Providers should also talk to patients about PrEP [pre-exposure prophylaxis], whether they identify as cisgender or transgender. My trans patients tend to be a lot more educated about PrEP than other patients. It’s something that many of the residents, even in a standard gynecologic clinic, for example, don’t talk to cisgender patients about because of the stigma surrounding HIV. Many providers still think that the only people who are at risk for HIV are men who have sex with men. And while those rates are higher in some populations, depending on sexual practices, those aren’t the only patients who qualify for PrEP.
Overall, in order to counsel patients about STIs and safe sexual practices, providers should learn to be comfortable talking about sex.
Do you have any strategies on how to make the appointment more successful in addressing those issues?
Dr. Brandt: Bedside manner is a hard thing to teach, and comfort in talking about sex, gender identity, and sexual orientation can vary – but there are a lot of continuing medical education courses that physicians can utilize through the World Professional Association for Transgender Health.
If providers start to notice an influx of patients who identify as transgender or if they want to start seeing transgender patients, it’s really important for them to have that training before they start interacting with patients. In all of medicine, we sort of learn as we go, but this patient population has been subjected to discrimination, violence, error, and misgendering. They have dealt with providers who didn’t understand their health care needs. While this field is evolving, knowing how to appropriately address a patient (using their correct name, pronouns, etc.) is an absolute must.
That needs to be part of a provider’s routine vernacular and not something that they sort of stumble through. You can scare a patient away as soon as they walk into the office with an uneducated front desk staff and things that are seen in the office. Seeking out those educational tools, being aware of your own deficits as a provider and the educational needs of your office, and addressing those needs is really key.
A version of this article first appeared on Medscape.com.
Steroid-refractory pneumonitis from ICIs: Experience at major centers
Pneumonitis is an uncommon and potentially life-threatening complication of immune checkpoint inhibitor (ICI) therapy. A fraction of patients with ICI-related pneumonitis fail to respond to initial therapy with high-dose systemic steroids.
The recently published experiences at two major cancer centers shed light on the outcomes from treatment and can provide some advice to clinicians for dealing with affected patients.
The Johns Hopkins experience
Because ICI-related pneumonitis typically improves within 48-72 hours of steroid therapy, at Johns Hopkins University, Baltimore, steroid-refractory pneumonitis is defined as pneumonitis that demonstrates no clinical improvement after high-dose corticosteroids for 2-14 days. If the immune toxicity–specialized, multidisciplinary management team implements additional immunosuppressive therapy, that is regarded as confirmatory evidence.
Aanika Balaji, a medical student at Johns Hopkins University, and colleagues retrospectively summarized the clinical course of 12 patients with ICI-related pneumonitis between 2011 and 2020. Clinical improvement with subsequent treatment was evidenced by reduction in either level of care or oxygen requirements.
Three-quarters of the patients were current or former smokers, and the same proportion had lung cancer. Most patients (91.6%) had received chemotherapy, 58.3% had prior chest radiotherapy, and 58.3% had achieved partial response or stable disease with an ICI.
Steroid-refractory ICI-related pneumonitis developed between 40 and 127 days (median, 85 days) after the first dose of ICI therapy. Subsequent immunosuppressive management included IVIg, infliximab, or the combination, in addition to ICU-level supportive care.
Among the seven patients who received IVIg alone, two patients (29%) achieved clinical improvement and hospital discharge. The remainder died.
The two patients treated with infliximab and the three patients treated with sequential IVIg and infliximab died. All deaths were attributed to ICI-related pneumonitis or infectious complications.
Overall, clinically relevant findings were:
- Steroid-refractory ICI-related pneumonitis was seen in 18.5% of patients referred for multidisciplinary care.
- Steroid-refractory ICI-related pneumonitis occurred at a median of 85 days into a patient’s ICI treatment.
- Some patients improved clinically after IVIg therapy, but mortality was high overall.
- Infliximab therapy, alone or in combination with IVIg, was ineffective.
The Memorial Sloan Kettering experience
Jason Beattie, MD, of Memorial Sloan Kettering Cancer Center, New York, and colleagues performed a retrospective study of patients who had pneumonitis after ICI therapy and/or received immune modulator therapy after corticosteroids in the setting of ICI cancer treatment.
Manual record review was performed to exclude cases of pneumonitis from other causes. The period reviewed was roughly contemporaneous with the Johns Hopkins series.
Patients with ICI-related pneumonitis were divided into “steroid refractory” (i.e., no response to high-dose corticosteroids) or “steroid resistant” (i.e., initial response, followed by worsening) categories.
The researchers identified 26 patients with ICI-related pneumonitis, all of whom had advanced malignancy (8 lung cancer, 4 malignant melanoma, 4 renal cell cancer, and 10 “other” cancers).
A majority of patients (85%) were current or former smokers, 73% had received ICI monotherapy, 35% had received prior chest radiation at a median interval of 4.9 months prior to pneumonitis onset, and 27% had preexisting pulmonary disease.
Twelve patients (46%) had steroid-refractory ICI-related pneumonitis, and 14 (54%) had steroid-resistant ICI-related pneumonitis.
The two groups differed in time to pneumonitis onset (a median of 68 days in the refractory group and 182 days in the resistant group) and time to immune modulator therapy after beginning steroids (median 7 days and 2.9 months, respectively). In the steroid-refractory cases, pneumonitis was more severe.
In addition to corticosteroids, most patients received infliximab monotherapy or infliximab with mycophenolate mofetil. In contrast to the Johns Hopkins series, IVIg was not used in the Memorial Sloan Kettering cases.
Outcomes from immune modulators were graded based on clinical evidence (progress notes, oxygen requirements, level of care, radiologic information, etc.) of resolution of pneumonitis on imaging at least 8 weeks after cessation of steroids and immune modulator therapy, durable improvement for at least 8 weeks after immune modulator therapy, transient improvement followed by pneumonitis relapse or inadequate follow-up because of death or hospice referral, or no improvement.
Ten patients (38%) had durable improvement of ICI-related pneumonitis, of whom three (12%) had complete resolution. Two of the patients with complete resolution had steroid-refractory pneumonitis, both of whom had received infliximab followed by mycophenolate mofetil.
Among the seven patients with durable improvement, four remained alive on immune modulators. Time to resolution of pneumonitis was protracted, ranging from 2.3 months to 8.4 months in the steroid-refractory patients.
Durable response was less common with steroid-refractory (25%) than steroid-resistant (50%) disease, with a significant difference in 90-day survival of 25% and 71%, respectively.
Among the 13 (50%) patients with transient improvement in ICI-related pneumonitis, 8 ultimately died, either because of recurrent ICI-related pneumonitis or infection. All three patients with no improvement from immune modulators died.
The 90-day all-cause mortality was 50%, with durable pneumonitis improvement and freedom from severe infectious complications occurring in only about a third of patients.
Lessons for clinicians
The National Comprehensive Cancer Network, the Society for Immunotherapy of Cancer, and the European Society of Medical Oncology have all published guidelines and recommendations for immunosuppression for steroid-refractory adverse events from ICIs.
Unfortunately, there is little experience with steroid-unresponsive ICI-related pneumonitis. The ideal sequence, dose, and duration of additional immune modulator therapy for ICI-related pneumonitis are unclear and may differ from the approaches to other immune-related toxicities.
This is important because, as suggested in an editorial by Margaret Gatti-Mays, MD, and James L. Gulley, MD, PhD, it is likely that ICI-related pneumonitis will be seen more in routine practice than in clinical trial populations. In addition, across all tumor types, ICI-related pneumonitis is the most common cause of ICI-associated death from toxicity.
The retrospective studies from Johns Hopkins and Memorial Sloan Kettering constitute the largest published experience with ICI-related pneumonitis and yield important clinical insights.
Uniform definitions of potentially important patient subgroups (e.g., steroid refractory vs. steroid resistant) are needed. The steroid-refractory and steroid-resistant subgroups have distinctly different clinical features and outcomes. Uniformity in the subgroup definitions would be a useful starting point from both clinical and research perspectives.
Preferred treatment choices need to be tested systematically in multi-institutional studies. Any potential impact of treatment for ICI-related pneumonitis on antitumor immune control should be identified.
Endpoints of interest need to be defined and measured prospectively. All-cause mortality after 90 days is important, but, as the authors of both reviews noted, there are vitally important narratives and differences in functionality that are completely concealed by restricting the focus to mortality.
Potential causal relationships with antecedent exposure to tobacco, radiation, intrathoracic tumor burden, or other factors need to be defined.
Clinicians need predictive biomarkers for ICI-related pneumonitis (e.g., in peripheral blood, pulmonary function testing, or bronchoscopy specimens). At-risk patients may benefit from early intervention.
The limitations of single-institution record reviews in guiding real-world patient management notwithstanding, these reviews illustrate the value of registries and prospective studies to guide the path forward. Taking these next steps will ensure for our patients that the success of immune-targeted therapy against their cancer never becomes a Pyrrhic victory.
The Johns Hopkins investigators and the editorialists reported having no disclosures. The Memorial Sloan Kettering investigators disclosed relationships with Targeted Oncology, Merck, Array BioPharma, Novartis, and many other companies.
Dr. Lyss was a community-based medical oncologist and clinical researcher for more than 35 years before his recent retirement. His clinical and research interests were focused on breast and lung cancers, as well as expanding clinical trial access to medically underserved populations. He is based in St. Louis. He has no conflicts of interest.
Pneumonitis is an uncommon and potentially life-threatening complication of immune checkpoint inhibitor (ICI) therapy. A fraction of patients with ICI-related pneumonitis fail to respond to initial therapy with high-dose systemic steroids.
The recently published experiences at two major cancer centers shed light on the outcomes from treatment and can provide some advice to clinicians for dealing with affected patients.
The Johns Hopkins experience
Because ICI-related pneumonitis typically improves within 48-72 hours of steroid therapy, at Johns Hopkins University, Baltimore, steroid-refractory pneumonitis is defined as pneumonitis that demonstrates no clinical improvement after high-dose corticosteroids for 2-14 days. If the immune toxicity–specialized, multidisciplinary management team implements additional immunosuppressive therapy, that is regarded as confirmatory evidence.
Aanika Balaji, a medical student at Johns Hopkins University, and colleagues retrospectively summarized the clinical course of 12 patients with ICI-related pneumonitis between 2011 and 2020. Clinical improvement with subsequent treatment was evidenced by reduction in either level of care or oxygen requirements.
Three-quarters of the patients were current or former smokers, and the same proportion had lung cancer. Most patients (91.6%) had received chemotherapy, 58.3% had prior chest radiotherapy, and 58.3% had achieved partial response or stable disease with an ICI.
Steroid-refractory ICI-related pneumonitis developed between 40 and 127 days (median, 85 days) after the first dose of ICI therapy. Subsequent immunosuppressive management included IVIg, infliximab, or the combination, in addition to ICU-level supportive care.
Among the seven patients who received IVIg alone, two patients (29%) achieved clinical improvement and hospital discharge. The remainder died.
The two patients treated with infliximab and the three patients treated with sequential IVIg and infliximab died. All deaths were attributed to ICI-related pneumonitis or infectious complications.
Overall, clinically relevant findings were:
- Steroid-refractory ICI-related pneumonitis was seen in 18.5% of patients referred for multidisciplinary care.
- Steroid-refractory ICI-related pneumonitis occurred at a median of 85 days into a patient’s ICI treatment.
- Some patients improved clinically after IVIg therapy, but mortality was high overall.
- Infliximab therapy, alone or in combination with IVIg, was ineffective.
The Memorial Sloan Kettering experience
Jason Beattie, MD, of Memorial Sloan Kettering Cancer Center, New York, and colleagues performed a retrospective study of patients who had pneumonitis after ICI therapy and/or received immune modulator therapy after corticosteroids in the setting of ICI cancer treatment.
Manual record review was performed to exclude cases of pneumonitis from other causes. The period reviewed was roughly contemporaneous with the Johns Hopkins series.
Patients with ICI-related pneumonitis were divided into “steroid refractory” (i.e., no response to high-dose corticosteroids) or “steroid resistant” (i.e., initial response, followed by worsening) categories.
The researchers identified 26 patients with ICI-related pneumonitis, all of whom had advanced malignancy (8 lung cancer, 4 malignant melanoma, 4 renal cell cancer, and 10 “other” cancers).
A majority of patients (85%) were current or former smokers, 73% had received ICI monotherapy, 35% had received prior chest radiation at a median interval of 4.9 months prior to pneumonitis onset, and 27% had preexisting pulmonary disease.
Twelve patients (46%) had steroid-refractory ICI-related pneumonitis, and 14 (54%) had steroid-resistant ICI-related pneumonitis.
The two groups differed in time to pneumonitis onset (a median of 68 days in the refractory group and 182 days in the resistant group) and time to immune modulator therapy after beginning steroids (median 7 days and 2.9 months, respectively). In the steroid-refractory cases, pneumonitis was more severe.
In addition to corticosteroids, most patients received infliximab monotherapy or infliximab with mycophenolate mofetil. In contrast to the Johns Hopkins series, IVIg was not used in the Memorial Sloan Kettering cases.
Outcomes from immune modulators were graded based on clinical evidence (progress notes, oxygen requirements, level of care, radiologic information, etc.) of resolution of pneumonitis on imaging at least 8 weeks after cessation of steroids and immune modulator therapy, durable improvement for at least 8 weeks after immune modulator therapy, transient improvement followed by pneumonitis relapse or inadequate follow-up because of death or hospice referral, or no improvement.
Ten patients (38%) had durable improvement of ICI-related pneumonitis, of whom three (12%) had complete resolution. Two of the patients with complete resolution had steroid-refractory pneumonitis, both of whom had received infliximab followed by mycophenolate mofetil.
Among the seven patients with durable improvement, four remained alive on immune modulators. Time to resolution of pneumonitis was protracted, ranging from 2.3 months to 8.4 months in the steroid-refractory patients.
Durable response was less common with steroid-refractory (25%) than steroid-resistant (50%) disease, with a significant difference in 90-day survival of 25% and 71%, respectively.
Among the 13 (50%) patients with transient improvement in ICI-related pneumonitis, 8 ultimately died, either because of recurrent ICI-related pneumonitis or infection. All three patients with no improvement from immune modulators died.
The 90-day all-cause mortality was 50%, with durable pneumonitis improvement and freedom from severe infectious complications occurring in only about a third of patients.
Lessons for clinicians
The National Comprehensive Cancer Network, the Society for Immunotherapy of Cancer, and the European Society of Medical Oncology have all published guidelines and recommendations for immunosuppression for steroid-refractory adverse events from ICIs.
Unfortunately, there is little experience with steroid-unresponsive ICI-related pneumonitis. The ideal sequence, dose, and duration of additional immune modulator therapy for ICI-related pneumonitis are unclear and may differ from the approaches to other immune-related toxicities.
This is important because, as suggested in an editorial by Margaret Gatti-Mays, MD, and James L. Gulley, MD, PhD, it is likely that ICI-related pneumonitis will be seen more in routine practice than in clinical trial populations. In addition, across all tumor types, ICI-related pneumonitis is the most common cause of ICI-associated death from toxicity.
The retrospective studies from Johns Hopkins and Memorial Sloan Kettering constitute the largest published experience with ICI-related pneumonitis and yield important clinical insights.
Uniform definitions of potentially important patient subgroups (e.g., steroid refractory vs. steroid resistant) are needed. The steroid-refractory and steroid-resistant subgroups have distinctly different clinical features and outcomes. Uniformity in the subgroup definitions would be a useful starting point from both clinical and research perspectives.
Preferred treatment choices need to be tested systematically in multi-institutional studies. Any potential impact of treatment for ICI-related pneumonitis on antitumor immune control should be identified.
Endpoints of interest need to be defined and measured prospectively. All-cause mortality after 90 days is important, but, as the authors of both reviews noted, there are vitally important narratives and differences in functionality that are completely concealed by restricting the focus to mortality.
Potential causal relationships with antecedent exposure to tobacco, radiation, intrathoracic tumor burden, or other factors need to be defined.
Clinicians need predictive biomarkers for ICI-related pneumonitis (e.g., in peripheral blood, pulmonary function testing, or bronchoscopy specimens). At-risk patients may benefit from early intervention.
The limitations of single-institution record reviews in guiding real-world patient management notwithstanding, these reviews illustrate the value of registries and prospective studies to guide the path forward. Taking these next steps will ensure for our patients that the success of immune-targeted therapy against their cancer never becomes a Pyrrhic victory.
The Johns Hopkins investigators and the editorialists reported having no disclosures. The Memorial Sloan Kettering investigators disclosed relationships with Targeted Oncology, Merck, Array BioPharma, Novartis, and many other companies.
Dr. Lyss was a community-based medical oncologist and clinical researcher for more than 35 years before his recent retirement. His clinical and research interests were focused on breast and lung cancers, as well as expanding clinical trial access to medically underserved populations. He is based in St. Louis. He has no conflicts of interest.
Pneumonitis is an uncommon and potentially life-threatening complication of immune checkpoint inhibitor (ICI) therapy. A fraction of patients with ICI-related pneumonitis fail to respond to initial therapy with high-dose systemic steroids.
The recently published experiences at two major cancer centers shed light on the outcomes from treatment and can provide some advice to clinicians for dealing with affected patients.
The Johns Hopkins experience
Because ICI-related pneumonitis typically improves within 48-72 hours of steroid therapy, at Johns Hopkins University, Baltimore, steroid-refractory pneumonitis is defined as pneumonitis that demonstrates no clinical improvement after high-dose corticosteroids for 2-14 days. If the immune toxicity–specialized, multidisciplinary management team implements additional immunosuppressive therapy, that is regarded as confirmatory evidence.
Aanika Balaji, a medical student at Johns Hopkins University, and colleagues retrospectively summarized the clinical course of 12 patients with ICI-related pneumonitis between 2011 and 2020. Clinical improvement with subsequent treatment was evidenced by reduction in either level of care or oxygen requirements.
Three-quarters of the patients were current or former smokers, and the same proportion had lung cancer. Most patients (91.6%) had received chemotherapy, 58.3% had prior chest radiotherapy, and 58.3% had achieved partial response or stable disease with an ICI.
Steroid-refractory ICI-related pneumonitis developed between 40 and 127 days (median, 85 days) after the first dose of ICI therapy. Subsequent immunosuppressive management included IVIg, infliximab, or the combination, in addition to ICU-level supportive care.
Among the seven patients who received IVIg alone, two patients (29%) achieved clinical improvement and hospital discharge. The remainder died.
The two patients treated with infliximab and the three patients treated with sequential IVIg and infliximab died. All deaths were attributed to ICI-related pneumonitis or infectious complications.
Overall, clinically relevant findings were:
- Steroid-refractory ICI-related pneumonitis was seen in 18.5% of patients referred for multidisciplinary care.
- Steroid-refractory ICI-related pneumonitis occurred at a median of 85 days into a patient’s ICI treatment.
- Some patients improved clinically after IVIg therapy, but mortality was high overall.
- Infliximab therapy, alone or in combination with IVIg, was ineffective.
The Memorial Sloan Kettering experience
Jason Beattie, MD, of Memorial Sloan Kettering Cancer Center, New York, and colleagues performed a retrospective study of patients who had pneumonitis after ICI therapy and/or received immune modulator therapy after corticosteroids in the setting of ICI cancer treatment.
Manual record review was performed to exclude cases of pneumonitis from other causes. The period reviewed was roughly contemporaneous with the Johns Hopkins series.
Patients with ICI-related pneumonitis were divided into “steroid refractory” (i.e., no response to high-dose corticosteroids) or “steroid resistant” (i.e., initial response, followed by worsening) categories.
The researchers identified 26 patients with ICI-related pneumonitis, all of whom had advanced malignancy (8 lung cancer, 4 malignant melanoma, 4 renal cell cancer, and 10 “other” cancers).
A majority of patients (85%) were current or former smokers, 73% had received ICI monotherapy, 35% had received prior chest radiation at a median interval of 4.9 months prior to pneumonitis onset, and 27% had preexisting pulmonary disease.
Twelve patients (46%) had steroid-refractory ICI-related pneumonitis, and 14 (54%) had steroid-resistant ICI-related pneumonitis.
The two groups differed in time to pneumonitis onset (a median of 68 days in the refractory group and 182 days in the resistant group) and time to immune modulator therapy after beginning steroids (median 7 days and 2.9 months, respectively). In the steroid-refractory cases, pneumonitis was more severe.
In addition to corticosteroids, most patients received infliximab monotherapy or infliximab with mycophenolate mofetil. In contrast to the Johns Hopkins series, IVIg was not used in the Memorial Sloan Kettering cases.
Outcomes from immune modulators were graded based on clinical evidence (progress notes, oxygen requirements, level of care, radiologic information, etc.) of resolution of pneumonitis on imaging at least 8 weeks after cessation of steroids and immune modulator therapy, durable improvement for at least 8 weeks after immune modulator therapy, transient improvement followed by pneumonitis relapse or inadequate follow-up because of death or hospice referral, or no improvement.
Ten patients (38%) had durable improvement of ICI-related pneumonitis, of whom three (12%) had complete resolution. Two of the patients with complete resolution had steroid-refractory pneumonitis, both of whom had received infliximab followed by mycophenolate mofetil.
Among the seven patients with durable improvement, four remained alive on immune modulators. Time to resolution of pneumonitis was protracted, ranging from 2.3 months to 8.4 months in the steroid-refractory patients.
Durable response was less common with steroid-refractory (25%) than steroid-resistant (50%) disease, with a significant difference in 90-day survival of 25% and 71%, respectively.
Among the 13 (50%) patients with transient improvement in ICI-related pneumonitis, 8 ultimately died, either because of recurrent ICI-related pneumonitis or infection. All three patients with no improvement from immune modulators died.
The 90-day all-cause mortality was 50%, with durable pneumonitis improvement and freedom from severe infectious complications occurring in only about a third of patients.
Lessons for clinicians
The National Comprehensive Cancer Network, the Society for Immunotherapy of Cancer, and the European Society of Medical Oncology have all published guidelines and recommendations for immunosuppression for steroid-refractory adverse events from ICIs.
Unfortunately, there is little experience with steroid-unresponsive ICI-related pneumonitis. The ideal sequence, dose, and duration of additional immune modulator therapy for ICI-related pneumonitis are unclear and may differ from the approaches to other immune-related toxicities.
This is important because, as suggested in an editorial by Margaret Gatti-Mays, MD, and James L. Gulley, MD, PhD, it is likely that ICI-related pneumonitis will be seen more in routine practice than in clinical trial populations. In addition, across all tumor types, ICI-related pneumonitis is the most common cause of ICI-associated death from toxicity.
The retrospective studies from Johns Hopkins and Memorial Sloan Kettering constitute the largest published experience with ICI-related pneumonitis and yield important clinical insights.
Uniform definitions of potentially important patient subgroups (e.g., steroid refractory vs. steroid resistant) are needed. The steroid-refractory and steroid-resistant subgroups have distinctly different clinical features and outcomes. Uniformity in the subgroup definitions would be a useful starting point from both clinical and research perspectives.
Preferred treatment choices need to be tested systematically in multi-institutional studies. Any potential impact of treatment for ICI-related pneumonitis on antitumor immune control should be identified.
Endpoints of interest need to be defined and measured prospectively. All-cause mortality after 90 days is important, but, as the authors of both reviews noted, there are vitally important narratives and differences in functionality that are completely concealed by restricting the focus to mortality.
Potential causal relationships with antecedent exposure to tobacco, radiation, intrathoracic tumor burden, or other factors need to be defined.
Clinicians need predictive biomarkers for ICI-related pneumonitis (e.g., in peripheral blood, pulmonary function testing, or bronchoscopy specimens). At-risk patients may benefit from early intervention.
The limitations of single-institution record reviews in guiding real-world patient management notwithstanding, these reviews illustrate the value of registries and prospective studies to guide the path forward. Taking these next steps will ensure for our patients that the success of immune-targeted therapy against their cancer never becomes a Pyrrhic victory.
The Johns Hopkins investigators and the editorialists reported having no disclosures. The Memorial Sloan Kettering investigators disclosed relationships with Targeted Oncology, Merck, Array BioPharma, Novartis, and many other companies.
Dr. Lyss was a community-based medical oncologist and clinical researcher for more than 35 years before his recent retirement. His clinical and research interests were focused on breast and lung cancers, as well as expanding clinical trial access to medically underserved populations. He is based in St. Louis. He has no conflicts of interest.
Contradictions abound in ‘The End of Mental Illness’
Daniel G. Amen, MD, is an American psychiatrist well-known for his eponymous clinics, television appearances, and series of books on mental health. One of his latest books, “The End of Mental Illness,” summarizes many of his views on the causes of and treatments for mental illnesses.
Dr. Amen’s approaches – such as his advocacy for the widespread use of single photon emission computed tomography (SPECT) imaging – are somewhat controversial and at times fall outside the mainstream of current psychiatric thought. So does “The End of Mental Illness” contain anything of value to the average practicing psychiatrist? (It should be noted that I listened to this as an audiobook and took notes as I listened. This does limit my ability to directly quote portions of the text, but I believe my notes are reliable.)
He begins the book by pointing out that the term “mental illness” might be better replaced with the term “brain illness.” With this shift in terminology, Dr. Amen introduces a theme that recurs throughout the book: That mental illnesses ultimately stem from various ways in which the brain can be harmed. While the suggested change in terminology might help reduce the stigma associated with psychiatric illnesses, Dr. Amen is surprisingly timid about implementing this term in his own book. He repeatedly refers to “brain health/mental health” issues instead of discarding the “mental” term altogether. Even his BRIGHT MINDS acronym for risk factors for mental illnesses includes the term “mind” instead of “brain.”
Continuing the theme of challenging terminology, Dr. Amen goes on to decry the weaknesses of the DSM system of nosology. This is a valid point, because under the current system, the same patient may receive differing diagnoses depending on which provider is seen and how certain symptoms are interpreted. Yet, here again, Dr. Amen does not seem to adhere to his own advice: He uses DSM terminology throughout the book, speaking of depression, anxiety, bipolar disorder, and ADHD. An oddity (which, admittedly, could have been the audiobook reader’s mistake rather than an error in the original text) is that the DSM is referred to as the “Diagnostic and Structural Manual” rather than the Diagnostic and Statistical Manual. He criticizes the DSM for its imprecision, pointing out the variety of symptom combinations that can produce the same diagnoses and how similar symptoms may overlap between differing diagnoses. Yet, his descriptions of common SPECT patterns (his preferred tool to assist in diagnosis) make it clear that here, too, there is a lot of overlap. As an example, ADHD was associated with at least three of the imaging patterns he described. It is also somewhat ironic how Dr. Amen obliquely criticizes the American Psychiatric Association for profiting from the use of the DSM, when SPECT imaging is expensive and profits his own organization.
Dr. Amen repeatedly asserts that psychiatry is unique among medical specialties for making diagnoses based on symptom clusters rather than direct visualization of the affected organ. Yet, psychiatry is not, in fact, unique in making diagnoses in this way. Some examples of diagnoses based on symptom clusters from other medical specialties are systemic lupus erythematosus, fibromyalgia, and chronic fatigue syndrome. Although he asserts that SPECT imaging better demonstrates the root cause of mental illnesses, it is unclear from his book whether this is actually the case.
The descriptions for the ways in which Dr. Amen uses SPECT (which, admittedly, are vague and presumably simplified for a general audience) suggest that he has made observations correlating specific imaging patterns with certain emotional/behavioral outcomes. However, the imaging patterns he describes in the book can be interpreted to represent multiple different mental conditions, making it clear that SPECT is not a laserlike diagnostic tool that produces a single, indisputable diagnosis. Accuracy with SPECT seems especially questionable in light of two case examples he shares where brain imaging was interpreted as representing illness, but the patients were not demonstrating any signs of mental dysfunction. In one case, Dr. Amen opined that the patient’s vibrant spiritual life “overrode” the sick brain, but if this is true,
Patient testimonials are provided, asserting that SPECT imaging helped them know “exactly” what treatment would help them. One cannot help but wonder whether part of the benefit of SPECT imaging is a placebo effect, boosting the confidence of patients that the treatment they are receiving is personalized and scientifically sound. A similar trend is currently seen more broadly in psychiatry with the widespread promotion of pharmacogenetic testing. Such testing may bolster patient confidence in their medication, but its value in improving patient outcomes has not been established.1
Dr. Amen outlines a brief history of mental health care, including differing approaches and therapies from the time of Sigmund Freud up to the present. His outline is somewhat critical of the perceived shortcomings of his psychiatric forebears, yet this seems entirely unnecessary. All scientific disciplines must start somewhere and build from limited knowledge to greater. Is it necessary to belittle Freud for not being able to do SPECT imaging in the 1800s?
Interestingly, Dr. Amen leaves cognitive-behavioral therapy (CBT), a landmark, evidence-based form of psychotherapy, out of his overview of the history of psychiatry. He does go on to mention CBT as part of the treatment offerings of the Amen Clinics, which could leave the lay reader with the incorrect impression that CBT is a treatment unique to Amen Clinics. Similarly, at one point Dr. Amen writes about “what I call automatic negative thoughts.” This phrasing could confuse readers who might not know that automatic thoughts are a concept endemic to CBT.
Dr. Amen writes repeatedly about the Amen Clinics 4 Circles, four key areas of life that can contribute to mental health. These areas are biological, psychological, social, and spiritual. While Amen Clinics may have come up with the term “4 Circles,” the biopsychosocial model of understanding illness was developed by George Engel, MD, in 1977, and current discussions of this model frequently incorporate a spiritual dimension as well.2
Dr. Amen’s writing at times mischaracterizes psychotropic medications in unhelpful ways. He speaks of psychotropic medications generally as being addictive. While this is certainly true for stimulants and benzodiazepines, most would agree that this does not apply to many other commonly used medications in psychiatry, including selective serotonin reuptake inhibitors (SSRIs), tricyclic antidepressants, antipsychotics, and mood stabilizers. He also paints with a broad brush when he states that anxiety medications can cause dementia. A concerning link has been demonstrated between benzodiazepine use and dementia,3 but SSRIs (which are considered first-line medications for anxiety) are not known to cause dementia and may actually delay progression from mild cognitive impairment to Alzheimer’s dementia.4 His mention of medication use affecting a patient’s insurability could have the unfortunate effect of scaring away suffering individuals from seeking help. The one category of psychiatric medication he does not seem concerned about is psychostimulants, which is odd – given the addictive, cardiovascular, and other risks associated with that medication class.
In contrast to his skepticism regarding many psychotropic medications, Dr. Amen expresses significant enthusiasm regarding nutraceutical use. While there has been research in this area supporting a role for some nutraceutical interventions, there is still a need for more rigorous studies.5 To support his endorsement of natural remedies, Dr. Amen mentions that Hippocrates recommended herbs and spices for many health conditions. But Hippocrates lived more than 2,000 years ago, and the state of medicine has advanced significantly since then.
Dr. Amen also mentions that 80% of the developing world relies upon natural or herbal remedies as the primary source of medicine. While he frames this statement as supporting his endorsement of such remedies, it could conversely be said that this is evidence of the need to make pharmacological interventions more widely available in the developing world.
Much of “The End of Mental Illness” is dedicated to reviewing specific risk factors that could cause harm to a person’s mental well-being. One example is head trauma. Dr. Amen documents at least one instance in which he was convinced that his patient had experienced head trauma, and questioned the patient again and again about possible brain injuries. One must wonder whether the positive results of such focused, repetitive questioning might be evidence of confirmation bias, as a search to confirm the preexisting belief of head trauma could lead to overlooking alternative explanations for a patient’s symptoms.
Another risk factor dwelt upon is exposure to toxins. One toxin Dr. Amen rightly recommends avoiding is tobacco smoke. Yet, his approach to advocate for a tobacco-free lifestyle is somewhat problematic. He lists chemicals contained in tobacco smoke, and then names unpleasant items that share those ingredients, such as paint. This smacks of the same sloppy logic manifested in social media memes decrying the use of vaccines by listing their ingredients alongside scary-sounding products that contain identical ingredients (for example, vaccines contain formaldehyde, which is used to embalm dead bodies!). This is analogous to saying that water is bad for you because it contains hydrogen, which is also an ingredient in atomic bombs.
Dr. Amen makes the blanket recommendation to avoid products containing “chemicals.” This is a difficult recommendation to interpret, since literally all matter is made of chemicals. It seems that Dr. Amen is leaning into the vague idea of a “chemical” as something artificially created in a lab, which must, therefore, be dangerous.
Along these lines, Dr. Amen suggests that if a person doesn’t know what is in a specific food item, it should not be eaten. Although this sounds reasonable on the surface, if people were told the names of the proteins and chemical compounds that make up many naturally occurring plants or meats, they would likely not recognize many of them. Dr. Amen dedicates space to list seemingly benign exposures – such as eating nonorganic produce, using two or more beauty products each day, or touching grocery store receipts – as possible “toxins.” By contrast, there is a certain irony in the absence of any mention of the risks associated with radiation from the SPECT imaging he staunchly advocates for. One potential risk of the book listing so many “toxins” to avoid is that patients could waste valuable time and energy eliminating exposures that pose little or no risk, rather than focusing efforts on well-established treatments.
In light of the observations and critiques offered above, one might come away with the impression that I would not recommend “The End of Mental Illness.” However, although one can nitpick details in the book, some of its bigger ideas make it worth commending to readers. Dr. Amen rightfully emphasizes the need for psychiatrists and patients to think more broadly about mental health issues beyond the use of pills. He justifiably criticizes the “15-minute med check” model of practice and the idea that medications are the end-all, be-all of treatment. He demonstrates an appropriate appreciation for the serious risks of reliance on benzodiazepines.6 Dr. Amen points out important contributions from Viktor Frankl, MD, to the field of psychiatry, which may go overlooked today. He also helpfully points out that bipolar disorder may often be misdiagnosed (although he attributes the misdiagnosis to traumatic brain injury, whereas other psychiatrists might say the misdiagnosis is due to borderline personality disorder).
Much of what Dr. Amen writes is sensible, and psychiatrists would do well to adopt the following steps he advocates for: Taking a comprehensive biopsychosocial-spiritual approach to the assessment and treatment of patients; thinking broadly in their differential diagnoses and not forgetting their medical training; understanding that medication alone is often not sufficient to make lasting, positive change in a person’s life; paying attention to healthy habits such as diet, exercise, sleep, and social activity; and knowing that CBT is a valuable tool that can change lives.
There is much to appreciate in “The End of Mental Illness,” especially the overarching idea that psychiatry isn’t just a symptom checklist and a prescription pad. Rather, achieving mental well-being often requires broader thinking and sustained lifestyle changes.
Although I did not agree with everything in the book, it did cause me to think and reflect on my own practice. I read “The End of Mental Illness” with colleagues in my department, and it stimulated a lively discussion. Isn’t that ultimately what a psychiatrist would want from a book like this – the opportunity to reflect, discuss, and potentially improve one’s own practice?
Dr. Weber is physician lead in the department of psychiatry at Intermountain Healthcare Budge Clinic, Logan (Utah) Psychiatry. He disclosed no relevant financial relationships.
References
1. JAMA Netw Open. 2020;3(12). doi: 10.1001/jamanetworkopen.2020.27909.
2. Curr Opin Psychiatry. 2014;27:358-63.
3. BMJ 2014. doi: 10.1136/bmj.g5205.
4. Am J Psychiatry. 2018 Mar 1;175:232-41.
5. Am J Psychiatry. 2016 Jun 1;173:575-87.
6. Current Psychiatry. 2018 Feb;17(2):22-7.
Daniel G. Amen, MD, is an American psychiatrist well-known for his eponymous clinics, television appearances, and series of books on mental health. One of his latest books, “The End of Mental Illness,” summarizes many of his views on the causes of and treatments for mental illnesses.
Dr. Amen’s approaches – such as his advocacy for the widespread use of single photon emission computed tomography (SPECT) imaging – are somewhat controversial and at times fall outside the mainstream of current psychiatric thought. So does “The End of Mental Illness” contain anything of value to the average practicing psychiatrist? (It should be noted that I listened to this as an audiobook and took notes as I listened. This does limit my ability to directly quote portions of the text, but I believe my notes are reliable.)
He begins the book by pointing out that the term “mental illness” might be better replaced with the term “brain illness.” With this shift in terminology, Dr. Amen introduces a theme that recurs throughout the book: That mental illnesses ultimately stem from various ways in which the brain can be harmed. While the suggested change in terminology might help reduce the stigma associated with psychiatric illnesses, Dr. Amen is surprisingly timid about implementing this term in his own book. He repeatedly refers to “brain health/mental health” issues instead of discarding the “mental” term altogether. Even his BRIGHT MINDS acronym for risk factors for mental illnesses includes the term “mind” instead of “brain.”
Continuing the theme of challenging terminology, Dr. Amen goes on to decry the weaknesses of the DSM system of nosology. This is a valid point, because under the current system, the same patient may receive differing diagnoses depending on which provider is seen and how certain symptoms are interpreted. Yet, here again, Dr. Amen does not seem to adhere to his own advice: He uses DSM terminology throughout the book, speaking of depression, anxiety, bipolar disorder, and ADHD. An oddity (which, admittedly, could have been the audiobook reader’s mistake rather than an error in the original text) is that the DSM is referred to as the “Diagnostic and Structural Manual” rather than the Diagnostic and Statistical Manual. He criticizes the DSM for its imprecision, pointing out the variety of symptom combinations that can produce the same diagnoses and how similar symptoms may overlap between differing diagnoses. Yet, his descriptions of common SPECT patterns (his preferred tool to assist in diagnosis) make it clear that here, too, there is a lot of overlap. As an example, ADHD was associated with at least three of the imaging patterns he described. It is also somewhat ironic how Dr. Amen obliquely criticizes the American Psychiatric Association for profiting from the use of the DSM, when SPECT imaging is expensive and profits his own organization.
Dr. Amen repeatedly asserts that psychiatry is unique among medical specialties for making diagnoses based on symptom clusters rather than direct visualization of the affected organ. Yet, psychiatry is not, in fact, unique in making diagnoses in this way. Some examples of diagnoses based on symptom clusters from other medical specialties are systemic lupus erythematosus, fibromyalgia, and chronic fatigue syndrome. Although he asserts that SPECT imaging better demonstrates the root cause of mental illnesses, it is unclear from his book whether this is actually the case.
The descriptions for the ways in which Dr. Amen uses SPECT (which, admittedly, are vague and presumably simplified for a general audience) suggest that he has made observations correlating specific imaging patterns with certain emotional/behavioral outcomes. However, the imaging patterns he describes in the book can be interpreted to represent multiple different mental conditions, making it clear that SPECT is not a laserlike diagnostic tool that produces a single, indisputable diagnosis. Accuracy with SPECT seems especially questionable in light of two case examples he shares where brain imaging was interpreted as representing illness, but the patients were not demonstrating any signs of mental dysfunction. In one case, Dr. Amen opined that the patient’s vibrant spiritual life “overrode” the sick brain, but if this is true,
Patient testimonials are provided, asserting that SPECT imaging helped them know “exactly” what treatment would help them. One cannot help but wonder whether part of the benefit of SPECT imaging is a placebo effect, boosting the confidence of patients that the treatment they are receiving is personalized and scientifically sound. A similar trend is currently seen more broadly in psychiatry with the widespread promotion of pharmacogenetic testing. Such testing may bolster patient confidence in their medication, but its value in improving patient outcomes has not been established.1
Dr. Amen outlines a brief history of mental health care, including differing approaches and therapies from the time of Sigmund Freud up to the present. His outline is somewhat critical of the perceived shortcomings of his psychiatric forebears, yet this seems entirely unnecessary. All scientific disciplines must start somewhere and build from limited knowledge to greater. Is it necessary to belittle Freud for not being able to do SPECT imaging in the 1800s?
Interestingly, Dr. Amen leaves cognitive-behavioral therapy (CBT), a landmark, evidence-based form of psychotherapy, out of his overview of the history of psychiatry. He does go on to mention CBT as part of the treatment offerings of the Amen Clinics, which could leave the lay reader with the incorrect impression that CBT is a treatment unique to Amen Clinics. Similarly, at one point Dr. Amen writes about “what I call automatic negative thoughts.” This phrasing could confuse readers who might not know that automatic thoughts are a concept endemic to CBT.
Dr. Amen writes repeatedly about the Amen Clinics 4 Circles, four key areas of life that can contribute to mental health. These areas are biological, psychological, social, and spiritual. While Amen Clinics may have come up with the term “4 Circles,” the biopsychosocial model of understanding illness was developed by George Engel, MD, in 1977, and current discussions of this model frequently incorporate a spiritual dimension as well.2
Dr. Amen’s writing at times mischaracterizes psychotropic medications in unhelpful ways. He speaks of psychotropic medications generally as being addictive. While this is certainly true for stimulants and benzodiazepines, most would agree that this does not apply to many other commonly used medications in psychiatry, including selective serotonin reuptake inhibitors (SSRIs), tricyclic antidepressants, antipsychotics, and mood stabilizers. He also paints with a broad brush when he states that anxiety medications can cause dementia. A concerning link has been demonstrated between benzodiazepine use and dementia,3 but SSRIs (which are considered first-line medications for anxiety) are not known to cause dementia and may actually delay progression from mild cognitive impairment to Alzheimer’s dementia.4 His mention of medication use affecting a patient’s insurability could have the unfortunate effect of scaring away suffering individuals from seeking help. The one category of psychiatric medication he does not seem concerned about is psychostimulants, which is odd – given the addictive, cardiovascular, and other risks associated with that medication class.
In contrast to his skepticism regarding many psychotropic medications, Dr. Amen expresses significant enthusiasm regarding nutraceutical use. While there has been research in this area supporting a role for some nutraceutical interventions, there is still a need for more rigorous studies.5 To support his endorsement of natural remedies, Dr. Amen mentions that Hippocrates recommended herbs and spices for many health conditions. But Hippocrates lived more than 2,000 years ago, and the state of medicine has advanced significantly since then.
Dr. Amen also mentions that 80% of the developing world relies upon natural or herbal remedies as the primary source of medicine. While he frames this statement as supporting his endorsement of such remedies, it could conversely be said that this is evidence of the need to make pharmacological interventions more widely available in the developing world.
Much of “The End of Mental Illness” is dedicated to reviewing specific risk factors that could cause harm to a person’s mental well-being. One example is head trauma. Dr. Amen documents at least one instance in which he was convinced that his patient had experienced head trauma, and questioned the patient again and again about possible brain injuries. One must wonder whether the positive results of such focused, repetitive questioning might be evidence of confirmation bias, as a search to confirm the preexisting belief of head trauma could lead to overlooking alternative explanations for a patient’s symptoms.
Another risk factor dwelt upon is exposure to toxins. One toxin Dr. Amen rightly recommends avoiding is tobacco smoke. Yet, his approach to advocate for a tobacco-free lifestyle is somewhat problematic. He lists chemicals contained in tobacco smoke, and then names unpleasant items that share those ingredients, such as paint. This smacks of the same sloppy logic manifested in social media memes decrying the use of vaccines by listing their ingredients alongside scary-sounding products that contain identical ingredients (for example, vaccines contain formaldehyde, which is used to embalm dead bodies!). This is analogous to saying that water is bad for you because it contains hydrogen, which is also an ingredient in atomic bombs.
Dr. Amen makes the blanket recommendation to avoid products containing “chemicals.” This is a difficult recommendation to interpret, since literally all matter is made of chemicals. It seems that Dr. Amen is leaning into the vague idea of a “chemical” as something artificially created in a lab, which must, therefore, be dangerous.
Along these lines, Dr. Amen suggests that if a person doesn’t know what is in a specific food item, it should not be eaten. Although this sounds reasonable on the surface, if people were told the names of the proteins and chemical compounds that make up many naturally occurring plants or meats, they would likely not recognize many of them. Dr. Amen dedicates space to list seemingly benign exposures – such as eating nonorganic produce, using two or more beauty products each day, or touching grocery store receipts – as possible “toxins.” By contrast, there is a certain irony in the absence of any mention of the risks associated with radiation from the SPECT imaging he staunchly advocates for. One potential risk of the book listing so many “toxins” to avoid is that patients could waste valuable time and energy eliminating exposures that pose little or no risk, rather than focusing efforts on well-established treatments.
In light of the observations and critiques offered above, one might come away with the impression that I would not recommend “The End of Mental Illness.” However, although one can nitpick details in the book, some of its bigger ideas make it worth commending to readers. Dr. Amen rightfully emphasizes the need for psychiatrists and patients to think more broadly about mental health issues beyond the use of pills. He justifiably criticizes the “15-minute med check” model of practice and the idea that medications are the end-all, be-all of treatment. He demonstrates an appropriate appreciation for the serious risks of reliance on benzodiazepines.6 Dr. Amen points out important contributions from Viktor Frankl, MD, to the field of psychiatry, which may go overlooked today. He also helpfully points out that bipolar disorder may often be misdiagnosed (although he attributes the misdiagnosis to traumatic brain injury, whereas other psychiatrists might say the misdiagnosis is due to borderline personality disorder).
Much of what Dr. Amen writes is sensible, and psychiatrists would do well to adopt the following steps he advocates for: Taking a comprehensive biopsychosocial-spiritual approach to the assessment and treatment of patients; thinking broadly in their differential diagnoses and not forgetting their medical training; understanding that medication alone is often not sufficient to make lasting, positive change in a person’s life; paying attention to healthy habits such as diet, exercise, sleep, and social activity; and knowing that CBT is a valuable tool that can change lives.
There is much to appreciate in “The End of Mental Illness,” especially the overarching idea that psychiatry isn’t just a symptom checklist and a prescription pad. Rather, achieving mental well-being often requires broader thinking and sustained lifestyle changes.
Although I did not agree with everything in the book, it did cause me to think and reflect on my own practice. I read “The End of Mental Illness” with colleagues in my department, and it stimulated a lively discussion. Isn’t that ultimately what a psychiatrist would want from a book like this – the opportunity to reflect, discuss, and potentially improve one’s own practice?
Dr. Weber is physician lead in the department of psychiatry at Intermountain Healthcare Budge Clinic, Logan (Utah) Psychiatry. He disclosed no relevant financial relationships.
References
1. JAMA Netw Open. 2020;3(12). doi: 10.1001/jamanetworkopen.2020.27909.
2. Curr Opin Psychiatry. 2014;27:358-63.
3. BMJ 2014. doi: 10.1136/bmj.g5205.
4. Am J Psychiatry. 2018 Mar 1;175:232-41.
5. Am J Psychiatry. 2016 Jun 1;173:575-87.
6. Current Psychiatry. 2018 Feb;17(2):22-7.
Daniel G. Amen, MD, is an American psychiatrist well-known for his eponymous clinics, television appearances, and series of books on mental health. One of his latest books, “The End of Mental Illness,” summarizes many of his views on the causes of and treatments for mental illnesses.
Dr. Amen’s approaches – such as his advocacy for the widespread use of single photon emission computed tomography (SPECT) imaging – are somewhat controversial and at times fall outside the mainstream of current psychiatric thought. So does “The End of Mental Illness” contain anything of value to the average practicing psychiatrist? (It should be noted that I listened to this as an audiobook and took notes as I listened. This does limit my ability to directly quote portions of the text, but I believe my notes are reliable.)
He begins the book by pointing out that the term “mental illness” might be better replaced with the term “brain illness.” With this shift in terminology, Dr. Amen introduces a theme that recurs throughout the book: That mental illnesses ultimately stem from various ways in which the brain can be harmed. While the suggested change in terminology might help reduce the stigma associated with psychiatric illnesses, Dr. Amen is surprisingly timid about implementing this term in his own book. He repeatedly refers to “brain health/mental health” issues instead of discarding the “mental” term altogether. Even his BRIGHT MINDS acronym for risk factors for mental illnesses includes the term “mind” instead of “brain.”
Continuing the theme of challenging terminology, Dr. Amen goes on to decry the weaknesses of the DSM system of nosology. This is a valid point, because under the current system, the same patient may receive differing diagnoses depending on which provider is seen and how certain symptoms are interpreted. Yet, here again, Dr. Amen does not seem to adhere to his own advice: He uses DSM terminology throughout the book, speaking of depression, anxiety, bipolar disorder, and ADHD. An oddity (which, admittedly, could have been the audiobook reader’s mistake rather than an error in the original text) is that the DSM is referred to as the “Diagnostic and Structural Manual” rather than the Diagnostic and Statistical Manual. He criticizes the DSM for its imprecision, pointing out the variety of symptom combinations that can produce the same diagnoses and how similar symptoms may overlap between differing diagnoses. Yet, his descriptions of common SPECT patterns (his preferred tool to assist in diagnosis) make it clear that here, too, there is a lot of overlap. As an example, ADHD was associated with at least three of the imaging patterns he described. It is also somewhat ironic how Dr. Amen obliquely criticizes the American Psychiatric Association for profiting from the use of the DSM, when SPECT imaging is expensive and profits his own organization.
Dr. Amen repeatedly asserts that psychiatry is unique among medical specialties for making diagnoses based on symptom clusters rather than direct visualization of the affected organ. Yet, psychiatry is not, in fact, unique in making diagnoses in this way. Some examples of diagnoses based on symptom clusters from other medical specialties are systemic lupus erythematosus, fibromyalgia, and chronic fatigue syndrome. Although he asserts that SPECT imaging better demonstrates the root cause of mental illnesses, it is unclear from his book whether this is actually the case.
The descriptions for the ways in which Dr. Amen uses SPECT (which, admittedly, are vague and presumably simplified for a general audience) suggest that he has made observations correlating specific imaging patterns with certain emotional/behavioral outcomes. However, the imaging patterns he describes in the book can be interpreted to represent multiple different mental conditions, making it clear that SPECT is not a laserlike diagnostic tool that produces a single, indisputable diagnosis. Accuracy with SPECT seems especially questionable in light of two case examples he shares where brain imaging was interpreted as representing illness, but the patients were not demonstrating any signs of mental dysfunction. In one case, Dr. Amen opined that the patient’s vibrant spiritual life “overrode” the sick brain, but if this is true,
Patient testimonials are provided, asserting that SPECT imaging helped them know “exactly” what treatment would help them. One cannot help but wonder whether part of the benefit of SPECT imaging is a placebo effect, boosting the confidence of patients that the treatment they are receiving is personalized and scientifically sound. A similar trend is currently seen more broadly in psychiatry with the widespread promotion of pharmacogenetic testing. Such testing may bolster patient confidence in their medication, but its value in improving patient outcomes has not been established.1
Dr. Amen outlines a brief history of mental health care, including differing approaches and therapies from the time of Sigmund Freud up to the present. His outline is somewhat critical of the perceived shortcomings of his psychiatric forebears, yet this seems entirely unnecessary. All scientific disciplines must start somewhere and build from limited knowledge to greater. Is it necessary to belittle Freud for not being able to do SPECT imaging in the 1800s?
Interestingly, Dr. Amen leaves cognitive-behavioral therapy (CBT), a landmark, evidence-based form of psychotherapy, out of his overview of the history of psychiatry. He does go on to mention CBT as part of the treatment offerings of the Amen Clinics, which could leave the lay reader with the incorrect impression that CBT is a treatment unique to Amen Clinics. Similarly, at one point Dr. Amen writes about “what I call automatic negative thoughts.” This phrasing could confuse readers who might not know that automatic thoughts are a concept endemic to CBT.
Dr. Amen writes repeatedly about the Amen Clinics 4 Circles, four key areas of life that can contribute to mental health. These areas are biological, psychological, social, and spiritual. While Amen Clinics may have come up with the term “4 Circles,” the biopsychosocial model of understanding illness was developed by George Engel, MD, in 1977, and current discussions of this model frequently incorporate a spiritual dimension as well.2
Dr. Amen’s writing at times mischaracterizes psychotropic medications in unhelpful ways. He speaks of psychotropic medications generally as being addictive. While this is certainly true for stimulants and benzodiazepines, most would agree that this does not apply to many other commonly used medications in psychiatry, including selective serotonin reuptake inhibitors (SSRIs), tricyclic antidepressants, antipsychotics, and mood stabilizers. He also paints with a broad brush when he states that anxiety medications can cause dementia. A concerning link has been demonstrated between benzodiazepine use and dementia,3 but SSRIs (which are considered first-line medications for anxiety) are not known to cause dementia and may actually delay progression from mild cognitive impairment to Alzheimer’s dementia.4 His mention of medication use affecting a patient’s insurability could have the unfortunate effect of scaring away suffering individuals from seeking help. The one category of psychiatric medication he does not seem concerned about is psychostimulants, which is odd – given the addictive, cardiovascular, and other risks associated with that medication class.
In contrast to his skepticism regarding many psychotropic medications, Dr. Amen expresses significant enthusiasm regarding nutraceutical use. While there has been research in this area supporting a role for some nutraceutical interventions, there is still a need for more rigorous studies.5 To support his endorsement of natural remedies, Dr. Amen mentions that Hippocrates recommended herbs and spices for many health conditions. But Hippocrates lived more than 2,000 years ago, and the state of medicine has advanced significantly since then.
Dr. Amen also mentions that 80% of the developing world relies upon natural or herbal remedies as the primary source of medicine. While he frames this statement as supporting his endorsement of such remedies, it could conversely be said that this is evidence of the need to make pharmacological interventions more widely available in the developing world.
Much of “The End of Mental Illness” is dedicated to reviewing specific risk factors that could cause harm to a person’s mental well-being. One example is head trauma. Dr. Amen documents at least one instance in which he was convinced that his patient had experienced head trauma, and questioned the patient again and again about possible brain injuries. One must wonder whether the positive results of such focused, repetitive questioning might be evidence of confirmation bias, as a search to confirm the preexisting belief of head trauma could lead to overlooking alternative explanations for a patient’s symptoms.
Another risk factor dwelt upon is exposure to toxins. One toxin Dr. Amen rightly recommends avoiding is tobacco smoke. Yet, his approach to advocate for a tobacco-free lifestyle is somewhat problematic. He lists chemicals contained in tobacco smoke, and then names unpleasant items that share those ingredients, such as paint. This smacks of the same sloppy logic manifested in social media memes decrying the use of vaccines by listing their ingredients alongside scary-sounding products that contain identical ingredients (for example, vaccines contain formaldehyde, which is used to embalm dead bodies!). This is analogous to saying that water is bad for you because it contains hydrogen, which is also an ingredient in atomic bombs.
Dr. Amen makes the blanket recommendation to avoid products containing “chemicals.” This is a difficult recommendation to interpret, since literally all matter is made of chemicals. It seems that Dr. Amen is leaning into the vague idea of a “chemical” as something artificially created in a lab, which must, therefore, be dangerous.
Along these lines, Dr. Amen suggests that if a person doesn’t know what is in a specific food item, it should not be eaten. Although this sounds reasonable on the surface, if people were told the names of the proteins and chemical compounds that make up many naturally occurring plants or meats, they would likely not recognize many of them. Dr. Amen dedicates space to list seemingly benign exposures – such as eating nonorganic produce, using two or more beauty products each day, or touching grocery store receipts – as possible “toxins.” By contrast, there is a certain irony in the absence of any mention of the risks associated with radiation from the SPECT imaging he staunchly advocates for. One potential risk of the book listing so many “toxins” to avoid is that patients could waste valuable time and energy eliminating exposures that pose little or no risk, rather than focusing efforts on well-established treatments.
In light of the observations and critiques offered above, one might come away with the impression that I would not recommend “The End of Mental Illness.” However, although one can nitpick details in the book, some of its bigger ideas make it worth commending to readers. Dr. Amen rightfully emphasizes the need for psychiatrists and patients to think more broadly about mental health issues beyond the use of pills. He justifiably criticizes the “15-minute med check” model of practice and the idea that medications are the end-all, be-all of treatment. He demonstrates an appropriate appreciation for the serious risks of reliance on benzodiazepines.6 Dr. Amen points out important contributions from Viktor Frankl, MD, to the field of psychiatry, which may go overlooked today. He also helpfully points out that bipolar disorder may often be misdiagnosed (although he attributes the misdiagnosis to traumatic brain injury, whereas other psychiatrists might say the misdiagnosis is due to borderline personality disorder).
Much of what Dr. Amen writes is sensible, and psychiatrists would do well to adopt the following steps he advocates for: Taking a comprehensive biopsychosocial-spiritual approach to the assessment and treatment of patients; thinking broadly in their differential diagnoses and not forgetting their medical training; understanding that medication alone is often not sufficient to make lasting, positive change in a person’s life; paying attention to healthy habits such as diet, exercise, sleep, and social activity; and knowing that CBT is a valuable tool that can change lives.
There is much to appreciate in “The End of Mental Illness,” especially the overarching idea that psychiatry isn’t just a symptom checklist and a prescription pad. Rather, achieving mental well-being often requires broader thinking and sustained lifestyle changes.
Although I did not agree with everything in the book, it did cause me to think and reflect on my own practice. I read “The End of Mental Illness” with colleagues in my department, and it stimulated a lively discussion. Isn’t that ultimately what a psychiatrist would want from a book like this – the opportunity to reflect, discuss, and potentially improve one’s own practice?
Dr. Weber is physician lead in the department of psychiatry at Intermountain Healthcare Budge Clinic, Logan (Utah) Psychiatry. He disclosed no relevant financial relationships.
References
1. JAMA Netw Open. 2020;3(12). doi: 10.1001/jamanetworkopen.2020.27909.
2. Curr Opin Psychiatry. 2014;27:358-63.
3. BMJ 2014. doi: 10.1136/bmj.g5205.
4. Am J Psychiatry. 2018 Mar 1;175:232-41.
5. Am J Psychiatry. 2016 Jun 1;173:575-87.
6. Current Psychiatry. 2018 Feb;17(2):22-7.
The Plague Year Revisited
In April 2020, I pledged to focus my editorials on the pandemic. In subsequent editorials I renewed that intention. And it is a promise I have kept during the long plague year for all my editorials. When I announced my plan to write solely on COVID-19, my astute editor asked me, “How are you going to know when to stop?” I reminded myself of his question as I sat down to write each month and never arrived at a satisfactory answer. Nor do I have an answer now for why I am asking readers to release me from my vow—except for the somewhat trivial reason that a year seems enough. Is there more to say about the pandemic? Yes, there is so much more that needs to be discovered and unraveled, contemplated and analyzed; no doubt oceans of print and electronic pages will wash over us in the coming decade from thousands of scientists and journalists commenting on the topic of this public health crisis.2
Nevertheless, I have run the gauntlet of salient subjects within my wheelhouse: The plague year of editorials opened with a primer on public health ethics; the May column studied the duty to care for health care professionals in the midst of the first surge of virus; June examined the controversy around remdesivir and hydroxcholoroquine as medicine frantically sought some way to treat the sick; in July, I took a lighter look at the “Dog Days” of COVID-19 staring my Labrador Retriever mix, Reed, snoozing on his couch on the patio; August celebrated the amazing outreach of the US Department of Defense, US Public Health Service, and US Department of Veterans Affairs (VA) in service to the community; September discussed the adverse effects of the prolonged pandemic on the human psyche and some positive ways of handling the stress; October lamented the exponential rise in substance misuse as human beings struggled to manage the emotional toll of the pandemic; in December, COVID-19 was the sole subject of my annual Best and Worst ethics column; the new year saw the emergency use authorizations of the first and second vaccines and the editorial laid out the critical challenges for vaccination; in February my esteemed colleague Anita Tarzian joined me in an article explaining the ethical approach to vaccine allocation developed by the VA.3-12
A reader might aptly ask whether I am laying down the COVID-19 gauntlet because I believe the pandemic is over and done with us. The news is full of pundits opining when things will return to normal (if that ever existed or will again) and soothsayers divining the signs of the plague’s end.13 What I think is that we are more than done with the pandemic and unfortunately that may be the central cause of its perpetuation; which brings me to Daniel Defoe’s A Journal of the Plague Year.1
Defoe is better known to most of us if at all from modern films of his best-seller Robinson Crusoe. Yet A Journal of the Plague Year and other books about epidemics have become popular reading as we seek clues to the mystery of how to affirm life amid a death-dealing infectious disease.14 There is even an emerging lockdown literature genre. (Before anyone asks, I am in no way so pretentious as to suggest my columns should be included in that scholarly body of work).
Defoe’s book chronicles the last episode of the bubonic plague that afflicted London in 1665 and claimed 100,000 lives. Defoe was only 5 years old when the epidemic devastated one of the greatest cities in Europe. In 1772 he published what one recent reviewer called “a fascinating record of trying to cope with the capital’s last plague.”15 Defoe presciently documented the central reason I think the pandemic may not end anytime soon despite the increasing success of vaccination, at least in the United States. “But the Case was this...that the infection was propagated insensibly, and by such Persons, as were not visibly infected, who neither knew who they infected, or who they were infected by.”1
Ignorance and apathy are not confined to the streets of 17th century England: We see state after state lift restrictions prematurely, guaranteeing the scientists prediction that the wave now hitting Europe could again breach our shores. Defoe wrote long before germ theory and the ascendancy of public health, yet he knew that the inability or unwillingness to stick close to home kept the plague circulating. “And here I must observe again, that this Necessity of going out of our Houses to buy Provisions, was in a Great Measure the Ruin of the whole City, for the people catch’d the Distemper, on those Occasions, one of another...”1 While provisions may equate to food for many, for others necessities include going to bars, dining inside restaurants, and working out at gyms—all are natural laboratories for the spread and mutation of COVID-19 into variants against which physicians warn that the vaccine may not offer protection.
Defoe’s insights were at least in part due to his distance from the horror of the plague, which enabled him to study it with both empathy and objectivity, critical thinking, and creative observation. Similarly, it is time to take a brief breathing space from the pandemic as the central preoccupation of our existence: not just for me but for all of us to the extent possible given that unlike Defoe’s epoch it is still very much our reality. Even a few moments imagining a world without COVID-19 or more accurately one where it is under some reasonable control can help us reconceive how we want to live in it.
Can we use that luminal period to reenvision society along the lines Defoe idealistically drew even while we contribute to the collective search for the Holy Grail of herd immunity? During this second plague year, in coming editorials and in my own small circle of concern I will try to take a different less frustrated, embittered view of our lives scarred as they may be. It is only such a reorientation of perspectives in the shadow of so much death and suffering that can give us the energy and empathy to wear masks, go only where we must, follow public health measures and direction, and persuade the hesitant to be vaccinated so this truly is the last plague year at least for a long, quiet while.
1. Defoe D. A Journal of the Plague Year . Revised edition. Oxford World Classics; 2010.
2. Balch BT. One year into COVID, scientists are still learning about how the virus spreads, why disease symptoms and severity vary, and more. Published March 11, 2021. Accessed March 22, 2021. https://www.aamc.org/news-insights/one-year-covid-scientists-are-still-learning-about-how-virus-spreads-why-disease-symptoms-and
3. Geppert CMA. The return of the plague: a primer on pandemic ethics. Fed Pract. 2020;37(4):158-159.
4. Geppert CMA. The duty to care and its exceptions in a pandemic. Fed Pract. 2020;37(5):210-211.
5. Geppert CMA. A tale of 2 medications: a desperate race for hope. Fed Pract. 2020;37(6):256-257.
6. Geppert CMA. The dog days of COVID-19. Fed Pract. 2020;37(7):300-301.
7. Geppert CMA. All hands on deck: the federal health care response to the COVID-19 national emergency. Fed Pract. 2020;37(8):346-347. doi:10.12788/fp.0036
8. Geppert CMA. The brain in COVID-19: no one is okay. Fed Pract. 2020;37(9):396-397. doi:10.12788/fp.0046
9. Geppert CMA. The other pandemic: addiction. Fed Pract. 2020;37(10):440-441. doi:10.12788/fp.0059
10. Geppert CMA. Recalled to life: the best and worst of 2020 is the year 2020. Fed Pract . 2020;37(12):550-551. doi:10.12788/fp.0077
11. Geppert CMA. Trust in a vial. Fed Pract. 2021;38(1):4-5. doi:10.12788/fp.0084
12. Tarzian AJ, Geppert CMA. The Veterans Health Administration approach to COVID-19 vaccine allocation-balancing utility and equity. Fed Pract. 2021;38(2):52-54. doi:10.12788/fp.0093
13. Madrigal AG. A simple rule of thumb for knowing when the pandemic is over. Published February 23, 2021. Accessed March 22, 2021. https://www.theatlantic.com/health/archive/2021/02/how-know-when-pandemic-over/618122
14. Ford-Smith A. A Journal of the Plague Year book review. Med History. 2012;56(1):98-99. doi:10.1017/S0025727300000338
15. Jordison S. A Journal of the Plague Year by Daniel Defoe is our reading group book for May. The Guardian . Published April 28, 2020. Accessed March 22, 2021. https://www.theguardian.com/books/booksblog/2020/apr/28/a-journal-of-the-plague-year-by-daniel-defoe-is-our-reading-group-book-for-may
In April 2020, I pledged to focus my editorials on the pandemic. In subsequent editorials I renewed that intention. And it is a promise I have kept during the long plague year for all my editorials. When I announced my plan to write solely on COVID-19, my astute editor asked me, “How are you going to know when to stop?” I reminded myself of his question as I sat down to write each month and never arrived at a satisfactory answer. Nor do I have an answer now for why I am asking readers to release me from my vow—except for the somewhat trivial reason that a year seems enough. Is there more to say about the pandemic? Yes, there is so much more that needs to be discovered and unraveled, contemplated and analyzed; no doubt oceans of print and electronic pages will wash over us in the coming decade from thousands of scientists and journalists commenting on the topic of this public health crisis.2
Nevertheless, I have run the gauntlet of salient subjects within my wheelhouse: The plague year of editorials opened with a primer on public health ethics; the May column studied the duty to care for health care professionals in the midst of the first surge of virus; June examined the controversy around remdesivir and hydroxcholoroquine as medicine frantically sought some way to treat the sick; in July, I took a lighter look at the “Dog Days” of COVID-19 staring my Labrador Retriever mix, Reed, snoozing on his couch on the patio; August celebrated the amazing outreach of the US Department of Defense, US Public Health Service, and US Department of Veterans Affairs (VA) in service to the community; September discussed the adverse effects of the prolonged pandemic on the human psyche and some positive ways of handling the stress; October lamented the exponential rise in substance misuse as human beings struggled to manage the emotional toll of the pandemic; in December, COVID-19 was the sole subject of my annual Best and Worst ethics column; the new year saw the emergency use authorizations of the first and second vaccines and the editorial laid out the critical challenges for vaccination; in February my esteemed colleague Anita Tarzian joined me in an article explaining the ethical approach to vaccine allocation developed by the VA.3-12
A reader might aptly ask whether I am laying down the COVID-19 gauntlet because I believe the pandemic is over and done with us. The news is full of pundits opining when things will return to normal (if that ever existed or will again) and soothsayers divining the signs of the plague’s end.13 What I think is that we are more than done with the pandemic and unfortunately that may be the central cause of its perpetuation; which brings me to Daniel Defoe’s A Journal of the Plague Year.1
Defoe is better known to most of us if at all from modern films of his best-seller Robinson Crusoe. Yet A Journal of the Plague Year and other books about epidemics have become popular reading as we seek clues to the mystery of how to affirm life amid a death-dealing infectious disease.14 There is even an emerging lockdown literature genre. (Before anyone asks, I am in no way so pretentious as to suggest my columns should be included in that scholarly body of work).
Defoe’s book chronicles the last episode of the bubonic plague that afflicted London in 1665 and claimed 100,000 lives. Defoe was only 5 years old when the epidemic devastated one of the greatest cities in Europe. In 1772 he published what one recent reviewer called “a fascinating record of trying to cope with the capital’s last plague.”15 Defoe presciently documented the central reason I think the pandemic may not end anytime soon despite the increasing success of vaccination, at least in the United States. “But the Case was this...that the infection was propagated insensibly, and by such Persons, as were not visibly infected, who neither knew who they infected, or who they were infected by.”1
Ignorance and apathy are not confined to the streets of 17th century England: We see state after state lift restrictions prematurely, guaranteeing the scientists prediction that the wave now hitting Europe could again breach our shores. Defoe wrote long before germ theory and the ascendancy of public health, yet he knew that the inability or unwillingness to stick close to home kept the plague circulating. “And here I must observe again, that this Necessity of going out of our Houses to buy Provisions, was in a Great Measure the Ruin of the whole City, for the people catch’d the Distemper, on those Occasions, one of another...”1 While provisions may equate to food for many, for others necessities include going to bars, dining inside restaurants, and working out at gyms—all are natural laboratories for the spread and mutation of COVID-19 into variants against which physicians warn that the vaccine may not offer protection.
Defoe’s insights were at least in part due to his distance from the horror of the plague, which enabled him to study it with both empathy and objectivity, critical thinking, and creative observation. Similarly, it is time to take a brief breathing space from the pandemic as the central preoccupation of our existence: not just for me but for all of us to the extent possible given that unlike Defoe’s epoch it is still very much our reality. Even a few moments imagining a world without COVID-19 or more accurately one where it is under some reasonable control can help us reconceive how we want to live in it.
Can we use that luminal period to reenvision society along the lines Defoe idealistically drew even while we contribute to the collective search for the Holy Grail of herd immunity? During this second plague year, in coming editorials and in my own small circle of concern I will try to take a different less frustrated, embittered view of our lives scarred as they may be. It is only such a reorientation of perspectives in the shadow of so much death and suffering that can give us the energy and empathy to wear masks, go only where we must, follow public health measures and direction, and persuade the hesitant to be vaccinated so this truly is the last plague year at least for a long, quiet while.
In April 2020, I pledged to focus my editorials on the pandemic. In subsequent editorials I renewed that intention. And it is a promise I have kept during the long plague year for all my editorials. When I announced my plan to write solely on COVID-19, my astute editor asked me, “How are you going to know when to stop?” I reminded myself of his question as I sat down to write each month and never arrived at a satisfactory answer. Nor do I have an answer now for why I am asking readers to release me from my vow—except for the somewhat trivial reason that a year seems enough. Is there more to say about the pandemic? Yes, there is so much more that needs to be discovered and unraveled, contemplated and analyzed; no doubt oceans of print and electronic pages will wash over us in the coming decade from thousands of scientists and journalists commenting on the topic of this public health crisis.2
Nevertheless, I have run the gauntlet of salient subjects within my wheelhouse: The plague year of editorials opened with a primer on public health ethics; the May column studied the duty to care for health care professionals in the midst of the first surge of virus; June examined the controversy around remdesivir and hydroxcholoroquine as medicine frantically sought some way to treat the sick; in July, I took a lighter look at the “Dog Days” of COVID-19 staring my Labrador Retriever mix, Reed, snoozing on his couch on the patio; August celebrated the amazing outreach of the US Department of Defense, US Public Health Service, and US Department of Veterans Affairs (VA) in service to the community; September discussed the adverse effects of the prolonged pandemic on the human psyche and some positive ways of handling the stress; October lamented the exponential rise in substance misuse as human beings struggled to manage the emotional toll of the pandemic; in December, COVID-19 was the sole subject of my annual Best and Worst ethics column; the new year saw the emergency use authorizations of the first and second vaccines and the editorial laid out the critical challenges for vaccination; in February my esteemed colleague Anita Tarzian joined me in an article explaining the ethical approach to vaccine allocation developed by the VA.3-12
A reader might aptly ask whether I am laying down the COVID-19 gauntlet because I believe the pandemic is over and done with us. The news is full of pundits opining when things will return to normal (if that ever existed or will again) and soothsayers divining the signs of the plague’s end.13 What I think is that we are more than done with the pandemic and unfortunately that may be the central cause of its perpetuation; which brings me to Daniel Defoe’s A Journal of the Plague Year.1
Defoe is better known to most of us if at all from modern films of his best-seller Robinson Crusoe. Yet A Journal of the Plague Year and other books about epidemics have become popular reading as we seek clues to the mystery of how to affirm life amid a death-dealing infectious disease.14 There is even an emerging lockdown literature genre. (Before anyone asks, I am in no way so pretentious as to suggest my columns should be included in that scholarly body of work).
Defoe’s book chronicles the last episode of the bubonic plague that afflicted London in 1665 and claimed 100,000 lives. Defoe was only 5 years old when the epidemic devastated one of the greatest cities in Europe. In 1772 he published what one recent reviewer called “a fascinating record of trying to cope with the capital’s last plague.”15 Defoe presciently documented the central reason I think the pandemic may not end anytime soon despite the increasing success of vaccination, at least in the United States. “But the Case was this...that the infection was propagated insensibly, and by such Persons, as were not visibly infected, who neither knew who they infected, or who they were infected by.”1
Ignorance and apathy are not confined to the streets of 17th century England: We see state after state lift restrictions prematurely, guaranteeing the scientists prediction that the wave now hitting Europe could again breach our shores. Defoe wrote long before germ theory and the ascendancy of public health, yet he knew that the inability or unwillingness to stick close to home kept the plague circulating. “And here I must observe again, that this Necessity of going out of our Houses to buy Provisions, was in a Great Measure the Ruin of the whole City, for the people catch’d the Distemper, on those Occasions, one of another...”1 While provisions may equate to food for many, for others necessities include going to bars, dining inside restaurants, and working out at gyms—all are natural laboratories for the spread and mutation of COVID-19 into variants against which physicians warn that the vaccine may not offer protection.
Defoe’s insights were at least in part due to his distance from the horror of the plague, which enabled him to study it with both empathy and objectivity, critical thinking, and creative observation. Similarly, it is time to take a brief breathing space from the pandemic as the central preoccupation of our existence: not just for me but for all of us to the extent possible given that unlike Defoe’s epoch it is still very much our reality. Even a few moments imagining a world without COVID-19 or more accurately one where it is under some reasonable control can help us reconceive how we want to live in it.
Can we use that luminal period to reenvision society along the lines Defoe idealistically drew even while we contribute to the collective search for the Holy Grail of herd immunity? During this second plague year, in coming editorials and in my own small circle of concern I will try to take a different less frustrated, embittered view of our lives scarred as they may be. It is only such a reorientation of perspectives in the shadow of so much death and suffering that can give us the energy and empathy to wear masks, go only where we must, follow public health measures and direction, and persuade the hesitant to be vaccinated so this truly is the last plague year at least for a long, quiet while.
1. Defoe D. A Journal of the Plague Year . Revised edition. Oxford World Classics; 2010.
2. Balch BT. One year into COVID, scientists are still learning about how the virus spreads, why disease symptoms and severity vary, and more. Published March 11, 2021. Accessed March 22, 2021. https://www.aamc.org/news-insights/one-year-covid-scientists-are-still-learning-about-how-virus-spreads-why-disease-symptoms-and
3. Geppert CMA. The return of the plague: a primer on pandemic ethics. Fed Pract. 2020;37(4):158-159.
4. Geppert CMA. The duty to care and its exceptions in a pandemic. Fed Pract. 2020;37(5):210-211.
5. Geppert CMA. A tale of 2 medications: a desperate race for hope. Fed Pract. 2020;37(6):256-257.
6. Geppert CMA. The dog days of COVID-19. Fed Pract. 2020;37(7):300-301.
7. Geppert CMA. All hands on deck: the federal health care response to the COVID-19 national emergency. Fed Pract. 2020;37(8):346-347. doi:10.12788/fp.0036
8. Geppert CMA. The brain in COVID-19: no one is okay. Fed Pract. 2020;37(9):396-397. doi:10.12788/fp.0046
9. Geppert CMA. The other pandemic: addiction. Fed Pract. 2020;37(10):440-441. doi:10.12788/fp.0059
10. Geppert CMA. Recalled to life: the best and worst of 2020 is the year 2020. Fed Pract . 2020;37(12):550-551. doi:10.12788/fp.0077
11. Geppert CMA. Trust in a vial. Fed Pract. 2021;38(1):4-5. doi:10.12788/fp.0084
12. Tarzian AJ, Geppert CMA. The Veterans Health Administration approach to COVID-19 vaccine allocation-balancing utility and equity. Fed Pract. 2021;38(2):52-54. doi:10.12788/fp.0093
13. Madrigal AG. A simple rule of thumb for knowing when the pandemic is over. Published February 23, 2021. Accessed March 22, 2021. https://www.theatlantic.com/health/archive/2021/02/how-know-when-pandemic-over/618122
14. Ford-Smith A. A Journal of the Plague Year book review. Med History. 2012;56(1):98-99. doi:10.1017/S0025727300000338
15. Jordison S. A Journal of the Plague Year by Daniel Defoe is our reading group book for May. The Guardian . Published April 28, 2020. Accessed March 22, 2021. https://www.theguardian.com/books/booksblog/2020/apr/28/a-journal-of-the-plague-year-by-daniel-defoe-is-our-reading-group-book-for-may
1. Defoe D. A Journal of the Plague Year . Revised edition. Oxford World Classics; 2010.
2. Balch BT. One year into COVID, scientists are still learning about how the virus spreads, why disease symptoms and severity vary, and more. Published March 11, 2021. Accessed March 22, 2021. https://www.aamc.org/news-insights/one-year-covid-scientists-are-still-learning-about-how-virus-spreads-why-disease-symptoms-and
3. Geppert CMA. The return of the plague: a primer on pandemic ethics. Fed Pract. 2020;37(4):158-159.
4. Geppert CMA. The duty to care and its exceptions in a pandemic. Fed Pract. 2020;37(5):210-211.
5. Geppert CMA. A tale of 2 medications: a desperate race for hope. Fed Pract. 2020;37(6):256-257.
6. Geppert CMA. The dog days of COVID-19. Fed Pract. 2020;37(7):300-301.
7. Geppert CMA. All hands on deck: the federal health care response to the COVID-19 national emergency. Fed Pract. 2020;37(8):346-347. doi:10.12788/fp.0036
8. Geppert CMA. The brain in COVID-19: no one is okay. Fed Pract. 2020;37(9):396-397. doi:10.12788/fp.0046
9. Geppert CMA. The other pandemic: addiction. Fed Pract. 2020;37(10):440-441. doi:10.12788/fp.0059
10. Geppert CMA. Recalled to life: the best and worst of 2020 is the year 2020. Fed Pract . 2020;37(12):550-551. doi:10.12788/fp.0077
11. Geppert CMA. Trust in a vial. Fed Pract. 2021;38(1):4-5. doi:10.12788/fp.0084
12. Tarzian AJ, Geppert CMA. The Veterans Health Administration approach to COVID-19 vaccine allocation-balancing utility and equity. Fed Pract. 2021;38(2):52-54. doi:10.12788/fp.0093
13. Madrigal AG. A simple rule of thumb for knowing when the pandemic is over. Published February 23, 2021. Accessed March 22, 2021. https://www.theatlantic.com/health/archive/2021/02/how-know-when-pandemic-over/618122
14. Ford-Smith A. A Journal of the Plague Year book review. Med History. 2012;56(1):98-99. doi:10.1017/S0025727300000338
15. Jordison S. A Journal of the Plague Year by Daniel Defoe is our reading group book for May. The Guardian . Published April 28, 2020. Accessed March 22, 2021. https://www.theguardian.com/books/booksblog/2020/apr/28/a-journal-of-the-plague-year-by-daniel-defoe-is-our-reading-group-book-for-may
Moderate-to-vigorous physical activity is the answer to childhood obesity
There is no question that none of us, not just pediatricians, is doing a very good job of dealing with the obesity problem this nation faces. We can agree that a more active lifestyle that includes spells of vigorous activity is important for weight management. We know that in general overweight people sleep less than do those whose basal metabolic rate is normal. And, of course, we know that a diet high in calorie-dense foods is associated with unhealthy weight gain.
Not surprisingly, overweight individuals are usually struggling with all three of these challenges. They are less active, get too little sleep, and are ingesting a diet that is too calorie dense. In other words, they would benefit from a total lifestyle reboot. But you know as well as I do a change of that magnitude is much easier said than done. Few families can afford nor would they have the appetite for sending their children to a “fat camp” for 6 months with no guarantee of success.
Instead of throwing up our hands in the face of this monumental task or attacking it at close range, maybe we should aim our efforts at the risk associations that will yield the best results for our efforts. A group of researchers at the University of South Australia has just published a study in Pediatrics in which they provide some data that may help us target our interventions with obese and overweight children. The researchers did not investigate diet, but used accelerometers to determine how much time each child spent sleeping and a variety of activity levels. They then determined what effect changes in the child’s allocation of activity had on their adiposity.
The investigators found on a minute-to-minute basis that an increase in a child’s moderate-to-vigorous physical activity (MVPA) was up to six times more effective at influencing adiposity than was a decrease in sedentary time or an increase in sleep duration. For example, 17 minutes of MVPA had the same beneficial effect as 52 minutes more sleep or 56 minutes less sedentary time. Interestingly and somewhat surprisingly, the researchers found that light activity was positively associated with adiposity.
For those of us in primary care, this study from Australia suggests that our time (and the parents’ time) would be best spent figuring out how to include more MVPA in the child’s day and not focus so much on sleep duration and sedentary intervals.
However, before one can make any recommendation one must first have a clear understanding of how the child and his family spend the day. This process can be done in the office by interviewing the family. I have found that this is not as time consuming as one might think and often yields some valuable additional insight into the family’s dynamics. Sending the family home with an hourly log to be filled in or asking them to use a smartphone to record information will also work.
I must admit that at first I found the results of this study ran counter to my intuition. I have always felt that sleep is the linchpin to the solution of a variety of health style related problems. In my construct, more sleep has always been the first and easy answer and decreasing screen time the second. But, it turns out that increasing MVPA may give us the biggest bang for the buck. Which is fine with me.
The problem facing us is how we can be creative in adding that 20 minutes of vigorous activity. In most communities, we have allowed the school system to drop the ball. We can hope that this study will be confirmed or at least widely publicized. It feels like it is time to guarantee that every child gets a robust gym class every school day.
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 pdnews@mdedge.com.
There is no question that none of us, not just pediatricians, is doing a very good job of dealing with the obesity problem this nation faces. We can agree that a more active lifestyle that includes spells of vigorous activity is important for weight management. We know that in general overweight people sleep less than do those whose basal metabolic rate is normal. And, of course, we know that a diet high in calorie-dense foods is associated with unhealthy weight gain.
Not surprisingly, overweight individuals are usually struggling with all three of these challenges. They are less active, get too little sleep, and are ingesting a diet that is too calorie dense. In other words, they would benefit from a total lifestyle reboot. But you know as well as I do a change of that magnitude is much easier said than done. Few families can afford nor would they have the appetite for sending their children to a “fat camp” for 6 months with no guarantee of success.
Instead of throwing up our hands in the face of this monumental task or attacking it at close range, maybe we should aim our efforts at the risk associations that will yield the best results for our efforts. A group of researchers at the University of South Australia has just published a study in Pediatrics in which they provide some data that may help us target our interventions with obese and overweight children. The researchers did not investigate diet, but used accelerometers to determine how much time each child spent sleeping and a variety of activity levels. They then determined what effect changes in the child’s allocation of activity had on their adiposity.
The investigators found on a minute-to-minute basis that an increase in a child’s moderate-to-vigorous physical activity (MVPA) was up to six times more effective at influencing adiposity than was a decrease in sedentary time or an increase in sleep duration. For example, 17 minutes of MVPA had the same beneficial effect as 52 minutes more sleep or 56 minutes less sedentary time. Interestingly and somewhat surprisingly, the researchers found that light activity was positively associated with adiposity.
For those of us in primary care, this study from Australia suggests that our time (and the parents’ time) would be best spent figuring out how to include more MVPA in the child’s day and not focus so much on sleep duration and sedentary intervals.
However, before one can make any recommendation one must first have a clear understanding of how the child and his family spend the day. This process can be done in the office by interviewing the family. I have found that this is not as time consuming as one might think and often yields some valuable additional insight into the family’s dynamics. Sending the family home with an hourly log to be filled in or asking them to use a smartphone to record information will also work.
I must admit that at first I found the results of this study ran counter to my intuition. I have always felt that sleep is the linchpin to the solution of a variety of health style related problems. In my construct, more sleep has always been the first and easy answer and decreasing screen time the second. But, it turns out that increasing MVPA may give us the biggest bang for the buck. Which is fine with me.
The problem facing us is how we can be creative in adding that 20 minutes of vigorous activity. In most communities, we have allowed the school system to drop the ball. We can hope that this study will be confirmed or at least widely publicized. It feels like it is time to guarantee that every child gets a robust gym class every school day.
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 pdnews@mdedge.com.
There is no question that none of us, not just pediatricians, is doing a very good job of dealing with the obesity problem this nation faces. We can agree that a more active lifestyle that includes spells of vigorous activity is important for weight management. We know that in general overweight people sleep less than do those whose basal metabolic rate is normal. And, of course, we know that a diet high in calorie-dense foods is associated with unhealthy weight gain.
Not surprisingly, overweight individuals are usually struggling with all three of these challenges. They are less active, get too little sleep, and are ingesting a diet that is too calorie dense. In other words, they would benefit from a total lifestyle reboot. But you know as well as I do a change of that magnitude is much easier said than done. Few families can afford nor would they have the appetite for sending their children to a “fat camp” for 6 months with no guarantee of success.
Instead of throwing up our hands in the face of this monumental task or attacking it at close range, maybe we should aim our efforts at the risk associations that will yield the best results for our efforts. A group of researchers at the University of South Australia has just published a study in Pediatrics in which they provide some data that may help us target our interventions with obese and overweight children. The researchers did not investigate diet, but used accelerometers to determine how much time each child spent sleeping and a variety of activity levels. They then determined what effect changes in the child’s allocation of activity had on their adiposity.
The investigators found on a minute-to-minute basis that an increase in a child’s moderate-to-vigorous physical activity (MVPA) was up to six times more effective at influencing adiposity than was a decrease in sedentary time or an increase in sleep duration. For example, 17 minutes of MVPA had the same beneficial effect as 52 minutes more sleep or 56 minutes less sedentary time. Interestingly and somewhat surprisingly, the researchers found that light activity was positively associated with adiposity.
For those of us in primary care, this study from Australia suggests that our time (and the parents’ time) would be best spent figuring out how to include more MVPA in the child’s day and not focus so much on sleep duration and sedentary intervals.
However, before one can make any recommendation one must first have a clear understanding of how the child and his family spend the day. This process can be done in the office by interviewing the family. I have found that this is not as time consuming as one might think and often yields some valuable additional insight into the family’s dynamics. Sending the family home with an hourly log to be filled in or asking them to use a smartphone to record information will also work.
I must admit that at first I found the results of this study ran counter to my intuition. I have always felt that sleep is the linchpin to the solution of a variety of health style related problems. In my construct, more sleep has always been the first and easy answer and decreasing screen time the second. But, it turns out that increasing MVPA may give us the biggest bang for the buck. Which is fine with me.
The problem facing us is how we can be creative in adding that 20 minutes of vigorous activity. In most communities, we have allowed the school system to drop the ball. We can hope that this study will be confirmed or at least widely publicized. It feels like it is time to guarantee that every child gets a robust gym class every school day.
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 pdnews@mdedge.com.
COVID-19 Vaccine in Veterans with Multiple Sclerosis: Protect the Vulnerable
Older veterans with progressive MS and associated comorbidities are at higher risk of death should they be infected by COVID-19 and we urge health care providers to educate every veteran about the benefits of being vaccinated against COVID-19.
This article has been updated to reflect new US Food and Drug Administration and Centers for Disease Control and Prevention recommendations to pause administration of the Johnson and Johnson Jansen (JNJ-78436735) COVID-19 vaccine.1
Since the outbreak of the pandemic caused by the severe acute respiratory syndrome coronavirus-2 (SARS-CoV-2),a plethora of studies have been performed to increase our knowledge of its associated illness COVID-19.2 There is no cure for COVID-19, which can be lethal. In the absence of a cure, preventive measures are of vital importance. In order to help prevent the spread of the virus, the Centers for Diseases Control and Prevention (CDC) advocates for: (1) the use of a face mask over the mouth and nose; (2) a minimum of 6-foot distance between individuals; and (3) avoidance of gatherings.As of March 2021, the US Food and Drug Administration (FDA) approved 3 vaccines for the prevention of COVID-19, under an emergency use authorization (EUA).3-5
COVID-19 and Multiple Sclerosis
Since the beginning of the pandemic, neurologists have faced a new challenge—determining whether persons with multiple sclerosis (pwMS) were more at risk than others of becoming ill from COVID-19 or were destined for a worse outcome. The National MS Society has advised a personalized approach in relation to particularly vulnerable persons when needed and has also initiated worldwide registries to collect information regarding incidence and outcome of COVID-19 in pwMS. Accordingly, through the MS Center of Excellence (MSCoE), the Veterans Health Administration (VHA) has established a national registry assembling data regarding COVID-19 in veterans with MS.
A recent descriptive literature review summarized the outcomes of 873 persons with both MS and COVID-19 and reported that about 36% of COVID-19 cases were treated with B-cell depleting therapies (ocrelizumab or rituximab).6 This proportion was relatively higher when compared with other disease modifying agents. Of those who became infected with SARS-CoV-2, death from COVID-19 occurred in about 4%, and an additional 3% required assisted invasive or noninvasive ventilation. Persons reported to have passed away from COVID-19 generally were older; had progressive MS; or had associated comorbidities such as obesity, hypertension, heart or lung conditions, or cancers. Of these, 50% were not on any disease modifying agent, 25% were on B-cell depleting therapies (ocrelizumab or rituximab), and the remaining 25% were on various medications for MS. It is important to highlight that no formal statistical analyses were performed in this review. On the contrary, in the recently published Italian report on 844 pwMS who had suspected or confirmed COVID-19, the authors used univariate and multivariate models to analyze their findings and noted that the use of ocrelizumab was significantly associated with a worse clinical outcome.7 These authors also identified age, sex, disability score, and recent (within 1 month) use of steroids as risk factors for a severe COVID-19 outcome. The incidence of death from COVID-19 in this cohort was 1.54%.
The recently published data from the North American Registry of the National MS Society based on 1,626 patients reported a 3.3% incidence of death from COVID-19.8 The following factors were identified as risks for worse outcome: male sex, nonambulatory status, age, Black race, and cardiovascular disease. The use of rituximab, ocrelizumab, and steroids (the latter medication over the preceding 2 months) increased the risks of hospitalization for COVID-19.
COVID-19 Vaccines
Of the 3 available vaccines, the Pfizer-BioNTech COVID-19 (BNT162b2) vaccine is approved for individuals aged ≥ 16 years, while the Moderna COVID-19 (mRNA-1273) and the Johnson and Johnson/Jannsen COVID-19 (JNJ-78436735) vaccines are approved for individuals aged ≥ 18 years, though the latter vaccine has been temporarily suspended.1,3-5 The EUAs were released following the disclosure of the results of 3 phase 3 clinical trials and several phase 1 and 2 clinical trials.9-16
The BNT162b2 vaccine from Pfizer-BioNTech encodes the SARS-CoV-2 full-length spike protein (S) in prefusion conformation locked by the mutation in 2 prolines.9 Differently from the BNT162b2 vaccine, the BNT162b1 vaccine encodes a secreted trimerized SARS-CoV-2 receptor–binding domain. The S-glycoprotein is required for viral entry, as implicated in host cell attachment, and is the target of the neutralizing antibodies. In a phase 1 clinical study on 195 volunteers treated with BNT162b1 (10 mg, 20 mg, 30 mg, or 100 mg doses) or BNT162b2 (10 mg, 20 mg, or 30 mg doses) vaccines or placebo 21 days apart, both the binding and neutralizing antibody response was found to be age and “somewhat” dose dependent.9
Higher neutralization titers were measured at day 28 and 35 (7 and 14 days after the second dose, respectively) and compared with titers of persons who recovered from a COVID-19 infection.9 Serum neutralization was measured using a fluorescence-based high-throughput neutralization assay, while binding activity was assessed using the receptor-binding domain (RBD)–binding or S1-binding IgG direct Luminex immunoassays.
The overall reactogenicity/immunogenicity profile of BNT162b2 administered twice (30 mg each time) led to its selection for the phase 3 clinical trial.9,10 In a large phase 3 clinical trial on 43,458 participants, the BNT162b2 vaccine given at 30 mg doses 21 days apart conferred 95% clinical efficacy in reducing the likelihood of being affected by symptomatic COVID-19.10 No safety concerns to stop the trial were identified, though related severe and life-threatening events were reported in 0.3% and 0.1% of the volunteers, respectively. We note that these incidence rates were the same for the treated and the placebo group.
The mRNA-1273 vaccine from Moderna also encodes the SARS-CoV-2 S-glycoprotein. In a dose escalation phase 1 trial of 45 participants aged between 18 and 55 years (25 mg, 100 mg or 250 mg, given at days 1 and 29) and 40 participants aged ≥ 57 years (25 mg and 100 mg, given at days 1 and 29), a dose-dependent effect was observed for both binding (receptor-binding domain and S-2p IgG on enzyme-linked immunosorbent assay [ELISA])and neutralizing antibodies (SARS-CoV-2 nanoluciferase high-throughput neutralization assay, focus reduction neutralization test mNeonGreen and SARS-CoV-2 plaque-reduction neutralization testing assay) development.11,12 The geometric mean of both binding and neutralizing antibodies declined over time but persisted high as late as 119 days after the first burst of 100 mg dose.13 The same dose of the vaccine also elicited a strong T helper-1 response with little T helper-2 response across all ages.11 The strength of the memory cellular response remains to be defined and is the subject of ongoing investigations. In a large phase 3 clinical trial with 30,420 participants, the Moderna COVID-19 mRNA-1273 vaccine, given 28 days apart at the dose of 100 mg, met 94.1% clinical efficacy in reducing the likelihood of being affected by symptomatic COVID-19.14
Less than 0.1% of volunteers in both groups withdrew from the trial due to adverse effects (AEs); 0.5% in the placebo group and 0.3% in the treated group had AEs after the first dose, which precluded receiving the second dose.14
The Johnson and Johnson/Jannsen JNJ-78436735 vaccine is based upon a recombinant, replication-incompetent adenovirus serotype 26 (Ad26) vector, which encodes the full-length, stabilized S-glycoprotein of SARS-CoV-2. The currently reported results of the phase 1 and 2 clinical study indicated that 805 volunteers (402 participants between ages 18 and 55 years and 403 individuals aged ≥ 65 years) were randomized to receive a single or double dose of either 5 x 1010 viral particles per 0.5 mL (low dose) or 1 x 1011 viral particles per 0.5 mL (high dose), each compared with a placebo group. Incidence of seroconversion to binding antibodies against the full-length stabilized S-glycoprotein, as measured by ELISA, showed ≥ 96% seroconversion by day 29 after the first dose. The incidence of seroconversion to neutralizing antibodies was ≥ 90% as early as early as 29 days after the first of either dose. In this study, neutralization activity was measured using the wild-type virus microneutralization assay based on the Victoria/1/2020/ SARS-CoV-2 strain.15 We note that the data related to this study have been partially reported and additional information will be available when each participant will have received the second dose.
In a large phase 3 clinical trial with 40,000 participants aged between 18 and 100 years, the Johnson and Johnson/Jannsen JNJ-78436735 vaccine, given as single dose of 5 x 1010 viral particles per 0.5 mL, met 65.5% clinical efficacy in the likelihood of being affected by symptomatic COVID-19 ≥ 28 days postimmunization.16 In this study, the vaccine efficacy was found to have a geographic distribution with highest efficacy in the US (74.4%), followed by Latin America (64.7%) where Brazil showed a predominance of the P2 COVID-19 lineage (64.7%), and Africa (52%) where the B.1.351 lineage was most frequent (94.5%). The vaccine also proved to be effective in reducing the likelihood of asymptomatic seroconversion, as measured by the level of a non-S protein, eg, 0.7% of positive cases in the vaccine group vs 2.8% in the placebo group. Immunological data indicated that the vaccine response was mainly driven by T-helper 1 lymphocytes. As of April 13, 2021 the FDA has recommend suspending the administration of the Johnson and Johnson/Janssen vaccine due to the occurrence of severe blood clots reported in a 6 subjects out of ~6.8 millions administered doses.1
It is noteworthy to highlight that all vaccines reduced the likelihood of hospitalizations and deaths due to COVID-19.
As of April 17, 2021, the CDC reports that more than 130 million (40%) Americans, nearly 1/3 of the population, have received at least 1 dose of any of the 3 available vaccines, including 4.6 million at the VHA.17 Using the Vaccine Adverse Event Reporting System and v-safe, the US is conducting what has been defined the most “intense and comprehensive safety monitoring in the US history.”18 Thus far, data affirm the overall safety of the available vaccines against COVID-19. Individuals should not receive the COVID-19 vaccines if they have had a severe allergic reaction to any ingredient in the vaccine or a severe allergic reaction to a prior dose of the vaccine. Additionally, individuals who have received convalescent plasma should wait 90 days before getting the COVID-19 vaccine.
Vaccination for Persons with MS
PwMS or those on immunosuppressive medications were excluded from the clinical trial led by Pfizer-BioNTech. There is no mention of MS as comorbidity in the study from Moderna, although this condition is not listed as an exclusion criterion either. The results of the phase 3 clinical trial for the Johnson and Johnson/Janssen vaccine are not fully public yet, thus this information is not known as well. As a result, the use of this vaccine in pwMS under immunomodulatory agents is based on previous knowledge of other vaccines. Evidence is growing for the safety of the BNT162b2 COVID-19 vaccination in pwMS.19 Data regarding COVID-19 efficacy and safety are still largely based on previous knowledge on other vaccines.20,21
Immunization of pwMS is considered safe and should proceed with confidence in those persons who have no other contraindication to receive a vaccine. A fundamental problem for pwMS treated with immunomodulatory or immunosuppressive medications is whether the vaccine will remain safe or be able to solicit an adequate immune response.20,21 As of the time of publication 2021, there is consensus that mRNA based or inactivated vaccines are also considered safe in pwMS undergoing immunomodulatory or immunosuppressive treatments.20-23 We advise a one-on-one conversation between each veteran with MS and their primary neurologist to understand the importance of the vaccination, the minimal risks associated with it and if any specific treatment modification should be made.
To provide guidance, the National MS Society released a position statement that is regularly updated.22 Given the risks associated with discontinuation of disease modifying agents, pwMS opting to receive a COVID-19 vaccine should continue taking their medications unless recommended otherwise by their primary neurologist. In addition, on the basis of available literature and the American Academy of Neurology recommendations on the use of vaccines in general, the following recommendations are proposed.20-23
Recommendation 1: injections, orals, and natalizumab. Given the risks associated with discontinuation of disease modifying agents, pwMS opting to receive a COVID-19 vaccine should continue taking their medications unless recommended otherwise by their primary neurologist. Neither delay in start nor adjustments in dosing or timing of administration are advised for pwMS taking currently available either generic or brand formulations of β interferons, glatiramer acetate, teriflunomide, dimethyl or monomethyl fumarate, or natalizumab.22
Recommendation 2: anti-CD20 monoclonal infusions. As an attenuated humoral response is predicted in pwMS treated with anti-CD20 monoclonal infusions, coordinating the timing of vaccination with treatment schedule may maximize efficacy of the vaccine. Whenever possible, it is advised to be vaccinated ≥ 12 weeks after the last infusion and to resume infusion 4 weeks after the last dose of the vaccine. PwMS starting anti-CD20 monoclonal infusions are advised to be fully vaccinated first and start these medications ≥ 2 to 4 weeks later.22
Recommendation 3: alemtuzumab infusion. Given its effect on CD52+ cells, it is advised to be vaccinated ≥ 24 weeks after the last infusion and to resume infusion 4 weeks after the last dose of the vaccine. PwMS starting alemtuzumab infusions are advised to get fully vaccinated first and start this medication 4 weeks or more after completing the vaccine.22
Recommendation 4: sphingosine 1 phosphate receptor modulators, oral cladribine, and ofatumumab. PwMS starting any of these medications are advised to be fully vaccinated first and start these medications 2 to 4 weeks after completing the vaccine. PwMS already on those medications are not advised to change the schedule of administration. When possible, though, one should resume the dose of cladribine or ofatumumab 2 to 4 weeks after the last dose of the vaccine. 20
Notably, all these recommendations hold true when there is enough disease stability to allow delaying treatment. We also add that it remains unclear if persons with an overall very low number of lymphocytes will be able to elicit a strong reaction to the vaccine. Blood collection and analysis of white blood cell count and lymphocyte subset estimates should be obtained in those persons with a markedly suppressed immune system. Whenever possible, to maximize outcome, timing the vaccination with treatment should be considered in those persons with a markedly reduced number of T-helper 1 cells.
Vaccination for Veterans
Currently the VHA is offering to veterans the Pfizer and Moderna COVID-19 vaccines with FDA EUAs. In accordance with FDA regulations, the VHA has paused administration of the Johnson and Johnson/Janssen vaccine. The VHA has launched its vaccination program in December 2020 by first providing the vaccine to health care personnel, nursing home patients, spinal cord injury patients, chemotherapy patients, dialysis and transplant patients, as well as homeless veterans. Most VA health care systems have passed this phase and are now able to provide vaccines to veterans with MS.
In December 2020, the MSCoE released a position statement regarding the importance and safety of the COVID-19 vaccine for veterans with MS.24 This statement will be updated on a regular basis as new information becomes available from major organizations like the National MS Society, FDA, CDC, and World Health Organization (WHO) or relevant literature.
Conclusions
Older veterans with progressive MS and associated comorbidities are at higher risk of death should they be infected by COVID-19. Fortunately, we live in a time where vaccines are recognized as a critical tool to prevent this infection and to significantly reduce its morbidity and mortality. Yet, hesitancy to vaccinate has been identified as one of the most important threats to public health by the WHO in 2019.25 Understandably such hesitancy is even more profound for the COVID-19 vaccine, which is being administered under an EUA. In light of this indecision, and given the current state of the pandemic, we urge health care providers to educate every veteran about the benefits of being vaccinated against COVID-19. Within the VHA, a solid campaign of vaccination has been put in place at an unprecedented speed.
Health care providers interacting with veterans with MS are encouraged to use the MSCoE website (www.va.gov/ms) for any questions or concerns, or to reach out to MSCoE staff. It is vitally important that our community of veterans receives appropriate education on the importance of this vaccination for their own safety, for that of their household and society.
1. Centers for Disease Control and Prevention. Recommendation to pause use of Johnson & Johnson’s Janssen COVID-19 vaccine. Updated April 16, 2021. Accessed April 20, 2021. https://www.cdc.gov/coronavirus/2019-ncov/vaccines/safety/JJUpdate.html
2. World Health Organization. Naming the coronavirus disease (COVID-19) and the virus that causes it. Accessed March 9, 2021. https://www.who.int/emergencies/diseases/novel-coronavirus-2019/technical-guidance/naming-the-coronavirus-disease-(covid-2019)-and-the-virus-that-causes-it
3. US Food and Drug Administration. Pfizer-BioNTech COVID-19 vaccine. Updated February 3, 2021. Accessed March 22, 2021. https://www.fda.gov/emergency-preparedness-and-response/coronavirus-disease-2019-covid-19/pfizer-biontech-covid-19-vaccine
4. US Food and Drug Administration. Moderna COVID-19 vaccine. Updated February 3, 2021. Accessed March 22, 2021. https://www.fda.gov/emergency-preparedness-and-response/coronavirus-disease-2019-covid-19/moderna-covid-19-vaccine
5. US Food and Drug Administration. FDA issues emergency use authorization for third COVID-19 vaccine [press release]. Published February 27, 2021. Accessed March 22, 2021. https://www.fda.gov/news-events/press-announcements/fda-issues-emergency-use-authorization-third-covid-19-vaccine
6. Möhn N, Konen FF, Pul R, et al. Experience in multiple sclerosis patients with COVID-19 and disease-modifying therapies: a review of 873 published cases. J Clin Med. 2020;9(12):4067. Published 2020 Dec 16. doi:10.3390/jcm9124067
7. Sormani MP, De Rossi N, Schiavetti I, et al. Disease-modifying therapies and coronavirus disease 2019 severity in multiple sclerosis. Ann Neurol. 2021;89(4):780-789. doi:10.1002/ana.26028
8. Salter A, Fox RJ, Newsome SD, et al. Outcomes and risk factors associated with SARS-CoV-2 infection in a North American registry of patients with multiple sclerosis [published online ahead of print, 2021 Mar 19]. JAMA Neurol. 2021;10.1001/jamaneurol.2021.0688. doi:10.1001/jamaneurol.2021.0688
9. Walsh EE, Frenck RW Jr, Falsey AR, et al. Safety and immunogenicity of two RNA-based Covid-19 vaccine candidates. N Engl J Med. 2020;383(25):2439-2450. doi:10.1056/NEJMoa2027906
10. Polack FP, Thomas SJ, Kitchin N, et al. Safety and efficacy of the BNT162b2 mRNA Covid-19 vaccine. N Engl J Med. 2020;383(27):2603-2615. doi:10.1056/NEJMoa2034577
11. Jackson LA, Anderson EJ, Rouphael NG, et al. An mRNA vaccine against SARS-CoV-2 - preliminary Report. N Engl J Med. 2020;383(20):1920-1931. doi:10.1056/NEJMoa2022483
12. Anderson EJ, Rouphael NG, Widge AT, et al. Safety and immunogenicity of SARS-CoV-2 mRNA-1273 vaccine in older adults. N Engl J Med. 2020;383(25):2427-2438. doi:10.1056/NEJMoa2028436
13. Widge AT, Rouphael NG, Jackson LA, et al. Durability of responses after SARS-CoV-2 mRNA-1273 vaccination. N Engl J Med. 2021;384(1):80-82. doi:10.1056/NEJMc2032195
14. Baden LR, El Sahly HM, Essink B, et al. Efficacy and safety of the mRNA-1273 SARS-CoV-2 vaccine. N Engl J Med. 2021;384(5):403-416. doi:10.1056/NEJMoa2035389
15. Sadoff J, Le Gars M, Shukarev G, et al. Interim results of a phase 1-2a Trial of Ad26.COV2.S Covid-19 Vaccine [published online ahead of print, 2021 Jan 13]. N Engl J Med. 2021;NEJMoa2034201. doi:10.1056/NEJMoa2034201
16. Oliver SE, Gargano JW, Scobie H, et al. The Advisory Committee on Immunization Practices’ interim recommendation for use of Janssen COVID-19 vaccine - United States, February 2021. MMWR Morb Mortal Wkly Rep. 2021;70(9):329-332. Published 2021 Mar 5. doi:10.15585/mmwr.mm7009e4
17. US Centers for Disease Control and Prevention. COVID-19 vaccinations in the United States. Updated March 21, 2021. Accessed March 22, 2021. https://covid.cdc.gov/covid-data-tracker/#vaccinations
18. Gee J, Marquez P, Su J, et al. First month of COVID-19 vaccine safety monitoring - United States, December 14, 2020-January 13, 2021. MMWR Morb Mortal Wkly Rep. 2021;70(8):283-288. Published 2021 Feb 26. doi:10.15585/mmwr.mm7008e3
19. Achiron A, Dolev M, Menascu S, et al. COVID-19 vaccination in patients with multiple sclerosis: What we have learnt by February 2021 [published online ahead of print, 2021 Apr 15]. Mult Scler. 2021;13524585211003476. doi:10.1177/13524585211003476
20. Righi E, Gallo T, Azzini AM, et al. A review of vaccinations in adult patients with secondary immunodeficiency [published online ahead of print, 2021 Mar 9]. Infect Dis Ther. 2021;1-25. doi:10.1007/s40121-021-00404-y
21. Ciotti JR, Valtcheva MV, Cross AH. Effects of MS disease-modifying therapies on responses to vaccinations: A review. Mult Scler Relat Disord. 2020;45:102439. doi:10.1016/j.msard.2020.102439
22. National Multiple Sclerosis Society. COVID-19 vaccine guidance for people living with MS. Accessed March 22, 2021. https://www.nationalmssociety.org/coronavirus-covid-19-information/multiple-sclerosis-and-coronavirus/covid-19-vaccine-guidance
23. Farez MF, Correale J, Armstrong MJ, et al. Practice guideline update summary: vaccine-preventable infections and immunization in multiple sclerosis: report of the Guideline Development, Dissemination, and Implementation Subcommittee of the American Academy of Neurology. Neurology. 2019;93(13):584-594. doi:10.1212/WNL.0000000000008157
24. US Department of Veterans Affairs, Multiple Sclerosis Centers of Excellence. Coronavirus (COVID-19) and vaccine information. Updated February 25. 2021. Accessed March 9, 2021. https://www.va.gov/ms
25. World Health Organization. Ten threats to global health in 2019. Accessed March 18, 2021. https://www.who.int/news-room/spotlight/ten-threats-to-global-health-in-2019.
Older veterans with progressive MS and associated comorbidities are at higher risk of death should they be infected by COVID-19 and we urge health care providers to educate every veteran about the benefits of being vaccinated against COVID-19.
Older veterans with progressive MS and associated comorbidities are at higher risk of death should they be infected by COVID-19 and we urge health care providers to educate every veteran about the benefits of being vaccinated against COVID-19.
This article has been updated to reflect new US Food and Drug Administration and Centers for Disease Control and Prevention recommendations to pause administration of the Johnson and Johnson Jansen (JNJ-78436735) COVID-19 vaccine.1
Since the outbreak of the pandemic caused by the severe acute respiratory syndrome coronavirus-2 (SARS-CoV-2),a plethora of studies have been performed to increase our knowledge of its associated illness COVID-19.2 There is no cure for COVID-19, which can be lethal. In the absence of a cure, preventive measures are of vital importance. In order to help prevent the spread of the virus, the Centers for Diseases Control and Prevention (CDC) advocates for: (1) the use of a face mask over the mouth and nose; (2) a minimum of 6-foot distance between individuals; and (3) avoidance of gatherings.As of March 2021, the US Food and Drug Administration (FDA) approved 3 vaccines for the prevention of COVID-19, under an emergency use authorization (EUA).3-5
COVID-19 and Multiple Sclerosis
Since the beginning of the pandemic, neurologists have faced a new challenge—determining whether persons with multiple sclerosis (pwMS) were more at risk than others of becoming ill from COVID-19 or were destined for a worse outcome. The National MS Society has advised a personalized approach in relation to particularly vulnerable persons when needed and has also initiated worldwide registries to collect information regarding incidence and outcome of COVID-19 in pwMS. Accordingly, through the MS Center of Excellence (MSCoE), the Veterans Health Administration (VHA) has established a national registry assembling data regarding COVID-19 in veterans with MS.
A recent descriptive literature review summarized the outcomes of 873 persons with both MS and COVID-19 and reported that about 36% of COVID-19 cases were treated with B-cell depleting therapies (ocrelizumab or rituximab).6 This proportion was relatively higher when compared with other disease modifying agents. Of those who became infected with SARS-CoV-2, death from COVID-19 occurred in about 4%, and an additional 3% required assisted invasive or noninvasive ventilation. Persons reported to have passed away from COVID-19 generally were older; had progressive MS; or had associated comorbidities such as obesity, hypertension, heart or lung conditions, or cancers. Of these, 50% were not on any disease modifying agent, 25% were on B-cell depleting therapies (ocrelizumab or rituximab), and the remaining 25% were on various medications for MS. It is important to highlight that no formal statistical analyses were performed in this review. On the contrary, in the recently published Italian report on 844 pwMS who had suspected or confirmed COVID-19, the authors used univariate and multivariate models to analyze their findings and noted that the use of ocrelizumab was significantly associated with a worse clinical outcome.7 These authors also identified age, sex, disability score, and recent (within 1 month) use of steroids as risk factors for a severe COVID-19 outcome. The incidence of death from COVID-19 in this cohort was 1.54%.
The recently published data from the North American Registry of the National MS Society based on 1,626 patients reported a 3.3% incidence of death from COVID-19.8 The following factors were identified as risks for worse outcome: male sex, nonambulatory status, age, Black race, and cardiovascular disease. The use of rituximab, ocrelizumab, and steroids (the latter medication over the preceding 2 months) increased the risks of hospitalization for COVID-19.
COVID-19 Vaccines
Of the 3 available vaccines, the Pfizer-BioNTech COVID-19 (BNT162b2) vaccine is approved for individuals aged ≥ 16 years, while the Moderna COVID-19 (mRNA-1273) and the Johnson and Johnson/Jannsen COVID-19 (JNJ-78436735) vaccines are approved for individuals aged ≥ 18 years, though the latter vaccine has been temporarily suspended.1,3-5 The EUAs were released following the disclosure of the results of 3 phase 3 clinical trials and several phase 1 and 2 clinical trials.9-16
The BNT162b2 vaccine from Pfizer-BioNTech encodes the SARS-CoV-2 full-length spike protein (S) in prefusion conformation locked by the mutation in 2 prolines.9 Differently from the BNT162b2 vaccine, the BNT162b1 vaccine encodes a secreted trimerized SARS-CoV-2 receptor–binding domain. The S-glycoprotein is required for viral entry, as implicated in host cell attachment, and is the target of the neutralizing antibodies. In a phase 1 clinical study on 195 volunteers treated with BNT162b1 (10 mg, 20 mg, 30 mg, or 100 mg doses) or BNT162b2 (10 mg, 20 mg, or 30 mg doses) vaccines or placebo 21 days apart, both the binding and neutralizing antibody response was found to be age and “somewhat” dose dependent.9
Higher neutralization titers were measured at day 28 and 35 (7 and 14 days after the second dose, respectively) and compared with titers of persons who recovered from a COVID-19 infection.9 Serum neutralization was measured using a fluorescence-based high-throughput neutralization assay, while binding activity was assessed using the receptor-binding domain (RBD)–binding or S1-binding IgG direct Luminex immunoassays.
The overall reactogenicity/immunogenicity profile of BNT162b2 administered twice (30 mg each time) led to its selection for the phase 3 clinical trial.9,10 In a large phase 3 clinical trial on 43,458 participants, the BNT162b2 vaccine given at 30 mg doses 21 days apart conferred 95% clinical efficacy in reducing the likelihood of being affected by symptomatic COVID-19.10 No safety concerns to stop the trial were identified, though related severe and life-threatening events were reported in 0.3% and 0.1% of the volunteers, respectively. We note that these incidence rates were the same for the treated and the placebo group.
The mRNA-1273 vaccine from Moderna also encodes the SARS-CoV-2 S-glycoprotein. In a dose escalation phase 1 trial of 45 participants aged between 18 and 55 years (25 mg, 100 mg or 250 mg, given at days 1 and 29) and 40 participants aged ≥ 57 years (25 mg and 100 mg, given at days 1 and 29), a dose-dependent effect was observed for both binding (receptor-binding domain and S-2p IgG on enzyme-linked immunosorbent assay [ELISA])and neutralizing antibodies (SARS-CoV-2 nanoluciferase high-throughput neutralization assay, focus reduction neutralization test mNeonGreen and SARS-CoV-2 plaque-reduction neutralization testing assay) development.11,12 The geometric mean of both binding and neutralizing antibodies declined over time but persisted high as late as 119 days after the first burst of 100 mg dose.13 The same dose of the vaccine also elicited a strong T helper-1 response with little T helper-2 response across all ages.11 The strength of the memory cellular response remains to be defined and is the subject of ongoing investigations. In a large phase 3 clinical trial with 30,420 participants, the Moderna COVID-19 mRNA-1273 vaccine, given 28 days apart at the dose of 100 mg, met 94.1% clinical efficacy in reducing the likelihood of being affected by symptomatic COVID-19.14
Less than 0.1% of volunteers in both groups withdrew from the trial due to adverse effects (AEs); 0.5% in the placebo group and 0.3% in the treated group had AEs after the first dose, which precluded receiving the second dose.14
The Johnson and Johnson/Jannsen JNJ-78436735 vaccine is based upon a recombinant, replication-incompetent adenovirus serotype 26 (Ad26) vector, which encodes the full-length, stabilized S-glycoprotein of SARS-CoV-2. The currently reported results of the phase 1 and 2 clinical study indicated that 805 volunteers (402 participants between ages 18 and 55 years and 403 individuals aged ≥ 65 years) were randomized to receive a single or double dose of either 5 x 1010 viral particles per 0.5 mL (low dose) or 1 x 1011 viral particles per 0.5 mL (high dose), each compared with a placebo group. Incidence of seroconversion to binding antibodies against the full-length stabilized S-glycoprotein, as measured by ELISA, showed ≥ 96% seroconversion by day 29 after the first dose. The incidence of seroconversion to neutralizing antibodies was ≥ 90% as early as early as 29 days after the first of either dose. In this study, neutralization activity was measured using the wild-type virus microneutralization assay based on the Victoria/1/2020/ SARS-CoV-2 strain.15 We note that the data related to this study have been partially reported and additional information will be available when each participant will have received the second dose.
In a large phase 3 clinical trial with 40,000 participants aged between 18 and 100 years, the Johnson and Johnson/Jannsen JNJ-78436735 vaccine, given as single dose of 5 x 1010 viral particles per 0.5 mL, met 65.5% clinical efficacy in the likelihood of being affected by symptomatic COVID-19 ≥ 28 days postimmunization.16 In this study, the vaccine efficacy was found to have a geographic distribution with highest efficacy in the US (74.4%), followed by Latin America (64.7%) where Brazil showed a predominance of the P2 COVID-19 lineage (64.7%), and Africa (52%) where the B.1.351 lineage was most frequent (94.5%). The vaccine also proved to be effective in reducing the likelihood of asymptomatic seroconversion, as measured by the level of a non-S protein, eg, 0.7% of positive cases in the vaccine group vs 2.8% in the placebo group. Immunological data indicated that the vaccine response was mainly driven by T-helper 1 lymphocytes. As of April 13, 2021 the FDA has recommend suspending the administration of the Johnson and Johnson/Janssen vaccine due to the occurrence of severe blood clots reported in a 6 subjects out of ~6.8 millions administered doses.1
It is noteworthy to highlight that all vaccines reduced the likelihood of hospitalizations and deaths due to COVID-19.
As of April 17, 2021, the CDC reports that more than 130 million (40%) Americans, nearly 1/3 of the population, have received at least 1 dose of any of the 3 available vaccines, including 4.6 million at the VHA.17 Using the Vaccine Adverse Event Reporting System and v-safe, the US is conducting what has been defined the most “intense and comprehensive safety monitoring in the US history.”18 Thus far, data affirm the overall safety of the available vaccines against COVID-19. Individuals should not receive the COVID-19 vaccines if they have had a severe allergic reaction to any ingredient in the vaccine or a severe allergic reaction to a prior dose of the vaccine. Additionally, individuals who have received convalescent plasma should wait 90 days before getting the COVID-19 vaccine.
Vaccination for Persons with MS
PwMS or those on immunosuppressive medications were excluded from the clinical trial led by Pfizer-BioNTech. There is no mention of MS as comorbidity in the study from Moderna, although this condition is not listed as an exclusion criterion either. The results of the phase 3 clinical trial for the Johnson and Johnson/Janssen vaccine are not fully public yet, thus this information is not known as well. As a result, the use of this vaccine in pwMS under immunomodulatory agents is based on previous knowledge of other vaccines. Evidence is growing for the safety of the BNT162b2 COVID-19 vaccination in pwMS.19 Data regarding COVID-19 efficacy and safety are still largely based on previous knowledge on other vaccines.20,21
Immunization of pwMS is considered safe and should proceed with confidence in those persons who have no other contraindication to receive a vaccine. A fundamental problem for pwMS treated with immunomodulatory or immunosuppressive medications is whether the vaccine will remain safe or be able to solicit an adequate immune response.20,21 As of the time of publication 2021, there is consensus that mRNA based or inactivated vaccines are also considered safe in pwMS undergoing immunomodulatory or immunosuppressive treatments.20-23 We advise a one-on-one conversation between each veteran with MS and their primary neurologist to understand the importance of the vaccination, the minimal risks associated with it and if any specific treatment modification should be made.
To provide guidance, the National MS Society released a position statement that is regularly updated.22 Given the risks associated with discontinuation of disease modifying agents, pwMS opting to receive a COVID-19 vaccine should continue taking their medications unless recommended otherwise by their primary neurologist. In addition, on the basis of available literature and the American Academy of Neurology recommendations on the use of vaccines in general, the following recommendations are proposed.20-23
Recommendation 1: injections, orals, and natalizumab. Given the risks associated with discontinuation of disease modifying agents, pwMS opting to receive a COVID-19 vaccine should continue taking their medications unless recommended otherwise by their primary neurologist. Neither delay in start nor adjustments in dosing or timing of administration are advised for pwMS taking currently available either generic or brand formulations of β interferons, glatiramer acetate, teriflunomide, dimethyl or monomethyl fumarate, or natalizumab.22
Recommendation 2: anti-CD20 monoclonal infusions. As an attenuated humoral response is predicted in pwMS treated with anti-CD20 monoclonal infusions, coordinating the timing of vaccination with treatment schedule may maximize efficacy of the vaccine. Whenever possible, it is advised to be vaccinated ≥ 12 weeks after the last infusion and to resume infusion 4 weeks after the last dose of the vaccine. PwMS starting anti-CD20 monoclonal infusions are advised to be fully vaccinated first and start these medications ≥ 2 to 4 weeks later.22
Recommendation 3: alemtuzumab infusion. Given its effect on CD52+ cells, it is advised to be vaccinated ≥ 24 weeks after the last infusion and to resume infusion 4 weeks after the last dose of the vaccine. PwMS starting alemtuzumab infusions are advised to get fully vaccinated first and start this medication 4 weeks or more after completing the vaccine.22
Recommendation 4: sphingosine 1 phosphate receptor modulators, oral cladribine, and ofatumumab. PwMS starting any of these medications are advised to be fully vaccinated first and start these medications 2 to 4 weeks after completing the vaccine. PwMS already on those medications are not advised to change the schedule of administration. When possible, though, one should resume the dose of cladribine or ofatumumab 2 to 4 weeks after the last dose of the vaccine. 20
Notably, all these recommendations hold true when there is enough disease stability to allow delaying treatment. We also add that it remains unclear if persons with an overall very low number of lymphocytes will be able to elicit a strong reaction to the vaccine. Blood collection and analysis of white blood cell count and lymphocyte subset estimates should be obtained in those persons with a markedly suppressed immune system. Whenever possible, to maximize outcome, timing the vaccination with treatment should be considered in those persons with a markedly reduced number of T-helper 1 cells.
Vaccination for Veterans
Currently the VHA is offering to veterans the Pfizer and Moderna COVID-19 vaccines with FDA EUAs. In accordance with FDA regulations, the VHA has paused administration of the Johnson and Johnson/Janssen vaccine. The VHA has launched its vaccination program in December 2020 by first providing the vaccine to health care personnel, nursing home patients, spinal cord injury patients, chemotherapy patients, dialysis and transplant patients, as well as homeless veterans. Most VA health care systems have passed this phase and are now able to provide vaccines to veterans with MS.
In December 2020, the MSCoE released a position statement regarding the importance and safety of the COVID-19 vaccine for veterans with MS.24 This statement will be updated on a regular basis as new information becomes available from major organizations like the National MS Society, FDA, CDC, and World Health Organization (WHO) or relevant literature.
Conclusions
Older veterans with progressive MS and associated comorbidities are at higher risk of death should they be infected by COVID-19. Fortunately, we live in a time where vaccines are recognized as a critical tool to prevent this infection and to significantly reduce its morbidity and mortality. Yet, hesitancy to vaccinate has been identified as one of the most important threats to public health by the WHO in 2019.25 Understandably such hesitancy is even more profound for the COVID-19 vaccine, which is being administered under an EUA. In light of this indecision, and given the current state of the pandemic, we urge health care providers to educate every veteran about the benefits of being vaccinated against COVID-19. Within the VHA, a solid campaign of vaccination has been put in place at an unprecedented speed.
Health care providers interacting with veterans with MS are encouraged to use the MSCoE website (www.va.gov/ms) for any questions or concerns, or to reach out to MSCoE staff. It is vitally important that our community of veterans receives appropriate education on the importance of this vaccination for their own safety, for that of their household and society.
This article has been updated to reflect new US Food and Drug Administration and Centers for Disease Control and Prevention recommendations to pause administration of the Johnson and Johnson Jansen (JNJ-78436735) COVID-19 vaccine.1
Since the outbreak of the pandemic caused by the severe acute respiratory syndrome coronavirus-2 (SARS-CoV-2),a plethora of studies have been performed to increase our knowledge of its associated illness COVID-19.2 There is no cure for COVID-19, which can be lethal. In the absence of a cure, preventive measures are of vital importance. In order to help prevent the spread of the virus, the Centers for Diseases Control and Prevention (CDC) advocates for: (1) the use of a face mask over the mouth and nose; (2) a minimum of 6-foot distance between individuals; and (3) avoidance of gatherings.As of March 2021, the US Food and Drug Administration (FDA) approved 3 vaccines for the prevention of COVID-19, under an emergency use authorization (EUA).3-5
COVID-19 and Multiple Sclerosis
Since the beginning of the pandemic, neurologists have faced a new challenge—determining whether persons with multiple sclerosis (pwMS) were more at risk than others of becoming ill from COVID-19 or were destined for a worse outcome. The National MS Society has advised a personalized approach in relation to particularly vulnerable persons when needed and has also initiated worldwide registries to collect information regarding incidence and outcome of COVID-19 in pwMS. Accordingly, through the MS Center of Excellence (MSCoE), the Veterans Health Administration (VHA) has established a national registry assembling data regarding COVID-19 in veterans with MS.
A recent descriptive literature review summarized the outcomes of 873 persons with both MS and COVID-19 and reported that about 36% of COVID-19 cases were treated with B-cell depleting therapies (ocrelizumab or rituximab).6 This proportion was relatively higher when compared with other disease modifying agents. Of those who became infected with SARS-CoV-2, death from COVID-19 occurred in about 4%, and an additional 3% required assisted invasive or noninvasive ventilation. Persons reported to have passed away from COVID-19 generally were older; had progressive MS; or had associated comorbidities such as obesity, hypertension, heart or lung conditions, or cancers. Of these, 50% were not on any disease modifying agent, 25% were on B-cell depleting therapies (ocrelizumab or rituximab), and the remaining 25% were on various medications for MS. It is important to highlight that no formal statistical analyses were performed in this review. On the contrary, in the recently published Italian report on 844 pwMS who had suspected or confirmed COVID-19, the authors used univariate and multivariate models to analyze their findings and noted that the use of ocrelizumab was significantly associated with a worse clinical outcome.7 These authors also identified age, sex, disability score, and recent (within 1 month) use of steroids as risk factors for a severe COVID-19 outcome. The incidence of death from COVID-19 in this cohort was 1.54%.
The recently published data from the North American Registry of the National MS Society based on 1,626 patients reported a 3.3% incidence of death from COVID-19.8 The following factors were identified as risks for worse outcome: male sex, nonambulatory status, age, Black race, and cardiovascular disease. The use of rituximab, ocrelizumab, and steroids (the latter medication over the preceding 2 months) increased the risks of hospitalization for COVID-19.
COVID-19 Vaccines
Of the 3 available vaccines, the Pfizer-BioNTech COVID-19 (BNT162b2) vaccine is approved for individuals aged ≥ 16 years, while the Moderna COVID-19 (mRNA-1273) and the Johnson and Johnson/Jannsen COVID-19 (JNJ-78436735) vaccines are approved for individuals aged ≥ 18 years, though the latter vaccine has been temporarily suspended.1,3-5 The EUAs were released following the disclosure of the results of 3 phase 3 clinical trials and several phase 1 and 2 clinical trials.9-16
The BNT162b2 vaccine from Pfizer-BioNTech encodes the SARS-CoV-2 full-length spike protein (S) in prefusion conformation locked by the mutation in 2 prolines.9 Differently from the BNT162b2 vaccine, the BNT162b1 vaccine encodes a secreted trimerized SARS-CoV-2 receptor–binding domain. The S-glycoprotein is required for viral entry, as implicated in host cell attachment, and is the target of the neutralizing antibodies. In a phase 1 clinical study on 195 volunteers treated with BNT162b1 (10 mg, 20 mg, 30 mg, or 100 mg doses) or BNT162b2 (10 mg, 20 mg, or 30 mg doses) vaccines or placebo 21 days apart, both the binding and neutralizing antibody response was found to be age and “somewhat” dose dependent.9
Higher neutralization titers were measured at day 28 and 35 (7 and 14 days after the second dose, respectively) and compared with titers of persons who recovered from a COVID-19 infection.9 Serum neutralization was measured using a fluorescence-based high-throughput neutralization assay, while binding activity was assessed using the receptor-binding domain (RBD)–binding or S1-binding IgG direct Luminex immunoassays.
The overall reactogenicity/immunogenicity profile of BNT162b2 administered twice (30 mg each time) led to its selection for the phase 3 clinical trial.9,10 In a large phase 3 clinical trial on 43,458 participants, the BNT162b2 vaccine given at 30 mg doses 21 days apart conferred 95% clinical efficacy in reducing the likelihood of being affected by symptomatic COVID-19.10 No safety concerns to stop the trial were identified, though related severe and life-threatening events were reported in 0.3% and 0.1% of the volunteers, respectively. We note that these incidence rates were the same for the treated and the placebo group.
The mRNA-1273 vaccine from Moderna also encodes the SARS-CoV-2 S-glycoprotein. In a dose escalation phase 1 trial of 45 participants aged between 18 and 55 years (25 mg, 100 mg or 250 mg, given at days 1 and 29) and 40 participants aged ≥ 57 years (25 mg and 100 mg, given at days 1 and 29), a dose-dependent effect was observed for both binding (receptor-binding domain and S-2p IgG on enzyme-linked immunosorbent assay [ELISA])and neutralizing antibodies (SARS-CoV-2 nanoluciferase high-throughput neutralization assay, focus reduction neutralization test mNeonGreen and SARS-CoV-2 plaque-reduction neutralization testing assay) development.11,12 The geometric mean of both binding and neutralizing antibodies declined over time but persisted high as late as 119 days after the first burst of 100 mg dose.13 The same dose of the vaccine also elicited a strong T helper-1 response with little T helper-2 response across all ages.11 The strength of the memory cellular response remains to be defined and is the subject of ongoing investigations. In a large phase 3 clinical trial with 30,420 participants, the Moderna COVID-19 mRNA-1273 vaccine, given 28 days apart at the dose of 100 mg, met 94.1% clinical efficacy in reducing the likelihood of being affected by symptomatic COVID-19.14
Less than 0.1% of volunteers in both groups withdrew from the trial due to adverse effects (AEs); 0.5% in the placebo group and 0.3% in the treated group had AEs after the first dose, which precluded receiving the second dose.14
The Johnson and Johnson/Jannsen JNJ-78436735 vaccine is based upon a recombinant, replication-incompetent adenovirus serotype 26 (Ad26) vector, which encodes the full-length, stabilized S-glycoprotein of SARS-CoV-2. The currently reported results of the phase 1 and 2 clinical study indicated that 805 volunteers (402 participants between ages 18 and 55 years and 403 individuals aged ≥ 65 years) were randomized to receive a single or double dose of either 5 x 1010 viral particles per 0.5 mL (low dose) or 1 x 1011 viral particles per 0.5 mL (high dose), each compared with a placebo group. Incidence of seroconversion to binding antibodies against the full-length stabilized S-glycoprotein, as measured by ELISA, showed ≥ 96% seroconversion by day 29 after the first dose. The incidence of seroconversion to neutralizing antibodies was ≥ 90% as early as early as 29 days after the first of either dose. In this study, neutralization activity was measured using the wild-type virus microneutralization assay based on the Victoria/1/2020/ SARS-CoV-2 strain.15 We note that the data related to this study have been partially reported and additional information will be available when each participant will have received the second dose.
In a large phase 3 clinical trial with 40,000 participants aged between 18 and 100 years, the Johnson and Johnson/Jannsen JNJ-78436735 vaccine, given as single dose of 5 x 1010 viral particles per 0.5 mL, met 65.5% clinical efficacy in the likelihood of being affected by symptomatic COVID-19 ≥ 28 days postimmunization.16 In this study, the vaccine efficacy was found to have a geographic distribution with highest efficacy in the US (74.4%), followed by Latin America (64.7%) where Brazil showed a predominance of the P2 COVID-19 lineage (64.7%), and Africa (52%) where the B.1.351 lineage was most frequent (94.5%). The vaccine also proved to be effective in reducing the likelihood of asymptomatic seroconversion, as measured by the level of a non-S protein, eg, 0.7% of positive cases in the vaccine group vs 2.8% in the placebo group. Immunological data indicated that the vaccine response was mainly driven by T-helper 1 lymphocytes. As of April 13, 2021 the FDA has recommend suspending the administration of the Johnson and Johnson/Janssen vaccine due to the occurrence of severe blood clots reported in a 6 subjects out of ~6.8 millions administered doses.1
It is noteworthy to highlight that all vaccines reduced the likelihood of hospitalizations and deaths due to COVID-19.
As of April 17, 2021, the CDC reports that more than 130 million (40%) Americans, nearly 1/3 of the population, have received at least 1 dose of any of the 3 available vaccines, including 4.6 million at the VHA.17 Using the Vaccine Adverse Event Reporting System and v-safe, the US is conducting what has been defined the most “intense and comprehensive safety monitoring in the US history.”18 Thus far, data affirm the overall safety of the available vaccines against COVID-19. Individuals should not receive the COVID-19 vaccines if they have had a severe allergic reaction to any ingredient in the vaccine or a severe allergic reaction to a prior dose of the vaccine. Additionally, individuals who have received convalescent plasma should wait 90 days before getting the COVID-19 vaccine.
Vaccination for Persons with MS
PwMS or those on immunosuppressive medications were excluded from the clinical trial led by Pfizer-BioNTech. There is no mention of MS as comorbidity in the study from Moderna, although this condition is not listed as an exclusion criterion either. The results of the phase 3 clinical trial for the Johnson and Johnson/Janssen vaccine are not fully public yet, thus this information is not known as well. As a result, the use of this vaccine in pwMS under immunomodulatory agents is based on previous knowledge of other vaccines. Evidence is growing for the safety of the BNT162b2 COVID-19 vaccination in pwMS.19 Data regarding COVID-19 efficacy and safety are still largely based on previous knowledge on other vaccines.20,21
Immunization of pwMS is considered safe and should proceed with confidence in those persons who have no other contraindication to receive a vaccine. A fundamental problem for pwMS treated with immunomodulatory or immunosuppressive medications is whether the vaccine will remain safe or be able to solicit an adequate immune response.20,21 As of the time of publication 2021, there is consensus that mRNA based or inactivated vaccines are also considered safe in pwMS undergoing immunomodulatory or immunosuppressive treatments.20-23 We advise a one-on-one conversation between each veteran with MS and their primary neurologist to understand the importance of the vaccination, the minimal risks associated with it and if any specific treatment modification should be made.
To provide guidance, the National MS Society released a position statement that is regularly updated.22 Given the risks associated with discontinuation of disease modifying agents, pwMS opting to receive a COVID-19 vaccine should continue taking their medications unless recommended otherwise by their primary neurologist. In addition, on the basis of available literature and the American Academy of Neurology recommendations on the use of vaccines in general, the following recommendations are proposed.20-23
Recommendation 1: injections, orals, and natalizumab. Given the risks associated with discontinuation of disease modifying agents, pwMS opting to receive a COVID-19 vaccine should continue taking their medications unless recommended otherwise by their primary neurologist. Neither delay in start nor adjustments in dosing or timing of administration are advised for pwMS taking currently available either generic or brand formulations of β interferons, glatiramer acetate, teriflunomide, dimethyl or monomethyl fumarate, or natalizumab.22
Recommendation 2: anti-CD20 monoclonal infusions. As an attenuated humoral response is predicted in pwMS treated with anti-CD20 monoclonal infusions, coordinating the timing of vaccination with treatment schedule may maximize efficacy of the vaccine. Whenever possible, it is advised to be vaccinated ≥ 12 weeks after the last infusion and to resume infusion 4 weeks after the last dose of the vaccine. PwMS starting anti-CD20 monoclonal infusions are advised to be fully vaccinated first and start these medications ≥ 2 to 4 weeks later.22
Recommendation 3: alemtuzumab infusion. Given its effect on CD52+ cells, it is advised to be vaccinated ≥ 24 weeks after the last infusion and to resume infusion 4 weeks after the last dose of the vaccine. PwMS starting alemtuzumab infusions are advised to get fully vaccinated first and start this medication 4 weeks or more after completing the vaccine.22
Recommendation 4: sphingosine 1 phosphate receptor modulators, oral cladribine, and ofatumumab. PwMS starting any of these medications are advised to be fully vaccinated first and start these medications 2 to 4 weeks after completing the vaccine. PwMS already on those medications are not advised to change the schedule of administration. When possible, though, one should resume the dose of cladribine or ofatumumab 2 to 4 weeks after the last dose of the vaccine. 20
Notably, all these recommendations hold true when there is enough disease stability to allow delaying treatment. We also add that it remains unclear if persons with an overall very low number of lymphocytes will be able to elicit a strong reaction to the vaccine. Blood collection and analysis of white blood cell count and lymphocyte subset estimates should be obtained in those persons with a markedly suppressed immune system. Whenever possible, to maximize outcome, timing the vaccination with treatment should be considered in those persons with a markedly reduced number of T-helper 1 cells.
Vaccination for Veterans
Currently the VHA is offering to veterans the Pfizer and Moderna COVID-19 vaccines with FDA EUAs. In accordance with FDA regulations, the VHA has paused administration of the Johnson and Johnson/Janssen vaccine. The VHA has launched its vaccination program in December 2020 by first providing the vaccine to health care personnel, nursing home patients, spinal cord injury patients, chemotherapy patients, dialysis and transplant patients, as well as homeless veterans. Most VA health care systems have passed this phase and are now able to provide vaccines to veterans with MS.
In December 2020, the MSCoE released a position statement regarding the importance and safety of the COVID-19 vaccine for veterans with MS.24 This statement will be updated on a regular basis as new information becomes available from major organizations like the National MS Society, FDA, CDC, and World Health Organization (WHO) or relevant literature.
Conclusions
Older veterans with progressive MS and associated comorbidities are at higher risk of death should they be infected by COVID-19. Fortunately, we live in a time where vaccines are recognized as a critical tool to prevent this infection and to significantly reduce its morbidity and mortality. Yet, hesitancy to vaccinate has been identified as one of the most important threats to public health by the WHO in 2019.25 Understandably such hesitancy is even more profound for the COVID-19 vaccine, which is being administered under an EUA. In light of this indecision, and given the current state of the pandemic, we urge health care providers to educate every veteran about the benefits of being vaccinated against COVID-19. Within the VHA, a solid campaign of vaccination has been put in place at an unprecedented speed.
Health care providers interacting with veterans with MS are encouraged to use the MSCoE website (www.va.gov/ms) for any questions or concerns, or to reach out to MSCoE staff. It is vitally important that our community of veterans receives appropriate education on the importance of this vaccination for their own safety, for that of their household and society.
1. Centers for Disease Control and Prevention. Recommendation to pause use of Johnson & Johnson’s Janssen COVID-19 vaccine. Updated April 16, 2021. Accessed April 20, 2021. https://www.cdc.gov/coronavirus/2019-ncov/vaccines/safety/JJUpdate.html
2. World Health Organization. Naming the coronavirus disease (COVID-19) and the virus that causes it. Accessed March 9, 2021. https://www.who.int/emergencies/diseases/novel-coronavirus-2019/technical-guidance/naming-the-coronavirus-disease-(covid-2019)-and-the-virus-that-causes-it
3. US Food and Drug Administration. Pfizer-BioNTech COVID-19 vaccine. Updated February 3, 2021. Accessed March 22, 2021. https://www.fda.gov/emergency-preparedness-and-response/coronavirus-disease-2019-covid-19/pfizer-biontech-covid-19-vaccine
4. US Food and Drug Administration. Moderna COVID-19 vaccine. Updated February 3, 2021. Accessed March 22, 2021. https://www.fda.gov/emergency-preparedness-and-response/coronavirus-disease-2019-covid-19/moderna-covid-19-vaccine
5. US Food and Drug Administration. FDA issues emergency use authorization for third COVID-19 vaccine [press release]. Published February 27, 2021. Accessed March 22, 2021. https://www.fda.gov/news-events/press-announcements/fda-issues-emergency-use-authorization-third-covid-19-vaccine
6. Möhn N, Konen FF, Pul R, et al. Experience in multiple sclerosis patients with COVID-19 and disease-modifying therapies: a review of 873 published cases. J Clin Med. 2020;9(12):4067. Published 2020 Dec 16. doi:10.3390/jcm9124067
7. Sormani MP, De Rossi N, Schiavetti I, et al. Disease-modifying therapies and coronavirus disease 2019 severity in multiple sclerosis. Ann Neurol. 2021;89(4):780-789. doi:10.1002/ana.26028
8. Salter A, Fox RJ, Newsome SD, et al. Outcomes and risk factors associated with SARS-CoV-2 infection in a North American registry of patients with multiple sclerosis [published online ahead of print, 2021 Mar 19]. JAMA Neurol. 2021;10.1001/jamaneurol.2021.0688. doi:10.1001/jamaneurol.2021.0688
9. Walsh EE, Frenck RW Jr, Falsey AR, et al. Safety and immunogenicity of two RNA-based Covid-19 vaccine candidates. N Engl J Med. 2020;383(25):2439-2450. doi:10.1056/NEJMoa2027906
10. Polack FP, Thomas SJ, Kitchin N, et al. Safety and efficacy of the BNT162b2 mRNA Covid-19 vaccine. N Engl J Med. 2020;383(27):2603-2615. doi:10.1056/NEJMoa2034577
11. Jackson LA, Anderson EJ, Rouphael NG, et al. An mRNA vaccine against SARS-CoV-2 - preliminary Report. N Engl J Med. 2020;383(20):1920-1931. doi:10.1056/NEJMoa2022483
12. Anderson EJ, Rouphael NG, Widge AT, et al. Safety and immunogenicity of SARS-CoV-2 mRNA-1273 vaccine in older adults. N Engl J Med. 2020;383(25):2427-2438. doi:10.1056/NEJMoa2028436
13. Widge AT, Rouphael NG, Jackson LA, et al. Durability of responses after SARS-CoV-2 mRNA-1273 vaccination. N Engl J Med. 2021;384(1):80-82. doi:10.1056/NEJMc2032195
14. Baden LR, El Sahly HM, Essink B, et al. Efficacy and safety of the mRNA-1273 SARS-CoV-2 vaccine. N Engl J Med. 2021;384(5):403-416. doi:10.1056/NEJMoa2035389
15. Sadoff J, Le Gars M, Shukarev G, et al. Interim results of a phase 1-2a Trial of Ad26.COV2.S Covid-19 Vaccine [published online ahead of print, 2021 Jan 13]. N Engl J Med. 2021;NEJMoa2034201. doi:10.1056/NEJMoa2034201
16. Oliver SE, Gargano JW, Scobie H, et al. The Advisory Committee on Immunization Practices’ interim recommendation for use of Janssen COVID-19 vaccine - United States, February 2021. MMWR Morb Mortal Wkly Rep. 2021;70(9):329-332. Published 2021 Mar 5. doi:10.15585/mmwr.mm7009e4
17. US Centers for Disease Control and Prevention. COVID-19 vaccinations in the United States. Updated March 21, 2021. Accessed March 22, 2021. https://covid.cdc.gov/covid-data-tracker/#vaccinations
18. Gee J, Marquez P, Su J, et al. First month of COVID-19 vaccine safety monitoring - United States, December 14, 2020-January 13, 2021. MMWR Morb Mortal Wkly Rep. 2021;70(8):283-288. Published 2021 Feb 26. doi:10.15585/mmwr.mm7008e3
19. Achiron A, Dolev M, Menascu S, et al. COVID-19 vaccination in patients with multiple sclerosis: What we have learnt by February 2021 [published online ahead of print, 2021 Apr 15]. Mult Scler. 2021;13524585211003476. doi:10.1177/13524585211003476
20. Righi E, Gallo T, Azzini AM, et al. A review of vaccinations in adult patients with secondary immunodeficiency [published online ahead of print, 2021 Mar 9]. Infect Dis Ther. 2021;1-25. doi:10.1007/s40121-021-00404-y
21. Ciotti JR, Valtcheva MV, Cross AH. Effects of MS disease-modifying therapies on responses to vaccinations: A review. Mult Scler Relat Disord. 2020;45:102439. doi:10.1016/j.msard.2020.102439
22. National Multiple Sclerosis Society. COVID-19 vaccine guidance for people living with MS. Accessed March 22, 2021. https://www.nationalmssociety.org/coronavirus-covid-19-information/multiple-sclerosis-and-coronavirus/covid-19-vaccine-guidance
23. Farez MF, Correale J, Armstrong MJ, et al. Practice guideline update summary: vaccine-preventable infections and immunization in multiple sclerosis: report of the Guideline Development, Dissemination, and Implementation Subcommittee of the American Academy of Neurology. Neurology. 2019;93(13):584-594. doi:10.1212/WNL.0000000000008157
24. US Department of Veterans Affairs, Multiple Sclerosis Centers of Excellence. Coronavirus (COVID-19) and vaccine information. Updated February 25. 2021. Accessed March 9, 2021. https://www.va.gov/ms
25. World Health Organization. Ten threats to global health in 2019. Accessed March 18, 2021. https://www.who.int/news-room/spotlight/ten-threats-to-global-health-in-2019.
1. Centers for Disease Control and Prevention. Recommendation to pause use of Johnson & Johnson’s Janssen COVID-19 vaccine. Updated April 16, 2021. Accessed April 20, 2021. https://www.cdc.gov/coronavirus/2019-ncov/vaccines/safety/JJUpdate.html
2. World Health Organization. Naming the coronavirus disease (COVID-19) and the virus that causes it. Accessed March 9, 2021. https://www.who.int/emergencies/diseases/novel-coronavirus-2019/technical-guidance/naming-the-coronavirus-disease-(covid-2019)-and-the-virus-that-causes-it
3. US Food and Drug Administration. Pfizer-BioNTech COVID-19 vaccine. Updated February 3, 2021. Accessed March 22, 2021. https://www.fda.gov/emergency-preparedness-and-response/coronavirus-disease-2019-covid-19/pfizer-biontech-covid-19-vaccine
4. US Food and Drug Administration. Moderna COVID-19 vaccine. Updated February 3, 2021. Accessed March 22, 2021. https://www.fda.gov/emergency-preparedness-and-response/coronavirus-disease-2019-covid-19/moderna-covid-19-vaccine
5. US Food and Drug Administration. FDA issues emergency use authorization for third COVID-19 vaccine [press release]. Published February 27, 2021. Accessed March 22, 2021. https://www.fda.gov/news-events/press-announcements/fda-issues-emergency-use-authorization-third-covid-19-vaccine
6. Möhn N, Konen FF, Pul R, et al. Experience in multiple sclerosis patients with COVID-19 and disease-modifying therapies: a review of 873 published cases. J Clin Med. 2020;9(12):4067. Published 2020 Dec 16. doi:10.3390/jcm9124067
7. Sormani MP, De Rossi N, Schiavetti I, et al. Disease-modifying therapies and coronavirus disease 2019 severity in multiple sclerosis. Ann Neurol. 2021;89(4):780-789. doi:10.1002/ana.26028
8. Salter A, Fox RJ, Newsome SD, et al. Outcomes and risk factors associated with SARS-CoV-2 infection in a North American registry of patients with multiple sclerosis [published online ahead of print, 2021 Mar 19]. JAMA Neurol. 2021;10.1001/jamaneurol.2021.0688. doi:10.1001/jamaneurol.2021.0688
9. Walsh EE, Frenck RW Jr, Falsey AR, et al. Safety and immunogenicity of two RNA-based Covid-19 vaccine candidates. N Engl J Med. 2020;383(25):2439-2450. doi:10.1056/NEJMoa2027906
10. Polack FP, Thomas SJ, Kitchin N, et al. Safety and efficacy of the BNT162b2 mRNA Covid-19 vaccine. N Engl J Med. 2020;383(27):2603-2615. doi:10.1056/NEJMoa2034577
11. Jackson LA, Anderson EJ, Rouphael NG, et al. An mRNA vaccine against SARS-CoV-2 - preliminary Report. N Engl J Med. 2020;383(20):1920-1931. doi:10.1056/NEJMoa2022483
12. Anderson EJ, Rouphael NG, Widge AT, et al. Safety and immunogenicity of SARS-CoV-2 mRNA-1273 vaccine in older adults. N Engl J Med. 2020;383(25):2427-2438. doi:10.1056/NEJMoa2028436
13. Widge AT, Rouphael NG, Jackson LA, et al. Durability of responses after SARS-CoV-2 mRNA-1273 vaccination. N Engl J Med. 2021;384(1):80-82. doi:10.1056/NEJMc2032195
14. Baden LR, El Sahly HM, Essink B, et al. Efficacy and safety of the mRNA-1273 SARS-CoV-2 vaccine. N Engl J Med. 2021;384(5):403-416. doi:10.1056/NEJMoa2035389
15. Sadoff J, Le Gars M, Shukarev G, et al. Interim results of a phase 1-2a Trial of Ad26.COV2.S Covid-19 Vaccine [published online ahead of print, 2021 Jan 13]. N Engl J Med. 2021;NEJMoa2034201. doi:10.1056/NEJMoa2034201
16. Oliver SE, Gargano JW, Scobie H, et al. The Advisory Committee on Immunization Practices’ interim recommendation for use of Janssen COVID-19 vaccine - United States, February 2021. MMWR Morb Mortal Wkly Rep. 2021;70(9):329-332. Published 2021 Mar 5. doi:10.15585/mmwr.mm7009e4
17. US Centers for Disease Control and Prevention. COVID-19 vaccinations in the United States. Updated March 21, 2021. Accessed March 22, 2021. https://covid.cdc.gov/covid-data-tracker/#vaccinations
18. Gee J, Marquez P, Su J, et al. First month of COVID-19 vaccine safety monitoring - United States, December 14, 2020-January 13, 2021. MMWR Morb Mortal Wkly Rep. 2021;70(8):283-288. Published 2021 Feb 26. doi:10.15585/mmwr.mm7008e3
19. Achiron A, Dolev M, Menascu S, et al. COVID-19 vaccination in patients with multiple sclerosis: What we have learnt by February 2021 [published online ahead of print, 2021 Apr 15]. Mult Scler. 2021;13524585211003476. doi:10.1177/13524585211003476
20. Righi E, Gallo T, Azzini AM, et al. A review of vaccinations in adult patients with secondary immunodeficiency [published online ahead of print, 2021 Mar 9]. Infect Dis Ther. 2021;1-25. doi:10.1007/s40121-021-00404-y
21. Ciotti JR, Valtcheva MV, Cross AH. Effects of MS disease-modifying therapies on responses to vaccinations: A review. Mult Scler Relat Disord. 2020;45:102439. doi:10.1016/j.msard.2020.102439
22. National Multiple Sclerosis Society. COVID-19 vaccine guidance for people living with MS. Accessed March 22, 2021. https://www.nationalmssociety.org/coronavirus-covid-19-information/multiple-sclerosis-and-coronavirus/covid-19-vaccine-guidance
23. Farez MF, Correale J, Armstrong MJ, et al. Practice guideline update summary: vaccine-preventable infections and immunization in multiple sclerosis: report of the Guideline Development, Dissemination, and Implementation Subcommittee of the American Academy of Neurology. Neurology. 2019;93(13):584-594. doi:10.1212/WNL.0000000000008157
24. US Department of Veterans Affairs, Multiple Sclerosis Centers of Excellence. Coronavirus (COVID-19) and vaccine information. Updated February 25. 2021. Accessed March 9, 2021. https://www.va.gov/ms
25. World Health Organization. Ten threats to global health in 2019. Accessed March 18, 2021. https://www.who.int/news-room/spotlight/ten-threats-to-global-health-in-2019.
Quantifying Itch: Measurement on the Way to Management
Itch is one of the most protean manifestations of skin disease and can take a substantial physical and emotional toll on patients. For physicians, it is a frequent—if often dreaded—patient concern with a rising incidence. Lack of specific itch therapies as well as associations with multiple dermatologic conditions, including xerosis, psoriasis, atopic dermatitis, cutaneous lymphoma, contact dermatitis, and internal malignancies, make management of these itchy patients challenging and deserving of our attention. Studies evaluating patients with chronic pruritus identified a considerable impact on health-related quality of life, including development of depression, inability to perform activities of daily living, and sleep difficulties. 1
How to Classify Itching
Itch, or pruritus, originally was defined as an unpleasant sensation that provokes the desire to scratch,2 but this definition likely limits our ability to assess itch.
Pain is another complex subjective symptom but is one that has been better studied. A previous intensity theory postulated that itch is a form of pain: low-intensity noxious stimuli are perceived as itch, while high-intensity stimuli are perceived as pain. Over time, our understanding of itch evolved, and it became clear that a specific neuronal pathway for itch also exists.3 However, the pathophysiology of itch and pain remain intertwined. Scratching may elicit pain, providing a change in sensation that replaces the itch, whereas opioid analgesics suppress pain but may worsen the itch.
We are gaining a better understanding of the biology and classification of itch, which will hopefully enable the development of new measures to accurately assess itch. Four main categories of itch currently exist: neurogenic, psychogenic, neuropathic, and pruritoceptive.4 Patients may have one or multiple types of itch, which can be differentiated clinically and biochemically. Neurogenic (also known as systemic) itch is transmitted via the central nervous system with possible involvement of itch-specific neurons in the spinal cord and encompasses itch associated with pruritus from other organ systems. As the term implies, psychogenic itch is associated with psychiatric disorders. Neuropathic itch is generated from the inappropriate firing of peripheral or central sensory neurons in the absence of pruritogenic stimuli, which can be seen in notalgia paresthetica, brachioradial pruritus, and postherpetic neuralgia. Pruritoceptive itch most commonly is encountered in dermatology and is associated with skin inflammation or other dermatoses.4
How to Assess Itch Quantitatively
There currently are 2 major questions about quantitative assessments of itch. First, how do we measure itch in studies that are designed to relieve a different skin disease that is associated with itch? Most clinical trials investigating therapeutic options for atopic dermatitis and psoriasis now include itch assessment and improvement as a secondary outcome. Second, how do we measure itch in studies that are designed with relief of itch as the primary end point? Both of these scenarios require a fundamental set of decisions. Itch clearly is a subjective experience, but it also is one that can be local, regional, generalized, or transitory. Just as with pain, an individual can be distracted from their itch to some extent and consequently experience it more acutely when there are fewer stimuli in their environment. Classically, patients will report that itching is worse at night, preventing them from sleeping. Sleep disruption previously has been demonstrated.5 Of course, the environment also can exacerbate itch, as dry air and in some cases humidity can flare the sensation.
Fundamentally, therefore, the questions that are asked to assess itch are incredibly relevant, and there is a matrix of possible avenues of inquiry. Should you measure the peak itch in one area or the peak itch overall? Is the duration, the frequency, or the persistence of the itching most relevant? What is the correct time frame in which to do an assessment: the last 24 hours, the last 48 hours, or the last week? Because these parameters have been so challenging, most investigators have used a visual analog scale, similar to what is used to assess pain, at a 24-hour interval to decrease recall bias. The most commonly employed tool is the itch numeric rating scale (NRS), which asks patients to rate their symptoms on a scale of 0 (no itch) to 10 (worst imaginable itch). Although the psychometric properties of the itch NRS have been validated, debate still exists as to whether the itch NRS is best administered at a specific time of day or if it should be updated to evaluate peak pruritus scores explicitly. Regardless, implementing these scales often is time consuming and burdensome in the clinical trial setting, as participants are asked to complete daily diaries at the same time each day using either paper forms or electronic tablets.
Once scores are collected, we then need to quantitate a meaningful difference in itch. For pain, there has been some acceptance of a 30% difference, or a 2-point reduction, as being clinically meaningful; however, there was substantial debate at the time of the approval of ixekizumab as to whether that was a similarly appropriate threshold for itch. Using data from ixekizumab phase 2 and phase 3 trials, a 4-point reduction in itch NRS was found to be optimal for evaluating clinically significant changes in moderate to severe psoriasis.6 A more recent study of the validity of the itch NRS in prurigo nodularis suggested a 1-point change was correlated with minimal clinical improvement.7 Thus, the interesting question of how assessment of itch varies across clinical trials and disease states needs to be raised. Psoriasis classically has been thought of as not particularly itchy, and atopic dermatitis and prurigo nodularis have been regarded as extraordinarily itchy, yet one study comparing baseline itch scores in psoriasis and atopic dermatitis suggested that the experience actually is somewhat similar.8
Final Thoughts
The subjective nature of itch makes NRSs our best option at this time, but the best disease severity assessment tools are objective, sensitive, and generalizable. Unfortunately, we do not have such tools available to us yet, but technology—smart devices to monitor nocturnal scratching and machine learning algorithms that use electromagnetic impact to capture motion associated with itching and scratching9—may offer new objective measures for itch that can be used to further validate the current itch NRS. Even if these technology-based approaches become the standard of measurement, they will certainly help us understand what we are measuring. And even better, the focus on how to develop meaningful end points around the improvement of itch will likely lead us to measure it more and drive the development of therapeutics that address the effect and consequences of this pernicious problem.
- Kini SP, DeLong LK, Veledar E, et al. The impact of pruritus on quality of life: the skin equivalent of pain. Arch Dermatol. 2011;147:1153-1156. doi:10.1001/archdermatol.2011.178
- Savin JA. How should we define itching? J Am Acad Dermatol. 1998;39(2 pt 1):268-269. doi:10.1016/s0190-9622(98)70087-8
- Ikoma A, Rukwied R, Ständer S, et al. Neurophysiology of pruritus: interaction of itch and pain. Arch Dermatol. 2003;139:1475-1478. doi:10.1001/archderm.139.11.1475
- Garibyan L, Rheingold CG, Lerner EA. Understanding the pathophysiology of itch. Dermatol Ther. 2013;26:84-91. doi:10.1111/dth.12025
- Kimball AB, Luger T, Gottlieb A, et al. Impact of ixekizumab on psoriasis itch severity and other psoriasis symptoms: results from 3 phase III psoriasis clinical trials. J Am Acad Dermatol. 2016;75:1156-1161. doi:10.1016/j.jaad.2016.07.034
- Kimball AB, Naegeli AN, Edson-Heredia E, et al. Psychometric properties of the Itch Numeric Rating Scale in patients with moderate-to-severe plaque psoriasis. Br J Dermatol. 2016;175:157-162. doi:10.1111/bjd.14464
- Kimel M, Zeidler C, Kwon P, et al. validation of psychometric properties of the itch numeric rating scale for pruritus associated with prurigo nodularis: a secondary analysis of a randomized clinical trial. JAMA Dermatol. 2020;156:1354-1358. doi:10.1001/jamadermatol.2020.3071
- Shahwan KT, Kimball AB. Itch intensity in moderate-to-severe plaque psoriasis versus atopic dermatitis: a meta-analysis. J Am Acad Dermatol. 2017;76:1198.el-1200.e1. doi:10.1016/j.jaad.2017.02.002
- Smith MP, Ly K, Thibodeaux Q, et al. Emerging methods to objectively assess pruritus in atopic dermatitis. Dermatol Ther (Heidelb). 2019;9:407-420. doi:10.1007/s13555-019-0312-3
Itch is one of the most protean manifestations of skin disease and can take a substantial physical and emotional toll on patients. For physicians, it is a frequent—if often dreaded—patient concern with a rising incidence. Lack of specific itch therapies as well as associations with multiple dermatologic conditions, including xerosis, psoriasis, atopic dermatitis, cutaneous lymphoma, contact dermatitis, and internal malignancies, make management of these itchy patients challenging and deserving of our attention. Studies evaluating patients with chronic pruritus identified a considerable impact on health-related quality of life, including development of depression, inability to perform activities of daily living, and sleep difficulties. 1
How to Classify Itching
Itch, or pruritus, originally was defined as an unpleasant sensation that provokes the desire to scratch,2 but this definition likely limits our ability to assess itch.
Pain is another complex subjective symptom but is one that has been better studied. A previous intensity theory postulated that itch is a form of pain: low-intensity noxious stimuli are perceived as itch, while high-intensity stimuli are perceived as pain. Over time, our understanding of itch evolved, and it became clear that a specific neuronal pathway for itch also exists.3 However, the pathophysiology of itch and pain remain intertwined. Scratching may elicit pain, providing a change in sensation that replaces the itch, whereas opioid analgesics suppress pain but may worsen the itch.
We are gaining a better understanding of the biology and classification of itch, which will hopefully enable the development of new measures to accurately assess itch. Four main categories of itch currently exist: neurogenic, psychogenic, neuropathic, and pruritoceptive.4 Patients may have one or multiple types of itch, which can be differentiated clinically and biochemically. Neurogenic (also known as systemic) itch is transmitted via the central nervous system with possible involvement of itch-specific neurons in the spinal cord and encompasses itch associated with pruritus from other organ systems. As the term implies, psychogenic itch is associated with psychiatric disorders. Neuropathic itch is generated from the inappropriate firing of peripheral or central sensory neurons in the absence of pruritogenic stimuli, which can be seen in notalgia paresthetica, brachioradial pruritus, and postherpetic neuralgia. Pruritoceptive itch most commonly is encountered in dermatology and is associated with skin inflammation or other dermatoses.4
How to Assess Itch Quantitatively
There currently are 2 major questions about quantitative assessments of itch. First, how do we measure itch in studies that are designed to relieve a different skin disease that is associated with itch? Most clinical trials investigating therapeutic options for atopic dermatitis and psoriasis now include itch assessment and improvement as a secondary outcome. Second, how do we measure itch in studies that are designed with relief of itch as the primary end point? Both of these scenarios require a fundamental set of decisions. Itch clearly is a subjective experience, but it also is one that can be local, regional, generalized, or transitory. Just as with pain, an individual can be distracted from their itch to some extent and consequently experience it more acutely when there are fewer stimuli in their environment. Classically, patients will report that itching is worse at night, preventing them from sleeping. Sleep disruption previously has been demonstrated.5 Of course, the environment also can exacerbate itch, as dry air and in some cases humidity can flare the sensation.
Fundamentally, therefore, the questions that are asked to assess itch are incredibly relevant, and there is a matrix of possible avenues of inquiry. Should you measure the peak itch in one area or the peak itch overall? Is the duration, the frequency, or the persistence of the itching most relevant? What is the correct time frame in which to do an assessment: the last 24 hours, the last 48 hours, or the last week? Because these parameters have been so challenging, most investigators have used a visual analog scale, similar to what is used to assess pain, at a 24-hour interval to decrease recall bias. The most commonly employed tool is the itch numeric rating scale (NRS), which asks patients to rate their symptoms on a scale of 0 (no itch) to 10 (worst imaginable itch). Although the psychometric properties of the itch NRS have been validated, debate still exists as to whether the itch NRS is best administered at a specific time of day or if it should be updated to evaluate peak pruritus scores explicitly. Regardless, implementing these scales often is time consuming and burdensome in the clinical trial setting, as participants are asked to complete daily diaries at the same time each day using either paper forms or electronic tablets.
Once scores are collected, we then need to quantitate a meaningful difference in itch. For pain, there has been some acceptance of a 30% difference, or a 2-point reduction, as being clinically meaningful; however, there was substantial debate at the time of the approval of ixekizumab as to whether that was a similarly appropriate threshold for itch. Using data from ixekizumab phase 2 and phase 3 trials, a 4-point reduction in itch NRS was found to be optimal for evaluating clinically significant changes in moderate to severe psoriasis.6 A more recent study of the validity of the itch NRS in prurigo nodularis suggested a 1-point change was correlated with minimal clinical improvement.7 Thus, the interesting question of how assessment of itch varies across clinical trials and disease states needs to be raised. Psoriasis classically has been thought of as not particularly itchy, and atopic dermatitis and prurigo nodularis have been regarded as extraordinarily itchy, yet one study comparing baseline itch scores in psoriasis and atopic dermatitis suggested that the experience actually is somewhat similar.8
Final Thoughts
The subjective nature of itch makes NRSs our best option at this time, but the best disease severity assessment tools are objective, sensitive, and generalizable. Unfortunately, we do not have such tools available to us yet, but technology—smart devices to monitor nocturnal scratching and machine learning algorithms that use electromagnetic impact to capture motion associated with itching and scratching9—may offer new objective measures for itch that can be used to further validate the current itch NRS. Even if these technology-based approaches become the standard of measurement, they will certainly help us understand what we are measuring. And even better, the focus on how to develop meaningful end points around the improvement of itch will likely lead us to measure it more and drive the development of therapeutics that address the effect and consequences of this pernicious problem.
Itch is one of the most protean manifestations of skin disease and can take a substantial physical and emotional toll on patients. For physicians, it is a frequent—if often dreaded—patient concern with a rising incidence. Lack of specific itch therapies as well as associations with multiple dermatologic conditions, including xerosis, psoriasis, atopic dermatitis, cutaneous lymphoma, contact dermatitis, and internal malignancies, make management of these itchy patients challenging and deserving of our attention. Studies evaluating patients with chronic pruritus identified a considerable impact on health-related quality of life, including development of depression, inability to perform activities of daily living, and sleep difficulties. 1
How to Classify Itching
Itch, or pruritus, originally was defined as an unpleasant sensation that provokes the desire to scratch,2 but this definition likely limits our ability to assess itch.
Pain is another complex subjective symptom but is one that has been better studied. A previous intensity theory postulated that itch is a form of pain: low-intensity noxious stimuli are perceived as itch, while high-intensity stimuli are perceived as pain. Over time, our understanding of itch evolved, and it became clear that a specific neuronal pathway for itch also exists.3 However, the pathophysiology of itch and pain remain intertwined. Scratching may elicit pain, providing a change in sensation that replaces the itch, whereas opioid analgesics suppress pain but may worsen the itch.
We are gaining a better understanding of the biology and classification of itch, which will hopefully enable the development of new measures to accurately assess itch. Four main categories of itch currently exist: neurogenic, psychogenic, neuropathic, and pruritoceptive.4 Patients may have one or multiple types of itch, which can be differentiated clinically and biochemically. Neurogenic (also known as systemic) itch is transmitted via the central nervous system with possible involvement of itch-specific neurons in the spinal cord and encompasses itch associated with pruritus from other organ systems. As the term implies, psychogenic itch is associated with psychiatric disorders. Neuropathic itch is generated from the inappropriate firing of peripheral or central sensory neurons in the absence of pruritogenic stimuli, which can be seen in notalgia paresthetica, brachioradial pruritus, and postherpetic neuralgia. Pruritoceptive itch most commonly is encountered in dermatology and is associated with skin inflammation or other dermatoses.4
How to Assess Itch Quantitatively
There currently are 2 major questions about quantitative assessments of itch. First, how do we measure itch in studies that are designed to relieve a different skin disease that is associated with itch? Most clinical trials investigating therapeutic options for atopic dermatitis and psoriasis now include itch assessment and improvement as a secondary outcome. Second, how do we measure itch in studies that are designed with relief of itch as the primary end point? Both of these scenarios require a fundamental set of decisions. Itch clearly is a subjective experience, but it also is one that can be local, regional, generalized, or transitory. Just as with pain, an individual can be distracted from their itch to some extent and consequently experience it more acutely when there are fewer stimuli in their environment. Classically, patients will report that itching is worse at night, preventing them from sleeping. Sleep disruption previously has been demonstrated.5 Of course, the environment also can exacerbate itch, as dry air and in some cases humidity can flare the sensation.
Fundamentally, therefore, the questions that are asked to assess itch are incredibly relevant, and there is a matrix of possible avenues of inquiry. Should you measure the peak itch in one area or the peak itch overall? Is the duration, the frequency, or the persistence of the itching most relevant? What is the correct time frame in which to do an assessment: the last 24 hours, the last 48 hours, or the last week? Because these parameters have been so challenging, most investigators have used a visual analog scale, similar to what is used to assess pain, at a 24-hour interval to decrease recall bias. The most commonly employed tool is the itch numeric rating scale (NRS), which asks patients to rate their symptoms on a scale of 0 (no itch) to 10 (worst imaginable itch). Although the psychometric properties of the itch NRS have been validated, debate still exists as to whether the itch NRS is best administered at a specific time of day or if it should be updated to evaluate peak pruritus scores explicitly. Regardless, implementing these scales often is time consuming and burdensome in the clinical trial setting, as participants are asked to complete daily diaries at the same time each day using either paper forms or electronic tablets.
Once scores are collected, we then need to quantitate a meaningful difference in itch. For pain, there has been some acceptance of a 30% difference, or a 2-point reduction, as being clinically meaningful; however, there was substantial debate at the time of the approval of ixekizumab as to whether that was a similarly appropriate threshold for itch. Using data from ixekizumab phase 2 and phase 3 trials, a 4-point reduction in itch NRS was found to be optimal for evaluating clinically significant changes in moderate to severe psoriasis.6 A more recent study of the validity of the itch NRS in prurigo nodularis suggested a 1-point change was correlated with minimal clinical improvement.7 Thus, the interesting question of how assessment of itch varies across clinical trials and disease states needs to be raised. Psoriasis classically has been thought of as not particularly itchy, and atopic dermatitis and prurigo nodularis have been regarded as extraordinarily itchy, yet one study comparing baseline itch scores in psoriasis and atopic dermatitis suggested that the experience actually is somewhat similar.8
Final Thoughts
The subjective nature of itch makes NRSs our best option at this time, but the best disease severity assessment tools are objective, sensitive, and generalizable. Unfortunately, we do not have such tools available to us yet, but technology—smart devices to monitor nocturnal scratching and machine learning algorithms that use electromagnetic impact to capture motion associated with itching and scratching9—may offer new objective measures for itch that can be used to further validate the current itch NRS. Even if these technology-based approaches become the standard of measurement, they will certainly help us understand what we are measuring. And even better, the focus on how to develop meaningful end points around the improvement of itch will likely lead us to measure it more and drive the development of therapeutics that address the effect and consequences of this pernicious problem.
- Kini SP, DeLong LK, Veledar E, et al. The impact of pruritus on quality of life: the skin equivalent of pain. Arch Dermatol. 2011;147:1153-1156. doi:10.1001/archdermatol.2011.178
- Savin JA. How should we define itching? J Am Acad Dermatol. 1998;39(2 pt 1):268-269. doi:10.1016/s0190-9622(98)70087-8
- Ikoma A, Rukwied R, Ständer S, et al. Neurophysiology of pruritus: interaction of itch and pain. Arch Dermatol. 2003;139:1475-1478. doi:10.1001/archderm.139.11.1475
- Garibyan L, Rheingold CG, Lerner EA. Understanding the pathophysiology of itch. Dermatol Ther. 2013;26:84-91. doi:10.1111/dth.12025
- Kimball AB, Luger T, Gottlieb A, et al. Impact of ixekizumab on psoriasis itch severity and other psoriasis symptoms: results from 3 phase III psoriasis clinical trials. J Am Acad Dermatol. 2016;75:1156-1161. doi:10.1016/j.jaad.2016.07.034
- Kimball AB, Naegeli AN, Edson-Heredia E, et al. Psychometric properties of the Itch Numeric Rating Scale in patients with moderate-to-severe plaque psoriasis. Br J Dermatol. 2016;175:157-162. doi:10.1111/bjd.14464
- Kimel M, Zeidler C, Kwon P, et al. validation of psychometric properties of the itch numeric rating scale for pruritus associated with prurigo nodularis: a secondary analysis of a randomized clinical trial. JAMA Dermatol. 2020;156:1354-1358. doi:10.1001/jamadermatol.2020.3071
- Shahwan KT, Kimball AB. Itch intensity in moderate-to-severe plaque psoriasis versus atopic dermatitis: a meta-analysis. J Am Acad Dermatol. 2017;76:1198.el-1200.e1. doi:10.1016/j.jaad.2017.02.002
- Smith MP, Ly K, Thibodeaux Q, et al. Emerging methods to objectively assess pruritus in atopic dermatitis. Dermatol Ther (Heidelb). 2019;9:407-420. doi:10.1007/s13555-019-0312-3
- Kini SP, DeLong LK, Veledar E, et al. The impact of pruritus on quality of life: the skin equivalent of pain. Arch Dermatol. 2011;147:1153-1156. doi:10.1001/archdermatol.2011.178
- Savin JA. How should we define itching? J Am Acad Dermatol. 1998;39(2 pt 1):268-269. doi:10.1016/s0190-9622(98)70087-8
- Ikoma A, Rukwied R, Ständer S, et al. Neurophysiology of pruritus: interaction of itch and pain. Arch Dermatol. 2003;139:1475-1478. doi:10.1001/archderm.139.11.1475
- Garibyan L, Rheingold CG, Lerner EA. Understanding the pathophysiology of itch. Dermatol Ther. 2013;26:84-91. doi:10.1111/dth.12025
- Kimball AB, Luger T, Gottlieb A, et al. Impact of ixekizumab on psoriasis itch severity and other psoriasis symptoms: results from 3 phase III psoriasis clinical trials. J Am Acad Dermatol. 2016;75:1156-1161. doi:10.1016/j.jaad.2016.07.034
- Kimball AB, Naegeli AN, Edson-Heredia E, et al. Psychometric properties of the Itch Numeric Rating Scale in patients with moderate-to-severe plaque psoriasis. Br J Dermatol. 2016;175:157-162. doi:10.1111/bjd.14464
- Kimel M, Zeidler C, Kwon P, et al. validation of psychometric properties of the itch numeric rating scale for pruritus associated with prurigo nodularis: a secondary analysis of a randomized clinical trial. JAMA Dermatol. 2020;156:1354-1358. doi:10.1001/jamadermatol.2020.3071
- Shahwan KT, Kimball AB. Itch intensity in moderate-to-severe plaque psoriasis versus atopic dermatitis: a meta-analysis. J Am Acad Dermatol. 2017;76:1198.el-1200.e1. doi:10.1016/j.jaad.2017.02.002
- Smith MP, Ly K, Thibodeaux Q, et al. Emerging methods to objectively assess pruritus in atopic dermatitis. Dermatol Ther (Heidelb). 2019;9:407-420. doi:10.1007/s13555-019-0312-3
Reflections on George Floyd, Derek Chauvin, and racism in America
Exhaustion, numbness, dissociation, and most notably, anger are my emotional response when viewing the video of George Floyd’s death. The homicide trial of former Minneapolis police officer Derek Chauvin activates the shared stress of those who experienced intergenerational trauma and the legacy of racism in the United States of America.
On May 25, 2020, Mr. Floyd died after Derek Chauvin used a lethal maneuver and placed his knee on Mr. Floyd’s neck for 9 minutes and 29 seconds. Mr. Floyd has died physically, but his death is replayed through high-definition social media daily, if not hourly, as I write this article and think of the generational legacy of trauma that African Americans must cope with on an everyday basis. I struggle daily to explain this legacy to my daughters, students, residents, and colleagues. I hope to share with you some of my perspectives on the current trial and give you some insight as to how my training and personal life experience have affected my views on police brutality and the use of lethal force toward African American men.
My earliest recollection of public video-recorded images of police brutality occurred when Rodney King was beaten and assaulted by the Los Angeles Police Department on March 3, 1991. At that time, I was a senior in high school, and the world was different. My clear expectation was that any attempt to resist police arrest would be met with overwhelming and potentially lethal force. This was simply a matter of my daily reality, so, while witnessing the assault of Mr. King, the 17-year-old child didn’t expect much, if any, real change to come about in regard to police brutality. At that time, my mother kept me focused on one singular goal – becoming a physician – and protected me as best she could from the effects of intergenerational trauma woven into the African American experience.
The issue of police brutality and police-involved deaths has been recognized as a significant public health concern for some time. Over the 3 decades since the assault on Mr. King, several researchers have examined these issues. A review of all the research is beyond the scope of this opinion piece. Still, I will highlight a study that I believe illustrates some conclusions scholars have come to regarding police use of lethal force and subsequent mortality in African American men. A recent study by Frank Edwards, PhD, and colleagues, published in the Proceedings of the National Academy of Sciences, showed that Black men were 2.5 times more likely to be killed by police over their life course than White men.
The researchers also developed predictive models that about 1 in 1,000 Black men and boys will be killed by police over their life course, and that among all age groups Black men and boys face the highest lifetime risk. The authors concluded that “Our analysis shows that the risk of being killed by police is jointly patterned by one’s race, gender, and age. Police violence is a leading cause of death for young men, and young men of color face an exceptionally high risk of being killed by police. Inequalities in risk are pronounced throughout the life course. This study reinforces calls to treat police violence as a public health issue.”
Research such as this helps validate on a visceral level what I already was taught: “As a Black male, encounters with police can quickly become deadly, and you must remain calm, or you could die.” This thought process informed much of my thinking whenever I heard about a Black male being fatally shot by police. My first response was to ask, “Was he resisting arrest?” At this time, my naive impression was that “if you don’t resist or conflict, you’ll live.” It wasn’t until my training in psychiatry that I realized that the duty to calm, support, and most importantly, protect was the responsibility of the person who is given the trust of the public. As a psychiatrist, I am humbled by the trust the public places in physicians to restrain patients and take part in their involuntary hospitalizations. Over the years, I learned from my attending physicians, colleagues in security, social work, nursing, assertive community treatment (ACT) teams, and many other allied health professions that the responsibility to show restraint, calm, and compassion lies with those who have the power and trust of the public.
Mostly, I learned from my patients. They taught me to meet distress with compassion and humanity and not simply with force. With those lessons in mind, I now fast forward to July 17, 2014, and the death of Eric Garner. On July 17, New York Police Department officers approached Mr. Garner on the suspicion that he was selling loose cigarettes. Amid this encounter, Mr. Garner was subjected to a chokehold, and his face was pinned to the ground while he can be heard saying, “I can’t breathe.” At this time in my professional career, I had just become a dean of student affairs at the George Washington School of Medicine and Health Sciences. I can still remember the response of my minority students, and the sense of pain and anguish they felt watching the video of a chokehold being used on a man stating, “I can’t breathe.” At this point, my training would not allow me to see this as anything other than an unnecessary use of lethal force that would subsequently be ruled a homicide. I hoped that we as a nation had reached a “reckoning “ because of Mr. Garner’s death and Michael Brown Jr.’s subsequent death in Ferguson, Mo., in St. Louis County, on Aug. 9, 2014. I hoped we were ready to finally address police brutality and excessive use of force that had disproportionately affected Black men. I was utterly wrong. Black men such as Alton Sterling, Jamar Clark, and many others would die in fatal police encounters. So would Tamir Rice, who was 12 years old when he was shot and killed by a police officer.
This brings me back to the death of Mr. Floyd. As I listened to the witnesses’ testimony, it triggered an emotional response from sadness, fear, shock, but mostly anger. Some would consider it progress that the Minneapolis Police Department’s top homicide detective testified that kneeling on Mr. Floyd’s neck after he had been restrained was “unnecessary.” The officer stated, “If your knee is on someone’s neck, that could kill him.” While I acknowledge this is a form of progress, we must ultimately address the other “substantial causal factor of death” for Mr. Floyd. Namely, the systemic racism present in a criminal justice system in the form of policies and procedures that allow for continued racial disparities and inequities.
There will be coverage of the court proceedings and a detailed dissection of the legal arguments. Questions regarding Mr. Floyd’s physical health and struggle with opiate use disorder will be raised by the defense. The debate about the substantial causal factor will be played out in the court and the media. Ultimately, we, as health professionals, need to ask ourselves, “Who has the power and the duty to do no harm?”
Dr. Norris is associate dean of student affairs and administration at George Washington University, Washington. He has no disclosures.
Exhaustion, numbness, dissociation, and most notably, anger are my emotional response when viewing the video of George Floyd’s death. The homicide trial of former Minneapolis police officer Derek Chauvin activates the shared stress of those who experienced intergenerational trauma and the legacy of racism in the United States of America.
On May 25, 2020, Mr. Floyd died after Derek Chauvin used a lethal maneuver and placed his knee on Mr. Floyd’s neck for 9 minutes and 29 seconds. Mr. Floyd has died physically, but his death is replayed through high-definition social media daily, if not hourly, as I write this article and think of the generational legacy of trauma that African Americans must cope with on an everyday basis. I struggle daily to explain this legacy to my daughters, students, residents, and colleagues. I hope to share with you some of my perspectives on the current trial and give you some insight as to how my training and personal life experience have affected my views on police brutality and the use of lethal force toward African American men.
My earliest recollection of public video-recorded images of police brutality occurred when Rodney King was beaten and assaulted by the Los Angeles Police Department on March 3, 1991. At that time, I was a senior in high school, and the world was different. My clear expectation was that any attempt to resist police arrest would be met with overwhelming and potentially lethal force. This was simply a matter of my daily reality, so, while witnessing the assault of Mr. King, the 17-year-old child didn’t expect much, if any, real change to come about in regard to police brutality. At that time, my mother kept me focused on one singular goal – becoming a physician – and protected me as best she could from the effects of intergenerational trauma woven into the African American experience.
The issue of police brutality and police-involved deaths has been recognized as a significant public health concern for some time. Over the 3 decades since the assault on Mr. King, several researchers have examined these issues. A review of all the research is beyond the scope of this opinion piece. Still, I will highlight a study that I believe illustrates some conclusions scholars have come to regarding police use of lethal force and subsequent mortality in African American men. A recent study by Frank Edwards, PhD, and colleagues, published in the Proceedings of the National Academy of Sciences, showed that Black men were 2.5 times more likely to be killed by police over their life course than White men.
The researchers also developed predictive models that about 1 in 1,000 Black men and boys will be killed by police over their life course, and that among all age groups Black men and boys face the highest lifetime risk. The authors concluded that “Our analysis shows that the risk of being killed by police is jointly patterned by one’s race, gender, and age. Police violence is a leading cause of death for young men, and young men of color face an exceptionally high risk of being killed by police. Inequalities in risk are pronounced throughout the life course. This study reinforces calls to treat police violence as a public health issue.”
Research such as this helps validate on a visceral level what I already was taught: “As a Black male, encounters with police can quickly become deadly, and you must remain calm, or you could die.” This thought process informed much of my thinking whenever I heard about a Black male being fatally shot by police. My first response was to ask, “Was he resisting arrest?” At this time, my naive impression was that “if you don’t resist or conflict, you’ll live.” It wasn’t until my training in psychiatry that I realized that the duty to calm, support, and most importantly, protect was the responsibility of the person who is given the trust of the public. As a psychiatrist, I am humbled by the trust the public places in physicians to restrain patients and take part in their involuntary hospitalizations. Over the years, I learned from my attending physicians, colleagues in security, social work, nursing, assertive community treatment (ACT) teams, and many other allied health professions that the responsibility to show restraint, calm, and compassion lies with those who have the power and trust of the public.
Mostly, I learned from my patients. They taught me to meet distress with compassion and humanity and not simply with force. With those lessons in mind, I now fast forward to July 17, 2014, and the death of Eric Garner. On July 17, New York Police Department officers approached Mr. Garner on the suspicion that he was selling loose cigarettes. Amid this encounter, Mr. Garner was subjected to a chokehold, and his face was pinned to the ground while he can be heard saying, “I can’t breathe.” At this time in my professional career, I had just become a dean of student affairs at the George Washington School of Medicine and Health Sciences. I can still remember the response of my minority students, and the sense of pain and anguish they felt watching the video of a chokehold being used on a man stating, “I can’t breathe.” At this point, my training would not allow me to see this as anything other than an unnecessary use of lethal force that would subsequently be ruled a homicide. I hoped that we as a nation had reached a “reckoning “ because of Mr. Garner’s death and Michael Brown Jr.’s subsequent death in Ferguson, Mo., in St. Louis County, on Aug. 9, 2014. I hoped we were ready to finally address police brutality and excessive use of force that had disproportionately affected Black men. I was utterly wrong. Black men such as Alton Sterling, Jamar Clark, and many others would die in fatal police encounters. So would Tamir Rice, who was 12 years old when he was shot and killed by a police officer.
This brings me back to the death of Mr. Floyd. As I listened to the witnesses’ testimony, it triggered an emotional response from sadness, fear, shock, but mostly anger. Some would consider it progress that the Minneapolis Police Department’s top homicide detective testified that kneeling on Mr. Floyd’s neck after he had been restrained was “unnecessary.” The officer stated, “If your knee is on someone’s neck, that could kill him.” While I acknowledge this is a form of progress, we must ultimately address the other “substantial causal factor of death” for Mr. Floyd. Namely, the systemic racism present in a criminal justice system in the form of policies and procedures that allow for continued racial disparities and inequities.
There will be coverage of the court proceedings and a detailed dissection of the legal arguments. Questions regarding Mr. Floyd’s physical health and struggle with opiate use disorder will be raised by the defense. The debate about the substantial causal factor will be played out in the court and the media. Ultimately, we, as health professionals, need to ask ourselves, “Who has the power and the duty to do no harm?”
Dr. Norris is associate dean of student affairs and administration at George Washington University, Washington. He has no disclosures.
Exhaustion, numbness, dissociation, and most notably, anger are my emotional response when viewing the video of George Floyd’s death. The homicide trial of former Minneapolis police officer Derek Chauvin activates the shared stress of those who experienced intergenerational trauma and the legacy of racism in the United States of America.
On May 25, 2020, Mr. Floyd died after Derek Chauvin used a lethal maneuver and placed his knee on Mr. Floyd’s neck for 9 minutes and 29 seconds. Mr. Floyd has died physically, but his death is replayed through high-definition social media daily, if not hourly, as I write this article and think of the generational legacy of trauma that African Americans must cope with on an everyday basis. I struggle daily to explain this legacy to my daughters, students, residents, and colleagues. I hope to share with you some of my perspectives on the current trial and give you some insight as to how my training and personal life experience have affected my views on police brutality and the use of lethal force toward African American men.
My earliest recollection of public video-recorded images of police brutality occurred when Rodney King was beaten and assaulted by the Los Angeles Police Department on March 3, 1991. At that time, I was a senior in high school, and the world was different. My clear expectation was that any attempt to resist police arrest would be met with overwhelming and potentially lethal force. This was simply a matter of my daily reality, so, while witnessing the assault of Mr. King, the 17-year-old child didn’t expect much, if any, real change to come about in regard to police brutality. At that time, my mother kept me focused on one singular goal – becoming a physician – and protected me as best she could from the effects of intergenerational trauma woven into the African American experience.
The issue of police brutality and police-involved deaths has been recognized as a significant public health concern for some time. Over the 3 decades since the assault on Mr. King, several researchers have examined these issues. A review of all the research is beyond the scope of this opinion piece. Still, I will highlight a study that I believe illustrates some conclusions scholars have come to regarding police use of lethal force and subsequent mortality in African American men. A recent study by Frank Edwards, PhD, and colleagues, published in the Proceedings of the National Academy of Sciences, showed that Black men were 2.5 times more likely to be killed by police over their life course than White men.
The researchers also developed predictive models that about 1 in 1,000 Black men and boys will be killed by police over their life course, and that among all age groups Black men and boys face the highest lifetime risk. The authors concluded that “Our analysis shows that the risk of being killed by police is jointly patterned by one’s race, gender, and age. Police violence is a leading cause of death for young men, and young men of color face an exceptionally high risk of being killed by police. Inequalities in risk are pronounced throughout the life course. This study reinforces calls to treat police violence as a public health issue.”
Research such as this helps validate on a visceral level what I already was taught: “As a Black male, encounters with police can quickly become deadly, and you must remain calm, or you could die.” This thought process informed much of my thinking whenever I heard about a Black male being fatally shot by police. My first response was to ask, “Was he resisting arrest?” At this time, my naive impression was that “if you don’t resist or conflict, you’ll live.” It wasn’t until my training in psychiatry that I realized that the duty to calm, support, and most importantly, protect was the responsibility of the person who is given the trust of the public. As a psychiatrist, I am humbled by the trust the public places in physicians to restrain patients and take part in their involuntary hospitalizations. Over the years, I learned from my attending physicians, colleagues in security, social work, nursing, assertive community treatment (ACT) teams, and many other allied health professions that the responsibility to show restraint, calm, and compassion lies with those who have the power and trust of the public.
Mostly, I learned from my patients. They taught me to meet distress with compassion and humanity and not simply with force. With those lessons in mind, I now fast forward to July 17, 2014, and the death of Eric Garner. On July 17, New York Police Department officers approached Mr. Garner on the suspicion that he was selling loose cigarettes. Amid this encounter, Mr. Garner was subjected to a chokehold, and his face was pinned to the ground while he can be heard saying, “I can’t breathe.” At this time in my professional career, I had just become a dean of student affairs at the George Washington School of Medicine and Health Sciences. I can still remember the response of my minority students, and the sense of pain and anguish they felt watching the video of a chokehold being used on a man stating, “I can’t breathe.” At this point, my training would not allow me to see this as anything other than an unnecessary use of lethal force that would subsequently be ruled a homicide. I hoped that we as a nation had reached a “reckoning “ because of Mr. Garner’s death and Michael Brown Jr.’s subsequent death in Ferguson, Mo., in St. Louis County, on Aug. 9, 2014. I hoped we were ready to finally address police brutality and excessive use of force that had disproportionately affected Black men. I was utterly wrong. Black men such as Alton Sterling, Jamar Clark, and many others would die in fatal police encounters. So would Tamir Rice, who was 12 years old when he was shot and killed by a police officer.
This brings me back to the death of Mr. Floyd. As I listened to the witnesses’ testimony, it triggered an emotional response from sadness, fear, shock, but mostly anger. Some would consider it progress that the Minneapolis Police Department’s top homicide detective testified that kneeling on Mr. Floyd’s neck after he had been restrained was “unnecessary.” The officer stated, “If your knee is on someone’s neck, that could kill him.” While I acknowledge this is a form of progress, we must ultimately address the other “substantial causal factor of death” for Mr. Floyd. Namely, the systemic racism present in a criminal justice system in the form of policies and procedures that allow for continued racial disparities and inequities.
There will be coverage of the court proceedings and a detailed dissection of the legal arguments. Questions regarding Mr. Floyd’s physical health and struggle with opiate use disorder will be raised by the defense. The debate about the substantial causal factor will be played out in the court and the media. Ultimately, we, as health professionals, need to ask ourselves, “Who has the power and the duty to do no harm?”
Dr. Norris is associate dean of student affairs and administration at George Washington University, Washington. He has no disclosures.
Autism Acceptance Month: Raising awareness and closing the diagnosis gap
April is National Autism Awareness Month, and April 2 is World Autism Awareness Day. In the United States, there appears to be a heightened level of awareness of this condition over the past 10-15 years that has helped reduced its stigma, improve early identification, and (most importantly) increase access to early interventions for children and families.
The most recent prevalence estimates of autism in children in the United States is 1 in 54. This is a 10% increase since 2014 (1 in 59). Those most recent Centers for Disease Control and Prevention surveillance reports also point to a reduction in the racial gap between Black and White children when it comes to diagnosis.1 Across the globe, there are more than 100 autism societies, and research designed to improve prevalence data in lower- to middle-income countries has also increased.2
Even with these recent encouraging numbers regarding identification of autism in historically underrepresented groups in the United States, there are still differences among those groups, compared with children who are socioeconomically well-off, White, or live in large urban areas.3 Specifically, Latinx children were documented to be identified with autism at lower rates, compared with Whites and Blacks. In addition, Black and Latinx children are still diagnosed at a later age, compared with White children. This is important to note because historically, Black and Latinx children have been diagnosed with severe forms of autism or co-occurring intellectual disability at a higher rate, compared with their White counterparts.4 Thus, it would not be inappropriate to infer that Black and Latinx children with “milder” presenting autism symptoms or without co-occurring ID are not identified at the same rates, compared with their White peers. Furthermore, when peering into the international data, epidemiologic studies regarding prevalence, clinical course, and outcomes is skewed heavily toward a few Western industrialized nations, Japan, and South Korea.5
In all, when observing Autism Awareness Month, we should continue to recognize that these aforementioned epidemiologic disparities still exist – both locally and globally. because both clinical and research work have consequences that are not yet fully known. As long as these trends remain, racial and socioeconomic differences in access to treatment in the United States will remain. From an international perspective, we may never appreciate the true extent of the cultural variability within autism symptoms and so may never appreciate the full spectrum of ways the condition can present.
References
1. MMWR Surveill Summ. 2020 Mar 27;69(4):1-12. Erratum in: MMWR Morb Mortal Wkly Rep. 2020 Apr 24;69(16):503.
2. Lancet Glob Health. 2018 Oct;6(10):e1100-21.
3. Am J Public Health. 2009;99(3):493-8.
4. J Dev Behav Pediatr. 2011 Apr;32(3):179-87 and MMWR Surveill Summ. 2019;68(2):1-19.
5. Brain Sci. 2020;10(5):274. doi: 10.3390/brainsci10050274.
Dr. Emejuru is a child and adolescent psychiatrist with Community Hospital of Monterey Peninsula (CHOMP) and its Ohana Center for Child and Adolescent Behavioral Health in Monterey, Calif. His expertise is specific to conducting evaluations for autism spectrum disorder and evaluating, diagnosing, and treating co-occurring psychiatric disorders after training at the Johns Hopkins Hospital/Kennedy Krieger Institute’s Center for Autism and Related Disorders in Baltimore. He has no conflicts of interest.
April is National Autism Awareness Month, and April 2 is World Autism Awareness Day. In the United States, there appears to be a heightened level of awareness of this condition over the past 10-15 years that has helped reduced its stigma, improve early identification, and (most importantly) increase access to early interventions for children and families.
The most recent prevalence estimates of autism in children in the United States is 1 in 54. This is a 10% increase since 2014 (1 in 59). Those most recent Centers for Disease Control and Prevention surveillance reports also point to a reduction in the racial gap between Black and White children when it comes to diagnosis.1 Across the globe, there are more than 100 autism societies, and research designed to improve prevalence data in lower- to middle-income countries has also increased.2
Even with these recent encouraging numbers regarding identification of autism in historically underrepresented groups in the United States, there are still differences among those groups, compared with children who are socioeconomically well-off, White, or live in large urban areas.3 Specifically, Latinx children were documented to be identified with autism at lower rates, compared with Whites and Blacks. In addition, Black and Latinx children are still diagnosed at a later age, compared with White children. This is important to note because historically, Black and Latinx children have been diagnosed with severe forms of autism or co-occurring intellectual disability at a higher rate, compared with their White counterparts.4 Thus, it would not be inappropriate to infer that Black and Latinx children with “milder” presenting autism symptoms or without co-occurring ID are not identified at the same rates, compared with their White peers. Furthermore, when peering into the international data, epidemiologic studies regarding prevalence, clinical course, and outcomes is skewed heavily toward a few Western industrialized nations, Japan, and South Korea.5
In all, when observing Autism Awareness Month, we should continue to recognize that these aforementioned epidemiologic disparities still exist – both locally and globally. because both clinical and research work have consequences that are not yet fully known. As long as these trends remain, racial and socioeconomic differences in access to treatment in the United States will remain. From an international perspective, we may never appreciate the true extent of the cultural variability within autism symptoms and so may never appreciate the full spectrum of ways the condition can present.
References
1. MMWR Surveill Summ. 2020 Mar 27;69(4):1-12. Erratum in: MMWR Morb Mortal Wkly Rep. 2020 Apr 24;69(16):503.
2. Lancet Glob Health. 2018 Oct;6(10):e1100-21.
3. Am J Public Health. 2009;99(3):493-8.
4. J Dev Behav Pediatr. 2011 Apr;32(3):179-87 and MMWR Surveill Summ. 2019;68(2):1-19.
5. Brain Sci. 2020;10(5):274. doi: 10.3390/brainsci10050274.
Dr. Emejuru is a child and adolescent psychiatrist with Community Hospital of Monterey Peninsula (CHOMP) and its Ohana Center for Child and Adolescent Behavioral Health in Monterey, Calif. His expertise is specific to conducting evaluations for autism spectrum disorder and evaluating, diagnosing, and treating co-occurring psychiatric disorders after training at the Johns Hopkins Hospital/Kennedy Krieger Institute’s Center for Autism and Related Disorders in Baltimore. He has no conflicts of interest.
April is National Autism Awareness Month, and April 2 is World Autism Awareness Day. In the United States, there appears to be a heightened level of awareness of this condition over the past 10-15 years that has helped reduced its stigma, improve early identification, and (most importantly) increase access to early interventions for children and families.
The most recent prevalence estimates of autism in children in the United States is 1 in 54. This is a 10% increase since 2014 (1 in 59). Those most recent Centers for Disease Control and Prevention surveillance reports also point to a reduction in the racial gap between Black and White children when it comes to diagnosis.1 Across the globe, there are more than 100 autism societies, and research designed to improve prevalence data in lower- to middle-income countries has also increased.2
Even with these recent encouraging numbers regarding identification of autism in historically underrepresented groups in the United States, there are still differences among those groups, compared with children who are socioeconomically well-off, White, or live in large urban areas.3 Specifically, Latinx children were documented to be identified with autism at lower rates, compared with Whites and Blacks. In addition, Black and Latinx children are still diagnosed at a later age, compared with White children. This is important to note because historically, Black and Latinx children have been diagnosed with severe forms of autism or co-occurring intellectual disability at a higher rate, compared with their White counterparts.4 Thus, it would not be inappropriate to infer that Black and Latinx children with “milder” presenting autism symptoms or without co-occurring ID are not identified at the same rates, compared with their White peers. Furthermore, when peering into the international data, epidemiologic studies regarding prevalence, clinical course, and outcomes is skewed heavily toward a few Western industrialized nations, Japan, and South Korea.5
In all, when observing Autism Awareness Month, we should continue to recognize that these aforementioned epidemiologic disparities still exist – both locally and globally. because both clinical and research work have consequences that are not yet fully known. As long as these trends remain, racial and socioeconomic differences in access to treatment in the United States will remain. From an international perspective, we may never appreciate the true extent of the cultural variability within autism symptoms and so may never appreciate the full spectrum of ways the condition can present.
References
1. MMWR Surveill Summ. 2020 Mar 27;69(4):1-12. Erratum in: MMWR Morb Mortal Wkly Rep. 2020 Apr 24;69(16):503.
2. Lancet Glob Health. 2018 Oct;6(10):e1100-21.
3. Am J Public Health. 2009;99(3):493-8.
4. J Dev Behav Pediatr. 2011 Apr;32(3):179-87 and MMWR Surveill Summ. 2019;68(2):1-19.
5. Brain Sci. 2020;10(5):274. doi: 10.3390/brainsci10050274.
Dr. Emejuru is a child and adolescent psychiatrist with Community Hospital of Monterey Peninsula (CHOMP) and its Ohana Center for Child and Adolescent Behavioral Health in Monterey, Calif. His expertise is specific to conducting evaluations for autism spectrum disorder and evaluating, diagnosing, and treating co-occurring psychiatric disorders after training at the Johns Hopkins Hospital/Kennedy Krieger Institute’s Center for Autism and Related Disorders in Baltimore. He has no conflicts of interest.