The Rebuilding of Military Medicine

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The Rebuilding of Military Medicine

It is the neglect of timely repair that makes rebuilding necessary.
Richard Whately, economist and theologian (1787-1863)

US Congressional inquiry and media attention are so frequently directed at the trials and tribulations of the US Department of Veterans Affairs (VA) that we forget the US Department of Defense (DoD) medical system also shares the federal practitioner space. The focus of the government and press recently has shifted to examine the weaknesses and woes of military medicine. This editorial reviews what that examination discovered about the decline of the DoD house of medicine, why it is in disrepair, proposals for its rebuilding, and reflects on what this trajectory can tell us about maintaining the structure of federal practice.

My father never tired of telling me that he and his medical colleagues returned from the Second World War with knowledge and skills gained in combat theaters that, in many respects, surpassed those of the civilian sector. Though he was biased as a career military physician and combat veteran, there is strong evidence backing the assertion that from World War I to Operations Enduring Freedom and Iraqi Freedom, American military medicine has been the glory of the world.1

A November 2023 report from the DoD Office of the Inspector General (OIG) warned that military medicine was in trouble. The report’s emphasis on access and staffing problems that endanger the availability and quality of health care services will likely strike a chord with VA clinicians. The document is based on data from OIG reports, hotline calls, and audits from the last several years; however, the OIG acknowledges that it did not conduct on-the-ground investigations to confirm the findings.2

When we hear the term military medicine, many immediately think of active duty service members. However, the patient population of DoD is far larger and more diverse. The Military Health System (MHS) provides care to > 9.5 million beneficiaries, including dependents and retirees, veterans, civilian DoD employees, and even contractors. Those who most heavily rely on the MHS are individuals in uniform and their families are experiencing the greatest difficulty with accessing care.3 This includes crucial mental health treatment at a time when rates of military suicide continue to climb.4

The lack of access and dearth of health care practitioners (HCPs) spans both military facilities and the civilian clinics and hospitals where current and former service members and their dependents use the TRICARE beneficiary insurance. Reminiscent of recent challenges at the VA, DoD members are encountering long wait times and the frustrating bureaucracy of inefficient and, at times, inept referral networks. Additionally, many institutions and HCPs will not accept TRICARE because it pays less and has more paperwork than other insurance plans. What is worse, there is currently no governmental leverage to compel them to participate.

The lack of access and dearth of health care practitioners (HCPs) spans both military facilities and the civilian clinics and hospitals where current and former service members and their dependents use the TRICARE beneficiary insurance. Reminiscent of recent challenges at the VA, DoD members are encountering long wait times and the frustrating bureaucracy of inefficient and, at times, inept referral networks. Additionally, many institutions and HCPs will not accept TRICARE because it pays less and has more paperwork than other insurance plans. What is worse, there is currently no governmental leverage to compel them to participate.

As with both the VA and civilian health care spheres, rural areas are the most impacted. Resource shortfalls adversely affect all aspects of care, especially the highly paid specialties like gastroenterology and urology, as well as primary care practitioners essential to ensure the health of military families. The deficits are widespread—all branches report similar obstacles to providing responsive, appropriate care. As if this was not enough to complete the mirror image of the VA’s struggles, there is a rising tide of complaints about the military’s electronic health record system.5 How did the preeminent MHS so rapidly decay? Experts in and out of uniform offer several explanations.

As with most forms of managed care, the need to cut costs drove the Pentagon to send military members and dependents to civilian health care systems to have their medical needs addressed. However, this outsourcing strategy was based on a false assumption that the community had enough capacity to deliver services to the many beneficiaries needing them. Nearly every sector of contemporary American medicine is experiencing a drastic shortage of HCPs. Though the resource allocation problems began before the pandemic, COVID-19 only exacerbated and accelerated them.6

This downsizing of military hospitals and clinics led to another predictable and seemingly unheeded consequence. A decrease in complex cases (particularly surgical cases) led to a reduction in the skills of military HCPs and a further flight of highly trained specialists who require a reasonable volume of complicated cases to retain and sharpen their expertise. The losses of those experienced clinicians further drain the pool of specialists the military can muster to sustain the readiness of troops for war and the health of their families in peace.7

The OIG recommended that the Defense Health Agency address MHS staffing and access deficiencies noted in its report, including identifying poorly performing TRICARE specialty networks and requiring them to meet their access obligation.2 As is customary, the OIG asked for DoD comment. It is unclear whether the DoD responded to that formal request; however, it is more certain it heard the message the OIG and beneficiaries conveyed. In December 2023, the Deputy Secretary of the DoD published a memorandum ordering the stabilization of the MHS. It instructs the MHS to address each of the 3 problem areas outlined in this article: (1) to reclaim patients and beneficiaries who had been outsourced or whose resources were constrained to seek care in the community; (2) to improve access to and staffing for military hospitals and clinics for active duty members and families; and (3) to restore and maintain the military readiness of the clinical forces.8 Several other documents have been issued that emphasize the crucial need to recruit and retain qualified HCPs and support staff if these aims are to be actualized, including the 2024 to 2029 MHS strategic plan.9 As the VA and US Public Health Service know, the current health care environment may be a near impossible mission.10 Although what we know from the history of military medicine is that they have a track record of achieving the impossible.

References
  1. Barr J, Podolsky SH. A national medical response to crisis - the legacy of World War II. N Engl J Med. 2020;383(7):613-615. doi:10.1056/NEJMp2008512
  2. US Department of Defense, Office of the Inspector General. Management advisory: concerns with access to care and staffing shortages in the Military Health System. November 29, 2023. Accessed August 26, 2024. https://www.dodig.mil/reports.html/Article/3602650/management-advisory-concerns-with-access-to-care-and-staffing-shortages-in-the/
  3. Management advisory: concerns with access to care and staffing shortages in the Military Health System. News release. US Department of Defense, Office of the Inspector General. November 29, 2023. Accessed August 26, 2024. https://www.dodig.mil/In-the-Spotlight/Article/3602662/press-release-management-advisory-concerns-with-access-to-care-and-staffing-sho
  4. US Department of Defense. Annual report on suicide in the military: calendar year 2022. Accessed August 26, 2024. https://www.dspo.mil/Portals/113/Documents/ARSM_CY22.pdf
  5. American Hospital Association. Strengthening the Health Care Work Force. November 2021. Accessed August 26, 2024. https://www.aha.org/system/files/media/file/2021/05/fact-sheet-workforce-infrastructure-0521.pdf
  6. Ziezulewicz G. DOD watchdog report warns of issues across military health system. Military Times. December 6, 2023. Accessed August 26, 2024. https://www.militarytimes.com/news/your-military/2023/12/07/dod-watchdog-report-warns-of-issues-across-military-health-care-system/
  7. Lawrence Q. It’s time to stop downsizing health care, the Pentagon says. This couple can’t wait. National Public Radio. April 3, 2024. Accessed August 26, 2024. https://www.npr.org/transcripts/1240724195
  8. Mincher R. Military Health System stabilization: rebuilding health care access is critical to patient’s well-being. January 22, 2024. Accessed August 26, 2024. https://www.defense.gov/News/News-Stories/Article/article/3652092/military-health-system-stabilization-rebuilding-health-care-access-is-critical/
  9. US Department of Defense, Defense Health Agency. Military Health System strategy fiscal years 2024-2029. Accessed August 26, 2024. https://www.health.mil/Reference-Center/Publications/2023/12/15/MHS_Strategic_Plan_FY24_29
  10. Jowers K. Pentagon plans to fix ‘chronically understaffed’ medical facilities. Military Times. January 25, 2024. Accessed August 26, 2024. https://www.militarytimes.com/news/your-military/2024/01/25/pentagon-plans-to-fix-chronically-understaffed-medical-facilities/
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National Center for Ethics in Health Care and Consultation-Liaison Psychiatrist, New Mexico Veterans Affairs Health Care System

Correspondence: Cynthia Geppert([email protected])

Fed Pract. 2024;41(9). Published online September 16. doi:10.12788/fp.0514

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Fed Pract. 2024;41(9). Published online September 16. doi:10.12788/fp.0514

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National Center for Ethics in Health Care and Consultation-Liaison Psychiatrist, New Mexico Veterans Affairs Health Care System

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Fed Pract. 2024;41(9). Published online September 16. doi:10.12788/fp.0514

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It is the neglect of timely repair that makes rebuilding necessary.
Richard Whately, economist and theologian (1787-1863)

US Congressional inquiry and media attention are so frequently directed at the trials and tribulations of the US Department of Veterans Affairs (VA) that we forget the US Department of Defense (DoD) medical system also shares the federal practitioner space. The focus of the government and press recently has shifted to examine the weaknesses and woes of military medicine. This editorial reviews what that examination discovered about the decline of the DoD house of medicine, why it is in disrepair, proposals for its rebuilding, and reflects on what this trajectory can tell us about maintaining the structure of federal practice.

My father never tired of telling me that he and his medical colleagues returned from the Second World War with knowledge and skills gained in combat theaters that, in many respects, surpassed those of the civilian sector. Though he was biased as a career military physician and combat veteran, there is strong evidence backing the assertion that from World War I to Operations Enduring Freedom and Iraqi Freedom, American military medicine has been the glory of the world.1

A November 2023 report from the DoD Office of the Inspector General (OIG) warned that military medicine was in trouble. The report’s emphasis on access and staffing problems that endanger the availability and quality of health care services will likely strike a chord with VA clinicians. The document is based on data from OIG reports, hotline calls, and audits from the last several years; however, the OIG acknowledges that it did not conduct on-the-ground investigations to confirm the findings.2

When we hear the term military medicine, many immediately think of active duty service members. However, the patient population of DoD is far larger and more diverse. The Military Health System (MHS) provides care to > 9.5 million beneficiaries, including dependents and retirees, veterans, civilian DoD employees, and even contractors. Those who most heavily rely on the MHS are individuals in uniform and their families are experiencing the greatest difficulty with accessing care.3 This includes crucial mental health treatment at a time when rates of military suicide continue to climb.4

The lack of access and dearth of health care practitioners (HCPs) spans both military facilities and the civilian clinics and hospitals where current and former service members and their dependents use the TRICARE beneficiary insurance. Reminiscent of recent challenges at the VA, DoD members are encountering long wait times and the frustrating bureaucracy of inefficient and, at times, inept referral networks. Additionally, many institutions and HCPs will not accept TRICARE because it pays less and has more paperwork than other insurance plans. What is worse, there is currently no governmental leverage to compel them to participate.

The lack of access and dearth of health care practitioners (HCPs) spans both military facilities and the civilian clinics and hospitals where current and former service members and their dependents use the TRICARE beneficiary insurance. Reminiscent of recent challenges at the VA, DoD members are encountering long wait times and the frustrating bureaucracy of inefficient and, at times, inept referral networks. Additionally, many institutions and HCPs will not accept TRICARE because it pays less and has more paperwork than other insurance plans. What is worse, there is currently no governmental leverage to compel them to participate.

As with both the VA and civilian health care spheres, rural areas are the most impacted. Resource shortfalls adversely affect all aspects of care, especially the highly paid specialties like gastroenterology and urology, as well as primary care practitioners essential to ensure the health of military families. The deficits are widespread—all branches report similar obstacles to providing responsive, appropriate care. As if this was not enough to complete the mirror image of the VA’s struggles, there is a rising tide of complaints about the military’s electronic health record system.5 How did the preeminent MHS so rapidly decay? Experts in and out of uniform offer several explanations.

As with most forms of managed care, the need to cut costs drove the Pentagon to send military members and dependents to civilian health care systems to have their medical needs addressed. However, this outsourcing strategy was based on a false assumption that the community had enough capacity to deliver services to the many beneficiaries needing them. Nearly every sector of contemporary American medicine is experiencing a drastic shortage of HCPs. Though the resource allocation problems began before the pandemic, COVID-19 only exacerbated and accelerated them.6

This downsizing of military hospitals and clinics led to another predictable and seemingly unheeded consequence. A decrease in complex cases (particularly surgical cases) led to a reduction in the skills of military HCPs and a further flight of highly trained specialists who require a reasonable volume of complicated cases to retain and sharpen their expertise. The losses of those experienced clinicians further drain the pool of specialists the military can muster to sustain the readiness of troops for war and the health of their families in peace.7

The OIG recommended that the Defense Health Agency address MHS staffing and access deficiencies noted in its report, including identifying poorly performing TRICARE specialty networks and requiring them to meet their access obligation.2 As is customary, the OIG asked for DoD comment. It is unclear whether the DoD responded to that formal request; however, it is more certain it heard the message the OIG and beneficiaries conveyed. In December 2023, the Deputy Secretary of the DoD published a memorandum ordering the stabilization of the MHS. It instructs the MHS to address each of the 3 problem areas outlined in this article: (1) to reclaim patients and beneficiaries who had been outsourced or whose resources were constrained to seek care in the community; (2) to improve access to and staffing for military hospitals and clinics for active duty members and families; and (3) to restore and maintain the military readiness of the clinical forces.8 Several other documents have been issued that emphasize the crucial need to recruit and retain qualified HCPs and support staff if these aims are to be actualized, including the 2024 to 2029 MHS strategic plan.9 As the VA and US Public Health Service know, the current health care environment may be a near impossible mission.10 Although what we know from the history of military medicine is that they have a track record of achieving the impossible.

It is the neglect of timely repair that makes rebuilding necessary.
Richard Whately, economist and theologian (1787-1863)

US Congressional inquiry and media attention are so frequently directed at the trials and tribulations of the US Department of Veterans Affairs (VA) that we forget the US Department of Defense (DoD) medical system also shares the federal practitioner space. The focus of the government and press recently has shifted to examine the weaknesses and woes of military medicine. This editorial reviews what that examination discovered about the decline of the DoD house of medicine, why it is in disrepair, proposals for its rebuilding, and reflects on what this trajectory can tell us about maintaining the structure of federal practice.

My father never tired of telling me that he and his medical colleagues returned from the Second World War with knowledge and skills gained in combat theaters that, in many respects, surpassed those of the civilian sector. Though he was biased as a career military physician and combat veteran, there is strong evidence backing the assertion that from World War I to Operations Enduring Freedom and Iraqi Freedom, American military medicine has been the glory of the world.1

A November 2023 report from the DoD Office of the Inspector General (OIG) warned that military medicine was in trouble. The report’s emphasis on access and staffing problems that endanger the availability and quality of health care services will likely strike a chord with VA clinicians. The document is based on data from OIG reports, hotline calls, and audits from the last several years; however, the OIG acknowledges that it did not conduct on-the-ground investigations to confirm the findings.2

When we hear the term military medicine, many immediately think of active duty service members. However, the patient population of DoD is far larger and more diverse. The Military Health System (MHS) provides care to > 9.5 million beneficiaries, including dependents and retirees, veterans, civilian DoD employees, and even contractors. Those who most heavily rely on the MHS are individuals in uniform and their families are experiencing the greatest difficulty with accessing care.3 This includes crucial mental health treatment at a time when rates of military suicide continue to climb.4

The lack of access and dearth of health care practitioners (HCPs) spans both military facilities and the civilian clinics and hospitals where current and former service members and their dependents use the TRICARE beneficiary insurance. Reminiscent of recent challenges at the VA, DoD members are encountering long wait times and the frustrating bureaucracy of inefficient and, at times, inept referral networks. Additionally, many institutions and HCPs will not accept TRICARE because it pays less and has more paperwork than other insurance plans. What is worse, there is currently no governmental leverage to compel them to participate.

The lack of access and dearth of health care practitioners (HCPs) spans both military facilities and the civilian clinics and hospitals where current and former service members and their dependents use the TRICARE beneficiary insurance. Reminiscent of recent challenges at the VA, DoD members are encountering long wait times and the frustrating bureaucracy of inefficient and, at times, inept referral networks. Additionally, many institutions and HCPs will not accept TRICARE because it pays less and has more paperwork than other insurance plans. What is worse, there is currently no governmental leverage to compel them to participate.

As with both the VA and civilian health care spheres, rural areas are the most impacted. Resource shortfalls adversely affect all aspects of care, especially the highly paid specialties like gastroenterology and urology, as well as primary care practitioners essential to ensure the health of military families. The deficits are widespread—all branches report similar obstacles to providing responsive, appropriate care. As if this was not enough to complete the mirror image of the VA’s struggles, there is a rising tide of complaints about the military’s electronic health record system.5 How did the preeminent MHS so rapidly decay? Experts in and out of uniform offer several explanations.

As with most forms of managed care, the need to cut costs drove the Pentagon to send military members and dependents to civilian health care systems to have their medical needs addressed. However, this outsourcing strategy was based on a false assumption that the community had enough capacity to deliver services to the many beneficiaries needing them. Nearly every sector of contemporary American medicine is experiencing a drastic shortage of HCPs. Though the resource allocation problems began before the pandemic, COVID-19 only exacerbated and accelerated them.6

This downsizing of military hospitals and clinics led to another predictable and seemingly unheeded consequence. A decrease in complex cases (particularly surgical cases) led to a reduction in the skills of military HCPs and a further flight of highly trained specialists who require a reasonable volume of complicated cases to retain and sharpen their expertise. The losses of those experienced clinicians further drain the pool of specialists the military can muster to sustain the readiness of troops for war and the health of their families in peace.7

The OIG recommended that the Defense Health Agency address MHS staffing and access deficiencies noted in its report, including identifying poorly performing TRICARE specialty networks and requiring them to meet their access obligation.2 As is customary, the OIG asked for DoD comment. It is unclear whether the DoD responded to that formal request; however, it is more certain it heard the message the OIG and beneficiaries conveyed. In December 2023, the Deputy Secretary of the DoD published a memorandum ordering the stabilization of the MHS. It instructs the MHS to address each of the 3 problem areas outlined in this article: (1) to reclaim patients and beneficiaries who had been outsourced or whose resources were constrained to seek care in the community; (2) to improve access to and staffing for military hospitals and clinics for active duty members and families; and (3) to restore and maintain the military readiness of the clinical forces.8 Several other documents have been issued that emphasize the crucial need to recruit and retain qualified HCPs and support staff if these aims are to be actualized, including the 2024 to 2029 MHS strategic plan.9 As the VA and US Public Health Service know, the current health care environment may be a near impossible mission.10 Although what we know from the history of military medicine is that they have a track record of achieving the impossible.

References
  1. Barr J, Podolsky SH. A national medical response to crisis - the legacy of World War II. N Engl J Med. 2020;383(7):613-615. doi:10.1056/NEJMp2008512
  2. US Department of Defense, Office of the Inspector General. Management advisory: concerns with access to care and staffing shortages in the Military Health System. November 29, 2023. Accessed August 26, 2024. https://www.dodig.mil/reports.html/Article/3602650/management-advisory-concerns-with-access-to-care-and-staffing-shortages-in-the/
  3. Management advisory: concerns with access to care and staffing shortages in the Military Health System. News release. US Department of Defense, Office of the Inspector General. November 29, 2023. Accessed August 26, 2024. https://www.dodig.mil/In-the-Spotlight/Article/3602662/press-release-management-advisory-concerns-with-access-to-care-and-staffing-sho
  4. US Department of Defense. Annual report on suicide in the military: calendar year 2022. Accessed August 26, 2024. https://www.dspo.mil/Portals/113/Documents/ARSM_CY22.pdf
  5. American Hospital Association. Strengthening the Health Care Work Force. November 2021. Accessed August 26, 2024. https://www.aha.org/system/files/media/file/2021/05/fact-sheet-workforce-infrastructure-0521.pdf
  6. Ziezulewicz G. DOD watchdog report warns of issues across military health system. Military Times. December 6, 2023. Accessed August 26, 2024. https://www.militarytimes.com/news/your-military/2023/12/07/dod-watchdog-report-warns-of-issues-across-military-health-care-system/
  7. Lawrence Q. It’s time to stop downsizing health care, the Pentagon says. This couple can’t wait. National Public Radio. April 3, 2024. Accessed August 26, 2024. https://www.npr.org/transcripts/1240724195
  8. Mincher R. Military Health System stabilization: rebuilding health care access is critical to patient’s well-being. January 22, 2024. Accessed August 26, 2024. https://www.defense.gov/News/News-Stories/Article/article/3652092/military-health-system-stabilization-rebuilding-health-care-access-is-critical/
  9. US Department of Defense, Defense Health Agency. Military Health System strategy fiscal years 2024-2029. Accessed August 26, 2024. https://www.health.mil/Reference-Center/Publications/2023/12/15/MHS_Strategic_Plan_FY24_29
  10. Jowers K. Pentagon plans to fix ‘chronically understaffed’ medical facilities. Military Times. January 25, 2024. Accessed August 26, 2024. https://www.militarytimes.com/news/your-military/2024/01/25/pentagon-plans-to-fix-chronically-understaffed-medical-facilities/
References
  1. Barr J, Podolsky SH. A national medical response to crisis - the legacy of World War II. N Engl J Med. 2020;383(7):613-615. doi:10.1056/NEJMp2008512
  2. US Department of Defense, Office of the Inspector General. Management advisory: concerns with access to care and staffing shortages in the Military Health System. November 29, 2023. Accessed August 26, 2024. https://www.dodig.mil/reports.html/Article/3602650/management-advisory-concerns-with-access-to-care-and-staffing-shortages-in-the/
  3. Management advisory: concerns with access to care and staffing shortages in the Military Health System. News release. US Department of Defense, Office of the Inspector General. November 29, 2023. Accessed August 26, 2024. https://www.dodig.mil/In-the-Spotlight/Article/3602662/press-release-management-advisory-concerns-with-access-to-care-and-staffing-sho
  4. US Department of Defense. Annual report on suicide in the military: calendar year 2022. Accessed August 26, 2024. https://www.dspo.mil/Portals/113/Documents/ARSM_CY22.pdf
  5. American Hospital Association. Strengthening the Health Care Work Force. November 2021. Accessed August 26, 2024. https://www.aha.org/system/files/media/file/2021/05/fact-sheet-workforce-infrastructure-0521.pdf
  6. Ziezulewicz G. DOD watchdog report warns of issues across military health system. Military Times. December 6, 2023. Accessed August 26, 2024. https://www.militarytimes.com/news/your-military/2023/12/07/dod-watchdog-report-warns-of-issues-across-military-health-care-system/
  7. Lawrence Q. It’s time to stop downsizing health care, the Pentagon says. This couple can’t wait. National Public Radio. April 3, 2024. Accessed August 26, 2024. https://www.npr.org/transcripts/1240724195
  8. Mincher R. Military Health System stabilization: rebuilding health care access is critical to patient’s well-being. January 22, 2024. Accessed August 26, 2024. https://www.defense.gov/News/News-Stories/Article/article/3652092/military-health-system-stabilization-rebuilding-health-care-access-is-critical/
  9. US Department of Defense, Defense Health Agency. Military Health System strategy fiscal years 2024-2029. Accessed August 26, 2024. https://www.health.mil/Reference-Center/Publications/2023/12/15/MHS_Strategic_Plan_FY24_29
  10. Jowers K. Pentagon plans to fix ‘chronically understaffed’ medical facilities. Military Times. January 25, 2024. Accessed August 26, 2024. https://www.militarytimes.com/news/your-military/2024/01/25/pentagon-plans-to-fix-chronically-understaffed-medical-facilities/
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Rare Case of Photodistributed Hyperpigmentation Linked to Kratom Consumption

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Rare Case of Photodistributed Hyperpigmentation Linked to Kratom Consumption

To the Editor:

Kratom (Mitragyna speciosa) is an evergreen tree native to Southeast Asia.1 Its leaves contain psychoactive compounds including mitragynine and 7-­hydroxymitragynine, which exert dose-dependent effects on the central nervous system through opioid and monoaminergic receptors.2,3 At low doses (1–5 g), kratom elicits mild stimulant effects such as increased sociability, alertness, and talkativeness. At high doses (5–15 g), kratom has depressant effects that can provide relief from pain and opioid-withdrawal symptoms.3

Traditionally, kratom has been used in Southeast Asia for recreational and ceremonial purposes, to ease opioid-withdrawal symptoms, and to reduce fatigue from manual labor.4 In the 21st century, availability of kratom expanded to Europe, Australia, and the United States, largely facilitated by widespread dissemination of deceitful ­marketing and unregulated sales on the internet.1 Although large-scale epidemiologic studies evaluating kratom’s prevalence are scarce, available evidence indicates rising worldwide usage, with a notable increase in kratom-related poison center calls between 2011 and 2017 in the United States.5 In July 2023, kratom made headlines due to the death of a woman in Florida following use of the substance.6

A cross-sectional study revealed that in the United States, kratom typically is used by White individuals for self-treatment of anxiety, depression, pain, and opioid withdrawal.7 However, the potential for severe adverse effects and dependence on kratom can outweigh the benefits.6,8 Reported adverse effects of kratom include tachycardia, hypercholesteremia, liver injury, hallucinations, respiratory depression, seizure, coma, and death.9,10 We present a case of kratom-induced photodistributed hyperpigmentation.

A 63-year-old man presented to the dermatology clinic with diffuse tender, pruritic, hyperpigmented skin lesions that developed over the course of 1 year. The lesions were distributed on sun-exposed areas, including the face, neck, and forearms (Figure 1). The patient reported no other major symptoms, and his health was otherwise unremarkable. He had a medical history of psoriasiform and spongiotic dermatitis consistent with eczema, psoriasis, hypercholesteremia, and hyperlipidemia. The patient was not taking any medications at the time of presentation. He had a family history of plaque psoriasis in his father. Five years prior to the current presentation, the patient was treated with adalimumab for steroid-resistant psoriasis; however, despite initial improvement, he experienced recurrence of scaly erythematous plaques and had discontinued adalimumab the year prior to presentation.

FIGURE 1. Kratom-induced hyperpigmentation. A, Diffuse hyperpigmented lesions across the face. B and C, Similar lesions were present on the neck and forearm, respectively.


When adalimumab was discontinued, the patient sought alternative treatment for the skin symptoms and began self-administering kratom in an attempt to ­alleviate associated physical discomfort. He ingested approximately 3 bottles of liquid kratom per day, with each bottle containing 180 mg of mitragynine and less than 8 mg of 7-hydroxymitragynine. Although not scientifically proven, kratom has been colloquially advertised to improve psoriasis.11 The patient reported no other medication use or allergies.

Shave biopsies of hyperpigmented lesions on the right side of the neck, ear, and forearm were performed. Histopathology revealed a sparse superficial, perivascular, lymphocytic infiltrate accompanied by a prominent number of melanophages in the superficial dermis (Figure 2). Special stains further confirmed that the pigment was melanin; the specimens stained positive with Fontana-Masson stain (Figure 3) and negative with an iron stain (Figure 4).

FIGURE 2. Histopathology of a skin lesion demonstrated a sparse superficial, perivascular, lymphocytic infiltrate accompanied by a prominent number of melanophages in the superficial dermis (H&E, original magnification ×100).

FIGURE 3. Histopathology of a skin lesion demonstrated a positive Fontana-Masson stain (original magnification ×100). Melanin also is highlighted.

FIGURE 4. Histopathology of a skin lesion demonstrated a negative iron stain (original magnification ×100).


Adalimumab-induced hyperpigmentation was considered. A prior case of adalimumab-induced hyperpigmentation manifested on the face. Histopathology was consistent with a superficial, perivascular, lymphocytic infiltrate with melanophages in the dermis; however, hyperpigmentation was absent in the periorbital area, and affected areas faded 4 months after discontinuation of adalimumab.12 Our patient presented with hyperpigmentation 1 year after adalimumab cessation, and the hyperpigmented areas included the periorbital region. Because of the distinct temporal and clinical features, adalimumab-induced hyperpigmentation was eliminated from the differential diagnosis.

Based on the photodistributed pattern of hyperpigmentation, histopathology, and the temporal relationship between hyperpigmentation onset and kratom usage, a diagnosis of kratom-induced photodistributed hyperpigmentation was made. The patient was advised to discontinue kratom use and use sun protection to prevent further photodamage. The patient subsequently was lost to follow-up.

Kratom alkaloids bind all 3 opioid receptors—μOP, δOP, and κOPs—in a G-protein–biased manner with 7-hydroxymitragynine, the most pharmacologically active alkaloid, exhibiting a higher affinity for μ-opioid receptors.13,14 In human epidermal melanocytes, binding between μ-opioid receptors and β-endorphin, an endogenous opioid, is associated with increased melanin production. This melanogenesis has been linked to hyperpigmentation.15 Given the similarity between kratom alkaloids and β-endorphin in opioid-receptor binding, it is possible that kratom-induced hyperpigmentation may occur through a similar mechanism involving μ-opioid receptors and melanogenesis in epidermal melanocytes. Moreover, some researchers have theorized that sun exposure may result in free radical formation of certain drugs or their metabolites. These free radicals then can interact with cellular DNA, triggering the release of pigmentary mediators and resulting in hyperpigmentation.16 This theory may explain the photodistributed pattern of kratom-induced hyperpigmentation. Further studies are needed to understand the mechanism behind this adverse reaction and its implications for patient treatment.

Literature on kratom-induced hyperpigmentation is limited. Powell et al17 reported a similar case of ­kratom-induced photodistributed hyperpigmentation—a White man had taken kratom to reduce opioid use and subsequently developed hyperpigmented patches on the arms and face. Moreover, anonymous Reddit users have shared anecdotal reports of hyperpigmentation following kratom use.18

Physicians should be aware of hyperpigmentation as a potential adverse reaction of kratom use as its prevalence increases globally. Further research is warranted to elucidate the mechanism behind this adverse reaction and identify risk factors.

References
  1. Prozialeck WC, Avery BA, Boyer EW, et al. Kratom policy: the challenge of balancing therapeutic potential with public safety. Int J Drug Policy. 2019;70:70-77. doi:10.1016/j.drugpo.2019.05.003
  2. Bergen-Cico D, MacClurg K. Kratom (Mitragyna speciosa) use, addiction potential, and legal status. In: Preedy VR, ed. Neuropathology of Drug Addictions and Substance Misuse. 2016:903-911. doi:10.1016/B978-0-12-800634-4.00089-5
  3. Warner ML, Kaufman NC, Grundmann O. The pharmacology and toxicology of kratom: from traditional herb to drug of abuse. Int J Legal Med. 2016;130:127-138. doi:10.1007/s00414-015-1279-y
  4. Transnational Institute. Kratom in Thailand: decriminalisation and community control? May 3, 2011. Accessed August 23, 2024. https://www.tni.org/en/publication/kratom-in-thailand-decriminalisation-and-community-control
  5. Eastlack SC, Cornett EM, Kaye AD. Kratom—pharmacology, clinical implications, and outlook: a comprehensive review. Pain Ther. 2020;9:55-69. doi:10.1007/s40122-020-00151-x
  6. Reyes R. Family of Florida mom who died from herbal substance kratom wins $11M suit. New York Post. July 30, 2023. Updated July 31, 2023. Accessed August 23, 2024. https://nypost.com/2023/07/30/family-of-florida-mom-who-died-from-herbal-substance-kratom-wins-11m-suit/
  7. Garcia-Romeu A, Cox DJ, Smith KE, et al. Kratom (Mitragyna speciosa): user demographics, use patterns, and implications for the opioid epidemic. Drug Alcohol Depend. 2020;208:107849. doi:10.1016/j.drugalcdep.2020.107849
  8. Mayo Clinic. Kratom: unsafe and ineffective. Accessed August 23, 2024. https://www.mayoclinic.org/healthy-lifestyle/consumer-health/in-depth/kratom/art-20402171
  9. Sethi R, Hoang N, Ravishankar DA, et al. Kratom (Mitragyna speciosa): friend or foe? Prim Care Companion CNS Disord. 2020;22:19nr02507.
  10. Eggleston W, Stoppacher R, Suen K, et al. Kratom use and toxicities in the United States. Pharmacother J Hum Pharmacol Drug Ther. 2019;39:775-777. doi:10.1002/phar.2280
  11. Qrius. 6 benefits of kratom you should know for healthy skin. March 21, 2023. Accessed August 23, 2024. https://qrius.com/6-benefits-of-kratom-you-should-know-for-healthy-skin/
  12. Blomberg M, Zachariae COC, Grønhøj F. Hyperpigmentation of the face following adalimumab treatment. Acta Derm Venereol. 2009;89:546-547. doi:10.2340/00015555-0697
  13. Matsumoto K, Hatori Y, Murayama T, et al. Involvement of μ-opioid receptors in antinociception and inhibition of gastrointestinal transit induced by 7-hydroxymitragynine, isolated from Thai herbal medicine Mitragyna speciosa. Eur J Pharmacol. 2006;549:63-70. doi:10.1016/j.ejphar.2006.08.013
  14. Jentsch MJ, Pippin MM. Kratom. In: StatPearls. StatPearls Publishing; 2023.
  15. Bigliardi PL, Tobin DJ, Gaveriaux-Ruff C, et al. Opioids and the skin—where do we stand? Exp Dermatol. 2009;18:424-430.
  16. Boyer M, Katta R, Markus R. Diltiazem-induced photodistributed hyperpigmentation. Dermatol Online J. 2003;9:10. doi:10.5070/D33c97j4z5
  17. Powell LR, Ryser TJ, Morey GE, et al. Kratom as a novel cause of photodistributed hyperpigmentation. JAAD Case Rep. 2022;28:145-148. doi:10.1016/j.jdcr.2022.07.033
  18. Haccoon. Skin discoloring? Reddit. June 30, 2019. Accessed August 23, 2024. https://www.reddit.com/r/quittingkratom/comments/c7b1cm/skin_discoloring/
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Isha Gandhi is from the University of Minnesota Medical School, Twin Cities Campus, Minneapolis. Dr. Wang is from the Laboratory of Dermatopathology, Woodbury, New York. Dr. Fishman is from the Department of Dermatology, Icahn School of Medicine at Mount Sinai, New York, New York.

The authors have no relevant financial disclosures to report.

Correspondence: Isha Gandhi, BS, 420 Delaware St SE, Minneapolis, MN 55455 ([email protected]).

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Isha Gandhi is from the University of Minnesota Medical School, Twin Cities Campus, Minneapolis. Dr. Wang is from the Laboratory of Dermatopathology, Woodbury, New York. Dr. Fishman is from the Department of Dermatology, Icahn School of Medicine at Mount Sinai, New York, New York.

The authors have no relevant financial disclosures to report.

Correspondence: Isha Gandhi, BS, 420 Delaware St SE, Minneapolis, MN 55455 ([email protected]).

Cutis. 2024 September;114(3):E7-E9. doi:10.12788/cutis.1100

Author and Disclosure Information

Isha Gandhi is from the University of Minnesota Medical School, Twin Cities Campus, Minneapolis. Dr. Wang is from the Laboratory of Dermatopathology, Woodbury, New York. Dr. Fishman is from the Department of Dermatology, Icahn School of Medicine at Mount Sinai, New York, New York.

The authors have no relevant financial disclosures to report.

Correspondence: Isha Gandhi, BS, 420 Delaware St SE, Minneapolis, MN 55455 ([email protected]).

Cutis. 2024 September;114(3):E7-E9. doi:10.12788/cutis.1100

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To the Editor:

Kratom (Mitragyna speciosa) is an evergreen tree native to Southeast Asia.1 Its leaves contain psychoactive compounds including mitragynine and 7-­hydroxymitragynine, which exert dose-dependent effects on the central nervous system through opioid and monoaminergic receptors.2,3 At low doses (1–5 g), kratom elicits mild stimulant effects such as increased sociability, alertness, and talkativeness. At high doses (5–15 g), kratom has depressant effects that can provide relief from pain and opioid-withdrawal symptoms.3

Traditionally, kratom has been used in Southeast Asia for recreational and ceremonial purposes, to ease opioid-withdrawal symptoms, and to reduce fatigue from manual labor.4 In the 21st century, availability of kratom expanded to Europe, Australia, and the United States, largely facilitated by widespread dissemination of deceitful ­marketing and unregulated sales on the internet.1 Although large-scale epidemiologic studies evaluating kratom’s prevalence are scarce, available evidence indicates rising worldwide usage, with a notable increase in kratom-related poison center calls between 2011 and 2017 in the United States.5 In July 2023, kratom made headlines due to the death of a woman in Florida following use of the substance.6

A cross-sectional study revealed that in the United States, kratom typically is used by White individuals for self-treatment of anxiety, depression, pain, and opioid withdrawal.7 However, the potential for severe adverse effects and dependence on kratom can outweigh the benefits.6,8 Reported adverse effects of kratom include tachycardia, hypercholesteremia, liver injury, hallucinations, respiratory depression, seizure, coma, and death.9,10 We present a case of kratom-induced photodistributed hyperpigmentation.

A 63-year-old man presented to the dermatology clinic with diffuse tender, pruritic, hyperpigmented skin lesions that developed over the course of 1 year. The lesions were distributed on sun-exposed areas, including the face, neck, and forearms (Figure 1). The patient reported no other major symptoms, and his health was otherwise unremarkable. He had a medical history of psoriasiform and spongiotic dermatitis consistent with eczema, psoriasis, hypercholesteremia, and hyperlipidemia. The patient was not taking any medications at the time of presentation. He had a family history of plaque psoriasis in his father. Five years prior to the current presentation, the patient was treated with adalimumab for steroid-resistant psoriasis; however, despite initial improvement, he experienced recurrence of scaly erythematous plaques and had discontinued adalimumab the year prior to presentation.

FIGURE 1. Kratom-induced hyperpigmentation. A, Diffuse hyperpigmented lesions across the face. B and C, Similar lesions were present on the neck and forearm, respectively.


When adalimumab was discontinued, the patient sought alternative treatment for the skin symptoms and began self-administering kratom in an attempt to ­alleviate associated physical discomfort. He ingested approximately 3 bottles of liquid kratom per day, with each bottle containing 180 mg of mitragynine and less than 8 mg of 7-hydroxymitragynine. Although not scientifically proven, kratom has been colloquially advertised to improve psoriasis.11 The patient reported no other medication use or allergies.

Shave biopsies of hyperpigmented lesions on the right side of the neck, ear, and forearm were performed. Histopathology revealed a sparse superficial, perivascular, lymphocytic infiltrate accompanied by a prominent number of melanophages in the superficial dermis (Figure 2). Special stains further confirmed that the pigment was melanin; the specimens stained positive with Fontana-Masson stain (Figure 3) and negative with an iron stain (Figure 4).

FIGURE 2. Histopathology of a skin lesion demonstrated a sparse superficial, perivascular, lymphocytic infiltrate accompanied by a prominent number of melanophages in the superficial dermis (H&E, original magnification ×100).

FIGURE 3. Histopathology of a skin lesion demonstrated a positive Fontana-Masson stain (original magnification ×100). Melanin also is highlighted.

FIGURE 4. Histopathology of a skin lesion demonstrated a negative iron stain (original magnification ×100).


Adalimumab-induced hyperpigmentation was considered. A prior case of adalimumab-induced hyperpigmentation manifested on the face. Histopathology was consistent with a superficial, perivascular, lymphocytic infiltrate with melanophages in the dermis; however, hyperpigmentation was absent in the periorbital area, and affected areas faded 4 months after discontinuation of adalimumab.12 Our patient presented with hyperpigmentation 1 year after adalimumab cessation, and the hyperpigmented areas included the periorbital region. Because of the distinct temporal and clinical features, adalimumab-induced hyperpigmentation was eliminated from the differential diagnosis.

Based on the photodistributed pattern of hyperpigmentation, histopathology, and the temporal relationship between hyperpigmentation onset and kratom usage, a diagnosis of kratom-induced photodistributed hyperpigmentation was made. The patient was advised to discontinue kratom use and use sun protection to prevent further photodamage. The patient subsequently was lost to follow-up.

Kratom alkaloids bind all 3 opioid receptors—μOP, δOP, and κOPs—in a G-protein–biased manner with 7-hydroxymitragynine, the most pharmacologically active alkaloid, exhibiting a higher affinity for μ-opioid receptors.13,14 In human epidermal melanocytes, binding between μ-opioid receptors and β-endorphin, an endogenous opioid, is associated with increased melanin production. This melanogenesis has been linked to hyperpigmentation.15 Given the similarity between kratom alkaloids and β-endorphin in opioid-receptor binding, it is possible that kratom-induced hyperpigmentation may occur through a similar mechanism involving μ-opioid receptors and melanogenesis in epidermal melanocytes. Moreover, some researchers have theorized that sun exposure may result in free radical formation of certain drugs or their metabolites. These free radicals then can interact with cellular DNA, triggering the release of pigmentary mediators and resulting in hyperpigmentation.16 This theory may explain the photodistributed pattern of kratom-induced hyperpigmentation. Further studies are needed to understand the mechanism behind this adverse reaction and its implications for patient treatment.

Literature on kratom-induced hyperpigmentation is limited. Powell et al17 reported a similar case of ­kratom-induced photodistributed hyperpigmentation—a White man had taken kratom to reduce opioid use and subsequently developed hyperpigmented patches on the arms and face. Moreover, anonymous Reddit users have shared anecdotal reports of hyperpigmentation following kratom use.18

Physicians should be aware of hyperpigmentation as a potential adverse reaction of kratom use as its prevalence increases globally. Further research is warranted to elucidate the mechanism behind this adverse reaction and identify risk factors.

To the Editor:

Kratom (Mitragyna speciosa) is an evergreen tree native to Southeast Asia.1 Its leaves contain psychoactive compounds including mitragynine and 7-­hydroxymitragynine, which exert dose-dependent effects on the central nervous system through opioid and monoaminergic receptors.2,3 At low doses (1–5 g), kratom elicits mild stimulant effects such as increased sociability, alertness, and talkativeness. At high doses (5–15 g), kratom has depressant effects that can provide relief from pain and opioid-withdrawal symptoms.3

Traditionally, kratom has been used in Southeast Asia for recreational and ceremonial purposes, to ease opioid-withdrawal symptoms, and to reduce fatigue from manual labor.4 In the 21st century, availability of kratom expanded to Europe, Australia, and the United States, largely facilitated by widespread dissemination of deceitful ­marketing and unregulated sales on the internet.1 Although large-scale epidemiologic studies evaluating kratom’s prevalence are scarce, available evidence indicates rising worldwide usage, with a notable increase in kratom-related poison center calls between 2011 and 2017 in the United States.5 In July 2023, kratom made headlines due to the death of a woman in Florida following use of the substance.6

A cross-sectional study revealed that in the United States, kratom typically is used by White individuals for self-treatment of anxiety, depression, pain, and opioid withdrawal.7 However, the potential for severe adverse effects and dependence on kratom can outweigh the benefits.6,8 Reported adverse effects of kratom include tachycardia, hypercholesteremia, liver injury, hallucinations, respiratory depression, seizure, coma, and death.9,10 We present a case of kratom-induced photodistributed hyperpigmentation.

A 63-year-old man presented to the dermatology clinic with diffuse tender, pruritic, hyperpigmented skin lesions that developed over the course of 1 year. The lesions were distributed on sun-exposed areas, including the face, neck, and forearms (Figure 1). The patient reported no other major symptoms, and his health was otherwise unremarkable. He had a medical history of psoriasiform and spongiotic dermatitis consistent with eczema, psoriasis, hypercholesteremia, and hyperlipidemia. The patient was not taking any medications at the time of presentation. He had a family history of plaque psoriasis in his father. Five years prior to the current presentation, the patient was treated with adalimumab for steroid-resistant psoriasis; however, despite initial improvement, he experienced recurrence of scaly erythematous plaques and had discontinued adalimumab the year prior to presentation.

FIGURE 1. Kratom-induced hyperpigmentation. A, Diffuse hyperpigmented lesions across the face. B and C, Similar lesions were present on the neck and forearm, respectively.


When adalimumab was discontinued, the patient sought alternative treatment for the skin symptoms and began self-administering kratom in an attempt to ­alleviate associated physical discomfort. He ingested approximately 3 bottles of liquid kratom per day, with each bottle containing 180 mg of mitragynine and less than 8 mg of 7-hydroxymitragynine. Although not scientifically proven, kratom has been colloquially advertised to improve psoriasis.11 The patient reported no other medication use or allergies.

Shave biopsies of hyperpigmented lesions on the right side of the neck, ear, and forearm were performed. Histopathology revealed a sparse superficial, perivascular, lymphocytic infiltrate accompanied by a prominent number of melanophages in the superficial dermis (Figure 2). Special stains further confirmed that the pigment was melanin; the specimens stained positive with Fontana-Masson stain (Figure 3) and negative with an iron stain (Figure 4).

FIGURE 2. Histopathology of a skin lesion demonstrated a sparse superficial, perivascular, lymphocytic infiltrate accompanied by a prominent number of melanophages in the superficial dermis (H&E, original magnification ×100).

FIGURE 3. Histopathology of a skin lesion demonstrated a positive Fontana-Masson stain (original magnification ×100). Melanin also is highlighted.

FIGURE 4. Histopathology of a skin lesion demonstrated a negative iron stain (original magnification ×100).


Adalimumab-induced hyperpigmentation was considered. A prior case of adalimumab-induced hyperpigmentation manifested on the face. Histopathology was consistent with a superficial, perivascular, lymphocytic infiltrate with melanophages in the dermis; however, hyperpigmentation was absent in the periorbital area, and affected areas faded 4 months after discontinuation of adalimumab.12 Our patient presented with hyperpigmentation 1 year after adalimumab cessation, and the hyperpigmented areas included the periorbital region. Because of the distinct temporal and clinical features, adalimumab-induced hyperpigmentation was eliminated from the differential diagnosis.

Based on the photodistributed pattern of hyperpigmentation, histopathology, and the temporal relationship between hyperpigmentation onset and kratom usage, a diagnosis of kratom-induced photodistributed hyperpigmentation was made. The patient was advised to discontinue kratom use and use sun protection to prevent further photodamage. The patient subsequently was lost to follow-up.

Kratom alkaloids bind all 3 opioid receptors—μOP, δOP, and κOPs—in a G-protein–biased manner with 7-hydroxymitragynine, the most pharmacologically active alkaloid, exhibiting a higher affinity for μ-opioid receptors.13,14 In human epidermal melanocytes, binding between μ-opioid receptors and β-endorphin, an endogenous opioid, is associated with increased melanin production. This melanogenesis has been linked to hyperpigmentation.15 Given the similarity between kratom alkaloids and β-endorphin in opioid-receptor binding, it is possible that kratom-induced hyperpigmentation may occur through a similar mechanism involving μ-opioid receptors and melanogenesis in epidermal melanocytes. Moreover, some researchers have theorized that sun exposure may result in free radical formation of certain drugs or their metabolites. These free radicals then can interact with cellular DNA, triggering the release of pigmentary mediators and resulting in hyperpigmentation.16 This theory may explain the photodistributed pattern of kratom-induced hyperpigmentation. Further studies are needed to understand the mechanism behind this adverse reaction and its implications for patient treatment.

Literature on kratom-induced hyperpigmentation is limited. Powell et al17 reported a similar case of ­kratom-induced photodistributed hyperpigmentation—a White man had taken kratom to reduce opioid use and subsequently developed hyperpigmented patches on the arms and face. Moreover, anonymous Reddit users have shared anecdotal reports of hyperpigmentation following kratom use.18

Physicians should be aware of hyperpigmentation as a potential adverse reaction of kratom use as its prevalence increases globally. Further research is warranted to elucidate the mechanism behind this adverse reaction and identify risk factors.

References
  1. Prozialeck WC, Avery BA, Boyer EW, et al. Kratom policy: the challenge of balancing therapeutic potential with public safety. Int J Drug Policy. 2019;70:70-77. doi:10.1016/j.drugpo.2019.05.003
  2. Bergen-Cico D, MacClurg K. Kratom (Mitragyna speciosa) use, addiction potential, and legal status. In: Preedy VR, ed. Neuropathology of Drug Addictions and Substance Misuse. 2016:903-911. doi:10.1016/B978-0-12-800634-4.00089-5
  3. Warner ML, Kaufman NC, Grundmann O. The pharmacology and toxicology of kratom: from traditional herb to drug of abuse. Int J Legal Med. 2016;130:127-138. doi:10.1007/s00414-015-1279-y
  4. Transnational Institute. Kratom in Thailand: decriminalisation and community control? May 3, 2011. Accessed August 23, 2024. https://www.tni.org/en/publication/kratom-in-thailand-decriminalisation-and-community-control
  5. Eastlack SC, Cornett EM, Kaye AD. Kratom—pharmacology, clinical implications, and outlook: a comprehensive review. Pain Ther. 2020;9:55-69. doi:10.1007/s40122-020-00151-x
  6. Reyes R. Family of Florida mom who died from herbal substance kratom wins $11M suit. New York Post. July 30, 2023. Updated July 31, 2023. Accessed August 23, 2024. https://nypost.com/2023/07/30/family-of-florida-mom-who-died-from-herbal-substance-kratom-wins-11m-suit/
  7. Garcia-Romeu A, Cox DJ, Smith KE, et al. Kratom (Mitragyna speciosa): user demographics, use patterns, and implications for the opioid epidemic. Drug Alcohol Depend. 2020;208:107849. doi:10.1016/j.drugalcdep.2020.107849
  8. Mayo Clinic. Kratom: unsafe and ineffective. Accessed August 23, 2024. https://www.mayoclinic.org/healthy-lifestyle/consumer-health/in-depth/kratom/art-20402171
  9. Sethi R, Hoang N, Ravishankar DA, et al. Kratom (Mitragyna speciosa): friend or foe? Prim Care Companion CNS Disord. 2020;22:19nr02507.
  10. Eggleston W, Stoppacher R, Suen K, et al. Kratom use and toxicities in the United States. Pharmacother J Hum Pharmacol Drug Ther. 2019;39:775-777. doi:10.1002/phar.2280
  11. Qrius. 6 benefits of kratom you should know for healthy skin. March 21, 2023. Accessed August 23, 2024. https://qrius.com/6-benefits-of-kratom-you-should-know-for-healthy-skin/
  12. Blomberg M, Zachariae COC, Grønhøj F. Hyperpigmentation of the face following adalimumab treatment. Acta Derm Venereol. 2009;89:546-547. doi:10.2340/00015555-0697
  13. Matsumoto K, Hatori Y, Murayama T, et al. Involvement of μ-opioid receptors in antinociception and inhibition of gastrointestinal transit induced by 7-hydroxymitragynine, isolated from Thai herbal medicine Mitragyna speciosa. Eur J Pharmacol. 2006;549:63-70. doi:10.1016/j.ejphar.2006.08.013
  14. Jentsch MJ, Pippin MM. Kratom. In: StatPearls. StatPearls Publishing; 2023.
  15. Bigliardi PL, Tobin DJ, Gaveriaux-Ruff C, et al. Opioids and the skin—where do we stand? Exp Dermatol. 2009;18:424-430.
  16. Boyer M, Katta R, Markus R. Diltiazem-induced photodistributed hyperpigmentation. Dermatol Online J. 2003;9:10. doi:10.5070/D33c97j4z5
  17. Powell LR, Ryser TJ, Morey GE, et al. Kratom as a novel cause of photodistributed hyperpigmentation. JAAD Case Rep. 2022;28:145-148. doi:10.1016/j.jdcr.2022.07.033
  18. Haccoon. Skin discoloring? Reddit. June 30, 2019. Accessed August 23, 2024. https://www.reddit.com/r/quittingkratom/comments/c7b1cm/skin_discoloring/
References
  1. Prozialeck WC, Avery BA, Boyer EW, et al. Kratom policy: the challenge of balancing therapeutic potential with public safety. Int J Drug Policy. 2019;70:70-77. doi:10.1016/j.drugpo.2019.05.003
  2. Bergen-Cico D, MacClurg K. Kratom (Mitragyna speciosa) use, addiction potential, and legal status. In: Preedy VR, ed. Neuropathology of Drug Addictions and Substance Misuse. 2016:903-911. doi:10.1016/B978-0-12-800634-4.00089-5
  3. Warner ML, Kaufman NC, Grundmann O. The pharmacology and toxicology of kratom: from traditional herb to drug of abuse. Int J Legal Med. 2016;130:127-138. doi:10.1007/s00414-015-1279-y
  4. Transnational Institute. Kratom in Thailand: decriminalisation and community control? May 3, 2011. Accessed August 23, 2024. https://www.tni.org/en/publication/kratom-in-thailand-decriminalisation-and-community-control
  5. Eastlack SC, Cornett EM, Kaye AD. Kratom—pharmacology, clinical implications, and outlook: a comprehensive review. Pain Ther. 2020;9:55-69. doi:10.1007/s40122-020-00151-x
  6. Reyes R. Family of Florida mom who died from herbal substance kratom wins $11M suit. New York Post. July 30, 2023. Updated July 31, 2023. Accessed August 23, 2024. https://nypost.com/2023/07/30/family-of-florida-mom-who-died-from-herbal-substance-kratom-wins-11m-suit/
  7. Garcia-Romeu A, Cox DJ, Smith KE, et al. Kratom (Mitragyna speciosa): user demographics, use patterns, and implications for the opioid epidemic. Drug Alcohol Depend. 2020;208:107849. doi:10.1016/j.drugalcdep.2020.107849
  8. Mayo Clinic. Kratom: unsafe and ineffective. Accessed August 23, 2024. https://www.mayoclinic.org/healthy-lifestyle/consumer-health/in-depth/kratom/art-20402171
  9. Sethi R, Hoang N, Ravishankar DA, et al. Kratom (Mitragyna speciosa): friend or foe? Prim Care Companion CNS Disord. 2020;22:19nr02507.
  10. Eggleston W, Stoppacher R, Suen K, et al. Kratom use and toxicities in the United States. Pharmacother J Hum Pharmacol Drug Ther. 2019;39:775-777. doi:10.1002/phar.2280
  11. Qrius. 6 benefits of kratom you should know for healthy skin. March 21, 2023. Accessed August 23, 2024. https://qrius.com/6-benefits-of-kratom-you-should-know-for-healthy-skin/
  12. Blomberg M, Zachariae COC, Grønhøj F. Hyperpigmentation of the face following adalimumab treatment. Acta Derm Venereol. 2009;89:546-547. doi:10.2340/00015555-0697
  13. Matsumoto K, Hatori Y, Murayama T, et al. Involvement of μ-opioid receptors in antinociception and inhibition of gastrointestinal transit induced by 7-hydroxymitragynine, isolated from Thai herbal medicine Mitragyna speciosa. Eur J Pharmacol. 2006;549:63-70. doi:10.1016/j.ejphar.2006.08.013
  14. Jentsch MJ, Pippin MM. Kratom. In: StatPearls. StatPearls Publishing; 2023.
  15. Bigliardi PL, Tobin DJ, Gaveriaux-Ruff C, et al. Opioids and the skin—where do we stand? Exp Dermatol. 2009;18:424-430.
  16. Boyer M, Katta R, Markus R. Diltiazem-induced photodistributed hyperpigmentation. Dermatol Online J. 2003;9:10. doi:10.5070/D33c97j4z5
  17. Powell LR, Ryser TJ, Morey GE, et al. Kratom as a novel cause of photodistributed hyperpigmentation. JAAD Case Rep. 2022;28:145-148. doi:10.1016/j.jdcr.2022.07.033
  18. Haccoon. Skin discoloring? Reddit. June 30, 2019. Accessed August 23, 2024. https://www.reddit.com/r/quittingkratom/comments/c7b1cm/skin_discoloring/
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Practice Points

  • Clinicians should be aware of photodistributed hyperpigmentation as a potential adverse effect of kratom usage.
  • Kratom-induced photodistributed hyperpigmentation should be suspected in patients with hyperpigmented lesions in sun-exposed areas of the skin following kratom use. A biopsy of lesions should be obtained to confirm the diagnosis.
  • Cessation of kratom should be recommended.
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Moving Beyond Traditional Methods for Treatment of Acne Keloidalis Nuchae

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Changed
Thu, 09/19/2024 - 15:10

Acne keloidalis nuchae (AKN) is a chronic inflammatory condition commonly affecting the occipital scalp and posterior neck. It causes discrete or extensive fibrosing papules that may coalesce to form pronounced ­tumorlike masses1,2 with scarring alopecia (Figure, A–C).3 Pustules, hair tufts, secondary bacterial infections, abscesses, and sinus tracts also may occur.1 The pathogenesis of AKN has been characterized as varying stages of follicular inflammation at the infundibular and isthmus levels followed by fibrotic occlusion of the ­follicular lumen.4 Pruritus, pain, bleeding, oozing, and a feeling of scalp tightness may occur.1,5

Umar et al6 performed a retrospective review of 108 men with AKN—58% of African descent, 37% Hispanic, 3% Asian, and 2% Middle Eastern—and proposed a 3-tier classification system for AKN. Tier 1 focused on the distribution and sagittal spread of AKN lesions between the clinical demarcation lines of the occipital notch and posterior hairline. Tier 2 focused on the type of lesions present—discrete papules or nodules, coalescing/abutting lesions, plaques (raised, atrophic, or indurated), or dome-shaped tumoral masses. Tier 3 focused on the presence or absence of co-existing dissecting cellulitis or folliculitis decalvans.6

Epidemiology

Acne keloidalis nuchae primarily manifests in adolescent and adult men of African or Afro-Caribbean descent.7 Among African American men, the prevalence of AKN ranges from 0.5% to 13.6%.8 Similar ranges have been reported among Nigerian, South African, and West African men.1 Acne keloidalis nuchae also affects Asian and Hispanic men but rarely is seen in non-Hispanic White men or in women of any ethnicity.9,10 The male to female ratio is 20:1.1,11 Hair texture, hairstyling practices such as closely shaved or faded haircuts, and genetics likely contribute to development of AKN. Sports and occupations that require the use of headgear or a tight collar may increase the risk for AKN.12

Key clinical features in people with darker skin tones

  • The lesions of AKN range in color from pink to dark brown or black. Postinflammatory hyperpigmentation or hyperchromia may be present around AKN lesions.
  • Chronicity of AKN may lead to extended use of high-potency topical or intralesional corticosteroids, which causes transient or long-lasting hypopigmentation, especially in those with darker skin tones.

Worth noting

  • Acne keloidalis nuchae can be disfiguring, which negatively impacts quality of life and self-esteem.12
  • Some occupations (eg, military, police) have hair policies that may not be favorable to those with or at risk for AKN.
  • Patients with AKN are 2 to 3 times more likely to present with metabolic syndrome, hypertension, type 2 diabetes mellitus, or obesity.13
 

 

Treatment

There are no treatments approved by the US Food and Drug Administration specifically for AKN. Treatment approaches are based on the pathophysiology, secondary impacts on the skin, and disease severity. Growing out the hair may prevent worsening and/or decrease the risk for new lesions.6

  • Options include but are not limited to topical and systemic therapies (eg, topical corticosteroids, oral or topical antibiotics, isotretinoin, topical retinoids, imiquimod, pimecrolimus), light devices (eg, phototherapy, laser), ablative therapies (eg, laser, cryotherapy, radiotherapy), and surgery (eg, excision, follicular unit excision), often in combination.6,14,15
  • Intralesional triamcinolone injections are considered standard of care. Adotama et al found that injecting ­triamcinolone into the deep dermis in the area of flat or papular AKN yielded better control of inflammation and decreased appearance of lesions compared with injecting individual lesions.16
  • For extensive AKN lesions that do not respond to ­less-invasive therapies, consider surgical techniques,6,17 such as follicular unit excision18 and more extensive surgical excisions building on approaches from pioneers Drs. John Kenney and Harold Pierce.19 An innovative surgical approach for removal of large AKNs is the bat excision technique—wound shape resembles a bat in a spread-eagled position—with secondary intention healing with or without debridement and/or tension sutures. The resulting linear scar acts as a new posterior hair line.20
 

 

Health disparity highlights

Access to a dermatologic or plastic surgeon with expertise in the surgical treatment of large AKNs may be challenging but is needed to reduce risk for recurrence and adverse events.

Close-cropped haircuts on the occipital scalp, which are particularly popular among men of African descent, increase the risk for AKN.5 Although this grooming style may be a personal preference, other hairstyles commonly worn by those with tightly coiled hair may be deemed “unprofessional” in society or the workplace, which leads to hairstyling practices that may increase the risk for AKN.21

Acne keloidalis nuchae remains an understudied entity that adversely affects patients with skin of color.

References
  1. Ogunbiyi A. Acne keloidalis nuchae: prevalence, impact, and management challenges. Clin Cosmet Investig Dermatol. 2016;9:483-489. doi:10.2147/CCID.S99225 
  2. Al Aboud DM, Badri T. Acne keloidalis nuchae. In: StatPearls [Internet]. Updated July 31, 2023. Accessed August 2, 2024. https://www.ncbi.nlm.nih.gov/books/NBK459135/
  3. Sperling LC, Homoky C, Pratt L, et al. Acne keloidalis is a form of primary scarring alopecia. Arch Dermatol. 2000;136:479-484.
  4. Herzberg AJ, Dinehart SM, Kerns BJ, et al. Acne keloidalis: transverse microscopy, immunohistochemistry, and electron microscopy. Am J Dermatopathol. 1990;12:109-121. doi:10.1097/00000372-199004000-00001
  5. Saka B, Akakpo A-S, Téclessou JN, et al. Risk factors associated with acne keloidalis nuchae in black subjects: a case-control study. Ann Dermatol Venereol. 2020;147:350-354. doi:10.1016/j.annder.2020.01.007
  6. Umar S, Lee DJ, Lullo JJ. A retrospective cohort study and clinical classification system of acne keloidalis nuchae. J Clin Aesthet Dermatol. 2021;14:E61-E67.
  7. Reja M, Silverberg NB. Acne keloidalis nuchae. In: Silverberg NB, Durán-McKinster C, Tay YK, eds. Pediatric Skin of Color. Springer; 2015:141-145. doi:10.1007/978-1-4614-6654-3_16
  8. Knable AL Jr, Hanke CW, Gonin R. Prevalence of acne keloidalis nuchae in football players. J Am Acad Dermatol. 1997;37:570-574. doi:10.1016/s0190-9622(97)70173-7
  9. Umar S, Ton D, Carter MJ, et al. Unveiling a shared precursor condition for acne keloidalis nuchae and primary cicatricial alopecias. Clin Cosmet Investig Dermatol. 2023;16:2315-2327. doi:10.2147/CCID.S422310
  10. Na K, Oh SH, Kim SK. Acne keloidalis nuchae in Asian: a single institutional experience. PLoS One. 2017;12:e0189790. doi:10.1371/journal.pone.0189790
  11. Ogunbiyi A, George A. Acne keloidalis in females: case report and review of literature. J Natl Med Assoc. 2005;97:736-738. 
  12. Alexis A, Heath CR, Halder RM. Folliculitis keloidalis nuchae and pseudofolliculitis barbae: are prevention and effective treatment within reach? Dermatol Clin. 2014;32:183-191. doi:10.1016/j.det.2013.12.001
  13. Kridin K, Solomon A, Tzur-Bitan D, et al. Acne keloidalis nuchae and the metabolic syndrome: a population-based study. Am J Clin Dermatol. 2020;21:733-739. doi:10.1007/s40257-020-00541-z
  14. Smart K, Rodriguez I, Worswick S. Comorbidities and treatment options for acne keloidalis nuchae. Dermatol Ther. Published online May 25, 2024. doi:10.1155/2024/8336926
  15. Callender VD, Young CM, Haverstock CL, et al. An open label study of clobetasol propionate 0.05% and betamethasone valerate 0.12% foams in the treatment of mild to moderate acne keloidalis. Cutis. 2005;75:317-321.
  16. Adotama P, Grullon K, Ali S, et al. How we do it: our method for triamcinolone injections of acne keloidalis nuchae. Dermatol Surg. 2023;49:713-714. doi:10.1097/DSS.0000000000003803
  17. Beckett N, Lawson C, Cohen G. Electrosurgical excision of acne keloidalis nuchae with secondary intention healing. J Clin Aesthet Dermatol. 2011;4:36-39.
  18. Esmat SM, Abdel Hay RM, Abu Zeid OM, et al. The efficacy of laser-assisted hair removal in the treatment of acne keloidalis nuchae; a pilot study. Eur J Dermatol. 2012;22:645-650. doi:10.1684/ejd.2012.1830
  19. Dillard AD, Quarles FN. African-American pioneers in dermatology. In: Taylor SC, Kelly AP, Lim HW, et al, eds. Dermatology for Skin of Color. 2nd ed. McGraw-Hill Education; 2016:717-730.
  20. Umar S, David CV, Castillo JR, et al. Innovative surgical approaches and selection criteria of large acne keloidalis nuchae lesions. Plast Reconstr Surg Glob Open. 2019;7:E2215. doi:10.1097/GOX.0000000000002215
  21. Lee MS, Nambudiri VE. The CROWN act and dermatology: taking a stand against race-based hair discrimination. J Am Acad Dermatol. 2021;84:1181-1182. doi:10.1016/j.jaad.2020.11.065
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Acne keloidalis nuchae (AKN) is a chronic inflammatory condition commonly affecting the occipital scalp and posterior neck. It causes discrete or extensive fibrosing papules that may coalesce to form pronounced ­tumorlike masses1,2 with scarring alopecia (Figure, A–C).3 Pustules, hair tufts, secondary bacterial infections, abscesses, and sinus tracts also may occur.1 The pathogenesis of AKN has been characterized as varying stages of follicular inflammation at the infundibular and isthmus levels followed by fibrotic occlusion of the ­follicular lumen.4 Pruritus, pain, bleeding, oozing, and a feeling of scalp tightness may occur.1,5

Umar et al6 performed a retrospective review of 108 men with AKN—58% of African descent, 37% Hispanic, 3% Asian, and 2% Middle Eastern—and proposed a 3-tier classification system for AKN. Tier 1 focused on the distribution and sagittal spread of AKN lesions between the clinical demarcation lines of the occipital notch and posterior hairline. Tier 2 focused on the type of lesions present—discrete papules or nodules, coalescing/abutting lesions, plaques (raised, atrophic, or indurated), or dome-shaped tumoral masses. Tier 3 focused on the presence or absence of co-existing dissecting cellulitis or folliculitis decalvans.6

Epidemiology

Acne keloidalis nuchae primarily manifests in adolescent and adult men of African or Afro-Caribbean descent.7 Among African American men, the prevalence of AKN ranges from 0.5% to 13.6%.8 Similar ranges have been reported among Nigerian, South African, and West African men.1 Acne keloidalis nuchae also affects Asian and Hispanic men but rarely is seen in non-Hispanic White men or in women of any ethnicity.9,10 The male to female ratio is 20:1.1,11 Hair texture, hairstyling practices such as closely shaved or faded haircuts, and genetics likely contribute to development of AKN. Sports and occupations that require the use of headgear or a tight collar may increase the risk for AKN.12

Key clinical features in people with darker skin tones

  • The lesions of AKN range in color from pink to dark brown or black. Postinflammatory hyperpigmentation or hyperchromia may be present around AKN lesions.
  • Chronicity of AKN may lead to extended use of high-potency topical or intralesional corticosteroids, which causes transient or long-lasting hypopigmentation, especially in those with darker skin tones.

Worth noting

  • Acne keloidalis nuchae can be disfiguring, which negatively impacts quality of life and self-esteem.12
  • Some occupations (eg, military, police) have hair policies that may not be favorable to those with or at risk for AKN.
  • Patients with AKN are 2 to 3 times more likely to present with metabolic syndrome, hypertension, type 2 diabetes mellitus, or obesity.13
 

 

Treatment

There are no treatments approved by the US Food and Drug Administration specifically for AKN. Treatment approaches are based on the pathophysiology, secondary impacts on the skin, and disease severity. Growing out the hair may prevent worsening and/or decrease the risk for new lesions.6

  • Options include but are not limited to topical and systemic therapies (eg, topical corticosteroids, oral or topical antibiotics, isotretinoin, topical retinoids, imiquimod, pimecrolimus), light devices (eg, phototherapy, laser), ablative therapies (eg, laser, cryotherapy, radiotherapy), and surgery (eg, excision, follicular unit excision), often in combination.6,14,15
  • Intralesional triamcinolone injections are considered standard of care. Adotama et al found that injecting ­triamcinolone into the deep dermis in the area of flat or papular AKN yielded better control of inflammation and decreased appearance of lesions compared with injecting individual lesions.16
  • For extensive AKN lesions that do not respond to ­less-invasive therapies, consider surgical techniques,6,17 such as follicular unit excision18 and more extensive surgical excisions building on approaches from pioneers Drs. John Kenney and Harold Pierce.19 An innovative surgical approach for removal of large AKNs is the bat excision technique—wound shape resembles a bat in a spread-eagled position—with secondary intention healing with or without debridement and/or tension sutures. The resulting linear scar acts as a new posterior hair line.20
 

 

Health disparity highlights

Access to a dermatologic or plastic surgeon with expertise in the surgical treatment of large AKNs may be challenging but is needed to reduce risk for recurrence and adverse events.

Close-cropped haircuts on the occipital scalp, which are particularly popular among men of African descent, increase the risk for AKN.5 Although this grooming style may be a personal preference, other hairstyles commonly worn by those with tightly coiled hair may be deemed “unprofessional” in society or the workplace, which leads to hairstyling practices that may increase the risk for AKN.21

Acne keloidalis nuchae remains an understudied entity that adversely affects patients with skin of color.

Acne keloidalis nuchae (AKN) is a chronic inflammatory condition commonly affecting the occipital scalp and posterior neck. It causes discrete or extensive fibrosing papules that may coalesce to form pronounced ­tumorlike masses1,2 with scarring alopecia (Figure, A–C).3 Pustules, hair tufts, secondary bacterial infections, abscesses, and sinus tracts also may occur.1 The pathogenesis of AKN has been characterized as varying stages of follicular inflammation at the infundibular and isthmus levels followed by fibrotic occlusion of the ­follicular lumen.4 Pruritus, pain, bleeding, oozing, and a feeling of scalp tightness may occur.1,5

Umar et al6 performed a retrospective review of 108 men with AKN—58% of African descent, 37% Hispanic, 3% Asian, and 2% Middle Eastern—and proposed a 3-tier classification system for AKN. Tier 1 focused on the distribution and sagittal spread of AKN lesions between the clinical demarcation lines of the occipital notch and posterior hairline. Tier 2 focused on the type of lesions present—discrete papules or nodules, coalescing/abutting lesions, plaques (raised, atrophic, or indurated), or dome-shaped tumoral masses. Tier 3 focused on the presence or absence of co-existing dissecting cellulitis or folliculitis decalvans.6

Epidemiology

Acne keloidalis nuchae primarily manifests in adolescent and adult men of African or Afro-Caribbean descent.7 Among African American men, the prevalence of AKN ranges from 0.5% to 13.6%.8 Similar ranges have been reported among Nigerian, South African, and West African men.1 Acne keloidalis nuchae also affects Asian and Hispanic men but rarely is seen in non-Hispanic White men or in women of any ethnicity.9,10 The male to female ratio is 20:1.1,11 Hair texture, hairstyling practices such as closely shaved or faded haircuts, and genetics likely contribute to development of AKN. Sports and occupations that require the use of headgear or a tight collar may increase the risk for AKN.12

Key clinical features in people with darker skin tones

  • The lesions of AKN range in color from pink to dark brown or black. Postinflammatory hyperpigmentation or hyperchromia may be present around AKN lesions.
  • Chronicity of AKN may lead to extended use of high-potency topical or intralesional corticosteroids, which causes transient or long-lasting hypopigmentation, especially in those with darker skin tones.

Worth noting

  • Acne keloidalis nuchae can be disfiguring, which negatively impacts quality of life and self-esteem.12
  • Some occupations (eg, military, police) have hair policies that may not be favorable to those with or at risk for AKN.
  • Patients with AKN are 2 to 3 times more likely to present with metabolic syndrome, hypertension, type 2 diabetes mellitus, or obesity.13
 

 

Treatment

There are no treatments approved by the US Food and Drug Administration specifically for AKN. Treatment approaches are based on the pathophysiology, secondary impacts on the skin, and disease severity. Growing out the hair may prevent worsening and/or decrease the risk for new lesions.6

  • Options include but are not limited to topical and systemic therapies (eg, topical corticosteroids, oral or topical antibiotics, isotretinoin, topical retinoids, imiquimod, pimecrolimus), light devices (eg, phototherapy, laser), ablative therapies (eg, laser, cryotherapy, radiotherapy), and surgery (eg, excision, follicular unit excision), often in combination.6,14,15
  • Intralesional triamcinolone injections are considered standard of care. Adotama et al found that injecting ­triamcinolone into the deep dermis in the area of flat or papular AKN yielded better control of inflammation and decreased appearance of lesions compared with injecting individual lesions.16
  • For extensive AKN lesions that do not respond to ­less-invasive therapies, consider surgical techniques,6,17 such as follicular unit excision18 and more extensive surgical excisions building on approaches from pioneers Drs. John Kenney and Harold Pierce.19 An innovative surgical approach for removal of large AKNs is the bat excision technique—wound shape resembles a bat in a spread-eagled position—with secondary intention healing with or without debridement and/or tension sutures. The resulting linear scar acts as a new posterior hair line.20
 

 

Health disparity highlights

Access to a dermatologic or plastic surgeon with expertise in the surgical treatment of large AKNs may be challenging but is needed to reduce risk for recurrence and adverse events.

Close-cropped haircuts on the occipital scalp, which are particularly popular among men of African descent, increase the risk for AKN.5 Although this grooming style may be a personal preference, other hairstyles commonly worn by those with tightly coiled hair may be deemed “unprofessional” in society or the workplace, which leads to hairstyling practices that may increase the risk for AKN.21

Acne keloidalis nuchae remains an understudied entity that adversely affects patients with skin of color.

References
  1. Ogunbiyi A. Acne keloidalis nuchae: prevalence, impact, and management challenges. Clin Cosmet Investig Dermatol. 2016;9:483-489. doi:10.2147/CCID.S99225 
  2. Al Aboud DM, Badri T. Acne keloidalis nuchae. In: StatPearls [Internet]. Updated July 31, 2023. Accessed August 2, 2024. https://www.ncbi.nlm.nih.gov/books/NBK459135/
  3. Sperling LC, Homoky C, Pratt L, et al. Acne keloidalis is a form of primary scarring alopecia. Arch Dermatol. 2000;136:479-484.
  4. Herzberg AJ, Dinehart SM, Kerns BJ, et al. Acne keloidalis: transverse microscopy, immunohistochemistry, and electron microscopy. Am J Dermatopathol. 1990;12:109-121. doi:10.1097/00000372-199004000-00001
  5. Saka B, Akakpo A-S, Téclessou JN, et al. Risk factors associated with acne keloidalis nuchae in black subjects: a case-control study. Ann Dermatol Venereol. 2020;147:350-354. doi:10.1016/j.annder.2020.01.007
  6. Umar S, Lee DJ, Lullo JJ. A retrospective cohort study and clinical classification system of acne keloidalis nuchae. J Clin Aesthet Dermatol. 2021;14:E61-E67.
  7. Reja M, Silverberg NB. Acne keloidalis nuchae. In: Silverberg NB, Durán-McKinster C, Tay YK, eds. Pediatric Skin of Color. Springer; 2015:141-145. doi:10.1007/978-1-4614-6654-3_16
  8. Knable AL Jr, Hanke CW, Gonin R. Prevalence of acne keloidalis nuchae in football players. J Am Acad Dermatol. 1997;37:570-574. doi:10.1016/s0190-9622(97)70173-7
  9. Umar S, Ton D, Carter MJ, et al. Unveiling a shared precursor condition for acne keloidalis nuchae and primary cicatricial alopecias. Clin Cosmet Investig Dermatol. 2023;16:2315-2327. doi:10.2147/CCID.S422310
  10. Na K, Oh SH, Kim SK. Acne keloidalis nuchae in Asian: a single institutional experience. PLoS One. 2017;12:e0189790. doi:10.1371/journal.pone.0189790
  11. Ogunbiyi A, George A. Acne keloidalis in females: case report and review of literature. J Natl Med Assoc. 2005;97:736-738. 
  12. Alexis A, Heath CR, Halder RM. Folliculitis keloidalis nuchae and pseudofolliculitis barbae: are prevention and effective treatment within reach? Dermatol Clin. 2014;32:183-191. doi:10.1016/j.det.2013.12.001
  13. Kridin K, Solomon A, Tzur-Bitan D, et al. Acne keloidalis nuchae and the metabolic syndrome: a population-based study. Am J Clin Dermatol. 2020;21:733-739. doi:10.1007/s40257-020-00541-z
  14. Smart K, Rodriguez I, Worswick S. Comorbidities and treatment options for acne keloidalis nuchae. Dermatol Ther. Published online May 25, 2024. doi:10.1155/2024/8336926
  15. Callender VD, Young CM, Haverstock CL, et al. An open label study of clobetasol propionate 0.05% and betamethasone valerate 0.12% foams in the treatment of mild to moderate acne keloidalis. Cutis. 2005;75:317-321.
  16. Adotama P, Grullon K, Ali S, et al. How we do it: our method for triamcinolone injections of acne keloidalis nuchae. Dermatol Surg. 2023;49:713-714. doi:10.1097/DSS.0000000000003803
  17. Beckett N, Lawson C, Cohen G. Electrosurgical excision of acne keloidalis nuchae with secondary intention healing. J Clin Aesthet Dermatol. 2011;4:36-39.
  18. Esmat SM, Abdel Hay RM, Abu Zeid OM, et al. The efficacy of laser-assisted hair removal in the treatment of acne keloidalis nuchae; a pilot study. Eur J Dermatol. 2012;22:645-650. doi:10.1684/ejd.2012.1830
  19. Dillard AD, Quarles FN. African-American pioneers in dermatology. In: Taylor SC, Kelly AP, Lim HW, et al, eds. Dermatology for Skin of Color. 2nd ed. McGraw-Hill Education; 2016:717-730.
  20. Umar S, David CV, Castillo JR, et al. Innovative surgical approaches and selection criteria of large acne keloidalis nuchae lesions. Plast Reconstr Surg Glob Open. 2019;7:E2215. doi:10.1097/GOX.0000000000002215
  21. Lee MS, Nambudiri VE. The CROWN act and dermatology: taking a stand against race-based hair discrimination. J Am Acad Dermatol. 2021;84:1181-1182. doi:10.1016/j.jaad.2020.11.065
References
  1. Ogunbiyi A. Acne keloidalis nuchae: prevalence, impact, and management challenges. Clin Cosmet Investig Dermatol. 2016;9:483-489. doi:10.2147/CCID.S99225 
  2. Al Aboud DM, Badri T. Acne keloidalis nuchae. In: StatPearls [Internet]. Updated July 31, 2023. Accessed August 2, 2024. https://www.ncbi.nlm.nih.gov/books/NBK459135/
  3. Sperling LC, Homoky C, Pratt L, et al. Acne keloidalis is a form of primary scarring alopecia. Arch Dermatol. 2000;136:479-484.
  4. Herzberg AJ, Dinehart SM, Kerns BJ, et al. Acne keloidalis: transverse microscopy, immunohistochemistry, and electron microscopy. Am J Dermatopathol. 1990;12:109-121. doi:10.1097/00000372-199004000-00001
  5. Saka B, Akakpo A-S, Téclessou JN, et al. Risk factors associated with acne keloidalis nuchae in black subjects: a case-control study. Ann Dermatol Venereol. 2020;147:350-354. doi:10.1016/j.annder.2020.01.007
  6. Umar S, Lee DJ, Lullo JJ. A retrospective cohort study and clinical classification system of acne keloidalis nuchae. J Clin Aesthet Dermatol. 2021;14:E61-E67.
  7. Reja M, Silverberg NB. Acne keloidalis nuchae. In: Silverberg NB, Durán-McKinster C, Tay YK, eds. Pediatric Skin of Color. Springer; 2015:141-145. doi:10.1007/978-1-4614-6654-3_16
  8. Knable AL Jr, Hanke CW, Gonin R. Prevalence of acne keloidalis nuchae in football players. J Am Acad Dermatol. 1997;37:570-574. doi:10.1016/s0190-9622(97)70173-7
  9. Umar S, Ton D, Carter MJ, et al. Unveiling a shared precursor condition for acne keloidalis nuchae and primary cicatricial alopecias. Clin Cosmet Investig Dermatol. 2023;16:2315-2327. doi:10.2147/CCID.S422310
  10. Na K, Oh SH, Kim SK. Acne keloidalis nuchae in Asian: a single institutional experience. PLoS One. 2017;12:e0189790. doi:10.1371/journal.pone.0189790
  11. Ogunbiyi A, George A. Acne keloidalis in females: case report and review of literature. J Natl Med Assoc. 2005;97:736-738. 
  12. Alexis A, Heath CR, Halder RM. Folliculitis keloidalis nuchae and pseudofolliculitis barbae: are prevention and effective treatment within reach? Dermatol Clin. 2014;32:183-191. doi:10.1016/j.det.2013.12.001
  13. Kridin K, Solomon A, Tzur-Bitan D, et al. Acne keloidalis nuchae and the metabolic syndrome: a population-based study. Am J Clin Dermatol. 2020;21:733-739. doi:10.1007/s40257-020-00541-z
  14. Smart K, Rodriguez I, Worswick S. Comorbidities and treatment options for acne keloidalis nuchae. Dermatol Ther. Published online May 25, 2024. doi:10.1155/2024/8336926
  15. Callender VD, Young CM, Haverstock CL, et al. An open label study of clobetasol propionate 0.05% and betamethasone valerate 0.12% foams in the treatment of mild to moderate acne keloidalis. Cutis. 2005;75:317-321.
  16. Adotama P, Grullon K, Ali S, et al. How we do it: our method for triamcinolone injections of acne keloidalis nuchae. Dermatol Surg. 2023;49:713-714. doi:10.1097/DSS.0000000000003803
  17. Beckett N, Lawson C, Cohen G. Electrosurgical excision of acne keloidalis nuchae with secondary intention healing. J Clin Aesthet Dermatol. 2011;4:36-39.
  18. Esmat SM, Abdel Hay RM, Abu Zeid OM, et al. The efficacy of laser-assisted hair removal in the treatment of acne keloidalis nuchae; a pilot study. Eur J Dermatol. 2012;22:645-650. doi:10.1684/ejd.2012.1830
  19. Dillard AD, Quarles FN. African-American pioneers in dermatology. In: Taylor SC, Kelly AP, Lim HW, et al, eds. Dermatology for Skin of Color. 2nd ed. McGraw-Hill Education; 2016:717-730.
  20. Umar S, David CV, Castillo JR, et al. Innovative surgical approaches and selection criteria of large acne keloidalis nuchae lesions. Plast Reconstr Surg Glob Open. 2019;7:E2215. doi:10.1097/GOX.0000000000002215
  21. Lee MS, Nambudiri VE. The CROWN act and dermatology: taking a stand against race-based hair discrimination. J Am Acad Dermatol. 2021;84:1181-1182. doi:10.1016/j.jaad.2020.11.065
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Implementation of a Prior Authorization Drug Review Process for Care in the Community Oncology Prescriptions

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Wed, 09/18/2024 - 20:57

Background

Veterans receiving care in the community (CITC) are prescribed oral oncology medications to be filled at VA pharmacies. Many of the outpatient prescriptions written for oncology medications require a prior authorization review by a pharmacist. A standardized workflow to obtain outside records to ensure patient safety, appropriate therapeutic selections, and maximize cost avoidance was established in March 2023. This quality improvement project evaluated the implementation of a clinical peer-to-peer prescription referral process between operational and oncology clinical pharmacists (CPS) to include a prior authorization drug request (PADR) review.

Methods

A retrospective chart review was completed to assess the effectiveness of the CITC Rx review process. Patients who had a CITC PADR consult entered between April 2023 and March 2024 were included. Metrics obtained included medication ordered, diagnosis, line of treatment, date prescription received, time to PADR completion, PADR outcome, FDA approval status, and conformity to VA National Oncology Program (NOP) disease pathway. Descriptive statistics were used to describe the data.

Results

Top reasons for referral for CITC included best medical interest and drive time. Fifty-one PADR requests were submitted for 41 patients. Forty-six PADR consults were completed. Approval rate was 85%. Consults involved 32 different oncolytics, 78% had VA Pharmacy Benefits Manager criteria for use. Thirty-seven percent of the PADR requests adhered to the NOP pathways. Approximately 30% of PADR requests did not have an associated NOP pathway. Seventy-four percent of drugs had an associated FDA approval. On average, two calls were made to CITC provider by the operational pharmacist to obtain necessary information for clinical review, resulting in a 5 day time to PADR entry. The average time to PADR consult completion was 9.5 hours. Four interventions addressed drug interactions or dosing adjustments.

Conclusions

This review demonstrated the feasibility and framework for implementing a standardized peer-to-peer PADR consult review process for CITC prescriptions requiring prior authorization. Having separate intake of CITC prescriptions by the operational pharmacist who is responsible for obtaining outside records, the CPS provided a timely clinical review of PADR consults, assuring appropriate therapeutic selections to maximize cost avoidance while maintaining patient safety.

Issue
Federal Practitioner - 41(suppl 4)
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Topics
Page Number
S43-S44
Sections

Background

Veterans receiving care in the community (CITC) are prescribed oral oncology medications to be filled at VA pharmacies. Many of the outpatient prescriptions written for oncology medications require a prior authorization review by a pharmacist. A standardized workflow to obtain outside records to ensure patient safety, appropriate therapeutic selections, and maximize cost avoidance was established in March 2023. This quality improvement project evaluated the implementation of a clinical peer-to-peer prescription referral process between operational and oncology clinical pharmacists (CPS) to include a prior authorization drug request (PADR) review.

Methods

A retrospective chart review was completed to assess the effectiveness of the CITC Rx review process. Patients who had a CITC PADR consult entered between April 2023 and March 2024 were included. Metrics obtained included medication ordered, diagnosis, line of treatment, date prescription received, time to PADR completion, PADR outcome, FDA approval status, and conformity to VA National Oncology Program (NOP) disease pathway. Descriptive statistics were used to describe the data.

Results

Top reasons for referral for CITC included best medical interest and drive time. Fifty-one PADR requests were submitted for 41 patients. Forty-six PADR consults were completed. Approval rate was 85%. Consults involved 32 different oncolytics, 78% had VA Pharmacy Benefits Manager criteria for use. Thirty-seven percent of the PADR requests adhered to the NOP pathways. Approximately 30% of PADR requests did not have an associated NOP pathway. Seventy-four percent of drugs had an associated FDA approval. On average, two calls were made to CITC provider by the operational pharmacist to obtain necessary information for clinical review, resulting in a 5 day time to PADR entry. The average time to PADR consult completion was 9.5 hours. Four interventions addressed drug interactions or dosing adjustments.

Conclusions

This review demonstrated the feasibility and framework for implementing a standardized peer-to-peer PADR consult review process for CITC prescriptions requiring prior authorization. Having separate intake of CITC prescriptions by the operational pharmacist who is responsible for obtaining outside records, the CPS provided a timely clinical review of PADR consults, assuring appropriate therapeutic selections to maximize cost avoidance while maintaining patient safety.

Background

Veterans receiving care in the community (CITC) are prescribed oral oncology medications to be filled at VA pharmacies. Many of the outpatient prescriptions written for oncology medications require a prior authorization review by a pharmacist. A standardized workflow to obtain outside records to ensure patient safety, appropriate therapeutic selections, and maximize cost avoidance was established in March 2023. This quality improvement project evaluated the implementation of a clinical peer-to-peer prescription referral process between operational and oncology clinical pharmacists (CPS) to include a prior authorization drug request (PADR) review.

Methods

A retrospective chart review was completed to assess the effectiveness of the CITC Rx review process. Patients who had a CITC PADR consult entered between April 2023 and March 2024 were included. Metrics obtained included medication ordered, diagnosis, line of treatment, date prescription received, time to PADR completion, PADR outcome, FDA approval status, and conformity to VA National Oncology Program (NOP) disease pathway. Descriptive statistics were used to describe the data.

Results

Top reasons for referral for CITC included best medical interest and drive time. Fifty-one PADR requests were submitted for 41 patients. Forty-six PADR consults were completed. Approval rate was 85%. Consults involved 32 different oncolytics, 78% had VA Pharmacy Benefits Manager criteria for use. Thirty-seven percent of the PADR requests adhered to the NOP pathways. Approximately 30% of PADR requests did not have an associated NOP pathway. Seventy-four percent of drugs had an associated FDA approval. On average, two calls were made to CITC provider by the operational pharmacist to obtain necessary information for clinical review, resulting in a 5 day time to PADR entry. The average time to PADR consult completion was 9.5 hours. Four interventions addressed drug interactions or dosing adjustments.

Conclusions

This review demonstrated the feasibility and framework for implementing a standardized peer-to-peer PADR consult review process for CITC prescriptions requiring prior authorization. Having separate intake of CITC prescriptions by the operational pharmacist who is responsible for obtaining outside records, the CPS provided a timely clinical review of PADR consults, assuring appropriate therapeutic selections to maximize cost avoidance while maintaining patient safety.

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Posterior Reversible Encephalopathy Syndrome (PRES) Following Bevacizumab and Atezolizumab Therapy in Hepatocellular Carcinoma (HCC)

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Background

Bevacizumab, an anti-vascular endothelial growth factor monoclonal antibody, is known to inhibit angiogenesis and prevent carcinogenesis. Recent evidence from the IMbrave050 trial indicates that combining bevacizumab with atezolizumab enhances recurrence-free survival (RFS) in high-risk HCC patients undergoing curative treatments. Bevacizumab is notorious for causing endothelial dysfunction that may provoke vasospasm, leading to central hypoperfusion, hypertension, and, albeit rarely, PRES. Similarly, immunotherapy, including atezolizumab, has been implicated in PRES, underscoring a potential risk when these therapies are administered concurrently.

Case Presentation

A 64-year-old woman with a history of hepatitis C and alcoholic cirrhosis was diagnosed with stage II (T2 N0 M0) HCC. Following partial hepatectomy, we proceeded with adjuvant systemic therapy with atezolizumab and bevacizumab (per the IMbrave050 trial). After her 2nd treatment, she developed altered mental status, seizures, and severe hypertension. Labs revealed acute kidney injury and elevated creatinine kinase levels suggesting rhabdomyolysis. Computed tomography head showed no acute findings, but magnetic resonance imaging of the brain identified increased flair attenuated inversion recovery (FLAIR) signal in the brain’s posterior regions, indicating PRES. Symptomatic management with anti-hypertensives and intravenous fluids led to the recovery of mental status to baseline. Further therapy with bevacizumab and atezolizumab was then held off.

Discussion

Therapeutic advances in HCC management through the IMbrave050 trial demonstrate the efficacy of bevacizumab and atezolizumab in reducing RFS, without highlighting the serious side effects like PRES. To our knowledge, this is the first case reported where PRES occurred with the simultaneous use of atezolizumab and bevacizumab. Since both drugs can individually cause PRES, there might be a heightened risk with the co-administration, signaling a critical need for vigilant monitoring and further research into this treatment modality’s long-term safety profile.

Issue
Federal Practitioner - 41(suppl 4)
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S43
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Background

Bevacizumab, an anti-vascular endothelial growth factor monoclonal antibody, is known to inhibit angiogenesis and prevent carcinogenesis. Recent evidence from the IMbrave050 trial indicates that combining bevacizumab with atezolizumab enhances recurrence-free survival (RFS) in high-risk HCC patients undergoing curative treatments. Bevacizumab is notorious for causing endothelial dysfunction that may provoke vasospasm, leading to central hypoperfusion, hypertension, and, albeit rarely, PRES. Similarly, immunotherapy, including atezolizumab, has been implicated in PRES, underscoring a potential risk when these therapies are administered concurrently.

Case Presentation

A 64-year-old woman with a history of hepatitis C and alcoholic cirrhosis was diagnosed with stage II (T2 N0 M0) HCC. Following partial hepatectomy, we proceeded with adjuvant systemic therapy with atezolizumab and bevacizumab (per the IMbrave050 trial). After her 2nd treatment, she developed altered mental status, seizures, and severe hypertension. Labs revealed acute kidney injury and elevated creatinine kinase levels suggesting rhabdomyolysis. Computed tomography head showed no acute findings, but magnetic resonance imaging of the brain identified increased flair attenuated inversion recovery (FLAIR) signal in the brain’s posterior regions, indicating PRES. Symptomatic management with anti-hypertensives and intravenous fluids led to the recovery of mental status to baseline. Further therapy with bevacizumab and atezolizumab was then held off.

Discussion

Therapeutic advances in HCC management through the IMbrave050 trial demonstrate the efficacy of bevacizumab and atezolizumab in reducing RFS, without highlighting the serious side effects like PRES. To our knowledge, this is the first case reported where PRES occurred with the simultaneous use of atezolizumab and bevacizumab. Since both drugs can individually cause PRES, there might be a heightened risk with the co-administration, signaling a critical need for vigilant monitoring and further research into this treatment modality’s long-term safety profile.

Background

Bevacizumab, an anti-vascular endothelial growth factor monoclonal antibody, is known to inhibit angiogenesis and prevent carcinogenesis. Recent evidence from the IMbrave050 trial indicates that combining bevacizumab with atezolizumab enhances recurrence-free survival (RFS) in high-risk HCC patients undergoing curative treatments. Bevacizumab is notorious for causing endothelial dysfunction that may provoke vasospasm, leading to central hypoperfusion, hypertension, and, albeit rarely, PRES. Similarly, immunotherapy, including atezolizumab, has been implicated in PRES, underscoring a potential risk when these therapies are administered concurrently.

Case Presentation

A 64-year-old woman with a history of hepatitis C and alcoholic cirrhosis was diagnosed with stage II (T2 N0 M0) HCC. Following partial hepatectomy, we proceeded with adjuvant systemic therapy with atezolizumab and bevacizumab (per the IMbrave050 trial). After her 2nd treatment, she developed altered mental status, seizures, and severe hypertension. Labs revealed acute kidney injury and elevated creatinine kinase levels suggesting rhabdomyolysis. Computed tomography head showed no acute findings, but magnetic resonance imaging of the brain identified increased flair attenuated inversion recovery (FLAIR) signal in the brain’s posterior regions, indicating PRES. Symptomatic management with anti-hypertensives and intravenous fluids led to the recovery of mental status to baseline. Further therapy with bevacizumab and atezolizumab was then held off.

Discussion

Therapeutic advances in HCC management through the IMbrave050 trial demonstrate the efficacy of bevacizumab and atezolizumab in reducing RFS, without highlighting the serious side effects like PRES. To our knowledge, this is the first case reported where PRES occurred with the simultaneous use of atezolizumab and bevacizumab. Since both drugs can individually cause PRES, there might be a heightened risk with the co-administration, signaling a critical need for vigilant monitoring and further research into this treatment modality’s long-term safety profile.

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CDK7 Inhibition in Patient-Derived Organoid Modeling of Biliary Tract Cancers

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Background

Biliary tract cancers (BTC) represent an important rare cancer type in Veterans. The heterogeneity of BTC has revealed distinct molecular subtypes, however a majority of patients remain without precision-based targeted therapeutics. Epigenomic remodeling has been considered as a shared mechanism of therapeutic resistance. Cyclin dependant kinase 7 (CDK7) is an emerging therapeutic target that functions by phosphorylation of RNA polymerase II and cell cycle progression. Here, we investigate CDK7 inhibition using small molecule inhibition (SY-5609) across a panel of BTC organoid models.

Methods

PCOs were expanded from patient-derived tissues and shared models provided from the NCI. Organoid response was tracked from growth using Z-stacked high content imaging (Cytation5) to track individual organoid growth and established viability markers of Caspase-3/7 (C3/7) and ToPro3, for induced apoptosis and necrosis for phenotypic screening. Treatment groups included media control, positive control (cycloheximide) 200uM continuous, gemcitabine (gem) 10uM 24h, cisplatin (cis) 5uM 48h, combination gem+cis, and SY-5609 10nM 144h. Glass’s delta was used to standardize effect size relative to media control.

Results

Patient-derived cancer organoids were generated across four unique models including pathogenic (A-B) IDH1 p.R132G, (C) FGFR2-HPGDS fusion and (D) non-targetable molecular profile (CCNE1 amplified, BRCA1 splice variant). In the non-targeted model, CDK7 inhibition achieved growth arrest +2.0% (SY-5607) v. +43.0% (media control) with effect size >1.1. This response was similar to standard of care gem+cis with growth of +1.5% and augmented using the combination of gem+SY-5609 -3.1% with effect size of >1.3. When treated with CDK7 inhibition, persistent growth was seen across models of IDH1 mutant and FGFR2-HPGDS2 fusion cancers. High content imaging revealed subclonal populations with failed induction of apoptosis and necrosis at 144h, suggestive of the critical need to address intrinsic resistant populations to both SOC chemotherapy and novel targeted strategies.

Conclusions

Across a diversity of BTC cancer models, CDK7 inhibition was found to achieve growth arrest in a CCNE1 amplified cancer model. High content imaging of organoids can identify subclonal resistant populations as a critical unmet need in future therapeutic development. Ongoing work is adapting these techniques to multiple small molecule inhibitors that target transcription including EZH1/2 and CDK9.

Issue
Federal Practitioner - 41(suppl 4)
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S42-S43
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Background

Biliary tract cancers (BTC) represent an important rare cancer type in Veterans. The heterogeneity of BTC has revealed distinct molecular subtypes, however a majority of patients remain without precision-based targeted therapeutics. Epigenomic remodeling has been considered as a shared mechanism of therapeutic resistance. Cyclin dependant kinase 7 (CDK7) is an emerging therapeutic target that functions by phosphorylation of RNA polymerase II and cell cycle progression. Here, we investigate CDK7 inhibition using small molecule inhibition (SY-5609) across a panel of BTC organoid models.

Methods

PCOs were expanded from patient-derived tissues and shared models provided from the NCI. Organoid response was tracked from growth using Z-stacked high content imaging (Cytation5) to track individual organoid growth and established viability markers of Caspase-3/7 (C3/7) and ToPro3, for induced apoptosis and necrosis for phenotypic screening. Treatment groups included media control, positive control (cycloheximide) 200uM continuous, gemcitabine (gem) 10uM 24h, cisplatin (cis) 5uM 48h, combination gem+cis, and SY-5609 10nM 144h. Glass’s delta was used to standardize effect size relative to media control.

Results

Patient-derived cancer organoids were generated across four unique models including pathogenic (A-B) IDH1 p.R132G, (C) FGFR2-HPGDS fusion and (D) non-targetable molecular profile (CCNE1 amplified, BRCA1 splice variant). In the non-targeted model, CDK7 inhibition achieved growth arrest +2.0% (SY-5607) v. +43.0% (media control) with effect size >1.1. This response was similar to standard of care gem+cis with growth of +1.5% and augmented using the combination of gem+SY-5609 -3.1% with effect size of >1.3. When treated with CDK7 inhibition, persistent growth was seen across models of IDH1 mutant and FGFR2-HPGDS2 fusion cancers. High content imaging revealed subclonal populations with failed induction of apoptosis and necrosis at 144h, suggestive of the critical need to address intrinsic resistant populations to both SOC chemotherapy and novel targeted strategies.

Conclusions

Across a diversity of BTC cancer models, CDK7 inhibition was found to achieve growth arrest in a CCNE1 amplified cancer model. High content imaging of organoids can identify subclonal resistant populations as a critical unmet need in future therapeutic development. Ongoing work is adapting these techniques to multiple small molecule inhibitors that target transcription including EZH1/2 and CDK9.

Background

Biliary tract cancers (BTC) represent an important rare cancer type in Veterans. The heterogeneity of BTC has revealed distinct molecular subtypes, however a majority of patients remain without precision-based targeted therapeutics. Epigenomic remodeling has been considered as a shared mechanism of therapeutic resistance. Cyclin dependant kinase 7 (CDK7) is an emerging therapeutic target that functions by phosphorylation of RNA polymerase II and cell cycle progression. Here, we investigate CDK7 inhibition using small molecule inhibition (SY-5609) across a panel of BTC organoid models.

Methods

PCOs were expanded from patient-derived tissues and shared models provided from the NCI. Organoid response was tracked from growth using Z-stacked high content imaging (Cytation5) to track individual organoid growth and established viability markers of Caspase-3/7 (C3/7) and ToPro3, for induced apoptosis and necrosis for phenotypic screening. Treatment groups included media control, positive control (cycloheximide) 200uM continuous, gemcitabine (gem) 10uM 24h, cisplatin (cis) 5uM 48h, combination gem+cis, and SY-5609 10nM 144h. Glass’s delta was used to standardize effect size relative to media control.

Results

Patient-derived cancer organoids were generated across four unique models including pathogenic (A-B) IDH1 p.R132G, (C) FGFR2-HPGDS fusion and (D) non-targetable molecular profile (CCNE1 amplified, BRCA1 splice variant). In the non-targeted model, CDK7 inhibition achieved growth arrest +2.0% (SY-5607) v. +43.0% (media control) with effect size >1.1. This response was similar to standard of care gem+cis with growth of +1.5% and augmented using the combination of gem+SY-5609 -3.1% with effect size of >1.3. When treated with CDK7 inhibition, persistent growth was seen across models of IDH1 mutant and FGFR2-HPGDS2 fusion cancers. High content imaging revealed subclonal populations with failed induction of apoptosis and necrosis at 144h, suggestive of the critical need to address intrinsic resistant populations to both SOC chemotherapy and novel targeted strategies.

Conclusions

Across a diversity of BTC cancer models, CDK7 inhibition was found to achieve growth arrest in a CCNE1 amplified cancer model. High content imaging of organoids can identify subclonal resistant populations as a critical unmet need in future therapeutic development. Ongoing work is adapting these techniques to multiple small molecule inhibitors that target transcription including EZH1/2 and CDK9.

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The OCTAGON Project: A Novel VA-Based Telehealth Intervention for Oral Chemotherapy Monitoring

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Background

Many Veterans with cancer experience substantial side effects related to their chemotherapy treatments resulting in impaired quality of life. Prompt management of such symptoms can improve adherence to therapy and potentially clinical outcomes. Previous studies in cancer patients have shown that mobile apps can improve symptom management and quality of life, though there are limited studies using oncology-focused apps in the VA population. The VA Annie App is an optimal platform for Veterans since it relies primarily on SMS-based texting and not on internet capabilities. This would address several well-known barriers to Veterans’ care access (limited internet connectivity, transportation) and enhance symptom reporting between infrequent provider visits. Providers can securely collect app responses within the VA system and there is already considerable VA developer experience with designing complex protocols. The OCTAGON project (Optimizing Cancer Care with Telehealth Assessment for Goal-Oriented Needs) will have the following goals: 1) To develop Annie App protocols to assist in management of cancer and/or chemotherapy-related symptoms (OCTAGON intervention), 2) To examine initial acceptability, feasibility, and Veteran-reported outcomes, 3) To explore short term effects on the utilization of VA encounters.

Methods

All patients who are primarily being managed at the VA Ann Arbor for their cancer therapy and are receiving one of the following therapies are considered eligible: EGFR inhibitors (lung cancer), antiandrogen therapies (prostate cancer), BTK inhibitors (lymphoma).

Discussion

Drug-specific protocols will be developed in conjunction with clinical pharmacists with experience in outpatient oral chemotherapy toxicity monitoring. Questions will have either a Yes/No, or numerical response. Interventions will be administered weekly for the first 3 months after enrollment, then decrease to monthly for a total of 6 months on protocol. Patients will be directed to contact their providers with any significant changes in tolerability. Planned data collected will include intervention question responses, adverse events, demographics, diagnosis, disease response, hospitalizations, treatment dose reductions or interruptions, provider and staff utilization. Survey responses to assess treatment acceptability (Treatment Acceptability/Adherence Scale), usability (System Usability Scale), general health (PROMIS-GH), and patient satisfaction will also be collected. Funding: VA Telehealth Research and Innovation for Veterans with Cancer (THRIVE).

Issue
Federal Practitioner - 41(suppl 4)
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S42
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Background

Many Veterans with cancer experience substantial side effects related to their chemotherapy treatments resulting in impaired quality of life. Prompt management of such symptoms can improve adherence to therapy and potentially clinical outcomes. Previous studies in cancer patients have shown that mobile apps can improve symptom management and quality of life, though there are limited studies using oncology-focused apps in the VA population. The VA Annie App is an optimal platform for Veterans since it relies primarily on SMS-based texting and not on internet capabilities. This would address several well-known barriers to Veterans’ care access (limited internet connectivity, transportation) and enhance symptom reporting between infrequent provider visits. Providers can securely collect app responses within the VA system and there is already considerable VA developer experience with designing complex protocols. The OCTAGON project (Optimizing Cancer Care with Telehealth Assessment for Goal-Oriented Needs) will have the following goals: 1) To develop Annie App protocols to assist in management of cancer and/or chemotherapy-related symptoms (OCTAGON intervention), 2) To examine initial acceptability, feasibility, and Veteran-reported outcomes, 3) To explore short term effects on the utilization of VA encounters.

Methods

All patients who are primarily being managed at the VA Ann Arbor for their cancer therapy and are receiving one of the following therapies are considered eligible: EGFR inhibitors (lung cancer), antiandrogen therapies (prostate cancer), BTK inhibitors (lymphoma).

Discussion

Drug-specific protocols will be developed in conjunction with clinical pharmacists with experience in outpatient oral chemotherapy toxicity monitoring. Questions will have either a Yes/No, or numerical response. Interventions will be administered weekly for the first 3 months after enrollment, then decrease to monthly for a total of 6 months on protocol. Patients will be directed to contact their providers with any significant changes in tolerability. Planned data collected will include intervention question responses, adverse events, demographics, diagnosis, disease response, hospitalizations, treatment dose reductions or interruptions, provider and staff utilization. Survey responses to assess treatment acceptability (Treatment Acceptability/Adherence Scale), usability (System Usability Scale), general health (PROMIS-GH), and patient satisfaction will also be collected. Funding: VA Telehealth Research and Innovation for Veterans with Cancer (THRIVE).

Background

Many Veterans with cancer experience substantial side effects related to their chemotherapy treatments resulting in impaired quality of life. Prompt management of such symptoms can improve adherence to therapy and potentially clinical outcomes. Previous studies in cancer patients have shown that mobile apps can improve symptom management and quality of life, though there are limited studies using oncology-focused apps in the VA population. The VA Annie App is an optimal platform for Veterans since it relies primarily on SMS-based texting and not on internet capabilities. This would address several well-known barriers to Veterans’ care access (limited internet connectivity, transportation) and enhance symptom reporting between infrequent provider visits. Providers can securely collect app responses within the VA system and there is already considerable VA developer experience with designing complex protocols. The OCTAGON project (Optimizing Cancer Care with Telehealth Assessment for Goal-Oriented Needs) will have the following goals: 1) To develop Annie App protocols to assist in management of cancer and/or chemotherapy-related symptoms (OCTAGON intervention), 2) To examine initial acceptability, feasibility, and Veteran-reported outcomes, 3) To explore short term effects on the utilization of VA encounters.

Methods

All patients who are primarily being managed at the VA Ann Arbor for their cancer therapy and are receiving one of the following therapies are considered eligible: EGFR inhibitors (lung cancer), antiandrogen therapies (prostate cancer), BTK inhibitors (lymphoma).

Discussion

Drug-specific protocols will be developed in conjunction with clinical pharmacists with experience in outpatient oral chemotherapy toxicity monitoring. Questions will have either a Yes/No, or numerical response. Interventions will be administered weekly for the first 3 months after enrollment, then decrease to monthly for a total of 6 months on protocol. Patients will be directed to contact their providers with any significant changes in tolerability. Planned data collected will include intervention question responses, adverse events, demographics, diagnosis, disease response, hospitalizations, treatment dose reductions or interruptions, provider and staff utilization. Survey responses to assess treatment acceptability (Treatment Acceptability/Adherence Scale), usability (System Usability Scale), general health (PROMIS-GH), and patient satisfaction will also be collected. Funding: VA Telehealth Research and Innovation for Veterans with Cancer (THRIVE).

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Carboplatin as a Radiosensitizing Agent in Locally Advanced Head and Neck Cancer: Friendly to an Older Veteran Population

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Background

The standard of care for locally advanced head and neck squamous cell carcinoma (HNSCC) is combination chemoradiotherapy. Platinum-based chemotherapy is used for radiosensitization and significantly improves locoregional control and survival. Cisplatin is the standard of care; however, many patients are cisplatin-ineligible due to underlying comorbidities. Carboplatin is an alternative chemotherapy in these patients, but efficacy data are lacking. Purpose: To evaluate the efficacy and tolerability of weekly carboplatin concurrent with radiation in veterans with locally advanced HNSCC.

Methods

Our tumor registry was used to identify patients who received platinum-based chemoradiotherapy for stage III-IVB HNSCC at a single center between 2007 to 2017. Patients who received carboplatin were identified. Data including dosing, toxicities, and disease response was collected and analyzed.

Results

A total of 26 patients who received weekly carboplatin were analyzed. All patients were male with an average age of 65. A usual dose of carboplatin AUC 2 was utilized. The average cumulative dose for weekly carboplatin was AUC 12, with most patients (65%) receiving 6 doses or more. The mean number of weekly carboplatin doses held was 0.3. 7 patients (27%) had at least one dose held. 21 (81%) patients showed treatment benefit: 19 (73%) had complete response and 2 (8%) had partial response on first scan following treatment. The four most common toxicities were mucositis (69%), nausea/vomiting (23%), oral thrush (19%), and dermatologic toxicities (19%). The most common toxicities causing dose interruption were fatigue (12%), neutropenia (8%), and thrombocytopenia (8%). Grade 3/4 mucositis was experienced in 6 patients (23%). Other grade 3/4 toxicities included neutropenia (8%), anemia (8%), thrombocytopenia (1%), nephrotoxicity (1%) and nausea (1%).

Conclusions

Carboplatin was both efficacious and well tolerated in our older veteran population. These findings add to the limited body of evidence examining weekly carboplatin in patients with advanced head and neck cancer. While cisplatin remains standard of care, carboplatin may be a reasonable alternative as evidenced in a real-world veteran population.

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Background

The standard of care for locally advanced head and neck squamous cell carcinoma (HNSCC) is combination chemoradiotherapy. Platinum-based chemotherapy is used for radiosensitization and significantly improves locoregional control and survival. Cisplatin is the standard of care; however, many patients are cisplatin-ineligible due to underlying comorbidities. Carboplatin is an alternative chemotherapy in these patients, but efficacy data are lacking. Purpose: To evaluate the efficacy and tolerability of weekly carboplatin concurrent with radiation in veterans with locally advanced HNSCC.

Methods

Our tumor registry was used to identify patients who received platinum-based chemoradiotherapy for stage III-IVB HNSCC at a single center between 2007 to 2017. Patients who received carboplatin were identified. Data including dosing, toxicities, and disease response was collected and analyzed.

Results

A total of 26 patients who received weekly carboplatin were analyzed. All patients were male with an average age of 65. A usual dose of carboplatin AUC 2 was utilized. The average cumulative dose for weekly carboplatin was AUC 12, with most patients (65%) receiving 6 doses or more. The mean number of weekly carboplatin doses held was 0.3. 7 patients (27%) had at least one dose held. 21 (81%) patients showed treatment benefit: 19 (73%) had complete response and 2 (8%) had partial response on first scan following treatment. The four most common toxicities were mucositis (69%), nausea/vomiting (23%), oral thrush (19%), and dermatologic toxicities (19%). The most common toxicities causing dose interruption were fatigue (12%), neutropenia (8%), and thrombocytopenia (8%). Grade 3/4 mucositis was experienced in 6 patients (23%). Other grade 3/4 toxicities included neutropenia (8%), anemia (8%), thrombocytopenia (1%), nephrotoxicity (1%) and nausea (1%).

Conclusions

Carboplatin was both efficacious and well tolerated in our older veteran population. These findings add to the limited body of evidence examining weekly carboplatin in patients with advanced head and neck cancer. While cisplatin remains standard of care, carboplatin may be a reasonable alternative as evidenced in a real-world veteran population.

Background

The standard of care for locally advanced head and neck squamous cell carcinoma (HNSCC) is combination chemoradiotherapy. Platinum-based chemotherapy is used for radiosensitization and significantly improves locoregional control and survival. Cisplatin is the standard of care; however, many patients are cisplatin-ineligible due to underlying comorbidities. Carboplatin is an alternative chemotherapy in these patients, but efficacy data are lacking. Purpose: To evaluate the efficacy and tolerability of weekly carboplatin concurrent with radiation in veterans with locally advanced HNSCC.

Methods

Our tumor registry was used to identify patients who received platinum-based chemoradiotherapy for stage III-IVB HNSCC at a single center between 2007 to 2017. Patients who received carboplatin were identified. Data including dosing, toxicities, and disease response was collected and analyzed.

Results

A total of 26 patients who received weekly carboplatin were analyzed. All patients were male with an average age of 65. A usual dose of carboplatin AUC 2 was utilized. The average cumulative dose for weekly carboplatin was AUC 12, with most patients (65%) receiving 6 doses or more. The mean number of weekly carboplatin doses held was 0.3. 7 patients (27%) had at least one dose held. 21 (81%) patients showed treatment benefit: 19 (73%) had complete response and 2 (8%) had partial response on first scan following treatment. The four most common toxicities were mucositis (69%), nausea/vomiting (23%), oral thrush (19%), and dermatologic toxicities (19%). The most common toxicities causing dose interruption were fatigue (12%), neutropenia (8%), and thrombocytopenia (8%). Grade 3/4 mucositis was experienced in 6 patients (23%). Other grade 3/4 toxicities included neutropenia (8%), anemia (8%), thrombocytopenia (1%), nephrotoxicity (1%) and nausea (1%).

Conclusions

Carboplatin was both efficacious and well tolerated in our older veteran population. These findings add to the limited body of evidence examining weekly carboplatin in patients with advanced head and neck cancer. While cisplatin remains standard of care, carboplatin may be a reasonable alternative as evidenced in a real-world veteran population.

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How to Make Keeping Up With the Drugs as Easy as Keeping Up With the Kardashians: Implementing a Local Oncology Drug Review Committee

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Background

From 2000-2022 there were over 200 new drug and over 500 indication approvals specific to oncology. The rate of approvals has increased exponentially, making it difficult to maintain an up-to-date, standardized practice. Nationally, Veterans Affairs (VA) formulary decisions can take time given a lengthy approval process. Locally, the need was identified to incorporate new drugs and data into practice more rapidly. When bringing requests to the facility Pharmacy and Therapeutics (P&T) Committee, it was recognized that the membership consisting of non-oncology practitioners did not allow for meaningful discussion of utilization. In 2017, a dedicated oncology drug review committee (DRC) comprised of oncology practitioners and a facility formulary representative was created as a P&T workgroup. Purpose: Evaluate and describe the utility of forming a local oncology DRC to incorporate new drugs and data into practice.

Methods

DRC minutes from December 2017 to May 2023 were reviewed. Discussion items were categorized into type of review. Date of local review was compared to national formulary criteria for use publication dates, and date of FDA approval for new drugs or publication date for new data, where applicable. Items were excluded if crucial information was missing from minutes. Descriptive statistics were used.

Results

Over 65 months, 38 meetings were held. Thirty total members include: pharmacists, physicians, fellows, and advanced practice providers. Items reviewed included: 36 new drugs (ND), 36 new indications/data (NI), 14 institutional preferences, 10 new dosage form/biosimilars, 4 drug shortages and 2 others. The median time from ND approval to discussion was 3 months (n= 36, IQR 3-6) and NI from publication was 3 months (n=30, IQR 1-8). Nearly all (34/36, 94%) ND were reviewed prior to national review. Local review was a median of 7 months before national, with 11 drugs currently having no published national criteria for use (n=25, IQR 2-12).

Conclusions

DRC formation has enabled faster incorporation of new drugs/indications into practice. It has also created an appropriate forum for in-depth utilization discussions, pharmacoeconomic stewardship, and sharing of formulary and medication related information. VA Health Systems could consider implementing similar committees to review and implement up-to-date oncology practices.

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Background

From 2000-2022 there were over 200 new drug and over 500 indication approvals specific to oncology. The rate of approvals has increased exponentially, making it difficult to maintain an up-to-date, standardized practice. Nationally, Veterans Affairs (VA) formulary decisions can take time given a lengthy approval process. Locally, the need was identified to incorporate new drugs and data into practice more rapidly. When bringing requests to the facility Pharmacy and Therapeutics (P&T) Committee, it was recognized that the membership consisting of non-oncology practitioners did not allow for meaningful discussion of utilization. In 2017, a dedicated oncology drug review committee (DRC) comprised of oncology practitioners and a facility formulary representative was created as a P&T workgroup. Purpose: Evaluate and describe the utility of forming a local oncology DRC to incorporate new drugs and data into practice.

Methods

DRC minutes from December 2017 to May 2023 were reviewed. Discussion items were categorized into type of review. Date of local review was compared to national formulary criteria for use publication dates, and date of FDA approval for new drugs or publication date for new data, where applicable. Items were excluded if crucial information was missing from minutes. Descriptive statistics were used.

Results

Over 65 months, 38 meetings were held. Thirty total members include: pharmacists, physicians, fellows, and advanced practice providers. Items reviewed included: 36 new drugs (ND), 36 new indications/data (NI), 14 institutional preferences, 10 new dosage form/biosimilars, 4 drug shortages and 2 others. The median time from ND approval to discussion was 3 months (n= 36, IQR 3-6) and NI from publication was 3 months (n=30, IQR 1-8). Nearly all (34/36, 94%) ND were reviewed prior to national review. Local review was a median of 7 months before national, with 11 drugs currently having no published national criteria for use (n=25, IQR 2-12).

Conclusions

DRC formation has enabled faster incorporation of new drugs/indications into practice. It has also created an appropriate forum for in-depth utilization discussions, pharmacoeconomic stewardship, and sharing of formulary and medication related information. VA Health Systems could consider implementing similar committees to review and implement up-to-date oncology practices.

Background

From 2000-2022 there were over 200 new drug and over 500 indication approvals specific to oncology. The rate of approvals has increased exponentially, making it difficult to maintain an up-to-date, standardized practice. Nationally, Veterans Affairs (VA) formulary decisions can take time given a lengthy approval process. Locally, the need was identified to incorporate new drugs and data into practice more rapidly. When bringing requests to the facility Pharmacy and Therapeutics (P&T) Committee, it was recognized that the membership consisting of non-oncology practitioners did not allow for meaningful discussion of utilization. In 2017, a dedicated oncology drug review committee (DRC) comprised of oncology practitioners and a facility formulary representative was created as a P&T workgroup. Purpose: Evaluate and describe the utility of forming a local oncology DRC to incorporate new drugs and data into practice.

Methods

DRC minutes from December 2017 to May 2023 were reviewed. Discussion items were categorized into type of review. Date of local review was compared to national formulary criteria for use publication dates, and date of FDA approval for new drugs or publication date for new data, where applicable. Items were excluded if crucial information was missing from minutes. Descriptive statistics were used.

Results

Over 65 months, 38 meetings were held. Thirty total members include: pharmacists, physicians, fellows, and advanced practice providers. Items reviewed included: 36 new drugs (ND), 36 new indications/data (NI), 14 institutional preferences, 10 new dosage form/biosimilars, 4 drug shortages and 2 others. The median time from ND approval to discussion was 3 months (n= 36, IQR 3-6) and NI from publication was 3 months (n=30, IQR 1-8). Nearly all (34/36, 94%) ND were reviewed prior to national review. Local review was a median of 7 months before national, with 11 drugs currently having no published national criteria for use (n=25, IQR 2-12).

Conclusions

DRC formation has enabled faster incorporation of new drugs/indications into practice. It has also created an appropriate forum for in-depth utilization discussions, pharmacoeconomic stewardship, and sharing of formulary and medication related information. VA Health Systems could consider implementing similar committees to review and implement up-to-date oncology practices.

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PHASER Testing Initiative for Patients Newly Diagnosed With a GI Malignancy

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Background

In December of 2023, the Survivorship Coordinator at VA Connecticut spearheaded a multidisciplinary collaboration to offer PHASER testing to all patients newly diagnosed with a GI malignancy and/ or patients with a known GI malignancy and a new recurrence that might necessitate chemotherapy. The PHASER panel includes two genes that are involved in the metabolism of two commonly used chemotherapy drugs in this patient population.

Methods

By identifying patients who may have impaired metabolism prior to starting treatment, the doses of the appropriate drugs, 5FU and irinotecan, can be adjusted if appropriate, leading to less toxicity for patients while on treatment and fewer lingering side-effects from treatment. We are tracking all of the patients who are being tested and will report quarterly to the Cancer Committee on any findings with a specific focus on whether any dose-adjustments were made to Veteran’s chemotherapy regimens as the result of this testing.

Discussion

We have developed a systematic process centered around GI tumor boards to ensure that testing is done at least two weeks prior to planned chemotherapy start-date to ensure adequate time for testing results to be received. We have developed a systematic process whereby primary care providers and pharmacists are alerted to the PHASER results and patients’ non-oncology medications are reviewed for any recommended adjustments. We will have 9 months of data to report on at AVAHO as well as lessons learned from this new quality improvement process. Despite access to pharmacogenomic testing at VA, there can be variations between VA sites in terms of uptake of this new testing. VA Connecticut’s PHASER testing initiative for patients with GI malignancies is a model that can be replicated throughout the VA. This initiative is part of a broader focus at VA Connecticut on “pre-habilitation” and pre-treatment testing that is designed to reduce toxicity of treatment and improve quality of life for cancer survivors.

 

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Background

In December of 2023, the Survivorship Coordinator at VA Connecticut spearheaded a multidisciplinary collaboration to offer PHASER testing to all patients newly diagnosed with a GI malignancy and/ or patients with a known GI malignancy and a new recurrence that might necessitate chemotherapy. The PHASER panel includes two genes that are involved in the metabolism of two commonly used chemotherapy drugs in this patient population.

Methods

By identifying patients who may have impaired metabolism prior to starting treatment, the doses of the appropriate drugs, 5FU and irinotecan, can be adjusted if appropriate, leading to less toxicity for patients while on treatment and fewer lingering side-effects from treatment. We are tracking all of the patients who are being tested and will report quarterly to the Cancer Committee on any findings with a specific focus on whether any dose-adjustments were made to Veteran’s chemotherapy regimens as the result of this testing.

Discussion

We have developed a systematic process centered around GI tumor boards to ensure that testing is done at least two weeks prior to planned chemotherapy start-date to ensure adequate time for testing results to be received. We have developed a systematic process whereby primary care providers and pharmacists are alerted to the PHASER results and patients’ non-oncology medications are reviewed for any recommended adjustments. We will have 9 months of data to report on at AVAHO as well as lessons learned from this new quality improvement process. Despite access to pharmacogenomic testing at VA, there can be variations between VA sites in terms of uptake of this new testing. VA Connecticut’s PHASER testing initiative for patients with GI malignancies is a model that can be replicated throughout the VA. This initiative is part of a broader focus at VA Connecticut on “pre-habilitation” and pre-treatment testing that is designed to reduce toxicity of treatment and improve quality of life for cancer survivors.

 

Background

In December of 2023, the Survivorship Coordinator at VA Connecticut spearheaded a multidisciplinary collaboration to offer PHASER testing to all patients newly diagnosed with a GI malignancy and/ or patients with a known GI malignancy and a new recurrence that might necessitate chemotherapy. The PHASER panel includes two genes that are involved in the metabolism of two commonly used chemotherapy drugs in this patient population.

Methods

By identifying patients who may have impaired metabolism prior to starting treatment, the doses of the appropriate drugs, 5FU and irinotecan, can be adjusted if appropriate, leading to less toxicity for patients while on treatment and fewer lingering side-effects from treatment. We are tracking all of the patients who are being tested and will report quarterly to the Cancer Committee on any findings with a specific focus on whether any dose-adjustments were made to Veteran’s chemotherapy regimens as the result of this testing.

Discussion

We have developed a systematic process centered around GI tumor boards to ensure that testing is done at least two weeks prior to planned chemotherapy start-date to ensure adequate time for testing results to be received. We have developed a systematic process whereby primary care providers and pharmacists are alerted to the PHASER results and patients’ non-oncology medications are reviewed for any recommended adjustments. We will have 9 months of data to report on at AVAHO as well as lessons learned from this new quality improvement process. Despite access to pharmacogenomic testing at VA, there can be variations between VA sites in terms of uptake of this new testing. VA Connecticut’s PHASER testing initiative for patients with GI malignancies is a model that can be replicated throughout the VA. This initiative is part of a broader focus at VA Connecticut on “pre-habilitation” and pre-treatment testing that is designed to reduce toxicity of treatment and improve quality of life for cancer survivors.

 

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