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Combat Dermatology: The Role of the Deployed Army Dermatologist
Military dermatologists complete their residency training at 1 of 3 large military medical centers across the country: Walter Reed National Military Medical Center (Bethesda, Maryland), San Antonio Military Health System (San Antonio, Texas), or Naval Medical Center San Diego (San Diego, California). While in training, army dermatology residents in particular fall under the US Army Medical Command, or MEDCOM, which provides command and control of the army’s medical, dental, and veterinary treatment facilities. Upon graduating from residency, army dermatologists often are stationed with MEDCOM units but become eligible for deployment with US Army Forces Command (FORSCOM) units to both combat and noncombat zones depending on each individual FORSCOM unit’s mission.
The process by which dermatologists and other army physicians are tasked to a deploying FORSCOM unit is referred to as the Professional Filler System, or PROFIS, which was designed to help alleviate the financial cost and specialty skill degradation of having a physician assigned to a FORSCOM unit while not deployed.1 In general, the greater the amount of time that an army medical officer has not been deployed, the more likely they are to be selected for deployment with a FORSCOM unit. For the army dermatologist, deployment often comes shortly after completing residency or fellowship.
In this article, we review the various functions of the deployed dermatologist and also highlight the importance of maintaining basic emergency medical skills that could be generalized to the civilian population in case of local or national emergencies.
THE FIELD SURGEON
With rare exceptions, the US Army does not deploy dermatologists for their expertise in diagnosing and managing cutaneous diseases. Typically, a dermatologist will be assigned to a FORSCOM unit in the role of field surgeon. Other medical specialties including emergency medicine, family practice, internal medicine, pediatrics, and obstetrics and gynecology also are eligible for deployment as field surgeons.2 Field surgeons typically are assigned to a battalion-sized element of 300 to 1000 soldiers and are responsible for all medical care rendered under their supervision. Duties include combat resuscitation, primary care services, preventive medicine, medical training of battalion medical personnel, and serving as the medical adviser to the battalion commander.1 In some instances, a field surgeon will be stationed at a higher level of care co-located with a trauma surgeon; in those cases, the field surgeon also may be expected to assist in trauma surgery cases.
ARMY DEPLOYMENT MEDICAL SYSTEM
To better understand the responsibilities of a field surgeon, it is important to discuss the structure of the army’s deployment medical system. The US Military, including the army, has adopted a system of “roles” that have specific requirements regarding their associated medical capabilities.3 There are 4 roles designated within the army. Role 1 facilities are known as battalion aid stations (BASs).
Role of the Field Surgeon
Within the broader structure of the army, approximately 5 battalions (each composed of 300 to 1000 soldiers) comprise a single brigade combat team. Role 1 medical facilities typically have a single battalion surgeon assigned to them. Field surgeons most commonly serve in this battalion surgeon position. Additionally, Role 2 facilities may have slots for up to 2 battalion surgeons; however, field surgeons are less commonly tasked with this assignment.1 Occasionally, in one author’s (N.R.M.) personal experience, these roles are more fluid than one might expect. A field surgeon tasked initially with a Role 1 position may be shifted to a Role 2 assignment on an as-needed basis. This ability for rapid change in roles and responsibilities underscores the need for a fluid mind-set and thorough predeployment training for the field surgeon.
PREDEPLOYMENT TRAINING
As one might expect, dermatologists who have just graduated residency or fellowship are unlikely to have honed their trauma support skills to the degree needed to support a deployed battalion actively engaging in combat. Fortunately, there are many opportunities for military dermatologists to practice these skills prior to joining their FORSCOM colleagues. The initial exposure to trauma support comes during medical internship at the mandatory Combat Casualty Care Course (C4), an 8-day program designed to enhance the operational medical readiness and predeployment trauma training skills of medical officers.4 The C4 program includes 3 days of classroom training and 5 days of intensive field training. During C4, medical officers become certified in Advanced Trauma Life Support, a 3-day course organized by the American College of Surgeons.5 This course teaches medical officers how to quickly and judiciously triage, treat, and transport patients who have sustained potentially life-threatening traumas.
The next components of predeployment training, Tactical Combat Casualty Care and Tactical Combat Medical Care, occur in the months to weeks immediately preceding deployment.1,6 Tactical Combat Casualty Care prepares participants in the initial stabilization of trauma to occur at the point of injury.6 Tactical Combat Casualty Care principles generally are employed by medics (enlisted personnel trained in point-of-care medical support) rather than physicians; however, these principles are still critical for medical officers to be aware of when encountering severe traumas.6 In addition, the physician is responsible for ensuring his/her medics are fully trained in Tactical Combat Casualty Care. Tactical Combat Medical Care is geared more toward the direct preparation of medical officers. During the 5-day course, medical officers learn the gold standard for trauma care in both the classroom and in hands-on scenarios.1 This training not only allows medical officers to be self-sufficient in providing trauma support, but it also enables them to better maintain quality control of the performance of their medics continuously throughout the deployment.1
DEPLOYMENT RESPONSIBILITIES
Dermatologists who have completed the above training typically are subsequently deployed as field surgeons to a Role 1 facility. Field surgeons are designated as the officer in charge of the BAS and assume the position of medical platoon leader. A field surgeon usually will have both a physician assistant and a field medical assistant/medical plans officer (MEDO) to assist in running the BAS. The overarching goal of the field surgeon is to maintain the health and readiness of the battalion. In addition to addressing the day-to-day health care needs of individual soldiers, a field surgeon is expected to attend all staff meetings, advise the commander on preventative health and epidemiological trends, identify the scope of practice of the medics, ensure the BAS is prepared for mass casualties, and take responsibility for all controlled substances.
To illustrate the value that the properly trained dermatologist can provide in the deployed setting, we will outline field surgeon responsibilities and provide case examples of the first-hand experiences of one of the authors (N.R.M.) as a Role 2 officer in charge and field surgeon. The information presented in the case examples may have been altered to ensure continued operational security and out of respect to US servicemembers and coalition forces while still conveying important learning points.
Sick Call
In the deployed environment, military sick call functions as an urgent care center that is open continuously and serves the active-duty population, US government civilians and contractors, and coalition forces. In general, the physician assistant should treat approximately two-thirds of sick call patients under the supervision of the field surgeon, allowing the field surgeon to focus on his/her ancillary duties and ensure overall medical supervision of the unit. As a safeguard, patients with more than 2 visits for the same concern must be evaluated by the field surgeon. Sick call concerns range from minor traumas and illnesses to much more serious disease processes and injuries (as outlined in Medical Emergencies). As a field surgeon, it is critical to track disease nonbattle illnesses to ensure medical readiness of the unit. In the deployed environment, close quarters and austere environments commonly lend themselves to gastrointestinal illnesses, respiratory diseases, heat injuries, vector-borne diseases, and sexually transmitted infections.
Case Examples
During an 8-month deployment in Afghanistan, one of the authors (N.R.M.) provided or assisted in the care of more than 2300 routine sick call appointments, or approximately 10 patients per day. Epidemiology of disease was tracked, and the condition of the unit was presented daily to the battalion commander for consideration in upcoming operations. The top 5 most common categories of diagnoses included musculoskeletal injuries, gastrointestinal diseases, dermatologic concerns (eg, dermatitis, bacterial infections [cellulitis/abscess], fungal infections, arthropod assault, abrasions, lacerations, verruca vulgaris), respiratory illnesses, and mental health care, respectively. Maintaining a familiarity with general medicine is critical for the military dermatologist, and an adequate medical library or access to online medical review sources is critical for day-to-day sick call.
Medical Emergencies
In the event of a more serious injury or illness, a Role 1 BAS has very little capability in performing anything beyond the most basic interventions. Part of the art of being an effective field surgeon lies in stabilization, triage, and transport of these sometimes very ill patients. Both the decision to transport to a higher level of care (eg, Role 2 or 3 facility) as well as selection of the means of transportation falls on the field surgeon. The MEDO plays an essential role in assisting in the coordination of the transfer; however, the responsibility ultimately falls on the field surgeon.1,6 The field surgeon at the Role 2 BAS may be expected to perform more advanced medical and surgical interventions. More advanced pharmacotherapies include thrombolytics, antivenin, and vasopressors. Some procedural interventions include intubations, central lines, and laceration repairs. The Role 2 BAS has the capability to hold patients for up to 72 hours.
Case Examples
Specific conditions one of the authors (N.R.M.) treated include heat injury, myocardial infarction, disseminated tuberculosis, appendicitis, testicular torsion, malaria, suicidal ideation, burns, and status epilepticus. Over 8 months, the Role 2 BAS received 91 medical emergencies, with 53 necessitating evacuation to a higher level of care. Often, the more serious or rare conditions presented in the foreign contractor and coalition force populations working alongside US troops.
In one particular case, a 35-year-old man with an electrocardiogram-confirmed acute ST-segment elevation myocardial infarction was administered standard therapy consisting of intravenous morphine, oxygen, sublingual nitroglycerin, an angiotensin-converting enzyme inhibitor, and a beta-blocker. Given the lack of a cardiac catheterization laboratory at the next highest level of care as well as a low suspicion for aortic dissection (based on the patient’s history, physical examination, and chest radiograph), fibrinolysis with tenecteplase was performed in the deployed environment. After a very short observation for potential hemorrhage, the patient was then evacuated to the Role 3 hospital, where he made a near-complete recovery. Preparation with advanced cardiac life support courses and a thorough algorithmic review of the 10 most common causes of presentation to the emergency department helped adequately prepare the dermatologist to succeed.
Trauma Emergencies
The same principles of triage and transport apply to trauma emergencies. Mass casualties are an inevitable reality in combat, so appropriate training translating into efficient action is essential to ensure the lowest possible mortality. This training and the actions that stem from it are an additional responsibility that the field surgeon must maintain. During deployment, continued training organized by the field surgeon could quite literally mean the difference between life and death. In addition to the organizational responsibilities, field surgeons should be prepared to perform initial stabilization in trauma patients, including application of tourniquets, establishment of central lines, reading abdominal ultrasounds for free fluid, placement of chest tubes, intubation, and ventilator management. The Joint Trauma System Clinical Practice Guidelines also offer extensive and invaluable guidance on the most up-to-date approach to common trauma conditions arising in the deployed environment.7 At the Role 2 level, the field surgeon also must be prepared to coordinate ancillary services, manage the Role 2/forward surgical team intensive care unit, and serve as first assist in the operating room, as needed (Figure 2).
Case Examples
One of the authors (N.R.M.) assisted or provided care in approximately 225 trauma cases while deployed. A mass casualty event occurred, in which the Role 2 BAS received 34 casualties; of these casualties, 11 were immediate, 10 were delayed, 11 were minimal, and 2 were expectant. Injury patterns included mounted and dismounted improvised explosive device injuries (eg, blast, shrapnel, and traumatic brain injuries) as well as gunshot wounds. Direct care was provided for 13 casualties, including 10 abdominal ultrasound examinations for free fluid, placement of 2 chest tubes, 1 intubation, establishment of 3 central lines, and first-assisting 1 exploratory laparotomy. Of the casualties, 22 were evacuated to the Role 3 hospital, 8 were dispositioned to a coalition hospital, 2 were returned to active duty, and 2 died due to their injuries. The military trauma preparation as outlined in the predeployment training can help adequately prepare the military dermatologist to assist in these cases.
Ancillary Services
An important part of the efficacy of initial evaluation and stabilization of both medical and traumatic emergencies involves expedited laboratory tests, imaging, and the delivery of life-saving blood products to affected patients. The field surgeon is responsible for the readiness of these services and may play a critical role in streamlining these tasks for situations where a delay in care by minutes can be lethal. The MEDO assists the field surgeon to ensure the readiness of the medical equipment, and the field surgeon must ensure the readiness of the medics and technicians utilizing the equipment. In a deployed environment, only a finite amount of blood products may be stored. As a result, the design and implementation of an efficient and precise walking blood bank is critical. To help mitigate this issue, servicemembers are prescreened for their blood types and bloodborne illnesses. If a situation arises in which whole blood is needed, the prescreened individuals are screened again, and their blood is collected and transfused to the patient under the supervision of the physician. This task is critical in saving lives, and this process is the primary responsibility of the field surgeon.
Case Example
A 37-year-old man presented to the BAS with abdominal and pelvic gunshot wounds, as well as tachycardia, rapidly decreasing blood pressure, and altered consciousness. An exploratory laparotomy was performed to look for the sources of bleeding. The patient’s blood type was confirmed with a portable testing kit. Due to the injury pattern and clinical presentation, a call was immediately placed to begin screening and preparing servicemembers to donate blood for the walking blood bank. As expected, the Role 2 supply of blood products was exhausted during the exploratory laparotomy. With servicemembers in place and screened, an additional 12 units of whole blood were collected and administered in a timely fashion. The patient was stabilized and transported to the next highest level of care. Due to the process optimization performed by the laboratory team, whole-blood transfusions were ready within an average of 22 minutes, well ahead of the 45-minute standard of care.
Operating Room First Assist
If a field surgeon is stationed at a Role 2 BAS with a forward surgical team, he/she may be required to adopt the role of operating room first assist for the trauma surgeon or orthopedic surgeon on the team, which is especially true for isolated major traumas when triage and initial stabilization measures for multiple patients are of less concern. Dermatologists receive surgical training as part of the Accreditation Council for Graduate Medical Education requirements to graduate residency, making them more than capable of surgical assisting when needed.8 In particular, dermatologists’ ability to utilize instruments appropriately and think procedurally as well as their skills in suturing are helpful.
Case Example
A 22-year-old man with several shrapnel wounds to the abdomen demonstrated free fluid in the left lower quadrant. The field surgeon (N.R.M.) assisted the trauma surgeon in opening the abdomen and running the bowel for sources of bleeding. The trauma surgeon identified the bleed and performed a ligation. The patient was then packed, closed, and prepared for transfer to a higher level of care.
Preventive Medicine
As a result of the field surgeon being on the front line of medical care in an austere environment, implementation of preventive medicine practices and disease pattern recognition are his/her responsibility. Responsibilities may include stray animal euthanasia due to prevalence of rabies, enforcement of malaria prophylaxis, medical training and maintenance of snake antivenin, and assistance with other local endemic disease. The unique skill set of dermatologists in organism identification can further bolster the speed with which vector-borne diseases are recognized and prevention and treatment measures are implemented.
Case Example
As coalition forces executed a mission in Afghanistan, US servicemembers began experiencing abdominal distress, chills, fevers (temperature >40°C), debilitating headaches, myalgia, arthralgia, and tachycardia. Initially, these patients were evacuated to the Role 2 BAS, hindering the mission. Upon inspection, patients had numerous bug bites; one astute soldier collected the arthropod guilty of the assault and brought it to the aid station. Upon inspection, the offender was identified as the Phlebotomus genus of sandflies, organisms that are well known to dermatologists as a cause of leishmaniasis. Clinical correlation resulted in the presumed diagnosis of Pappataci fever, and vector-borne disease prevention measures were then able to be further emphasized and implemented in at-risk areas, allowing the mission to continue.9 Subsequent infectious disease laboratory testing confirmed the Phlebovirus transmitted by the sandfly as the underlying cause of the illness.
CONCLUSION
The diverse role of the field surgeon in the deployed setting makes any one specialist underprepared to completely take on the role from the outset; however, with appropriate and rigorous trauma training prior to deployment, dermatologists will continue to perform as invaluable assets to the US military in conflicts now and in the future.
1. Moawad FJ, Wilson R, Kunar MT, et al. Role of the battalion surgeon in the Iraq and Afghanistan War. Mil Med. 2012;177:412-416.
2. AR 601-142: Army Medical Department Professional Filler System. Washington, DC: US Department of the Army; 2015. http://cdm16635.contentdm.oclc.org/cdm/ref/collection/p16635coll11/id/4592. Accessed December 19, 2018.
3. Roles of medical care (United States). Emergency War Surgery. 4th ed. Fort Sam Houston, Texas: Office of the Surgeon General; 2013:17-28.
4. Combat Casualty Care Course (C4). Military Health System website. https://health.mil/Training-Center/Defense-Medical-Readiness-Training-Institute/Combat-Casualty-Care-Course. Accessed December 7, 2018.
5. Advanced Trauma Life Support. American College of Surgeons website. https://www.facs.org/quality-programs/trauma/atls. Accessed December 7, 2018.
6. Tactical Combat Casualty Care Course. Military Health System website. https://health.mil/Training-Center/Defense-Medical-Readiness-Training-Institute/Tactical-Combat-Casualty-Care-Course. Accessed December 18, 2018.
7. Joint Trauma System: The Department of Defense Center of Excellence for Trauma. Clinical Practice Guidelines.
8. ACGME program requirements for graduate medical education in dermatology. Accreditation Council for Graduate Medical Education website. https://www.acgme.org/Portals/0/PFAssets/ProgramRequirements/080_dermatology_2017-07-01.pdf. Revised July 1, 2017. Accessed December 7, 2018.
9. Downs JW, Flood DT, Orr NH, et al. Sandfly fever in Afghanistan-a sometimes overlooked disease of military importance: a case series and review of the literature. US Army Med Dep J. 2017:60-66.
Military dermatologists complete their residency training at 1 of 3 large military medical centers across the country: Walter Reed National Military Medical Center (Bethesda, Maryland), San Antonio Military Health System (San Antonio, Texas), or Naval Medical Center San Diego (San Diego, California). While in training, army dermatology residents in particular fall under the US Army Medical Command, or MEDCOM, which provides command and control of the army’s medical, dental, and veterinary treatment facilities. Upon graduating from residency, army dermatologists often are stationed with MEDCOM units but become eligible for deployment with US Army Forces Command (FORSCOM) units to both combat and noncombat zones depending on each individual FORSCOM unit’s mission.
The process by which dermatologists and other army physicians are tasked to a deploying FORSCOM unit is referred to as the Professional Filler System, or PROFIS, which was designed to help alleviate the financial cost and specialty skill degradation of having a physician assigned to a FORSCOM unit while not deployed.1 In general, the greater the amount of time that an army medical officer has not been deployed, the more likely they are to be selected for deployment with a FORSCOM unit. For the army dermatologist, deployment often comes shortly after completing residency or fellowship.
In this article, we review the various functions of the deployed dermatologist and also highlight the importance of maintaining basic emergency medical skills that could be generalized to the civilian population in case of local or national emergencies.
THE FIELD SURGEON
With rare exceptions, the US Army does not deploy dermatologists for their expertise in diagnosing and managing cutaneous diseases. Typically, a dermatologist will be assigned to a FORSCOM unit in the role of field surgeon. Other medical specialties including emergency medicine, family practice, internal medicine, pediatrics, and obstetrics and gynecology also are eligible for deployment as field surgeons.2 Field surgeons typically are assigned to a battalion-sized element of 300 to 1000 soldiers and are responsible for all medical care rendered under their supervision. Duties include combat resuscitation, primary care services, preventive medicine, medical training of battalion medical personnel, and serving as the medical adviser to the battalion commander.1 In some instances, a field surgeon will be stationed at a higher level of care co-located with a trauma surgeon; in those cases, the field surgeon also may be expected to assist in trauma surgery cases.
ARMY DEPLOYMENT MEDICAL SYSTEM
To better understand the responsibilities of a field surgeon, it is important to discuss the structure of the army’s deployment medical system. The US Military, including the army, has adopted a system of “roles” that have specific requirements regarding their associated medical capabilities.3 There are 4 roles designated within the army. Role 1 facilities are known as battalion aid stations (BASs).
Role of the Field Surgeon
Within the broader structure of the army, approximately 5 battalions (each composed of 300 to 1000 soldiers) comprise a single brigade combat team. Role 1 medical facilities typically have a single battalion surgeon assigned to them. Field surgeons most commonly serve in this battalion surgeon position. Additionally, Role 2 facilities may have slots for up to 2 battalion surgeons; however, field surgeons are less commonly tasked with this assignment.1 Occasionally, in one author’s (N.R.M.) personal experience, these roles are more fluid than one might expect. A field surgeon tasked initially with a Role 1 position may be shifted to a Role 2 assignment on an as-needed basis. This ability for rapid change in roles and responsibilities underscores the need for a fluid mind-set and thorough predeployment training for the field surgeon.
PREDEPLOYMENT TRAINING
As one might expect, dermatologists who have just graduated residency or fellowship are unlikely to have honed their trauma support skills to the degree needed to support a deployed battalion actively engaging in combat. Fortunately, there are many opportunities for military dermatologists to practice these skills prior to joining their FORSCOM colleagues. The initial exposure to trauma support comes during medical internship at the mandatory Combat Casualty Care Course (C4), an 8-day program designed to enhance the operational medical readiness and predeployment trauma training skills of medical officers.4 The C4 program includes 3 days of classroom training and 5 days of intensive field training. During C4, medical officers become certified in Advanced Trauma Life Support, a 3-day course organized by the American College of Surgeons.5 This course teaches medical officers how to quickly and judiciously triage, treat, and transport patients who have sustained potentially life-threatening traumas.
The next components of predeployment training, Tactical Combat Casualty Care and Tactical Combat Medical Care, occur in the months to weeks immediately preceding deployment.1,6 Tactical Combat Casualty Care prepares participants in the initial stabilization of trauma to occur at the point of injury.6 Tactical Combat Casualty Care principles generally are employed by medics (enlisted personnel trained in point-of-care medical support) rather than physicians; however, these principles are still critical for medical officers to be aware of when encountering severe traumas.6 In addition, the physician is responsible for ensuring his/her medics are fully trained in Tactical Combat Casualty Care. Tactical Combat Medical Care is geared more toward the direct preparation of medical officers. During the 5-day course, medical officers learn the gold standard for trauma care in both the classroom and in hands-on scenarios.1 This training not only allows medical officers to be self-sufficient in providing trauma support, but it also enables them to better maintain quality control of the performance of their medics continuously throughout the deployment.1
DEPLOYMENT RESPONSIBILITIES
Dermatologists who have completed the above training typically are subsequently deployed as field surgeons to a Role 1 facility. Field surgeons are designated as the officer in charge of the BAS and assume the position of medical platoon leader. A field surgeon usually will have both a physician assistant and a field medical assistant/medical plans officer (MEDO) to assist in running the BAS. The overarching goal of the field surgeon is to maintain the health and readiness of the battalion. In addition to addressing the day-to-day health care needs of individual soldiers, a field surgeon is expected to attend all staff meetings, advise the commander on preventative health and epidemiological trends, identify the scope of practice of the medics, ensure the BAS is prepared for mass casualties, and take responsibility for all controlled substances.
To illustrate the value that the properly trained dermatologist can provide in the deployed setting, we will outline field surgeon responsibilities and provide case examples of the first-hand experiences of one of the authors (N.R.M.) as a Role 2 officer in charge and field surgeon. The information presented in the case examples may have been altered to ensure continued operational security and out of respect to US servicemembers and coalition forces while still conveying important learning points.
Sick Call
In the deployed environment, military sick call functions as an urgent care center that is open continuously and serves the active-duty population, US government civilians and contractors, and coalition forces. In general, the physician assistant should treat approximately two-thirds of sick call patients under the supervision of the field surgeon, allowing the field surgeon to focus on his/her ancillary duties and ensure overall medical supervision of the unit. As a safeguard, patients with more than 2 visits for the same concern must be evaluated by the field surgeon. Sick call concerns range from minor traumas and illnesses to much more serious disease processes and injuries (as outlined in Medical Emergencies). As a field surgeon, it is critical to track disease nonbattle illnesses to ensure medical readiness of the unit. In the deployed environment, close quarters and austere environments commonly lend themselves to gastrointestinal illnesses, respiratory diseases, heat injuries, vector-borne diseases, and sexually transmitted infections.
Case Examples
During an 8-month deployment in Afghanistan, one of the authors (N.R.M.) provided or assisted in the care of more than 2300 routine sick call appointments, or approximately 10 patients per day. Epidemiology of disease was tracked, and the condition of the unit was presented daily to the battalion commander for consideration in upcoming operations. The top 5 most common categories of diagnoses included musculoskeletal injuries, gastrointestinal diseases, dermatologic concerns (eg, dermatitis, bacterial infections [cellulitis/abscess], fungal infections, arthropod assault, abrasions, lacerations, verruca vulgaris), respiratory illnesses, and mental health care, respectively. Maintaining a familiarity with general medicine is critical for the military dermatologist, and an adequate medical library or access to online medical review sources is critical for day-to-day sick call.
Medical Emergencies
In the event of a more serious injury or illness, a Role 1 BAS has very little capability in performing anything beyond the most basic interventions. Part of the art of being an effective field surgeon lies in stabilization, triage, and transport of these sometimes very ill patients. Both the decision to transport to a higher level of care (eg, Role 2 or 3 facility) as well as selection of the means of transportation falls on the field surgeon. The MEDO plays an essential role in assisting in the coordination of the transfer; however, the responsibility ultimately falls on the field surgeon.1,6 The field surgeon at the Role 2 BAS may be expected to perform more advanced medical and surgical interventions. More advanced pharmacotherapies include thrombolytics, antivenin, and vasopressors. Some procedural interventions include intubations, central lines, and laceration repairs. The Role 2 BAS has the capability to hold patients for up to 72 hours.
Case Examples
Specific conditions one of the authors (N.R.M.) treated include heat injury, myocardial infarction, disseminated tuberculosis, appendicitis, testicular torsion, malaria, suicidal ideation, burns, and status epilepticus. Over 8 months, the Role 2 BAS received 91 medical emergencies, with 53 necessitating evacuation to a higher level of care. Often, the more serious or rare conditions presented in the foreign contractor and coalition force populations working alongside US troops.
In one particular case, a 35-year-old man with an electrocardiogram-confirmed acute ST-segment elevation myocardial infarction was administered standard therapy consisting of intravenous morphine, oxygen, sublingual nitroglycerin, an angiotensin-converting enzyme inhibitor, and a beta-blocker. Given the lack of a cardiac catheterization laboratory at the next highest level of care as well as a low suspicion for aortic dissection (based on the patient’s history, physical examination, and chest radiograph), fibrinolysis with tenecteplase was performed in the deployed environment. After a very short observation for potential hemorrhage, the patient was then evacuated to the Role 3 hospital, where he made a near-complete recovery. Preparation with advanced cardiac life support courses and a thorough algorithmic review of the 10 most common causes of presentation to the emergency department helped adequately prepare the dermatologist to succeed.
Trauma Emergencies
The same principles of triage and transport apply to trauma emergencies. Mass casualties are an inevitable reality in combat, so appropriate training translating into efficient action is essential to ensure the lowest possible mortality. This training and the actions that stem from it are an additional responsibility that the field surgeon must maintain. During deployment, continued training organized by the field surgeon could quite literally mean the difference between life and death. In addition to the organizational responsibilities, field surgeons should be prepared to perform initial stabilization in trauma patients, including application of tourniquets, establishment of central lines, reading abdominal ultrasounds for free fluid, placement of chest tubes, intubation, and ventilator management. The Joint Trauma System Clinical Practice Guidelines also offer extensive and invaluable guidance on the most up-to-date approach to common trauma conditions arising in the deployed environment.7 At the Role 2 level, the field surgeon also must be prepared to coordinate ancillary services, manage the Role 2/forward surgical team intensive care unit, and serve as first assist in the operating room, as needed (Figure 2).
Case Examples
One of the authors (N.R.M.) assisted or provided care in approximately 225 trauma cases while deployed. A mass casualty event occurred, in which the Role 2 BAS received 34 casualties; of these casualties, 11 were immediate, 10 were delayed, 11 were minimal, and 2 were expectant. Injury patterns included mounted and dismounted improvised explosive device injuries (eg, blast, shrapnel, and traumatic brain injuries) as well as gunshot wounds. Direct care was provided for 13 casualties, including 10 abdominal ultrasound examinations for free fluid, placement of 2 chest tubes, 1 intubation, establishment of 3 central lines, and first-assisting 1 exploratory laparotomy. Of the casualties, 22 were evacuated to the Role 3 hospital, 8 were dispositioned to a coalition hospital, 2 were returned to active duty, and 2 died due to their injuries. The military trauma preparation as outlined in the predeployment training can help adequately prepare the military dermatologist to assist in these cases.
Ancillary Services
An important part of the efficacy of initial evaluation and stabilization of both medical and traumatic emergencies involves expedited laboratory tests, imaging, and the delivery of life-saving blood products to affected patients. The field surgeon is responsible for the readiness of these services and may play a critical role in streamlining these tasks for situations where a delay in care by minutes can be lethal. The MEDO assists the field surgeon to ensure the readiness of the medical equipment, and the field surgeon must ensure the readiness of the medics and technicians utilizing the equipment. In a deployed environment, only a finite amount of blood products may be stored. As a result, the design and implementation of an efficient and precise walking blood bank is critical. To help mitigate this issue, servicemembers are prescreened for their blood types and bloodborne illnesses. If a situation arises in which whole blood is needed, the prescreened individuals are screened again, and their blood is collected and transfused to the patient under the supervision of the physician. This task is critical in saving lives, and this process is the primary responsibility of the field surgeon.
Case Example
A 37-year-old man presented to the BAS with abdominal and pelvic gunshot wounds, as well as tachycardia, rapidly decreasing blood pressure, and altered consciousness. An exploratory laparotomy was performed to look for the sources of bleeding. The patient’s blood type was confirmed with a portable testing kit. Due to the injury pattern and clinical presentation, a call was immediately placed to begin screening and preparing servicemembers to donate blood for the walking blood bank. As expected, the Role 2 supply of blood products was exhausted during the exploratory laparotomy. With servicemembers in place and screened, an additional 12 units of whole blood were collected and administered in a timely fashion. The patient was stabilized and transported to the next highest level of care. Due to the process optimization performed by the laboratory team, whole-blood transfusions were ready within an average of 22 minutes, well ahead of the 45-minute standard of care.
Operating Room First Assist
If a field surgeon is stationed at a Role 2 BAS with a forward surgical team, he/she may be required to adopt the role of operating room first assist for the trauma surgeon or orthopedic surgeon on the team, which is especially true for isolated major traumas when triage and initial stabilization measures for multiple patients are of less concern. Dermatologists receive surgical training as part of the Accreditation Council for Graduate Medical Education requirements to graduate residency, making them more than capable of surgical assisting when needed.8 In particular, dermatologists’ ability to utilize instruments appropriately and think procedurally as well as their skills in suturing are helpful.
Case Example
A 22-year-old man with several shrapnel wounds to the abdomen demonstrated free fluid in the left lower quadrant. The field surgeon (N.R.M.) assisted the trauma surgeon in opening the abdomen and running the bowel for sources of bleeding. The trauma surgeon identified the bleed and performed a ligation. The patient was then packed, closed, and prepared for transfer to a higher level of care.
Preventive Medicine
As a result of the field surgeon being on the front line of medical care in an austere environment, implementation of preventive medicine practices and disease pattern recognition are his/her responsibility. Responsibilities may include stray animal euthanasia due to prevalence of rabies, enforcement of malaria prophylaxis, medical training and maintenance of snake antivenin, and assistance with other local endemic disease. The unique skill set of dermatologists in organism identification can further bolster the speed with which vector-borne diseases are recognized and prevention and treatment measures are implemented.
Case Example
As coalition forces executed a mission in Afghanistan, US servicemembers began experiencing abdominal distress, chills, fevers (temperature >40°C), debilitating headaches, myalgia, arthralgia, and tachycardia. Initially, these patients were evacuated to the Role 2 BAS, hindering the mission. Upon inspection, patients had numerous bug bites; one astute soldier collected the arthropod guilty of the assault and brought it to the aid station. Upon inspection, the offender was identified as the Phlebotomus genus of sandflies, organisms that are well known to dermatologists as a cause of leishmaniasis. Clinical correlation resulted in the presumed diagnosis of Pappataci fever, and vector-borne disease prevention measures were then able to be further emphasized and implemented in at-risk areas, allowing the mission to continue.9 Subsequent infectious disease laboratory testing confirmed the Phlebovirus transmitted by the sandfly as the underlying cause of the illness.
CONCLUSION
The diverse role of the field surgeon in the deployed setting makes any one specialist underprepared to completely take on the role from the outset; however, with appropriate and rigorous trauma training prior to deployment, dermatologists will continue to perform as invaluable assets to the US military in conflicts now and in the future.
Military dermatologists complete their residency training at 1 of 3 large military medical centers across the country: Walter Reed National Military Medical Center (Bethesda, Maryland), San Antonio Military Health System (San Antonio, Texas), or Naval Medical Center San Diego (San Diego, California). While in training, army dermatology residents in particular fall under the US Army Medical Command, or MEDCOM, which provides command and control of the army’s medical, dental, and veterinary treatment facilities. Upon graduating from residency, army dermatologists often are stationed with MEDCOM units but become eligible for deployment with US Army Forces Command (FORSCOM) units to both combat and noncombat zones depending on each individual FORSCOM unit’s mission.
The process by which dermatologists and other army physicians are tasked to a deploying FORSCOM unit is referred to as the Professional Filler System, or PROFIS, which was designed to help alleviate the financial cost and specialty skill degradation of having a physician assigned to a FORSCOM unit while not deployed.1 In general, the greater the amount of time that an army medical officer has not been deployed, the more likely they are to be selected for deployment with a FORSCOM unit. For the army dermatologist, deployment often comes shortly after completing residency or fellowship.
In this article, we review the various functions of the deployed dermatologist and also highlight the importance of maintaining basic emergency medical skills that could be generalized to the civilian population in case of local or national emergencies.
THE FIELD SURGEON
With rare exceptions, the US Army does not deploy dermatologists for their expertise in diagnosing and managing cutaneous diseases. Typically, a dermatologist will be assigned to a FORSCOM unit in the role of field surgeon. Other medical specialties including emergency medicine, family practice, internal medicine, pediatrics, and obstetrics and gynecology also are eligible for deployment as field surgeons.2 Field surgeons typically are assigned to a battalion-sized element of 300 to 1000 soldiers and are responsible for all medical care rendered under their supervision. Duties include combat resuscitation, primary care services, preventive medicine, medical training of battalion medical personnel, and serving as the medical adviser to the battalion commander.1 In some instances, a field surgeon will be stationed at a higher level of care co-located with a trauma surgeon; in those cases, the field surgeon also may be expected to assist in trauma surgery cases.
ARMY DEPLOYMENT MEDICAL SYSTEM
To better understand the responsibilities of a field surgeon, it is important to discuss the structure of the army’s deployment medical system. The US Military, including the army, has adopted a system of “roles” that have specific requirements regarding their associated medical capabilities.3 There are 4 roles designated within the army. Role 1 facilities are known as battalion aid stations (BASs).
Role of the Field Surgeon
Within the broader structure of the army, approximately 5 battalions (each composed of 300 to 1000 soldiers) comprise a single brigade combat team. Role 1 medical facilities typically have a single battalion surgeon assigned to them. Field surgeons most commonly serve in this battalion surgeon position. Additionally, Role 2 facilities may have slots for up to 2 battalion surgeons; however, field surgeons are less commonly tasked with this assignment.1 Occasionally, in one author’s (N.R.M.) personal experience, these roles are more fluid than one might expect. A field surgeon tasked initially with a Role 1 position may be shifted to a Role 2 assignment on an as-needed basis. This ability for rapid change in roles and responsibilities underscores the need for a fluid mind-set and thorough predeployment training for the field surgeon.
PREDEPLOYMENT TRAINING
As one might expect, dermatologists who have just graduated residency or fellowship are unlikely to have honed their trauma support skills to the degree needed to support a deployed battalion actively engaging in combat. Fortunately, there are many opportunities for military dermatologists to practice these skills prior to joining their FORSCOM colleagues. The initial exposure to trauma support comes during medical internship at the mandatory Combat Casualty Care Course (C4), an 8-day program designed to enhance the operational medical readiness and predeployment trauma training skills of medical officers.4 The C4 program includes 3 days of classroom training and 5 days of intensive field training. During C4, medical officers become certified in Advanced Trauma Life Support, a 3-day course organized by the American College of Surgeons.5 This course teaches medical officers how to quickly and judiciously triage, treat, and transport patients who have sustained potentially life-threatening traumas.
The next components of predeployment training, Tactical Combat Casualty Care and Tactical Combat Medical Care, occur in the months to weeks immediately preceding deployment.1,6 Tactical Combat Casualty Care prepares participants in the initial stabilization of trauma to occur at the point of injury.6 Tactical Combat Casualty Care principles generally are employed by medics (enlisted personnel trained in point-of-care medical support) rather than physicians; however, these principles are still critical for medical officers to be aware of when encountering severe traumas.6 In addition, the physician is responsible for ensuring his/her medics are fully trained in Tactical Combat Casualty Care. Tactical Combat Medical Care is geared more toward the direct preparation of medical officers. During the 5-day course, medical officers learn the gold standard for trauma care in both the classroom and in hands-on scenarios.1 This training not only allows medical officers to be self-sufficient in providing trauma support, but it also enables them to better maintain quality control of the performance of their medics continuously throughout the deployment.1
DEPLOYMENT RESPONSIBILITIES
Dermatologists who have completed the above training typically are subsequently deployed as field surgeons to a Role 1 facility. Field surgeons are designated as the officer in charge of the BAS and assume the position of medical platoon leader. A field surgeon usually will have both a physician assistant and a field medical assistant/medical plans officer (MEDO) to assist in running the BAS. The overarching goal of the field surgeon is to maintain the health and readiness of the battalion. In addition to addressing the day-to-day health care needs of individual soldiers, a field surgeon is expected to attend all staff meetings, advise the commander on preventative health and epidemiological trends, identify the scope of practice of the medics, ensure the BAS is prepared for mass casualties, and take responsibility for all controlled substances.
To illustrate the value that the properly trained dermatologist can provide in the deployed setting, we will outline field surgeon responsibilities and provide case examples of the first-hand experiences of one of the authors (N.R.M.) as a Role 2 officer in charge and field surgeon. The information presented in the case examples may have been altered to ensure continued operational security and out of respect to US servicemembers and coalition forces while still conveying important learning points.
Sick Call
In the deployed environment, military sick call functions as an urgent care center that is open continuously and serves the active-duty population, US government civilians and contractors, and coalition forces. In general, the physician assistant should treat approximately two-thirds of sick call patients under the supervision of the field surgeon, allowing the field surgeon to focus on his/her ancillary duties and ensure overall medical supervision of the unit. As a safeguard, patients with more than 2 visits for the same concern must be evaluated by the field surgeon. Sick call concerns range from minor traumas and illnesses to much more serious disease processes and injuries (as outlined in Medical Emergencies). As a field surgeon, it is critical to track disease nonbattle illnesses to ensure medical readiness of the unit. In the deployed environment, close quarters and austere environments commonly lend themselves to gastrointestinal illnesses, respiratory diseases, heat injuries, vector-borne diseases, and sexually transmitted infections.
Case Examples
During an 8-month deployment in Afghanistan, one of the authors (N.R.M.) provided or assisted in the care of more than 2300 routine sick call appointments, or approximately 10 patients per day. Epidemiology of disease was tracked, and the condition of the unit was presented daily to the battalion commander for consideration in upcoming operations. The top 5 most common categories of diagnoses included musculoskeletal injuries, gastrointestinal diseases, dermatologic concerns (eg, dermatitis, bacterial infections [cellulitis/abscess], fungal infections, arthropod assault, abrasions, lacerations, verruca vulgaris), respiratory illnesses, and mental health care, respectively. Maintaining a familiarity with general medicine is critical for the military dermatologist, and an adequate medical library or access to online medical review sources is critical for day-to-day sick call.
Medical Emergencies
In the event of a more serious injury or illness, a Role 1 BAS has very little capability in performing anything beyond the most basic interventions. Part of the art of being an effective field surgeon lies in stabilization, triage, and transport of these sometimes very ill patients. Both the decision to transport to a higher level of care (eg, Role 2 or 3 facility) as well as selection of the means of transportation falls on the field surgeon. The MEDO plays an essential role in assisting in the coordination of the transfer; however, the responsibility ultimately falls on the field surgeon.1,6 The field surgeon at the Role 2 BAS may be expected to perform more advanced medical and surgical interventions. More advanced pharmacotherapies include thrombolytics, antivenin, and vasopressors. Some procedural interventions include intubations, central lines, and laceration repairs. The Role 2 BAS has the capability to hold patients for up to 72 hours.
Case Examples
Specific conditions one of the authors (N.R.M.) treated include heat injury, myocardial infarction, disseminated tuberculosis, appendicitis, testicular torsion, malaria, suicidal ideation, burns, and status epilepticus. Over 8 months, the Role 2 BAS received 91 medical emergencies, with 53 necessitating evacuation to a higher level of care. Often, the more serious or rare conditions presented in the foreign contractor and coalition force populations working alongside US troops.
In one particular case, a 35-year-old man with an electrocardiogram-confirmed acute ST-segment elevation myocardial infarction was administered standard therapy consisting of intravenous morphine, oxygen, sublingual nitroglycerin, an angiotensin-converting enzyme inhibitor, and a beta-blocker. Given the lack of a cardiac catheterization laboratory at the next highest level of care as well as a low suspicion for aortic dissection (based on the patient’s history, physical examination, and chest radiograph), fibrinolysis with tenecteplase was performed in the deployed environment. After a very short observation for potential hemorrhage, the patient was then evacuated to the Role 3 hospital, where he made a near-complete recovery. Preparation with advanced cardiac life support courses and a thorough algorithmic review of the 10 most common causes of presentation to the emergency department helped adequately prepare the dermatologist to succeed.
Trauma Emergencies
The same principles of triage and transport apply to trauma emergencies. Mass casualties are an inevitable reality in combat, so appropriate training translating into efficient action is essential to ensure the lowest possible mortality. This training and the actions that stem from it are an additional responsibility that the field surgeon must maintain. During deployment, continued training organized by the field surgeon could quite literally mean the difference between life and death. In addition to the organizational responsibilities, field surgeons should be prepared to perform initial stabilization in trauma patients, including application of tourniquets, establishment of central lines, reading abdominal ultrasounds for free fluid, placement of chest tubes, intubation, and ventilator management. The Joint Trauma System Clinical Practice Guidelines also offer extensive and invaluable guidance on the most up-to-date approach to common trauma conditions arising in the deployed environment.7 At the Role 2 level, the field surgeon also must be prepared to coordinate ancillary services, manage the Role 2/forward surgical team intensive care unit, and serve as first assist in the operating room, as needed (Figure 2).
Case Examples
One of the authors (N.R.M.) assisted or provided care in approximately 225 trauma cases while deployed. A mass casualty event occurred, in which the Role 2 BAS received 34 casualties; of these casualties, 11 were immediate, 10 were delayed, 11 were minimal, and 2 were expectant. Injury patterns included mounted and dismounted improvised explosive device injuries (eg, blast, shrapnel, and traumatic brain injuries) as well as gunshot wounds. Direct care was provided for 13 casualties, including 10 abdominal ultrasound examinations for free fluid, placement of 2 chest tubes, 1 intubation, establishment of 3 central lines, and first-assisting 1 exploratory laparotomy. Of the casualties, 22 were evacuated to the Role 3 hospital, 8 were dispositioned to a coalition hospital, 2 were returned to active duty, and 2 died due to their injuries. The military trauma preparation as outlined in the predeployment training can help adequately prepare the military dermatologist to assist in these cases.
Ancillary Services
An important part of the efficacy of initial evaluation and stabilization of both medical and traumatic emergencies involves expedited laboratory tests, imaging, and the delivery of life-saving blood products to affected patients. The field surgeon is responsible for the readiness of these services and may play a critical role in streamlining these tasks for situations where a delay in care by minutes can be lethal. The MEDO assists the field surgeon to ensure the readiness of the medical equipment, and the field surgeon must ensure the readiness of the medics and technicians utilizing the equipment. In a deployed environment, only a finite amount of blood products may be stored. As a result, the design and implementation of an efficient and precise walking blood bank is critical. To help mitigate this issue, servicemembers are prescreened for their blood types and bloodborne illnesses. If a situation arises in which whole blood is needed, the prescreened individuals are screened again, and their blood is collected and transfused to the patient under the supervision of the physician. This task is critical in saving lives, and this process is the primary responsibility of the field surgeon.
Case Example
A 37-year-old man presented to the BAS with abdominal and pelvic gunshot wounds, as well as tachycardia, rapidly decreasing blood pressure, and altered consciousness. An exploratory laparotomy was performed to look for the sources of bleeding. The patient’s blood type was confirmed with a portable testing kit. Due to the injury pattern and clinical presentation, a call was immediately placed to begin screening and preparing servicemembers to donate blood for the walking blood bank. As expected, the Role 2 supply of blood products was exhausted during the exploratory laparotomy. With servicemembers in place and screened, an additional 12 units of whole blood were collected and administered in a timely fashion. The patient was stabilized and transported to the next highest level of care. Due to the process optimization performed by the laboratory team, whole-blood transfusions were ready within an average of 22 minutes, well ahead of the 45-minute standard of care.
Operating Room First Assist
If a field surgeon is stationed at a Role 2 BAS with a forward surgical team, he/she may be required to adopt the role of operating room first assist for the trauma surgeon or orthopedic surgeon on the team, which is especially true for isolated major traumas when triage and initial stabilization measures for multiple patients are of less concern. Dermatologists receive surgical training as part of the Accreditation Council for Graduate Medical Education requirements to graduate residency, making them more than capable of surgical assisting when needed.8 In particular, dermatologists’ ability to utilize instruments appropriately and think procedurally as well as their skills in suturing are helpful.
Case Example
A 22-year-old man with several shrapnel wounds to the abdomen demonstrated free fluid in the left lower quadrant. The field surgeon (N.R.M.) assisted the trauma surgeon in opening the abdomen and running the bowel for sources of bleeding. The trauma surgeon identified the bleed and performed a ligation. The patient was then packed, closed, and prepared for transfer to a higher level of care.
Preventive Medicine
As a result of the field surgeon being on the front line of medical care in an austere environment, implementation of preventive medicine practices and disease pattern recognition are his/her responsibility. Responsibilities may include stray animal euthanasia due to prevalence of rabies, enforcement of malaria prophylaxis, medical training and maintenance of snake antivenin, and assistance with other local endemic disease. The unique skill set of dermatologists in organism identification can further bolster the speed with which vector-borne diseases are recognized and prevention and treatment measures are implemented.
Case Example
As coalition forces executed a mission in Afghanistan, US servicemembers began experiencing abdominal distress, chills, fevers (temperature >40°C), debilitating headaches, myalgia, arthralgia, and tachycardia. Initially, these patients were evacuated to the Role 2 BAS, hindering the mission. Upon inspection, patients had numerous bug bites; one astute soldier collected the arthropod guilty of the assault and brought it to the aid station. Upon inspection, the offender was identified as the Phlebotomus genus of sandflies, organisms that are well known to dermatologists as a cause of leishmaniasis. Clinical correlation resulted in the presumed diagnosis of Pappataci fever, and vector-borne disease prevention measures were then able to be further emphasized and implemented in at-risk areas, allowing the mission to continue.9 Subsequent infectious disease laboratory testing confirmed the Phlebovirus transmitted by the sandfly as the underlying cause of the illness.
CONCLUSION
The diverse role of the field surgeon in the deployed setting makes any one specialist underprepared to completely take on the role from the outset; however, with appropriate and rigorous trauma training prior to deployment, dermatologists will continue to perform as invaluable assets to the US military in conflicts now and in the future.
1. Moawad FJ, Wilson R, Kunar MT, et al. Role of the battalion surgeon in the Iraq and Afghanistan War. Mil Med. 2012;177:412-416.
2. AR 601-142: Army Medical Department Professional Filler System. Washington, DC: US Department of the Army; 2015. http://cdm16635.contentdm.oclc.org/cdm/ref/collection/p16635coll11/id/4592. Accessed December 19, 2018.
3. Roles of medical care (United States). Emergency War Surgery. 4th ed. Fort Sam Houston, Texas: Office of the Surgeon General; 2013:17-28.
4. Combat Casualty Care Course (C4). Military Health System website. https://health.mil/Training-Center/Defense-Medical-Readiness-Training-Institute/Combat-Casualty-Care-Course. Accessed December 7, 2018.
5. Advanced Trauma Life Support. American College of Surgeons website. https://www.facs.org/quality-programs/trauma/atls. Accessed December 7, 2018.
6. Tactical Combat Casualty Care Course. Military Health System website. https://health.mil/Training-Center/Defense-Medical-Readiness-Training-Institute/Tactical-Combat-Casualty-Care-Course. Accessed December 18, 2018.
7. Joint Trauma System: The Department of Defense Center of Excellence for Trauma. Clinical Practice Guidelines.
8. ACGME program requirements for graduate medical education in dermatology. Accreditation Council for Graduate Medical Education website. https://www.acgme.org/Portals/0/PFAssets/ProgramRequirements/080_dermatology_2017-07-01.pdf. Revised July 1, 2017. Accessed December 7, 2018.
9. Downs JW, Flood DT, Orr NH, et al. Sandfly fever in Afghanistan-a sometimes overlooked disease of military importance: a case series and review of the literature. US Army Med Dep J. 2017:60-66.
1. Moawad FJ, Wilson R, Kunar MT, et al. Role of the battalion surgeon in the Iraq and Afghanistan War. Mil Med. 2012;177:412-416.
2. AR 601-142: Army Medical Department Professional Filler System. Washington, DC: US Department of the Army; 2015. http://cdm16635.contentdm.oclc.org/cdm/ref/collection/p16635coll11/id/4592. Accessed December 19, 2018.
3. Roles of medical care (United States). Emergency War Surgery. 4th ed. Fort Sam Houston, Texas: Office of the Surgeon General; 2013:17-28.
4. Combat Casualty Care Course (C4). Military Health System website. https://health.mil/Training-Center/Defense-Medical-Readiness-Training-Institute/Combat-Casualty-Care-Course. Accessed December 7, 2018.
5. Advanced Trauma Life Support. American College of Surgeons website. https://www.facs.org/quality-programs/trauma/atls. Accessed December 7, 2018.
6. Tactical Combat Casualty Care Course. Military Health System website. https://health.mil/Training-Center/Defense-Medical-Readiness-Training-Institute/Tactical-Combat-Casualty-Care-Course. Accessed December 18, 2018.
7. Joint Trauma System: The Department of Defense Center of Excellence for Trauma. Clinical Practice Guidelines.
8. ACGME program requirements for graduate medical education in dermatology. Accreditation Council for Graduate Medical Education website. https://www.acgme.org/Portals/0/PFAssets/ProgramRequirements/080_dermatology_2017-07-01.pdf. Revised July 1, 2017. Accessed December 7, 2018.
9. Downs JW, Flood DT, Orr NH, et al. Sandfly fever in Afghanistan-a sometimes overlooked disease of military importance: a case series and review of the literature. US Army Med Dep J. 2017:60-66.
Practice Points
- Army dermatologists routinely deploy to combat zones as field surgeons. In this role, they provide routine, emergency, and trauma care for active-duty soldiers and coalition forces.
- With 5 years of general medical training, army dermatologists often are the most prepared to provide advanced care when compared to co-located physician assistants and combat medics.
- Maintaining basic medical skills would serve any dermatologist in case of local or national emergencies.
Military Grooming Standards and Their Impact on Skin Diseases of the Head and Neck
The US military enforces grooming standards to ensure the professional appearance and serviceability of soldiers in all operational settings. Although most individuals are able to uphold these regulations without incident, there is a growing cohort of servicemembers with skin diseases that were exacerbated or even initiated by haircuts, hairstyling, and shaving required to conform to these grooming standards. These skin diseases, which can affect both sexes and may not be appreciated until years into a soldier's service commitment, can have consequences related to individual morbidity and medical readiness for deployment, making it an important issue for medical practitioners to recognize and manage in servicemembers.
This review highlights several disorders of the pilosebaceous unit of the head and neck that can be caused or exacerbated by military grooming standards, including inflammatory hair disorders, traction alopecia, and pseudofolliculitis barbae. Discussion of each entity will include a review of susceptibility and causality as well as initial treatment options to consider (Table).
Inflammatory Hair Disorders
The proper appearance of servicemembers in uniform represents self-discipline and conformity to the high standards of the military. This transition occurs as a rite of passage for many new male recruits who receive shaved haircuts during their first days of basic training. Thereafter, male servicemembers are required to maintain a tapered appearance of the hair per military regulations.1 Clipping hair closely to the scalp or shaving the head entirely are authorized and often encouraged; therefore, high and tight haircuts and buzz cuts are popular among male soldiers due to the general ease of care and ability to maintain the haircut themselves. Conversely, these styles require servicemembers to get weekly or biweekly haircuts that in turn can lead to chronic trauma and irritation. In more susceptible populations, inflammatory hair disorders such as acne keloidalis nuchae (AKN), dissecting cellulitis of the scalp, and folliculitis decalvans may be incited.
Acne Keloidalis Nuchae
Acne keloidalis nuchae, also called folliculitis keloidalis, is a chronic scarring folliculitis presenting with papules and plaques on the occiput and nape of the neck that may merge to form hypertrophic scars or keloids. This disorder most commonly develops in young black men but also can be seen in black females and white patients of both sexes.2 Acne keloidalis nuchae shares many histologic features with central centrifugal cicatricial alopecia, which may suggest a similar pathogenesis. Apart from frequent haircuts, tight-collared shirts, such as those on military service uniforms, also have been associated with AKN. Because of these suspected etiologies, first-line treatment focuses on preventing further trauma by avoiding mechanical irritation and short haircuts, which may be difficult in the military setting. For earlier disease stages, topical and intralesional corticosteroids, oral retinoids, and topical and oral antibiotics are used for their anti-inflammatory properties.3 In refractory cases, surgical excision with healing by secondary intention may be attempted.4 Additional treatment options include the 1064-nm Nd:YAG and 810-nm diode lasers,3 UVB light therapy, CO2 laser, and radiotherapy.
Dissecting Cellulitis of the Scalp
Similar to AKN, dissecting cellulitis of the scalp is another inflammatory hair disorder that is worsened by frequent short haircuts.5 Dissecting cellulitis of the scalp is a primary cicatricial alopecia proposed to be secondary to follicular occlusion. It often is seen in black males aged 20 to 40 years and is characterized by boggy suppurative nodules and cysts with draining sinus tracts, abscesses, and resultant scarring alopecia. Dissecting cellulitis of the scalp is part of the follicular occlusion tetrad, which also includes hidradenitis suppurativa, acne conglobata, and pilonidal cysts. First-line therapies include topical and oral antibiotics, topical retinoids, intralesional corticosteroids, incision and drainage of fluctuant nodules, and oral isotretinoin with or without rifampin. Alternative treatments include oral zinc supplementation, oral corticosteroids, tumor necrosis factor α inhibitors, laser therapies, radiotherapy, and surgical management with wide local excision or total scalpectomy.6,7
Folliculitis Decalvans
Folliculitis decalvans is a primary cicatricial alopecia of the scalp that most commonly presents in middle-aged men without racial predilection.8 Folliculitis decalvans presents with multiple pustules, crusts, tufted hairs, and perifollicular hyperkeratosis, leading to scarring of the scalp, which often is most severe on the posterior vertex. Staphylococcus aureus is a presumed player in the pathogenesis of folliculitis decalvans with superantigens causing release of cytokines stimulating follicular destruction. Close haircuts in conformation with military grooming standards can contribute to this condition due to mechanical trauma and subsequent inflammation. It typically is diagnosed clinically, but if histologic confirmation is desired, a sample from the periphery of early lesions is preferred.9 Initial treatment consists of antibacterial shampoos, topical corticosteroids, topical antibiotics, and combination oral antibiotic therapy with rifampin and clindamycin. Studies using oral isotretinoin have shown variable results,10,11 and the most effective treatment of recalcitrant lesions appears to be intralesional corticosteroids.12
Follicular and Scarring Disorders
In addition to inflammatory hair disorders, military grooming standards have been linked to the pathogenesis of diseases such as pseudofolliculitis barbae, traction alopecia, and keloids, specifically through irritation of the face, neck, and scalp, as well as damage to the follicular unit.5 These conditions develop because grooming regulations necessitate certain hair practices such as close shaving of facial and neck hair and keeping long hair secured relatively tightly to the scalp.
Pseudofolliculitis Barbae
Males in the military are obligated to keep their faces clean-shaven.1 They may acquire a medical waiver for a specified beard length if deemed appropriate by the treating physician,1 which often leads to the need for continual waiver renewal and also may warrant possible negative perception from peers, subordinates, and leadership. One of the most prevalent conditions that is closely associated with shaving is pseudofolliculitis barbae. The combination of close shaving and tightly coiled hairs causes the hairs to grow toward and penetrate the skin, particularly on the neck.13 In some cases, the hairs never actually exit the skin and simply curl within the superficial epidermis. A foreign body reaction often arises, leading to inflamed follicular papules and pustules. Affected individuals may experience pain, pruritus, and secondary infections. Postinflammatory hyperpigmentation, hypertrophic scarring, and keloid formation are common sequelae in cases of untreated disease. Pseudofolliculitis barbae also is exacerbated by pulling the skin taut and shaving against the grain, making behavioral interventions a key component in management of this condition. Preliminary recommendations include using a new or electric razor, leaving hair at least 2 mm in length, and shaving in the direction of hair growth. Other treatment options with varying effectiveness include daily alternation of a mild topical corticosteroid and one of the following: a topical retinoid, topical antibiotics, or glycolic acid. The only treatments that approach definitive cure are laser hair removal and electrolysis for which patient skin type plays an important role in laser selection.5
Traction Alopecia
Similar to their male counterparts, female military members must also present a conservative professional appearance, including hair that is neatly groomed.1 If the length of the hair extends beyond the uniform collar, it must be inconspicuously fastened or pinned above the collar. As a result, loosely tied hair is unauthorized, and females with long hair must secure their hair tightly on a daily basis. Traction alopecia results from tight hairstyling over a prolonged period and commonly affects female soldiers. The etiology is presumed to be mechanical loosening of hair within the follicles, leading to inflammation. Although traditionally seen in black women along the frontal and temporal hairlines, traction alopecia has been identified in individuals of all races and can occur anywhere on the scalp.5 Perifollicular erythema may be the first sign, and papules and pustules may be visible. Although the hair loss in traction alopecia usually is reversible if the traction is ceased, end-stage disease may be permanent.6 Halting traction-inducing practices is paramount, and other treatment options that may slow progression include topical or oral antibiotics and topical or intralesional corticosteroids. Recovery of hair loss also may be aided by topical minoxidil.5
Keloids
Keloid formation is an important pathology to address, as it may result from several of the aforementioned conditions. Keloids are most commonly seen in black individuals but also can occur in Hispanic and Asian patients. The cause has not been fully elucidated but is thought to be a combination of dysfunctional fibroblasts with a genetic component based on racial predilection and twin concordance studies.5 The chest, shoulders, upper back, neck, and earlobes are particularly susceptible to keloid formation, which can appear from 1 to 24 years following dermal trauma.5 Unlike hypertrophic scars, keloids generally do not regress and frequently cause discomfort, pruritus, and emotional distress. They also can hinder wearing a military uniform. Sustained remission is problematic, making prevention a first-line approach, including proper care of wounds when they occur and avoiding elective procedures such as piercings and tattoos. Intralesional corticosteroids, adjuvant injections (eg, 5-fluorouracil), silicone sheeting, cryotherapy, radiation, laser therapy, and excision are some of the treatment options when keloids have formed.5
Final Comment
It is important to recognize military grooming standards as a cause or contributor to several diseases of the head and neck in military servicemembers. Specifically, frequent haircuts in male soldiers are associated with several inflammatory hair disorders, including AKN, dissecting cellulitis of the scalp, and folliculitis decalvans, while daily shaving predisposes individuals to pseudofolliculitis barbae with possible keloid formation. Females may develop traction alopecia from chronically tight, pulled back hairstyles. All of these conditions have health implications for the affected individuals and can compromise the military mission. Awareness, prevention, and recognition are key along with the knowledge base to provide anticipatory avoidance and initiate appropriate treatments, thereby mitigating these potential consequences.
- US Department of the Army. Wear and Appearance of Army Uniforms and Insignia: Army Regulation 670-1. Washington, DC: Department of the Army; 2017. https://history.army.mil/html/forcestruc/docs/AR670-1.pdf. Accessed October 11, 2018.
- East-Innis AD, Stylianou K, Paolino A, et al. Acne keloidalis nuchae: risk factors and associated disorders--a retrospective study. Int J Dermatol. 2017;56:828-832.
- Maranda EL, Simmons BJ, Nguyen AH, et al. Treatment of acne keloidalis nuchae: a systematic review of the literature. Dermatol Ther (Heidelb). 2016;6:363-378.
- Glenn MJ, Bennett RG, Kelly AP. Acne keloidalis nuchae: treatment with excision and second-intention healing. J Am Acad Dermatol. 1995;33:243-246.
- Madu P, Kundu RV. Follicular and scarring disorders in skin of color: presentation and management. Am J Clin Dermatol. 2014;15:307-321.
- Rodney IJ, Onwudiwe OC. Hair and scalp disorders in ethnic populations. J Drugs Dermatol. 2013;12:420-427.
- Lindsey SF, Tosti A. Ethnic hair disorders. Curr Probl Dermatol. 2015;47:139-148.
- Whiting DA. Cicatricial alopecia: clinico-pathological findings and treatment. Clin Dermatol. 2001;19:211-225.
- Sperling LC, Cowper SE, Knopp EA. An Atlas of Hair Pathology with Clinical Correlations. 2nd ed. Boca Raton, FL: CRC Press; 2012.
- Gemmeke A, Wollina U. Folliculitis decalvans of the scalp: response to triple therapy with isotretinoin, clindamycin, and prednisolone. Acta Dermatovenerol Alp Pannonica Adriat. 2006;15:184-186.
- Hallai N, Thompson I, Williams P, et al. Folliculitis spinulosa decalvans: failure to respond to oral isotretinoin. J Eur Acad Dermatol Venereol. 2006;20:223-224.
- Bolduc C, Sperling LC, Shapiro J. Primary cicatricial alopecia. J Am Acad Dermatol. 2016;75:101-117.
- Perry PK, Cook-Bolden FE, Rahman Z, et al. Defining pseudofolliculitis barbae in 2001: a review of the literature and current trends. J Am Acad Dermatol. 2002;46(2 suppl):S113-S119.
The US military enforces grooming standards to ensure the professional appearance and serviceability of soldiers in all operational settings. Although most individuals are able to uphold these regulations without incident, there is a growing cohort of servicemembers with skin diseases that were exacerbated or even initiated by haircuts, hairstyling, and shaving required to conform to these grooming standards. These skin diseases, which can affect both sexes and may not be appreciated until years into a soldier's service commitment, can have consequences related to individual morbidity and medical readiness for deployment, making it an important issue for medical practitioners to recognize and manage in servicemembers.
This review highlights several disorders of the pilosebaceous unit of the head and neck that can be caused or exacerbated by military grooming standards, including inflammatory hair disorders, traction alopecia, and pseudofolliculitis barbae. Discussion of each entity will include a review of susceptibility and causality as well as initial treatment options to consider (Table).
Inflammatory Hair Disorders
The proper appearance of servicemembers in uniform represents self-discipline and conformity to the high standards of the military. This transition occurs as a rite of passage for many new male recruits who receive shaved haircuts during their first days of basic training. Thereafter, male servicemembers are required to maintain a tapered appearance of the hair per military regulations.1 Clipping hair closely to the scalp or shaving the head entirely are authorized and often encouraged; therefore, high and tight haircuts and buzz cuts are popular among male soldiers due to the general ease of care and ability to maintain the haircut themselves. Conversely, these styles require servicemembers to get weekly or biweekly haircuts that in turn can lead to chronic trauma and irritation. In more susceptible populations, inflammatory hair disorders such as acne keloidalis nuchae (AKN), dissecting cellulitis of the scalp, and folliculitis decalvans may be incited.
Acne Keloidalis Nuchae
Acne keloidalis nuchae, also called folliculitis keloidalis, is a chronic scarring folliculitis presenting with papules and plaques on the occiput and nape of the neck that may merge to form hypertrophic scars or keloids. This disorder most commonly develops in young black men but also can be seen in black females and white patients of both sexes.2 Acne keloidalis nuchae shares many histologic features with central centrifugal cicatricial alopecia, which may suggest a similar pathogenesis. Apart from frequent haircuts, tight-collared shirts, such as those on military service uniforms, also have been associated with AKN. Because of these suspected etiologies, first-line treatment focuses on preventing further trauma by avoiding mechanical irritation and short haircuts, which may be difficult in the military setting. For earlier disease stages, topical and intralesional corticosteroids, oral retinoids, and topical and oral antibiotics are used for their anti-inflammatory properties.3 In refractory cases, surgical excision with healing by secondary intention may be attempted.4 Additional treatment options include the 1064-nm Nd:YAG and 810-nm diode lasers,3 UVB light therapy, CO2 laser, and radiotherapy.
Dissecting Cellulitis of the Scalp
Similar to AKN, dissecting cellulitis of the scalp is another inflammatory hair disorder that is worsened by frequent short haircuts.5 Dissecting cellulitis of the scalp is a primary cicatricial alopecia proposed to be secondary to follicular occlusion. It often is seen in black males aged 20 to 40 years and is characterized by boggy suppurative nodules and cysts with draining sinus tracts, abscesses, and resultant scarring alopecia. Dissecting cellulitis of the scalp is part of the follicular occlusion tetrad, which also includes hidradenitis suppurativa, acne conglobata, and pilonidal cysts. First-line therapies include topical and oral antibiotics, topical retinoids, intralesional corticosteroids, incision and drainage of fluctuant nodules, and oral isotretinoin with or without rifampin. Alternative treatments include oral zinc supplementation, oral corticosteroids, tumor necrosis factor α inhibitors, laser therapies, radiotherapy, and surgical management with wide local excision or total scalpectomy.6,7
Folliculitis Decalvans
Folliculitis decalvans is a primary cicatricial alopecia of the scalp that most commonly presents in middle-aged men without racial predilection.8 Folliculitis decalvans presents with multiple pustules, crusts, tufted hairs, and perifollicular hyperkeratosis, leading to scarring of the scalp, which often is most severe on the posterior vertex. Staphylococcus aureus is a presumed player in the pathogenesis of folliculitis decalvans with superantigens causing release of cytokines stimulating follicular destruction. Close haircuts in conformation with military grooming standards can contribute to this condition due to mechanical trauma and subsequent inflammation. It typically is diagnosed clinically, but if histologic confirmation is desired, a sample from the periphery of early lesions is preferred.9 Initial treatment consists of antibacterial shampoos, topical corticosteroids, topical antibiotics, and combination oral antibiotic therapy with rifampin and clindamycin. Studies using oral isotretinoin have shown variable results,10,11 and the most effective treatment of recalcitrant lesions appears to be intralesional corticosteroids.12
Follicular and Scarring Disorders
In addition to inflammatory hair disorders, military grooming standards have been linked to the pathogenesis of diseases such as pseudofolliculitis barbae, traction alopecia, and keloids, specifically through irritation of the face, neck, and scalp, as well as damage to the follicular unit.5 These conditions develop because grooming regulations necessitate certain hair practices such as close shaving of facial and neck hair and keeping long hair secured relatively tightly to the scalp.
Pseudofolliculitis Barbae
Males in the military are obligated to keep their faces clean-shaven.1 They may acquire a medical waiver for a specified beard length if deemed appropriate by the treating physician,1 which often leads to the need for continual waiver renewal and also may warrant possible negative perception from peers, subordinates, and leadership. One of the most prevalent conditions that is closely associated with shaving is pseudofolliculitis barbae. The combination of close shaving and tightly coiled hairs causes the hairs to grow toward and penetrate the skin, particularly on the neck.13 In some cases, the hairs never actually exit the skin and simply curl within the superficial epidermis. A foreign body reaction often arises, leading to inflamed follicular papules and pustules. Affected individuals may experience pain, pruritus, and secondary infections. Postinflammatory hyperpigmentation, hypertrophic scarring, and keloid formation are common sequelae in cases of untreated disease. Pseudofolliculitis barbae also is exacerbated by pulling the skin taut and shaving against the grain, making behavioral interventions a key component in management of this condition. Preliminary recommendations include using a new or electric razor, leaving hair at least 2 mm in length, and shaving in the direction of hair growth. Other treatment options with varying effectiveness include daily alternation of a mild topical corticosteroid and one of the following: a topical retinoid, topical antibiotics, or glycolic acid. The only treatments that approach definitive cure are laser hair removal and electrolysis for which patient skin type plays an important role in laser selection.5
Traction Alopecia
Similar to their male counterparts, female military members must also present a conservative professional appearance, including hair that is neatly groomed.1 If the length of the hair extends beyond the uniform collar, it must be inconspicuously fastened or pinned above the collar. As a result, loosely tied hair is unauthorized, and females with long hair must secure their hair tightly on a daily basis. Traction alopecia results from tight hairstyling over a prolonged period and commonly affects female soldiers. The etiology is presumed to be mechanical loosening of hair within the follicles, leading to inflammation. Although traditionally seen in black women along the frontal and temporal hairlines, traction alopecia has been identified in individuals of all races and can occur anywhere on the scalp.5 Perifollicular erythema may be the first sign, and papules and pustules may be visible. Although the hair loss in traction alopecia usually is reversible if the traction is ceased, end-stage disease may be permanent.6 Halting traction-inducing practices is paramount, and other treatment options that may slow progression include topical or oral antibiotics and topical or intralesional corticosteroids. Recovery of hair loss also may be aided by topical minoxidil.5
Keloids
Keloid formation is an important pathology to address, as it may result from several of the aforementioned conditions. Keloids are most commonly seen in black individuals but also can occur in Hispanic and Asian patients. The cause has not been fully elucidated but is thought to be a combination of dysfunctional fibroblasts with a genetic component based on racial predilection and twin concordance studies.5 The chest, shoulders, upper back, neck, and earlobes are particularly susceptible to keloid formation, which can appear from 1 to 24 years following dermal trauma.5 Unlike hypertrophic scars, keloids generally do not regress and frequently cause discomfort, pruritus, and emotional distress. They also can hinder wearing a military uniform. Sustained remission is problematic, making prevention a first-line approach, including proper care of wounds when they occur and avoiding elective procedures such as piercings and tattoos. Intralesional corticosteroids, adjuvant injections (eg, 5-fluorouracil), silicone sheeting, cryotherapy, radiation, laser therapy, and excision are some of the treatment options when keloids have formed.5
Final Comment
It is important to recognize military grooming standards as a cause or contributor to several diseases of the head and neck in military servicemembers. Specifically, frequent haircuts in male soldiers are associated with several inflammatory hair disorders, including AKN, dissecting cellulitis of the scalp, and folliculitis decalvans, while daily shaving predisposes individuals to pseudofolliculitis barbae with possible keloid formation. Females may develop traction alopecia from chronically tight, pulled back hairstyles. All of these conditions have health implications for the affected individuals and can compromise the military mission. Awareness, prevention, and recognition are key along with the knowledge base to provide anticipatory avoidance and initiate appropriate treatments, thereby mitigating these potential consequences.
The US military enforces grooming standards to ensure the professional appearance and serviceability of soldiers in all operational settings. Although most individuals are able to uphold these regulations without incident, there is a growing cohort of servicemembers with skin diseases that were exacerbated or even initiated by haircuts, hairstyling, and shaving required to conform to these grooming standards. These skin diseases, which can affect both sexes and may not be appreciated until years into a soldier's service commitment, can have consequences related to individual morbidity and medical readiness for deployment, making it an important issue for medical practitioners to recognize and manage in servicemembers.
This review highlights several disorders of the pilosebaceous unit of the head and neck that can be caused or exacerbated by military grooming standards, including inflammatory hair disorders, traction alopecia, and pseudofolliculitis barbae. Discussion of each entity will include a review of susceptibility and causality as well as initial treatment options to consider (Table).
Inflammatory Hair Disorders
The proper appearance of servicemembers in uniform represents self-discipline and conformity to the high standards of the military. This transition occurs as a rite of passage for many new male recruits who receive shaved haircuts during their first days of basic training. Thereafter, male servicemembers are required to maintain a tapered appearance of the hair per military regulations.1 Clipping hair closely to the scalp or shaving the head entirely are authorized and often encouraged; therefore, high and tight haircuts and buzz cuts are popular among male soldiers due to the general ease of care and ability to maintain the haircut themselves. Conversely, these styles require servicemembers to get weekly or biweekly haircuts that in turn can lead to chronic trauma and irritation. In more susceptible populations, inflammatory hair disorders such as acne keloidalis nuchae (AKN), dissecting cellulitis of the scalp, and folliculitis decalvans may be incited.
Acne Keloidalis Nuchae
Acne keloidalis nuchae, also called folliculitis keloidalis, is a chronic scarring folliculitis presenting with papules and plaques on the occiput and nape of the neck that may merge to form hypertrophic scars or keloids. This disorder most commonly develops in young black men but also can be seen in black females and white patients of both sexes.2 Acne keloidalis nuchae shares many histologic features with central centrifugal cicatricial alopecia, which may suggest a similar pathogenesis. Apart from frequent haircuts, tight-collared shirts, such as those on military service uniforms, also have been associated with AKN. Because of these suspected etiologies, first-line treatment focuses on preventing further trauma by avoiding mechanical irritation and short haircuts, which may be difficult in the military setting. For earlier disease stages, topical and intralesional corticosteroids, oral retinoids, and topical and oral antibiotics are used for their anti-inflammatory properties.3 In refractory cases, surgical excision with healing by secondary intention may be attempted.4 Additional treatment options include the 1064-nm Nd:YAG and 810-nm diode lasers,3 UVB light therapy, CO2 laser, and radiotherapy.
Dissecting Cellulitis of the Scalp
Similar to AKN, dissecting cellulitis of the scalp is another inflammatory hair disorder that is worsened by frequent short haircuts.5 Dissecting cellulitis of the scalp is a primary cicatricial alopecia proposed to be secondary to follicular occlusion. It often is seen in black males aged 20 to 40 years and is characterized by boggy suppurative nodules and cysts with draining sinus tracts, abscesses, and resultant scarring alopecia. Dissecting cellulitis of the scalp is part of the follicular occlusion tetrad, which also includes hidradenitis suppurativa, acne conglobata, and pilonidal cysts. First-line therapies include topical and oral antibiotics, topical retinoids, intralesional corticosteroids, incision and drainage of fluctuant nodules, and oral isotretinoin with or without rifampin. Alternative treatments include oral zinc supplementation, oral corticosteroids, tumor necrosis factor α inhibitors, laser therapies, radiotherapy, and surgical management with wide local excision or total scalpectomy.6,7
Folliculitis Decalvans
Folliculitis decalvans is a primary cicatricial alopecia of the scalp that most commonly presents in middle-aged men without racial predilection.8 Folliculitis decalvans presents with multiple pustules, crusts, tufted hairs, and perifollicular hyperkeratosis, leading to scarring of the scalp, which often is most severe on the posterior vertex. Staphylococcus aureus is a presumed player in the pathogenesis of folliculitis decalvans with superantigens causing release of cytokines stimulating follicular destruction. Close haircuts in conformation with military grooming standards can contribute to this condition due to mechanical trauma and subsequent inflammation. It typically is diagnosed clinically, but if histologic confirmation is desired, a sample from the periphery of early lesions is preferred.9 Initial treatment consists of antibacterial shampoos, topical corticosteroids, topical antibiotics, and combination oral antibiotic therapy with rifampin and clindamycin. Studies using oral isotretinoin have shown variable results,10,11 and the most effective treatment of recalcitrant lesions appears to be intralesional corticosteroids.12
Follicular and Scarring Disorders
In addition to inflammatory hair disorders, military grooming standards have been linked to the pathogenesis of diseases such as pseudofolliculitis barbae, traction alopecia, and keloids, specifically through irritation of the face, neck, and scalp, as well as damage to the follicular unit.5 These conditions develop because grooming regulations necessitate certain hair practices such as close shaving of facial and neck hair and keeping long hair secured relatively tightly to the scalp.
Pseudofolliculitis Barbae
Males in the military are obligated to keep their faces clean-shaven.1 They may acquire a medical waiver for a specified beard length if deemed appropriate by the treating physician,1 which often leads to the need for continual waiver renewal and also may warrant possible negative perception from peers, subordinates, and leadership. One of the most prevalent conditions that is closely associated with shaving is pseudofolliculitis barbae. The combination of close shaving and tightly coiled hairs causes the hairs to grow toward and penetrate the skin, particularly on the neck.13 In some cases, the hairs never actually exit the skin and simply curl within the superficial epidermis. A foreign body reaction often arises, leading to inflamed follicular papules and pustules. Affected individuals may experience pain, pruritus, and secondary infections. Postinflammatory hyperpigmentation, hypertrophic scarring, and keloid formation are common sequelae in cases of untreated disease. Pseudofolliculitis barbae also is exacerbated by pulling the skin taut and shaving against the grain, making behavioral interventions a key component in management of this condition. Preliminary recommendations include using a new or electric razor, leaving hair at least 2 mm in length, and shaving in the direction of hair growth. Other treatment options with varying effectiveness include daily alternation of a mild topical corticosteroid and one of the following: a topical retinoid, topical antibiotics, or glycolic acid. The only treatments that approach definitive cure are laser hair removal and electrolysis for which patient skin type plays an important role in laser selection.5
Traction Alopecia
Similar to their male counterparts, female military members must also present a conservative professional appearance, including hair that is neatly groomed.1 If the length of the hair extends beyond the uniform collar, it must be inconspicuously fastened or pinned above the collar. As a result, loosely tied hair is unauthorized, and females with long hair must secure their hair tightly on a daily basis. Traction alopecia results from tight hairstyling over a prolonged period and commonly affects female soldiers. The etiology is presumed to be mechanical loosening of hair within the follicles, leading to inflammation. Although traditionally seen in black women along the frontal and temporal hairlines, traction alopecia has been identified in individuals of all races and can occur anywhere on the scalp.5 Perifollicular erythema may be the first sign, and papules and pustules may be visible. Although the hair loss in traction alopecia usually is reversible if the traction is ceased, end-stage disease may be permanent.6 Halting traction-inducing practices is paramount, and other treatment options that may slow progression include topical or oral antibiotics and topical or intralesional corticosteroids. Recovery of hair loss also may be aided by topical minoxidil.5
Keloids
Keloid formation is an important pathology to address, as it may result from several of the aforementioned conditions. Keloids are most commonly seen in black individuals but also can occur in Hispanic and Asian patients. The cause has not been fully elucidated but is thought to be a combination of dysfunctional fibroblasts with a genetic component based on racial predilection and twin concordance studies.5 The chest, shoulders, upper back, neck, and earlobes are particularly susceptible to keloid formation, which can appear from 1 to 24 years following dermal trauma.5 Unlike hypertrophic scars, keloids generally do not regress and frequently cause discomfort, pruritus, and emotional distress. They also can hinder wearing a military uniform. Sustained remission is problematic, making prevention a first-line approach, including proper care of wounds when they occur and avoiding elective procedures such as piercings and tattoos. Intralesional corticosteroids, adjuvant injections (eg, 5-fluorouracil), silicone sheeting, cryotherapy, radiation, laser therapy, and excision are some of the treatment options when keloids have formed.5
Final Comment
It is important to recognize military grooming standards as a cause or contributor to several diseases of the head and neck in military servicemembers. Specifically, frequent haircuts in male soldiers are associated with several inflammatory hair disorders, including AKN, dissecting cellulitis of the scalp, and folliculitis decalvans, while daily shaving predisposes individuals to pseudofolliculitis barbae with possible keloid formation. Females may develop traction alopecia from chronically tight, pulled back hairstyles. All of these conditions have health implications for the affected individuals and can compromise the military mission. Awareness, prevention, and recognition are key along with the knowledge base to provide anticipatory avoidance and initiate appropriate treatments, thereby mitigating these potential consequences.
- US Department of the Army. Wear and Appearance of Army Uniforms and Insignia: Army Regulation 670-1. Washington, DC: Department of the Army; 2017. https://history.army.mil/html/forcestruc/docs/AR670-1.pdf. Accessed October 11, 2018.
- East-Innis AD, Stylianou K, Paolino A, et al. Acne keloidalis nuchae: risk factors and associated disorders--a retrospective study. Int J Dermatol. 2017;56:828-832.
- Maranda EL, Simmons BJ, Nguyen AH, et al. Treatment of acne keloidalis nuchae: a systematic review of the literature. Dermatol Ther (Heidelb). 2016;6:363-378.
- Glenn MJ, Bennett RG, Kelly AP. Acne keloidalis nuchae: treatment with excision and second-intention healing. J Am Acad Dermatol. 1995;33:243-246.
- Madu P, Kundu RV. Follicular and scarring disorders in skin of color: presentation and management. Am J Clin Dermatol. 2014;15:307-321.
- Rodney IJ, Onwudiwe OC. Hair and scalp disorders in ethnic populations. J Drugs Dermatol. 2013;12:420-427.
- Lindsey SF, Tosti A. Ethnic hair disorders. Curr Probl Dermatol. 2015;47:139-148.
- Whiting DA. Cicatricial alopecia: clinico-pathological findings and treatment. Clin Dermatol. 2001;19:211-225.
- Sperling LC, Cowper SE, Knopp EA. An Atlas of Hair Pathology with Clinical Correlations. 2nd ed. Boca Raton, FL: CRC Press; 2012.
- Gemmeke A, Wollina U. Folliculitis decalvans of the scalp: response to triple therapy with isotretinoin, clindamycin, and prednisolone. Acta Dermatovenerol Alp Pannonica Adriat. 2006;15:184-186.
- Hallai N, Thompson I, Williams P, et al. Folliculitis spinulosa decalvans: failure to respond to oral isotretinoin. J Eur Acad Dermatol Venereol. 2006;20:223-224.
- Bolduc C, Sperling LC, Shapiro J. Primary cicatricial alopecia. J Am Acad Dermatol. 2016;75:101-117.
- Perry PK, Cook-Bolden FE, Rahman Z, et al. Defining pseudofolliculitis barbae in 2001: a review of the literature and current trends. J Am Acad Dermatol. 2002;46(2 suppl):S113-S119.
- US Department of the Army. Wear and Appearance of Army Uniforms and Insignia: Army Regulation 670-1. Washington, DC: Department of the Army; 2017. https://history.army.mil/html/forcestruc/docs/AR670-1.pdf. Accessed October 11, 2018.
- East-Innis AD, Stylianou K, Paolino A, et al. Acne keloidalis nuchae: risk factors and associated disorders--a retrospective study. Int J Dermatol. 2017;56:828-832.
- Maranda EL, Simmons BJ, Nguyen AH, et al. Treatment of acne keloidalis nuchae: a systematic review of the literature. Dermatol Ther (Heidelb). 2016;6:363-378.
- Glenn MJ, Bennett RG, Kelly AP. Acne keloidalis nuchae: treatment with excision and second-intention healing. J Am Acad Dermatol. 1995;33:243-246.
- Madu P, Kundu RV. Follicular and scarring disorders in skin of color: presentation and management. Am J Clin Dermatol. 2014;15:307-321.
- Rodney IJ, Onwudiwe OC. Hair and scalp disorders in ethnic populations. J Drugs Dermatol. 2013;12:420-427.
- Lindsey SF, Tosti A. Ethnic hair disorders. Curr Probl Dermatol. 2015;47:139-148.
- Whiting DA. Cicatricial alopecia: clinico-pathological findings and treatment. Clin Dermatol. 2001;19:211-225.
- Sperling LC, Cowper SE, Knopp EA. An Atlas of Hair Pathology with Clinical Correlations. 2nd ed. Boca Raton, FL: CRC Press; 2012.
- Gemmeke A, Wollina U. Folliculitis decalvans of the scalp: response to triple therapy with isotretinoin, clindamycin, and prednisolone. Acta Dermatovenerol Alp Pannonica Adriat. 2006;15:184-186.
- Hallai N, Thompson I, Williams P, et al. Folliculitis spinulosa decalvans: failure to respond to oral isotretinoin. J Eur Acad Dermatol Venereol. 2006;20:223-224.
- Bolduc C, Sperling LC, Shapiro J. Primary cicatricial alopecia. J Am Acad Dermatol. 2016;75:101-117.
- Perry PK, Cook-Bolden FE, Rahman Z, et al. Defining pseudofolliculitis barbae in 2001: a review of the literature and current trends. J Am Acad Dermatol. 2002;46(2 suppl):S113-S119.
Practice Points
- The short frequent haircuts required to maintain a tapered appearance of the hair per US military regulations may lead to inflammatory hair disorders such as acne keloidalis nuchae, dissecting cellulitis of the scalp, and folliculitis decalvans.
- The mainstay of prevention for these conditions is avoidance of inciting factors such as short haircuts, tight-collared shirts, frequent shaving, or tight hairstyles.
- Early identification and treatment of inflammatory follicular and scarring disorders can prevent further scarring, pigmentation changes, and/or disfigurement.
Management of Trauma and Burn Scars: The Dermatologist’s Role in Expanding Patient Access to Care
Hypertrophic scarring secondary to trauma, burns, and surgical interventions is a major source of morbidity worldwide and often is mechanically, aesthetically, and symptomatically debilitating. Modern advances in acute trauma care protocols have resulted in survival rates greater than 90% in both civilian and military populations.1,2 Patients with wounds that have historically proven fatal are now surviving and are confronted with the long-term sequelae of their injuries. With more than 52,000 service members injured in military engagements from 2001 to 2015 and 8.5 million civilians presenting annually with injury patterns at risk for hypertrophic scarring, it is paramount that we ensure access to safe and effective long-term scar care.2,3
At its simplest level, hypertrophic scarring is believed to result from a disequilibrium between collagen production and degradation. This failure to properly transition through the stages of wound healing results in bothersome symptoms, a disfigured appearance, and mechanical dysfunction of the skin (Figure, A). Decreased elasticity and extensibility, increased dermal thickness, and scar contractures impair patient range of motion and functional mobility. Those affected commonly experience varying degrees of pruritus and dysesthesia along the scar. Combined with aesthetic variations in pigmentation, erythema, texture, and thickness, hypertrophic scarring often leads to long-term psychosocial impairment and decreased health-related quality of life.4
Treatment Approach
Treatment of hypertrophic scars requires a multimodal approach due to the spectrum of associated concerns and the natural recalcitrance of the scar to therapy. Protocols should be tailored to the individual but generally begin with tissue-conserving surgical interventions followed by selective photothermolysis of the scar vasculature. Subsequently, deep and superficial ablative fractional laser (AFL) treatment and local pharmacotherapy also are employed. Treatment can be accomplished in the outpatient setting under local anesthesia in a serial fashion. In the authors’ experience, these therapies behave in a synergistic fashion, achieving outcomes that far exceed the sum of their parts, often obviating the need for scar excision in the majority of cases (Figure, B).
Tissue-Conserving Surgical Intervention
Z-plasty is an indispensable surgical tool due to its ability to lengthen scars and reduce wound tension. Treatment is easily customizable to the patient and can be performed using the individual or multiple Z-plasty techniques. Undermining and step-off correction while suturing allow the physician to lower raised scars, elevate depressed scars, and obscure scar presence by minimizing the straight lines that draw the eye to the scar. Z-plasties rely on the creation and transposition of 2 triangular flaps and permit a 75% increase in length along the desired tension vector. As such, Z-plasties decrease wound tension and facilitate scar maturation.
Selective Photothermolysis of the Vasculature
Although there are several devices available to treat vascular and immature hypertrophic scars, the majority of studies have been conducted with the 595-nm pulsed dye laser. By preferentially heating oxyhemoglobin within the dermal microvasculature, the pulsed dye laser irreparably injures the vascular endothelium. The subsequent tissue hypoxia and collagen fiber heating results in collagen fiber realignment, normalization of collagen subtypes, and neocollagenesis.5 Pulsed dye laser therapy most effectively reduces erythema and pruritus; however, improvements in scar volume, pliability, and elasticity also have been reported.5 When targeting the fine vasculature of the scar, thermal confinement is critical to prevent injury to the surrounding dermis. As such, pulse widths of 0.45 to 1.5 milliseconds are routinely utilized with a fluence just sufficient to elicit transient purpura lasting 3 to 5 seconds. Employing a spot size of 7 to 10 mm, typical fluences range from 4.5 to 6.5 J/cm2. Engagement of the dynamic cooling device reduces the risk for complications, allowing the patient to proceed to the next step in their therapy regimen: the AFL.
Ablative Fractional Laser
The AFL creates a pixilated pattern of injury throughout the epidermis and dermis of the treatment area. Ablative fractional laser platforms include the 10,600-nm CO2 and 2940-nm erbium-doped YAG lasers, both targeting intracellular water. The AFL vaporizes columns of tissue, leaving minute vertical channels with narrow rims of protein coagulation referred to as microscopic treatment zones (MTZs).6 Scar collagen analysis after AFL treatment has shown a profile resembling unaffected skin.7 Consistently, patients report improvements in stiffness, range of motion, pain, pruritus, pigmentation, and erythema.Physician observers also have reported similar improvements in these end points.8,9 Recently, interim data from a prospective controlled trial were presented showing objective improvements in dermal thickness, elasticity, and extensibility after 3 treatments with the CO2 AFL.6 The UltraPulse CO2 laser (Lumenis) is the most well-studied and widely available AFL for scar therapy and as such we will outline common treatment parameters with this device. Of note, treatment end points may be generalized to any AFL.
The DeepFX UltraPulse configuration is utilized to achieve deep AFL therapy and has a fixed pulse width of 0.8 milliseconds, slightly less than the thermal relaxation time of the skin. The diameter of the MTZs is 120 µm, and MTZ density for scar treatment ranges from 1% to 10% with a goal depth of at least 80% of scar thickness. Maximal penetration of the AFL is 4 mm, which is directly proportional to fluence. The goal of deep AFL is the removal of scar tissue to facilitate remodeling and neocollagenesis. Superficial fractional ablation can then be achieved utilizing the ActiveFX UltraPulse configuration generating a 1.3-mm MTZ spot size. We commonly use a treatment level of 3 (82% density). Typical treatment energy ranges from 80 to 125 mJ, which correlates with depths of approximately 50 to 115 µm. With both configurations, the size and shape of the treatment area can be customized to the scar. In addition, frequency may be adjusted to control the speed of treatment while balancing the risk of bulk heating. The goal of superficial AFL is to minimize scar surface irregularities and ensure blending of deep AFL treatment. Once AFL treatment is complete, local pharmacotherapy can then be employed.
Pharmacotherapy
Intralesional corticosteroids have long represented the standard of care for hypertrophic scars, with concentrations between 2.5 and 40 mg/mL that are titrated to scar thickness and location to avoid unwanted atrophy. Visual blanching of the scar represents the clinical end point for treatment. Corticosteroids act by inhibiting fibroblast proliferation and enhancing collagen degradation.10 5-Fluorouracil (5-FU) also is used in scar management. In addition to inhibiting fibroblast proliferation and inducing fibroblast apoptosis, 5-FU inhibits myofibroblast proliferation, which is helpful in the prevention and treatment of scar contracture.11 As monotherapy, weekly injections with 1 to 3 mL of 50 mg/mL 5-FU has been safe and effective. Combination intralesional corticosteroid and 5-FU therapy has been reported and is associated with improved scar regression, reduced reoccurrence, and fewer side effects.11 In our experience, a 1:1 suspension is effective with appropriate titration of the corticosteroid component. Although less well defined, topical application of pharmacotherapy and massage to the newly created MTZs appears beneficial and offers another option for delivery of corticosteroids and 5-FU, in addition to a number of promising medications such as bimatoprost, poly-L-lactic acid, timolol, and rapamycin.12
Conclusion
Advances in laser surgery and our understanding of wound healing have created a paradigm shift in the treatment approach to trauma and burn scars. In lieu of extensive scar excisions, the summarized multimodal regimen emphasizing tissue conservation and autologous remodeling is gaining favor in the military, academic medical centers, and scar centers of excellence, but patients are finding local access to care difficult. Dermatologists are uniquely positioned to cost-effectively deliver this care in the outpatient setting utilizing devices and techniques they already possess. With the end goal of optimization of functional, symptomatic, and aesthetic state of the patient, it is critical that dermatologists seize this opportunity to truly make a difference for the military and civilian patients that need it most.
- American Burn Association, National Burn Repository. 2015 National burn repository report of data from 2005-2014. http://www.ameriburn.org/2015NBRAnnualReport.pdf. Accessed May 10, 2017.
- Centers for Disease Control and Prevention. 2013 National hospital ambulatory medical care survey emergency department summary tables. https://www.cdc.gov/nchs/data/ahcd/nhamcs_emergency/2013_ed_web_tables.pdf. Accessed May 10, 2017.
- Fischer H. A guide to U.S. Military casualty statistics: Operation Freedom’s Sentinel, Operation Inherent Resolve, Operation New Dawn, Operation Iraqi Freedom, and Operation Enduring Freedom. Congressional Research Service website. https://fas.org/sgp/crs/natsec/RS22452.pdf. Published August 7, 2015. Accessed May 10, 2017.
- Van Loey NE, Van Son MJ. Psychopathology and psychological problems in patients with burn scars: epidemiology and management. Am J Clin Dermatol. 2003;4:245-272.
- Vrijman C, van Drooge AM, Limpens J, et al. Laser and intense pulsed light therapy for the treatment of hypertrophic scars: a systematic review. Br J Dermatol. 2011;165:934-942.
- Miletta N, Lee K, Siwy K, et al. Objective improvement in burn scars after treatment with fractionated CO2 laser. Paper presented at: American Society for Laser Medicine and Surgery 36th Annual Conference; April 1-3, 2016; Boston, MA.
- Ozog DM, Liu A, Chaffins ML, et al. Evaluation of clinical results, histological architecture, and collagen expression following treatment of mature burn scars with a fraction carbon dioxide laser. JAMA Dermatol. 2013;149:50-57.
- Levi B, Ibrahim A, Mathews K, et al. The use of CO2 fractional photothermolysis for the treatment of burn scars. J Burn Care Res. 2016;37:106-114.
- van Drooge AM, Vrijman C, van der Veen W, et al. A randomized controlled pilot study on ablative fractional CO2 laser for consecutive patients presenting with various scar types. Dermatol Surg. 2015;41:371-377.
- Wang XQ, Lui YK, Wang ZY, et al. Antimitotic drug injections and radiotherapy: a review of the effectiveness of treatment for hypertrophic scars and keloids. Int J Low Extrem Wounds. 2008;7:151-159.
- Gupta S, Kalra A. Efficacy and safety of intralesional 5-fluorouracil in the treatment of keloids. Dermatology. 2002;204:130-132.
- Haedersdal M, Erlendsson AM, Paasch U, et al. Translational medicine in the field of AFL (AFXL)-assisted drug delivery: a critical review from basics to current clinical status. J Am Acad Dermatol. 2016;74:981-1004.
Hypertrophic scarring secondary to trauma, burns, and surgical interventions is a major source of morbidity worldwide and often is mechanically, aesthetically, and symptomatically debilitating. Modern advances in acute trauma care protocols have resulted in survival rates greater than 90% in both civilian and military populations.1,2 Patients with wounds that have historically proven fatal are now surviving and are confronted with the long-term sequelae of their injuries. With more than 52,000 service members injured in military engagements from 2001 to 2015 and 8.5 million civilians presenting annually with injury patterns at risk for hypertrophic scarring, it is paramount that we ensure access to safe and effective long-term scar care.2,3
At its simplest level, hypertrophic scarring is believed to result from a disequilibrium between collagen production and degradation. This failure to properly transition through the stages of wound healing results in bothersome symptoms, a disfigured appearance, and mechanical dysfunction of the skin (Figure, A). Decreased elasticity and extensibility, increased dermal thickness, and scar contractures impair patient range of motion and functional mobility. Those affected commonly experience varying degrees of pruritus and dysesthesia along the scar. Combined with aesthetic variations in pigmentation, erythema, texture, and thickness, hypertrophic scarring often leads to long-term psychosocial impairment and decreased health-related quality of life.4
Treatment Approach
Treatment of hypertrophic scars requires a multimodal approach due to the spectrum of associated concerns and the natural recalcitrance of the scar to therapy. Protocols should be tailored to the individual but generally begin with tissue-conserving surgical interventions followed by selective photothermolysis of the scar vasculature. Subsequently, deep and superficial ablative fractional laser (AFL) treatment and local pharmacotherapy also are employed. Treatment can be accomplished in the outpatient setting under local anesthesia in a serial fashion. In the authors’ experience, these therapies behave in a synergistic fashion, achieving outcomes that far exceed the sum of their parts, often obviating the need for scar excision in the majority of cases (Figure, B).
Tissue-Conserving Surgical Intervention
Z-plasty is an indispensable surgical tool due to its ability to lengthen scars and reduce wound tension. Treatment is easily customizable to the patient and can be performed using the individual or multiple Z-plasty techniques. Undermining and step-off correction while suturing allow the physician to lower raised scars, elevate depressed scars, and obscure scar presence by minimizing the straight lines that draw the eye to the scar. Z-plasties rely on the creation and transposition of 2 triangular flaps and permit a 75% increase in length along the desired tension vector. As such, Z-plasties decrease wound tension and facilitate scar maturation.
Selective Photothermolysis of the Vasculature
Although there are several devices available to treat vascular and immature hypertrophic scars, the majority of studies have been conducted with the 595-nm pulsed dye laser. By preferentially heating oxyhemoglobin within the dermal microvasculature, the pulsed dye laser irreparably injures the vascular endothelium. The subsequent tissue hypoxia and collagen fiber heating results in collagen fiber realignment, normalization of collagen subtypes, and neocollagenesis.5 Pulsed dye laser therapy most effectively reduces erythema and pruritus; however, improvements in scar volume, pliability, and elasticity also have been reported.5 When targeting the fine vasculature of the scar, thermal confinement is critical to prevent injury to the surrounding dermis. As such, pulse widths of 0.45 to 1.5 milliseconds are routinely utilized with a fluence just sufficient to elicit transient purpura lasting 3 to 5 seconds. Employing a spot size of 7 to 10 mm, typical fluences range from 4.5 to 6.5 J/cm2. Engagement of the dynamic cooling device reduces the risk for complications, allowing the patient to proceed to the next step in their therapy regimen: the AFL.
Ablative Fractional Laser
The AFL creates a pixilated pattern of injury throughout the epidermis and dermis of the treatment area. Ablative fractional laser platforms include the 10,600-nm CO2 and 2940-nm erbium-doped YAG lasers, both targeting intracellular water. The AFL vaporizes columns of tissue, leaving minute vertical channels with narrow rims of protein coagulation referred to as microscopic treatment zones (MTZs).6 Scar collagen analysis after AFL treatment has shown a profile resembling unaffected skin.7 Consistently, patients report improvements in stiffness, range of motion, pain, pruritus, pigmentation, and erythema.Physician observers also have reported similar improvements in these end points.8,9 Recently, interim data from a prospective controlled trial were presented showing objective improvements in dermal thickness, elasticity, and extensibility after 3 treatments with the CO2 AFL.6 The UltraPulse CO2 laser (Lumenis) is the most well-studied and widely available AFL for scar therapy and as such we will outline common treatment parameters with this device. Of note, treatment end points may be generalized to any AFL.
The DeepFX UltraPulse configuration is utilized to achieve deep AFL therapy and has a fixed pulse width of 0.8 milliseconds, slightly less than the thermal relaxation time of the skin. The diameter of the MTZs is 120 µm, and MTZ density for scar treatment ranges from 1% to 10% with a goal depth of at least 80% of scar thickness. Maximal penetration of the AFL is 4 mm, which is directly proportional to fluence. The goal of deep AFL is the removal of scar tissue to facilitate remodeling and neocollagenesis. Superficial fractional ablation can then be achieved utilizing the ActiveFX UltraPulse configuration generating a 1.3-mm MTZ spot size. We commonly use a treatment level of 3 (82% density). Typical treatment energy ranges from 80 to 125 mJ, which correlates with depths of approximately 50 to 115 µm. With both configurations, the size and shape of the treatment area can be customized to the scar. In addition, frequency may be adjusted to control the speed of treatment while balancing the risk of bulk heating. The goal of superficial AFL is to minimize scar surface irregularities and ensure blending of deep AFL treatment. Once AFL treatment is complete, local pharmacotherapy can then be employed.
Pharmacotherapy
Intralesional corticosteroids have long represented the standard of care for hypertrophic scars, with concentrations between 2.5 and 40 mg/mL that are titrated to scar thickness and location to avoid unwanted atrophy. Visual blanching of the scar represents the clinical end point for treatment. Corticosteroids act by inhibiting fibroblast proliferation and enhancing collagen degradation.10 5-Fluorouracil (5-FU) also is used in scar management. In addition to inhibiting fibroblast proliferation and inducing fibroblast apoptosis, 5-FU inhibits myofibroblast proliferation, which is helpful in the prevention and treatment of scar contracture.11 As monotherapy, weekly injections with 1 to 3 mL of 50 mg/mL 5-FU has been safe and effective. Combination intralesional corticosteroid and 5-FU therapy has been reported and is associated with improved scar regression, reduced reoccurrence, and fewer side effects.11 In our experience, a 1:1 suspension is effective with appropriate titration of the corticosteroid component. Although less well defined, topical application of pharmacotherapy and massage to the newly created MTZs appears beneficial and offers another option for delivery of corticosteroids and 5-FU, in addition to a number of promising medications such as bimatoprost, poly-L-lactic acid, timolol, and rapamycin.12
Conclusion
Advances in laser surgery and our understanding of wound healing have created a paradigm shift in the treatment approach to trauma and burn scars. In lieu of extensive scar excisions, the summarized multimodal regimen emphasizing tissue conservation and autologous remodeling is gaining favor in the military, academic medical centers, and scar centers of excellence, but patients are finding local access to care difficult. Dermatologists are uniquely positioned to cost-effectively deliver this care in the outpatient setting utilizing devices and techniques they already possess. With the end goal of optimization of functional, symptomatic, and aesthetic state of the patient, it is critical that dermatologists seize this opportunity to truly make a difference for the military and civilian patients that need it most.
Hypertrophic scarring secondary to trauma, burns, and surgical interventions is a major source of morbidity worldwide and often is mechanically, aesthetically, and symptomatically debilitating. Modern advances in acute trauma care protocols have resulted in survival rates greater than 90% in both civilian and military populations.1,2 Patients with wounds that have historically proven fatal are now surviving and are confronted with the long-term sequelae of their injuries. With more than 52,000 service members injured in military engagements from 2001 to 2015 and 8.5 million civilians presenting annually with injury patterns at risk for hypertrophic scarring, it is paramount that we ensure access to safe and effective long-term scar care.2,3
At its simplest level, hypertrophic scarring is believed to result from a disequilibrium between collagen production and degradation. This failure to properly transition through the stages of wound healing results in bothersome symptoms, a disfigured appearance, and mechanical dysfunction of the skin (Figure, A). Decreased elasticity and extensibility, increased dermal thickness, and scar contractures impair patient range of motion and functional mobility. Those affected commonly experience varying degrees of pruritus and dysesthesia along the scar. Combined with aesthetic variations in pigmentation, erythema, texture, and thickness, hypertrophic scarring often leads to long-term psychosocial impairment and decreased health-related quality of life.4
Treatment Approach
Treatment of hypertrophic scars requires a multimodal approach due to the spectrum of associated concerns and the natural recalcitrance of the scar to therapy. Protocols should be tailored to the individual but generally begin with tissue-conserving surgical interventions followed by selective photothermolysis of the scar vasculature. Subsequently, deep and superficial ablative fractional laser (AFL) treatment and local pharmacotherapy also are employed. Treatment can be accomplished in the outpatient setting under local anesthesia in a serial fashion. In the authors’ experience, these therapies behave in a synergistic fashion, achieving outcomes that far exceed the sum of their parts, often obviating the need for scar excision in the majority of cases (Figure, B).
Tissue-Conserving Surgical Intervention
Z-plasty is an indispensable surgical tool due to its ability to lengthen scars and reduce wound tension. Treatment is easily customizable to the patient and can be performed using the individual or multiple Z-plasty techniques. Undermining and step-off correction while suturing allow the physician to lower raised scars, elevate depressed scars, and obscure scar presence by minimizing the straight lines that draw the eye to the scar. Z-plasties rely on the creation and transposition of 2 triangular flaps and permit a 75% increase in length along the desired tension vector. As such, Z-plasties decrease wound tension and facilitate scar maturation.
Selective Photothermolysis of the Vasculature
Although there are several devices available to treat vascular and immature hypertrophic scars, the majority of studies have been conducted with the 595-nm pulsed dye laser. By preferentially heating oxyhemoglobin within the dermal microvasculature, the pulsed dye laser irreparably injures the vascular endothelium. The subsequent tissue hypoxia and collagen fiber heating results in collagen fiber realignment, normalization of collagen subtypes, and neocollagenesis.5 Pulsed dye laser therapy most effectively reduces erythema and pruritus; however, improvements in scar volume, pliability, and elasticity also have been reported.5 When targeting the fine vasculature of the scar, thermal confinement is critical to prevent injury to the surrounding dermis. As such, pulse widths of 0.45 to 1.5 milliseconds are routinely utilized with a fluence just sufficient to elicit transient purpura lasting 3 to 5 seconds. Employing a spot size of 7 to 10 mm, typical fluences range from 4.5 to 6.5 J/cm2. Engagement of the dynamic cooling device reduces the risk for complications, allowing the patient to proceed to the next step in their therapy regimen: the AFL.
Ablative Fractional Laser
The AFL creates a pixilated pattern of injury throughout the epidermis and dermis of the treatment area. Ablative fractional laser platforms include the 10,600-nm CO2 and 2940-nm erbium-doped YAG lasers, both targeting intracellular water. The AFL vaporizes columns of tissue, leaving minute vertical channels with narrow rims of protein coagulation referred to as microscopic treatment zones (MTZs).6 Scar collagen analysis after AFL treatment has shown a profile resembling unaffected skin.7 Consistently, patients report improvements in stiffness, range of motion, pain, pruritus, pigmentation, and erythema.Physician observers also have reported similar improvements in these end points.8,9 Recently, interim data from a prospective controlled trial were presented showing objective improvements in dermal thickness, elasticity, and extensibility after 3 treatments with the CO2 AFL.6 The UltraPulse CO2 laser (Lumenis) is the most well-studied and widely available AFL for scar therapy and as such we will outline common treatment parameters with this device. Of note, treatment end points may be generalized to any AFL.
The DeepFX UltraPulse configuration is utilized to achieve deep AFL therapy and has a fixed pulse width of 0.8 milliseconds, slightly less than the thermal relaxation time of the skin. The diameter of the MTZs is 120 µm, and MTZ density for scar treatment ranges from 1% to 10% with a goal depth of at least 80% of scar thickness. Maximal penetration of the AFL is 4 mm, which is directly proportional to fluence. The goal of deep AFL is the removal of scar tissue to facilitate remodeling and neocollagenesis. Superficial fractional ablation can then be achieved utilizing the ActiveFX UltraPulse configuration generating a 1.3-mm MTZ spot size. We commonly use a treatment level of 3 (82% density). Typical treatment energy ranges from 80 to 125 mJ, which correlates with depths of approximately 50 to 115 µm. With both configurations, the size and shape of the treatment area can be customized to the scar. In addition, frequency may be adjusted to control the speed of treatment while balancing the risk of bulk heating. The goal of superficial AFL is to minimize scar surface irregularities and ensure blending of deep AFL treatment. Once AFL treatment is complete, local pharmacotherapy can then be employed.
Pharmacotherapy
Intralesional corticosteroids have long represented the standard of care for hypertrophic scars, with concentrations between 2.5 and 40 mg/mL that are titrated to scar thickness and location to avoid unwanted atrophy. Visual blanching of the scar represents the clinical end point for treatment. Corticosteroids act by inhibiting fibroblast proliferation and enhancing collagen degradation.10 5-Fluorouracil (5-FU) also is used in scar management. In addition to inhibiting fibroblast proliferation and inducing fibroblast apoptosis, 5-FU inhibits myofibroblast proliferation, which is helpful in the prevention and treatment of scar contracture.11 As monotherapy, weekly injections with 1 to 3 mL of 50 mg/mL 5-FU has been safe and effective. Combination intralesional corticosteroid and 5-FU therapy has been reported and is associated with improved scar regression, reduced reoccurrence, and fewer side effects.11 In our experience, a 1:1 suspension is effective with appropriate titration of the corticosteroid component. Although less well defined, topical application of pharmacotherapy and massage to the newly created MTZs appears beneficial and offers another option for delivery of corticosteroids and 5-FU, in addition to a number of promising medications such as bimatoprost, poly-L-lactic acid, timolol, and rapamycin.12
Conclusion
Advances in laser surgery and our understanding of wound healing have created a paradigm shift in the treatment approach to trauma and burn scars. In lieu of extensive scar excisions, the summarized multimodal regimen emphasizing tissue conservation and autologous remodeling is gaining favor in the military, academic medical centers, and scar centers of excellence, but patients are finding local access to care difficult. Dermatologists are uniquely positioned to cost-effectively deliver this care in the outpatient setting utilizing devices and techniques they already possess. With the end goal of optimization of functional, symptomatic, and aesthetic state of the patient, it is critical that dermatologists seize this opportunity to truly make a difference for the military and civilian patients that need it most.
- American Burn Association, National Burn Repository. 2015 National burn repository report of data from 2005-2014. http://www.ameriburn.org/2015NBRAnnualReport.pdf. Accessed May 10, 2017.
- Centers for Disease Control and Prevention. 2013 National hospital ambulatory medical care survey emergency department summary tables. https://www.cdc.gov/nchs/data/ahcd/nhamcs_emergency/2013_ed_web_tables.pdf. Accessed May 10, 2017.
- Fischer H. A guide to U.S. Military casualty statistics: Operation Freedom’s Sentinel, Operation Inherent Resolve, Operation New Dawn, Operation Iraqi Freedom, and Operation Enduring Freedom. Congressional Research Service website. https://fas.org/sgp/crs/natsec/RS22452.pdf. Published August 7, 2015. Accessed May 10, 2017.
- Van Loey NE, Van Son MJ. Psychopathology and psychological problems in patients with burn scars: epidemiology and management. Am J Clin Dermatol. 2003;4:245-272.
- Vrijman C, van Drooge AM, Limpens J, et al. Laser and intense pulsed light therapy for the treatment of hypertrophic scars: a systematic review. Br J Dermatol. 2011;165:934-942.
- Miletta N, Lee K, Siwy K, et al. Objective improvement in burn scars after treatment with fractionated CO2 laser. Paper presented at: American Society for Laser Medicine and Surgery 36th Annual Conference; April 1-3, 2016; Boston, MA.
- Ozog DM, Liu A, Chaffins ML, et al. Evaluation of clinical results, histological architecture, and collagen expression following treatment of mature burn scars with a fraction carbon dioxide laser. JAMA Dermatol. 2013;149:50-57.
- Levi B, Ibrahim A, Mathews K, et al. The use of CO2 fractional photothermolysis for the treatment of burn scars. J Burn Care Res. 2016;37:106-114.
- van Drooge AM, Vrijman C, van der Veen W, et al. A randomized controlled pilot study on ablative fractional CO2 laser for consecutive patients presenting with various scar types. Dermatol Surg. 2015;41:371-377.
- Wang XQ, Lui YK, Wang ZY, et al. Antimitotic drug injections and radiotherapy: a review of the effectiveness of treatment for hypertrophic scars and keloids. Int J Low Extrem Wounds. 2008;7:151-159.
- Gupta S, Kalra A. Efficacy and safety of intralesional 5-fluorouracil in the treatment of keloids. Dermatology. 2002;204:130-132.
- Haedersdal M, Erlendsson AM, Paasch U, et al. Translational medicine in the field of AFL (AFXL)-assisted drug delivery: a critical review from basics to current clinical status. J Am Acad Dermatol. 2016;74:981-1004.
- American Burn Association, National Burn Repository. 2015 National burn repository report of data from 2005-2014. http://www.ameriburn.org/2015NBRAnnualReport.pdf. Accessed May 10, 2017.
- Centers for Disease Control and Prevention. 2013 National hospital ambulatory medical care survey emergency department summary tables. https://www.cdc.gov/nchs/data/ahcd/nhamcs_emergency/2013_ed_web_tables.pdf. Accessed May 10, 2017.
- Fischer H. A guide to U.S. Military casualty statistics: Operation Freedom’s Sentinel, Operation Inherent Resolve, Operation New Dawn, Operation Iraqi Freedom, and Operation Enduring Freedom. Congressional Research Service website. https://fas.org/sgp/crs/natsec/RS22452.pdf. Published August 7, 2015. Accessed May 10, 2017.
- Van Loey NE, Van Son MJ. Psychopathology and psychological problems in patients with burn scars: epidemiology and management. Am J Clin Dermatol. 2003;4:245-272.
- Vrijman C, van Drooge AM, Limpens J, et al. Laser and intense pulsed light therapy for the treatment of hypertrophic scars: a systematic review. Br J Dermatol. 2011;165:934-942.
- Miletta N, Lee K, Siwy K, et al. Objective improvement in burn scars after treatment with fractionated CO2 laser. Paper presented at: American Society for Laser Medicine and Surgery 36th Annual Conference; April 1-3, 2016; Boston, MA.
- Ozog DM, Liu A, Chaffins ML, et al. Evaluation of clinical results, histological architecture, and collagen expression following treatment of mature burn scars with a fraction carbon dioxide laser. JAMA Dermatol. 2013;149:50-57.
- Levi B, Ibrahim A, Mathews K, et al. The use of CO2 fractional photothermolysis for the treatment of burn scars. J Burn Care Res. 2016;37:106-114.
- van Drooge AM, Vrijman C, van der Veen W, et al. A randomized controlled pilot study on ablative fractional CO2 laser for consecutive patients presenting with various scar types. Dermatol Surg. 2015;41:371-377.
- Wang XQ, Lui YK, Wang ZY, et al. Antimitotic drug injections and radiotherapy: a review of the effectiveness of treatment for hypertrophic scars and keloids. Int J Low Extrem Wounds. 2008;7:151-159.
- Gupta S, Kalra A. Efficacy and safety of intralesional 5-fluorouracil in the treatment of keloids. Dermatology. 2002;204:130-132.
- Haedersdal M, Erlendsson AM, Paasch U, et al. Translational medicine in the field of AFL (AFXL)-assisted drug delivery: a critical review from basics to current clinical status. J Am Acad Dermatol. 2016;74:981-1004.
Practice Points
- Burn and trauma scarring represents a major source of morbidity in both the civilian and military populations worldwide and often is mechanically, aesthetically, and symptomatically debilitating.
- Advances in laser surgery and our understanding of wound healing have resulted in a scar therapy paradigm shift from large scar excisions and repair to a multimodal, tissue-conserving approach that relies on remodeling of the existing tissue.
- Dermatologists are uniquely positioned to increase patient access to cost-effective, outpatient-based burn and trauma scar care utilizing devices and techniques that they currently possess.
