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Background The Joint Trauma System (JTS) is a DoD Center of Excellence for Military Health System trauma care delivery and the DoD’s reference body for trauma care in accordance with National Defense Authorization Act for Fiscal Year 2017. Through the JTS, evidence-based clinical practice guidelines (CPGs) have been developed and subsequently refined to standardize and improve combat casualty care. Data are amassed through a single, centralized DoD Trauma Registry to support process improvement measures with specialty modules established as the registry evolved. Herein, we review the implementation of the JTS DoD Trauma Registry specialty Infectious Disease Module and the development of infection-related CPGs and summarize published findings on the subsequent impact of the Infectious Disease Module on combat casualty care clinical practice and guidelines. Methods The DoD Trauma Registry Infectious Disease Module was developed in collaboration with the Infectious Disease Clinical Research Program (IDCRP) Trauma Infectious Disease Outcomes Study (TIDOS). Infection-related information (e.g., syndromes, antibiotic management, and microbiology) were collected from military personnel wounded during deployment June 1, 2009 through December 31, 2014 and medevac’d to Landstuhl Regional Medical Center in Germany before transitioning to participating military hospitals in the USA. Results To support process improvements and reduce variation in practice patterns, data collected through the Infectious Disease Module have been utilized in TIDOS analyses focused on assessing compliance with post-trauma antibiotic prophylaxis recommendations detailed in JTS CPGs. Analyses examined compliance over three time periods: 6 months, one-year, and 5 years. The five-year analysis demonstrated significantly improved adherence to recommendations following the dissemination of the 2011 JTS CPG, particularly with open fractures (34% compliance compared to 73% in 2013-2014). Due to conflicting recommendations regarding use of expanded Gram-negative coverage with open fractures, infectious outcomes among patients with open fractures who received cefazolin or expanded Gram-negative coverage (cefazolin plus fluoroquinolones and/or aminoglycosides) were also examined in a TIDOS analysis. The lack of a difference in the proportion of osteomyelitis (8% in both groups) and the significantly greater recovery of Gram-negative organisms resistant to aminoglycosides or fluoroquinolones among patients who received expanded Gram-negative coverage supported JTS recommendations regarding the use of cefazolin with open fractures. Following recognition of the outbreak of invasive fungal wound infections (IFIs) among blast casualties injured in Afghanistan, the ID Module was refined to capture data (e.g., fungal culture and histopathology findings, wound necrosis, and antifungal management) needed for the TIDOS team to lead the DoD outbreak investigation. These data captured through the Infectious Disease Module provided support for the development of a JTS CPG for the prevention and management of IFIs, which was later refined based on subsequent TIDOS IFI analyses. Conclusions To improve combat casualty care outcomes and mitigate high-consequence infections in future conflicts, particularly in the event of prolonged field care, expansion, refinement, and a mechanism for sustainability of the DoD Trauma Registry Infectious Disease Module is needed to include real-time surveillance of infectious disease trends and outcomes.

Introduction In recent conflicts, the Joint Theater Trauma System (JTTS) led the systematic approach to improve battlefield trauma care, substantially contributing to the unprecedented survival of combat casualties. The Joint Trauma System (JTS) was codified in 2016 to preserve the lessons learned and functions of the JTTS, including the Department of Defense Trauma Registry. Concurrently, Combatant Commands (CCMD) were directed to establish CCMD Trauma Systems (CTS) “modeled after the JTTS” and to maintain a baseline of core functions intended to rapidly scale as needed. The complex nature of both CCMDs and the military trauma system has challenged the full implementation of the CTS. Analyzing the historical experiences of the JTTS, JTS, and CTS within a military doctrinal framework might enable the further success of the military trauma system. Methods The strategic, operational, and tactical levels of warfare, in accordance with Joint Publication 1-0, Doctrine of the Armed Forces of the United States, and Joint Publication 3-0, Joint Operations, established the analytic framework for this study. The literature regarding the JTTS, CTS, and JTS was reviewed for relevant information concerning organizational structure and functions of trauma system performance improvement (PI) capabilities. A comprehensive analysis was performed using a thematic approach to evaluating descriptive data contained within the collected data set. Deployed trauma system PI tasks, functions, and responsibilities were identified, defined, and correlated according to the respective levels of warfare. Results The comprehensive analysis revealed both discrete and overlapping tasks, functions, and responsibilities of the trauma system PI capabilities at each of the three levels of warfare. Strategic-level actions were categorized according to 12 distinct themes: reduce mortality; strategic reporting; centralized trauma registry; strategic communications; centralized organization; direct support to CCMDs; Department of Defense policy and doctrine; strategic-level PI; clinical practice guidelines; training and readiness standards; force structure, standardization, and interoperability; and research and development. Operational-level actions were categorized according to seven distinct themes: theater trauma system policies and requirements; theater trauma system leadership; stakeholder coordination; theater communication; theater standards for readiness and skill sustainment; trauma system planning; and medical logistics support. Tactical-level actions were categorized according to seven distinct themes: trauma system personnel; PI; documentation enforcement and patient care data collection; tactical planning recommendations for employing medical assets; research support; communication and reporting; and training and skills sustainment. Conclusion The deployed U.S. military trauma system requires a robust PI capability to optimize combat casualty care. Policy updates, a joint military trauma system doctrine, and force design updates are necessary for deployed military trauma system PI capabilities to function optimally across all levels of warfare.

Introduction Falls are a leading mechanism of injury. Hospitalization and outpatient clinic visits due to fall injury are frequently reported among both deployed and non-deployed U.S. Military personnel. Falls have been previously identified as a leading injury second only to sports and exercise as a cause for non-battle air evacuations. Materials and Methods This retrospective study analyzed the Department of Defense Trauma Registry fall injury data from September 11, 2001 to December 31, 2018. Deployed U.S. Military personnel with fall listed as one of their mechanisms of injury were included for analysis. Results Of 31,791 injured U.S. Military personnel captured by the Department of Defense Trauma Registry within the study time frame, a total of 3,101 (9.8%) incurred injuries from falls. Those who had fall injuries were primarily 21 to 30 years old (55.4%), male (93.1%), Army (75.6%), and enlisted personnel (56.9%). The proportion of casualties sustaining injuries from falls generally increased through the years of the study. Most fall injuries were classified as non-battle injury (91.9%). Falls accounted for 24.2% of non-battle injury hospital admissions with a median hospital stay of 2 days. More non-battle-related falls were reported in Iraq-centric military operations (62.7%); whereas more battle-related falls were reported in Afghanistan-centric military operations (58.3%). Conclusions This study is the largest analysis of deployed U.S. Military personnel injured by falls to date. Highlighted are preventive strategies to mitigate fall injury, reduce workforce attrition, and preserve combat mission capability. Level of Evidence Level III Epidemiologic.

Background Thermal injury alters the host response, making burn patients more susceptible to infections. In fact, infections represent the most frequent complication and cause of mortality in burn patients. We describe the epidemiology, clinical characteristics, timing, and outcomes of infections among wounded military personnel with burns. Methods Data were collected through the Trauma Infectious Disease Outcomes Study, an observational study of US service members injured in Iraq and Afghanistan (6/09-12/14). Patients who sustained ≥1 burn injury and were admitted to the Burn Center at Brooke Army Medical Center were included in the analysis. Infections were defined using standardized criteria. For patients with multiple infections, only the initial infection was assessed. Results Among 144 burn patients, 99% were males and 62% had combat-related burns with a median total body surface area (TBSA) of 6% (IQR 3-14%) thermally injured. Infections were diagnosed in 26 (18%) patients with pneumonia being the predominant initial syndrome (N=16, 62%), followed by skin and soft-tissue infections (N=6, 23%), bloodstream infections (N=3, 12%), and intra-abdominal infections (N=1, 4%). Median number of days to each of these initial infecting syndromes were 4 (IQR 3-5), 7 (IQR 4-12), 7 (IQR 6-7), and 17 (IQR 17-17) days, respectively. Patients with infections were more severely injured with greater TBSA (median 31 vs 5) and Baux scores (median 59 vs 29), and were more likely to have combat trauma, inhalation injury, require mechanical ventilation, and have longer time to definitive grafting (Table 1). Microbiology of initial infections varied with 35% of patients having polymicrobial infections (Table 2). Gram-negative organisms were recovered from 20 (77%) patients, of whom 20% had a multidrug-resistant Gram-negative. Gram-positive organisms and fungi were identified in 42% and 8% of patients, respectively. Conclusion Improved understanding of risk factors and the timing of infections in this unique population is critical for effective management. Patients with infections were more severely injured, had higher rates of inhalational injury, and longer days to definitive grafting. Initial infections were more commonly pneumonia. Disclosures David R. Tribble, DrPH, AstraZeneca: The HJF, in support of the USU IDCRP, was funded to conduct or augment unrelated Phase III Mab and vaccine trials as part of US Govt. COVID19 response.

We describe a 34-year-old soldier who sustained a blast injury in Syria resulting in tracheal 5 cm tracheal loss, cervical spine and cord injury with tetraplegia, multiple bilateral rib fractures, esophageal injury, traumatic brain injury, globe evisceration, and multiple extremity soft tissue and musculoskeletal injuries including a left tibia fracture with compartment syndrome. An emergent intubation of the transected trachea was performed in the field, and the patient was resuscitated with whole blood prehospital. During transport to the Role 2, the patient required cardiopulmonary resuscitation for cardiac arrest. On arrival, he underwent a resuscitative thoracotomy and received a massive transfusion exclusively with whole blood. A specialized critical care team transported the patient to the Role 3 hospital in Baghdad, and the DoD extracorporeal membrane oxygenation (ECMO) team was activated secondary to his unstable airway and severe hypoxia secondary to pulmonary blast injury. The casualty was cannulated in Baghdad approximately 40 hours after injury with bifemoral cannulae in a venovenous configuration. He was transported from Iraq to the U.S. Army Institute of Surgical Research Burn Center in San Antonio without issue. Extracorporeal membrane oxygenation support was successfully weaned, and he was decannulated on ECMO day 4. The early and en route use of venovenous ECMO allowed for maintenance of respiratory support during transport and bridge to operative management and demonstrates the feasibility of prolonged ECMO transport in critically ill combat casualties.

Introduction Unlike other communal living environments (universities, boarding schools, and camps) that have been suspended during the COVID-19 pandemic, the deployed military force must continue its mission. Early challenges in the 2020 deployed environment included limited availability of living and quarantine space and limited testing capacity. This is a brief report of stringent quarantine strategies employed to newly arriving cohorts at a NATO and U.S. military base to prevent release of SARS-CoV-2 into a larger base population. Methods With awareness of the worldwide pandemic, beginning in late February 2020, all personnel arriving to the Hamid Karzai International Airport NATO base were quarantined for 14 days to prevent interaction with the wider base population. Testing capacity was limited. Names, locations, and dates of those within quarantine were tracked to improve contact tracing. Between February and April 2020, the first cases of SARS-CoV-2 were diagnosed on a military base in Afghanistan within quarantine. Results Within quarantine, 11 males became PCR positive for SARS-CoV-2 during April 2020. Five of the 11 were PCR tested for symptoms of fever, cough, or loss of taste. A sixth individual, who had been asymptomatic upon leaving the base after completion of quarantine, later developed symptoms and tested positive. Another five asymptomatic individuals were found with antibody testing just before planned release from 14 days of quarantine post-exposure and confirmed with PCR testing. All PCR-positive individuals were diagnosed before being released into the general population of the base because of strict screening, quarantine, and exit criteria. Conclusion Quarantine creates significant strain on resources in a deployed environment. Group quarantine facilities where social distancing is limited allow for the possibility for intra-quarantine transmission of SARS-CoV-2. Ideally, PCR testing is done upon entry into quarantine and upon exit. With the possibility of false-negative PCR or limited PCR testing, we recommend daily symptom screening, pulse oximetry, temperature checks, and small quarantine groups that must “graduate” together—all meeting exit criteria. Any introduction of new individual, even with negative testing, to a group increases risk of SARS-CoV-2 transmission. Upon exit of quarantine, testing should be performed, regardless of entry testing. If PCR is limited, serology testing should be done, followed by PCR, if positive. Serology testing can be combined with clinical judgment to conserve PCR testing for quarantine release of asymptomatic individuals.

Introduction The medical treatment facilities (MTF) represent the equivalent of the healthcare system in the home countries, but they face the limitations of an outpost at the end of the supply chain. The capabilities are limited, and the necessary effort to extend the treatment capacity is tremendous. Algorithms based on scientific evidence or at least profound medical expertise are a tool to facilitate the decision-making process in triage under difficult circumstances. The aim of this article is to present a protocol that regards the specific entities military MTF abroad have to deal with in context of the COVID-19 pandemic. Material and Methods To prepare our own health system within the Resolute Support mission, an interdisciplinary team of consultants and nurses located at the multinational role 2E, Camp Marmal, Mazar-e-Sharif, Afghanistan, individually reviewed medical databases and the current literature concerning triage on intensive care units. The identified literature was evaluated by all authors. In the next step, an adapted flow chart for triage on intensive care unit in MTF abroad was set up on the basis of existing triage tools found in the reviewed literature. Results The authors created the “Structured Approach for Intensive Care Unit Triage (SAINT)” protocol. It is an approach that fits to the specific entities (e.g., limited medical resources in the whole system, limited intensive care unit capabilities for long-term stay or organ replacement therapy, etc.) that determine the framework of the special military health system abroad. Conclusions The presented triage protocol may be a tool for medical personnel to facilitate the difficult task of triaging. It provides guidance along patient-centered criteria like individual medical, ethical, and legal issues while taking into account the available resources. Future studies are needed to investigate the effectiveness of the SAINT protocol.

Introduction In 2010, the Joint Trauma System published a clinical practice guideline (CPG) for providing care to patients with suspicion of spinal cord injury. The CPG advocated for liberal use of cervical collars and adequate documentation of the practice. This performance improvement project examined C-spine CPG adherence in both the prehospital and military treatment facility (MTF) settings. Understanding challenges in CPG adherence facilitates evaluation of future CPGs and their success at implantation of the clinical guidance. Materials and Methods The Department of Defense Trauma Registry was used to identify US Military casualties meeting the criteria for cervical collar placement between January 1, 2007 and December 31, 2018. Criteria for cervical collar placement were defined as any patient who experienced a mechanism of injury relating to an explosion, fall, or motor-vehicle-related injury. Any patients with an AIS severity score greater than 1 to the head or having any ICD injury codes related to either upper spinal cord or head injury were also considered for inclusion. Adherence of cervical collar placement was defined by documented ICD codes or prehospital documentation of cervical collar placement as captured in the registry. Results A total of 14,837 patients were identified for possible cervical collar placement and 3,317 had verifiable documentation of having a C-collar placed. Documented C-collar placement was higher after the publication of the clinical practice guideline in 2010 (29% vs. 15%, p Conclusion Application of cervical collars has increased significantly, since the initial publication of the spine injury CPG. Current gaps include valid and reliable identification of patients warranting specific clinical interventions and documentation of patient care. Currently, lack of documentation is reported as nonadherence, but it remains unknown if these missing clinical data accurately portray nonadherence or adherence with lack of documentation. Future research and resources would benefit and expand the results collected in this paper, and cement the importance of CPG publication and adherence.

Introduction: The impact of disease and nonbattle injury (DNBI) on casualty burden of military operations has historically been greater than that of battle-related injuries. The ratio of battle to DNBI casualties has changed as advances in equipment, hygiene, and infectious diseases have been made; however, during military operations in Iraq and Afghanistan, 30% of serious injuries treated or evacuated from the area of operations were secondary to NBI. Most DoD research and intervention efforts focus on battle injuries; NBI has received much less practical attention. We aimed to explore the potential utility of the largest Department of Defense casualty database in identifying potential intervention targets for preventing NBI events. Materials and Methods: Phase I was a comprehensive NBI literature review from historical and current military operations. Phase II was an IRB exempt initial examination of relevant data contained in the Department of Defense Trauma Registry (DoDTR). Phase I: A MEDLINE search using the terms “military”, “injury”, and “nonbattle/non battle” was performed, and articles containing useful data points to characterize the unique risks of the modern deployed military environment and identify potentially preventable NBI hazards in the modern deployed military environment were retrieved and reviewed in full-text. Phase II: This information was used to explore data within the DoDTR’s and its ability to provide data to inform NBI prevention efforts in the following areas: most prevalent NBI causes, NBI location and timing related to operational tempo, characteristics of the population at risk for NBI. Results: Phase I: Falls and motor vehicle crashes (MVCs) accounted for most of the serious NBI in Iraq and Afghanistan. No specific epidemiologic data was readily available to guide NBI prevention efforts. Phase II was limited to NBI and falls from Iraq and Afghanistan in the DoDTR. Only aggregate data were available with a total of 1829 falls and 1899 MVCs. Case fatality for falls was 1.1% and for MVCs 6.5%. The greatest frequency of NBI was in Iraq among U.S. Army personnel, but comparison of rates is not possible without reliable denominators for individual variables. Annual NBI incidence seems proportional to overall level of personnel deployed to each theater, but without knowledge of the true denominator of total deployed personnel, it is impossible to conclude definitively. The annual number of falls was stable throughout the period of highest operational tempo in Iraq (2003–2011), although MVCs were more common earlier in the operation (2003–2005), likely corresponding to greater operational maneuver. Conclusions: The deployed military environment is dangerous and NBI presents a primary prevention target for expeditionary operations. The DoDTR is a database of detailed injury and medical care information and lacks much of the data required to perform a comprehensive epidemiologic NBI analysis. Specific prevention recommendations cannot be made based solely on DoDTR data and integration with other DoD databases that assess operational and tactical data should be considered.

IntroductionMaintaining readiness among Army surgeons is increasingly challenging because of declining operative experience during certain deployments. Novel solutions should be considered.Materials and MethodsA pilot program was conducted to rotate surgical teams from a military treatment facility with a low volume of combat casualty care to one with a higher volume. Pre- and postrotation surveys were conducted to measure relative operative experience, trauma experience, and perceived readiness among rotators.ResultsOperative volumes and trauma volumes were increased and that perceived readiness among rotators, especially those with the fewest previous deployments, was improved.ConclusionsMaintaining readiness among Army surgeons is a difficult task, but a combination of increased trauma care while in garrison, as well as increased humanitarian care during deployments, may be helpful. Additionally, rotating providers from facilities caring for few combat casualties to facilities caring for more combat casualties may also be feasible, safe, and helpful.

Increased resource constraints secondary to a smaller medical footprint, prolonged evacuation times, or overwhelming casualty volumes all increase the challenges of effective management of traumatic brain injury (TBI) in the austere environment. Prehospital providers are responsible for the battlefield recognition and initial management of TBI. As such, targeted education is critical to efficient injury recognition, promoting both provider readiness and improved patient outcomes. When austere conditions limit or prevent definitive treatment, a comprehensive understanding of TBI pathophysiology can help inform acute care and enhance prevention of secondary brain injury. Field deployable, noninvasive TBI assessment and monitoring devices are urgently needed and are currently undergoing clinical evaluation. Evidence shows that the assessment, monitoring, and treatment in the first few hours and days after injury should focus on the preservation of cerebral perfusion and oxygenation. For cases where medical management is inadequate (eg, evidence of an enlarging intracranial hematoma), guidelines have been developed for the performance of cranial surgery by nonneurosurgeons. TBI management in the austere environment will continue to be a challenge, but research focused on improving evidence-based monitoring and therapeutic interventions can help to mitigate some of these challenges and improve patient outcomes.

Whole blood is the preferred product for resuscitation of severe traumatic hemorrhage. It contains all the elements of blood that are necessary for oxygen delivery and hemostasis, in nearly physiologic ratios and concentrations. Group O whole blood that contains low titers of anti-A and anti-B antibodies (low titer group O whole blood) can be safely transfused as a universal blood product to patients of unknown blood group, facilitating rapid treatment of exsanguinating patients. Whole blood can be stored under refrigeration for up to 35 days, during which it retains acceptable hemostatic function, though supplementation with specific blood components, coagulation factors or other adjuncts may be necessary in some patients. Fresh whole blood can be collected from pre-screened donors in a walking blood bank to provide effective resuscitation when fully tested stored whole blood or blood components are unavailable and the need for transfusion is urgent. Available clinical data suggest that whole blood is at least equivalent if not superior to component therapy in the resuscitation of life-threatening hemorrhage. Low titer group O whole blood can be considered the standard of care in resuscitation of major hemorrhage.

Introduction During the last decade, our national Joint Trauma System (JTS) has served as the reference body for trauma care throughout our military. The JTS has published 63 Clinical Practice Guidelines (CPGs) on its website to set standards and to provide guidance for deployed providers in the management of challenging clinical scenarios. Given that there is limited burn expertise in the military, the JTS CPGs are a major source of information for most providers. It has been possible to track CPG download activity for over a year. We hypothesized that assessment of download activity would reflect the relative value of JTS CPGs. In particular, we aimed to document the value of burn-related CPGs. Methods Download activity was determined from data pulled for jts.amedd.army.mil, utilizing Google’s Digital Analytics Program (DAP), for 27 Feb 2018 to 3 Sep 2019. After refining results from all of the military down to jts.amedd.army.mil, a search was then launched to determine the top activities on the JTS webpage. An additional refinement was conducted to establish search-date parameters. Data were exported into an Excel spreadsheet for further analysis. The data were analyzed for specific titles and numbers of downloads; those downloads consistently appearing at the top of the download activity were split out and detailed. Results Downloading was consistently the top “event” or tangible action on the site. In 17 months, total CPG downloads from the JTS website were 75,901. Burn-related CPGs and supporting documents (e.g. Lund-Browder chart; resuscitation flowsheet) were downloaded 6,177 times. The next most frequently downloaded CPG was the traumatic brain injury (TBI) CPG, which was downloaded 6,041 times. If each guideline had equal distribution of downloads, they would each be downloaded 1,205 times; burn-related CPGs were download 5 times more frequently than the mean. Conclusions This study emphasizes the importance of burn-related CPGs to providers throughout the global continuum of care. These providers frequently work in expeditionary, remote and austere environments without rapid access to specialty surgical expertise. The use of detailed CPGs can help bridge this gap. Applicability of Research to Practice This model can be used for remote rural areas nationally and internationally. Computer-based tracking of CPG and educational material downloads can, furthermore, be used to identify ongoing educational needs.