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This article has been witdrawn at the request of the author(s). The Publisher apologizes for any inconvenience this may cause.
Rib fractures in combat casualties are an under-appreciated injury, and their treatment may become more common as more patients survive because of modern body armor and point-ofinjury care. The combat environment has challenges such as equipment availability and sterility. A simple and thoughtful rib fracture treatment algorithm may be useful to reduce the morbidity and mortality of rib fractures in the combat environment. Intravenous lidocaine infusions for patients with traumatic rib fractures may have important combat applications. We propose an algorithm for the management of combat casualties with traumatic rib fractures.
Background: The purpose of this study was to evaluate the effectiveness of the physical domain (PD) to improve performance in all the POTFF domains (physical, psychological, social/family, and spiritual) among Special Forces (SF) Operators.
Methods: This was a cross-sectional study of active SF Operators assigned to the United States Army Special Operations Command (USASOC). Recruitment began in October 2016. Testing began on 1 January 2017, and concluded on 28 February 2020. Participants completed physical testing, blood draws, and questionnaires to determine domain metrics. Means, medians, and proportions were compared by level of participation in the PD.
Results: A total of 231 Soldiers participated; n=63 in the control group, n=93 in the <4 days PD/week (PD <4) group, and n=66 in the >4 days PD/week (PD =4) group. The average age was 31 years (range 21-47 y). The average time in the Special Operations Forces (SOF) was 4 years (range 0-19 y). The PD =4 group showed significantly greater overall upper (p=.01) and lower (p=0) body strength, power (p=.01), and positive affect (p=.04). The PD =4 group also had significantly lower anxiety (p=.03), stress (p=.04), and depression (p=.02) than the control group.
Conclusion: The PD and psychological domain metrics were most associated with PD participation. This finding is consistent with the goals of the PD, which are to increase physical and mental capabilities and decrease injury recovery time.
This is the third of nine planned papers drawn from the findings of our ethnographic study entitled "The Impact of Catastrophic Injury Exposure on Resilience in Special Operations Surgical Teams." Building from our strategic framework, this paper will establish that resilience is better understood as cohesive adaptation within a Special Operation Forces (SOF) cultural ecosystem. Exploring unconventional resilience as the inter-relationship across the organization, team, and individual, we will use qualitative quotes to describe the ecosystem of dynamic freedom of maneuver in ambiguity. To achieve our goals, we will: 1) compare conventional and unconventional resilience to operationalize the components of our strategic framework; 2) use qualitative quotes to show how the ecosystem of unconventional resilience functions at each level supporting our operational model; and 3) describe how the operational model of unconventional resilience links to tactical performance through five social determinants. We conclude by gesturing to how transformational change-agency applies to practical performance of all SOF medics.
United States Special Operations Forces (SOF) personnel are frequently exposed to explosive blasts in training and combat. However, the effects of repeated blast exposure on the human brain are incompletely understood. Moreover, there is currently no diagnostic test to detect repeated blast brain injury (rBBI). In this "Human Performance Optimization" article, we discuss how the development and implementation of a reliable diagnostic test for rBBI has the potential to promote SOF brain health, combat readiness, and quality of life.
Background: The war in Ukraine urged a need for prompt deliv- erance and resupply of tourniquets to the front. Producing tour- niquets near the battlefront was a feasible option with respect to resupply and cost.
Methods: A locally produced 3D-printed tourniquet (Ukrainian model) from the "Tech Against Tanks" charity was tested against commercially available and Committee of Tactical Combat Casualty Care (CoTCCC)- recommended tourniquets (C-A-T™ and SOF™TT-W). We tested how well the tourniquets could hold pressure for up to 2 hours.
Results: A Kruskal-Wallis test revealed significant differences between the groups (p<.05). Post-hoc testing revealed a signif- icant difference between the C-A-T and the Ukrainian tourni- quet (p=.004). A similar significance was not found between the SOF™TT-W Wide and the Ukrainian model (p=.08). Dis- cussion: The Ukrainian model can hold pressure as well as the commercially available tourniquets. There is much value if this can be produced close to the battlefield. Factors including lo- gistics, cost, and self-sufficiency are important during wartime.
Conclusion: We found that our sample of 3D-printed tourni- quets, currently used in the war in Ukraine, could maintain pressure as well as the commercially available tourniquets. In- deed, our tests demonstrated that it could maintain a signifi- cantly higher pressure.
Background: Hemorrhagic shock requires timely administration of blood products and resuscitative adjuncts through multiple access sites. Intraosseous (IO) devices offer an alternative to intravenous (IV) access as recommended by the massive hemorrhage, A-airway, R-respiratory, C-circulation, and H-hypothermia (MARCH) algorithm of Tactical Combat Casualty Care (TCCC). However, venous injuries proximal to the site of IO access may complicate resuscitative attempts. Sternal IO access represents an alternative pioneered by military personnel. However, its effectiveness in patients with shock is supported by limited evidence. We conducted a pilot study of two sternal-IO devices to investigate the efficacy of sternal-IO access in civilian trauma care.
Methods: A retrospective review (October 2020 to June 2021) involving injured patients receiving either a TALON® or a FAST1® sternal-IO device was performed at a large urban quaternary academic medical center. Baseline demographics, injury characteristics, vascular access sites, blood products and medications administered, and outcomes were analyzed. The primary outcome was a successful sternal-IO attempt.
Results: Nine males with gunshot wounds transported to the hospital by police were included in this study. Eight patients were pulseless on arrival, and one became pulseless shortly thereafter. Seven (78%) sternal-IO placements were successful, including six TALON devices and one of the three FAST1 devices, as FAST1 placement required attention to Operator positioning following resuscitative thoracotomy. Three patients achieved return of spontaneous circulation, two proceeded to the operating room, but none survived to discharge.
Conclusions: Sternal-IO access was successful in nearly 80% of attempts. The indications for sternal-IO placement among civilians require further evaluation compared with IV and extremity IO access.
The malevolent application of neuroscience is an emerging threat to the U.S. military. At present, U.S. military medical personnel are not capable of adequately diagnosing or treating the injuries and illnesses that may result from exposure to potential neuroweapons. This fact was illustrated in 2016 when U.S. diplomats serving in Havana, Cuba reported hearing strange noises accompanied by a constellation of unexplained health effects. Similar incidents have been reported in China and Russia. Although various hypotheses have been put forward to explain these symptoms, none of them have been verified. The reported symptoms were analogous to the physiological responses that have been produced in the laboratory by exposing volunteers to pulsed microwave energy. However, these incidents of undetermined origin demonstrate that widespread neurological illness can be disruptive to U.S. government operations and that it is currently not possible to identify the cause, determine the correct treatment, or ascribe attribution to potential neuroweapon use in an overseas setting. Since it is likely that Special Operations medical personnel will be among the first to respond to neuroweapon attacks in the deployed environment, it is essential that they be made aware of this emerging threat and that efforts be made to incorporate potential directed energy neuroweapons and other neuroweapon configurations into future Chemical, Biological, Radiological, Nuclear, and high yield Explosives (CBRN-E) training modules. The intention of this article is to introduce the concept of the neuroweapon to military medical personnel and to provide a brief review of the relevant literature.