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team dynamics well in advance of deployment. Furthermore,   Results
          a consistent standard across all Army FRSDs would facilitate
          smoother integration of team members transferring from other   The first step in our SOP development included a targeted
          units. This paper proposes an FRSD SOP that incorporates   review of pertinent literature focused on performance opti-
            evidence-based strategies from high-stress, high-stakes teams,   mization in high-stress, high-stakes teams. We found that the
          such as aircrews and Special Operations Forces, to improve   principles governing effective performance in trauma teams
          training, task execution, and overall team performance.  closely mirrored those observed in other domains such as avi-
                                                             ation and space crews, firefighters, special operations teams,
                                                             and Formula 1 pit crews, where success depends on coordi-
          Methods                                            nated, time-critical actions under pressure. 8–13
          This work was conducted as a unit-level standard operating
          procedure (SOP) development effort under the authority of the   Based on this initial review and further interdisciplinary ex-
          Forward Resuscitative Surgical Detachment command struc-  pert input, we identified four core elements that consistently
          ture across two different U.S. Army FRSDs.         emerged as critical to team effectiveness: Skill, Team organiza-
                                                             tion, Equipment, and Process (STEP). These elements formed
          As a first step, we conducted a targeted review of the existing   the foundation of our prototype system, which was subse-
          literature  to  identify  evidence-based  strategies  and  principles   quently refined through trauma simulation exercises and, later,
          for improving team performance in high-stress, high-stakes   real-world casualty resuscitation in combat environments.
          environments. Subsequently, we synthesized the findings to es-  The  feedback  from 48  simulated  trauma scenarios  resulted
          tablish a theoretical framework for developing the proposed   in several system modifications. For example, team members
          system, focusing on key factors influencing team effectiveness.   highlighted delays in blood delivery when personnel were si-
          We used interdisciplinary expertise from trauma team leaders   multaneously tasked with other critical duties, prompting the
          (TTLs), emergency physicians, trauma and orthopedic surgeons,   creation of a dedicated “blood runner” role. This change de-
          CRNAs, nurses, and combat medics to optimize usability and   creased the mean time for blood delivery by approximately 2.2
          integrated our system with current Advanced Trauma Life Sup-  minutes. Conversely, the prototype “ballistic survey” (a rapid,
          port (ATLS) and European Trauma Resuscitation guidelines. 6,7  complete casualty exam performed after the primary survey)
                                                             was  judged  to  delay  critical  interventions.  It  was  removed,
          Subsequently, we subjected this prototype system to a simula-  with detection of penetrating injuries incorporated into the
          tion-based refinement process using trauma resuscitation sim-  FAST (focused assessment with sonography in trauma) exam
          ulation scenarios conducted by two separate FRSDs. We used   and secondary survey for a more streamlined approach.
          moulage with role players, simulated wounds, and synthetic
          blood. Initial vital signs were written on silk tape and attached   AARs following real-world combat zone resuscitations further
          to the patient. As soon as the patient was attached to a mon-  refined the final SOP. Two instances highlighted delays due to
          itor, we displayed simulated vital signs on a digital device po-  unfamiliar equipment (an airway suction device and a femo-
          sitioned above the stretcher using the SIMPL  monitor ( Apple   ral traction splint), prompting us to place greater emphasis on
                                             ©
          App Store). The scenario was supervised by a simulation coach   equipment drills and familiarity within the “E” component of
          who controlled the vital-sign display and monitored the overall   STEP. In addition, when our teams were reduced due to per-
          execution of CPGs, critical action items, and the resuscitation   sonnel unavailability, the importance of “skill redundancy” be-
          flow. Role players received detailed instructions beforehand   came apparent. As a result, we introduced daily cross- training
          on what mental status to simulate, what level of distress to   to ensure all core resuscitation tasks could still be executed
          display, and how to respond to certain interventions (such as   effectively even with reduced staffing. These examples illus-
          improved breathing after chest decompression).     trate how our SOP evolved through an iterative process based
                                                             on both simulation and operational experience. The following
          The simulation scenarios spanned the full spectrum of com-  sections describe our final “STEP” SOP.
          bat-relevant trauma: facial and neck injuries with airway ob-
          struction, massive hemorrhage, blunt and penetrating thoracic   Skill
          and abdominal trauma, large body surface area burns, severe   Mastery of procedural skills forms the foundation of every
          traumatic brain injury, pelvic and extremity trauma (includ-  trauma resuscitation. Since these skills are perishable, they re-
                                                                                                            14
          ing amputations), and mass casualty situations. Each scenario   quire regular training and simulation to maintain proficiency.
          was followed by a structured After Action Review (AAR), with   For an FRSD to remain agile and adaptable, it is paramount
          emphasis on adherence to JTS CPGs, time to first blood trans-  that all team members can execute the full spectrum of basic
          fusion, clarity of communication, individual situational aware-  trauma resuscitation techniques regardless of specialization.
          ness, and clarity of roles and responsibilities.   This “skill redundancy” fosters better team dynamics, with
                                                             each member understanding their role and able to assist others
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          As a final step, the system was implemented as the preliminary   with theirs.  Moreover, it enables anticipation and adaptation
          SOP for trauma resuscitation during two FRSD combat zone   in challenging scenarios, such as mass casualties or the replace-
          deployments. Following each real-world casualty resuscitation   ment of an incapacitated  team member. The technical  skills
          during these deployments, structured AARs were conducted   required during a trauma resuscitation can be separated into
          focusing on CPG adherence, identification of communication   “basic” and “advanced.” Every FRSD team member should be
          errors, and the timeliness of interventions (e.g., time to first   familiar with and able to execute the “basic” skills depicted
          blood transfusion) to further improve our system. While op-  in Table 1. These skills are largely consistent with the skillset
          erational security restrictions preclude disclosure of casualty   taught as part of Tier 3 (combat medic) Tactical Combat Ca-
          specifics, these AARs provided essential real-world validation   sualty Care (TCCC), the Army’s basic system of initial trauma
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          and refinement.                                    care.
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