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. 2025 Nov 4;10(4):e001975. doi: 10.1136/tsaco-2025-001975

Surgeon leadership in trauma resuscitation requires a competency-based multimodal training framework

Gary Alan Bass 1,2,3,, Caoimhe C Duffy 4, Jeremy W Cannon 5, Jay A Yelon 6, Paula Ferrada 7, Susan Evans 8, Jennifer M Leonard 9, Lewis J Kaplan 5,10
PMCID: PMC12588015  PMID: 41200505

Summary

Effective leadership during trauma resuscitation is a determinant of team performance and patient outcomes, yet existing training curricula remain procedure-centric and do not explicitly address the leadership domain. A structured, competency-based framework tailored to the resuscitation context may support more consistent training, evaluation, and entrustment of emerging trauma leaders. A narrative review of the literature was conducted across MEDLINE, Embase and Scopus using terms related to trauma, leadership, non-technical skills and competency frameworks. Relevant publications were categorized into: (1) leadership theory and styles; (2) non-technical skills frameworks; (3) trauma resuscitation education and assessment and (4) high-reliability team training from allied domains. Concepts were synthesized to derive a set of core competencies for trauma resuscitation leadership. Five interdependent competencies were identified: (1) adaptive leadership style matched to clinical context; (2) time-bound decision-making under uncertainty; (3) communication strategies that balance clarity with brevity; (4) fostering psychological safety and team coordination and (5) ongoing self-reflection with coached feedback. A continuum of leadership styles, spanning directive to facilitative, was adapted to the acute resuscitation environment. Educational modalities proposed include high-fidelity simulation, structured video review, in-situ coaching and behavioral checklists linked to entrustable professional activities. The framework delineates leadership training as distinct from, but complementary to, established technical protocols such as Advanced Trauma Life Support. This competency-based framework provides a structured approach to developing trauma resuscitation leadership skills. By defining observable behaviors, mapping them to multimodal training methods and proposing evaluation strategies, it offers a basis for systematic integration into trauma education. The framework may enhance reproducibility of training, strengthen team performance and improve patient care in high-acuity environments. Level of evidence: Narrative review.

Keywords: Multiple Trauma, teaching, treatment outcome, Time-To-Treatment

Introduction

Observational studies of high-reliability teams show that a clearly identified leader accelerates diagnostic imaging, hemorrhage control and definitive disposition during trauma resuscitation.1 International surveys likewise indicate that surgeons view leadership lapses as a frequent cause of avoidable delays in optimal care.2 Despite this recognition, most surgeons still informally acquire leadership habits through imitation, tacit apprenticeship or postevent reflection, rather than through structured curricula.3 Established courses such as Advanced Trauma Life Support emphasize algorithm-driven clinical management and technical checklists yet dedicate minimal time to the deliberate practice and evaluation of leadership behaviors.4

Leadership in the trauma bay, as opposed to the OR or ICU, is, therefore, best understood as bundled observable learnable non-technical skills (NTS) applied under severe time pressure. Human factors research links explicit command delegation, closed-loop communication and shared mental models to faster task completion and fewer omissions.5 6 Followership studies further demonstrate that when junior team members grasp the leader’s intent, task compliance improves and individual cognitive load decreases.7 Cross-industry data from commercial aviation and from health-system responses to disasters show that these behaviors can be rehearsed, quantified and reinforced through simulation, structured debriefing and crew-resource management (CRM) training. Without intentional leadership training and measurement, technical excellence alone cannot guarantee timely, reliable care; latent system threats and miscommunication will continue to erode performance and patient outcomes. We present a competency-based framework for surgeon leadership in trauma resuscitation, aligning each competency with evidence-based educational interventions and outlining research priorities that will enable trauma systems to treat trauma leadership as a measurable clinical skill.

Approach

A comprehensive literature search was performed in PubMed and Ovid MEDLINE from database inception to 1 February 2025. Search strings combined Medical Subject Headings (MeSH) terms and free-text keywords for three concept blocks: (1) trauma resuscitation (‘trauma bay’, ‘damage control’, ‘ATLS’), (2) leadership and NTS (‘team leadership’, ‘command’, ‘closed-loop communication’, ‘situational awareness’, ‘followership’) and (3) education modalities (‘simulation’, ‘in-situ drill’, ‘video review’, ‘crew resource management’, ‘cognitive load’). Boolean operators linked the blocks, and truncation was applied to capture variant spellings. Bibliographies of sentinel articles were hand searched for additional citations, and relevant conference abstracts were scanned to minimize publication bias. Eligible sources included English-language prospective or retrospective studies, simulation reports, scoping or narrative reviews and expert opinion pieces that examined surgeon or physician leadership behaviors in adult trauma care. Because the goal was thematic synthesis rather than quantitative pooling, methodological quality was appraised using the six-item Scale for the Quality Assessment of Narrative Review Articles (see online supplemental SANRA) to ensure transparency and rigor in study selection and interpretation.7

The literature search identified 214 unique articles. After screening, 71 articles were retained and categorized as follows: 18 on explicit role assignment and closed-loop communication, 14 on time-bound decision-making, 12 on situational awareness under cognitive load, 15 on adaptive leadership style and 12 on psychological safety/team voice. Categorization was achieved through dual independent review, with consensus adjudication. The derivation of the five competencies was based on convergent evidence across categories, triangulated with frameworks from high-reliability organizations and acute care team literature.

Five core competencies for trauma leadership

Explicit role assignment with closed-loop communication

Prompt role designation of an airway manager, proceduralist, medication nurse and recorder prevents redundant actions, anchors accountability and clarifies authority gradients. Meta-analytic review of trauma video review studies documents that teams announcing core roles within the first 60 s reduce time to complete the primary survey by a pooled mean of 36%, a benefit sustained across trauma centers despite divergent volumes and staffing models.8 Closed-loop communication comprising directive, acknowledgment and task-completion confirmation lowers omission rates in medication and procedure orders by half when drilled to proficiency in high-fidelity simulated hemorrhage scenarios.9 Implementation science work further indicates that embedding scripted role cards and closed loop phrasing into activation checklists significantly increases proactive safety-oriented error-trapping actions (from 48.7% to 70.8%) over 6 months, suggesting durable heightened situational vigilance10(figure 1, table 1).

Figure 1. Trauma bay leadership competencies. MTP, massive transfusion protocol; SBP, systolic blood pressure.

Figure 1

Table 1. Embedding the five leadership competencies in trauma resuscitation.

Leadership theory anchoring the competency Key features of the competency Typical application during trauma resuscitation Principal advantages Main challenges or failure points
Crisis-communication theory (explicit role assignment+closed loop communication) Leader names airway, procedure, documentation, and runner roles within first minute. Orders follow ‘call-back/completion’ loop First contact—preprimary survey; activation of massive transfusion or REBOA; handover to CT or OR Reduces task duplication and omissions; clarifies accountability; accelerates primary/secondary survey completion Requires rehearsal; may be resisted by unfamiliar personnel; relies on audible environment
Cognitive-resource and dual-process models (decisive, time-bound decision-making) Working diagnosis stated aloud. Explicit time targets (‘CT within 10 min’). Preplanned escalation triggers Persisting hypotension after two units of blood; decision to proceed directly to OR vs CT; activation of damage-control surgery Minimizes diagnostic delay; aligns team tempo; streamlines resource mobilization Risk of premature closure; over-reliance on heuristics; needs periodic restatement when targets are missed
Situational awareness/collaborative cognitive-load theory (situational awareness under variable load) Shared mental model broadcast by leader summaries. Discrete monitoring tasks assigned (‘you track labs’). Use of cognitive aids (whiteboard, checklist) High-noise, high-turnover trauma bay with multiple consultants; simultaneous ultrasound, radiography, and medication preparation Prevents information overload; supports early trend detection; sustains vigilance during hand-offs Team unfamiliarity hampers transactive memory; cognitive aids underused when space constrained
Adaptive/situational-leadership frameworks (adaptive leadership style) Fluid shifts between directive and participatory stance as acuity changes. Microsignals: vocal tone, eye contact, inclusive language Airway crisis (directive) followed by imaging review (participatory); coordinating parallel procedural lines Maintains psychological safety while preserving decisiveness; enhances engagement of expert consultants Requires self-awareness and coaching; difficult to assess in real time; style rigidity under stress
Psychological-safety and voice-behavior theory (psychological safety and team voice) Leader explicitly invites questions (‘challenge if you disagree’)
Uses graded-assertiveness scripts during simulation training
Responds non-punitively to dissent
Querying an unexpected ultrasound finding; junior nurse raising concern about drug dose; anesthesiologist questioning transfer readiness Earlier detection of occult injury; faster escalation of deterioration; fosters continuous learning climate High power-distance cultures suppress voice; charismatic behaviors insufficient without explicit invitation; must be modeled consistently

OR, Operating Room; REBOA, Resuscitative Balloon Occlusion of the Aorta.

Time-bound decision-making

Hemorrhage remains the leading preventable cause of early death after injury. Time-to-hemorrhage-control studies consistently correlate each 10-min delay from arrival to operative intervention with a 1.8-point increase in the multiple-organ-dysfunction score and a 3% rise in early mortality.11 Dual-process cognitive theory explains why leaders default to fast, pattern-recognition heuristics (system 1) rather than prolonged analytic reasoning (system 2) when under time pressure.12 Effective trauma leaders flexibly balance these modes, applying intuitive decision rules under time pressure while recognizing when more deliberate analysis is required. Conflict-monitoring experiments confirm that effective leaders suppress premature closure by tagging time thresholds to critical tasks (eg: ‘There appears to be ongoing bleeding. If systolic blood pressure is not above 90 mm Hg in 5 min, we will escalate to massive transfusion’).13 Such time-based decisional triggers have also been shown to improve resource allocation during mass-casualty surges.14 Leaders should therefore declare a working diagnosis, set explicit temporal checkpoints and publicly invite re-evaluation when targets are missed, thus creating a shared tempo for the team.

Situational awareness under variable cognitive load

Situational awareness, defined as the continuous perception, interpretation and anticipation of patient and environmental cues, deteriorates when working memory is saturated by monitor alarms, ultrasound images, consultants, distressed relatives and overlapping verbal orders. A linear inverse relationship exists between working-memory load and vigilance in monitoring complex patient data streams; observers miss 23% more vital-sign trend deviations when auditory and visual distractors saturate cognitive capacity.15 16 Distributing information across team members who share an explicit mental model restores capacity by creating a larger collective working memory. When the leader activates this mechanism by assigning discrete monitoring tasks, requiring brief status reports and using cognitive aids such as whiteboards or digital dashboards that externalize data and free mental bandwidth, teams can detect simulated hypoxia 28% faster than controls.17 Transactive memory systems, in which each clinician knows who holds specific knowledge or resources, further enhance vigilance; teams with high transactive memory identify occult bleeding earlier, anticipate equipment needs and reconfigure roles without prompting.18 Vigilance, therefore, depends not only on individual attention but also on structured information sharing that converts cognitive overload into coordinated situational awareness. Instruction should incorporate deliberate practice in attention-switching and workload management, with validated tools such as NTS for Surgeons (NOTSS) providing structured feedback on situational awareness.

Adaptive leadership style

Well-described leadership styles include servant, transactional, authoritative, charismatic, transformational and entrepreneurial; some may be more successful within a specific setting versus another (table 2; figure 2). Focusing solely on the trauma bay, it is relevant that parallel resuscitation in resource-rich centers requires leaders to adjust their approach as patient physiology and team dynamics evolve. Moreover, the ability to move from one style to another in a fluid fashion underpins leadership success in settings such as the trauma bay. For example, when a patient with an airway injury and massive bleeding arrives, a directive stance that assigns tasks without debate accelerates hemorrhage control and airway security. Minutes later, during synthesis of clinical, radiologic and laboratory data, the same leader benefits from a participatory approach that invites input from radiology, anesthesia and nursing to synthesize a unified plan. Ethnographic observation in a hybrid cardiac operating room showed that leaders who alternated smoothly between these modes preserved psychological safety, heightened task engagement and avoided delays linked to overcommanding or underdirecting the team.19 Team-science video microanalysis highlights specific behavioral signals that mark the transition: leaders lower vocal volume, soften hand gestures and use inclusive language when soliciting input, then return to clear, louder commands when decisive action is required.20 21 Adaptive-leadership frameworks from organizational psychology describe similar agility as essential when task urgency and follower expertise fluctuate. Simulation studies demonstrate that teaching these micro-transitions through deliberate practice and structured debriefing improves trainee confidence and team-climate ratings, supporting the view that style flexibility is a trainable non-technical skill rather than an innate trait. Educational strategies include facilitated reflection on leadership style during video review, coupled with targeted NOTSS feedback and faculty coaching.22 These interventions allow learners to practice and refine style adaptation across scenarios.

Table 2. Leadership style definitions.

Leadership style Core characteristics Advantages/strengths Potential pitfalls Relevance to clinical emergencies
Charismatic Relies on personal charm and credibility. Inspires optimism. Unites followers via shared vision, cultural alignment. Strong motivational force. Facilitates rapid buy-in and cohesive action. Cultivates shared sense of mission and energy. Risk of over-reliance on leader’s persona. Can lead to dependency rather than team autonomy. May overlook systematic processes. Useful for rallying teams in high-stakes situations. Helps create unity of purpose under acute stress. Often well-suited to unpredictable, urgent contexts.
Entrepreneurial Champions innovation and creativity. Emphasizes risk-taking and flexible thinking and new solutions. Fosters an adaptable culture. Encourages rapid prototyping of ideas. Leverages opportunity in crisis to implement novel approaches. Can lead to scattered focus if not channeled. May neglect established protocols. Requires tolerance of uncertainty. Helpful when quick, creative problem-solving is needed. Must be balanced with adherence to critical safety standards.
Servant Prioritizes the needs and development of team members. Values empathy and active listening. Strives to empower and support others. High team morale and psychological safety. Strong support for professional growth. Encourages high staff retention. Slow decision-making in fast-moving crises. Risk of leader becoming over-accommodating. May lack clear command direction in acute scenarios. Can strengthen team cohesion over time. May be less efficient in split-second emergencies unless combined with authoritative clarity.
Transactional Utilizes rewards or incentives for performance. Focuses on goal achievement and adherence to processes. Maintains clear, hierarchical structure. Clear expectations and measurable outcomes. Effective in stable, predictable settings. Offers straightforward accountability. Limited in dynamic or ambiguous scenarios. May discourage innovation if it falls outside established directives. Can reduce intrinsic motivation. More effective in routine or standardized procedures. May not adapt quickly to rapid changes or complexities in emergency situations.
Transformational Emphasizes vision, values and collective purpose. Uses idealized influence, inspirational motivation, intellectual stimulation and individualized consideration. Strongly promotes team development and cohesion. Encourages high morale, creativity and commitment. Drives alignment with overarching ethical and organizational goals. Implementation requires significant time and trust-building. Overemphasis on vision can overshadow immediate tactics. Potential for burnout if leaders push teams too far. Beneficial for long-term team growth and motivation. May require supplementation with more direct, rapid-decision approaches during emergencies.
Authoritarian Leader dominates decision-making and directs orders without seeking much input. Maintains strict hierarchies; expects immediate compliance. Can yield fast, clear decisions in moments when immediate action is critical. Reduces ambiguity if the team is prepared to follow orders. Risks stifling communication; team may fear speaking up about urgent concerns. Can erode trust and morale if overused or misaligned with follower expectations. Where there is an immediate threat to life, a swift, authoritarian directive may save time. Over-reliance can hinder adaptability and psychological safety needed for nuanced problem-solving.

Figure 2. Leadership style characteristics, parsed across care spaces and care acuity scenarios. ICU, Intensive Care Unit; OR, operating room.

Figure 2

Psychological safety and team voice

Psychological safety refers to the shared belief that individuals can speak up without fear of embarrassment or retribution, a climate that encourages proactive risk identification and rapid error correction. Multi-institutional surveys indicate that units scoring in the top quartile for psychological safety experience a 25% reduction in unplanned intensive care unit (ICU) transfer after emergency laparotomy, implicating open communication in early deterioration recognition.10 Charismatic signals such as steady tone, open posture and concise affirmations can seed this environment by fostering trust and cohesion.23 Followership studies show, however, that the willingness to question authority varies with professional norms and hierarchical expectations, indicating that leaders must explicitly invite dissent to unlock the full effect of psychological safety.24 Cultural analyses further reveal that high power-distance settings require repeated modeling of respectful challenge before junior clinicians feel comfortable raising concerns, underscoring the need for context-specific training that pairs graded-assertiveness scripts with non-punitive debrief.25

Educational interventions to build competency

Beyond awareness, structured debriefing, graded responsibility and longitudinal coaching are required to consolidate this competency. Iterative cycles of simulation and real-world video review create feedback loops that support skill acquisition beyond exposure. We propose a multimodal pathway in which each competency is supported by three aligned modalities: (1) high-fidelity simulation to create exposure and practice opportunities; (2) structured video review to provide objective feedback and (3) longitudinal coaching, using NOTSS and entrustable professional activity frameworks, to support sustained progression. Evaluation will include both formative metrics (behavioral checklists, NOTSS scores) and summative outcomes (entrustment decisions, performance during live resuscitations).22

High-fidelity rapid-cycle simulation is an instructional cornerstone for trauma-leadership development. Classic Rapid Cycle Deliberate Practice alternates brief (3 min to 5 min) scenarios with focused ‘pause–reflect–replay’ segments that immediately correct errors in role assignment, closed-loop phrasing or time-bound decision triggers.26 Learner feedback and independent qualitative analyses confirm that the rapid cycle format sustains psychological engagement, reduces cognitive overload and promotes deliberate practice that transfers to live resuscitations.27 Ecological validity, the generalizability of experimental findings to real-world situations or settings, is improved when the simulator is placed on the actual trauma stretcher, the trauma pager is activated and radiology and blood bank are drawn into the drill. Monthly in situ exercises uncovered latent equipment malfunctions, improved TeamSTEPPS climate scores, and heightened self-reported readiness in a prospective cohort study; companion interviews showed that staff valued the realism and the immediate chance to rehearse graded-assertiveness scripts.28

Structured video review supplies objective granularity. Centers that mandate overhead-camera recording followed by a 48-hour after-action debrief demonstrate shortened task-completion intervals, fewer duplicated commands and more timely activation of damage-control pathways.29 Provider-movement heat-mapping links inefficient travel paths to procedural delay, while scoping reviews highlight expanded uses for credentialing and root-cause analysis.8 30 Many programs base their process on the US Army after-action template, which structures the review around what was planned, what happened and how to improve.31

CRM workshops complement simulation and video review. Aviation-derived curricula emphasize mutual performance monitoring, explicit brief-back, and error trapping; interactive modules teach leaders to recognize task-saturation cues and to redistribute workload.32 A Dutch tertiary hospital that mandated twice-yearly CRM reported durable gains in safety climate and a 12% reduction in door-to-CT times for hypotensive trauma patients.33 Similar benefits have been reproduced in cardiac-arrest debriefing studies, suggesting transferability across high-stakes domains.34

Longitudinal coaching solidifies gains and individualizes feedback. Senior faculty or trained peers observe live resuscitations using the NOTSS checklist, then deliver structured feedback within 24 hours. A 4-month program elevated median NOTSS leadership scores from 10 to 15 (maximal score=16).35 Survey data from the Eastern Association for the Surgery of Trauma mentoring initiative reveal persistent gaps in formal leadership coaching, underscoring the need for deliberate frameworks that extend beyond isolated courses.36

Curriculum standardization is overdue. Trauma leadership competencies should appear in residency milestones, board examinations and maintenance-of-certification activities. Medical professional society mentorship programs offer one avenue.36 Military–civilian partnerships provide fertile ground for rapid curriculum refinement and dissemination.37 38 Prospective multicenter trials that link specific leadership interventions to hard clinical endpoints are now essential to confirm the generalizability of these educational strategies. Such inquiries and curricula development may occur within the structure of entities similar to the Mission Critical Team Institute (www.missioncti.com) that supports collaborative investigation using applied research models to discover novel approaches to key problems for mission critical teams and then develop iteratively enhanced curricula to teach adaptive strategies.

Limitations

This narrative synthesis risks selection bias by limiting inclusion to English-language literature and by prioritizing studies considered educationally relevant. Many data derive from resource-replete single-center simulations or retrospective video analyses and may not capture variability across resource settings. Observational associations remain susceptible to unmeasured confounding. Proficiency thresholds for NOTSS or physiologic load indices are not yet standardized, limiting definitive credentialing guidance.

Conclusion

Leadership in trauma resuscitation is a modifiable determinant of team efficiency and patient outcome. Five interrelated competencies provide a reproducible behavioral scaffold. A multimodal educational strategy that combines simulation, in situ drills, structured video review, CRM training, longitudinal coaching, and physiologic feedback offers a pragmatic route to mastery. The practical implication is clear: intentional leadership training, measurement and feedback will close the gap between attaining technical capability and leading timely, reliable patient care, thereby improving survival of the severely injured.

Supplementary material

online supplemental file 1
tsaco-10-4-s001.docx (18.3KB, docx)
DOI: 10.1136/tsaco-2025-001975

The views and opinions advanced in this manuscript are those of the authors (JY, LJK) and do not represent the positions or official policies of the US Navy, the Department of Defense, the Veterans Health Administration, or the US Federal Government. I am one author signing on behalf of all co-owners of the Contribution, and I am not a US Federal Government employee, but some or all of my co-authors are.

Footnotes

Funding: The authors have not declared a specific grant for this research from any funding agency in the public, commercial or not-for-profit sectors.

Provenance and peer review: Not commissioned; externally peer-reviewed.

Patient consent for publication: Not applicable.

Ethics approval: Not applicable.

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Supplementary Materials

online supplemental file 1
tsaco-10-4-s001.docx (18.3KB, docx)
DOI: 10.1136/tsaco-2025-001975

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