Self-care Decontamination within a Chemical Exposure Mass-casualty Incident

2015 ◽  
Vol 30 (3) ◽  
pp. 288-296 ◽  
Author(s):  
Raymond G. Monteith ◽  
Laurie D. R. Pearce

AbstractGrowing awareness and concern for the increasing frequency of incidents involving hazardous materials (HazMat) across a broad spectrum of contaminants from chemical, biological, radiological, and nuclear (CBRN) sources indicates a clear need to refine the capability to respond successfully to mass-casualty contamination incidents. Best results for decontamination from a chemical agent will be achieved if done within minutes following exposure, and delays in decontamination will increase the length of time a casualty is in contact with the contaminate. The findings presented in this report indicate that casualties involved in a HazMat/CBRN mass-casualty incident (MCI) in a typical community would not receive sufficient on-scene care because of operational delays that are integral to a standard HazMat/CBRN first response. This delay in response will mean that casualty care will shift away from the incident scene into already over-tasked health care facilities as casualties seek aid on their own. The self-care decontamination protocols recommended here present a viable option to ensure decontamination is completed in the field, at the incident scene, and that casualties are cared for more quickly and less traumatically than they would be otherwise. Introducing self-care decontamination procedures as a standard first response within the response community will improve the level of care significantly and provide essential, self-care decontamination to casualties. The process involves three distinct stages which should not be delayed; these are summarized by the acronym MADE: Move/Assist, Disrobe/Decontaminate, Evaluate/Evacuate.MonteithRG, PearceLDR. Self-care decontamination within a chemical exposure mass-casualty incident. Prehosp Disaster Med. 2015;30(3):1–9.

2009 ◽  
Vol 3 (S1) ◽  
pp. S59-S67 ◽  
Author(s):  
John L. Hick ◽  
Joseph A. Barbera ◽  
Gabor D. Kelen

ABSTRACTHealth care facility surge capacity has received significant planning attention recently, but there is no commonly accepted framework for detailed, phased surge capacity categorization and implementation. This article proposes a taxonomy within surge capacity of conventional capacity (implemented in major mass casualty incidents and representing care as usually provided at the institution), contingency capacity (using adaptations to medical care spaces, staffing constraints, and supply shortages without significant impact on delivered medical care), and crisis capacity (implemented in catastrophic situations with a significant impact on standard of care). Suggested measurements used to gauge a quantifiable component of surge capacity and adaptive strategies for staff and supply challenges are proposed. The use of refined definitions of surge capacity as it relates to space, staffing, and supply concerns during a mass casualty incident may aid phased implementation of surge capacity plans at health care facilities and enhance the consistency of terminology and data collection between facilities and regions. (Disaster Med Public Health Preparedness. 2009;3(Suppl 1):S59–S67)


2014 ◽  
Vol 29 (5) ◽  
pp. 538-541 ◽  
Author(s):  
Benjamin W. Wachira ◽  
Ramadhani O. Abdalla ◽  
Lee A. Wallis

AbstractAt approximately 12:30 pm on Saturday September 21, 2013, armed assailants attacked the upscale Westgate shopping mall in the Westlands area of Nairobi, Kenya. Using the seven key Major Incident Medical Management and Support (MIMMS) principles, command, safety, communication, assessment, triage, treatment, and transport, the Aga Khan University Hospital, Nairobi (AKUH,N) emergency department (ED) successfully coordinated the reception and care of all the casualties brought to the hospital.This report describes the AKUH,N ED response to the first civilian mass-casualty shooting incident in Kenya, with the hope of informing the development and implementation of mass-casualty emergency preparedness plans by other EDs and hospitals in Kenya, appropriate for the local health care system.WachiraBW, AbdallaRO, WallisLA. Westgate shootings: an emergency department approach to a mass-casualty incident. Prehosp Disaster Med. 2014;29(5):1-4.


2015 ◽  
Vol 30 (5) ◽  
pp. 457-460 ◽  
Author(s):  
Ilene Claudius ◽  
Amy H. Kaji ◽  
Genevieve Santillanes ◽  
Mark X. Cicero ◽  
J. Joelle Donofrio ◽  
...  

AbstractIntroductionUsing the pediatric version of the Simple Triage and Rapid Treatment (JumpSTART) algorithm for the triage of pediatric patients in a mass-casualty incident (MCI) requires assessing the results of each step and determining whether to move to the next appropriate action. Inappropriate application can lead to performance of unnecessary actions or failure to perform necessary actions.Hypothesis/ProblemTo report overall accuracy and time required for triage, and to assess if the performance of unnecessary steps, or failure to perform required steps, in the triage algorithm was associated with inaccuracy of triage designation or increased time to reach a triage decision.MethodsMedical students participated in an MCI drill in which they triaged both live actors portraying patients and computer-based simulated patients to the four triage levels: minor, delayed, immediate, and expectant. Their performance was timed and compared to intended triage designations and a priori determined critical actions.ResultsThirty-three students completed 363 scenarios. The overall accuracy was 85.7% and overall mean time to assign a triage designation was 70.4 seconds, with decreasing times as triage acuity level decreased. In over one-half of cases, the student omitted at least one action and/or performed at least one action that was not required. Each unnecessary action increased time to triage by a mean of 8.4 seconds and each omitted action increased time to triage by a mean of 5.5 seconds.DiscussionIncreasing triage level, performance of inappropriate actions, and omission of recommended actions were all associated with increasing time to perform triage.ClaudiusI, KajiAH, SantillanesG, CiceroMX, DonofrioJJ, Gausche-HillM, SrinivasanS, ChangTP. Accuracy, efficiency, and inappropriate actions using JumpSTART triage in MCI simulations. Prehosp Disaster Med. 2015;30(5):457–460.


2016 ◽  
Vol 31 (2) ◽  
pp. 150-154 ◽  
Author(s):  
Christopher W.C. Lee ◽  
Shelley L. McLeod ◽  
Kristine Van Aarsen ◽  
Michelle Klingel ◽  
Jeffrey M. Franc ◽  
...  

AbstractIntroductionDuring mass-casualty incidents (MCIs), patient volume often overwhelms available Emergency Medical Services (EMS) personnel. First responders are expected to triage, treat, and transport patients in a timely fashion. If other responders could triage accurately, prehospital EMS resources could be focused more directly on patients that require immediate medical attention and transport.HypothesisTriage accuracy, error patterns, and time to triage completion are similar between second-year primary care paramedic (PCP) and fire science (FS) students participating in a simulated MCI using the Sort, Assess, Life-saving interventions, Treatment/Transport (SALT) triage algorithm.MethodsAll students in the second-year PCP program and FS program at two separate community colleges were invited to participate in this study. Immediately following a 30-minute didactic session on SALT, participants were given a standardized briefing and asked to triage an eight-victim, mock MCI using SALT. The scenario consisted of a four-car motor vehicle collision with each victim portrayed by volunteer actors given appropriate moulage and symptom coaching for their pattern of injury. The total number and acuity of victims were unknown to participants prior to arrival to the mock scenario.ResultsThirty-eight PCP and 29 FS students completed the simulation. Overall triage accuracy was 79.9% for PCP and 72.0% for FS (∆ 7.9%; 95% CI, 1.2-14.7) students. No significant difference was found between the groups regarding types of triage errors. Over-triage, under-triage, and critical errors occurred in 10.2%, 7.6%, and 2.3% of PCP triage assignments, respectively. Fire science students had a similar pattern with 15.2% over-triaged, 8.7% under-triaged, and 4.3% critical errors. The median [IQR] time to triage completion for PCPs and FSs were 142.1 [52.6] seconds and 159.0 [40.5] seconds, respectively (P=.19; Mann-Whitney Test).ConclusionsPrimary care paramedics performed MCI triage more accurately than FS students after brief SALT training, but no difference was found regarding types of error or time to triage completion. The clinical importance of this difference in triage accuracy likely is minimal, suggesting that fire services personnel could be considered for MCI triage depending on the availability of prehospital medical resources and appropriate training.LeeCWC, McLeodSL, Van AarsenK, KlingelM, FrancJM, PeddleMB. First responder accuracy using SALT during mass-casualty incident simulation. Prehosp Disaster Med. 2016;31(2):150–154.


2018 ◽  
Vol 33 (2) ◽  
pp. 147-152 ◽  
Author(s):  
Chiaki Toida ◽  
Takashi Muguruma ◽  
Takeru Abe ◽  
Mafumi Shinohara ◽  
Masayasu Gakumazawa ◽  
...  

AbstractBackgroundTriage has an important role in providing suitable care to the largest number of casualties in a disaster setting, but there are no secondary triage methods suitable for children. This study developed a new secondary triage method named the Pediatric Physiological and Anatomical Triage Score (PPATS) and compared its accuracy with current triage methods.MethodsA retrospective chart review of pediatric patients under 16 years old transferred to an emergency center from 2014 to 2016 was performed. The PPATS categorized the patients, defined the intensive care unit (ICU)-indicated patients if the category was highest, and compared the accuracy of prediction of ICU-indicated patients among PPATS, Physiological and Anatomical Triage (PAT), and Triage Revised Trauma Score (TRTS).ResultsAmong 137 patients, 24 (17.5%) were admitted to ICU. The median PPATS score of these patients was significantly higher than that of patients not admitted to ICU (11 [IQR: 9-13] versus three [IQR: 2-4]; P<.001). The optimal cut-off value of the PPTAS was six, yielding a sensitivity, specificity, positive predictive value (PPV), and negative predictive value (NPV) of 95.8%, 86.7%, 60.5%, and 99.0%. The area under the receiver-operating characteristic curve (AUC) was larger for PPTAS than for PAT or TRTS (0.95 [95% CI, 0.87-1.00] versus 0.65 [95% CI, 0.58-0.72]; P<.001 and 0.79 [95% CI, 0.69-0.89]; P=.003, respectively). Regression analysis showed a significant association between the PPATS and the predicted mortality rate (r2=0.139; P<.001), ventilation time (r2=0.320; P<.001), ICU stay (r2=0.362; P<.001), and hospital stay (r2=0.308; P<.001).ConclusionsThe accuracy of PPATS was superior to other methods for secondary triage of children.ToidaC, MugurumaT, AbeT, ShinoharaM, GakumazawaM, YogoN, ShirasawaA, MorimuraN. Introduction of pediatric physiological and anatomical triage score in mass-casualty incident. Prehosp Disaster Med. 2018;33(2):147–152.


2013 ◽  
Vol 29 (1) ◽  
pp. 91-95 ◽  
Author(s):  
Bruria Adini ◽  
Robert Cohen ◽  
Elon Glassberg ◽  
Bella Azaria ◽  
Daniel Simon ◽  
...  

AbstractObjectivesInappropriate distribution of casualties in mass-casualty incidents (MCIs) may overwhelm hospitals. This study aimed to review the consequences of evacuating casualties from a bus accident to a single peripheral hospital and lessons learned regarding policy of casualty evacuation.MethodsMedical records of all casualties relating to evacuation times, injury severity, diagnoses, treatments, resources utilized and outcomes were independently reviewed by two senior trauma surgeons. In addition, four senior trauma surgeons reviewed impact of treatment provided on patient outcomes. They reviewed the times for the primary and secondary evacuation, injury severity, diagnoses, surgical treatments, resources utilized, and the final outcomes of the patients at the point of discharge from the tertiary care hospital.ResultsThirty-one survivors were transferred to the closest local hospital; four died en route to hospital or within 30 minutes of arrival. Twenty-seven casualties were evacuated by air from the local hospital within 2.5 to 6.15 hours to Level I and II hospitals. Undertriage of 15% and overtriage of seven percent were noted. Four casualties did not receive treatment that might have improved their condition at the local hospital.ConclusionsIn MCIs occurring in remote areas, policy makers should consider revising the current evacuation plan so that only immediate unstable casualties should be transferred to the closest primary hospital. On site Advanced Life Support (ALS) should be administered to non-severe casualties until they can be evacuated directly to tertiary care hospitals. First responders must be trained to provide ALS to non-severe casualties until evacuation resources are available.AdiniB, CohenR, GlassbergE, AzariaB, SimonD, SteinM, KleinY, PelegK. Reconsidering policy of casualty evacuation in a remote mass-casualty incident. Prehosp Disaster Med. 2013;28(6):1-5.


2012 ◽  
Vol 27 (6) ◽  
pp. 531-535 ◽  
Author(s):  
Sheila A. Turris ◽  
Adam Lund

AbstractTriage is a complex process and is one means for determining which patients most need access to limited resources. Triage has been studied extensively, particularly in relation to triage in overcrowded emergency departments, where individuals presenting for treatment often are competing for the available stretchers. Research also has been done in relation to the use of prehospital and field triage during mass-casualty incidents and disasters.In contrast, scant research has been done to develop and test an effective triage approach for use in mass-gathering and mass-participation events, although there is a growing body of knowledge regarding the health needs of persons attending large events. Existing triage and acuity scoring systems are suboptimal for this unique population, as these events can involve high patient presentation rates (PPR) and, occasionally, critically ill patients. Mass-gathering events are dangerous; a higher incidence of injury occurs than would be expected from general population statistics.The need for an effective triage and acuity scoring system for use during mass gatherings is clear, as these events not only create multiple patient encounters, but also have the potential to become mass-casualty incidents. Furthermore, triage during a large-scale disaster or mass-casualty incident requires that multiple, local agencies work together, necessitating a common language for triage and acuity scoring.In reviewing existing literature with regard to triage systems that might be employed for this population, it is noted that existing systems are biased toward traumatic injuries, usually ignoring mitigating factors such as alcohol and drug use and environmental exposures. Moreover, there is a substantial amount of over-triage that occurs with existing prehospital triage systems, which may lead to misallocation of limited resources. This manuscript presents a review of the available literature and proposes a triage system for use during mass gatherings that also may be used in the setting of mass-casualty incidents or disaster responses.TurrisSA, LundA. Triage during mass gatherings. Prehosp Disaster Med. 2012;27(6):1-5.


2016 ◽  
Vol 31 (2) ◽  
pp. 163-168 ◽  
Author(s):  
Rebecca Forsberg ◽  
José Antonio Iglesias Vázquez

AbstractIntroductionThe worldwide use of rail transport has increased, and the train speeds are escalating. Concurrently, the number of train disasters has been amplified globally. Consequently, railway safety has become an important issue for the future. High-velocity crashes increase the risk for injuries and mortality; nevertheless, there are relatively few studies on high-speed train crashes and the influencing factors on travelers’ injuries occurring in the crash phase. The aim of this study was to investigate the fatal and non-fatal injuries and the main interacting factors that contributed to the injury process in the crash phase of the 2013 high-velocity train crash that occurred at Angrois, outside Santiago de Compostela, Spain.MethodsHospital records (n=157) of all the injured who were admitted to the six hospitals in the region were reviewed and compiled by descriptive statistics. The instant fatalities (n=63) were collected on site. Influencing crash factors were observed on the crash site, by carriage inspections, and by reviewing official reports concerning the approximated train speed.ResultsThe main interacting factors that contributed in the injury process in the crash phase were, among other things, the train speed, the design of the concrete structure of the curve, the robustness of the carriage exterior, and the interior environment of the carriages. Of the 222 people on board (218 passengers and four crew), 99% (n=220) were fatally or non-fatally injured in the crash. Thirty-three percent (n=72) suffered fatal injuries, of which 88% (n=63) died at the crash site and 13% (n=9) at the hospital. Twenty-one percent (n=32) of those admitted to hospital suffered multi-trauma (ie, extensive, severe, and/or critical injuries). The head, face, and neck sustained 42% (n=123) of the injuries followed by the trunk (chest, abdomen, and pelvis; n=92; 32%). Fractures were the most frequent (n=200; 69%) injury.ConclusionA mass-casualty incident with an extensive amount of fatal, severe, and critical injuries is most probable with a high-velocity train; this presents prehospital challenges. This finding draws attention to the importance of more robust carriage exteriors and injury minimizing designs of both railway carriages and the surrounding environment to reduce injuries and fatalities in future high-speed crashes.ForsbergR, VázquezJAI. A case study of the high-speed train crash outside Santiago de Compostela, Galicia, Spain. Prehosp Disaster Med. 2016;31(2);163–168.


2014 ◽  
Vol 30 (1) ◽  
pp. 93-96 ◽  
Author(s):  
Silvana T. Dal Ponte ◽  
Carlos F. D. Dornelles ◽  
Bonnie Arquilla ◽  
Christina Bloem ◽  
Patricia Roblin

AbstractOn January 27, 2013, a fire at the Kiss Nightclub in Santa Maria, Brazil led to a mass-casualty incident affecting hundreds of college students. A total of 234 people died on scene, 145 were hospitalized, and another 623 people received treatment throughout the first week following the incident.1 Eight of the hospitalized people later died.1 The Military Police were the first on scene, followed by the state fire department, and then the municipal Mobile Prehospital Assistance (SAMU) ambulances. The number of victims was not communicated clearly to the various units arriving on scene, leading to insufficient rescue personnel and equipment. Incident command was established on scene, but the rescuers and police were still unable to control the chaos of multiple bystanders attempting to assist in the rescue efforts. The Municipal Sports Center (CDM) was designated as the location for dead bodies, where victim identification and communication with families occurred, as well as forensic evaluation, which determined the primary cause of death to be asphyxia. A command center was established at the Hospital de Caridade Astrogildo de Azevedo (HCAA) in Santa Maria to direct where patients should be admitted, recruit staff, and procure additional supplies, as needed. The victims suffered primarily from smoke inhalation and many required endotracheal intubation and mechanical ventilation. There was a shortage of ventilators; therefore, some had to be borrowed from local hospitals, neighboring cities, and distant areas in the state. A total of 54 patients1 were transferred to hospitals in the capital city of Porto Alegre (Brazil). The main issues with the response to the fire were scene control and communication. Areas for improvement were identified, namely the establishment of a disaster-response plan, as well as regularly scheduled training in disaster preparedness/response. These activities are the first steps to improving mass-casualty responses.Dal PonteST, DornellesCFD, ArquillaB, BloemC, RoblinP. Mass-casualty response to the Kiss Nightclub in Santa Maria, Brazil. Prehosp Disaster Med. 2015;30(1):1-4.


2018 ◽  
Vol 13 (02) ◽  
pp. 287-294 ◽  
Author(s):  
Eli Yafe ◽  
Blake Byron Walker ◽  
Ofer Amram ◽  
Nadine Schuurman ◽  
Ellen Randall ◽  
...  

ABSTRACTObjectiveRapid response to a trauma incident is vital for saving lives. However, in a mass casualty incident (MCI), there may not be enough resources (first responders and equipment) to adequately triage, prepare, and evacuate every injured person. To address this deficit, a Volunteer First Responder (VFR) program was established.MethodsThis paper describes the organizational structure and roles of the VFR program, outlines the geographical distribution of volunteers, and evaluates response times to 3 MCIs for both ambulance services and VFRs in 2000 and 2016.ResultsWhen mapped, the spatial distribution of VFRs and ambulance stations closely and deliberately reflects the population distribution of Israel. We found that VFRs were consistently first to arrive at the scene of an MCI and greatly increased the number of personnel available to assist with MCI management in urban, suburban, and rural settings.ConclusionsThe VFR program provides an important and effective life-saving resource to supplement emergency first response. Given the known importance of rapid response to trauma, VFRs likely contribute to reduced trauma mortality, although further research is needed in order to examine this question specifically. (Disaster Med Public Health Preparedness. 2019;13:287–294)


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