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Hospital Acute Care Surge Capacity (HACSC), Hospital Acute Care Surge Threshold (HACST), and Total Hospital Capacity (THC) are scales that were developed to quantify surge capacity in the event of a multiple-casualty incident (MCI). These scales take into consideration the need for adequate care for both critical (T1) and moderate (T2) trauma patients. The objective of this study was to verify the validity of these scales in nine hospitals of the Milano (Italy) metropolitan area that prepared for a possible MCI during EXPO 2015.
Methods
Both HACSC and HACST were computed for individual hospitals. These were compared to surge capacities declared by individual hospitals during EXPO 2015, and also to surge capacity evaluated during a simulation organized on August 23, 2016.
Results
Both HACSC and HACST were smaller compared to capacities measured and reported by the hospitals, as well as those found during the simulation. This resulted in significant differences in THC when this was computed from the different methods of calculation.
Conclusions:
Surge capacity is dependent on the method of measurement. Each method has its inherent deficiencies. Until more reliable methodologies are developed, there is a benefit to analyze surge capacity using several methods rather than just one. Emergency committee members should be aware of the importance of critical resources when looking to the hospital capacity to respond to an MCI, and to the possibility to effectively increase it with a good preparedness plan. Since hospital capacity during real events is not static but dynamic, largely depending on occupation of the available resources, it is important that the regional command center and the hospitals receiving casualties constantly communicate on specific agreed upon critical resources, in order for the regional command center to timely evaluate the overall regional capacity and guarantee the appropriate distribution of the patients.
FaccincaniR, Della CorteF, SesanaG, StucchiR, WeinsteinE, AshkenaziI, IngrassiaP. Hospital Surge Capacity during Expo 2015 in Milano, Italy. Prehosp Disaster Med. 2018;33(5):459–465.
Trauma patients in the extremes of age may require a specialized approach during a multiple-casualty incident (MCI).
Problem
The aim of this study was to examine the type of injuries encountered in children and elderly patients and the implications of these injuries for treatment and organization.
Methods
A review of medical record files of patients admitted in MCIs in one Level II trauma center was conducted. Patients were classified according to age: children (≤12 years), adults (between 12-65 years), and elders (≥65 years).
Results
The files of 534 were screened: 31 (5.8%) children and 54 (10.1%) elderly patients. One-third of the elderly patients were either moderately or severely injured, compared to only 6.5% of the children and 11.1% of the adults (P<.001). Elderly patients required more blood transfusions (P=.0001), more computed tomography imaging (P=.0001), and underwent more surgery (P=.0004). Elders were hospitalized longer (P=.0003). There was no mortality among injured children, compared to nine (2.0%) of the adults and seven (13.0%) of the elderly patients (P<.0001). All the adult deaths occurred early and directly related to their injuries, whereas most of the deaths among the elderly patients (four out of seven) occurred late and were due to complications and multiple organ failure.
Conclusions
Injury at an older age confers an increased risk of complications and death in victims of MCIs.
AshkenaziI, EinavS, OlshaO, Turegano-FuentesF, KrauszMM, AlficiR. The Impact of Age upon Contingency Planning for Multiple-casualty Incidents Based on a Single Center’s Experience. Prehosp Disaster Med. 2016;31(5):492–497.
British police officers authorized to carry firearms may need to make judgments about the severity of injury of individuals or the relative priority of clinical need of a group of injured patients in tactical and non-tactical situations. Most of these officers receive little or no medical training beyond basic first aid to enable them to make these clinical decisions. Therefore, the aim of this study is to determine the accuracy of triage decision-making of firearms-trained police officers with and without printed decision-support materials.
Methods:
Eighty-two police firearms officers attending a tactical medicine course (FASTAid) were recruited to the study. Data were collected using a paper-based triage exercise that contained brief, clinical details of 20 adults and 10 children. Subjects were asked to assign a clinical priority of immediate or priority 1 (P1); urgent or priority 2 (P2); delayed or priority 3 (P3); or dead, to each casualty. Then, they were provided with decision-making materials, but were not given any instruction as to how these materials should be used. Subjects then completed a second triage exercise, identical to the first, except this time using the decision-support materials.
Data were analyzed using mixed between-within subjects analysis of variance. This allowed comparisons to be made between the scores for Exercise 1 (no decision-support material) and Exercise 2 (with decision-support material). It also allowed any differences between those students with previous triage training and those without previous training to be explored.
Results:
The use of triage decision-making materials resulted in a significant increase in correct responses (p <0.001). Improvement in accuracy appears to result mainly from a reduction in the extent of under-triage. There were significant differences (p <0.05) between those who had received previous triage training and those who had not, with those having received triage training doing slightly better.
Conclusion:
It appears that significant improvements in the accuracy of triage decision-making by police firearms officers can be achieved with the use of appropriate triage decision-support materials. Training may offer additional improvements in accuracy, but this improvement is likely to be small when decision-support materials are provided. With basic clinical skills and appropriate decision-support materials, it is likely that the police officer can make accurate triage decisions in a multiple-casualty scenario or make judgments of the severity of injury of a given individual in both tactical and non-tactical situations.
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