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1.
Air Med J ; 40(6): 390-394, 2021.
Article in English | MEDLINE | ID: mdl-34794776

ABSTRACT

OBJECTIVE: Cardiogenic shock is a critical emergency for which ventricular support devices (VSDs), such as the Impella (AbioMed Inc, Danvers, MA), are placed. Many referring facilities cannot provide cardiac intensive care. This requires a regional approach to the care of patients with VSD. Critical care transport to the regional center is needed and requires specialty trained personnel. As the need for specialty trained personnel increases, appropriate utilization of the personnel needs to be considered. This study illustrates the effective transport and successful management of Impella patients in the transport environment by a downsized specialty trained critical care team. METHODS: A retrospective chart review explored critical care transports of patients with Impella devices over a 73-month period. Our goal was to show that with training, protocols, and guidelines a downsized critical care team can effectively transport these high-risk, low-frequency patients. RESULTS: Forty-seven VSD transports occurred within 13,823 transports during the study period. Twenty-seven included an Impella device only. Thirteen were completed by a downsized team. One hundred percent of the transport resulted in the patient having perfusing rhythms and blood pressures at the receiving facility. CONCLUSION: VSDs can be successfully transported between hospitals with small specialty trained critical care transport teams using air or ground assets.


Subject(s)
Heart-Assist Devices , Critical Care , Humans , Retrospective Studies , Shock, Cardiogenic , Treatment Outcome
2.
Air Med J ; 40(1): 81-83, 2021.
Article in English | MEDLINE | ID: mdl-33455635

ABSTRACT

OBJECTIVE: Critical care transport involves a high level of intensive clinical care in a resource-limited environment. These patients require multiple assessments guiding specialty treatments, including blood product administration, intravenous electrolyte replacement, ventilator management, and extracorporeal membrane oxygenation. This study aims to measure the usage of point-of-care (POC) laboratory data during critical care transport. METHODS: Data were collected via electronic medical record review over 1 year of use in a hospital-based critical care rotor wing, fixed wing, and ground critical care transport team in the Southeastern United States. RESULTS: One hundred twenty POC tests were performed during 1,075 critical care transports over the 1-year period (8.9%). Patient transportations involved 35 extracorporeal membrane oxygenation, 21 medical, 17 cardiac, 13 neonatal, 11 respiratory failure, 8 gastrointestinal bleeding, 6 neurologic, 5 pediatrics, 3 trauma, and 1 organ donor. Seventy-eight POC laboratory tests (65%) required intervention, including ventilator changes (39.7%), electrolyte replacement (35.8%), blood products (7.6%), and other (12.8%). The remaining 42 (35%) POC laboratory tests confirmed no intervention was necessary (n = 35) and that ongoing treatments were effective (n = 7). CONCLUSION: POC laboratory testing performed during critical care transport guides providers in performing essential emergent interventions in a timelier manner that may benefit critically ill patients.


Subject(s)
Laboratories , Point-of-Care Systems , Child , Critical Care , Data Collection , Humans , Infant, Newborn , Transportation of Patients
3.
Semin Thorac Cardiovasc Surg ; 31(3): 327-334, 2019.
Article in English | MEDLINE | ID: mdl-30616006

ABSTRACT

Utilization of extracorporeal membrane oxygenation (ECMO) has increased dramatically over the last decade. Despite this trend, many medical centers have limited, if any, access to this technology or the resources necessary to manage these complex patients. In an effort to improve the current infrastructure of regional ECMO care, ECMO centers of excellence have an obligation to partner with facilities within their communities and regions to increase access to this potentially life-saving technology. While the need for this infrastructure is widely acknowledged in the ECMO community, few reports describe the actual mechanisms by which a successful interfacility transport program can operate. As such, the purpose of this document is to describe the elements of and methods for providing safe and efficient mobile ECMO services from the perspective of an experienced, high-volume tertiary ECMO center of excellence in the Southeastern United States.


Subject(s)
Delivery of Health Care, Integrated/organization & administration , Extracorporeal Membrane Oxygenation , Patient Transfer/organization & administration , Referral and Consultation/organization & administration , Regional Health Planning/organization & administration , Respiratory Insufficiency/therapy , Shock, Cardiogenic/therapy , Clinical Decision-Making , Extracorporeal Membrane Oxygenation/adverse effects , Extracorporeal Membrane Oxygenation/mortality , Humans , Patient Care Team/organization & administration , Patient Selection , Respiratory Insufficiency/diagnosis , Respiratory Insufficiency/mortality , Respiratory Insufficiency/physiopathology , Shock, Cardiogenic/diagnosis , Shock, Cardiogenic/mortality , Shock, Cardiogenic/physiopathology , Treatment Outcome , Triage
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