Interfacility transportation

Chapter 3
Interfacility transportation


Jacob B. Keeperman


Introduction


Interfacility transport commonly refers to the transportation of a patient from one acute care setting to another. EMS personnel are frequently challenged with taking a patient to the “closest” versus the “most appropriate” receiving hospital and sometimes after initial work-up/treatment the patient needs to be transferred to another facility for further care. Additionally, patients may self-present to hospitals that are ill-equipped to provide necessary services and thus must be transferred. Reasons for transfer vary, but are often due to the need for specialized services based on a patient’s medical condition or mechanism of injury.


This chapter will address issues related to interfacility transports. Specifically, the focus will be on the level of care during transport, potential risks of interfacility transport, legal issues surrounding transport decisions, specific medical indications for transport to specialized facilities, and medical oversight for interfacility transport.


Level of care


The sending physician is responsible for choosing the appropriate transport personnel, vehicle, and equipment. The patient’s condition, actual needs, and potential needs for care are essential for the sending physician to consider. The transporting service and the receiving facility also have some responsibility to ensure the transport is carried out in the best interests of the patient. Level of care determination needs to take into account human resource needs, economic considerations, space limitations, and legal requirements [1,2].


When deciding on the level of care for the transport of a given patient, the sending physician must consider a number of things before making a final determination. He or she must think about what resources are available for the entire service area and the implications of using a resource that may be needed elsewhere. The availability of personnel and vehicles must play an important role in the decision-making process. The more advanced training and experience a transport team has, the more likely they are to be a limited resource, leading to prolonged response times to the sending facility. In a rural area, sending the town’s only ambulance on an interfacility transport that will take hours may result in a serious degradation of available EMS for that period of time. Weather delays can affect personnel and vehicle availability. In addition to taking into account the total transport time, it is important to consider the out-of-hospital time. For example, one might have a BLS ambulance immediately available that will take the patient to the desired receiving facility with a 1-hour transport time; however, a critical care air transport team may have a 45-minute delay in getting to the patient but be able to perform the transport in 20 minutes, resulting in an increase in total transport time by 5 minutes but a decrease in out-of-hospital time by 40 minutes. In certain situations the total transport time is the most important factor and in others limiting the out-of-hospital time can have the most profound effect on the patient.


Personnel


Composition of the team should be based on the patient’s needs. It can vary from non-medically trained transport personnel to specialty trained critical care transport teams. Whatever personnel are chosen should be able to handle all anticipated needs of the patient en route. They must possess the necessary critical thinking skills, procedural competence, and out-of-hospital care experience to effectively evaluate and care for the patient.


All personnel involved in the interfacility transportation of patients must be able to adapt to a variety of situations. They must be able to work as a team, improvise when needed, and perform with limited resources. Crew members who are not regularly involved in out-of-hospital care, such as emergency department and intensive care unit nurses, must get adequate orientation and training so they can be comfortable in the unique situations that EMS professionals face every day. While the scope of practice of EMS providers is discussed elsewhere in this text, the following briefly reviews these concepts as they uniquely relate to interfacility transport.


Non-medical


Non-medical personnel can range from relatives or friends of the patient to cab drivers to police officers. While this is relatively rare, there are circumstances in which the patient simply needs to go from one location to another and will have no anticipated medical needs while en route.


Basic Life Support


Emergency medical technicians can perform the majority of low-acuity interfacility transports as the patients are often stable and have few anticipated medical needs and only require basic routine monitoring.


Advanced Life Support


Paramedics conduct most interfacility transports, as they are able to perform routine and advanced monitoring, administer many medications, and intervene in emergency situations.


Critical care


Critical care teams are often made up of specially trained paramedics and nurses. They are able to provide advanced and invasive monitoring, administer an expanded list of medications and therapies, and have refined critical thinking skills.


Specialty care


Specialty care teams are often made up of critical care teams who have training specific to a group of patients, such as pediatric, neonatal, obstetric, burn, extracorporeal membrane oxygenation (ECMO), intraaortic balloon pump (IABP). These teams sometimes also include other health care professionals such as respiratory care therapists, physicians, and perfusionists.


Vehicle


Several types of vehicles can be used to transport patients between facilities. In choosing the most appropriate vehicle, one must consider speed, space availability, equipment needed, weather, distance, cost, and other factors [1,2].


Private vehicle


While private vehicles are rarely used for interfacility transports, they serve an important role in moving patients who are not expected to require any medical monitoring or interventions while en route from one facility to another.



  • Example: a pediatric patient with a fractured radius being transferred from a single-coverage community hospital ED to a children’s hospital ED for reduction and splinting under sedation. As long as his injured arm is neurovascularly intact, his parents can safely transport him in their private vehicle.
  • Advantages: not waiting on medical personnel, inexpensive, keeps the patient with his or her family/friends.
  • Disadvantages: no trained personnel or medical equipment are available if the patient experiences a decline in status.

Cab



  • Example: an adult patient who presents with metal shavings in her eye that could not be removed at the community hospital and needs to be transferred to a facility with an ophthalmologist available. The patient cannot drive her private vehicle because her vision is impaired, but can safely be transported by a cab as she is not expected to require any medical intervention or specialized equipment while en route.
  • Advantages: not waiting on medical personnel, inexpensive.
  • Disadvantages: no trained personnel or medical equipment are available if the patient experiences a decline in status.

Wheelchair/stretcher van



  • Example: a patient 1 week out from a stroke who is being transferred from the inpatient neurology service to an acute inpatient rehabilitation facility for intensive physical, occupational, and speech therapy. The patient is bed-bound so must travel on a stretcher, but is not expected to require any medical intervention or specialized monitoring while en route.
  • Advantages: not waiting on medical personnel, typically readily available, inexpensive.
  • Disadvantages: no trained personnel or medical equipment are available if the patient experiences a decline in status.

Ground ambulance



  • Example: a patient with a muffled voice presents to a community hospital and is found to have a peritonsillar abscess that needs to be drained by an otolaryngologist so she is transferred to the academic medical center 4 miles away. While the patient is not experiencing any airway compromise at this time, there is a fair chance her condition could change en route, so an Advanced Life Support crew that can manage potential airway emergencies must accompany her.
  • Advantages: there is a decent amount of space for the EMS professionals to care for the patient, typically more readily available than aircraft, less expensive than aircraft.
  • Disadvantages: travels at speeds much slower than aircraft, may take a limited resource from a rural community and prevent that resource from responding to 9-1-1 emergency calls.

Rotor-wing aircraft (helicopter)



  • Example: a patient who presents to a rural critical access hospital after a motor vehicle collision, requiring intubation on arrival for airway protection, and is found to have a traumatic subarachnoid hemorrhage so needs to be transferred to a trauma center for further evaluation and treatment. The patient is critically ill and the time to the trauma center needs to be as short as possible, while ensuring that the personnel transporting the patient are able to manage a ventilator, monitor for signs of increased intracranial pressure, and offer appropriate interventions.
  • Advantages: very fast travel speed, typically staffed with the most advanced personnel, typically equipped with specialized and advanced equipment.
  • Disadvantages: expensive, can be severely limited by weather, significant space limitations.

Fixed-wing aircraft (airplane)



  • Example: a 10-year-old boy with cystic fibrosis was on vacation with his family when he developed respiratory distress and on presentation to the local ED, he was found to have multilobar pneumonia and needed transfer to his pediatric transplant center 300 miles away for lung transplantation. He requires a highly specialized transport team and medical equipment and given the long distance he needs to travel, fixed-wing transport is the best option.
  • Advantages: very fast travel speed, can travel long distances, typically staffed with the most advanced personnel, typically equipped with specialized and advanced equipment, fewer space restrictions than in a rotor-wing aircraft.
  • Disadvantages: expensive, somewhat limited by weather, has associated ground transports to and from an airport on both ends.

Hazards associated with interfacility transportation


The hazards associated with interfacility transport are similar to those experienced in scene response. Specific details about the hazards of each mode of transport are discussed in the Air Medical Services (Volume 2, Chapter 2) and Ambulance Safety and Crashes (Volume 2, Chapter 22) chapters.


The routine use of lights and sirens in interfacility transports is inappropriate, though there are select cases in which this may be needed, perhaps in the case of a STEMI patient being transported from a small community hospital to a tertiary facility for cath lab intervention. Prior to any interfacility transport, the patient should be stabilized to the extent that the referring hospital is capable. If the patient is expected to have a decline in airway status then it should be managed while the patient is in the sending facility where there are more people around with more equipment and resources available to work in an environment that has significantly more physical space than a transport vehicle. There are times when the risk outweighs the benefit and the interfacility transport should not be completed.


Legal considerations in interfacility transportation

Only gold members can continue reading. Log In or Register to continue

Jun 14, 2016 | Posted by in EMERGENCY MEDICINE | Comments Off on Interfacility transportation

Full access? Get Clinical Tree

Get Clinical Tree app for offline access