These localised transport operations are focused on the collection of patient diagnostic specimens (e.g., blood, urine and stool samples sent to pathology laboratories for analysis). Tests undertaken at doctors’ surgeries and community clinics are transported to pathology hubs based at larger hospitals through networks of daily van rounds. The requirement to transport diagnostic specimens within a fixed time window (e.g., within 4 hours maximum in-transit time or sometimes shorter timescales) dictates how routes are planned. Finding the right balance between the quality of patient care whilst considering costs, energy consumption and emissions is a challenge for the NHS, particularly because in many cases faster service times (e.g., those offered by drone logistics) do not necessarily translate into improved patient outcomes due to delays inherent in other parts of the wider healthcare system.
The E-Drone project used interviews, observations, and analysis of secondary data to analyse current NHS logistics practices associated with the movement of time-sensitive items. Existing challenges associated with transporting and processing routine patient diagnostic specimens were identified, including issues such as afternoon peaks in deliveries of specimens to pathology laboratories having a detrimental effect on efficient workflows, some patient groups being compelled to travel to hospital for specimens to be taken (e.g., to ensure fast-tracking) rather than being able to use local community clinics, rigid routes of pathology vans are not able to respond to changes in demand (e.g., due to late running clinics or when there are no specimens to collect).
Interviews with NHS practitioners highlighted that, in occasional (very low frequency) ad-hoc circumstances, individual items need to be urgently transported between healthcare sites (e.g., units of blood, medicine, and specialist diagnostic specimens). Specialist couriers and taxis were used for these purposes in most instances, but some examples of using staff vehicles, and therefore staff time, were also given, with courier/taxi services sometimes difficult to book (especially out of normal work hours), leading to delays. Community based clinical trials also generated low frequency transport demand, which required stringent monitoring and control, calling for specialist couriers or transport by a member of staff.
The project analysed the transportation requirements of shorter shelf-life chemotherapy treatments with a focus on the needs of the Isle of Wight, coinciding with drone trials taking place that considered this potential use case. The aseptic pharmacy at St. Mary’s hospital closed in 2021 and individualised cancer treatments are now prepared in Portsmouth and transported by taxi and hovercraft. The analysis concluded that the benefits of time savings need to be evaluated in the context of the whole process, with opportunities to better exploit existing transport provision.
Data from interviews with NHS practitioners.
https://reshare.ukdataservice.ac.uk/857295/
Oakey A. (2023). Investigating the scope for integrating uncrewed aerial vehicles (UAVs) into mixed-mode fleets to support national health service (NHS) logistics operations. Thesis submitted for Doctor of Philosophy, University of Southampton.
https://eprints.soton.ac.uk/483801/
Oakey A, Grote M, Smith A, Cherrett T, Pilko A, Dickinson J and Ait Bihi Ouali L (2022) ‘Integrating drones into NHS patient diagnostic logistics systems: Flight or fantasy?’, PLoS One, 17(12), e0264669.
https://doi.org/10.1371/journal.pone.0264669
Smith A, Dickinson J, Oakey A, Grote M and Cherrett T (2023) Drone deliveries and the medical use case – Research Summary May 2023.
Drone deliveries and the medical use case – Research Summary May 2023