Electro-Biomedical Engineering
Dynamic circulation is essential to responsive care models, but it makes conventional locating approaches unworkable. Digital transformation further increases
pressure on EBME. Remote monitoring pathways depend on device reliability. A single failed sensor or missing kit can disrupt not just a consultation but an entire patient pathway. In this environment, the performance of devices becomes inseparable from the performance of care. Preventative, capacity-maximising models also rely on accurate utilisation. Without knowing where devices are and how often they are used, Trusts risk unnecessary procurement, duplicated rentals, delayed pathways and avoidable clinical variation. This directly conflicts with the Plan’s emphasis on prevention, early intervention and reducing avoidable deterioration. The 10-Year Plan also introduces a major
policy lever designed to speed up technology adoption: the Innovation Passport. Delivered via MedTech Compass digital platform, this national mechanism will allow technologies approved by one NHS organisation to be rapidly adopted by others, eliminating the need for repeated local assessments. For EBME, this means that innovative devices, digital tools and connected technologies will reach frontline services more quickly than ever before. Engineering teams will face shorter onboarding cycles, greater technology variety, and rising expectations around their ability to integrate and maintain new solutions at pace. While the Passport reduces bureaucracy, it simultaneously increases the operational tempo for EBME and heightens the need for robust digital asset intelligence to manage this accelerated inflow. It also establishes a new requirement for system-wide learning: utilisation data, failure rates and performance insights captured through tracking systems will inform ICS-level decisions on whether technologies should be scaled, refined or retired. Taken together, these pressures demand a new engineering model: one in which EBME
transitions from a predominantly reactive, workshop-based discipline into a digitally mature, intelligence-led operational function capable of orchestrating a highly mobile device fleet across an increasingly complex health system.
What forward thinking Trusts are achieving today Trusts that have adopted intelligent asset tracking are already demonstrating the scale of impact digitally enabled EBME can deliver. l A Midlands Trust deploying Bluetooth Low Energy tracking across high acuity wards saw search times fall by more than half within three months. Engineers reported reclaiming hours each week, allowing them to focus on PPM and repairs instead of equipment retrieval. This shift directly supports the ambition to reduce delays and improve patient flow by ensuring essential equipment is always available when needed
l A community provider supporting a major virtual ward programme added GPS tracking to remote monitoring kits. Retrieval times dropped from days to minutes. Kits returned faster, patient throughput increased and the service was able to expand without purchasing additional equipment. This
demonstrates how tracking underpins the expansion of home-based and preventative care by ensuring remote monitoring pathways remain reliable and scalable.
l In the South West, EBME teams, the clinical lead for palliative care and technology partner Idox collaborated to redesign syringe pump lockboxes so they could securely house a GPS tag attached to the pump, enabling integrated tracking. The design eliminated device loss entirely, resolving a long-standing challenge in palliative care.
l At a large teaching hospital, utilisation analytics revealed that perceived equipment shortages were, in fact, redistribution issues. By reallocating under-used assets, the Trust avoided a six-figure procurement request and improved clinician access. This aligns with the focus on financial sustainability and reducing waste across the system.
These examples all demonstrate the same truth: when EBME gains reliable device visibility and data driven insight, engineering productivity increases, clinical delays shrink, and operational waste reduces across the system. Asset intelligence is not a marginal improvement; it is transformative. It is also foundational to delivering the NHS’s commitments on access, efficiency and digital maturity.
The growing operational burden on clinical engineering Despite isolated pockets of progress, many engineering teams continue to face overwhelming pressures. A significant portion of the working week is still spent searching for equipment across large estates and community networks. Every hour spent locating a device is an hour not spent maintaining, repairing or ensuring safety compliance. This inefficiency directly undermines the ambition to improve outcomes and reduce avoidable harm.
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www.clinicalservicesjournal.com I June 2026
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