This is the twelfth article in our examination of what Ghana has come to call “No-Bed Syndrome.” We began this series by asking a simple question. What are we really talking about when we say there are no beds? The problem is not the absence of beds. It is the inability of the system to move patients safely under pressure.
In the previous article, we argued that emergency care is infrastructure, as fundamental to civic life as roads, electricity, water supply, and drainage. Infrastructure must be designed before it is tested. If emergency care is infrastructure, what would a resilient emergency system actually look like in a rapidly growing city like Accra?
A truly resilient emergency system anticipates variability. It absorbs surges without collapse. It maintains safe movement even under pressure. It protects both the public and the professionals who serve them. It does not rely on heroism, improvisation, or crisis intervention as routine operating principles. Nor does it accept corridor care as normal. It relies on discipline, design, and preparation.
To understand what this means in practical terms, imagine Accra ten years from now.
It is June 2036. A week of heavy rainfall has already caused flooding in parts of the city. A major road traffic collision leaves multiple casualties with severe injuries. Several require urgent surgery. Others require critical care support. The combination is not unprecedented. Within minutes, social media spreads images of smoke and confusion. Traffic is thick. Ambulances are dispatched. Private vehicles begin transporting the injured.
In one version of this future, emergency departments are already operating under sustained strain. Admitted patients occupy emergency spaces. ICU capacity is limited. Oxygen and essential supplies are under pressure. Ambulances queue outside crowded entrances while staff search for places to receive new arrivals.
Families and drivers move from one hospital to another with little visibility of available capacity. Delays accumulate across the city. Patients wait longer for surgery, specialist review, and critical care. Some deteriorate while waiting. Some suffer avoidable complications. Others may not survive delays that a more resilient system could have absorbed.
In another version of that same morning, the city has invested in resilience. Shared dashboards provide visibility of emergency department activity, inpatient occupancy, and critical care capacity across major institutions. Hospitals had already recognised rising demand from seasonal illness and taken steps to create additional capacity.
Discharges have been accelerated. Ambulance destinations are coordinated. Public information systems, emergency services, and referring facilities provide consistent guidance to families and drivers transporting casualties by private or commercial vehicles. Patients are distributed deliberately according to need and available capacity.
Operating theatres, critical care beds, and specialist teams are mobilised early. Pressure remains high, but the network continues to function. Treatment begins sooner. Delays are shorter. Risks are lower. The surge is absorbed without compromising care for patients already within the system.
The difference in patient outcomes between these two hypothetical scenarios lies not in luck, resources, or clinical skill. It lies in preparation and design.
To build such a system in Accra, we must strengthen three interconnected domains. Processes. People. Infrastructure. Resilience emerges when all three function together and adapt under pressure.
Let us begin with processes. The movement of patients through a hospital depends on a series of processes. Every delay in assessment, investigation, consultation, admission, transfer, discharge, or transport affects flow. Resilience improves when these processes are reliable.
International evidence consistently demonstrates that some of the most effective improvements in emergency care arise from redesigning patient pathways rather than constructing new buildings. Hospitals that standardise admissions, clarify ownership, improve discharge planning, and reduce delays often create substantial capacity without adding beds. Improving flow is often the least expensive and most sustainable way of strengthening resilience.
Importantly, many of the measures discussed earlier in this series to improve efficiency and reduce overcrowding also strengthen resilience. Systems that function effectively during ordinary periods are generally better able to absorb extraordinary pressures when they arise. This is often the cumulative result of doing the fundamentals consistently well. Resilience is built in ordinary times and revealed in extraordinary ones.
Resilience requires margin. Sustained occupancy above roughly 85% leaves little margin for variability and amplifies delay. Resilient emergency systems protect that margin through operational guardrails that recognise strain early, trigger escalation automatically, and prevent ordinary pressure from progressing into system failure. Occupancy thresholds, boarding limits, specialist response targets, surge activation rules, protected oxygen and essential supply reserves, and escalation pathways are all examples of such guardrails. Their purpose is not to eliminate pressure but to prevent it from becoming paralysis.
Yet guardrails alone are insufficient. Their effectiveness depends on consistency, and consistency depends on agreement. Clinical stakeholders must participate in pathway redesign if those changes are to function in practice. Doctors, nurses, pharmacists, laboratory staff, imaging scientists, managers, ambulance personnel, and admitting teams all influence flow. Resilience improves when expectations are shared, responsibilities are clear, and processes are documented rather than left to individual interpretation.
Written policies are important because resilient systems must be able to learn and remember. Hospitals should not need to rediscover solutions each time staffing changes, leadership rotates, or pressure rises. Effective processes become part of institutional memory through induction, continuing education, and regular review.
Resilient organisations examine delays, identify bottlenecks, test solutions, and measure results. Clinical audit and quality improvement help systems become progressively stronger over time. Resilience is not a destination. It is a habit of continuous adaptation.
Leadership remains essential. Sustainable change requires visible support from senior hospital management, accountability, and alignment with institutional priorities. Resilience becomes stronger when improving flow is recognised not as an emergency department problem, but as a hospital-wide responsibility.
Process redesign reduces fragility. But it cannot stand alone.
The second domain is people. Even the best pathways fail if the people required to operate them are unavailable, unsupported, or poorly connected. An emergency department staffed predominantly by junior clinicians waiting for specialist review slows rapidly. Delayed decisions compound crowding. Responsibility becomes blurred once admission decisions are made but patients remain physically in emergency spaces. Night supervision gaps magnify risk.
Senior emergency physicians must be present during predictable peak hours. Specialist response intervals must be defined and mutually agreed rather than negotiated case by case. Admission criteria should be co-authored across specialties so that debate among frontline clinicians reduces and accountability strengthens. Once a patient is accepted, ownership transitions must be explicit and timely.
Emergency nursing ratios must reflect acuity rather than raw numbers. A resuscitation area cannot safely absorb multiple critically ill arrivals if staffing remains fixed at minimum levels. Surge rosters should be predesigned and rehearsed. Cross-training across departments increases flexibility when demand spikes.
Workforce resilience requires alignment with national planning. Training pipelines for emergency physicians, critical care nurses, paramedics, radiographers, and laboratory scientists must anticipate future need rather than respond to crisis headlines. Infrastructure expansion without proportional human capacity is likely to produce hollow resilience.
Sometimes resilience is strengthened by moving expertise to where it is needed rather than relying solely on moving patients. Many patients will still require transport to hospital, but the first response is not always movement alone. Metropolitan emergency response teams, specialist surge teams, and coordinated transfer support can assist during major incidents, severe congestion, complex transfers, or unexpected staffing gaps. As Accra grows, the ability to deploy expertise rapidly across institutions, and occasionally beyond them, may become an increasingly important component of resilience.
The third domain is infrastructure. Infrastructure must anticipate failure. Oxygen and essential supplies cannot be assumed. These must be redundant, monitored, and stress tested. Power outages cannot be treated as rare inconveniences. Backup generator systems must be maintained under real load conditions. ICUs require step-down or high dependency beds to prevent avoidable blockage. Emergency theatres require protected access during surges to avoid paralysing both elective and urgent surgical flow. Backup communication systems must be available when networks fail.
Preparedness should not be viewed solely through the lens of disasters. The same principles that help hospitals respond to major incidents also strengthen their ability to manage overcrowding, staffing shortages, equipment failures, and sudden surges in demand. Resilience demands that those principles be integrated into routine hospital operations. Preparedness must shape bed planning, oxygen and essential supply procurement, workforce scheduling, referral pathways, and surge response long before a crisis occurs.
Referral dynamics beyond Accra also matter. District hospitals that lack stabilisation capacity send fragile patients onward earlier and more frequently. Tertiary centres then operate without buffer. Strengthening district emergency capability, supporting appropriate reverse referrals of stable patients, and clarifying referral pathways aligns with existing decentralisation goals within Ghana’s health strategy. Regional coordination can reduce cascading collapse.
Measurement binds all three domains together. Occupancy rates. Boarding hours. Ambulance offload times. Interruptions in oxygen and essential supplies. Specialist response intervals. These metrics reveal strain before catastrophe. Transparency may feel uncomfortable, but opacity breeds complacency. When data is visible, the conversation shifts from anecdote to design.
Across this series we have clarified that “No-Bed Syndrome” is not an accusation. It is a symptom of systemic fragility. This article moves beyond diagnosis toward design. It argues that resilience in Accra’s emergency system depends on margin in occupancy, clarity in workforce responsibility, redundancy in physical systems, and transparent measurement across institutions. Many of the measures advocated here can improve efficiency without major capital expenditure. They do, however, require something equally important: discipline in execution, clarity of accountability, and sustained commitment across every level of the health system.
In the next article, we move from design to implementation. We will outline a practical roadmap for turning resilience from aspiration into operational reality.
Emergency care will test us again. Population growth, climate variability, urbanisation, and unforeseen crises guarantee that. The only question is whether resilience will be designed before that test arrives.
By Dr. George Oduro, FRCS, FRCEM (UK), FGCS
Consultant in Emergency Medicine
For more news, join The Chronicle Newspaper channel on WhatsApp: https://whatsapp.com/channel/0029VbBSs55E50UqNPvSOm2z
