Key result
An optimised allocation model applied to a military hospital's orthopaedic department resulted in an occupation rate of 96.5% under current demand and resources.
An integrated surgery scheduling model can optimize bed allocation and patient flow, showing that current resources operate at 96.5% capacity.
Novel model integrates surgery scheduling with multi-level post-op bed allocation; leaves open clinical validation before operational use.
This paper presents na integrated surgery scheduling and post-surgical bed planning problem for a standard hospital setting. The setting gives rise to a general healthcare modelling problem with a number of innovations with respect to the literature. The model includes multiple post-surgical recovery trajectories involving possible stays at the intensive (ICU) or semi-intensive care unit (SICU) and allows the decision maker to assign a bed allocation plan that considers the maximum length of stays at both SICU and ICU. The approach is designed to ensure a seamless patient flow, avoiding surgery cancellations due to insufficient downstream resources, and enables tactical planning that considers the long-term balance between demand and surgery provision across all specialities. To validate the model and investigate the sensitivity with respect to model parameters and the availability of resources, we use a series of experiments that were based on the actual operation of a military hospital’s orthopaedic department. The results illustrate the demand pressures, as na optimised allocation with the current demand and resources results in na occupation of 96.5%. We also show that increases in demand should be matched by a similar percentage increase in operating theatre capacity in order to keep the occupation below 100%.
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Carneiro et al. (2025) studied Orthopaedic surgery scheduling and bed planning. Integrated surgery scheduling and post-surgical bed planning model vs. Current demand and resources was evaluated on Occupation rate. An optimised allocation model applied to a military hospital's orthopaedic department resulted in an occupation rate of 96.5% under current demand and resources.
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