Outpatient Appointment Scheduling Optimization with a Genetic Algorithm Approach
Summary
A study proposes and evaluates a Genetic Algorithm (GA) framework for optimizing complex medical appointment scheduling across multiple healthcare facilities, addressing clinical safety protocols and patient logistics. Using a synthetic dataset of 50 medical acts across four facilities, two GA variants (Pre-Ordered and Unordered) were compared against First-Come, First-Served (FCFS) and Random Choice baselines. The GA framework achieved a 100% constraint fulfillment rate, resolving temporal overlaps and clinical incompatibilities that FCFS failed to address in 60% and 40% of cases, respectively. GA variants also showed statistically significant improvements ($p<0.001$) in patient-centric metrics, achieving an Idle Time Ratio (ITR) frequently below 0.4 and reducing inter-healthcenter trips. Both GA variants converged to comparable global optima by the 100th generation, suggesting superior efficiency over manual scheduling.
Key takeaway
For healthcare administrators and IT teams managing multi-center scheduling, adopting a Genetic Algorithm approach can significantly enhance operational efficiency and patient satisfaction. This automated framework ensures 100% adherence to complex clinical constraints and drastically reduces patient wait times and logistical burdens, moving beyond the limitations of manual or simple deterministic methods. Consider piloting a GA-based system to streamline complex patient journeys and reduce administrative overhead.
Key insights
Genetic Algorithms effectively optimize complex medical appointment scheduling, ensuring clinical safety and improving patient experience.
Principles
- Stochastic global search heuristics excel in NP-hard optimization.
- Constraint-aware initialization can improve initial search locus.
- High penalties effectively prune non-viable solutions.
Method
The GA framework defines individuals as binary arrays of selected slots, uses a fitness function penalizing overlaps and trips, applies tournament selection, single-point crossover, and a 10% mutation rate over 200 generations.
In practice
- Implement GAs for multi-center healthcare scheduling.
- Prioritize patient-centric metrics like ITR and facility changes.
- Incorporate clinical incompatibility rules into scheduling algorithms.
Topics
- Genetic Algorithms
- Healthcare Scheduling
- Appointment Optimization
- Constraint Satisfaction
- Patient Logistics
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Editorial summary, takeaway, and curation by AIssential. Original article published by cs.NE updates on arXiv.org.