The MOEO algorithm for multi-objective optimization of the cancer immuno-chemotherapy
K Nozad1, S M Varedi-Koulaei1, M Nazari1
1Faculty of Mechanical Engineering, Shahrood University of Technology, Shahrood, Iran.
Computers in Biology and Medicine
|September 6, 2024
Summary
A new multi-objective Equilibrium Optimizer algorithm optimizes cancer treatment dosages. This approach effectively reduces chemotherapy drug doses in both standard and mixed chemo-immunotherapy, showing superior performance for complex treatment strategies.
Area of Science:
- Computational biology
- Mathematical oncology
- Optimization algorithms
Background:
- Chemotherapy's non-specific cell killing necessitates improved cancer treatment strategies.
- Mixed-treatment approaches like chemo-immunotherapy offer potential but face dosage optimization challenges.
- Existing metaheuristic algorithms show limitations in consistently solving complex optimization problems in cancer therapy.
Purpose of the Study:
- To introduce a novel multi-objective Equilibrium Optimizer (MOEO) algorithm for optimizing cancer treatment.
- To evaluate the MOEO's performance in chemotherapy and chemo-immunotherapy, considering tumor-immune dynamics and patient health.
- To demonstrate the algorithm's ability to find optimal drug dosages for personalized cancer treatment.
Main Methods:
- Extension of the single-objective Equilibrium Optimizer algorithm to a multi-objective version (MOEO).
- Application of MOEO to optimize drug dosages in chemotherapy and chemo-immunotherapy models.
- Consideration of tumor-immune dynamic system constraints and patient health levels.
- Validation using real clinical data from two distinct cancer patients.
Main Results:
- The MOEO algorithm successfully determined optimal treatment dosages for both chemotherapy and chemo-immunotherapy.
- Significant reductions in total chemotherapy drug doses were observed for both patients: Patient 1 (138.92, 5.84) and Patient 2 (16.9, 0.4384) for chemo and chemo-immunotherapy, respectively.
- The Pareto front generated by MOEO provides a range of treatment options based on different criteria.
Conclusions:
- The proposed multi-objective Equilibrium Optimizer (MOEO) algorithm demonstrates superior performance in optimizing cancer treatment strategies.
- MOEO is particularly effective for mixed-treatment approaches like chemo-immunotherapy, offering reduced drug toxicity.
- The algorithm provides a valuable tool for personalized cancer therapy by balancing treatment efficacy and patient health.
Keywords:
CancerEquilibrium Optimizer (EO)Mixed chemo-immunotherapyMulti-objective Equilibrium Optimization (MOEO)Optimal controlOptimization algorithmMore Related Videos
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