Solution to Advanced Manufacturing Process Problems using Cohort
Intelligence Algorithm with Improved Constraint Handling Approaches
- URL: http://arxiv.org/abs/2310.10085v1
- Date: Mon, 16 Oct 2023 05:40:23 GMT
- Title: Solution to Advanced Manufacturing Process Problems using Cohort
Intelligence Algorithm with Improved Constraint Handling Approaches
- Authors: Aniket Nargundkar, Madhav Rawal, Aryaman Patel, Anand J Kulkarni,
Apoorva S Shastri
- Abstract summary: Cohort Intelligence (CI) algorithm is a socio inspired optimization technique which is successfully applied for solving several unconstrained & constrained real-world problems from the domains such as design, manufacturing, supply chain, healthcare, etc.
- Score: 0.07989135005592125
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: Recently, various Artificial Intelligence (AI) based optimization
metaheuristics are proposed and applied for a variety of problems. Cohort
Intelligence (CI) algorithm is a socio inspired optimization technique which is
successfully applied for solving several unconstrained & constrained real-world
problems from the domains such as design, manufacturing, supply chain,
healthcare, etc. Generally, real-world problems are constrained in nature. Even
though most of the Evolutionary Algorithms (EAs) can efficiently solve
unconstrained problems, their performance degenerates when the constraints are
involved. In this paper, two novel constraint handling approaches based on
modulus and hyperbolic tangent probability distributions are proposed.
Constrained CI algorithm with constraint handling approaches based on
triangular, modulus and hyperbolic tangent is presented and applied for
optimizing advanced manufacturing processes such as Water Jet Machining (WJM),
Abrasive Jet Machining (AJM), Ultrasonic Machining (USM) and Grinding process.
The solutions obtained using proposed CI algorithm are compared with
contemporary algorithms such as Genetic Algorithm, Simulated Annealing,
Teaching Learning Based Optimization, etc. The proposed approaches achieved
2%-127% maximization of material removal rate satisfying hard constraints. As
compared to the GA, CI with Hyperbolic tangent probability distribution
achieved 15%, 2%, 2%, 127%, and 4% improvement in MRR for AJMB, AJMD, WJM, USM,
and Grinding processes, respectively contributing to the productivity
improvement. The contributions in this paper have opened several avenues for
further applicability of the proposed constraint handling approaches for
solving complex constrained problems.
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