Multiobjective cooperative multi-fitness in workflow scheduling problem

The optimisation of scientific workflows in cloud environments presents considerable challenges, primarily due to the inherent trade-offs between makespan and energy consumption. To address this, we propose Multi-Objective Cooperative Multi-Fitness (MOCMF), a novel mechanism that significantly enhances multi-objective evolutionary algorithms through a unique cooperative evaluation and recoding strategy. Diverging from existing multi-decoder approaches, MOCMF’s core innovation lies in its collaborative framework: heuristic decoders work in tandem to support a baseline decoding function, providing expert solutions that guide the Lamarckian recoding of chromosomes. Furthermore, MOCMF extends this cooperative evaluation to a multi-objective setting, where each heuristic decoder focuses on optimising a specific objective, leading to the generation of multiple distinct solutions per chromosome. Experimental results on data-intensive workflow benchmarks show that MOCMF improves the average Hypervolume by 32% and Inverted Generational Distance by 42% compared to a standard NSGA-II implementation, and by 7% and 6% respectively compared to its mono-objective cooperative variants. The proposed mechanism is also generalisable and potentially applicable to other multi-objective problems beyond workflow scheduling.

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Publication Details

Journal
Integrated Computer-Aided Engineering
Published
2025-08-11
DOI
https://doi.org/10.1177/10692509251363797
Primary Topic
Cloud Computing and Resource Management
Type
article
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article

Multiobjective cooperative multi-fitness in workflow scheduling problem

Pablo Barredo, Jorge Puente
Integrated Computer-Aided Engineering
Cloud Computing and Resource Management
article

Multiobjective cooperative multi-fitness in workflow scheduling problem

Pablo Barredo, Jorge Puente
article en

Abstract

The optimisation of scientific workflows in cloud environments presents considerable challenges, primarily due to the inherent trade-offs between makespan and energy consumption. To address this, we propose Multi-Objective Cooperative Multi-Fitness (MOCMF), a novel mechanism that significantly enhances multi-objective evolutionary algorithms through a unique cooperative evaluation and recoding strategy. Diverging from existing multi-decoder approaches, MOCMF’s core innovation lies in its collaborative framework: heuristic decoders work in tandem to support a baseline decoding function, providing expert solutions that guide the Lamarckian recoding of chromosomes. Furthermore, MOCMF extends this cooperative evaluation to a multi-objective setting, where each heuristic decoder focuses on optimising a specific objective, leading to the generation of multiple distinct solutions per chromosome. Experimental results on data-intensive workflow benchmarks show that MOCMF improves the average Hypervolume by 32% and Inverted Generational Distance by 42% compared to a standard NSGA-II implementation, and by 7% and 6% respectively compared to its mono-objective cooperative variants. The proposed mechanism is also generalisable and potentially applicable to other multi-objective problems beyond workflow scheduling.

Integrated Computer-Aided EngineeringVol. 32(4)
Universidad de Oviedo (ES)
Openalex Percentile: Top 70%
Cloud Computing and Resource Management
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Multiobjective cooperative multi-fitness in workflow scheduling problem — Pablo Barredo, Jorge Puente · Integrated Computer-Aided Engineering (2025) | TGRS Research Map | TGRS