Evaluation and Design of Flybridge Yachts by Combining Perceptual Engineering and Particle Swarm Optimization-Support Vector Machines

Due to cognitive differences, traditional perceptual engineering (KE) frequently relies too heavily on designers' experience in analyzing customers' emotional demands, which can result in product designs that deviate from users' expectations. This work suggests a thorough evaluation approach that combines the particle swarm optimization-support vector regression (PSO-SVR) model and perceptual engineering to increase the scientificity and precision of design choices. The approach first determines the subjective weights of users' emotional needs using spherical fuzzy hierarchical analysis (SFAHP). Next, it uses the entropy weighting method to determine the objective weights. Finally, it combines the subjective and objective data using game theory to produce a more rational evaluation system. Finally, the emotional prediction model based on PSO-SVR is constructed to realize the accurate mapping between emotional needs and design features. The empirical study shows that“speed”, “dynamic”and“luxury” are the core emotional demands of users, and the algorithm's prediction results are highly consistent with users' actual evaluations, which strongly verifies the accuracy of the model. Compared with the traditional KE method, the model better integrates subjective experience and objective data and provides more practical support for the design of flybridge yachts.

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Publication Details

Journal
International Journal of e-Navigation and Maritime Economy
Published
2025-06-30
DOI
https://doi.org/10.52820/j.enavi.2025.24.072
Primary Topic
Engineering Applied Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Evaluation and Design of Flybridge Yachts by Combining Perceptual Engineering and Particle Swarm Optimization-Support Vector Machines

Yingying Deng, Sun Chengmeng
International Journal of e-Navigation and Maritime Economy
Engineering Applied Research
article

Evaluation and Design of Flybridge Yachts by Combining Perceptual Engineering and Particle Swarm Optimization-Support Vector Machines

Yingying Deng, Sun Chengmeng
article en

Abstract

Due to cognitive differences, traditional perceptual engineering (KE) frequently relies too heavily on designers' experience in analyzing customers' emotional demands, which can result in product designs that deviate from users' expectations. This work suggests a thorough evaluation approach that combines the particle swarm optimization-support vector regression (PSO-SVR) model and perceptual engineering to increase the scientificity and precision of design choices. The approach first determines the subjective weights of users' emotional needs using spherical fuzzy hierarchical analysis (SFAHP). Next, it uses the entropy weighting method to determine the objective weights. Finally, it combines the subjective and objective data using game theory to produce a more rational evaluation system. Finally, the emotional prediction model based on PSO-SVR is constructed to realize the accurate mapping between emotional needs and design features. The empirical study shows that“speed”, “dynamic”and“luxury” are the core emotional demands of users, and the algorithm's prediction results are highly consistent with users' actual evaluations, which strongly verifies the accuracy of the model. Compared with the traditional KE method, the model better integrates subjective experience and objective data and provides more practical support for the design of flybridge yachts.

International Journal of e-Navigation and Maritime EconomyVol. 24
Openalex Percentile: Top 79%
Engineering Applied Research
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