- Volume 32 Issue 7
DOI QR Code
White striping degree assessment using computer vision system and consumer acceptance test
- Kato, Talita (Department of Food Science and Technology, State University of Londrina (UEL), Campus Universitario) ;
- Mastelini, Saulo Martiello (Department of Computer Science, State University of Londrina (UEL), Campus Universitario) ;
- Campos, Gabriel Fillipe Centini (Department of Computer Science, State University of Londrina (UEL), Campus Universitario) ;
- Barbon, Ana Paula Ayub da Costa (Department of Animal Science, State University of Londrina (UEL), Campus Universitario) ;
- Prudencio, Sandra Helena (Department of Food Science and Technology, State University of Londrina (UEL), Campus Universitario) ;
- Shimokomaki, Massami (Department of Animal Science, State University of Londrina (UEL), Campus Universitario) ;
- Soares, Adriana Lourenco (Department of Food Science and Technology, State University of Londrina (UEL), Campus Universitario) ;
- Barbon, Sylvio Jr. (Department of Computer Science, State University of Londrina (UEL), Campus Universitario)
- Received : 2018.07.02
- Accepted : 2018.11.23
- Published : 2019.07.01
Objective: The objective of this study was to evaluate three different degrees of white striping (WS) addressing their automatic assessment and customer acceptance. The WS classification was performed based on a computer vision system (CVS), exploring different machine learning (ML) algorithms and the most important image features. Moreover, it was verified by consumer acceptance and purchase intent. Methods: The samples for image analysis were classified by trained specialists, according to severity degrees regarding visual and firmness aspects. Samples were obtained with a digital camera, and 25 features were extracted from these images. ML algorithms were applied aiming to induce a model capable of classifying the samples into three severity degrees. In addition, two sensory analyses were performed: 75 samples properly grilled were used for the first sensory test, and 9 photos for the second. All tests were performed using a 10-cm hybrid hedonic scale (acceptance test) and a 5-point scale (purchase intention). Results: The information gain metric ranked 13 attributes. However, just one type of image feature was not enough to describe the phenomenon. The classification models support vector machine, fuzzy-W, and random forest showed the best results with similar general accuracy (86.4%). The worst performance was obtained by multilayer perceptron (70.9%) with the high error rate in normal (NORM) sample predictions. The sensory analysis of acceptance verified that WS myopathy negatively affects the texture of the broiler breast fillets when grilled and the appearance attribute of the raw samples, which influenced the purchase intention scores of raw samples. Conclusion: The proposed system has proved to be adequate (fast and accurate) for the classification of WS samples. The sensory analysis of acceptance showed that WS myopathy negatively affects the tenderness of the broiler breast fillets when grilled, while the appearance attribute of the raw samples eventually influenced purchase intentions.
Appearance;Broiler Breast Fillet;Classification;Digital Image;Sensory Analysis
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