Classification of Beef longissimus thoracis Muscle Tenderness Using Hyperspectral Imaging and Chemometrics
Authors:
- Sara León-EcaySLSara León-Ecay
- Ainara López-MaestresalasALAinara López-Maestresalas
- María Teresa Murillo-ArbizuMMMaría Teresa Murillo-Arbizu
- María José BeriainMaría José Beriain
- José Antonio MendizabalJMJosé Antonio Mendizabal
- Silvia ArazuriSilvia Arazuri
- Carmen JarénCJCarmen Jarén
- Phillip D. BassPBPhillip D. Bass
- Michael J. ColleMCMichael J. Colle
- David GarcíaDGDavid García
- Miguel Romano-MorenoMRMiguel Romano-Moreno
- Kizkitza InsaustiKIKizkitza Insausti
Open Access
Abstract
Nowadays, the meat industry requires non-destructive, sustainable, and rapid methods that can provide objective and accurate quality assessment with little human intervention. Therefore, the present research aimed to create a model that can classify beef samples from longissimus thoracis muscle according to their tenderness degree based on hyperspectral imaging (HSI). In order to obtain different textures, two main strategies were used: (a) aging type (wet and dry aging with or without starters) and (b) aging times (0, 7, 13, 21, and 27 days). Categorization into two groups was carried out for further chemometric analysis, encompassing group 1 (ngroup1 = 30) with samples with WBSF ˂ 53 N whereas group 2 (ngroup2 = 28) comprised samples with WBSF values ≥ 53 N. Then, classification models were created by applying the partial least squares discriminant analysis (PLS-DA) method. The best results were achieved by combining the following pre-processing algorithms: 1st derivative + mean center, reaching 70.83% of correctly classified (CC) samples and 67.14% for cross validation (CV) and prediction, respectively. In general, it can be concluded that HSI technology combined with chemometrics has the potential to differentiate and classify meat samples according to their textural characteristics.Keywords
Funding Information
- Comunidad Foral de Navarra (0011-1365-2019-000091)
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