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Low requirement imaging enables sensitive and robust rice adulteration quantification via transfer learning

In order to develop a rice adulteration detection system, a deep learning method was implemented to classify simple photographs of five different types of rice. Firstly, the different types of rice were milled and sieved, enabling the imaging of not only grain, but also rice in flour format. Pure ri...

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Published in:Food control 2021-09, Vol.127, p.108122, Article 108122
Main Authors: Pradana-López, Sandra, Pérez-Calabuig, Ana M., Rodrigo, Carlos, Lozano, Miguel A., Cancilla, John C., Torrecilla, José S.
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cited_by cdi_FETCH-LOGICAL-c312t-5e2f2308d2f75d72d8ffccb4c6784c4f5c2006c59b2ba0b5984d5b1e5e1f49373
cites cdi_FETCH-LOGICAL-c312t-5e2f2308d2f75d72d8ffccb4c6784c4f5c2006c59b2ba0b5984d5b1e5e1f49373
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container_start_page 108122
container_title Food control
container_volume 127
creator Pradana-López, Sandra
Pérez-Calabuig, Ana M.
Rodrigo, Carlos
Lozano, Miguel A.
Cancilla, John C.
Torrecilla, José S.
description In order to develop a rice adulteration detection system, a deep learning method was implemented to classify simple photographs of five different types of rice. Firstly, the different types of rice were milled and sieved, enabling the imaging of not only grain, but also rice in flour format. Pure rice types as well as mixtures in different percentages (25%, 50%, and 75%) were photographed to build the database. A basic camera was used to capture different images of the samples reaching a total of 3400 photos. As far as the mathematical algorithm is concerned, a transfer learning based ResNet34 was employed to classify the rice into their unique groups. Using a randomly selected 90% of the total database for training and internal validation, an overall accuracy of 98.0% was obtained after averaging the individual performance for each of the 34 analyzed classes. Finally, a blind test was performed with the remaining 10% of the images, reaching a 98.8% correct classification rate. •Grain and flour images of rice captured with a simple camera.•Transfer learning implemented to effectively fight adulteration and food fraud.•Up to 34 classes of pure and adulterated rice identified accurately.•Blinded samples classified correctly at a 98.8% rate.•Quality control of rice enabled for real-time and inexpensive analysis.
doi_str_mv 10.1016/j.foodcont.2021.108122
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subjects Low requirement imaging
ResNet34
Rice adulteration quantification
title Low requirement imaging enables sensitive and robust rice adulteration quantification via transfer learning
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