Modeling the Relationship between Root Color, Root Shape, and Weight of Radish using Machine Learning
DOI:
https://doi.org/10.51094/jxiv.454Keywords:
Random Forests, Root color, Root shape, Quality Monitoring, Raphanus sativus L. var. sativusAbstract
The quality of radish depends on the production environment and postharvest management during a supply chain. Quality monitoring is therefore important for post-harvest management in the supply chain. This study aims to estimate the quality of radish non-destructively based on color and shape information using random forests as a tool of predictive data-driven modelling. The explanatory variables, namely color and shape information, were obtained by capturing images of radish under a controlled shooting environment. Color information was converted from RGB to HSL or HSV for minimizing potential effects of light conditions on an object surface. Model performance was assessed using Pearson’s correlation coefficient (COR), Nash-Sutcliffe efficiency (NSE), and root mean squared error (RMSE). Experimental results indicated high model performance, supporting the applicability of nondestructive weight estimation using color and shape information of radish. Among the models using different color components, the HSV model exhibited the best performance in all performance measures in this study (i.e., COR, NSE, and RMSE were 0.889, 0.776, and 1.55, respectively). Since the radish variety in this study was red, the R value was the most important variable among the color information. Partial dependence plots further visualized the relationships between each pair of the color component and the radish weight. Further study is needed for the application of this method for other photographic environments specifically where sunlight is present. Assessment of internal conditions of fresh radish such as vitamin C and anthocyanin could be useful for consumer-oriented quality assessment.
Conflicts of Interest Disclosure
The authors have no financial conflicts of interest disclosed concerning the study.Downloads *Displays the aggregated results up to the previous day.
References
吉川宏昭. ハツカダイコン. 松尾孝嶺監修, 植物遺伝資源集成 第2巻. 講談社, 東京. 834-835.1989.
Zhang J, Zhao J, Tan Q, Oiu X, Mei S. Comparative transcriptome analysis reveals key genes associated with pigmentation in radish (Raphanus sativus L.) skin and flesh. Sci. Rep. 11: 11434. 2021.
片山脩, 田島眞. 食品と色.光琳選書, 東京.4, 12-13.2003.
五十嵐喜治, 佐藤充克, 寺原典彦, 津田孝範, 津志田藤二郎, 梶本修身. アントシアニンの生体調節機能.大庭理一郎, 五十嵐喜治, 津久井亜紀夫編著, アントシアニン:食品の色と健康.建帛社, 東京. 103–186.2000.
Fuleki T. The anthocyanins of strawberry, rhubarb, radish and onion. J. Food Sci. 34: 365-369. 1969.
Harborne JB. Plant polyphenols-XI. The structure of acylated anthocyanins. Phytochemistry. 3: 151-160. 1964.
Ishikura N, Hayashi K. Anthocyanins in red roots of a radish. Studies on anthocyanins, XXXVI. Bot. Mag. Tokyo 75: 28-36. 1962.
Ishikura N, Hayashi K. Chromatographic separation and characterization of the component anthocyanins in radish root. Study on anthocyanins, XXXVIII. Bot. Mag. Tokyo 76: 6-13. 1963.
Ishikura N, Hayashi K. Separation and identification of the complex anthocyanins in purple radish studies on anthocyanins, XLVI. Bot. Mag. Tokyo 78: 91-96. 1965.
Ishikura N, Hoshi T, Hayashi K. Crystallization and characterization of the basic triglucosides common to all components in purple pigment of hybrid radish studies on anthocyanins, XLV. Bot. Mag. Tokyo 78: 8–13. 1965.
Giusti MM, Ghanadan H, Wrolstad RE. Elucidation of the structure and conformation of red radish (Raphanus sativus) anthocyanins using one- and two-dimentional nuclear magnetic resonance techniques. J. Agric. Food Chem. 46: 4858-4863. 1998.
Mori M, Nakagawa S, Maeshima M, Niikura S, Yoshida K. Anthocyanins from the rhizome of Raphanus sativus, and change in the composition during maturation. Heterocycles. 69: 239-251. 2006.
Otsuki T, Matsufuji H, Takeda M, Toyoda M, Goda Y. Acylated anthocyanins from red radish (Raphanus sativus L.). Phytochemistry. 60: 79-87. 2002.
Tatsuzawa F, Saito N, Toki K, Shinoda K, Shigihara A, Honda T. Acylated cyanidin 3-sophoroside-5-glucosides from the purple roots of red radish (Raphanus sativus L.) ‘Benikanmi’. J. Japan. Soc. Hort. Sci. 79: 103-107. 2010.
Tatsuzawa F, Toki K, Saito N, Shinoda K, Shigihara A, Honda T. Anthocyanin occurrence in the root peels, petioles and flowers of red radish (Raphanus sativus L.). Dyes and Pigments. 79: 83-88. 2008.
加藤一幾, 佐藤和成, 金澤俊成, 庄野浩資, 小林伸雄, 立澤文見. ダイコン類(Raphanus sativus L.)における根色とアントシアニン. 園芸学研究. 12: 229-234. 2013.
Iwata H, Niikura S, Matsuura S, Takano Y, Ukai Y. Evaluation of variation of root shape of Japanese radish (Raphanus sativus L.) based on image analysis using elliptic Fourier descriptors. Euphytica. 102: 143-149. 1998.
Kang Y, Wan S. Effect of soil water potential on radish (Raphanus sativus L.) growth and water use under drip irrigation. Sci. Hor. 106: 275-292. 2005.
Basnet B, Aryal A, Neupane A, KC. B, Rai NH, Adhikari S, Khanal P, Basnet M. Effect of integrated nutrient management on growth and yield of radish. J. of Ag. and Nat. Res. 4: 167-174. 2021.
Fukuda S, Spreer W, Yasunaga E, Yuge K, Sardsud V, Müller J. Random Forests modelling for the estimation of mango (Mangifera indica L. cv. Chok Anan) fruit yields under different irrigation regimes. Ag. Wat. Man. 116: 142-150. 2013.
Öz AT, Akyol B. Effects of calcium chloride plus coating in modified-atmosphere packaging storage on whole-radish postharvest quality. J. Sci. Food Agric. 100: 3942-3949. 2020.
Gilani L, Tahir SF, Rasheed U, Saqib H, Hassan M, Alquhayz H. Fruits and vegetables freshness categorization using deep learning. Comp. Mat. & Con. 71: 5083-5098. 2022.
Moon EJ, Kim Y, Xu Y, Na Y, Giaccia AJ, Lee JH. Evaluation of salmon, tuna, and beef freshness using a portable spectrometer. Sen. 20: 4299. 2020.
Fukuda S, Yasunaga E, Nagle M, Yuge K, Sardsud V, Spreer W, Müller J. Modelling the relationship between peel colour and the quality of fresh mango fruit using Random Forests. J. of Food Eng. 131: 7-17. 2014.
Wang X, Feng H, Chen T, Zhao S, Zhang J, Zhang X. Gas sensor technologies and mathematical modelling for quality sensing in fruit and vegetable cold chains: A review. Tr. in Food Sci. & Tec. 110: 483-492. 2021.
元永佳孝, 亀岡孝治, 橋本篤. 農産物表面色の色彩画像処理システムの構築. 農業機械学会誌. 59: 13-22. 1997.
Frank PK, Charles RG. Elliptic Fourier features of a closed contour. Comp. Graph. And Im. Proc. 18: 236-258. 1982.
Breiman L. Random forests. Machine Learning. 45: 5-32. 2001.
Cutler DR, Edwards TC, Jr. Beard KH, Cutler A, Hess KT, Gibson J, Lawler JJ. Random Forests for classification in ecology. Ecology. 88: 2783-2792. 2007.
Pedregosa F et al. Scikit-learn: Machine learning in python. JMLR. 12: 2825-2830. 2011.
Scott ML, Su-In L. A unified approach to interpreting model predictions. Proc. of the 31st Int. Conf. on Neural Info. Proc. Sys. (NIPS'17). 4768–4777. 2017.
Nash JE, Sutcliffe JV. River flow forecasting through conceptual models part I-a discussion of principles. J. of Hydrology. 10: 282-290.1970.
Gálvez L, Palmero D. Incidence and etiology of postharvest fungal diseases associated with bulb rot in garlic (Alllium sativum) in Spain. Foods. 10: 1063. 2021.
Ezgi DC, Burçe AM, Vural G. Relationship between color and antioxidant capacity of fruits and vegetables. Current Res. in Food Sci. 2: 1-10. 2020.
Downloads
Posted
Submitted: 2023-07-12 08:28:53 UTC
Published: 2023-07-13 06:24:39 UTC — Updated on 2023-11-08 07:25:05 UTC
Versions
- 2023-11-08 07:25:05 UTC (2)
- 2023-07-13 06:24:39 UTC (1)
Reason(s) for revision
The legends for Figure 4 and Figures A1 to A15 have been corrected.License
Copyright (c) 2023
Yuto Kamiwaki
Shinji Fukuda
This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.