Grading of Pomegranate using Non Invasive Techniques
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Abstract
newline Nowadays, the growth of quality control and agricultural monitoring system has
newlineemerged a lot because of the increased requirement of sustainable food supply. Due to the
newlinevarying climatic condition, the pomegranate fruits contaminate the neighbourhood fruits
newlinewhen one is affected with diseased or insecticides. The pomegranate is one of the essential
newlinefood source useful in providing high nutrition values and also effective for medicinal
newlineapplications. Effective shelf life prediction approach is highly required to that must withstand
newlineunder any climatic conditions. For the past few years, researchers are highly interested in
newlinecomputer vision techniques for verifying the agricultural goods and predict the shelf life
newlineeffectively. However, these techniques are suffered due to increased time consumption as
newlinewell as sensitive to varying climatic conditions.
newlineRecently, artificial intelligence (AI) based deep learning (DL) technique have
newlinewitnessed the outstanding performance in predicting the shelf life under any climatic
newlineconditions. This article brings the two novel objectives to predict the quality and shelf life of
newlinethe pomegranate fruit accurately.
newlineIn the first objective, three major processes are undertaken namely pre-processing,
newlinefeature extraction and classification. At the pre-processing stage, the internal quality of the
newlinepomegranate fruit is detected using magnetic resonance imaging (MRI). The scanned internal
newlineportion is then transferred into feature extraction stage where the physiochemical features and
newlinethe GLCM based features are extracted. Finally, LSTM (Long-Short Term Memory) model
newlineand Stacked Dense Deep LSTM (SDD-LSTM) based DL model is proposed to predict the
newlinefruit quality efficiently. Some of the effective qualitative analysis like square of correlation
newlinecoefficient (r2), root mean square error of calibration (RMSEC) and root mean square error of
newlineprediction (RMSEP) are analysed.
newlineIn the second objective, three major steps are performed namely pre-processing, feature
newlineextraction and classification. At the