SmartRipen: LSTM-GRU feature selection& XGBoost-CNN for fruit ripeness detection

Archana Ganesh Said , Bharti Joshi
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Abstract

Artificial ripening, frequently performed with the use of calcium carbide, speeds up the process but harms fruit and its nutritional value. Spotting unnaturally ripened fruits is crucial for the quality and safety of food, but current models are inefficient or too complicated, especially for diverse fruit varieties. Long-Short-Term Memory (LSTM) as well as Gated Recurrent Unit (GRU) extraction and selection of features techniques are combined using Extended Gradient Boosting (XGBoost) with Convolutional Neural Networks to deal with these challenges. The proposed structure segments fruit thermal pictures employing Saliency Maps to draw attention to relevant areas. LSTM and GRU models are fused to produce multiscale sets of characteristics, allowing the model to record temporal along with geographic characteristics. A Bacterial Foraging Optimizer (BFO) built around variance maximization retains high-density as well as discriminative features during feature selection. A novel Convolutional XGBoost Network (CXGBN) combines CNN's completely connected layers with XGBoost classifications for enhanced efficiency. On Mango as well as Apple data sets, precision, reliability, as well as recall improved 8.3 %, 4.9 %, and 3.4 %. The model efficiently identified artificially ripened fruits, decreasing classifying delays by 6.5 %. This study presents a novel hybrid framework for spotting prematurely ripened fruits using LSTM-GRU fusion and XGBoost CNN. The proposed model outperforms and scales existing methods by solving inefficiencies and using advanced optimization as well as classification techniques. It will be tested for adaptability to other fruit types and real-time applications using low-complexity feature sets along with advanced methods like Q-Learning as well as Auto Encoders that will enhance dynamical performance.
SmartRipen: LSTM-GRU特征选择和XGBoost-CNN用于水果成熟度检测
人工催熟,通常使用电石进行,加速了这一过程,但损害了水果及其营养价值。发现不自然成熟的水果对食品的质量和安全至关重要,但目前的模型效率低下或过于复杂,特别是对于多种水果品种。长短期记忆(LSTM)和门控循环单元(GRU)提取和特征选择技术结合使用扩展梯度增强(XGBoost)和卷积神经网络来应对这些挑战。所提出的结构段生成热图像,使用显著性图来引起对相关区域的注意。LSTM和GRU模型融合产生多尺度特征集,使模型能够记录时间和地理特征。围绕方差最大化构建的细菌觅食优化器(BFO)在特征选择过程中保留了高密度特征和判别特征。一种新颖的卷积XGBoost网络(CXGBN)将CNN的完全连接层与XGBoost分类相结合,以提高效率。在芒果和苹果的数据集上,准确率、可靠性和召回率分别提高了8.3 %、4.9 %和3.4 %。该模型有效地识别了人工成熟的水果,减少了6.5 %的分类延迟。本研究提出了一种利用LSTM-GRU融合和XGBoost CNN识别早熟水果的新型杂交框架。该模型通过解决低效率问题和使用先进的优化和分类技术,超越并扩展了现有的方法。它将被测试对其他水果类型和实时应用的适应性,使用低复杂性的特征集以及先进的方法,如Q-Learning和自动编码器,将增强动态性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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