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Modeling and simulation of co-digestion performance with artificial neural network for prediction of methane production from tea factory waste with co-substrate of spent tea waste

机译:与人工神经网络与人工神经网络共消化性能的建模与仿真,用茶叶废弃物生产茶叶厂废弃物甲烷生产预测

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The production of biofuel from waste has become an important topic for waste management and reducing its environmental hazard. Tea factory waste is a strong candidate due to its availability and sourceability. This study aimed to reveal the biochemical methane potential (BMP) of tea factory waste (TFW) and spent tea waste (STW). Additionally, the results revealed that both substrates had high biodegradability due to high VS removal. The BMP tests took 49 days under mesophilic conditions with a batch reactor and the cumulative methane yields were 249 +/- 3, and 261 +/- 8 mL CH4/g VS for TFW and STW, respectively. According to prediction data with the selected ANN model, which was 50 hidden layer sizes, trained with Bayesian Regularization algorithm, the maximum cumulative specific methane yield of the co-digestion was simulated as 468.43 mL CH4/g VS when the ratio of 65 and 35% (w/w by VS) of TFW and STW, respectively. The predicted methane yield for co-substrates was 183% higher than mono substrates. This result revealed that TFW can be a good candidate for biogas production as biofuel for not only its availability and sourceability but also the synergistic effect possible for codigestion.
机译:从废物中生产生物燃料已成为废物管理和减少环境危害的重要课题。由于其可用性和源可利用,茶厂废物是一个强大的候选人。本研究旨在揭示茶厂垃圾(TFW)的生化甲烷潜力(BMP)和花茶废物(STW)。另外,结果表明,由于高Vs去除,两个基材的生物降解性高。 BMP试验在具有批量反应器的嗜合性条件下进行49天,累积甲烷产率分别为249 +/- 3和261 +/- 8ml CH4 / g Vs,用于TFW和STW。根据采用所选择的ANN模型的预测数据,这是50个隐藏层尺寸,随着贝叶斯正则化算法训练,当比率为65和35时,将共消化的最大累积特异性甲烷产量模拟为468.43ml CH4 / g vs分别为TFW和STW的%(w / w vs)。对共衬底的预测甲烷产率高于单衬底的183%。这一结果表明,TFW可以是沼气生产的良好候选者,因为它不仅是其可用性和源性的生物燃料,而且可以是如何对角色的协同效应。

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