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    딥러닝 예측 결과 정보를 적용하는 복합 미생물배양기를 위한 딥러닝 구조 개발 = Development of deep learning structure for complex microbial incubator applying deep learning prediction result information

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    https://www.riss.kr/link?id=A108541144

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    In this paper, we develop a deep learning structure for a complex microbial incubator that applies deep learning prediction result information. The proposed complex microbial incubator consists of pre-processing of complex microbial data, conversion of complex microbial data structure, design of deep learning network, learning of the designed deep learning network, and GUI development applied to the prototype. In the complex microbial data preprocessing, one-hot encoding is performed on the amount of molasses, nutrients, plant extract, salt, etc. required for microbial culture, and the maximum-minimum normalization method for the pH concentration measured as a result of the culture and the number of microbial cells to preprocess the data. In the complex microbial data structure conversion, the preprocessed data is converted into a graph structure by connecting the water temperature and the number of microbial cells, and then expressed as an adjacency matrix and attribute information to be used as input data for a deep learning network. In deep learning network design, complex microbial data is learned by designing a graph convolutional network specialized for graph structures. The designed deep learning network uses a cosine loss function to proceed with learning in the direction of minimizing the error that occurs during learning. GUI development applied to the prototype shows the target pH concentration (3.8 or less) and the number of cells (10⁸ or more) of complex microorganisms in an order suitable for culturing according to the water temperature selected by the user. In order to evaluate the performance of the proposed microbial incubator, the results of experiments conducted by authorized testing institutes showed that the average pH was 3.7 and the number of cells of complex microorganisms was 1.7 × 10⁸. Therefore, the effectiveness of the deep learning structure for the complex microbial incubator applying the deep learning prediction result information proposed in this paper was proven.
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    In this paper, we develop a deep learning structure for a complex microbial incubator that applies deep learning prediction result information. The proposed complex microbial incubator consists of pre-processing of complex microbial data, conversion o...

    In this paper, we develop a deep learning structure for a complex microbial incubator that applies deep learning prediction result information. The proposed complex microbial incubator consists of pre-processing of complex microbial data, conversion of complex microbial data structure, design of deep learning network, learning of the designed deep learning network, and GUI development applied to the prototype. In the complex microbial data preprocessing, one-hot encoding is performed on the amount of molasses, nutrients, plant extract, salt, etc. required for microbial culture, and the maximum-minimum normalization method for the pH concentration measured as a result of the culture and the number of microbial cells to preprocess the data. In the complex microbial data structure conversion, the preprocessed data is converted into a graph structure by connecting the water temperature and the number of microbial cells, and then expressed as an adjacency matrix and attribute information to be used as input data for a deep learning network. In deep learning network design, complex microbial data is learned by designing a graph convolutional network specialized for graph structures. The designed deep learning network uses a cosine loss function to proceed with learning in the direction of minimizing the error that occurs during learning. GUI development applied to the prototype shows the target pH concentration (3.8 or less) and the number of cells (10⁸ or more) of complex microorganisms in an order suitable for culturing according to the water temperature selected by the user. In order to evaluate the performance of the proposed microbial incubator, the results of experiments conducted by authorized testing institutes showed that the average pH was 3.7 and the number of cells of complex microorganisms was 1.7 × 10⁸. Therefore, the effectiveness of the deep learning structure for the complex microbial incubator applying the deep learning prediction result information proposed in this paper was proven.

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    참고문헌 (Reference)

    1 Kim, C. M., "The effect of feed additives that enhance the activity of intestinal microorganisms on the reduction of ammonia generated from pig manure slurry" The Korean Environmental Sciences Society 2020

    2 Kipf, Thomas N., "Semisupervised classification with graph convolutional networks"

    3 Barz, Bjorn, "Deep learning on small datasets without pre-training using cosine loss" 2020

    4 Rodríguez, Pau, "Beyond one-hot encoding:Lower dimensional target embedding" 75 : 21-31, 2018

    5 Ioffe, Sergey, "Batch normalization: Accelerating deep network training by reducing internal covariate shift" 2015

    1 Kim, C. M., "The effect of feed additives that enhance the activity of intestinal microorganisms on the reduction of ammonia generated from pig manure slurry" The Korean Environmental Sciences Society 2020

    2 Kipf, Thomas N., "Semisupervised classification with graph convolutional networks"

    3 Barz, Bjorn, "Deep learning on small datasets without pre-training using cosine loss" 2020

    4 Rodríguez, Pau, "Beyond one-hot encoding:Lower dimensional target embedding" 75 : 21-31, 2018

    5 Ioffe, Sergey, "Batch normalization: Accelerating deep network training by reducing internal covariate shift" 2015

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