Identification of microbial pollution sources in high-humidity buildings based on deep learning and image particle recognition
Abstract The presence of microorganisms in the air poses challenges to the hospital's control, commercial Indoor Air Quality (IAQ), and residential building projects. This work analyzes microbial control agencies for power generation, transmission, and air and proposes engineering control methods for ventilation commonly used to control microbial contamination of indoor air. Mathematical computational models of building ventilation systems are used to study microbial contamination control. Alone, the encompassing first-individual picture can be semantically connected with comparative circumstances before, individual chronicle space, and social design representation. All in all, first-individual recordings permit you to follow regular interests and connections to gatherings of people. It learns to use FPGAs to capture the egocentrism and visual implications of future orbital motor groups. Based on Deep Neural Network (DNN), deep learning architectures have successfully image recognition tasks of microbial particles. These architectures use a cascade of convolutional layers and activation functions. The number of layers for training, the number of neurons in each layer, the selection of activation functions, and the setting of optimization algorithms are significant. DNNs have been used to build cognitive feature extraction implementations and have been reported to achieve good results.
Paper
Full text
Identification of microbial pollution sources in high-humidity buildings based on deep learning and image particle recognition
Semantic Scholar · Environmental Science · 2021
Abstract
Abstract The presence of microorganisms in the air poses challenges to the hospital's control, commercial Indoor Air Quality (IAQ), and residential building projects. This work analyzes microbial control agencies for power generation, transmission, and air and proposes engineering control methods for ventilation commonly used to control microbial contamination of indoor air. Mathematical computational models of building ventilation systems are used to study microbial contamination control. Alone, the encompassing first-individual picture can be semantically connected with comparative circumstances before, individual chronicle space, and social design representation. All in all, first-individual recordings permit you to follow regular interests and connections to gatherings of people. It learns to use FPGAs to capture the egocentrism and visual implications of future orbital motor groups. Based on Deep Neural Network (DNN), deep learning architectures have successfully image recognition tasks of microbial particles. These architectures use a cascade of convolutional layers and activation functions. The number of layers for training, the number of neurons in each layer, the selection of activation functions, and the setting of optimization algorithms are significant. DNNs have been used to build cognitive feature extraction implementations and have been reported to achieve good results.