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임성훈

Lim, Sunghoon
Industrial Intelligence Lab.
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A Multimodal Deep Learning-Based Fault Detection Model for a Plastic Injection Molding Process

Author(s)
Kim, GyeonghoChoi, Jae GyeongKu, MinjooCho, HyewonLim, Sunghoon
Issued Date
2021-09
DOI
10.1109/access.2021.3115665
URI
https://scholarworks.unist.ac.kr/handle/201301/54063
Fulltext
https://ieeexplore.ieee.org/document/9548039
Citation
IEEE ACCESS, v.9, pp.132455 - 132467
Abstract
The authors of this work propose a deep learning-based fault detection model that can be implemented in the field of plastic injection molding. Compared to conventional approaches to fault detection in this domain, recent deep learning approaches prove useful for on-site problems involving complex underlying dynamics with a large number of variables. In addition, the advent of advanced sensors that generate data types in multiple modalities prompts the need for multimodal learning with deep neural networks to detect faults. This process is able to facilitate information from various modalities in an end-to-end learning fashion. The proposed deep learning-based approach opts for an early fusion scheme, in which the low-level feature representations of modalities are combined. A case study involving real-world data, obtained from a car parts company and related to a car window side molding process, validates that the proposed model outperforms late fusion methods and conventional models in solving the problem.
Publisher
IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
ISSN
2169-3536
Keyword (Author)
Fault detectionInjection moldingPlasticsData modelsDeep learningFeature extractionTemperature measurementMachine learningdeep learningmultimodal learningearly fusionindustrial AIplastic injection molding
Keyword
NEAREST-NEIGHBOR RULECONVOLUTIONAL NEURAL-NETWORKSEMOTION RECOGNITIONROTATING MACHINERYDIAGNOSISCLASSIFICATIONPREDICTIONQUALITYSYSTEMREAL

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