Data Recognition for Multi-Source Heterogeneous Experimental Detection in Cloud Edge Collaboratives

Data Recognition for Multi-Source Heterogeneous Experimental Detection in Cloud Edge Collaboratives

Yang Yubo (China Electric Power Research Institute, China), Meng Jing (China Electric Power Research Institute, China), Duan Xiaomeng (China Electric Power Research Institute, China), Bai Jingfen (China Electric Power Research Institute, China), and Jin Yang (State Grid Beijing Electric Power Company, China)
DOI: 10.4018/IJITSA.330986
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Abstract

This article proposes a multisource heterogeneous experimental data recognition method based on CRNN and DBNet in a cloud-edge collaborative environment in an attempt to address the issues of low efficiency and a high error rate that come with traditional manual data detection and recognition. Firstly, a recognition architecture for experimental detection data of intelligent measurement systems is designed based on a cloud-edge collaborative environment to improve the efficiency of data processing. Then, the improved DBNet network is used in the edge computing center to detect the text, and the correction module is used to correct the deviation of the detected text to ensure the standardization of the text. Finally, in the central cloud, the end-to-end indefinite length character recognition (CRNN) algorithm is used to analyze and identify the text order, rules, and other information of the image after the correction is completed, extract the test detection data, and convert the detection data into row data according to the two-dimensional table structure, and conduct structured storage and management through the relational database. An experimental analysis of the proposed method is conducted based on the deep learning framework, and results show that its accuracy rate and recall rate are close to 96% and 94%, respectively, with an average accuracy of 95.09%. This fully demonstrates the proposed method is effective and, therefore, applicable to power equipment experimental detection data recognition.
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Introduction

State Grid Corporation of China proposed the “Three-year Action Plan for Lean Operation of Measurement Assets” in 2021 to strengthen research on measurement data. With measurement data management as the focus, the action plan aims to achieve the processing, storage, transmission, exchange, and management activities of measurement data, to excel in the entire process control and management supervision of measurement data, to accelerate the transformation from traditional measurement models to information models, to provide timely and accurate feedback and verification mechanisms for measurement data, and to utilize the advantages of measurement data in testing and inspection (Wang et al., 2021b). Currently, State Grid Corporation of China has in place a three-level measurement system consisting of the State Grid Measurement Center, Provincial Marketing Service Center (Measurement Center), and county-level measurement institutions. The company's existing professional laboratories at all levels carry out the company's inspection, testing, verification, and calibration services, providing quality supervision services for the company and society (He & Su, 2021).

However, the technology and management elements of the measurement system in State Grid Corporation of China are disconnected from the actual measurement work, and there is a lack of information and intelligent data fusion methods for system control. The company's power measurement on-site and laboratory testing and detection business is mainly faced with the problems such as the low automation level of experimental equipment, high degree of isomerization of sensor transmission signals, low level of resource management and sharing, and low level of intelligence (Wang & Feng, 2021; Candra et al., 2021). The detection business has not been effectively coordinated, with problems such as low collection efficiency, high error rate, and data silos in the detection data. The analysis and extraction of key information from most experimental detection data still largely rely on manual labor. The low efficiency in data acquisition, high data dispersion, and the difficulty in ensuring data accuracy directly result in insufficient support for efficient business development from experimental detection data. Patrol, live detection, equipment operation, and other data are mostly in a discrete state, with the problem of duplicate entry, increasing business workload, and other information. The level of laboratory resources and data sharing is low, and a large amount of testing data have not been effectively integrated and applied (Ma et al., 2021a; Khalil et al., 2021).

We propose a differentiable binarization network (DBNet)- and convolutional recurrent neural network (CRNN)-based data recognition method for multisource heterogeneous experimental detection in a cloud-edge collaborative environment to address the issue of inaccurate extraction and recognition of measurement experimental detection data using deep learning networks. Compared with the traditional methods, the innovation of the proposed method lies in:

  • 1.

    To overcome the high error rate common to most existing text detection methods, the proposed method utilizes a DBNet network with high detection performance for experimental text detection and uses Dual Path Networks (DPN68) for optimization, which significantly enhance the detection accuracy.

  • 2.

    Considering that text data recognition mostly relies on manual labor and has low accuracy, the proposed method designs an improved CRNN algorithm for text data recognition, which can further improve the reliability of recognition through a multihead attention mechanism.

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