CN112329870A - Method for identifying state of transformer substation pressure plate based on YOLO3 algorithm - Google Patents

Method for identifying state of transformer substation pressure plate based on YOLO3 algorithm Download PDF

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CN112329870A
CN112329870A CN202011252600.9A CN202011252600A CN112329870A CN 112329870 A CN112329870 A CN 112329870A CN 202011252600 A CN202011252600 A CN 202011252600A CN 112329870 A CN112329870 A CN 112329870A
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yolo3
model
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images
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王世文
杨昕
宋建光
单金灿
李凯
贾志渊
崔海青
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State Grid Corp of China SGCC
Weihai Power Supply Co of State Grid Shandong Electric Power Co Ltd
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State Grid Corp of China SGCC
Weihai Power Supply Co of State Grid Shandong Electric Power Co Ltd
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Abstract

The invention provides a method for identifying the state of a transformer substation pressure plate based on a YOLO3 algorithm, which comprises the following steps: collecting image information, labeling a training set, model training, model prediction and identifying the state of a pressing plate of an image containing the pressing plate by using a training qualified YOLO3 model. According to the transformer substation pressure plate state identification method based on the YOLO3 algorithm, the YOLO3 algorithm in the current deep learning is utilized, and the transformer substation pressure plate state in the collected video and photo can be accurately identified.

Description

Method for identifying state of transformer substation pressure plate based on YOLO3 algorithm
Technical Field
The invention relates to the technical field of power grids, in particular to a transformer substation pressure plate state identification method based on a YOLO3 algorithm.
Background
With the rapid development of computer technology and communication technology, various devices in a transformer substation tend to be intelligentized, and as the automation level of the transformer substation is gradually improved and gradually develops to an unattended mode, higher requirements are provided for the reliability and stability of the intelligentization of primary devices and secondary devices. Along with the rapid development of various levels of power grids of national grid companies, the number of transformer substations is gradually increased, and higher requirements are put forward for fixed operation and maintenance personnel.
Operation and maintenance personnel need to execute a large amount of switching operations for each transformer substation during autumn inspection and spring inspection, and multiple operations are needed for switching on and off of pressing plates on a protection screen of the transformer substation. Once a certain pressure plate is dropped or dropped by mistake, huge hidden dangers are buried in the subsequent operation of the corresponding protection device, so that the protection device is rejected or mistakenly operated at a critical moment, and the personnel, the power grid and the equipment are greatly influenced. The current transformer substation pressure plate is not only manually checked, but also checked by a transformer substation inspection robot. The transformer substation inspection robot mainly carries out pressing plate inspection through mode identification, the mode identification needs fixed-point shooting, the identification method is completely compared through a fixed mode manually input in advance, the requirement on identification positions is high, and the universality is not realized on the pressing plate identification of different types of various manufacturers. Therefore, how to further reduce the possible misjudgment of the traditional manual detection and identification and the harsh conditions of the pattern identification becomes a problem to be solved.
In recent years, deep learning and machine learning become increasingly hot, and computer vision recognition algorithms (such as YOLO 3) are more and more diversified. The YOLO3 algorithm directly predicts the object boundary and the class probability by adopting a neural network to realize end-to-end object detection, so that the identification of the transformer substation pressure plate state by utilizing the YOLO3 algorithm in deep learning becomes possible.
Disclosure of Invention
In order to solve the problems in the prior art, the method for identifying the state of the transformer substation pressure plate based on the YOLO3 algorithm is provided, and the method can accurately identify the state of the transformer substation pressure plate in the collected video and photo by using the YOLO3 algorithm in the current deep learning.
In order to achieve the above purpose, the present application provides a transformer substation pressure plate state identification method based on the YOLO3 algorithm, including the following steps:
step 1, collecting image information: collecting videos and photos related to a pressing plate in a transformer substation, wherein each video corresponds to a plurality of frames of images, and adjusting the resolution of each image corresponding to the collected videos and photos to enable the resolution of each image to be uniform;
step 2, marking a training set: dividing each image with unified resolution in the step 1 into two parts according to a mutual exclusion principle, manually marking the pressing plate state of one part of the image, manually marking the pressing plate state as 'input', 'stop using' or 'release' according to the actual state of the pressing plate in the image, and using the part of the image as a training set; the other part of the image is not marked and is used as a test set;
step 3, model training: dividing the images in the training set into n batches randomly, wherein n is more than or equal to 2 and less than or equal to 5, and n is an integer, inputting the first batch of images into a YOLO3 model to train a YOLO3 model, repeating the training for m times, wherein m is more than or equal to 5 and less than or equal to 8, and m is an integer, so that the first batch of images are used for m-round training of the YOLO3 model, then inputting the second batch of images into a YOLO3 model to train the YOLO3 model, repeating the training for m times, so as to perform m-round training of the YOLO3 model through the second batch of images, and repeating the training for m times until the Nth batch of images are used for m-round training of the YOLO3 model;
step 4, model prediction: after the training of the YOLO3 model is completed, all images in the test set are used as input, and the training effect of the YOLO3 model is detected; if the state recognition accuracy of the pressing plate in each test set image is greater than 90%, the training of the YOLO3 model is qualified; otherwise, repeating the step 3, randomly dividing the images in the training set into n batches again, and continuing training the YOLO3 model until the training of the YOLO3 model is qualified;
and 5, identifying the state of the pressure plate of the image containing the pressure plate by using the YOLO3 model qualified in training.
In some embodiments, in step 1, the resolution of each image is uniformly adjusted to 1024 × 768.
In some embodiments, in step 2, the images with uniform resolution in step 1 are divided according to a mutual exclusion principle at a preset ratio, where the preset ratio is divided according to a ratio of 70% and 30%.
The transformer substation pressure plate state identification method based on the YOLO3 algorithm has the advantages that the YOLO3 algorithm in current deep learning is utilized, and the transformer substation pressure plate state in the collected videos and pictures can be accurately identified.
Detailed Description
The following further describes embodiments of the present application.
The method for identifying the state of the transformer substation pressure plate based on the YOLO3 algorithm comprises the following steps:
step 1, collecting image information: collecting videos and photos related to a pressure plate in a transformer substation, wherein each video corresponds to a plurality of frames of images, and adjusting the resolution of each image corresponding to the collected videos and photos to make the resolution of each image uniform, for example, uniformly adjusting the resolution to 1024 × 768, so as to facilitate the processing of subsequent steps.
Step 2, marking a training set: dividing each image with unified resolution in the step 1 into two parts according to a mutual exclusion principle, for example, dividing the image according to a ratio of 70% to 30%; marking a part of images of the images as the pressing plate state manually, marking the part of images as 'input', 'stop' or 'release' manually according to the actual state of the pressing plate in the images, and using the part of images as a training set; and (4) using the other part of image as a test set without any mark.
Step 3, model training: the images in the training set are divided into n batches randomly, wherein n is more than or equal to 2 and less than or equal to 5, and n is an integer, the first batch of images are input into a YOLO3 model to train a YOLO3 model, the training is repeated for m times, m is more than or equal to 5 and less than or equal to 8, and m is an integer, so that the first batch of images are used for performing m-round training on the YOLO3 model, then the second batch of images are input into a YOLO3 model to train the YOLO3 model, the training is repeated for m times, so that the second batch of images are used for performing m-round training on the YOLO3 model, and the rest is done until the n-th batch of images are used for performing m-round training on the YOLO3 model.
Step 4, model prediction: after the training of the YOLO3 model is completed, all images in the test set are used as input, and the training effect of the YOLO3 model is detected; if the state recognition accuracy of the pressing plate in each test set image is greater than 90%, the training of the YOLO3 model is qualified; otherwise, repeating the step 3, dividing the images in the training set into n batches randomly again, and continuing training the YoLO3 model until the training of the YoLO3 model is qualified.
And 5, identifying the state of the pressure plate of the image containing the pressure plate by using the YOLO3 model qualified in training.
According to the transformer substation pressure plate state identification method based on the YOLO3 algorithm, the pressure plate state of the transformer substation in the collected video and photo can be accurately identified by using the YOLO3 algorithm in the current deep learning. The method has the following advantages: (1) the method innovatively uses a deep learning technology, and realizes target detection through a YOLO3 algorithm; (2) the identification method can be used for detecting the following video in real time, and the detection rate per second can reach 60 frames; (3) the running program has no harsh requirements on hardware, and a common PC can run easily.

Claims (3)

1. A transformer substation pressure plate state identification method based on a YOLO3 algorithm is characterized in that: the method comprises the following steps:
step 1, collecting image information: collecting videos and photos related to a pressing plate in a transformer substation, wherein each video corresponds to a plurality of frames of images, and adjusting the resolution of each image corresponding to the collected videos and photos to enable the resolution of each image to be uniform;
step 2, marking a training set: dividing each image with unified resolution in the step 1 into two parts according to a mutual exclusion principle, manually marking the pressing plate state of one part of the image, manually marking the pressing plate state as 'input', 'stop using' or 'release' according to the actual state of the pressing plate in the image, and using the part of the image as a training set; the other part of the image is not marked and is used as a test set;
step 3, model training: dividing the images in the training set into n batches randomly, wherein n is more than or equal to 2 and less than or equal to 5, and n is an integer, inputting the first batch of images into a YOLO3 model to train a YOLO3 model, repeating the training for m times, wherein m is more than or equal to 5 and less than or equal to 8, and m is an integer, so that the first batch of images are used for m-round training of the YOLO3 model, then inputting the second batch of images into a YOLO3 model to train the YOLO3 model, repeating the training for m times, so as to perform m-round training of the YOLO3 model through the second batch of images, and repeating the training for m times until the Nth batch of images are used for m-round training of the YOLO3 model;
step 4, model prediction: after the training of the YOLO3 model is completed, all images in the test set are used as input, and the training effect of the YOLO3 model is detected; if the state recognition accuracy of the pressing plate in each test set image is greater than 90%, the training of the YOLO3 model is qualified; otherwise, repeating the step 3, randomly dividing the images in the training set into n batches again, and continuing training the YOLO3 model until the training of the YOLO3 model is qualified;
and 5, identifying the state of the pressure plate of the image containing the pressure plate by using the YOLO3 model qualified in training.
2. The method for identifying the state of a substation pressure plate based on the YOLO3 algorithm according to claim 1, wherein the method comprises the following steps: in step 1, the resolution of each image is uniformly adjusted to 1024 × 768.
3. The method for identifying the state of a substation pressure plate based on the YOLO3 algorithm according to claim 1, wherein the method comprises the following steps: in step 2, dividing each image with unified resolution in step 1 according to a mutual exclusion principle at a preset ratio, wherein the preset ratio is divided according to a ratio of 70% and 30%.
CN202011252600.9A 2020-11-11 2020-11-11 Method for identifying state of transformer substation pressure plate based on YOLO3 algorithm Pending CN112329870A (en)

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Application publication date: 20210205