CN114723271A - Power transmission project quality detection method and system based on image recognition - Google Patents
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Abstract
本发明提供了一种基于图像识别的输电工程质量检测方法及系统,方法包括无人机起飞后自主飞行,通过扫描输电线路工程获取点云;基于所述点云数据比对训练过的第一识别模型,得到当前点云数据对应的施工进度,调用当前施工进度下对应的预设航线,并获取目标点的图像;根据所述图像中关键点的第二识别模型比对,得到当前输电工程的质量情况。本发明采用无人机作为移动平台,自动采集可见光图像及点云数据,实现施工现场的信息高效获取;通过前端计算单元集成AI技术自动判断工程实体与识别模型的差异性,从而实现输电工程全过程的智慧管理;另外基于现有数据的分析归纳,智能预测后续施工进度。
The invention provides a method and system for detecting the quality of a power transmission project based on image recognition. The method includes autonomous flight after take-off of an unmanned aerial vehicle, and obtaining a point cloud by scanning a power transmission line project; Identify the model, obtain the construction progress corresponding to the current point cloud data, call the preset route corresponding to the current construction progress, and obtain the image of the target point; compare the second identification model of the key points in the image to obtain the current power transmission project quality situation. The invention adopts the UAV as a mobile platform, automatically collects visible light images and point cloud data, and realizes efficient acquisition of information on the construction site; the front-end computing unit integrates AI technology to automatically judge the difference between the engineering entity and the identification model, so as to realize the complete power transmission project. Intelligent management of the process; in addition, based on the analysis and induction of existing data, intelligent prediction of the subsequent construction progress.
Description
技术领域technical field
本发明涉及输电工程质量及进度分析技术领域,尤其是一种基于图像识别的输电工程质量检测方法及系统。The invention relates to the technical field of power transmission project quality and progress analysis, in particular to a power transmission project quality detection method and system based on image recognition.
背景技术Background technique
输电工程建设过程中质量及进度准确监测对于保障工程建设的安全、高效完成至关重要,现阶段使用手段多为人工现场验证,此方法易受环境、人员主观等因素影响,难以反馈真实有效的信息,严重影响相关预测性决策提出。Accurate monitoring of quality and progress during the construction of a power transmission project is crucial to ensuring the safe and efficient completion of the project. At this stage, most of the methods used are manual on-site verification. This method is easily affected by factors such as the environment and personnel subjectivity, and it is difficult to provide real and effective feedback. information, which seriously affects the relevant predictive decision-making.
近些年来,AI技术越来越多出现在人们的日常生活中,自动驾驶、智慧物流等前研科技的应用,在潜移默化改善着人们的生活、工作方式。无人机作为一种高机动性的移动平台,相关应用技术正日益完善。结合边缘计算技术的自动分析功能与无人机的高机动性能,无需人员到达施工现场,即可实现对输电工程进行质量及进度的智慧分析判定,达到远程勘察施工现场的目的。In recent years, AI technology has appeared more and more in people's daily life. The application of advanced technology such as autonomous driving and smart logistics is subtly improving people's life and work style. As a highly maneuverable mobile platform, the related application technology is improving day by day. Combined with the automatic analysis function of edge computing technology and the high maneuverability of UAVs, it is possible to intelligently analyze and determine the quality and progress of power transmission projects without the need for personnel to arrive at the construction site, so as to achieve the purpose of remote surveying the construction site.
发明内容SUMMARY OF THE INVENTION
本发明提供了一种基于图像识别的输电工程质量检测方法及系统,用于解决现有输电工程建设过程中,对工程质量的验证结果不客观的问题。The invention provides a method and system for detecting the quality of a power transmission project based on image recognition, which is used to solve the problem that the verification result of the project quality is not objective in the construction process of the existing power transmission project.
为实现上述目的,本发明采用下述技术方案:To achieve the above object, the present invention adopts the following technical solutions:
本发明第一方面提供了一种基于图像识别的输电工程质量检测方法,所述检测方法包括以下步骤:A first aspect of the present invention provides an image recognition-based power transmission project quality detection method, the detection method comprising the following steps:
无人机起飞后自主飞行,通过扫描输电线路工程获取点云;After the drone takes off, it flies autonomously, and obtains point clouds by scanning the transmission line project;
基于所述点云数据比对训练过的第一识别模型,得到当前点云数据对应的施工进度,调用当前施工进度下对应的预设航线,并获取目标点的图像;Comparing the trained first recognition model based on the point cloud data, obtaining the construction progress corresponding to the current point cloud data, calling the preset route corresponding to the current construction progress, and acquiring the image of the target point;
根据所述图像中关键点的第二识别模型比对,得到当前输电工程的质量情况。According to the second identification model comparison of the key points in the image, the quality of the current power transmission project is obtained.
进一步地,所述第一目标识别模型的训练过程具体为:Further, the training process of the first target recognition model is specifically:
明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的线路杆塔进行点云数据采集,构建点云样本库;Determine the tower type of the transmission line and the milestone nodes in the construction process, collect point cloud data for the line towers under different milestone nodes, and build a point cloud sample library;
对所述点云数据根据施工进度进行分类和标注,得到工程进度数据集;Classify and label the point cloud data according to the construction progress to obtain a project progress data set;
对所述工程进度数据集进行卷积神经网络训练,得到基于工程进度识别的第一识别模型。Convolutional neural network training is performed on the engineering progress data set to obtain a first identification model based on engineering progress identification.
进一步地,所述分类包括基于工期时间阶段的分类,所述标注包括对不同工期塔型的标注。Further, the classification includes classification based on the time period of the construction period, and the labeling includes labeling of tower types in different construction periods.
进一步地,所述预设航线通过不同里程碑节点下的线路杆塔点云数据和目标点位置数据进行规划,得到航线文件。Further, the preset route is planned through the line tower point cloud data and the target point position data under different milestone nodes, and the route file is obtained.
进一步地,所述航线文件、第一识别模型和第二识别模型均部署在无人机上。Further, the route file, the first identification model and the second identification model are all deployed on the UAV.
进一步地,所述第二目标识别模型的训练过程具体为:Further, the training process of the second target recognition model is specifically:
明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的目标点进行图像采集,构建图像样本库;Determine the tower type of the transmission line and the milestone nodes in the construction process, and collect images of the target points under different milestone nodes to build an image sample library;
对图像数据中的关键点进行标注,得到质量判别数据集;Label the key points in the image data to obtain a quality discrimination data set;
对所述质量判别数据集进行卷积神经网络训练,得到基于工程质量识别的第二识别模型。Convolutional neural network training is performed on the quality identification data set to obtain a second identification model based on engineering quality identification.
进一步地,所述对图像数据中的关键点进行标注包括对杆塔基础、塔牌、绝缘子两端挂点、地线挂点的标注。Further, the labeling of the key points in the image data includes labeling of the tower foundation, the tower plate, the hanging points at both ends of the insulator, and the grounding points.
本发明第二方面提供了一种基于图像识别的输电工程质量检测系统,所述系统包括无人机、比对处理单元和质量判别单元,A second aspect of the present invention provides a power transmission project quality detection system based on image recognition, the system includes an unmanned aerial vehicle, a comparison processing unit and a quality discrimination unit,
所述无人机起飞后自主飞行,通过扫描输电线路工程获取点云;The drone flies autonomously after taking off, and obtains point clouds by scanning the transmission line project;
所述比对处理单元,基于所述点云数据比对训练过的第一识别模型,得到当前点云数据对应的施工进度,调用当前施工进度下对应的预设航线,并获取目标点的图像;The comparison processing unit compares the trained first recognition model based on the point cloud data, obtains the construction progress corresponding to the current point cloud data, calls the preset route corresponding to the current construction progress, and obtains the image of the target point ;
所述质量判断单元根据所述图像中关键点的第二识别模型比对,得到当前输电工程的质量情况。The quality judging unit obtains the quality of the current power transmission project according to the second identification model comparison of the key points in the image.
进一步地,所述系统还包括第一模型训练单元,所述第一模型训练单元基于卷积神经网络训练,得到第一识别模型;Further, the system further includes a first model training unit, and the first model training unit is trained based on a convolutional neural network to obtain a first recognition model;
所述第一模型训练单元包括:The first model training unit includes:
第一信息采集子单元,明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的线路杆塔进行点云数据采集,构建点云样本库;The first information collection sub-unit defines the tower type of the transmission line and each milestone node in the construction process, and collects point cloud data for the line towers under different milestone nodes, and builds a point cloud sample library;
第一数据处理子单元,对所述点云数据根据施工进度进行分类和标注,得到工程进度数据集;The first data processing sub-unit classifies and labels the point cloud data according to the construction progress, and obtains a project progress data set;
第一训练子单元,对所述工程进度数据集进行卷积神经网络训练,得到基于工程进度识别的第一识别模型。The first training subunit performs convolutional neural network training on the project progress data set to obtain a first recognition model based on project progress recognition.
进一步地,所述系统还包括第二模型训练单元,所述第二模型训练单元基于卷积神经网络训练,得到第二识别模型;Further, the system further includes a second model training unit, and the second model training unit is trained based on a convolutional neural network to obtain a second recognition model;
所述第二模型训练单元包括:The second model training unit includes:
第二信息采集子单元,明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的目标点进行图像采集,构建图像样本库;The second information collection sub-unit defines the tower type of the transmission line and each milestone node in the construction process, and collects images of target points under different milestone nodes to build an image sample library;
第二数据处理子单元,对图像数据中的关键点进行标注,得到质量判别数据集;The second data processing sub-unit marks key points in the image data to obtain a quality discrimination data set;
第二训练子单元,对所述质量判别数据集进行卷积神经网络训练,得到基于工程质量识别的第二识别模型。The second training subunit performs convolutional neural network training on the quality identification data set to obtain a second identification model based on engineering quality identification.
本发明第二方面的所述输电工程质量检测系统能够实现第一方面及第一方面的各实现方式中的方法,并取得相同的效果。The power transmission engineering quality detection system of the second aspect of the present invention can implement the methods in the first aspect and the implementation manners of the first aspect, and achieve the same effect.
发明内容中提供的效果仅仅是实施例的效果,而不是发明所有的全部效果,上述技术方案中的一个技术方案具有如下优点或有益效果:The effects provided in the summary of the invention are only the effects of the embodiments, rather than all the effects of the invention. One of the above technical solutions has the following advantages or beneficial effects:
本发明采用无人机作为移动平台,自动采集可见光图像及点云数据,实现施工现场的信息高效获取;通过前端计算单元集成AI技术自动判断工程实体与识别模型的差异性,从而实现输电工程全过程的智慧管理;另外基于现有数据的分析归纳,智能预测后续施工进度,相比于现有技术中人工检测的方式结果更加客观、准确,并对施工过程中的违规行为及缺陷问题识别报警,为输电线路工程质检人员带来便利。The invention adopts the UAV as a mobile platform, automatically collects visible light images and point cloud data, and realizes efficient acquisition of information on the construction site; the front-end computing unit integrates AI technology to automatically judge the difference between the engineering entity and the identification model, so as to realize the complete power transmission project. Intelligent management of the process; in addition, based on the analysis and induction of existing data, intelligently predict the subsequent construction progress, which is more objective and accurate than the manual detection method in the existing technology, and identifies and alarms irregularities and defects in the construction process. , to bring convenience to the quality inspection personnel of transmission line engineering.
附图说明Description of drawings
为了更清楚地说明本发明实施例或现有技术中的技术方案,下面将对实施例或现有技术描述中所需要使用的附图作简单地介绍,显而易见地,对于本领域普通技术人员而言,在不付出创造性劳动的前提下,还可以根据这些附图获得其他的附图。In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the accompanying drawings that need to be used in the description of the embodiments or the prior art. In other words, other drawings can also be obtained based on these drawings without creative labor.
图1是本发明所述方法实施例的流程示意图;1 is a schematic flowchart of a method embodiment of the present invention;
图2是本发明所述方式实施例的其一具体实现方式的流程示意图;2 is a schematic flowchart of a specific implementation of the embodiment of the present invention;
图3是本发明所述方法实施例中神经网络模型的训练流程示意图;Fig. 3 is the training flow schematic diagram of the neural network model in the method embodiment of the present invention;
图4是本发明所述系统实施例的结构示意图。FIG. 4 is a schematic structural diagram of an embodiment of the system according to the present invention.
具体实施方式Detailed ways
为能清楚说明本方案的技术特点,下面通过具体实施方式,并结合其附图,对本发明进行详细阐述。下文的公开提供了许多不同的实施例或例子用来实现本发明的不同结构。为了简化本发明的公开,下文中对特定例子的部件和设置进行描述。此外,本发明可以在不同例子中重复参考数字和/或字母。这种重复是为了简化和清楚的目的,其本身不指示所讨论各种实施例和/或设置之间的关系。应当注意,在附图中所图示的部件不一定按比例绘制。本发明省略了对公知组件和处理技术及工艺的描述以避免不必要地限制本发明。In order to clearly illustrate the technical features of the solution, the present invention will be described in detail below through specific embodiments and in conjunction with the accompanying drawings. The following disclosure provides many different embodiments or examples for implementing different structures of the present invention. In order to simplify the disclosure of the present invention, the components and arrangements of specific examples are described below. Furthermore, the present invention may repeat reference numerals and/or letters in different instances. This repetition is for the purpose of simplicity and clarity and does not in itself indicate a relationship between the various embodiments and/or arrangements discussed. It should be noted that the components illustrated in the figures are not necessarily drawn to scale. Descriptions of well-known components and processing techniques and processes are omitted from the present invention to avoid unnecessarily limiting the present invention.
如图1所示,本发明实施例提供了一种基于图像识别的输电工程质量检测方法,所述检测方法包括以下步骤:As shown in FIG. 1 , an embodiment of the present invention provides a method for detecting the quality of a power transmission project based on image recognition. The detecting method includes the following steps:
S1,无人机起飞后自主飞行,通过扫描输电线路工程获取点云;S1, the drone flies autonomously after taking off, and obtains the point cloud by scanning the transmission line project;
S2,基于所述点云数据比对训练过的第一识别模型,得到当前点云数据对应的施工进度,调用当前施工进度下对应的预设航线,并获取目标点的图像;S2, compare the trained first recognition model based on the point cloud data, obtain the construction progress corresponding to the current point cloud data, call the preset route corresponding to the current construction progress, and obtain the image of the target point;
S3,根据所述图像中关键点的第二识别模型比对,得到当前输电工程的质量情况。S3, according to the second identification model comparison of the key points in the image, to obtain the quality situation of the current power transmission project.
如图2所示,无人机起飞并自主飞至在建线路上方,无人机通过机载LiDAR扫描当前杆塔点云,机载AI计算模块基于第一识别模型对施工进度进行分析判断,得到对应的施工进度,记载AI计算模块调取适合当前施工进度的航线进行巡检拍摄,机载AI计算模块基于第二识别模型对施工质量进行分析判断,将施工进度和质量报告输出,完成任务后无人机返航。As shown in Figure 2, the UAV takes off and autonomously flies above the line under construction. The UAV scans the current tower point cloud through the airborne LiDAR, and the airborne AI computing module analyzes and judges the construction progress based on the first recognition model, and obtains Corresponding construction progress, record the AI calculation module to call the route suitable for the current construction progress for inspection and shooting. The airborne AI calculation module analyzes and judges the construction quality based on the second identification model, and outputs the construction progress and quality report. After completing the task The drone returns.
如图3所示,第一识别模型和第二识别模型的训练思路相近,具体为明确输电线路塔型和建设过程中里程碑节点,获取该里程碑节点下的线路杆塔点云和关键点图像数据,基于图像数据根据各里程碑节点下的点云进行航线规划并获取航线文件,且基于图像数据对点云和图像进行标注及训练并获取模型,将模型和航线部署于记载AI模块上。As shown in Figure 3, the training ideas of the first recognition model and the second recognition model are similar, specifically, the tower type of the transmission line and the milestone node in the construction process are defined, and the point cloud and key point image data of the line tower under the milestone node are obtained. Based on the image data, the route planning is carried out according to the point cloud under each milestone node, and the route file is obtained, and the point cloud and image are marked and trained based on the image data, and the model is obtained, and the model and route are deployed on the recording AI module.
具体来说,所述第一目标识别模型的训练过程具体为:Specifically, the training process of the first target recognition model is as follows:
明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的线路杆塔进行LiDAR点云数据采集,构建点云样本库,要求点云数据精度良好;Determine the tower type of the transmission line and each milestone node in the construction process, collect LiDAR point cloud data for the line towers under different milestone nodes, and build a point cloud sample library, which requires good point cloud data accuracy;
对所述点云数据根据施工进度进行分类和标注,得到工程进度数据集,所述分类包括基于工期时间阶段的分类,所述标注包括对不同工期塔型的标注;Classifying and labeling the point cloud data according to the construction progress, to obtain a project progress data set, the classification includes classification based on the time stage of the construction period, and the labeling includes the labeling of tower types in different construction periods;
对所述工程进度数据集进行卷积神经网络训练,得到基于工程进度识别的第一识别模型。模型的训练采用YOLO V5算法进行训练。Convolutional neural network training is performed on the engineering progress data set to obtain a first identification model based on engineering progress identification. The training of the model is performed using the YOLO V5 algorithm.
预设航线通过不同里程碑节点下的线路杆塔点云数据和目标点位置数据进行规划,得到航线文件。The preset route is planned through the line tower point cloud data and target point position data under different milestone nodes, and the route file is obtained.
所述航线文件、第一识别模型和第二识别模型均部署在无人机的AI模块上。The route file, the first recognition model and the second recognition model are all deployed on the AI module of the UAV.
航线文件中的航线规划基于施工进度设置,例如在杆塔刚开始建设地基时,只需要拍摄塔脚处是否合规,飞机可以在线路通道上方进行变焦拍摄,不需要降低高度,从而保证安全。例如杆塔竣工后,需要对金具挂点进行拍摄,此时航线策略变为精细化巡检,需要在线路两侧对挂点进行拍摄,此时也可采用变焦拍摄方式,实现单机位多角度拍摄,避免飞机飞入塔床引发事故。The route planning in the route file is based on the construction progress settings. For example, when the tower is just starting to build the foundation, it is only necessary to photograph whether the tower foot is compliant, and the aircraft can zoom and shoot above the route channel without lowering the height to ensure safety. For example, after the completion of the tower, it is necessary to take pictures of the hardware hanging points. At this time, the route strategy becomes a refined inspection, and the hanging points need to be taken on both sides of the line. At this time, the zoom shooting method can also be used to achieve single-camera multi-angle shooting. , to avoid the accident caused by the plane flying into the tower bed.
AI模块依赖于AI计算模块硬件,例如大疆的妙算、图为科技的图为智盒等,但应用于图像分析计算可采用GPU核心的AI计算模块。The AI module relies on the hardware of the AI computing module, such as DJI's Magic Calculation, the picture of the technology picture is the smart box, etc., but the AI computing module with the GPU core can be used for image analysis and calculation.
所述第二目标识别模型的训练过程具体为:The training process of the second target recognition model is specifically:
明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的目标点进行图像采集,构建图像样本库,要求图像清晰并与实际应用时分辨率一致;The tower type of the transmission line and the milestone nodes in the construction process are defined, and images are collected for the target points under different milestone nodes to build an image sample library. The images are required to be clear and consistent with the resolution of the actual application;
对图像数据中的关键点进行标注,得到质量判别数据集,所述对图像数据中的关键点进行标注包括对杆塔基础、塔牌、绝缘子两端挂点、地线挂点的标注;Marking the key points in the image data to obtain a quality discrimination data set, the marking of the key points in the image data includes marking the tower foundation, the tower plate, the hanging points at both ends of the insulator, and the grounding point;
对所述质量判别数据集进行卷积神经网络训练,得到基于工程质量识别的第二识别模型。Convolutional neural network training is performed on the quality identification data set to obtain a second identification model based on engineering quality identification.
如图4所示,本发明实施例还提供了一种基于图像识别的输电工程质量检测系统,所述系统包括无人机1、比对处理单元2和质量判别单元3。As shown in FIG. 4 , an embodiment of the present invention further provides a power transmission project quality detection system based on image recognition, the system includes an unmanned
所述无人机1起飞后自主飞行,通过扫描输电线路工程获取点云;所述比对处理单元2基于所述点云数据比对训练过的第一识别模型,得到当前点云数据对应的施工进度,调用当前施工进度下对应的预设航线,并获取目标点的图像;所述质量判断单元3根据所述图像中关键点的第二识别模型比对,得到当前输电工程的质量情况。The unmanned
所述系统还包括第一模型训练单元4,所述第一模型训练单元基于卷积神经网络训练,得到第一识别模型;The system also includes a first model training unit 4, the first model training unit is trained based on a convolutional neural network to obtain a first recognition model;
所述第一模型训练单元4包括第一信息采集子单元41、第一数据处理子单元42和第一训练子单元43。The first model training unit 4 includes a first
第一信息采集子单元41明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的线路杆塔进行点云数据采集,构建点云样本库;第一数据处理子单元42对所述点云数据根据施工进度进行分类和标注,得到工程进度数据集;第一训练子单元43对所述工程进度数据集进行卷积神经网络训练,得到基于工程进度识别的第一识别模型。The first
所述系统还包括第二模型训练单元5,所述第二模型训练单元基于卷积神经网络训练,得到第二识别模型;The system further includes a second
所述第二模型训练单元5包括第二信息采集子单元51、第二数据处理子单元52和第二训练子单元53。The second
第二信息采集子单元51明确输电线路的塔型和建设过程中的各里程碑节点,并对不同里程碑节点下的目标点进行图像采集,构建图像样本库;第二数据处理子单元52对图像数据中的关键点进行标注,得到质量判别数据集;第二训练子单元53对所述质量判别数据集进行卷积神经网络训练,得到基于工程质量识别的第二识别模型。The second
上述虽然结合附图对本发明的具体实施方式进行了描述,但并非对本发明保护范围的限制,所属领域技术人员应该明白,在本发明的技术方案的基础上,本领域技术人员不需要付出创造性劳动即可做出的各种修改或变形仍在本发明的保护范围以内。Although the specific embodiments of the present invention have been described above in conjunction with the accompanying drawings, they do not limit the scope of protection of the present invention. Those skilled in the art should understand that on the basis of the technical solutions of the present invention, those skilled in the art do not need to pay creative work. Various modifications or deformations that can be made are still within the protection scope of the present invention.
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CN115660262A (en) * | 2022-12-29 | 2023-01-31 | 网思科技股份有限公司 | Intelligent engineering quality inspection method, system and medium based on database application |
CN116797406A (en) * | 2023-06-29 | 2023-09-22 | 华腾建信科技有限公司 | Engineering data processing method and system capable of automatically generating visual progress |
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Publication number | Priority date | Publication date | Assignee | Title |
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CN115660262A (en) * | 2022-12-29 | 2023-01-31 | 网思科技股份有限公司 | Intelligent engineering quality inspection method, system and medium based on database application |
CN116797406A (en) * | 2023-06-29 | 2023-09-22 | 华腾建信科技有限公司 | Engineering data processing method and system capable of automatically generating visual progress |
CN116962649A (en) * | 2023-09-19 | 2023-10-27 | 安徽送变电工程有限公司 | Image monitoring and adjustment system and line construction model |
CN116962649B (en) * | 2023-09-19 | 2024-01-09 | 安徽送变电工程有限公司 | Image monitoring and adjustment system and line construction model |
CN117710781A (en) * | 2023-11-23 | 2024-03-15 | 国网湖北省电力有限公司超高压公司 | Edge intelligent fusion terminal device for detecting hidden danger of external broken power transmission channel |
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