WO2024066129A1 - Fault locating platform based on facial feature analysis - Google Patents

Fault locating platform based on facial feature analysis Download PDF

Info

Publication number
WO2024066129A1
WO2024066129A1 PCT/CN2023/070625 CN2023070625W WO2024066129A1 WO 2024066129 A1 WO2024066129 A1 WO 2024066129A1 CN 2023070625 W CN2023070625 W CN 2023070625W WO 2024066129 A1 WO2024066129 A1 WO 2024066129A1
Authority
WO
WIPO (PCT)
Prior art keywords
value
shutter speed
collected
iso
camera mechanism
Prior art date
Application number
PCT/CN2023/070625
Other languages
French (fr)
Chinese (zh)
Inventor
郑潇寒
Original Assignee
郑潇寒
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN202211189891.0A external-priority patent/CN115623164A/en
Priority claimed from CN202211225266.7A external-priority patent/CN115526511A/en
Priority claimed from CN202211264910.1A external-priority patent/CN115565230A/en
Application filed by 郑潇寒 filed Critical 郑潇寒
Publication of WO2024066129A1 publication Critical patent/WO2024066129A1/en

Links

Images

Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04NPICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N17/00Diagnosis, testing or measuring for television systems or their details
    • H04N17/06Diagnosis, testing or measuring for television systems or their details for recorders

Definitions

  • the present invention relates to the field of cloud computing services, and in particular to a fault location platform based on facial feature analysis.
  • Cloud computing is widely favored in various application fields because it transfers local computing to remote servers and realizes computing sharing at the same time. For example, it can be used in the field of visual monitoring.
  • each surveillance camera unit collects images, it will store the various camera parameters recorded by its various sensors, including aperture, ISO and shutter speed, together with the collected images to provide key data for subsequent image analysis and camera strategy selection.
  • the sensor data is incorrect due to design reasons or usage time reasons, and it cannot truly reflect the relevant camera environment, which seriously affects the judgment of the camera user and cannot realize the customized image collection operation for different environments and different collection requirements at the surveillance camera unit end.
  • the present invention provides a fault location platform based on facial feature analysis, which can design a targeted sensor fault analysis mechanism based on a feedforward neural network in the cloud, so as to intelligently analyze the various camera parameters corresponding to the picture content collected in real time by the monitoring camera mechanism based on the picture content collected in real time by the monitoring camera mechanism and the total number of effective pixel units of the monitoring camera mechanism, thereby providing valuable reference information for whether the local sensor of the monitoring camera mechanism has a fault.
  • a fault location platform based on facial feature analysis comprising:
  • a data capture device is provided at a cloud server end connected to the network of the surveillance camera mechanism, and is used to capture the picture currently collected by the surveillance camera mechanism as an instant captured picture;
  • a content conversion device arranged at the cloud server end and connected to the data capture device, is used to obtain a multi-component value corresponding to each pixel point in the received instant captured picture;
  • a parameter extraction device which is arranged on the cloud server side and connected to the monitoring camera mechanism, is used to obtain the total number of pixel units of the image sensor of the monitoring camera mechanism that are in a working state when collecting the instant captured picture, and output it as the number of collection units;
  • An information analysis device arranged at the cloud server end and connected to the content conversion device and the parameter extraction device respectively, for intelligently analyzing the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when the real-time captured picture is collected based on the multi-component values corresponding to the pixels in the real-time captured picture and the number of the acquisition units, and outputting them as the identification aperture value, identification ISO value and identification shutter speed value respectively;
  • a value judgment device is arranged inside the monitoring camera mechanism, and is used to obtain the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the monitoring camera mechanism when the monitoring camera mechanism acquires the instant captured picture;
  • An error identification device is arranged on the cloud server end and is respectively connected to the value judgment device and the information analysis device, and is used to judge that a sensor for recording the aperture value, ISO value or shutter speed value of the monitoring camera mechanism is faulty and send a sensor fault signal when the error between the aperture value and the collected aperture value exceeds a limit, the error between the ISO value and the collected ISO value exceeds a limit, or the error between the shutter speed value and the collected shutter speed value exceeds a limit.
  • a targeted sensor fault analysis mechanism is designed in the cloud to perform intelligent analysis operations on the sensor faults recorded by the aperture, ISO, and shutter speed of each network-connected surveillance camera.
  • the multi-component values corresponding to each pixel point in the real-time captured image captured by the surveillance camera mechanism and the number of effective pixel units actually used by the surveillance camera mechanism to capture the real-time captured image are used as input data of the intelligent analysis model to obtain the aperture value, ISO value and shutter speed value of the surveillance camera mechanism, thereby providing reliable parameter data for the identification of sensor failures of the surveillance camera mechanism.
  • FIG1 is a schematic diagram of the structural topology of a feedforward neural network used in a fault location platform based on facial feature analysis according to various embodiments of the present invention.
  • FIG2 is a schematic diagram of the structure of a fault location platform based on facial feature analysis according to Embodiment A of the present invention.
  • FIG3 is a schematic structural diagram of a fault location platform based on facial feature analysis according to Embodiment B of the present invention.
  • FIG1 is a schematic diagram of the structural topology of a feedforward neural network used in a fault location platform based on facial feature analysis according to various embodiments of the present invention.
  • the feedforward neural network includes a plurality of inputs X1 , X2 , X3 and X4 and a plurality of outputs Y1 , Y2 and Y3 , and the feedforward neural network includes an input layer, a hidden layer and an output layer.
  • the multiple inputs of the feedforward neural network are the multi-component values and the number of acquisition units corresponding to each pixel point in the real-time captured picture
  • the multiple outputs of the feedforward neural network are the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when collecting the real-time captured picture.
  • FIG2 is a schematic diagram of the structure of a fault location platform based on facial feature analysis according to Embodiment A of the present invention, wherein N is a natural number greater than 1, and the platform includes:
  • a data capture device is provided at a cloud server end connected to the network of the surveillance camera mechanism, and is used to capture the picture currently collected by the surveillance camera mechanism as an instant captured picture;
  • a content conversion device arranged at the cloud server end and connected to the data capture device, is used to obtain a multi-component value corresponding to each pixel point in the received instant captured picture;
  • a parameter extraction device which is arranged on the cloud server side and connected to the monitoring camera mechanism, is used to obtain the total number of pixel units of the image sensor of the monitoring camera mechanism that are in a working state when collecting the instant captured picture, and output it as the number of collection units;
  • An information analysis device arranged at the cloud server end and connected to the content conversion device and the parameter extraction device respectively, for intelligently analyzing the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when collecting the real-time captured picture based on the multi-component values corresponding to the pixels in the real-time captured picture and the number of the acquisition units, and outputting them as the identification aperture value, identification ISO value and identification shutter speed value respectively;
  • a value judgment device is arranged inside the monitoring camera mechanism, and is used to obtain the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the monitoring camera mechanism when the monitoring camera mechanism acquires the instant captured picture;
  • an error identification device arranged at the cloud server end and connected to the value judgment device and the information analysis device respectively, for judging that a sensor for recording the aperture value, ISO value or shutter speed value of the monitoring camera mechanism is faulty and sending a sensor fault signal when an error between the aperture value and the collected aperture value exceeds a limit, an error between the ISO value and the collected ISO value exceeds a limit, or an error between the shutter speed value and the collected shutter speed value exceeds a limit;
  • capturing the picture currently collected by the monitoring camera mechanism as the real-time captured picture includes: the monitoring camera mechanism includes a resolution adjustment unit, an imaging lens, an optical lens component and a photoelectric sensor component;
  • judging that a sensor for collecting aperture value, collecting ISO value or collecting shutter speed value of the monitoring camera mechanism fails and sending a sensor failure signal includes: sending the sensor failure signal by using a light emitting action with a set frequency.
  • FIG3 is a schematic structural diagram of a fault location platform based on facial feature analysis according to Embodiment B of the present invention.
  • the fault location platform based on facial feature analysis in the implementation scheme B may further include:
  • a touch display device arranged on the front screen of the monitoring camera mechanism, connected to the error identification device, and used for receiving and displaying in real time a warning text message related to the sensor fault signal or the sensor error-free signal;
  • obtaining the multi-component value corresponding to each pixel point in the received instant captured image includes: the multi-component value corresponding to each pixel point includes the hue component value, brightness component value and saturation component value corresponding to the pixel point in the HSV space;
  • obtaining the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the surveillance camera mechanism when the surveillance camera mechanism captures the real-time captured image includes: obtaining the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded respectively by each sensor of the surveillance camera mechanism when the surveillance camera mechanism captures the real-time captured image.
  • the error identification device is also used to determine that each sensor of the monitoring camera mechanism for collecting aperture value, collecting ISO value and collecting shutter speed value records is not faulty and send a sensor error-free signal when the error between the identified aperture value and the collected aperture value is within the limit, the error between the identified ISO value and the collected ISO value is within the limit, and the error between the identified shutter speed value and the collected shutter speed value is within the limit;
  • the error between the identified aperture value and the collected aperture value exceeds the limit
  • the error between the identified ISO value and the collected ISO value exceeds the limit
  • the error between the identified shutter speed value and the collected shutter speed value exceeds the limit
  • it is judged that the sensor for recording the collected aperture value, the collected ISO value, or the collected shutter speed value of the monitoring camera mechanism is faulty and a sensor fault signal is issued including: when the error between the identified ISO value and the collected ISO value exceeds the limit, it is judged that the sensor for recording the collected ISO value of the monitoring camera mechanism is faulty and a sensor fault signal is issued.
  • the aperture value, ISO value and shutter speed value of the surveillance camera mechanism when the real-time captured image is captured are intelligently analyzed and collected and output as the identification aperture value, identification ISO value and identification shutter speed value respectively, including: using the multi-component values corresponding to the pixels in the real-time captured image and the number of the acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, identification ISO value and identification shutter speed value;
  • the identification ISO value and the identification shutter speed value includes: performing normalization processing on the multi-component values corresponding to the pixels in the instant captured image and the number of acquisition units and inputting them into the feedforward neural network;
  • the method further comprises: using the multi-component values corresponding to the pixels in the instant captured image and the number of the acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, the identification ISO value and the identification shutter speed value; the obtained identification aperture value, the identification ISO value and the identification shutter speed value are all in a hexadecimal numerical representation mode;
  • the multi-component values corresponding to each pixel point in the real-time captured picture and the number of acquisition units are respectively normalized and input into the feedforward neural network, including: the multi-component values corresponding to each pixel point in the real-time captured picture and the number of acquisition units are respectively hexadecimal encoded and input into the feedforward neural network.
  • the fault location platform based on facial feature analysis, when the error between the identified aperture value and the collected aperture value exceeds the limit, the error between the identified ISO value and the collected ISO value exceeds the limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is judged that the sensor for recording the collected aperture value, the collected ISO value, or the collected shutter speed value of the monitoring camera mechanism has a fault and sends a sensor fault signal, including: when the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is judged that the sensor for recording the collected shutter speed value of the monitoring camera mechanism has a fault and sends a sensor fault signal.
  • the fault location platform based on facial feature analysis of the present invention is used to address the technical problem in the prior art of lacking a real-time judgment mechanism for whether various types of sensors of each surveillance camera mechanism have faults.
  • a sensor fault analysis mechanism based on a feedforward neural network in the cloud, the various camera parameters corresponding to the real-time collected image content are intelligently analyzed based on the real-time collected image content and the total number of effective pixel units of the surveillance camera mechanism, thereby realizing intelligent judgment on whether the local sensor of the surveillance camera mechanism has faults.

Landscapes

  • Engineering & Computer Science (AREA)
  • Health & Medical Sciences (AREA)
  • Biomedical Technology (AREA)
  • General Health & Medical Sciences (AREA)
  • Multimedia (AREA)
  • Signal Processing (AREA)
  • Studio Devices (AREA)

Abstract

The present invention relates to a fault locating platform based on facial feature analysis. The platform comprises: a data capturing device, which is arranged at a cloud server end and is used for capturing a picture that is currently acquired by a surveillance camera mechanism; an information analysis device, which is used for, on the basis of each multi-component value corresponding to each pixel point in the currently acquired picture and the total number of pixel units used by the surveillance camera mechanism, intelligently analyzing an aperture value, an ISO value and a shutter speed value used when the currently acquired picture is acquired; and an error identification device, which is used for determining whether a sensor for recording the aperture, the ISO or the shutter speed fails. By means of the present invention, a sensor fault parsing mechanism based on a feedforward neural network is designed at a cloud end, such that each camera parameter corresponding to picture content acquired in real time is intelligently parsed on the basis of the picture content acquired in real time and the total number of effective pixel units of a surveillance camera mechanism, thereby realizing intelligent determination on whether a local sensor of the surveillance camera mechanism fails.

Description

基于脸部特征分析的故障定位平台Fault location platform based on facial feature analysis 技术领域Technical Field
本发明涉及云计算服务领域,尤其涉及一种基于脸部特征分析的故障定位平台。The present invention relates to the field of cloud computing services, and in particular to a fault location platform based on facial feature analysis.
背景技术Background technique
较为简单的云计算技术已经普遍服务于现如今的互联网服务中,最为常见的就是网络搜索引擎和网络邮箱。搜索引擎大家最为熟悉的莫过于谷歌和百度了,在任何时刻,只要用过移动终端就可以在搜索引擎上搜索任何自己想要的资源,通过云端共享了数据资源。而网络邮箱也是如此,在过去,寄写一封邮件是一件比较麻烦的事情,同时也是很慢的过程,而在云计算技术和网络技术的推动下,电子邮箱成为了社会生活中的一部分,只要在网络环境下,就可以实现实时的邮件的寄发。其实,云计算技术已经融入现今的社会生活。The relatively simple cloud computing technology has been widely used in today's Internet services, and the most common ones are network search engines and web mailboxes. The most familiar search engines are Google and Baidu. At any time, as long as you use a mobile terminal, you can search for any resources you want on the search engine and share data resources through the cloud. The same is true for web mailboxes. In the past, sending and writing an email was a relatively troublesome thing and a very slow process. Driven by cloud computing technology and network technology, emails have become a part of social life. As long as you are in a network environment, you can send and receive emails in real time. In fact, cloud computing technology has been integrated into today's social life.
云计算因为其将本地运算移送到远端服务端同时实现运算的共享而广受各个应用领域的青睐,例如,可以用于视觉化监控领域。现有技术中,每一监控摄像机构在采集画面时会将其各个传感器记录的各个摄像参数,包括光圈、ISO以及快门速度,与采集的画面一并进行存储,以为后续的画面分析以及摄像策略选择提供关键数据,然而在实际使用中,传感器因 为设计原因或者使用时长原因导致传感数据有误,无法真实反映相关的摄像环境,从而严重影响摄像用户的判断,无法在监控摄像机构端实现对不同环境不同采集需求的画面定制采集操作。Cloud computing is widely favored in various application fields because it transfers local computing to remote servers and realizes computing sharing at the same time. For example, it can be used in the field of visual monitoring. In the prior art, when each surveillance camera unit collects images, it will store the various camera parameters recorded by its various sensors, including aperture, ISO and shutter speed, together with the collected images to provide key data for subsequent image analysis and camera strategy selection. However, in actual use, the sensor data is incorrect due to design reasons or usage time reasons, and it cannot truly reflect the relevant camera environment, which seriously affects the judgment of the camera user and cannot realize the customized image collection operation for different environments and different collection requirements at the surveillance camera unit end.
发明内容Summary of the invention
为了解决上述技术问题,本发明提供了一种基于脸部特征分析的故障定位平台,能够在云端设计基于前馈神经网络的针对性的传感器故障解析机制,以基于监控摄像机构实时采集的画面内容和监控摄像机构的有效像素单元总数智能解析监控摄像机构实时采集的画面内容分别对应的各项摄像参数,从而为监控摄像机构的本地传感器是否产生故障提供有价值的参考信息。In order to solve the above technical problems, the present invention provides a fault location platform based on facial feature analysis, which can design a targeted sensor fault analysis mechanism based on a feedforward neural network in the cloud, so as to intelligently analyze the various camera parameters corresponding to the picture content collected in real time by the monitoring camera mechanism based on the picture content collected in real time by the monitoring camera mechanism and the total number of effective pixel units of the monitoring camera mechanism, thereby providing valuable reference information for whether the local sensor of the monitoring camera mechanism has a fault.
根据本发明的一方面,提供了一种基于脸部特征分析的故障定位平台,所述平台包括:According to one aspect of the present invention, a fault location platform based on facial feature analysis is provided, the platform comprising:
数据抓取器件,设置在监控摄像机构网络连接的云服务器端,用于抓取所述监控摄像机构当前采集的画面以作为即时抓取画面;A data capture device is provided at a cloud server end connected to the network of the surveillance camera mechanism, and is used to capture the picture currently collected by the surveillance camera mechanism as an instant captured picture;
内容转换器件,设置在所述云服务器端,与所述数据抓取器件连接,用于获取接收到的即时抓取画面中每一个像素点对应的多成分数值;A content conversion device, arranged at the cloud server end and connected to the data capture device, is used to obtain a multi-component value corresponding to each pixel point in the received instant captured picture;
参数提取器件,设置在所述云服务器端且与所述监控摄像机构连接,用于获取所述监控摄像机构的图像传感器在采集所述即时抓取画面时处于工作状态的像素单元的总数以作为采集单元数量输出;A parameter extraction device, which is arranged on the cloud server side and connected to the monitoring camera mechanism, is used to obtain the total number of pixel units of the image sensor of the monitoring camera mechanism that are in a working state when collecting the instant captured picture, and output it as the number of collection units;
信息分析器件,设置在所述云服务器端且分别与所述内容转换器件以及所述参数提取器件连接,用于基于所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量智能分析采集所述即时抓 取画面时所述监控摄像机构的光圈数值、ISO数值以及快门速度数值并分别作为鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值输出;An information analysis device, arranged at the cloud server end and connected to the content conversion device and the parameter extraction device respectively, for intelligently analyzing the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when the real-time captured picture is collected based on the multi-component values corresponding to the pixels in the real-time captured picture and the number of the acquisition units, and outputting them as the identification aperture value, identification ISO value and identification shutter speed value respectively;
数值判断设备,设置在所述监控摄像机构内部,用于获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构记录的采集光圈数值、采集ISO数值以及采集快门速度数值;A value judgment device is arranged inside the monitoring camera mechanism, and is used to obtain the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the monitoring camera mechanism when the monitoring camera mechanism acquires the instant captured picture;
误差识别设备,设置在所述云服务器端且分别与所述数值判断设备以及所述信息分析器件连接,用于在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号。An error identification device is arranged on the cloud server end and is respectively connected to the value judgment device and the information analysis device, and is used to judge that a sensor for recording the aperture value, ISO value or shutter speed value of the monitoring camera mechanism is faulty and send a sensor fault signal when the error between the aperture value and the collected aperture value exceeds a limit, the error between the ISO value and the collected ISO value exceeds a limit, or the error between the shutter speed value and the collected shutter speed value exceeds a limit.
本发明至少具备以下几处显著的技术效果:The present invention has at least the following significant technical effects:
首先,在云端设计针对性的传感器故障解析机制,用于对每一个网络连接的监控摄像机构的光圈、ISO以及快门速度记录的传感器故障执行智能化解析操作;First, a targeted sensor fault analysis mechanism is designed in the cloud to perform intelligent analysis operations on the sensor faults recorded by the aperture, ISO, and shutter speed of each network-connected surveillance camera.
其次,具体的智能化解析中,将监控摄像机构采集到的即时抓取画面中各个像素点分别对应的各个多成分数值以及监控摄像机构采集即时抓取画面实际使用的有效像素单元数量作为智能化解析模型的输入数据以获得监控摄像机构的光圈数值、ISO数值以及快门速度数值,从而为监控摄像机构的传感器故障的鉴定提供可靠参数数据。Secondly, in the specific intelligent analysis, the multi-component values corresponding to each pixel point in the real-time captured image captured by the surveillance camera mechanism and the number of effective pixel units actually used by the surveillance camera mechanism to capture the real-time captured image are used as input data of the intelligent analysis model to obtain the aperture value, ISO value and shutter speed value of the surveillance camera mechanism, thereby providing reliable parameter data for the identification of sensor failures of the surveillance camera mechanism.
附图说明BRIEF DESCRIPTION OF THE DRAWINGS
以下将结合附图对本发明的实施方案进行描述,其中:The embodiments of the present invention will be described below with reference to the accompanying drawings, wherein:
图1为根据本发明各个实施方案示出的基于脸部特征分析的故障定位平台所使用的前馈神经网络的结构拓扑示意图。FIG1 is a schematic diagram of the structural topology of a feedforward neural network used in a fault location platform based on facial feature analysis according to various embodiments of the present invention.
图2为根据本发明实施方案A示出的基于脸部特征分析的故障定位平台的结构示意图。FIG2 is a schematic diagram of the structure of a fault location platform based on facial feature analysis according to Embodiment A of the present invention.
图3为根据本发明实施方案B示出的基于脸部特征分析的故障定位平台的结构示意图。FIG3 is a schematic structural diagram of a fault location platform based on facial feature analysis according to Embodiment B of the present invention.
具体实施方式Detailed ways
下面将参照附图对本发明的基于脸部特征分析的故障定位平台的实施方案进行详细说明。The implementation scheme of the fault location platform based on facial feature analysis of the present invention will be described in detail below with reference to the accompanying drawings.
实施例1Example 1
图1为根据本发明各个实施方案示出的基于脸部特征分析的故障定位平台所使用的前馈神经网络的结构拓扑示意图。FIG1 is a schematic diagram of the structural topology of a feedforward neural network used in a fault location platform based on facial feature analysis according to various embodiments of the present invention.
如图1所示,所述前馈神经网络包括多个输入X1、X2、X3和X4以及多个输出Y1、Y2和Y3,所述前馈神经网络包括输入层、隐藏层和输出层。As shown in FIG1 , the feedforward neural network includes a plurality of inputs X1 , X2 , X3 and X4 and a plurality of outputs Y1 , Y2 and Y3 , and the feedforward neural network includes an input layer, a hidden layer and an output layer.
在图1中,所述前馈神经网络的多个输入为即时抓取画面中各个像素点分别对应的各个多成分数值以及采集单元数量,所述前馈神经网络的多个输出为采集即时抓取画面时监控摄像机构的光圈数值、ISO数值以及快门速度数值。In Figure 1, the multiple inputs of the feedforward neural network are the multi-component values and the number of acquisition units corresponding to each pixel point in the real-time captured picture, and the multiple outputs of the feedforward neural network are the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when collecting the real-time captured picture.
实施例2Example 2
图2为根据本发明实施方案A示出的基于脸部特征分析的故障定位平 台的结构示意图,其中,N为大于1的自然数,所述平台包括:FIG2 is a schematic diagram of the structure of a fault location platform based on facial feature analysis according to Embodiment A of the present invention, wherein N is a natural number greater than 1, and the platform includes:
数据抓取器件,设置在监控摄像机构网络连接的云服务器端,用于抓取所述监控摄像机构当前采集的画面以作为即时抓取画面;A data capture device is provided at a cloud server end connected to the network of the surveillance camera mechanism, and is used to capture the picture currently collected by the surveillance camera mechanism as an instant captured picture;
内容转换器件,设置在所述云服务器端,与所述数据抓取器件连接,用于获取接收到的即时抓取画面中每一个像素点对应的多成分数值;A content conversion device, arranged at the cloud server end and connected to the data capture device, is used to obtain a multi-component value corresponding to each pixel point in the received instant captured picture;
参数提取器件,设置在所述云服务器端且与所述监控摄像机构连接,用于获取所述监控摄像机构的图像传感器在采集所述即时抓取画面时处于工作状态的像素单元的总数以作为采集单元数量输出;A parameter extraction device, which is arranged on the cloud server side and connected to the monitoring camera mechanism, is used to obtain the total number of pixel units of the image sensor of the monitoring camera mechanism that are in a working state when collecting the instant captured picture, and output it as the number of collection units;
信息分析器件,设置在所述云服务器端且分别与所述内容转换器件以及所述参数提取器件连接,用于基于所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量智能分析采集所述即时抓取画面时所述监控摄像机构的光圈数值、ISO数值以及快门速度数值并分别作为鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值输出;An information analysis device, arranged at the cloud server end and connected to the content conversion device and the parameter extraction device respectively, for intelligently analyzing the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when collecting the real-time captured picture based on the multi-component values corresponding to the pixels in the real-time captured picture and the number of the acquisition units, and outputting them as the identification aperture value, identification ISO value and identification shutter speed value respectively;
数值判断设备,设置在所述监控摄像机构内部,用于获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构记录的采集光圈数值、采集ISO数值以及采集快门速度数值;A value judgment device is arranged inside the monitoring camera mechanism, and is used to obtain the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the monitoring camera mechanism when the monitoring camera mechanism acquires the instant captured picture;
误差识别设备,设置在所述云服务器端且分别与所述数值判断设备以及所述信息分析器件连接,用于在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号;an error identification device, arranged at the cloud server end and connected to the value judgment device and the information analysis device respectively, for judging that a sensor for recording the aperture value, ISO value or shutter speed value of the monitoring camera mechanism is faulty and sending a sensor fault signal when an error between the aperture value and the collected aperture value exceeds a limit, an error between the ISO value and the collected ISO value exceeds a limit, or an error between the shutter speed value and the collected shutter speed value exceeds a limit;
其中,抓取所述监控摄像机构当前采集的画面以作为即时抓取画面包 括:所述监控摄像机构包括分辨率调整单元、成像镜头、光学镜片组件以及光电传感组件;Wherein, capturing the picture currently collected by the monitoring camera mechanism as the real-time captured picture includes: the monitoring camera mechanism includes a resolution adjustment unit, an imaging lens, an optical lens component and a photoelectric sensor component;
以及判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号包括:采用设定频率的发光动作执行传感故障信号的发出。And judging that a sensor for collecting aperture value, collecting ISO value or collecting shutter speed value of the monitoring camera mechanism fails and sending a sensor failure signal includes: sending the sensor failure signal by using a light emitting action with a set frequency.
实施例3Example 3
图3为根据本发明实施方案B示出的基于脸部特征分析的故障定位平台的结构示意图。FIG3 is a schematic structural diagram of a fault location platform based on facial feature analysis according to Embodiment B of the present invention.
与图2中的实施方案A不同,实施方案B中的基于脸部特征分析的故障定位平台还可以包括:Different from the implementation scheme A in FIG2 , the fault location platform based on facial feature analysis in the implementation scheme B may further include:
触摸显示设备,设置在所述监控摄像机构的前面屏,与所述误差识别设备连接,用于接收并实时显示与传感故障信号或传感无误信号相关的提醒文字信息;A touch display device, arranged on the front screen of the monitoring camera mechanism, connected to the error identification device, and used for receiving and displaying in real time a warning text message related to the sensor fault signal or the sensor error-free signal;
其中,获取接收到的即时抓取画面中每一个像素点对应的多成分数值包括:每一个像素点对应的多成分数值包括所述像素点在HSV空间下对应的色相成分数值、亮度成分数值和饱和度成分数值;Wherein, obtaining the multi-component value corresponding to each pixel point in the received instant captured image includes: the multi-component value corresponding to each pixel point includes the hue component value, brightness component value and saturation component value corresponding to the pixel point in the HSV space;
其中,获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构记录的采集光圈数值、采集ISO数值以及采集快门速度数值包括:获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构各个传感器分别记录的采集光圈数值、采集ISO数值以及采集快门速度数值。Among them, obtaining the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the surveillance camera mechanism when the surveillance camera mechanism captures the real-time captured image includes: obtaining the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded respectively by each sensor of the surveillance camera mechanism when the surveillance camera mechanism captures the real-time captured image.
接着,继续对本发明的基于脸部特征分析的故障定位平台的具体结构进行进一步的说明。Next, the specific structure of the fault location platform based on facial feature analysis of the present invention will be further described.
在根据本发明各个实施方案的基于脸部特征分析的故障定位平台中:In the fault location platform based on facial feature analysis according to various embodiments of the present invention:
所述误差识别设备还用于在鉴定光圈数值与采集光圈数值的误差未超限、鉴定ISO数值与采集ISO数值的误差未超限以及鉴定快门速度数值与采集快门速度数值的误差未超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值以及采集快门速度数值记录的各个传感器都未发生故障并发出传感无误信号;The error identification device is also used to determine that each sensor of the monitoring camera mechanism for collecting aperture value, collecting ISO value and collecting shutter speed value records is not faulty and send a sensor error-free signal when the error between the identified aperture value and the collected aperture value is within the limit, the error between the identified ISO value and the collected ISO value is within the limit, and the error between the identified shutter speed value and the collected shutter speed value is within the limit;
其中,在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号包括:在鉴定光圈数值与采集光圈数值的误差超限时,判断所述监控摄像机构执行采集光圈数值的传感器故障并发出传感故障信号;Wherein, when the error between the identified aperture value and the collected aperture value exceeds the limit, the error between the identified ISO value and the collected ISO value exceeds the limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, judging that the sensor for collecting the aperture value, collecting the ISO value, or collecting the shutter speed value of the monitoring camera mechanism is faulty and sending a sensor fault signal includes: when the error between the identified aperture value and the collected aperture value exceeds the limit, judging that the sensor for collecting the aperture value of the monitoring camera mechanism is faulty and sending a sensor fault signal;
其中,在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号包括:在鉴定ISO数值与采集ISO数值的误差超限时,判断所述监控摄像机构执行采集ISO数值的传感器故障并发出传感故障信号。Among them, when the error between the identified aperture value and the collected aperture value exceeds the limit, the error between the identified ISO value and the collected ISO value exceeds the limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is judged that the sensor for recording the collected aperture value, the collected ISO value, or the collected shutter speed value of the monitoring camera mechanism is faulty and a sensor fault signal is issued, including: when the error between the identified ISO value and the collected ISO value exceeds the limit, it is judged that the sensor for recording the collected ISO value of the monitoring camera mechanism is faulty and a sensor fault signal is issued.
在根据本发明各个实施方案的基于脸部特征分析的故障定位平台中:In the fault location platform based on facial feature analysis according to various embodiments of the present invention:
基于所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量智能分析采集所述即时抓取画面时所述监控摄像机构的光圈数值、ISO数值以及快门速度数值并分别作为鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值输出包括:将所述即时抓取画面中各个 像素点分别对应的各个多成分数值以及所述采集单元数量作为前馈神经网络的两项输入数据以运行所述前馈神经网络并获得鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值;Based on the multi-component values corresponding to the pixels in the real-time captured image and the number of the acquisition units, the aperture value, ISO value and shutter speed value of the surveillance camera mechanism when the real-time captured image is captured are intelligently analyzed and collected and output as the identification aperture value, identification ISO value and identification shutter speed value respectively, including: using the multi-component values corresponding to the pixels in the real-time captured image and the number of the acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, identification ISO value and identification shutter speed value;
其中,将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量作为前馈神经网络的两项输入数据以运行所述前馈神经网络并获得鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值包括:将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量分别执行归一化处理后输入到所述前馈神经网络;Wherein, using the multi-component values corresponding to the pixels in the instant captured image and the number of acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, the identification ISO value and the identification shutter speed value includes: performing normalization processing on the multi-component values corresponding to the pixels in the instant captured image and the number of acquisition units and inputting them into the feedforward neural network;
其中,将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量作为前馈神经网络的两项输入数据以运行所述前馈神经网络并获得鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值还包括:获得的鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值都为十六进制的数值表示模式;The method further comprises: using the multi-component values corresponding to the pixels in the instant captured image and the number of the acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, the identification ISO value and the identification shutter speed value; the obtained identification aperture value, the identification ISO value and the identification shutter speed value are all in a hexadecimal numerical representation mode;
其中,将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量分别执行归一化处理后输入到所述前馈神经网络包括:所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量分别执行十六进制编码处理后输入到所述前馈神经网络。Among them, the multi-component values corresponding to each pixel point in the real-time captured picture and the number of acquisition units are respectively normalized and input into the feedforward neural network, including: the multi-component values corresponding to each pixel point in the real-time captured picture and the number of acquisition units are respectively hexadecimal encoded and input into the feedforward neural network.
另外,在所述基于脸部特征分析的故障定位平台中,在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号包括:在鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集快门速度数值的传感 器故障并发出传感故障信号。In addition, in the fault location platform based on facial feature analysis, when the error between the identified aperture value and the collected aperture value exceeds the limit, the error between the identified ISO value and the collected ISO value exceeds the limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is judged that the sensor for recording the collected aperture value, the collected ISO value, or the collected shutter speed value of the monitoring camera mechanism has a fault and sends a sensor fault signal, including: when the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is judged that the sensor for recording the collected shutter speed value of the monitoring camera mechanism has a fault and sends a sensor fault signal.
采用本发明的基于脸部特征分析的故障定位平台,针对现有技术中缺乏每一监控摄像机构各类传感器是否发生故障的实时判断机制的技术问题,通过在云端设计基于前馈神经网络的传感器故障解析机制,以基于实时采集的画面内容和监控摄像机构的有效像素单元总数智能解析实时采集的画面内容分别对应的各项摄像参数,从而实现对监控摄像机构本地传感器是否产生故障的智能判断。The fault location platform based on facial feature analysis of the present invention is used to address the technical problem in the prior art of lacking a real-time judgment mechanism for whether various types of sensors of each surveillance camera mechanism have faults. By designing a sensor fault analysis mechanism based on a feedforward neural network in the cloud, the various camera parameters corresponding to the real-time collected image content are intelligently analyzed based on the real-time collected image content and the total number of effective pixel units of the surveillance camera mechanism, thereby realizing intelligent judgment on whether the local sensor of the surveillance camera mechanism has faults.
此外,本发明的实施方式并不限于上述的实施方式,在不脱离本发明的要旨的范围内可进行各种变更。In addition, the embodiment of the present invention is not limited to the above-mentioned embodiment, and various changes can be made without departing from the scope of the present invention.

Claims (9)

  1. 一种基于脸部特征分析的故障定位平台,其特征在于,所述平台包括:A fault location platform based on facial feature analysis, characterized in that the platform comprises:
    数据抓取器件,设置在监控摄像机构网络连接的云服务器端,用于抓取所述监控摄像机构当前采集的画面以作为即时抓取画面;A data capture device is provided at a cloud server end connected to the network of the surveillance camera mechanism, and is used to capture the picture currently collected by the surveillance camera mechanism as an instant captured picture;
    内容转换器件,设置在所述云服务器端,与所述数据抓取器件连接,用于获取接收到的即时抓取画面中每一个像素点对应的多成分数值;A content conversion device, arranged at the cloud server end and connected to the data capture device, is used to obtain a multi-component value corresponding to each pixel point in the received instant captured picture;
    参数提取器件,设置在所述云服务器端且与所述监控摄像机构连接,用于获取所述监控摄像机构的图像传感器在采集所述即时抓取画面时处于工作状态的像素单元的总数以作为采集单元数量输出;A parameter extraction device, which is arranged on the cloud server side and connected to the monitoring camera mechanism, is used to obtain the total number of pixel units of the image sensor of the monitoring camera mechanism that are in a working state when collecting the instant captured picture, and output it as the number of collection units;
    信息分析器件,设置在所述云服务器端且分别与所述内容转换器件以及所述参数提取器件连接,用于基于所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量智能分析采集所述即时抓取画面时所述监控摄像机构的光圈数值、ISO数值以及快门速度数值并分别作为鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值输出;An information analysis device, arranged at the cloud server end and connected to the content conversion device and the parameter extraction device respectively, for intelligently analyzing the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when collecting the real-time captured picture based on the multi-component values corresponding to the pixels in the real-time captured picture and the number of the acquisition units, and outputting them as the identification aperture value, identification ISO value and identification shutter speed value respectively;
    数值判断设备,设置在所述监控摄像机构内部,用于获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构记录的采集光圈数值、采集ISO数值以及采集快门速度数值;A value judgment device is arranged inside the monitoring camera mechanism, and is used to obtain the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the monitoring camera mechanism when the monitoring camera mechanism acquires the instant captured picture;
    误差识别设备,设置在所述云服务器端且分别与所述数值判断设备以及所述信息分析器件连接,用于在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故 障信号。An error identification device is arranged on the cloud server side and is respectively connected to the value judgment device and the information analysis device, and is used to judge that a sensor for recording the aperture value, ISO value or shutter speed value of the monitoring camera mechanism is faulty and send a sensor fault signal when the error between the identified aperture value and the collected aperture value exceeds a limit, the error between the identified ISO value and the collected ISO value exceeds a limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds a limit.
  2. 如权利要求1所述的基于脸部特征分析的故障定位平台,其特征在于,所述平台还包括:The fault location platform based on facial feature analysis according to claim 1, characterized in that the platform also includes:
    触摸显示设备,设置在所述监控摄像机构的前面屏,与所述误差识别设备连接,用于接收并实时显示与传感故障信号或传感无误信号相关的提醒文字信息;A touch display device, arranged on the front screen of the monitoring camera mechanism, connected to the error identification device, and used for receiving and displaying in real time a warning text message related to the sensor fault signal or the sensor error-free signal;
    其中,获取接收到的即时抓取画面中每一个像素点对应的多成分数值包括:每一个像素点对应的多成分数值包括所述像素点在HSV空间下对应的色相成分数值、亮度成分数值和饱和度成分数值;Wherein, obtaining the multi-component value corresponding to each pixel point in the received instant captured image includes: the multi-component value corresponding to each pixel point includes the hue component value, brightness component value and saturation component value corresponding to the pixel point in the HSV space;
    其中,获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构记录的采集光圈数值、采集ISO数值以及采集快门速度数值包括:获取所述监控摄像机构采集所述即时抓取画面时所述监控摄像机构各个传感器分别记录的采集光圈数值、采集ISO数值以及采集快门速度数值。Among them, obtaining the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded by the surveillance camera mechanism when the surveillance camera mechanism captures the real-time captured image includes: obtaining the acquisition aperture value, acquisition ISO value and acquisition shutter speed value recorded respectively by each sensor of the surveillance camera mechanism when the surveillance camera mechanism captures the real-time captured image.
  3. 如权利要求1-2任一所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis according to any one of claims 1-2, characterized in that:
    所述误差识别设备还用于在鉴定光圈数值与采集光圈数值的误差未超限、鉴定ISO数值与采集ISO数值的误差未超限以及鉴定快门速度数值与采集快门速度数值的误差未超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值以及采集快门速度数值记录的各个传感器都未发生故障并发出传感无误信号。The error identification device is also used to determine that the sensors of the monitoring camera mechanism that perform the collection of aperture values, ISO values, and shutter speed value records are not faulty and send a sensor error signal when the error between the identified aperture value and the collected aperture value is within the limit, the error between the identified ISO value and the collected ISO value is within the limit, and the error between the identified shutter speed value and the collected shutter speed value is within the limit.
  4. 如权利要求3所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis as claimed in claim 3, characterized in that:
    在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号包括:在鉴定光圈数值与采集光圈数值的误差超限时,判断所述监控摄像机构执行采集光圈数值的传感器故障并发出传感故障信号。When the error between the identified aperture value and the collected aperture value exceeds the limit, the error between the identified ISO value and the collected ISO value exceeds the limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is determined that the sensor for recording the collected aperture value, the collected ISO value, or the collected shutter speed value of the monitoring camera mechanism is faulty and a sensor fault signal is issued, including: when the error between the identified aperture value and the collected aperture value exceeds the limit, it is determined that the sensor for recording the collected aperture value of the monitoring camera mechanism is faulty and a sensor fault signal is issued.
  5. 如权利要求4所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis as claimed in claim 4, characterized in that:
    在鉴定光圈数值与采集光圈数值的误差超限、鉴定ISO数值与采集ISO数值的误差超限或者鉴定快门速度数值与采集快门速度数值的误差超限时,判断所述监控摄像机构执行采集光圈数值、采集ISO数值或者采集快门速度数值记录的传感器故障并发出传感故障信号包括:在鉴定ISO数值与采集ISO数值的误差超限时,判断所述监控摄像机构执行采集ISO数值的传感器故障并发出传感故障信号。When the error between the identified aperture value and the collected aperture value exceeds the limit, the error between the identified ISO value and the collected ISO value exceeds the limit, or the error between the identified shutter speed value and the collected shutter speed value exceeds the limit, it is determined that the sensor for recording the collected aperture value, the collected ISO value, or the collected shutter speed value of the monitoring camera mechanism is faulty and a sensor fault signal is issued, including: when the error between the identified ISO value and the collected ISO value exceeds the limit, it is determined that the sensor for recording the collected ISO value of the monitoring camera mechanism is faulty and a sensor fault signal is issued.
  6. 如权利要求1-2任一所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis according to any one of claims 1-2, characterized in that:
    基于所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量智能分析采集所述即时抓取画面时所述监控摄像机构的光圈数值、ISO数值以及快门速度数值并分别作为鉴定光圈数值、鉴 定ISO数值以及鉴定快门速度数值输出包括:将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量作为前馈神经网络的两项输入数据以运行所述前馈神经网络并获得鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值。Based on the multi-component values corresponding to each pixel point in the real-time captured picture and the number of the acquisition units, the aperture value, ISO value and shutter speed value of the monitoring camera mechanism when the real-time captured picture is captured are intelligently analyzed and output as the identification aperture value, identification ISO value and identification shutter speed value respectively, including: using the multi-component values corresponding to each pixel point in the real-time captured picture and the number of the acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, identification ISO value and identification shutter speed value.
  7. 如权利要求6所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis according to claim 6, characterized in that:
    将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量作为前馈神经网络的两项输入数据以运行所述前馈神经网络并获得鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值包括:将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量分别执行归一化处理后输入到所述前馈神经网络。Using the multi-component values corresponding to each pixel point in the real-time captured image and the number of acquisition units as two input data of a feedforward neural network to run the feedforward neural network and obtain the identified aperture value, the identified ISO value and the identified shutter speed value includes: performing normalization processing on the multi-component values corresponding to each pixel point in the real-time captured image and the number of acquisition units and then inputting them into the feedforward neural network.
  8. 如权利要求7所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis according to claim 7, characterized in that:
    将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量作为前馈神经网络的两项输入数据以运行所述前馈神经网络并获得鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值还包括:获得的鉴定光圈数值、鉴定ISO数值以及鉴定快门速度数值都为十六进制的数值表示模式。Using the multi-component values corresponding to each pixel point in the instant captured image and the number of acquisition units as two input data of the feedforward neural network to run the feedforward neural network and obtain the identification aperture value, identification ISO value and identification shutter speed value also includes: the obtained identification aperture value, identification ISO value and identification shutter speed value are all in hexadecimal numerical representation mode.
  9. 如权利要求8所述的基于脸部特征分析的故障定位平台,其特征在于:The fault location platform based on facial feature analysis according to claim 8, characterized in that:
    将所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量分别执行归一化处理后输入到所述前馈神经网络包括:所述即时抓取画面中各个像素点分别对应的各个多成分数值以及所述采集单元数量分别执行十六进制编码处理后输入到所述前馈神经网络。The method of normalizing the multi-component values corresponding to each pixel point in the real-time captured image and the number of acquisition units and inputting them into the feedforward neural network includes: performing hexadecimal encoding on the multi-component values corresponding to each pixel point in the real-time captured image and the number of acquisition units and inputting them into the feedforward neural network.
PCT/CN2023/070625 2022-09-28 2023-01-05 Fault locating platform based on facial feature analysis WO2024066129A1 (en)

Applications Claiming Priority (6)

Application Number Priority Date Filing Date Title
CN202211189891.0 2022-09-28
CN202211189891.0A CN115623164A (en) 2022-09-28 2022-09-28 Fault positioning platform based on cloud monitoring
CN202211225266.7 2022-10-09
CN202211225266.7A CN115526511A (en) 2022-10-09 2022-10-09 Bidirectional reconstruction model application system and method
CN202211264910.1 2022-10-14
CN202211264910.1A CN115565230A (en) 2022-10-17 2022-10-17 Integral point analysis platform based on content matching

Publications (1)

Publication Number Publication Date
WO2024066129A1 true WO2024066129A1 (en) 2024-04-04

Family

ID=90479459

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/CN2023/070625 WO2024066129A1 (en) 2022-09-28 2023-01-05 Fault locating platform based on facial feature analysis

Country Status (1)

Country Link
WO (1) WO2024066129A1 (en)

Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH1127704A (en) * 1997-06-30 1999-01-29 Amano Corp Self-diagnosis method for mobile object identification sensor and its system
JP2011137916A (en) * 2009-12-28 2011-07-14 Sony Corp Imaging apparatus, fault detection method, and program
JP2013083864A (en) * 2011-10-12 2013-05-09 Canon Inc Imaging apparatus
WO2014148161A1 (en) * 2013-03-22 2014-09-25 株式会社デンソー Fault detection device
CN106791420A (en) * 2016-12-30 2017-05-31 深圳先进技术研究院 A kind of filming control method and device

Patent Citations (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH1127704A (en) * 1997-06-30 1999-01-29 Amano Corp Self-diagnosis method for mobile object identification sensor and its system
JP2011137916A (en) * 2009-12-28 2011-07-14 Sony Corp Imaging apparatus, fault detection method, and program
JP2013083864A (en) * 2011-10-12 2013-05-09 Canon Inc Imaging apparatus
WO2014148161A1 (en) * 2013-03-22 2014-09-25 株式会社デンソー Fault detection device
CN106791420A (en) * 2016-12-30 2017-05-31 深圳先进技术研究院 A kind of filming control method and device

Similar Documents

Publication Publication Date Title
EP2688296B1 (en) Video monitoring system and method
US20090185784A1 (en) Video surveillance system and method using ip-based networks
WO2016171341A1 (en) Cloud-based pathology analysis system and method
US10037504B2 (en) Methods for determining manufacturing waste to optimize productivity and devices thereof
WO2022017197A1 (en) Intelligent product quality inspection method and apparatus
CN111753743A (en) Face recognition method and system based on gatekeeper
CN115695541A (en) Method, device and equipment for monitoring dot polling based on edge calculation and storage medium
CN103913150B (en) Intelligent electric energy meter electronic devices and components consistency detecting method
CN115623164A (en) Fault positioning platform based on cloud monitoring
WO2024066129A1 (en) Fault locating platform based on facial feature analysis
CN110261554A (en) A kind of food safety detection system and method
CN116580362B (en) Transmission operation cross-system fusion data acquisition method and digital asset processing system
CN111047731A (en) AR technology-based telecommunication room inspection method and system
CN115550638A (en) Camera state detection system and method
CN107730422A (en) One kind is based on face recognition online testing analysis system
KR20180129389A (en) Watt-hour Meter Measurement Data Aggregating Method using Vision Recognition
CN113158842A (en) Identification method, system, device and medium
CN113221866B (en) Equipment data acquisition system and method based on image recognition
CN213338759U (en) High-altitude parabolic capturing system
CN111177434B (en) Data reflow method for improving accuracy of cv algorithm
CN117216308B (en) Searching method, system, equipment and medium based on large model
CN110929666B (en) Production line monitoring method, device, system and computer equipment
JP2009116478A (en) Data collection device, data collection method and computer program
CN116074648A (en) Color image acquisition method, device, system and medium based on machine vision
CN114239634A (en) Data processing method, device and medium for point inspection of industrial equipment

Legal Events

Date Code Title Description
121 Ep: the epo has been informed by wipo that ep was designated in this application

Ref document number: 23869393

Country of ref document: EP

Kind code of ref document: A1