CN106713869B - Cloud intelligent pasture wireless monitoring and tracking method, device and system - Google Patents
Cloud intelligent pasture wireless monitoring and tracking method, device and system Download PDFInfo
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Abstract
本发明属于互联网技术领域,提供了一种云智能牧场无线监控跟踪方法、装置及系统。该方法包括:获取牧场的光照强度值、第一帧图像信息和第二帧图像信息,若光照强度值小于等于光照阈值,则输出停止监控指令,识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点,对待跟踪牲畜在第二帧时的位置进行估计,获取估计位置,确定待跟踪牲畜的第二位置信息和第二运动速度,若第二运动速度等于零,则记录检验次数,且检验次数大于设定阈值,则将待跟踪牲畜划归为异常个体。本发明云智能牧场无线监控跟踪方法、装置及系统,能够提高远程监控的准确度,且降低功耗,可靠性高。
The invention belongs to the field of Internet technology, and provides a wireless monitoring and tracking method, device and system for a cloud intelligent pasture. The method includes: acquiring the light intensity value of the pasture, the first frame of image information and the second frame of image information, and if the light intensity value is less than or equal to a light threshold, outputting a stop monitoring instruction to identify the livestock to be tracked in the first frame of image information. Feature points, form sample feature points, estimate the position of the livestock to be tracked in the second frame, obtain the estimated position, determine the second position information and second motion speed of the livestock to be tracked, if the second motion speed is equal to zero, record and check and the number of inspections is greater than the set threshold, the animals to be tracked are classified as abnormal individuals. The wireless monitoring and tracking method, device and system of the cloud intelligent pasture of the present invention can improve the accuracy of remote monitoring, reduce power consumption, and have high reliability.
Description
技术领域technical field
本发明涉及互联网技术领域,具体涉及一种云智能牧场无线监控跟踪方法、装置及系统。The invention relates to the field of Internet technologies, and in particular to a wireless monitoring and tracking method, device and system for cloud intelligent pastures.
背景技术Background technique
在草原上,牧民居住分散,多以畜牧养殖为生,且多为游牧散养。牧场宽阔,但是人力不足,在养殖过程中,经常出现牛羊丢失或混群的现象,在冬季,甚至会出现幼崽被冻死的现象,给牧民带来巨大的损失,也增加人力负担。虽然,现市场上存在一些监控设备,但是,现有的监控设备远距离监控的功能较差,功耗大,设备维护过程繁琐,为用户带来困扰。同时,现有的监控设备不能够充分利用牧场上的太阳能资源。On the grasslands, herdsmen live scattered, and mostly live on animal husbandry, and most of them are nomadic free-range. The pasture is wide, but the manpower is insufficient. During the breeding process, cattle and sheep are often lost or mixed. In winter, the cubs may even freeze to death, which brings huge losses to the herdsmen and increases the manpower burden. Although there are some monitoring devices on the market, the existing monitoring devices have poor long-distance monitoring functions, large power consumption, and cumbersome device maintenance process, which brings troubles to users. At the same time, the existing monitoring equipment cannot fully utilize the solar energy resources on the pasture.
如何提高远程监控的准确度,且降低功耗,提高可靠性,是本领域技术人员亟需解决的问题。How to improve the accuracy of remote monitoring, reduce power consumption, and improve reliability is an urgent problem to be solved by those skilled in the art.
发明内容SUMMARY OF THE INVENTION
针对现有技术中的缺陷,本发明提供了一种云智能牧场无线监控跟踪方法、装置及系统,能够提高远程监控的准确度,且降低功耗,可靠性高。In view of the defects in the prior art, the present invention provides a wireless monitoring and tracking method, device and system for a cloud intelligent pasture, which can improve the accuracy of remote monitoring, reduce power consumption, and have high reliability.
第一方面,本发明提供一种云智能牧场无线监控跟踪方法,该方法包括:In a first aspect, the present invention provides a wireless monitoring and tracking method for a cloud intelligent pasture, the method comprising:
获取牲畜的特征点信息和牧场的场景信息;Obtain feature point information of livestock and scene information of pasture;
根据特征点和场景信息,确定牲畜在牧场中的位置。Based on feature points and scene information, determine the location of livestock in the pasture.
本发明提供另一种云智能牧场无线监控跟踪方法,该方法包括:The present invention provides another wireless monitoring and tracking method for cloud intelligent pastures, the method comprising:
信息获取步骤:获取牧场的光照强度值、第一帧图像信息和第二帧图像信息,第一帧图像信息与第二帧图像信息相邻;The information acquisition step: acquiring the light intensity value of the pasture, the first frame of image information and the second frame of image information, and the first frame of image information is adjacent to the second frame of image information;
光照强度处理步骤:将光照强度值与光照阈值比较,若光照强度值小于等于光照阈值,则输出停止监控指令;Light intensity processing step: compare the light intensity value with the light threshold value, and if the light intensity value is less than or equal to the light threshold value, output a stop monitoring instruction;
图像信息处理步骤:预处理第一帧图像信息和第二帧图像信息;Image information processing step: preprocessing the first frame of image information and the second frame of image information;
识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点;Identify the feature points of the livestock to be tracked in the first frame of image information to form sample feature points;
根据第一帧图像信息,确定待跟踪牲畜的第一位置信息;Determine the first position information of the livestock to be tracked according to the first frame of image information;
根据预获取待跟踪牲畜在第一帧时的第一运动速度和第一位置信息,对待跟踪牲畜在第二帧时的位置进行估计,获取估计位置;According to the pre-obtained first motion speed and first position information of the livestock to be tracked in the first frame, estimate the position of the livestock to be tracked in the second frame, and obtain the estimated position;
将估计位置与第二帧图像信息进行对比,获取待识别区域;Compare the estimated position with the image information of the second frame to obtain the area to be identified;
根据样本特征点,识别待跟踪牲畜在待识别区域中的目标特征点,并更新至样本特征点;According to the sample feature points, identify the target feature points of the livestock to be tracked in the to-be-identified area, and update them to the sample feature points;
根据第二帧图像信息,确定待跟踪牲畜的第二位置信息;determining the second position information of the livestock to be tracked according to the second frame of image information;
根据第一位置信息和第二位置信息,确定待跟踪牲畜在第二帧时的第二运动速度;determining the second movement speed of the livestock to be tracked in the second frame according to the first position information and the second position information;
异常个体识别步骤:检验第二运动速度,若第二运动速度等于零,则记录检验次数,并与设定阈值比较,若检验次数大于设定阈值,则将待跟踪牲畜划归为异常个体。Abnormal individual identification step: check the second movement speed, if the second movement speed is equal to zero, record the number of inspections and compare with the set threshold. If the number of inspections is greater than the set threshold, the animal to be tracked is classified as an abnormal individual.
进一步地,在将待跟踪牲畜划归为异常个体之后,该方法还包括:Further, after classifying the livestock to be tracked as abnormal individuals, the method further includes:
将异常个体设置为特定颜色,并生成报警提示信息。Set abnormal individuals to a specific color and generate alarm prompt information.
进一步地,识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点,具体包括:Further, identifying the feature points of the livestock to be tracked in the first frame of image information to form sample feature points, specifically including:
根据待跟踪牲畜的轮廓,识别待跟踪牲畜在第一帧图像信息中的位置范围;Identify the position range of the livestock to be tracked in the first frame of image information according to the outline of the livestock to be tracked;
根据待跟踪牲畜各局部特征点,获取待跟踪牲畜在位置范围内的特征点,并形成样本特征点。According to the local feature points of the livestock to be tracked, the feature points of the livestock to be tracked within the location range are obtained, and the sample feature points are formed.
基于上述任意云智能牧场无线监控跟踪方法实施例,进一步地,确定待跟踪牲畜在第二帧时的第二运动速度之后,该方法还包括:Based on the above-mentioned embodiment of the wireless monitoring and tracking method for any cloud intelligent pasture, further, after determining the second movement speed of the livestock to be tracked in the second frame, the method further includes:
检验第二运动速度,若第二运动速度大于零,则将检验次数设置为初始状态。The second movement speed is checked, and if the second movement speed is greater than zero, the number of checks is set as the initial state.
第二方面,本发明提供一种云智能牧场无线监控跟踪装置,该装置包括信息获取模块、光照强度处理模块、图像信息处理模块和异常个体识别模块,信息获取模块用于获取牧场的光照强度值、第一帧图像信息和第二帧图像信息,第一帧图像信息与第二帧图像信息相邻;光照强度处理模块用于将光照强度值与光照阈值比较,若光照强度值小于等于光照阈值,则输出停止监控指令;图像信息处理模块用于预处理第一帧图像信息和第二帧图像信息;识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点;根据第一帧图像信息,确定待跟踪牲畜的第一位置信息;根据预获取待跟踪牲畜在第一帧时的第一运动速度和第一位置信息,对待跟踪牲畜在第二帧时的位置进行估计,获取估计位置;将估计位置与第二帧图像信息进行对比,获取待识别区域;根据样本特征点,识别待跟踪牲畜在待识别区域中的目标特征点,并更新至样本特征点;根据第二帧图像信息,确定待跟踪牲畜的第二位置信息;根据第一位置信息和第二位置信息,确定待跟踪牲畜在第二帧时的第二运动速度;异常个体识别模块用于检验第二运动速度,若第二运动速度等于零,则记录检验次数,并与设定阈值比较,若检验次数大于设定阈值,则将待跟踪牲畜划归为异常个体。In a second aspect, the present invention provides a wireless monitoring and tracking device for cloud intelligent pastures. The device includes an information acquisition module, a light intensity processing module, an image information processing module, and an abnormal individual identification module. The information acquisition module is used to obtain the light intensity value of the pasture. , the first frame of image information and the second frame of image information, the first frame of image information is adjacent to the second frame of image information; the illumination intensity processing module is used to compare the illumination intensity value with the illumination threshold value, if the illumination intensity value is less than or equal to the illumination threshold value , then output the stop monitoring instruction; the image information processing module is used to preprocess the first frame of image information and the second frame of image information; identify the feature points of the livestock to be tracked in the first frame of image information to form sample feature points; frame image information to determine the first position information of the livestock to be tracked; according to the pre-acquisition of the first motion speed and first position information of the livestock to be tracked in the first frame, estimate the position of the livestock to be tracked in the second frame, and obtain Estimate the position; compare the estimated position with the image information of the second frame to obtain the area to be identified; identify the target feature points of the livestock to be tracked in the area to be identified according to the sample feature points, and update them to the sample feature points; according to the second frame The image information determines the second position information of the livestock to be tracked; according to the first position information and the second position information, the second movement speed of the livestock to be tracked in the second frame is determined; the abnormal individual identification module is used to check the second movement speed , if the second movement speed is equal to zero, the number of inspections is recorded and compared with the set threshold. If the number of inspections is greater than the set threshold, the livestock to be tracked is classified as an abnormal individual.
进一步地,本实施例云智能牧场无线监控跟踪装置还包括异常提醒模块:用于将异常个体设置为特定颜色,并生成报警提示信息。Further, the wireless monitoring and tracking device for the cloud smart ranch in this embodiment further includes an abnormality reminder module: used to set the abnormal individual to a specific color, and generate alarm prompt information.
进一步地,图像信息处理模块在识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点时,具体用于:根据待跟踪牲畜的轮廓,识别待跟踪牲畜在第一帧图像信息中的位置范围;根据待跟踪牲畜各局部特征点,获取待跟踪牲畜在位置范围内的特征点,并形成样本特征点。Further, when the image information processing module identifies the feature points of the livestock to be tracked in the first frame of image information and forms the sample feature points, it is specifically used to: identify the livestock to be tracked in the first frame of image information according to the outline of the livestock to be tracked. According to the local feature points of the livestock to be tracked, the feature points of the livestock to be tracked within the position range are obtained, and the sample feature points are formed.
第三方面,本发明提供一种云智能牧场无线监控跟踪系统,该系统包括远程控制端和多个分布于牧场的云智能远程牧场监控子系统,云智能远程牧场监控子系统包括监控立杆、多个枪柱、全景摄像头、太阳能晶体板、光电设备和蓄电池,监控立杆垂直设置于牧场,每个枪柱的一端固定于牧场,另一端固定于监控立杆,且与监控立杆呈预定夹角,全景摄像头位于监控立杆的顶端,太阳能晶体板固定于枪柱,光电设备固定于监控立杆,蓄电池位于牧场的地表面以下,且在监控立杆的底部的指定范围内,全景摄像头和光电设备均与远程控制端无线连接,太阳能晶体板、光电设备和蓄电池依次连接,蓄电池还与全景摄像头连接,全景摄像头用于采集牧场的图像信息,并传送至远程控制端,光电设备用于采集光照强度值,并传送至远程控制端,且在光照强度值低于光照阈值时,自动切换至断电状态,还用于监测蓄电池的电压值,当电压值低于第一电压阈值时,将太阳能晶体板的电能传送至蓄电池,当电压值高于第二电压阈值时,则停止传送电能,蓄电池用于为光电设备和全景摄像头供电;远程控制端用于采用云智能牧场无线监控跟踪方法,实时输出牧场中待跟踪牲畜的位置,并判断待跟踪牲畜中是否存在异常个体。In a third aspect, the present invention provides a wireless monitoring and tracking system for cloud intelligent pastures. The system includes a remote control terminal and a plurality of cloud intelligent remote pasture monitoring subsystems distributed in the pasture. The cloud intelligent remote pasture monitoring subsystem includes monitoring poles, A plurality of gun posts, panoramic cameras, solar crystal panels, photoelectric equipment and batteries, the monitoring poles are vertically arranged on the pasture, one end of each gun column is fixed to the pasture, and the other end is fixed to the monitoring pole, and is in a predetermined relationship with the monitoring pole. Included angle, the panoramic camera is located at the top of the monitoring pole, the solar crystal panel is fixed to the gun post, the optoelectronic equipment is fixed to the monitoring pole, the battery is located below the ground surface of the pasture, and within the specified range at the bottom of the monitoring pole, the panoramic camera And the photoelectric equipment is wirelessly connected to the remote control terminal. The solar crystal panel, the photoelectric equipment and the battery are connected in turn. The battery is also connected to the panoramic camera. The panoramic camera is used to collect the image information of the pasture and transmit it to the remote control terminal. The light intensity value is collected and sent to the remote control terminal, and when the light intensity value is lower than the light threshold value, it will automatically switch to the power-off state, and it is also used to monitor the voltage value of the battery. When the voltage value is lower than the first voltage threshold value, The electric energy of the solar crystal panel is transmitted to the battery. When the voltage value is higher than the second voltage threshold, the transmission of electric energy is stopped. The battery is used to supply power for the optoelectronic equipment and the panoramic camera; the remote control terminal is used to adopt the wireless monitoring and tracking method of cloud intelligent pasture. , output the position of the livestock to be tracked in the pasture in real time, and determine whether there are abnormal individuals in the livestock to be tracked.
进一步地,云智能远程牧场监控子系统还包括围栏,围栏垂直固定于牧场,围栏包括多个保护栏,且保护栏依次收尾连接,围栏的中心为监控立杆。Further, the cloud intelligent remote pasture monitoring subsystem also includes a fence, the fence is vertically fixed on the pasture, the fence includes a plurality of protection fences, and the protection fences are connected in sequence, and the center of the fence is a monitoring pole.
由上述技术方案可知,本实施例提供的云智能牧场无线监控跟踪方法、装置及系统,通过光照强度值确定是否进行监控,防止图像信息质量过低,而无法识别待跟踪牲畜,且符合牧民的应用需求,有助于节省能源,降低功耗。并且,该方法能够对图像信息进行处理,实时输出待跟踪牲畜的位置信息,结果准确、可靠,方便牧民查看,节省人力,有效防止牲畜丢失或混群,且牧民能够及时发现位置信息长时间不变的异常个体,降低幼崽在恶劣环境中的死亡率。It can be seen from the above technical solutions that the wireless monitoring and tracking method, device and system for cloud smart pastures provided by this embodiment determine whether to monitor according to the light intensity value, so as to prevent the quality of image information from being too low to identify the livestock to be tracked, and meet the requirements of the herdsmen. Application requirements, help save energy and reduce power consumption. Moreover, the method can process the image information, output the position information of the livestock to be tracked in real time, and the result is accurate and reliable, which is convenient for the herdsman to view, saves manpower, effectively prevents the loss or mixing of the livestock, and the herdsman can timely find that the position information remains unchanged for a long time. of abnormal individuals, reducing the mortality of pups in harsh environments.
因此,本实施例云智能牧场无线监控跟踪方法、装置及系统,能够提高远程监控的准确度,且降低功耗,可靠性高。Therefore, the wireless monitoring and tracking method, device and system for a cloud smart ranch in the present embodiment can improve the accuracy of remote monitoring, reduce power consumption, and have high reliability.
附图说明Description of drawings
为了更清楚地说明本发明具体实施方式或现有技术中的技术方案,下面将对具体实施方式或现有技术描述中所需要使用的附图作简单地介绍。在所有附图中,类似的元件或部分一般由类似的附图标记标识。附图中,各元件或部分并不一定按照实际的比例绘制。In order to illustrate the specific embodiments of the present invention or the technical solutions in the prior art more clearly, the following briefly introduces the accompanying drawings that are required to be used in the description of the specific embodiments or the prior art. Similar elements or parts are generally identified by similar reference numerals throughout the drawings. In the drawings, each element or section is not necessarily drawn to actual scale.
图1示出了本发明所提供的一种云智能牧场无线监控跟踪方法的流程图;Fig. 1 shows a flow chart of a wireless monitoring and tracking method for a cloud intelligent pasture provided by the present invention;
图2示出了本发明所提供的一种云智能牧场无线监控跟踪装置的结构框图;Fig. 2 shows the structural block diagram of a wireless monitoring and tracking device for cloud intelligent ranch provided by the present invention;
图3示出了本发明所提供的一种云智能牧场无线监控跟踪系统的结构示意图;3 shows a schematic structural diagram of a wireless monitoring and tracking system for cloud intelligent pastures provided by the present invention;
图4示出了本发明所提供的一种云智能远程牧场监控子系统的结构示意图。FIG. 4 shows a schematic structural diagram of a cloud intelligent remote pasture monitoring subsystem provided by the present invention.
具体实施方式Detailed ways
下面将结合附图对本发明技术方案的实施例进行详细的描述。以下实施例仅用于更加清楚地说明本发明的技术方案,因此只是作为示例,而不能以此来限制本发明的保护范围。Embodiments of the technical solutions of the present invention will be described in detail below with reference to the accompanying drawings. The following examples are only used to illustrate the technical solutions of the present invention more clearly, and are therefore only used as examples, and cannot be used to limit the protection scope of the present invention.
需要注意的是,除非另有说明,本申请使用的技术术语或者科学术语应当为本发明所属领域技术人员所理解的通常意义。It should be noted that, unless otherwise specified, the technical or scientific terms used in this application should have the usual meanings understood by those skilled in the art to which the present invention belongs.
第一方面,本发明实施例所提供的一种云智能牧场无线监控跟踪方法,该方法包括:获取牲畜的特征点信息和牧场的场景信息;根据特征点和场景信息,确定牲畜在牧场中的位置。In a first aspect, an embodiment of the present invention provides a wireless monitoring and tracking method for a cloud intelligent pasture. The method includes: acquiring feature point information of livestock and scene information of the pasture; Location.
本发明实施例提供另一种云智能牧场无线监控跟踪方法,结合图1,该方法包括:An embodiment of the present invention provides another wireless monitoring and tracking method for cloud intelligent pastures. With reference to FIG. 1 , the method includes:
信息获取步骤S1:获取牧场的光照强度值、第一帧图像信息和第二帧图像信息,第一帧图像信息与第二帧图像信息相邻。Information acquisition step S1: acquiring the light intensity value of the pasture, the first frame of image information and the second frame of image information, where the first frame of image information is adjacent to the second frame of image information.
光照强度处理步骤S2:将光照强度值与光照阈值比较:若光照强度值小于等于光照阈值,则输出停止监控指令,例如,在夜间,牲畜较少在牧场上走动,且夜间采集的图像信息,处理难度大,难以快速、准确地提取出待跟踪牲畜,后续会将此时的图像信息过滤除掉,不予以处理。Light intensity processing step S2: Compare the light intensity value with the light threshold value: if the light intensity value is less than or equal to the light threshold value, output a stop monitoring instruction. It is difficult to process, and it is difficult to quickly and accurately extract the livestock to be tracked. Subsequently, the image information at this time will be filtered out and will not be processed.
图像信息处理步骤S3:预处理第一帧图像信息和第二帧图像信息。如对图像信息进行灰度化处理,采用中值滤波算法,去除图像信息中的孤点噪声,且能够保持图像边缘的特征,采用维纳滤波算法去除图像信息中的乘性噪声等。Image information processing step S3: preprocessing the first frame of image information and the second frame of image information. For example, to grayscale image information, use median filter algorithm to remove outlier noise in image information, and can maintain the characteristics of image edges, and use Wiener filter algorithm to remove multiplicative noise in image information.
识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点。Identify the feature points of the livestock to be tracked in the first frame of image information to form sample feature points.
根据第一帧图像信息,确定待跟踪牲畜的第一位置信息,即待跟踪牲畜相对于参照环境的相对位置坐标。According to the first frame of image information, the first position information of the livestock to be tracked is determined, that is, the relative position coordinates of the livestock to be tracked relative to the reference environment.
根据预获取待跟踪牲畜在第一帧时的第一运动速度和第一位置信息,对待跟踪牲畜在第二帧时的位置进行估计,获取估计位置,在此,估计位置是以第一位置为中心,以估算值为半径的扇形区域。其中,估算值可以是根据第一运动速度值确定的数值,扇形角是根据第一运动速度方向和可变化角度范围确定的角度。According to the pre-obtained first motion speed and first position information of the livestock to be tracked in the first frame, the position of the livestock to be tracked in the second frame is estimated, and the estimated position is obtained. Here, the estimated position is the first position as Center, estimated as a sector of the radius. The estimated value may be a value determined according to the first movement speed value, and the sector angle is an angle determined according to the first movement speed direction and the variable angle range.
将估计位置与第二帧图像信息进行对比,获取待识别区域。The estimated position is compared with the image information of the second frame to obtain the area to be identified.
根据样本特征点,识别待跟踪牲畜在待识别区域中的目标特征点,并更新至样本特征点。According to the sample feature points, the target feature points of the livestock to be tracked in the to-be-identified area are identified, and updated to the sample feature points.
根据第二帧图像信息,确定待跟踪牲畜的第二位置信息。According to the second frame of image information, the second position information of the livestock to be tracked is determined.
根据第一位置信息和第二位置信息,确定待跟踪牲畜在第二帧时的第二运动速度,在此,根据第一位置信息和第二位置信息,以确定距离值,根据两帧图像信息的时间间隔,即可确定第二运动速度。According to the first position information and the second position information, the second movement speed of the livestock to be tracked in the second frame is determined. Here, the distance value is determined according to the first position information and the second position information, and the distance value is determined according to the two frames of image information. time interval, the second movement speed can be determined.
异常个体识别步骤S4:检验第二运动速度,若第二运动速度等于零,则记录检验次数,并与设定阈值比较,若检验次数大于设定阈值,则将待跟踪牲畜划归为异常个体,即若某个待跟踪牲畜的位置信息不发生变化,且超过一定的时间之后,则判定该待跟踪牲畜有异常,以提醒牧民及时查看,在此,根据比较数次和每帧图像信息的采样时间间隔即可确定时间。Abnormal individual identification step S4: check the second movement speed, if the second movement speed is equal to zero, record the number of inspections, and compare with the set threshold, if the number of inspections is greater than the set threshold, classify the livestock to be tracked as an abnormal individual, That is, if the position information of a livestock to be tracked does not change, and after a certain period of time, it is determined that the livestock to be tracked is abnormal, so as to remind the herdsmen to check it in time. time interval to determine the time.
由上述技术方案可知,本实施例提供的云智能牧场无线监控跟踪方法,通过光照强度值确定是否进行监控,防止图像信息质量过低,而无法识别待跟踪牲畜,且符合牧民的应用需求,有助于节省能源,降低功耗。并且,该方法能够对图像信息进行处理,实时输出待跟踪牲畜的位置信息,结果准确、可靠,方便牧民查看,节省人力,有效防止牲畜丢失或混群,且牧民能够及时发现位置信息长时间不变的异常个体,降低幼崽在恶劣环境中的死亡率。It can be seen from the above technical solutions that the wireless monitoring and tracking method for cloud intelligent pastures provided by this embodiment determines whether to monitor by the light intensity value, so as to prevent the quality of image information from being too low to identify the livestock to be tracked, and meets the application requirements of herdsmen. Helps save energy and reduce power consumption. Moreover, the method can process the image information, output the position information of the livestock to be tracked in real time, and the result is accurate and reliable, which is convenient for the herdsman to view, saves manpower, effectively prevents the loss or mixing of the livestock, and the herdsman can timely find that the position information remains unchanged for a long time. of abnormal individuals, reducing the mortality of pups in harsh environments.
因此,本实施例云智能牧场无线监控跟踪方法,能够提高远程监控的准确度,且降低功耗,可靠性高。Therefore, the wireless monitoring and tracking method for a cloud smart ranch in this embodiment can improve the accuracy of remote monitoring, reduce power consumption, and have high reliability.
为了方便牧民使用,具体地,在将待跟踪牲畜划归为异常个体之后,本实施例云智能牧场无线监控跟踪方法还包括:将异常个体设置为特定颜色,并生成报警提示信息,以提示牧民及时查看,并进行处理,同时,采用特定颜色,便于牧民直观、快速地在场景信息中搜索到异常个体,有助于提高用户体验。In order to facilitate the use of herdsmen, specifically, after the livestock to be tracked are classified as abnormal individuals, the wireless monitoring and tracking method for the cloud intelligent pasture in this embodiment further includes: setting the abnormal individual to a specific color, and generating alarm prompt information to prompt the herdsmen It can be checked and processed in time. At the same time, the use of specific colors is convenient for herders to search for abnormal individuals in the scene information intuitively and quickly, which helps to improve the user experience.
为了进一步提供本实施例云智能牧场无线监控跟踪方法的准确性,具体地,在形成样本特征点时,该方法的实现过程如下:In order to further provide the accuracy of the wireless monitoring and tracking method for the cloud intelligent pasture in this embodiment, specifically, when forming the sample feature points, the implementation process of the method is as follows:
根据待跟踪牲畜的轮廓,识别待跟踪牲畜在第一帧图像信息中的位置范围。根据待跟踪牲畜各局部特征点,获取待跟踪牲畜在位置范围内的特征点,并形成样本特征点。在此,该方法能够根据待跟踪牲畜的轮廓初步确定待跟踪牲畜的位置范围,再根据局部特征点,形成样本特征点,有助于提高数据处理效率,且能够保证样本特征点的准确度。According to the outline of the livestock to be tracked, the position range of the livestock to be tracked in the first frame of image information is identified. According to the local feature points of the livestock to be tracked, the feature points of the livestock to be tracked within the location range are obtained, and the sample feature points are formed. Here, the method can preliminarily determine the position range of the livestock to be tracked according to the contour of the livestock to be tracked, and then form the sample feature points according to the local feature points, which helps to improve the data processing efficiency and can ensure the accuracy of the sample feature points.
其中,在根据待跟踪牲畜的轮廓或局部特征点进行识别时,该方法采用的处理过程如下:Among them, when identifying according to the outline or local feature points of the livestock to be tracked, the processing process adopted by the method is as follows:
根据待跟踪牲畜的轮廓图像,计算该轮廓图像的质心。将轮廓图像绕质心进行旋转操作,获取该轮廓图像的转动惯量,并进行归一化处理。According to the contour image of the livestock to be tracked, the centroid of the contour image is calculated. Rotate the contour image around the centroid, obtain the moment of inertia of the contour image, and perform normalization processing.
根据待跟踪牲畜的局部特征点,计算该局部特征点的质心。并进行旋转操作,获取该局部特征点的转动惯量,并进行归一化处理。在此,归一化处理的轮廓转动惯量和特征点转动惯量具有良好的缩放、旋转和平移不变性,有助于提高识别效率。According to the local feature points of the livestock to be tracked, the centroid of the local feature points is calculated. And perform the rotation operation to obtain the moment of inertia of the local feature point, and perform normalization processing. Here, the normalized contour moment of inertia and feature point moment of inertia have good scaling, rotation and translation invariance, which helps to improve the recognition efficiency.
采用同样的过程处理局部特征点。根据归一化处理之后的轮廓转动惯量,识别第一帧图像信息中的待跟踪牲畜轮廓,确定出位置范围。根据归一化处理之后的特征点转动惯量,识别位置范围中的待跟踪牲畜特征点,形成样本特征点。在此,该方法采用归一化处理的轮廓转动惯量和特征点转动惯量,进行识别,准确度高,计算量小。The same process is used for local feature points. According to the contour moment of inertia after the normalization process, the contour of the livestock to be tracked in the first frame of image information is identified, and the position range is determined. According to the moment of inertia of the feature points after the normalization process, the feature points of the livestock to be tracked in the position range are identified to form the sample feature points. Here, the method uses the normalized contour moment of inertia and feature point moment of inertia to identify, with high accuracy and small amount of calculation.
同时,确定待跟踪牲畜在第二帧时的第二运动速度之后,本实施例云智能牧场无线监控跟踪方法还包括:检验第二运动速度,若第二运动速度大于零,则将检验次数设置为初始状态,即设置检测次数的字节为零,以便于记录待跟踪牲畜的状态,防止程序记录错误。At the same time, after determining the second movement speed of the livestock to be tracked in the second frame, the wireless monitoring and tracking method for the cloud smart pasture in this embodiment further includes: checking the second movement speed, and if the second movement speed is greater than zero, setting the number of inspections It is the initial state, that is, the byte that sets the number of detections is zero, so as to record the state of the livestock to be tracked and prevent the program from recording errors.
第二方面,本发明实施例提供一种云智能牧场无线监控跟踪装置,结合图2,该装置包括信息获取模块1、光照强度处理模块2、图像信息处理模块3和异常个体识别模块4,信息获取模块1用于获取牧场的光照强度值、第一帧图像信息和第二帧图像信息,第一帧图像信息与第二帧图像信息相邻;光照强度处理模块2用于将光照强度值与光照阈值比较,若光照强度值小于等于光照阈值,则输出停止监控指令;图像信息处理模块3用于预处理第一帧图像信息和第二帧图像信息;识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点;根据第一帧图像信息,确定待跟踪牲畜的第一位置信息;根据预获取待跟踪牲畜在第一帧时的第一运动速度和第一位置信息,对待跟踪牲畜在第二帧时的位置进行估计,获取估计位置;将估计位置与第二帧图像信息进行对比,获取待识别区域;根据样本特征点,识别待跟踪牲畜在待识别区域中的目标特征点,并更新至样本特征点;根据第二帧图像信息,确定待跟踪牲畜的第二位置信息;根据第一位置信息和第二位置信息,确定待跟踪牲畜在第二帧时的第二运动速度;异常个体识别模块4用于检验第二运动速度,若第二运动速度等于零,则记录检验次数,并与设定阈值比较,若检验次数大于设定阈值,则将待跟踪牲畜划归为异常个体。In a second aspect, an embodiment of the present invention provides a wireless monitoring and tracking device for cloud smart pastures. With reference to FIG. 2 , the device includes an information acquisition module 1, a light intensity processing module 2, an image information processing module 3, and an abnormal individual identification module 4. Information The acquisition module 1 is used to acquire the light intensity value, the first frame image information and the second frame image information of the pasture, and the first frame image information is adjacent to the second frame image information; the light intensity processing module 2 is used to compare the light intensity value with the second frame image information. Illumination threshold comparison, if the illumination intensity value is less than or equal to the illumination threshold, output a stop monitoring instruction; the image information processing module 3 is used to preprocess the first frame image information and the second frame image information; identify the livestock to be tracked in the first frame image The feature points of the information form sample feature points; according to the first frame of image information, determine the first position information of the livestock to be tracked; Track the position of the livestock in the second frame to estimate the estimated position; compare the estimated position with the image information of the second frame to obtain the area to be identified; identify the target features of the livestock to be tracked in the area to be identified according to the sample feature points point, and update it to the sample feature point; according to the second frame image information, determine the second position information of the livestock to be tracked; according to the first position information and the second position information, determine the second movement of the livestock to be tracked in the second frame Speed; the abnormal individual identification module 4 is used to check the second movement speed. If the second movement speed is equal to zero, the number of inspections will be recorded and compared with the set threshold. If the number of inspections is greater than the set threshold, the livestock to be tracked will be classified as abnormal individual.
由上述技术方案可知,本实施例提供的云智能牧场无线监控跟踪装置,通过光照强度值确定是否进行监控,防止图像信息质量过低,而无法识别待跟踪牲畜,且符合牧民的应用需求,有助于节省能源,降低功耗。并且,该装置能够对图像信息进行处理,实时输出待跟踪牲畜的位置信息,结果准确、可靠,方便牧民查看,节省人力,有效防止牲畜丢失或混群,且牧民能够及时发现位置信息长时间不变的异常个体,降低幼崽在恶劣环境中的死亡率。It can be seen from the above technical solutions that the wireless monitoring and tracking device for cloud intelligent pastures provided in this embodiment determines whether to monitor according to the light intensity value, so as to prevent the quality of image information from being too low to identify the livestock to be tracked, and meets the application requirements of herdsmen. Helps save energy and reduce power consumption. In addition, the device can process image information and output the position information of the livestock to be tracked in real time. The results are accurate and reliable, which is convenient for herders to view, saves manpower, effectively prevents livestock from being lost or mixed together, and herdsmen can timely find that the position information remains unchanged for a long time. of abnormal individuals, reducing the mortality of pups in harsh environments.
因此,本实施例云智能牧场无线监控跟踪装置,能够提高远程监控的准确度,且降低功耗,可靠性高。Therefore, the wireless monitoring and tracking device for the cloud smart ranch in this embodiment can improve the accuracy of remote monitoring, reduce power consumption, and have high reliability.
具体地,本实施例云智能牧场无线监控跟踪装置还包括异常提醒模块:用于将异常个体设置为特定颜色,并生成报警提示信息,以提示牧民及时查看,并进行处理,同时,采用特定颜色,便于牧民直观、快速地在场景信息中搜索到异常个体,有助于提高用户体验。Specifically, the cloud intelligent pasture wireless monitoring and tracking device in this embodiment also includes an abnormality reminder module: used to set abnormal individuals to a specific color and generate alarm prompt information to prompt herders to check and deal with them in time. At the same time, a specific color is used. , so that herdsmen can intuitively and quickly search for abnormal individuals in the scene information, which helps to improve the user experience.
具体地,图像信息处理模块3在识别出待跟踪牲畜在第一帧图像信息的特征点,形成样本特征点时,具体用于:根据待跟踪牲畜的轮廓,识别待跟踪牲畜在第一帧图像信息中的位置范围;根据待跟踪牲畜各局部特征点,获取待跟踪牲畜在位置范围内的特征点,并形成样本特征点。在此,该图像信息处理模块3能够根据待跟踪牲畜的轮廓初步确定待跟踪牲畜的位置范围,再根据局部特征点,形成样本特征点,有助于提高数据处理效率,且能够保证样本特征点的准确度。Specifically, when the image information processing module 3 identifies the feature points of the livestock to be tracked in the first frame of image information and forms the sample feature points, it is specifically used to: identify the livestock to be tracked in the first frame of image according to the outline of the livestock to be tracked The position range in the information; according to the local feature points of the livestock to be tracked, the feature points of the livestock to be tracked within the position range are obtained, and the sample feature points are formed. Here, the image information processing module 3 can preliminarily determine the position range of the livestock to be tracked according to the outline of the livestock to be tracked, and then form the sample feature points according to the local feature points, which helps to improve the data processing efficiency and can ensure the sample feature points. accuracy.
第三方面,本发明实施例提供一种云智能牧场无线监控跟踪系统,结合图3或图4,该系统包括远程控制端31和多个分布于牧场的云智能远程牧场监控子系统32,在实际应用时,云智能远程牧场监控子系统32多布置于牧场中的土坡上,有助于采集牧场不同区域的图像信息。In a third aspect, an embodiment of the present invention provides a wireless monitoring and tracking system for cloud intelligent pastures. With reference to FIG. 3 or FIG. 4 , the system includes a remote control terminal 31 and a plurality of cloud intelligent remote pasture monitoring subsystems 32 distributed in the pasture. In practical application, the cloud intelligent remote pasture monitoring subsystem 32 is mostly arranged on the soil slope in the pasture, which is helpful for collecting image information of different areas of the pasture.
云智能远程牧场监控子系统32包括监控立杆321、多个枪柱322、全景摄像头323、太阳能晶体板324、光电设备325和蓄电池326。监控立杆321垂直设置于牧场。每个枪柱322的一端固定于牧场,另一端固定于监控立杆321,且与监控立杆321呈预定夹角。一般设置三个枪柱322,稳定性强,牢固可靠。全景摄像头323位于监控立杆321的顶端,太阳能晶体板324固定于枪柱322,光电设备325固定于监控立杆321。光电设备325能够实时监测蓄电池326的电压值和电流值,并在光电设备325的显示屏上显示,以方便用户查看。The cloud intelligent remote pasture monitoring subsystem 32 includes a monitoring pole 321 , a plurality of gun posts 322 , a panoramic camera 323 , a solar crystal panel 324 , an optoelectronic device 325 and a battery 326 . The monitoring pole 321 is vertically arranged on the pasture. One end of each gun post 322 is fixed to the pasture, and the other end is fixed to the monitoring pole 321 and forms a predetermined angle with the monitoring pole 321 . Generally, three gun posts 322 are set, which have strong stability and are firm and reliable. The panoramic camera 323 is located at the top of the monitoring pole 321 , the solar crystal panel 324 is fixed on the gun post 322 , and the optoelectronic device 325 is fixed on the monitoring pole 321 . The optoelectronic device 325 can monitor the voltage value and current value of the battery 326 in real time, and display it on the display screen of the optoelectronic device 325 for the convenience of the user.
蓄电池326位于牧场的地表面以下,且在监控立杆321的底部的指定范围内,如以监控立杆321附近的25~30CM的范围,埋藏于牧场地下的深度为20~30CM的范围内,以保证蓄电池326拥有相对稳定的运行温度环境,防止温度过低或过高,而使蓄电池326产生爆裂,有助于延长蓄电池326的使用寿命。The storage battery 326 is located below the ground surface of the pasture, and within the designated range of the bottom of the monitoring pole 321, for example, in the range of 25-30 cm near the monitoring pole 321, buried in the underground of the pasture in the range of 20-30 cm, In order to ensure that the battery 326 has a relatively stable operating temperature environment, to prevent the battery 326 from bursting due to the temperature being too low or too high, it is helpful to prolong the service life of the battery 326 .
全景摄像头323和光电设备325均与远程控制端31无线连接,太阳能晶体板324、光电设备325和蓄电池326依次连接,蓄电池326还与全景摄像头323连接。全景摄像头323用于采集牧场的图像信息,并传送至远程控制端31,光电设备325用于采集光照强度值,并传送至远程控制端31,且在光照强度值低于光照阈值时,自动切换至断电状态,还用于监测蓄电池326的电压值,当电压值低于第一电压阈值时,将太阳能晶体板324的电能传送至蓄电池326,当电压值高于第二电压阈值时,则停止传送电能,蓄电池326用于为光电设备325和全景摄像头323供电,输出12伏直流电;远程控制端31用于采用云智能牧场无线监控跟踪方法,实时输出牧场中待跟踪牲畜的位置,并判断待跟踪牲畜中是否存在异常个体。The panoramic camera 323 and the photoelectric device 325 are wirelessly connected to the remote control terminal 31 , the solar crystal panel 324 , the photoelectric device 325 and the battery 326 are connected in sequence, and the battery 326 is also connected to the panoramic camera 323 . The panoramic camera 323 is used to collect the image information of the pasture and transmit it to the remote control terminal 31, the photoelectric device 325 is used to collect the light intensity value and transmit it to the remote control terminal 31, and when the light intensity value is lower than the light threshold value, it will automatically switch It is also used to monitor the voltage value of the battery 326 when the voltage value is lower than the first voltage threshold, and transmit the power of the solar crystal panel 324 to the battery 326 when the voltage value is higher than the second voltage threshold. Stop transmitting electric energy, the battery 326 is used to supply power to the photoelectric device 325 and the panoramic camera 323, and outputs 12 volts of direct current; the remote control terminal 31 is used to adopt the wireless monitoring and tracking method of the cloud intelligent pasture, output the position of the livestock to be tracked in the pasture in real time, and judge Whether there are abnormal individuals in the livestock to be tracked.
由上述技术方案可知,本实施例提供的云智能牧场无线监控跟踪系统,通过光电设备325,实时采集光照强度值,以便于远程控制端31确定是否进行监控,防止图像信息质量过低,而无法识别待跟踪牲畜,且符合牧民的应用需求,有助于节省能源,降低功耗。并且,该系统通过全景摄像头323采集图像信息,并用远程控制端31对图像信息进行处理,实时输出待跟踪牲畜的位置信息,结果准确、可靠,方便牧民查看,节省人力,有效防止牲畜丢失或混群,且牧民能够及时发现位置信息长时间不变的异常个体,降低幼崽在恶劣环境中的死亡率。It can be seen from the above technical solutions that the cloud intelligent pasture wireless monitoring and tracking system provided in this embodiment collects the light intensity value in real time through the photoelectric device 325, so that the remote control terminal 31 can determine whether to perform monitoring, and prevent the image information quality from being too low to fail. Identifying livestock to be tracked and meeting the application needs of herdsmen can help save energy and reduce power consumption. In addition, the system collects image information through the panoramic camera 323, processes the image information with the remote control terminal 31, and outputs the position information of the livestock to be tracked in real time. The result is accurate and reliable, which is convenient for herders to view, saves manpower, and effectively prevents livestock from being lost or mixed. , and herdsmen can timely detect abnormal individuals whose location information remains unchanged for a long time, reducing the mortality rate of cubs in harsh environments.
同时,太阳能晶体板324能够充分利用牧场上的太阳能,并转化为电能,为系统供电,无污染,节能环保。光电设备325实时监测蓄电池326的电量,有助于延长蓄电池326的使用寿命,且光电设备325能够在夜间自动断电,降低系统功耗。At the same time, the solar crystal panel 324 can make full use of the solar energy on the pasture, and convert it into electric energy to supply power for the system, which is pollution-free, energy-saving and environmentally friendly. The photoelectric device 325 monitors the power of the battery 326 in real time, which helps to prolong the service life of the battery 326, and the photoelectric device 325 can automatically power off at night to reduce the power consumption of the system.
因此,本实施例云智能牧场无线监控跟踪系统,能够提高远程监控的准确度,且降低功耗,可靠性高,节能环保。Therefore, the wireless monitoring and tracking system of the cloud intelligent pasture in this embodiment can improve the accuracy of remote monitoring, reduce power consumption, have high reliability, and save energy and protect the environment.
为了防止牧场上的牲畜撞到监控立杆321或太阳能晶体板324,结合图4,云智能远程牧场监控子系统32还包括围栏,围栏垂直固定于牧场,围栏包括多个保护栏,且保护栏依次收尾连接,围栏的中心为监控立杆321,以对监控立杆321或太阳能晶体板324起到一定的保护作用,提高系统工作稳定性。In order to prevent the livestock on the pasture from hitting the monitoring pole 321 or the solar crystal panel 324, with reference to FIG. 4, the cloud intelligent remote pasture monitoring subsystem 32 further includes a fence, the fence is vertically fixed on the pasture, the fence includes a plurality of protection fences, and the protection fences Connected in sequence, the center of the fence is the monitoring pole 321, so as to play a certain protective role on the monitoring pole 321 or the solar crystal panel 324, and improve the working stability of the system.
同时,为了确保数据传输的稳定性,降低信号干扰,本实施例云智能牧场无线监控跟踪系统还设有无线信号传输设备,无线信号传输设备包括无线发送设备和无线接收设备,其中,无线发送设备327设置在全景摄像头323的上方,固定于监控立杆321的上端,且与全景摄像头323连接,用于接收全景摄像头323采集的图像信息,并采用无线传输方式发送至无线接收设备。无线接收设备与远程控制端31连接,接收图像信息,并传输至远程控制端31。在此,无线信号传输设备采用XTrans无线技术,具有传输距离远、吞吐率高和抗干扰性强等特点,适用于复杂的室外环境,能够满足牧场远距离数据传输的需求。At the same time, in order to ensure the stability of data transmission and reduce signal interference, the wireless monitoring and tracking system of the cloud intelligent pasture in this embodiment is also provided with wireless signal transmission equipment, and the wireless signal transmission equipment includes wireless sending equipment and wireless receiving equipment, wherein, the wireless sending equipment 327 is arranged above the panoramic camera 323, fixed on the upper end of the monitoring pole 321, and connected to the panoramic camera 323, for receiving the image information collected by the panoramic camera 323, and sending it to the wireless receiving device by wireless transmission. The wireless receiving device is connected to the remote control terminal 31 , receives image information, and transmits it to the remote control terminal 31 . Here, the wireless signal transmission equipment adopts XTrans wireless technology, which has the characteristics of long transmission distance, high throughput and strong anti-interference. It is suitable for complex outdoor environments and can meet the needs of long-distance data transmission in ranches.
最后应说明的是:以上各实施例仅用以说明本发明的技术方案,而非对其限制;尽管参照前述各实施例对本发明进行了详细的说明,本领域的普通技术人员应当理解:其依然可以对前述各实施例所记载的技术方案进行修改,或者对其中部分或者全部技术特征进行等同替换;而这些修改或者替换,并不使相应技术方案的本质脱离本发明各实施例技术方案的范围,其均应涵盖在本发明的权利要求和说明书的范围当中。Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, but not to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that: The technical solutions described in the foregoing embodiments can still be modified, or some or all of the technical features thereof can be equivalently replaced; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the technical solutions of the embodiments of the present invention. The scope of the invention should be included in the scope of the claims and description of the present invention.
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