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Method for monitoring livestock breeding living body weight based on internet of things

A live and body weight technology, applied in the field of live body weight monitoring in animal husbandry, can solve the problems of unstable results, stress response of pigs, and anorexia of pigs.

Active Publication Date: 2018-02-09
北京中维卓一科技有限公司
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

However, there are indeed a series of problems in the agricultural and animal husbandry industry data: A. Data islands
The current breeding technology is mainly human-intervened floor scale weighing. This method can easily cause stress reactions in pigs. Pigs are prone to stress reactions such as anorexia, vomiting, and weight loss. Therefore, farms cannot carry out frequent weighing. Impossible for precision farming
[0004] At present, the following technologies are disclosed, but the weight data obtained by these methods are easily affected by the activities of pigs, resulting in inaccurate measurement, unstable results, and limited data, which is not conducive to big data monitoring

Method used

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  • Method for monitoring livestock breeding living body weight based on internet of things
  • Method for monitoring livestock breeding living body weight based on internet of things
  • Method for monitoring livestock breeding living body weight based on internet of things

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0078] Example 1: figure 1 Shows a model of living body weight measurement of depth data, first collect data by camera and sensor, camera collects RGB image and depth image of live pig breeding, sensor, collects individual information of live body (including: age in days, serial number, breed , type) and environmental variables (including: light intensity, harmful gases, respirable particles, body temperature, etc.);

[0079] After the data collection is completed, the data is transmitted to the single-board computer, which integrates the data, and transmits the integrated data to the local terminal C / S terminal for the next step of processing;

[0080] On the local terminal C / S, the collected RGB image is firstly recognized in vivo, and after the recognition, combined with the depth point cloud data of the depth camera, the 3D point cloud image is pushed out; at the same time, the RGB image, 3D point cloud image, And the individual information and environmental variables of...

Embodiment 2

[0125] Example 2: figure 2 Shows a kind of living body weight measurement model based on multi-view, first collects data by camera and sensor, camera collects the multi-angle RGB image of live pig breeding, sensor, collects the individual information of live body (comprising: age in days, serial number, breed , type) and environmental variables (including: light intensity, harmful gases, respirable particles, body temperature, etc.);

[0126] After the data collection is completed, the data is transmitted to the single-board computer, and the single-board computer performs data integration, and the integrated data is transmitted to the local terminal C / S terminal for the next step of processing;

[0127] On the local terminal C / S end, upload the multi-angle RGB image, as well as the individual information and environmental variables of the living body collected by the sensor to the cloud server;

[0128] The cloud server will obtain the multi-angle RGB image of a single livi...

Embodiment 3

[0132] Example 3: image 3 It shows a living body weighing model based on multi-view depth data. First, the data is collected by cameras and sensors. The camera collects multi-view RGB images and multi-view depth images of cattle breeding live bodies, and the sensors collect individual information of the live bodies (including: age, serial number, variety, type) and environmental variables (including: light intensity, harmful gases, inhalable particles, body temperature, etc.);

[0133] After the data collection is completed, the data is transmitted to the single-board computer, and the single-board computer performs data integration, and the integrated data is transmitted to the local terminal C / S terminal for the next step of processing;

[0134] On the local terminal C / S end, the collected RGB image is firstly recognized in vivo, and after the recognition, combined with the depth point cloud data of the depth camera, the 3D point cloud image is pushed out; at the same time, ...

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Abstract

The invention discloses a method for monitoring livestock breeding living body weight based on the internet of things. The method comprises: a camera and a sensor collecting data, when data collectionis completed, transmitting the data to a single board computer, the single board computer integrating the data, and transmitting the integrated data to a C / S terminal of a local terminal to perform next-step processing; on the local terminal C / S, firstly performing living body identification on acquired RGB images, combined with depth point cloud data of a depth camera, deducing a 3D point cloudimage, meanwhile uploading RGB and 3D point cloud images, and individual information of living bodies and environment variable collected by the sensor to a cloud server; the cloud server cleaning anddenoising the 3D point cloud images according to the uploaded individual information and environment variable, after the 3D point cloud images reach a standard, restoring volume to obtain living bodyvolume, and calculating mass; returning an obtained living body mass result to the C / S terminal, if objection for error of mass exists, correcting errors by hand, after error correction, recording anduploading to the cloud server.

Description

technical field [0001] The present invention relates to the field of agricultural internet of things, in particular to a method for monitoring live body weight in animal husbandry based on agricultural internet of things. Background technique [0002] In 2015, China's GDP was 67.67 trillion yuan, of which agriculture was 9 trillion yuan, and animal husbandry was more than 3 trillion yuan. In 2015, there were nearly 7,000 feed companies in China, 500 of which had an annual output value of more than 500 million yuan; nearly 2,700 designated pig slaughtering companies above designated size; more than 20,000 pig farms with an annual slaughter of more than 5,000 heads. The period from 2010 to 2016 is a period of rapid integration of the agriculture and animal husbandry industry. The number of feed companies has decreased from 11,000 to 6,000; the number of pig slaughtering companies has decreased from 40,000 to 17,000; the scale of pig breeding has increased from 30% to 60%; 2020...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): A01K29/00G06K9/00G06T7/62G06T17/10
CPCA01K29/005G06T7/62G06T17/10G06T2207/10028G06T2207/20028G06V20/10
Inventor 李安颖田晓娜李昌明李亚宁
Owner 北京中维卓一科技有限公司
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