CN109655108A - A kind of field planting real-time monitoring system and method based on Internet of Things - Google Patents

A kind of field planting real-time monitoring system and method based on Internet of Things Download PDF

Info

Publication number
CN109655108A
CN109655108A CN201811622215.1A CN201811622215A CN109655108A CN 109655108 A CN109655108 A CN 109655108A CN 201811622215 A CN201811622215 A CN 201811622215A CN 109655108 A CN109655108 A CN 109655108A
Authority
CN
China
Prior art keywords
data
module
soil
acquisition
internet
Prior art date
Legal status (The legal status 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 status listed.)
Withdrawn
Application number
CN201811622215.1A
Other languages
Chinese (zh)
Inventor
李清华
郑龙
柯庆明
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
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
Application filed by Individual filed Critical Individual
Priority to CN201811622215.1A priority Critical patent/CN109655108A/en
Publication of CN109655108A publication Critical patent/CN109655108A/en
Withdrawn legal-status Critical Current

Links

Classifications

    • GPHYSICS
    • G01MEASURING; TESTING
    • G01DMEASURING NOT SPECIALLY ADAPTED FOR A SPECIFIC VARIABLE; ARRANGEMENTS FOR MEASURING TWO OR MORE VARIABLES NOT COVERED IN A SINGLE OTHER SUBCLASS; TARIFF METERING APPARATUS; MEASURING OR TESTING NOT OTHERWISE PROVIDED FOR
    • G01D21/00Measuring or testing not otherwise provided for
    • G01D21/02Measuring two or more variables by means not covered by a single other subclass

Landscapes

  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Management, Administration, Business Operations System, And Electronic Commerce (AREA)
  • Investigating Or Analysing Materials By Optical Means (AREA)

Abstract

The invention belongs to plant monitoring technical field, a kind of field planting real-time monitoring system and method based on Internet of Things is disclosed, the field planting real-time monitoring system based on Internet of Things includes: plantation video acquisition module, ambient temperature and humidity acquisition module, soil data acquisition module, data transmission module, central control module, Internet of Things communication module, lighting module, growth conditions monitoring modular, monitoring data memory module, monitoring display module.The present invention is matched by Internet of Things communication module woth no need to equipment and terminal direct communication, and no distance limitation, good compatibility can in time be monitored field planting data;Simultaneously, by growth conditions monitoring modular using the color invariant parameter of RGB image as the main foundation for distinguishing surrounding pixels and culture plant, it solves the problems, such as to divide imperfect to plant caused by vegetation growth state monitoring caused by serious colour cast light and there is adaptivity to the variation of light-source brightness, improve the accuracy monitored to plant growth state.

Description

A kind of field planting real-time monitoring system and method based on Internet of Things
Technical field
The invention belongs to plant monitoring technical field more particularly to a kind of field planting real-time monitoring based on Internet of Things System and method.
Background technique
Plantation is plant culture, including various crops, forest, fruit tree, flowers and plants, medicinal and ornamental etc. cultivations of plants, There are cereal crops, industrial crops, vegetable crop, green manure crop, forage crop, herbage etc..Field crop refers in acre Object ﹐ such as little Mai ﹑ water rice ﹑ high fine strain of millet ﹑ jade rice ﹑ cotton ﹑ herbage etc. is made in upper plantation.Grain is directly fed, oil plant and clothing raw material are It is main.Open country plantation, vegetables inside greenhouse etc. not counting;Tobacco, Chinese herbal medicine not counting;Woody apple, grape not counting.Mesh Be to maximally utilise resource, reduce waste, reduce cost.Using free of contamination soil, waters and natural surroundings, or Person uses Ecological Technique Measures, improves plantation water quality and ecological environment, is planted according to up to the firm specific cropping pattern of plantation It plants, without using chemical fertilizer, pesticide and other harmful substances matter etc., target is to produce pollution-free green food and organic food.It realizes Component profitable probliotics stoste of ecologic planting etc..However, in existing field planting real-time monitoring system there is transmission in data transmission The disadvantages of apart from short, poor compatibility, more complex matching operation;And use in the mode of sequence number and account binding, for one In the case that equipment is to more terminals, target terminal can not be correctly transmitted data to, influences the timely monitoring to field planting; Meanwhile existing field planting uses LED light source, has serious colour cast to cause to generate larger mistake to plant growth state monitoring result Very;Since colour cast light has override the color of plant, plant Part portions can be mistaken for environmental background and cause to monitor by this method Error.
In conclusion problem of the existing technology is:
Data transmission there are transmission ranges short, poor compatibility in existing field planting real-time monitoring system, matching operation compared with The disadvantages of complicated;And use sequence number and account binding mode in, for an equipment to more terminals in the case where, nothing Method correctly transmits data to target terminal, influences the timely monitoring to field planting;Meanwhile existing field planting uses LED light Source has serious colour cast to cause to generate larger distortion to plant growth state monitoring result;Since colour cast light has override plant Plant Part portions can be mistaken for environmental background and cause to monitor error by color, this method.
The prior art accurately cannot correctly reflect and using the space structure for acquiring picture, be unfavorable for image procossing and make Correctness;Temperature Humidity Sensor cannot be acquired data and fusion treatment in the prior art;And it is not capable of real-time acquisition Data just carry out error concealment;The brightness adjustability of display in the prior art is poor, and the brightness uniformity of display screen is not Foot reduces the clarity that show of data, is unfavorable for that display is clear and accurate to be displayed data, reduction working efficiency.
Summary of the invention
In view of the problems of the existing technology, the field planting real-time monitoring based on Internet of Things that the present invention provides a kind of System and method.
The invention is realized in this way a kind of field planting method of real-time based on Internet of Things, described to be based on Internet of Things The field planting method of real-time of net includes:
The first step acquires field planting scene video data using camera;Temperature Humidity Sensor is using population to big The temperature of field planting environment, humidity data are acquired and fusion treatment, and the synchronous multistage error compensating method of function that carries out is to reality When the data that acquire just carry out error concealment;Acquire soil acidity or alkalinity, the soil water of field soil in real time using Soil K+adsorption instrument Divide, soil nutrient content data;
Second step, using data line connection camera, Temperature Humidity Sensor, Soil K+adsorption instrument by the data of acquisition Central control module is sent to be handled;It is communicated using wireless transmitter connection Internet of Things;
Third step provides lighting operation to crop field plant using red blue LED lamp;Noisy image is carried out by realizing The camera of level Bayes Modeling, acquisition under the red blue light illumination of LED the RGB image feature of environmental background and plant to plant Object upgrowth situation is monitored;
4th step, using memory storage acquisition monitor video, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, Soil nutrient content data, upgrowth situation data;Using the display display monitoring system interface adjusted by PWM and acquisition Monitor video, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
Further, Temperature Humidity Sensor utilizes temperature of the population to field planting environment, humidity number in the step 1 According to being acquired and fusion treatment;The synchronous multistage error compensating method of function that carries out just carries out error to the data acquired in real time It eliminates, specific error cancelling method are as follows:
During the transmission of sensor data acquisition data, benefit is formulated sensing system error and data pass Connection between defeated matrix:
In the transmission of sensor data acquisition data, the width of signal transmission can be calculated with following formula:
Δ κ=N/ Δ σ '=e Δ γ/d ω N=(Δ q/f-d Δ q) N
In formula, N is the distance that sensor data acquisition data need to transmit;
Δ σ ' is data delivery lag parameter;
F is the speed that sensor data acquisition data are transmitted in the case where not considering extraneous factor interference;
ω is the deflection angle in data transfer;
Above-mentioned formula is converted, following result can be obtained:
Δ κ=N/ Δ σ '=N Δ q/f
It can be calculated using following formula since sensor acquires error caused by data attribute difference:
It is capable of the second order function of error caused by computation attribute difference using following formula:
In formula, the value of P (y) can be calculated with following formula:
P (y)=T (y)-1F(y)T(y)
Using following formula, the error parameter during sensor data acquisition can be calculated:
Using following formula, the sensor data acquisition errors can be compensated with processing:
Further, in the step 3 using camera by noisy image carry out level Bayes Modeling, acquisition exist The RGB image feature of environmental background and plant carries out accurate measurements, specific side to vegetation growth state under the red blue light illumination of LED Method are as follows:
Picture noise signal Gaussian distributed carries out level Bayes Modeling to noisy image;Unit matrix is indicated with I, A, b, c, d, e, f are Study first (constant), as follows to image modeling:
xi=Ψ θiiθi=ziowi
Ψ=(ψ1, ψ2..., ψkk~N (0, n-1In)
γw~Γ (c, d) γε~Γ (e, f)
To ziIt models as follows:
Wherein, G indicates Gaussian Profile, πiFrom Gaussian Profile obtained by random sampling.
Another object of the present invention is to provide the field planting method of real-time described in a kind of realize based on Internet of Things The field planting real-time monitoring system based on Internet of Things, the field planting real-time monitoring system based on Internet of Things includes:
Video acquisition module is planted, is connect with data transmission module, for acquiring field planting scene visual by camera Frequency evidence;
Ambient temperature and humidity acquisition module, connect with data transmission module, for being acquired in real time greatly by Temperature Humidity Sensor The temperature of field planting environment, humidity data;
Soil data acquisition module, connect with data transmission module, for acquiring land in real time by Soil K+adsorption instrument Soil acidity or alkalinity, soil moisture, the soil nutrient content data of earth;
Data transmission module, with plantation video acquisition module, ambient temperature and humidity acquisition module, soil data acquisition module, Central control module connection will be acquired for connecting camera, Temperature Humidity Sensor, Soil K+adsorption instrument by data line Data be sent to central control module and handled;
Central control module monitors mould with data transmission module, Internet of Things communication module, lighting module, growth conditions Block, monitoring data memory module, monitoring display module connection, work normally for controlling modules by single-chip microcontroller;
Internet of Things communication module, connect with central control module, is led to for connecting Internet of Things by wireless transmitter Letter;
Lighting module is connect with central control module, for providing illumination behaviour to crop field plant by red blue LED lamp Make;
Growth conditions monitoring modular, connect with central control module, for being shone by camera acquisition in the red blue light of LED The RGB image feature for penetrating lower environmental background and plant is monitored vegetation growth state;
Monitoring data memory module, connect with central control module, for being regarded by the monitoring of memory storage acquisition Frequently, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data;
Monitoring display module is connect with central control module, for showing monitoring system interface and acquisition by display Monitor video, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
Another object of the present invention is to provide the field planting method of real-time described in a kind of application based on Internet of Things Information data processing terminal.
Advantages of the present invention and good effect are as follows: the present invention uses dynamic unique encodings by Internet of Things communication module Crop field monitoring device is mutually bound with controlling terminal, so that the two be made to establish one-to-one communication connection, is set instead of original The mode of the standby direct communication between controlling terminal;In this way, making bindings more simple and fast, woth no need to equipment and terminal Direct communication pairing, no distance limitation, good compatibility can in time be monitored field planting data;Meanwhile passing through life Long status monitoring modular is solved using the color invariant parameter of RGB image as distinguishing surrounding pixels and cultivating the main foundation of plant It has determined and imperfect problem is divided and to light-source brightness to plant caused by vegetation growth state monitoring caused by serious colour cast light Variation has adaptivity, improves the accuracy monitored to plant growth state.
The present invention, by carrying out level Bayes Modeling to noisy image, correctly reflects and utilizes acquisition using camera The space structure of picture, the correctness for improving image procossing and using guarantee acquisition environmental background under the red blue light illumination of LED Accurate measurements are carried out to vegetation growth state with the RGB image feature of plant;Temperature Humidity Sensor of the present invention utilizes population pair The temperature of field planting environment, humidity data are acquired and fusion treatment;It is synchronous to carry out the multistage error compensating method pair of function The data acquired in real time just carry out error concealment, effectively eliminate Acquisition Error, facilitate the temperature of environment, the standard of humidity data Really acquisition;The present invention uses the display adjusted by PWM, and the brightness of display screen is adjusted by PWM, improves the bright of display screen Uniformity is spent, monitor video, ambient temperature and humidity, soil acidity or alkalinity, the soil water of display monitoring system interface and acquisition are improved Divide, the clarity that soil nutrient content data, upgrowth situation data are shown, is conducive to the clear and accurate carry out data of display Display guarantees the accuracy of reading data, improves working efficiency.
Detailed description of the invention
Fig. 1 is the field planting method of real-time flow chart provided by the invention based on Internet of Things.
Fig. 2 is the field planting real-time monitoring system structural schematic diagram provided in an embodiment of the present invention based on Internet of Things;
In figure: 1, planting video acquisition module;2, ambient temperature and humidity acquisition module;3, soil data acquisition module;4, number According to transmission module;5, central control module;6, Internet of Things communication module;7, lighting module;8, growth conditions monitoring modular;9, Monitoring data memory module;10, monitoring display module.
Specific embodiment
In order to further understand the content, features and effects of the present invention, the following examples are hereby given, and cooperate attached Detailed description are as follows for figure.
Structure of the invention is explained in detail with reference to the accompanying drawing.
As shown in Figure 1, the field planting method of real-time provided by the invention based on Internet of Things, specifically:
S101: field planting scene video data are acquired using camera;Temperature Humidity Sensor is using population to crop field The temperature of planting environment, humidity data are acquired and fusion treatment, and the synchronous multistage error compensating method of function that carries out is to real-time The data of acquisition just carry out error concealment;Acquire soil acidity or alkalinity, the soil water of field soil in real time using Soil K+adsorption instrument Divide, soil nutrient content data;
S102: the data of acquisition are sent out using data line connection camera, Temperature Humidity Sensor, Soil K+adsorption instrument Central control module is sent to be handled;It is communicated using wireless transmitter connection Internet of Things;
S103: lighting operation is provided to crop field plant using red blue LED lamp;Layer is carried out to noisy image by realizing The camera of secondary Bayes Modeling, acquisition under the red blue light illumination of LED the RGB image feature of environmental background and plant to plant Upgrowth situation is monitored;
S104: monitor video, the ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil of memory storage acquisition are utilized Earth nutrient content data, upgrowth situation data;Using the display display monitoring system interface and acquisition adjusted by PWM Monitor video, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
In step S101, Temperature Humidity Sensor provided in an embodiment of the present invention is using population to field planting environment Temperature, humidity data are acquired and fusion treatment;The synchronous multistage error compensating method of function that carries out is to the data acquired in real time Error concealment is just carried out, Acquisition Error is effectively eliminated, facilitates the temperature of environment, the accurate acquisition of humidity data, it is specific to miss Poor removing method are as follows:
During the transmission of sensor data acquisition data, sensing system error and number are indicated using following formula According to the connection between transmission matrix:
Related data in above-mentioned formula, it is necessary to meet the requirement of following formula:
In the transmission of sensor data acquisition data, the width of signal transmission can be calculated with following formula:
Δ κ=N/ Δ σ '=e Δ γ/d ω N=(Δ q/f-d Δ q) N
In formula, N is the distance that sensor data acquisition data need to transmit;
Δ σ ' is data delivery lag parameter;
F is the speed that sensor data acquisition data are transmitted in the case where not considering extraneous factor interference;
ω is the deflection angle in data transfer;
Above-mentioned formula is converted, following result can be obtained:
Δ κ=N/ Δ σ '=N Δ q/f
It can be calculated using following formula since sensor acquires error caused by data attribute difference:
It is capable of the second order function of error caused by computation attribute difference using following formula:
In formula, the value of P (y) can be calculated with following formula:
P (y)=T (y)-1F(y)T(y)
Using following formula, the error parameter during sensor data acquisition can be calculated:
Using following formula, the sensor data acquisition errors can be compensated with processing:
It is provided in an embodiment of the present invention to be passed through using camera to noisy image progress level Bayes in step S103 Modeling, correct reflection and the space structure using acquisition picture, the correctness for improving image procossing and using, guarantee that acquisition exists The RGB image feature of environmental background and plant carries out accurate measurements, specific side to vegetation growth state under the red blue light illumination of LED Method are as follows:
Picture noise signal Gaussian distributed carries out level Bayes Modeling to noisy image;Unit matrix is indicated with I, A, b, c, d, e, f are Study first (constant), as follows to image modeling:
xi=Ψ θiiθi=ziowi
ψ=(ψ1, ψ2..., ψkk~N (0, n-1In)
γw~Γ (c, d) γε~Γ (e, f)
In order to preferably keep the space structure of image, to ziIt models as follows:
Wherein, G indicates Gaussian Profile, πiFrom Gaussian Profile obtained by random sampling;
In order to reduce γwAnd γεSusceptibility, it can be made to obey that mean value is smaller and the biggish gamma distribution of variance;
The Gibbs methods of sampling in Markov chain Monte-Carlo (CMCM) method usually can be used to level pattra leaves This model carries out nonparametric reasoning.
It is provided in an embodiment of the present invention using the display adjusted by PWM in step S104, it is adjusted and is shown by PWM The brightness of screen improves the brightness uniformity of display screen, improves monitor video, the environment temperature of display monitoring system interface and acquisition The clarity that humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data are shown, is conducive to show Show that device is clear and accurate to display data, guarantee the accuracy of reading data, improves working efficiency;Method particularly includes:
It is corresponded by the line number and row number of each lamp point and actual display screen lamp point, according to the school of each lamp point Positive coefficient adjusts the width of input pulse so as to adjust lamp point brightness:
In formula: Ri、Gi、BiRed, green, blue the correction coefficient of respectively i-th of lamp point, Irt、Igt、 IbtRespectively The relatively bright angle value of three color correction target values, Iri、Igi、IbiThe relatively bright angle value of respectively three color of lamp point.
As shown in Fig. 2, the field planting real-time monitoring system provided by the invention based on Internet of Things includes: plantation video Acquisition module 1, ambient temperature and humidity acquisition module 2, soil data acquisition module 3, data transmission module 4, central control module 5, Internet of Things communication module 6, lighting module 7, growth conditions monitoring modular 8, monitoring data memory module 9, monitoring display module 10。
Video acquisition module 1 is planted, is connect with data transmission module 4, for acquiring field planting scene by camera Video data;
Ambient temperature and humidity acquisition module 2 is connect with data transmission module 4, for being acquired in real time by Temperature Humidity Sensor The temperature of field planting environment, humidity data;
Soil data acquisition module 3 is connect with data transmission module 4, for acquiring crop field in real time by Soil K+adsorption instrument Soil acidity or alkalinity, soil moisture, the soil nutrient content data of soil;
Data transmission module 4 acquires mould with plantation video acquisition module 1, ambient temperature and humidity acquisition module 2, soil data Block 3, central control module 5 connect, will for connecting camera, Temperature Humidity Sensor, Soil K+adsorption instrument by data line The data of acquisition are sent to central control module and are handled;
Central control module 5 is monitored with data transmission module 4, Internet of Things communication module 6, lighting module 7, growth conditions Module 8, monitoring data memory module 9, monitoring display module 10 connect, for controlling the normal work of modules by single-chip microcontroller Make;
Internet of Things communication module 6 is connect with central control module 5, is carried out for connecting Internet of Things by wireless transmitter Communication;
Lighting module 7 is connect with central control module 5, for providing illumination to crop field plant by red blue LED lamp Operation;
Growth conditions monitoring modular 8 is connect with central control module 5, for being acquired by camera in the red blue light of LED The RGB image feature for irradiating lower environmental background and plant is monitored vegetation growth state;
Monitoring data memory module 9 is connect with central control module 5, for being regarded by the monitoring of memory storage acquisition Frequently, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data;
Monitoring display module 10 is connect with central control module 5, for by display display monitor system interface and The monitor video of acquisition, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
6 communication means of Internet of Things communication module provided by the invention is as follows:
1) request for generating dynamic unique encodings is sent to server by field planting monitoring device;
2) server responds the request, generates dynamic unique encodings;
3) for dynamic unique encodings generated to be imported controlling terminal;
4) the dynamic unique encodings are uploaded to by the server by controlling terminal;
5) measuring device for sending request is tied up with the controlling terminal for uploading dynamic unique encodings by the server It is fixed, so that the two establishes one-to-one communication connection.
The dynamic unique encodings of generation provided by the invention are graphic form, and being imported by controlling terminal scanning should Dynamic unique encodings.
Communication means provided by the invention further include: by triggering the button being arranged on the measuring device to make The measuring device sends the request for generating dynamic unique encodings to server.
Step 5) provided by the invention is by the physical address phase of the physical address of the measuring device and the controlling terminal Binding.
It is provided by the invention when server is connected to new request and carries out new binding, release measuring device with before The binding of one controlling terminal.
8 monitoring method of growth conditions monitoring modular provided by the invention is as follows:
(1) with the acquisition of video monitoring the camera RGB image of environmental background and crop field plant under the red blue light illumination of LED RGB image;
(2) image will be obtained in step (1), physical modeling is carried out according to forming process of the Kubelka-Munk theory to it, In the model space, the characteristic parameter with color constancy characteristic is defined;
(3) the collected RGB image of step (1) is subjected to linear transformation and obtains the spectrum parameter in Gauss color space E、Eλ、Eλλ
(4) spectrum parameter obtained in step (3) is filtered in x-axis direction with N-jet operator, obtains Gauss color The spatial parameter E of color spacex、Eλx、Eλλx;It is filtered in y-axis direction with N-jet operator, obtains the sky of Gauss color space Between parameter Ey、Eλy、Eλλy;Described E, Eλ、Eλλ、Ex、Eλx、Eλλx、 Ey、Eλy、EλλyConstitute complete Gauss color space parameters;
(5) RGB obtained in step (1) is calculated according to the Gauss color space parameters that step (3) and step (4) obtain Characteristic parameter H, the W with color constancy characteristic of image in Gauss color spacex、Wy;And in environmental background image Each pixel H, Wx、WyParameter carries out single Gauss modeling respectively;
(6) H, W of each pixel of current video input frame are calculatedx、WyParameter, compared with background model, according to default Judgment criterion determine current pixel belong to background pixel or belong to plant pixel;
(7) it is judged as that the pixel of background is used to update environmental background model in step (6), updates the mean value of Gaussian Profile And standard deviation.
(8) it post-processes: to by treated for step (1)-(7), video frame images carry out thresholding, Morphological scale-space etc. Post-processing operation obtains the bianry image of accurate plant;
(9) the every frame inputted video image corresponding bianry image comprising culture plant is exported, judges to plant by image Object growth conditions.
When the invention works, firstly, acquiring field planting scene visual using camera by plantation video acquisition module 1 Frequency evidence;Acquire the temperature, wet of field planting environment in real time using Temperature Humidity Sensor by ambient temperature and humidity acquisition module 2 Degree evidence;Acquire soil acidity or alkalinity, the soil of field soil in real time using Soil K+adsorption instrument by soil data acquisition module 3 Moisture, soil nutrient content data;Camera, temperature and humidity sensing are connected using data line by data transmission module 4 Device, Soil K+adsorption instrument send central control module for the data of acquisition and handle;Secondly, central control module 5 passes through object Connected network communication module 6 is communicated using wireless transmitter connection Internet of Things;It is given by lighting module 7 using red blue LED lamp Crop field plant provides lighting operation;The ring under the red blue light illumination of LED is acquired using camera by growth conditions monitoring modular 8 Border background and the RGB image feature of plant are monitored vegetation growth state;Then, pass through 9 benefit of monitoring data memory module With memory storage acquisition monitor video, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, Upgrowth situation data;Finally, being regarded by monitoring display module 10 using the monitoring of display display monitoring system interface and acquisition Frequently, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
The above is only the preferred embodiments of the present invention, and is not intended to limit the present invention in any form, Any simple modification made to the above embodiment according to the technical essence of the invention, equivalent variations and modification, belong to In the range of technical solution of the present invention.

Claims (5)

1. a kind of field planting method of real-time based on Internet of Things, which is characterized in that the crop field kind based on Internet of Things Planting method of real-time includes:
The first step acquires field planting scene video data using camera;Temperature Humidity Sensor is using population to crop field kind Plant that the temperature of environment, humidity data is acquired and fusion treatment, the synchronous multistage error compensating method of function that carries out to adopting in real time The data of collection just carry out error concealment;Acquire the soil acidity or alkalinity, soil moisture, soil of field soil in real time using Soil K+adsorption instrument Earth nutrient content data;
Second step is sent the data of acquisition to using data line connection camera, Temperature Humidity Sensor, Soil K+adsorption instrument Central control module is handled;It is communicated using wireless transmitter connection Internet of Things;
Third step provides lighting operation to crop field plant using red blue LED lamp;Level shellfish is carried out to noisy image by realizing Ye Si modeling camera, acquisition under the red blue light illumination of LED the RGB image feature of environmental background and plant to plant growth shape Condition is monitored;
4th step is supported using the monitor video of memory storage acquisition, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil Divide content data, upgrowth situation data;Using the display display monitoring system interface adjusted by PWM and the monitoring view of acquisition Frequently, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
2. the field planting method of real-time based on Internet of Things as described in claim 1, which is characterized in that the step 1 Middle Temperature Humidity Sensor is acquired using population to the temperature of field planting environment, humidity data and fusion treatment;It is synchronous It carries out function multistage error compensating method and error concealment, specific error cancelling method is just carried out to the data acquired in real time are as follows:
During the transmission of sensor data acquisition data, benefit is formulated sensing system error and data transfer matrix Between connection:
In the transmission of sensor data acquisition data, the width of signal transmission can be calculated with following formula:
Δ κ=N/ Δ σ '=e Δ γ/d ω N=(Δ q/f-d Δ q) N
In formula, N is the distance that sensor data acquisition data need to transmit;
Δ σ ' is data delivery lag parameter;
F is the speed that sensor data acquisition data are transmitted in the case where not considering extraneous factor interference;
ω is the deflection angle in data transfer;
Above-mentioned formula is converted, following result can be obtained:
Δ κ=N/ Δ σ '=N Δ q/f
It can be calculated using following formula since sensor acquires error caused by data attribute difference:
It is capable of the second order function of error caused by computation attribute difference using following formula:
In formula, the value of P (y) can be calculated with following formula:
P (y)=T (y)-1F(y)T(y)
Using following formula, the error parameter during sensor data acquisition can be calculated:
Using following formula, the sensor data acquisition errors can be compensated with processing:
3. the field planting method of real-time based on Internet of Things as described in claim 1, which is characterized in that the step 3 It is middle using camera by noisy image carry out level Bayes Modeling, acquisition under the red blue light illumination of LED environmental background and The RGB image feature of plant carries out accurate measurements to vegetation growth state, method particularly includes:
Picture noise signal Gaussian distributed carries out level Bayes Modeling to noisy image;Unit matrix is indicated with I, a, b, C, d, e, f are Study first (constant), as follows to image modeling:
xi=Ψ θii θi=ziowi
Ψ=(ψ1, ψ2..., ψk) ψk~N (0, n-1In)
γw~Γ (c, d) γε~Γ (e, f)
To ziIt models as follows:
Wherein, G indicates Gaussian Profile, πiFrom Gaussian Profile obtained by random sampling.
4. a kind of crop field based on Internet of Things for realizing the field planting method of real-time described in claim 1 based on Internet of Things Plant real-time monitoring system, which is characterized in that the field planting real-time monitoring system based on Internet of Things includes:
Video acquisition module is planted, is connect with data transmission module, for acquiring field planting scene visual frequency by camera According to;
Ambient temperature and humidity acquisition module, connect with data transmission module, for acquiring crop field kind in real time by Temperature Humidity Sensor Plant temperature, the humidity data of environment;
Soil data acquisition module, connect with data transmission module, for acquiring field soil in real time by Soil K+adsorption instrument Soil acidity or alkalinity, soil moisture, soil nutrient content data;
Data transmission module, with plantation video acquisition module, ambient temperature and humidity acquisition module, soil data acquisition module, center Control module connection, for by data line connection camera, Temperature Humidity Sensor, Soil K+adsorption instrument by the data of acquisition Central control module is sent to be handled;
Central control module, with data transmission module, Internet of Things communication module, lighting module, growth conditions monitoring modular, monitoring Data memory module, monitoring display module connection, work normally for controlling modules by single-chip microcontroller;
Internet of Things communication module, connect with central control module, is communicated for connecting Internet of Things by wireless transmitter;
Lighting module is connect with central control module, for providing lighting operation to crop field plant by red blue LED lamp;
Growth conditions monitoring modular, connect with central control module, for passing through camera acquisition ring under the red blue light illumination of LED Border background and the RGB image feature of plant are monitored vegetation growth state;
Monitoring data memory module, connect with central control module, for monitor video, the environment by memory storage acquisition Temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data;
Monitoring display module is connect with central control module, for showing the prison of monitoring system interface and acquisition by display Control video, ambient temperature and humidity, soil acidity or alkalinity, soil moisture, soil nutrient content data, upgrowth situation data.
5. a kind of information using the field planting method of real-time described in claims 1 to 3 any one based on Internet of Things Data processing terminal.
CN201811622215.1A 2018-12-28 2018-12-28 A kind of field planting real-time monitoring system and method based on Internet of Things Withdrawn CN109655108A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201811622215.1A CN109655108A (en) 2018-12-28 2018-12-28 A kind of field planting real-time monitoring system and method based on Internet of Things

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201811622215.1A CN109655108A (en) 2018-12-28 2018-12-28 A kind of field planting real-time monitoring system and method based on Internet of Things

Publications (1)

Publication Number Publication Date
CN109655108A true CN109655108A (en) 2019-04-19

Family

ID=66117236

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201811622215.1A Withdrawn CN109655108A (en) 2018-12-28 2018-12-28 A kind of field planting real-time monitoring system and method based on Internet of Things

Country Status (1)

Country Link
CN (1) CN109655108A (en)

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110133201A (en) * 2019-06-11 2019-08-16 湖南省园艺研究所 A kind of plum blossom heat resistance index monitoring system and method based on multisensor
CN110455340A (en) * 2019-08-21 2019-11-15 池州市农产品质量安全监测中心 A kind of agricultural cultivation EMS based on big data
CN116941400A (en) * 2023-07-28 2023-10-27 济宁市兖州区同瑞机械有限公司 Fertilization control system based on thing networking
CN117391613A (en) * 2023-10-08 2024-01-12 菏泽单州数字产业发展有限公司 Agricultural industry garden management system based on Internet of things

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110133201A (en) * 2019-06-11 2019-08-16 湖南省园艺研究所 A kind of plum blossom heat resistance index monitoring system and method based on multisensor
CN110455340A (en) * 2019-08-21 2019-11-15 池州市农产品质量安全监测中心 A kind of agricultural cultivation EMS based on big data
CN110455340B (en) * 2019-08-21 2020-05-15 池州市农产品质量安全监测中心 Agricultural product planting environment detection system based on big data
CN116941400A (en) * 2023-07-28 2023-10-27 济宁市兖州区同瑞机械有限公司 Fertilization control system based on thing networking
CN117391613A (en) * 2023-10-08 2024-01-12 菏泽单州数字产业发展有限公司 Agricultural industry garden management system based on Internet of things
CN117391613B (en) * 2023-10-08 2024-03-15 菏泽单州数字产业发展有限公司 Agricultural industry garden management system based on Internet of things

Similar Documents

Publication Publication Date Title
CN109655108A (en) A kind of field planting real-time monitoring system and method based on Internet of Things
US11440659B2 (en) Precision agriculture implementation method by UAV systems and artificial intelligence image processing technologies
CN106657401B (en) Crop growth monitoring platform based on Internet of things and monitoring method thereof
CN104503518B (en) A kind of small intelligent plant growth system
CN203433329U (en) Intelligent greenhouse Internet-of-Things remote monitoring device
CN104077725B (en) The monitoring of potato planting Internet of Things, control and information service cloud platform integrated system
US20210169014A1 (en) Systems and methods for image capture in an assembly line grow pod
CN106406403A (en) Agriculture management and control system based on augmented reality
CN111008733B (en) Crop growth control method and system
JP6295452B2 (en) Crop development support device and program thereof
CN206820788U (en) A kind of plant factor plant growing way record and plantation suggesting system for wearing
CN107132228A (en) A kind of high flux phenotype research system of the full growth period information of rape
CN102564593A (en) Plant growth condition monitoring system based on compute vision and internet of things
CN108427457A (en) A kind of greenhouse control system based on augmented reality application
CN109757175A (en) A kind of corn water-fertilizer integral variable fertilization method based on unmanned plane monitoring
CN106841051A (en) A kind of crop nitrogen nutrition detection method based on visual image fusion value
CN106197549A (en) A kind of flower planting ambient parameter detection method
CN107121535A (en) A kind of effective crop growth environment monitoring system
CN110024648A (en) The accurate implantation methods of bulbus fritillariae cirrhosae based on deep neural network
JP4140052B2 (en) Image correction method for crop growth diagnosis method
CN110332957A (en) A kind of arviculture information processing system and method
CN107368129A (en) Greenhouse planting display method and greenhouse planting display system
CN116762676A (en) Dynamic irrigation control method and system based on crop phenotype image
CA3182310A1 (en) Plant growth identification method and system therefor
CN111160250A (en) Blueberry growing period detection method and device based on artificial neural network

Legal Events

Date Code Title Description
PB01 Publication
PB01 Publication
SE01 Entry into force of request for substantive examination
SE01 Entry into force of request for substantive examination
WW01 Invention patent application withdrawn after publication

Application publication date: 20190419

WW01 Invention patent application withdrawn after publication