CN109492619A - Integrate the variable pesticide grown method and system of remote sensing, model, algorithm - Google Patents
Integrate the variable pesticide grown method and system of remote sensing, model, algorithm Download PDFInfo
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Abstract
This application involves technical field of data processing, more particularly to a kind of variable pesticide grown method and system for integrating remote sensing, model, algorithm, this method comprises: the mapping relations where determining crop between the geography information of growing location and the actual geographic information of the growing location;According to mapping relations, the remote sensing images of growing location where crop are divided at least one grid, wherein each grid corresponds to the operating area of preset area in growing location;The case where infecting potential disease based on the crop for the prediction of each operating area, it is greater than the operating area of preset value for the incidence rate of potential disease, the pesticide dosage that configuration matches with the potential disease type of crop and the severity of catching an illness of potential disease carries out variable farm chemical applying with the crop to place growing location.The embodiment of the present application provides a kind of variable pesticide grown method and system for integrating remote sensing, model, algorithm, can control the dosage of pesticide, improves the utilization rate of pesticide, and then improve farmland yield.
Description
Technical field
This application involves technical field of data processing more particularly to it is a kind of integrate remote sensing, model, algorithm variable apply
Pesticide method and system.
Background technique
Currently, in agricultural production, pest and disease damage and weed problem can largely effect on the yield in farmland, by taking wheat as an example, state
The yield and sown area of interior wheat account for the 1/3 of whole world grain, are one of three generalized grain of the world;And crop smothering be wheatland yield most
Have one of deterrent, nearly 5,000,000,000 kilograms of the loss in China can be caused every year.In agricultural production, for ensure, promote plant and
The growth of crop can be used pesticide and come desinsection, sterilization or eliminate weeds.
Pesticide be mostly when in use by manually being sprayed or being smeared, spray or smear pesticide during, can not
The effectively dosage of control pesticide, be easy to cause indiscriminate use of pesticide.
Summary of the invention
In view of this, the embodiment of the present application provide it is a kind of integrate remote sensing, model, algorithm variable pesticide grown method and
System can control the dosage of pesticide, improve the utilization rate of pesticide, and then improve farmland yield.
In a first aspect, the embodiment of the present application provides a kind of variable pesticide grown side for integrating remote sensing, model, algorithm
Method, which comprises
Mapping where the geography information of growing location where determining crop and crop between the actual geographic information of growing location
Relationship;
According to the mapping relations, growing location where crop is divided at least one grid, wherein each grid is corresponding
The operating area of preset area in the growing location;
The case where infecting potential disease based on the crop for each operating area prediction, is the potential disease
The incidence rate of disease is greater than the operating area of preset value, configuration and the potential disease type of the crop and catching an illness for potential disease
The pesticide dosage that severity matches carries out variable farm chemical applying with the crop to place growing location.
In a kind of possible embodiment, the case where predicting the crop infection potential disease according to following steps:
The growing environment feature of crop described in current Growing season based on prediction, the growing location history onset state,
The arable land situation of growing location described in current Growing season, current Growing season crop resist this place and often send out disease ability, a upper Ji Suoshu
At least one of the disease type that the crops of growing location described in the crop type of growing location and a upper season occur information,
Predict the potential disease of crops described in current Growing season;
After crop sowing, based on the aerial environmental information of crop described in each operating area, underground
Growing environment information, soil information, Indices, crop actual growing situation information and growth phase information, when predicting following default
Between the case where crop described in each operating area infects the potential disease in length.
In a kind of possible embodiment, crop described in each operating area in the following predetermined time period of the prediction
The case where infecting the potential disease, comprising:
Predict crop described in each operating area in the following predetermined time period infect the potential disease probability and
Degree, the underproduction rate of the crop and best spraying time.
In a kind of possible embodiment, according to following steps predict current Growing season described in crop growing environment it is special
Sign, comprising:
Obtain the growing location historical growth season weather characteristics and the crop sow before growth in preset time period
Season weather characteristics;
Growing season weather before being sowed according to the historical growth season weather characteristics and the crop in preset time period is special
Sign, the growing environment feature of growing location where predicting crop described in current Growing season;
The aerial environmental information of the crop is predicted according to following steps:
According to the temperature, humidity and rainfall of the growing location, the aerial environmental information for characterizing the crop is determined
Meteorological Index;
The underground growing environment information of the crop is predicted according to following steps:
Deep, water demand information and nutrient demand information according to the root of crop described in each operating area, determination are used for
Characterize the day water stress index and day Nutrient Stress index of the crop of the underground growing environment information;
The growth phase information of the crop is predicted according to following steps:
According to the Weather information of the growing location, soil information, tillage system reform, upper season agrotype, the day water side of body
Compel that index, day Nutrient Stress index, day water requirement, growing environment day water supply, amount of nutrients, growing environment day be for nutrient day by day
Amount, current Growing season density of crop, the agrotype of the crop and day disease coerce index, predict the life of the crop
Long session information.
In a kind of possible embodiment, the Indices are determined by following steps:
Obtain the remote sensing images of the crop;
From the growing way characteristic information for extracting the crop on each operating area in the remote sensing images;
Based on the growing way characteristic information, the Indices of the crop are determined.
In a kind of possible embodiment, the configuration and the potential disease type of the crop and catching an illness for potential disease
The pesticide dosage that severity matches, comprising:
The agriculture of the case where infecting potential disease according to the crop of each operating area prediction, the treatment potential disease
Current pesticide price, the crop price of prediction of medicine are determined as the pesticide dosage of each operating area configuration.
In a kind of possible embodiment, the method also includes:
It is described according to the operating apparatus used on the pesticide dosage and each operating area determined on each operating area
The sprinkling strategy of route and the operating apparatus that crop setting is sprayed insecticide;
The operating apparatus is according to the route sprayed insecticide, the pesticide dosage to match with the operating area and institute
The sprinkling strategy of operating apparatus is stated, is sprayed insecticide for the crop on the operating area.
In a kind of possible embodiment, after carrying out variable farm chemical applying to the crop of place growing location, further includes:
It obtains in preset time range, the actual growing situation information of crop and/or the practical defect information of crop;
According to the actual growing situation information and/or practical defect information, configuration and the actual growing situation information and/or reality
The supplement pesticide dosage that defect information matches, in the case where affiliated supplement pesticide dosage is greater than zero, to place growing location
The crop carry out additional variable application.
In a kind of possible embodiment, the method also includes:
Obtain practical defect information, Indices and the soil information of crop described in each operating area;
According to the practical defect information, the Indices and the soil information, each operating area is judged
Described in crop whether have application be worth;
In the case that the crop described in the operating area has application value, institute in each operating area is estimated
State the disease degree index of crop;
According to the disease degree index of crop described in each operating area of estimation, the pesticide of the currently practical disease for the treatment of
Current pesticide price, the crop price of prediction, be determined as the pesticide dosage of each operating area configuration.
Second aspect, the embodiment of the present application also provides a kind of variable pesticide grown systems for integrating remote sensing, model, algorithm
System, the system comprises: division module and variable farm chemical applying module;Wherein,
The division module, for the remote sensing images of growing location where crop to be divided at least one grid, wherein every
A grid corresponds to the operating area of preset area in the growing location;
The variable farm chemical applying module, for infecting potential disease based on the crop for each operating area prediction
The situation of disease is that the incidence rate of the potential disease is greater than the operating area of preset value, potential disease of the configuration with the crop
The pesticide dosage that sick type and the severity of catching an illness of potential disease match carries out variable with the crop to place growing location and applies
Medicine.
The third aspect, the embodiment of the present application also provides a kind of electronic equipment, comprising: processor, memory and bus, institute
State memory and be stored with the executable machine readable instructions of the processor, when network side equipment operation, the processor with
By bus communication between the memory, the step of the above method is executed when the machine readable instructions are executed by the processor
Suddenly.
Fourth aspect, the embodiment of the present application also provides a kind of computer readable storage medium, the computer-readable storages
The step of being stored with computer program on medium, the above method executed when which is run by processor.
Using the above scheme, growing location where crop is divided at least one grid, wherein described in each grid is corresponding
The operating area of preset area in growing location predicts crop infection potential disease situation in each operating area, can be with
The pesticide dosage that configuration matches with the severity of catching an illness with the potential disease type of the crop and potential disease, to have
The control Pesticide use dosage of effect improves the utilization rate of pesticide, and then improves farmland yield.
To enable the above objects, features, and advantages of the embodiment of the present application to be clearer and more comprehensible, below in conjunction with embodiment, and
Cooperate appended attached drawing, elaborates.
Detailed description of the invention
Technical solution in ord to more clearly illustrate embodiments of the present application, below will be to needed in the embodiment attached
Figure is briefly described, it should be understood that the following drawings illustrates only some embodiments of the application, therefore is not construed as pair
The restriction of range for those of ordinary skill in the art without creative efforts, can also be according to this
A little attached drawings obtain other relevant attached drawings.
Fig. 1 shows the variable pesticide grown method for integrating remote sensing, model, algorithm provided by the embodiment of the present application one
Basic flow chart;
Fig. 2 shows the variable pesticide grown methods for integrating remote sensing, model, algorithm provided by the embodiment of the present application two
Specific flow chart
Fig. 3 shows the variable pesticide grown system for integrating remote sensing, model, algorithm provided by the embodiment of the present application three
Structure chart;
Fig. 4 shows the structure chart of electronic equipment provided by the embodiment of the present application four.
Specific embodiment
To keep the purposes, technical schemes and advantages of the embodiment of the present application clearer, below in conjunction with the embodiment of the present application
In attached drawing, the technical scheme in the embodiment of the application is clearly and completely described, it is clear that described embodiment is only
It is only some embodiments of the present application, instead of all the embodiments.It is not to the detailed description of embodiments herein below
It is intended to limit claimed scope of the present application, but is merely representative of the selected embodiment of the application.Reality based on the application
Apply example, those skilled in the art's every other embodiment obtained without making creative work belongs to
The range of the application protection.
It, can be by the way that growing location where crop be divided at least one grid, wherein each net in the embodiment of the present application
Lattice correspond to the operating area of preset area in the growing location, carry out to crop infection potential disease situation in each operating area
Prediction can configure the pesticide agent to match with the severity of catching an illness with the potential disease type of the crop and potential disease
Amount improves the utilization rate of pesticide, and then improve farmland yield to effectively control Pesticide use dosage.
Following embodiments will elaborate to variable farm chemical applying process.
Embodiment one
The embodiment of the present application one provide it is a kind of integrate remote sensing, model, algorithm variable pesticide grown method it is basic
Process is as shown in Figure 1, comprising the following steps:
S101: the mapping where determining crop between the geography information of growing location and the actual geographic information of the growing location
Relationship.
In a kind of possible embodiment, it can be predicted by the way that the application is carried out the case where crop infects potential disease
The map on plant growth ground used in the map on the plant growth ground of Shi Suoyong, the application Growing season weather prediction model, first
Plant growth ground used in the map on the ground of plant growth used in crop diseases prediction model, the second crop diseases prediction model
The remote sensing images on the map on plant growth ground or plant growth ground used in map, explosive charge model, with the growing location
Actual geographic information is mapped.Specifically for example, the longitude and latitude of growing location where obtaining crop by mapping.
S102: according to the mapping relations, growing location where crop is divided at least one grid, wherein each net
Lattice correspond to the operating area of preset area in the growing location.
It, can basis in a kind of possible embodiment, such as after the longitude and latitude of growing location where acquisition crop
Growing location where crop is divided at least one grid by the longitude and latitude of growing location where crop.It specifically, can basis
Growing location where crop is divided at least one the 1 meter grid for multiplying 1 meter by the longitude and latitude of growing location where crop.Certainly
, 1 meter herein multiplies 1 meter only to facilitate understanding the example enumerated, and the application does not do specifically the size and shape of grid
Restriction, at least one above-mentioned grid can be square, rectangle, circle, ellipse or the common shape such as trapezoidal, grid
Size can be bigger or smaller.
It, can using the operating area of preset area in growing location described in grid dividing for growing location where crop
Easily to adjust the range of operating area, it is potential that growing location where crop is divided into different operating area progress crop infection
The analysis of the case where disease, and analyze more accurate.For example, using lesser grid, such as 1 meter multiplies 1 meter of grid, divides crop
Place growing location, available range is smaller, the higher operating area of precision, thus to each operation in growing location where crop
The crop in region infects the more accurate analysis of the case where potential disease progress.
Also, using the operating area of preset area in growing location described in grid dividing, the scope of application is wider, can basis
Plant growth size difference, the difference of application equipment, select different size of grid to divide growth where crop.
For example, growth where crop can be divided into the biggish grid of range in the case where using aircraft operation and do rough analysis;
In the case where using unmanned machine operation, the grid that growth where crop is divided into the grid that 1 meter multiplies 1 meter can be done more accurate
Analysis.
S103: the case where infecting potential disease based on the crop for each operating area prediction, is described
The incidence rate of potential disease is greater than the operating area of preset value, the potential disease type and potential disease of configuration and the crop
The pesticide dosage that matches of severity of catching an illness, variable farm chemical applying is carried out with the crop to place growing location.
In a kind of possible embodiment, the case where crop infects potential disease is predicted according to following steps:
The growing environment feature of crop described in current Growing season based on prediction, the growing location history onset state,
The arable land situation of growing location described in current Growing season, current Growing season crop resist this place and often send out disease ability, a upper Ji Suoshu
At least one of the disease type that the crops of growing location described in the crop type of growing location and a upper season occur information,
Predict the potential disease of crops described in current Growing season.
After crop sowing, based on the aerial environmental information of crop described in each operating area, underground
Growing environment information, soil information, Indices, crop actual growing situation information and growth phase information, when predicting following default
Between the case where crop described in each operating area infects the potential disease in length.
In a kind of possible embodiment, according to following steps predict current Growing season described in crop growing environment it is special
Sign, comprising:
Obtain the growing location historical growth season weather characteristics and the crop sow before growth in preset time period
Season weather characteristics.
Growing season weather before being sowed according to the historical growth season weather characteristics and the crop in preset time period is special
Sign, the growing environment feature of growing location where predicting crop described in current Growing season.
Specifically, predicting the growing environment feature of crop described in current Growing season, comprising:
Step 1, the historical growth season weather characteristics of growing location where obtaining crop.
Here, the historical growth season weather characteristics of growing location where crop may include: EI Nino-south oscillation class
Type and degree, Growing season weather characteristics index.Growing season weather characteristics index may include Growing season annual in 18 years in the past
Weather characteristics index.The application acquired within the scope of the long period, such as in 18 years, annual Growing season weather characteristics index,
It is hereby achieved that richer, comprehensive historical growth season weather characteristics sample, more to the analyses of historical growth season weather characteristics
Precisely, be conducive to usage history Growing season weather characteristics to predict the weather condition of current Growing Season of Crops.
Historical growth season weather characteristics may include: EI Nino-south type of oscillation and degree, actually utilize it is effective
Accumulated temperature, the maximum temperature of environment, the minimum temperature of environment and Growing season weather characteristics index and current EI Nino-south
The correlation of (abbreviation ENSO) event of oscillation.
Wherein, the effective accumulated temperature actually utilized=this block growing location effective accumulated temperature × using accumulated temperature coefficient;Effectively product
Temperature can be the summation of crop effective temperature within some breeding time or whole breeding times, i.e., crop is in certain a period of time Nei Ping
The summation of the difference of equal temperature and biological zero point.There is also ceiling temperatures for some crops, i.e., when temperature rise to certain limit with
Afterwards, temperature increases again, and the rate of development of crop can not be made obviously to accelerate, or even can play inhibiting effect.In preference temperature scope
Interior (between upper and lower limit temperature), Crop development speed and temperature line relationship.
EI Nino-south oscillation (abbreviation ENSO) is referred to as EI Nino/La Nina-southern oscillation, is to occur
Across a kind of Pacific climate type paracycle of equator, occurred every about 5 years primary.Southern oscillation refers to eastern peace
The sea of foreign equatorial zone sea surface temperature when Ramsey numbers (warm when EI Nino event, turn cold) and Equatorial Western Pacific region
The variation of air pressure on face.Both variations connect each other, it may be assumed that the warm foreign stage of Eastern Pacific, i.e. EI Nino, along with
The high sea level pressure of Western Pacific;Eastern Pacific turns cold the stage, i.e. La Nina, along with the low sea level pressure of Western Pacific.
EI Nino event can be divided into 3 kinds of fundamental types: occur in tropical Middle Pacific, the weaker warm pool EI Nino thing of intensity
Part;Occur in tropical Eastern Pacific, the very strong extreme EI Nino event of intensity;- Eastern Pacific occurs in the torrid zone, intensity is suitable
In cold tongue EI Nino event.
Step 2, the Growing season weather characteristics before the crop is sowed in preset time period are obtained.
Growing season weather characteristics may include: EI Nino-south type of oscillation and degree, the effective product actually utilized
Temperature, the maximum temperature of environment, the minimum temperature of environment and Growing season weather characteristics index are related to current ENSO event
Property.Wherein, EI Nino-south type of oscillation and degree may include the current Growing season strategic point that crop sows prediction in first 3 months
That Nino-south type of oscillation and degree.
Step 3, the Growing season before being sowed according to the historical growth season weather characteristics and the crop in preset time period
Weather characteristics, the growing environment feature of growing location where predicting crop described in current Growing season.
In the specific implementation process, it can use Growing season weather prediction model, by above-mentioned historical growth season weather characteristics
Growing season weather characteristics before being sowed with the crop in preset time period, as growing location where predicting current Growing season crop
Growing environment information parameter, by analysis and after calculating, growing location where the current Growing season crop of available prediction
Growing environment feature.The growing environment feature of growing location where current Growing season crop may include: the rainfall of current Growing season
The minimum temperature of total amount, the effective accumulated temperature of current Growing season, the maximum temperature of current Growing season environment and current Growing season environment.
Due to obtaining the historical growth season weather characteristics of longer period, such as 18 years historical growth season weather spies
Sign, and the Growing season weather characteristics before the crop is sowed in preset time period are combined, make as the current Growing season of prediction
The parameter of the growing environment information of growing location where object, to the pre- of the growing environment feature of growing location where current Growing season crop
It is more accurate to survey.
The aerial environmental information of the crop is predicted according to following steps:
According to the temperature, humidity and rainfall of the growing location, the aerial environmental information for characterizing the crop is determined
Meteorological Index.
Specifically, aerial environmental information may include: the weather conditions information of the growing location, such as environment temperature
(max. daily temperature, Daily minimum temperature), ambient humidity (day highest humidity, day minimum humidity), rainfall are (every hour or daily
Rainfall) etc..
The underground growing environment information of the crop is predicted according to following steps:
Deep, water demand information and nutrient demand information according to the root of crop described in each operating area, determination are used for
Characterize the day water stress index and day Nutrient Stress index of the crop of the underground growing environment information.
The underground growing environment information include: that the root of the crop is deep and the soil regime of the growing location at least
One kind specifically such as can use soil testing instrument and monitor the depth of soil of the crop, soil texture, the soil texture, the soil water
Divide variation, soil nutrient, upper soll layer (0-30 centimetres of soil horizon) pH value, soil bottom (30-60 centimetres of soil horizon) soda acid
Degree, whether the soil layer of restricted root growth, the ratio of soil stone and the depth of root of the crop etc..For example, in plantation field corn
When, underground can be monitored using soil testing instrument on the direction of depth of soil every 30 centimetres of settings, one soil testing instrument
1.6 meters of soil environment.
Above-mentioned much information can be used as the input variable of soil moisture model, by analysis, calculate after, available table
The day water of moisture situation needed for levying the crop coerces index, and the day Nutrient Stress of nutrient situation needed for characterizing the crop refers to
Number.Wherein, day water stress index can by crop day water requirement, crop growth environment day water supply obtain.
The growth phase information of the crop is predicted according to following steps:
According to the Weather information of the growing location, soil information, tillage system reform, upper season agrotype, the day water side of body
Compel that index, day Nutrient Stress index, day water requirement, growing environment day water supply, amount of nutrients, growing environment day be for nutrient day by day
Amount, current Growing season density of crop, the agrotype of the crop and day disease coerce index, predict the life of the crop
Long session information.
Specifically, above- mentioned information are analyzed and is calculated, can determine the growth phase of the crop, such as tasseling stage, black
Layer phase etc..Wherein, the Weather information of the crop may include current Growing season day accumulated temperature, past 18 years Growing season day product
Highest degree/day, the minimum degree/day of current Growing season of warm, current Growing season, the daily rainfall of current Growing season work as previous existence
Long season day humidity, current Growing season day wind speed etc.;The soil information of the crop may include soil types, the soil texture,
Soil texture, upper soll layer pH value (0-30 centimetres), soil bottom pH value (30-60 centimetres), whether restricted, soil
The ratio of the soil layer of growth, soil stone;The tillage system reform of the crop may include not ploughing, shallowly ploughing (0~40 centimetre), is deep
It ploughs (40~70 centimetres).
The application has comprehensively considered the growth in historical growth season weather characteristics and the preceding preset time period of crop sowing
Season weather characteristics, and comprehensively considered aerial environmental information and underground growing environment information, combined that type is abundant, number
It measures huge parameter to be calculated, comprehensively considers the influence factor different to the every aspect of plant growth, the factor of consideration is got over
More, obtained growth phase estimation results are more accurate.
In a kind of possible embodiment, the Indices are determined by following steps:
Obtain the remote sensing images of the crop;
From the growing way characteristic information for extracting the crop on each operating area in the remote sensing images;
Based on the growing way characteristic information, the Indices of the crop are determined.
Specifically, the growing way characteristic information of above-mentioned crop can determine in the following manner, specifically such as, available distance
15 meters of height of crop or the higher satellite remote sensing images of precision or near-earth remote sensing images, extracting from the remote sensing images of the crop should
The growing way characteristic information of crop, such as plant height, crop color and crop leaf area information, and according to the growing way of the crop
Characteristic information determines the growing way index of the crop.The growing way index of crop can be the physical quantity of characterization crop growing state, pass through
The growing way index of crop, can be with the growing way characteristic information of monitoring crop.For example, the growing way index of crop can between 0-1, when
When growing way index is 1, show that the crop growing state is best;When the growing way index of crop is 0, show that the crop growing state is worst;When
When the growing way index of crop is between 0-0.35, show that the crop growing state is very poor (crop dead or close dead);When crop
When growing way index is between 0.35-0.5, show that the crop growing state is poor;When the growing way index of crop is between 0.5-0.75, table
The bright crop growing state is medium;When the growing way index of crop is between 0.75-1, show that the crop growing state is medium excellent or optimal.
The application utilizes the remote sensing images of crop, from extracting the crop on each operating area in the remote sensing images
Growing way characteristic information will can be made with the intuitive growing way characteristic information for obtaining crop in conjunction in step S102 comprehensively, conveniently
Growing location where object is divided at least one grid, divides according to the precision size of grid the operating area of each preset area
Not Huo Qu crop growing way characteristic information, more the growing way of crop can be assessed in detail.Especially in the life of crop
When long ground area is larger, the application can save a large amount of manpowers investigation resources, and avoid the influence of artificial subjective factor, obtain
The growing way assessment result arrived is more objective, detailed and accurate.
It, can also be using the field investigation project table on the spot obtained, to the plant growth rank of prediction in some embodiments
Section is confirmed that whether there is or not lodging for example, confirming corn by the picture in corn growth stage with growing way.
In a kind of possible embodiment, make described in each operating area in the following predetermined time period of the prediction
Object infects the case where potential disease, comprising:
Predict crop described in each operating area in the following predetermined time period infect the potential disease probability and
Degree, the underproduction rate of the crop and best spraying time.
It in specific implementation, can be by the first crop diseases prediction model to can in current Growing season process of crop growth
The potential disease that can occur is predicted.It specifically such as, can be by growing environment information, the history onset state, current of growing location
Growing location described in the agrotype of growing location described in the arable land situation of growing location described in Growing season, a upper season and a upper season
At least one of the disease type of crop generation and degree information, the ginseng as the potential disease that prediction crop may occur
Amount, and utilize the potential of the first crop diseases prediction model crop according to above-mentioned at least one current Growing season of information prediction
Disease.
Above-mentioned first crop diseases prediction model be according to former years historical data train come, for former years target growth
Season, by the arable land of growing location described in the growing environment information in target growth season, the history onset state of growing location, target growth season
Growing location described in the agrotype of growing location described in situation, a upper season in target growth season and a upper season in target growth season
The crop disease type and at least one of degree input feature vector of the information as the first crop diseases prediction model that occur,
The disease that crop described in target growth season is occurred obtains first as the output feature of the first crop diseases prediction model, training
Crop diseases prediction model.
In above-mentioned steps, the history crop onset state of growing location is the history disease generation feelings for growing ground crop
Condition, may include: disease type that recurrent crop diseases type, the premunition of crop, upper season crop have occurred and
It catches an illness severity.For example, the crop on a certain growing location in the past 5 years for the application form acquisition that farmer fills in can be passed through
Recurrent crop diseases, and current Growing season crop to the growing location often send out disease premunition (it is susceptible, in
Deng, it is high) etc..
The arable land situation of growing location described in current Growing season may include: plough type and topsoil depth etc., for example, should
The type of ploughing of the current Growing season in growing location is that no-tillage or item is ploughed, and topsoil depth is deep ploughing or shallow plowing etc..
Here, potential disease can not only be predicted, can also predicts incidence rate, the potential disease of potential disease
Catch an illness and severity and may occur the phase.During for example, Jilin Province, farm, Jilin, when maize planting, the premunition of corn is
The incidence rate for the leaf blight of corn occur Deng, growing location in 2016 is 86%.Also, above-mentioned 2016 above-mentioned growing location
The incidence rate for the leaf blight of corn occur, which has passed through production practices, confirms its correctness.
Here, it can be somebody's turn to do by the second crop diseases prediction model in the following predetermined time period after crop sowing
Crop infects the case where potential disease and is predicted.It specifically such as, can be by the life of the upgrowth situation of the crop and the crop
Long environment is predicted to dive on following 7 to 15 days growing locations as the parameter for predicting the case where crop infects the potential disease
In the probability of happening of disease, severity of catching an illness and crop cut yield.Similarly, the second crop diseases prediction model be pass through by
Former years target generates the upgrowth situation of the crop in season and the growing environment of the crop as input, by the feelings of crop infectious disease
Condition is obtained as output training.
In one embodiment, above-mentioned crop cut yield can be predicted by following steps:
Step 1, the crop of this block growing location is predicted in the crop yield being uninfected by under disease event, for example, according to crop
The factors such as the growing environment in application rate and process of crop growth predict that the crop makees produce being uninfected by under disease event
Amount.
Step 2, disease-resistant in the case where infecting potential disease according to the crop of prediction and crop different stages of growth
Power predicts the interior percentage of underproduction due to infecting potential disease of the following predetermined time period.
For example, according to the upgrowth situation and growing environment of corn, it is predicted that the area of the aggrieved leaf of corn is greater than 50%, subtracts
It produces and is greater than 22%, then can determine that corn needs to spray, and configure corresponding pesticide and pesticide dosage for corn.
In a kind of possible embodiment, the configuration and the potential disease type of the crop and the dye of potential disease
The pesticide dosage that sick severity matches, comprising:
The agriculture of the case where infecting potential disease according to the crop of each operating area prediction, the treatment potential disease
Current pesticide price, the crop price of prediction of medicine are determined as the pesticide dosage of each operating area configuration.
It should be noted that different crop species and different growing locations can there are shadows to the pesticide dosage of prediction
It rings, i.e., the pesticide dosage of different crop species predictions may be different, and identical crop species are pre- when different growing locations are planted
The pesticide dosage of survey may also can be different.Therefore, in variable farm chemical applying, crop refers to same crop, and growing location refers to
The same growing location of the crop-planting.
Specifically for example, being divided into the growing location biggish the case where above-mentioned potential disease being infected according to the crop
Grid, such as the growing location is divided into the operating area of low pesticide dosage, middle peasant's pharmaceutical quantities and high pesticide dosage, and according to working as
Preceding pesticide and crop price calculate the economical optimization pesticide dosage in this three areas.Alternatively, can use satellite remote sensing images,
The growing location is divided into 1 meter of grid for multiplying 1 meter or higher precision, and for the corresponding operating area configuration of each space lattice with
The pesticide dosage that the case where crop infects the potential disease on the operating area matches.
In a specific embodiment, the case where potential disease can also being infected according to crop on each operating area,
For the crop, the route sprayed insecticide is set, so as to operating apparatus according to the route sprayed insecticide and with the operating area phase
The pesticide dosage matched is sprayed insecticide for the crop on the operating area.Here, operating apparatus can for aircraft, unmanned plane or
Person ground pesticide dispersal equipment.
In a kind of possible embodiment, when according to the crop infect above-mentioned potential disease the case where, select aircraft for
When operating apparatus, which is divided into biggish grid, such as the growing location is divided into low pesticide dosage, middle pesticide agent
The operating area of amount and high pesticide dosage, and calculated according to current pesticide, artificial investment, the forecast production of crop and crop price
The economical optimization pesticide dosage in this three areas out.At this point, due to the higher cost of aircraft operation, it usually needs guarantee, according to
The income for the crop that the forecast production and crop price of crop are calculated, the cost for needing to reach current pesticide and manually putting into
Twice.
In a kind of possible embodiment, when according to the crop infect above-mentioned potential disease the case where, select unmanned plane
When for operating apparatus, the type for the unmanned plane for needing first to judge to use.
It, can be by the growing location if using the unmanned plane that the manual control of route and speed cannot be arranged in advance
It is divided into biggish grid, such as the growing location is divided into the operation of low pesticide dosage, middle peasant's pharmaceutical quantities and high pesticide dosage
Region, and it is economical optimal according to current pesticide, artificial investment, the forecast production of crop and crop price to calculate this three areas
Change pesticide dosage.
If using the automatic unmanned plane that route and speed can be arranged in advance, following step progress can be used:
Step 1: growing location where crop can be divided at least one 1 meter multiplied by 1 meter or the grid of higher precision.
Step 2: according to the aerial environmental information of crop described in each operating area, underground growing environment information,
Soil information, Indices, crop actual growing situation information and growth phase information predict each work in the following predetermined time period
Crop described in industry region infects the case where potential disease.
Step 3: the potential disease is infected according to crop described in each operating area in the following predetermined time period of prediction
The situation of disease, is distinguished and label needs the operating area being administered and do not need the operating area of application;Wherein, application is not needed
Operating area, including but not limited to: crop belts, dead crop belts have been damaged, without application valence by the area that is short of seedling, laid crop area
It is worth crop belts or disease-free crop belts.
Step 4: the operating area that needs are administered, configuration and the potential disease type of the crop and the dye of potential disease
The pesticide dosage that sick severity matches.
Catching an illness for current pesticide price, the crop price of prediction, the potential disease type of crop and potential disease is serious
Degree inputs explosive charge model, obtains the optimal pesticide dosage of each operating area.It is calculated to simplify, it usually will be potential
The severity of catching an illness of disease is divided into 10 ranks, according to the severity level of catching an illness of potential disease, using explosive charge model,
Calculate the optimal pesticide dosage of each operating area.Here, each operating area can be divided into 1 meter and multiply 1 meter or more high-precision
The grid of degree, therefore, the pesticide dosage that can to plant growth apply are accurately controlled.
Step 5: by the actual geographic information of the growing location, the corresponding pesticide in each operating area and each operating area
Dosage is input in unmanned aerial vehicle (UAV) control program, passes through unmanned plane from trend plant growth each operating area applying pesticides.
In a kind of possible embodiment, when according to the crop infect above-mentioned potential disease the case where, select ground agriculture
When medicine spray appliance is operating apparatus, carried out using following step:
Step 1: the actual geographic information of growing location where obtaining crop, according to above-mentioned actual geographic information, by crop institute
At least one 1 meter is divided into multiplied by 1 meter or the grid of higher precision in growing location.
For example, the longitude and latitude of growing location where obtaining crop, and according to the longitude and latitude of growing location where crop,
Growing location where crop is divided at least one 1 meter multiplied by 1 meter or the grid of higher precision.
Step 2: according to the aerial environmental information of crop described in each operating area, underground growing environment information,
Soil information, Indices, crop actual growing situation information and growth phase information predict each work in the following predetermined time period
Crop described in industry region infects the case where potential disease.
Here it is possible to obtain the soil attribute of sampling soil, the soil of each operating area is estimated according to above-mentioned soil attribute
Earth information.
Specifically, soil scanner can be used and obtain soil attribute, and/or acquisition soil sample obtains soil attribute.
When analyzing using soil scanner soil, soil scanner can be used in one direction, every default
Distance obtains the soil information of one-stop operation regional soil.
Specifically it is, for example, possible to use the MSP3 product of Veristech company or Ground Penetrating Radar (Ground
Penetrating Radar), in one direction, every pre-determined distance, such as every 5 meters, 8 meters or 10 meters, default cube of scanning
Coating, such as 0-30 centimetres or 0-90 centimetres of soil layer of scanning obtains the soil informations such as the conductivity of each scanning element.
When acquisition soil sample analyzes soil, according to preset sample size and sampling depth, several are acquired
Soil sample detects the organic matter in soil sample, pH value, nitrogen content, phosphorus and contains later to several above-mentioned soil samples
The soil informations such as amount, cation exchange capacity (CEC), soil content, amount containing clay and/or soil texture.
After obtaining soil attribute using soil scanner and/or acquisition soil sample, the side of space interpolation can be used
Method obtains the soil information of each operating area.
And classified according to soil of the soil information of each operating area to each operating area, obtain each operation
The soil types in region, and make the soil type map of each operating area.
Step 3: the potential disease is infected according to crop described in each operating area in the following predetermined time period of prediction
The situation of disease, is distinguished and label needs the operating area being administered and do not need the operating area of application;Wherein, application is not needed
Operating area, including but not limited to: crop belts, dead crop belts have been damaged, without application valence by the area that is short of seedling, laid crop area
It is worth crop belts or disease-free crop belts.
Step 4: the operating area that needs are administered, configuration and the potential disease type of the crop and the dye of potential disease
The pesticide dosage that sick severity matches.
Catching an illness for current pesticide price, the crop price of prediction, the potential disease type of crop and potential disease is serious
Degree inputs explosive charge model, obtains the optimal pesticide dosage of each operating area.It is calculated to simplify, it usually will be potential
The severity of catching an illness of disease is divided into 10 ranks, according to the severity level of catching an illness of potential disease, using explosive charge model,
Calculate the optimal pesticide dosage of each operating area.Here, each operating area can be divided into 1 meter and multiply 1 meter or more high-precision
The grid of degree, therefore, the pesticide dosage that can to plant growth apply are accurately controlled.
Step 5: according to the actual geographic information of the growing location, the corresponding agriculture in each operating area and each operating area
Pharmaceutical quantities, by ground pesticide dispersal equipment to each operating area applying pesticides on plant growth ground.
In a kind of possible embodiment, after the crop progress variable farm chemical applying of place growing location, further includes:
It obtains in preset time range, the actual growing situation information of crop and/or the practical defect information of crop;
According to the actual growing situation information and/or practical defect information, configuration and the actual growing situation information and/or reality
The supplement pesticide dosage that defect information matches, in the case where affiliated supplement pesticide dosage is greater than zero, to place growing location
The crop carry out additional variable application.
In a kind of possible embodiment, the method also includes:
Obtain practical defect information, Indices and the soil information of crop described in each operating area;
According to the practical defect information, the Indices and the soil information, each operating area is judged
Described in crop whether have application be worth;
In the case that the crop described in the operating area has application value, institute in each operating area is estimated
State the disease degree index of crop;
According to the disease degree index of crop described in each operating area of estimation, the pesticide of the currently practical disease for the treatment of
Current pesticide price, the crop price of prediction, be determined as the pesticide dosage of each operating area configuration.
Specifically, in order to simplify calculating process, the disease degree index of the crop of estimation usually uses 1-9 natural number table
Show.
A variable pesticide grown method for integrating remote sensing, model, algorithm provided through the foregoing embodiment, can pass through
The prediction of the case where to potential disease, and then the type and dosage of pesticide needed for determining crop, so that effectively control pesticide makes
With dosage, the utilization rate of pesticide is improved.In addition, in order to illustrate specific and conveniently, the method that the embodiment of the present application one is directed to, for
Pesticide is illustrated, and is based on identical design concept, and method described herein can be also used for variable application herbicide, variable
In the application scenarios such as fertilising.
Embodiment two
The embodiment of the present application two provide integrate remote sensing, model, algorithm variable pesticide grown method detailed process
As shown in Fig. 2, may comprise steps of:
S201, variable farm chemical applying system obtains the historical growth season weather characteristics in crop location, and utilizes growing location weather
Prediction model is based on historical growth season weather characteristics, the growing environment information of growing location where predicting current Growing season crop;
Here, historical growth season weather characteristics may include: EI Nino-south type of oscillation and degree, Growing season day
Gas characteristic index.The growing environment information of growing location where current Growing season crop may include: current Growing season quantum of rainfall,
Effective accumulated temperature, the maximum temperature of current Growing season environment and the minimum temperature of current Growing season environment that current Growing season utilizes.
S202, variable farm chemical applying system obtains the history crop onset state of growing location, and utilizes crop diseases prediction model
Based on the growing environment information and history crop onset state of growing location where preceding Growing season crop, current Growing season crop is predicted
Potential disease type and the case where infect the potential disease;
Here, history crop onset state may include: recurrent crop diseases type, the premunition of crop, on
One season the disease type that has occurred of crop and severity of catching an illness.The case where infecting the potential disease includes: the hair of potential disease
Severity and may occur for sick probability, catching an illness for potential disease the phase.
S203, growing environment information, crop after crop sowing, in variable farm chemical applying system acquisition process of crop growth
Remote sensing images and field investigation result on the spot;
Here, the growing environment information in process of crop growth may include: aerial environmental information and underground growth
Environmental information.Aerial environmental information may include: the weather conditions information of the growing location, such as environment temperature (day highest
Temperature, Daily minimum temperature), ambient humidity (day highest humidity, day minimum humidity), rainfall (rainfall every hour or daily)
Deng;The underground growing environment information may include: the depth of soil, soil texture, the soil texture, soil moisture content transformation, soil
Earth nutrient, upper soll layer pH value (0-30 centimetres), soil bottom pH value (30-60 centimetres), if restricted root growth
Soil layer, the ratio of soil stone and depth of root of the crop etc..
Field investigation result may include the picture of crop growth stage, description etc. on the spot, as whether there is or not lodging situations for crop
Deng.
S204, variable farm chemical applying system is using meteorologic model based on the ground in the growing environment information in process of crop growth
Growing environment information determines the Meteorological Index on plant growth ground;
Here, the weather conditions of growing location where the Meteorological Index on plant growth ground can characterize crop.
S205, variable farm chemical applying system utilizes soil moisture and nutrient model, based on the growing environment in process of crop growth
Underground growing environment information in information, moisture needed for determining crop and nutrient situation;
Here, moisture situation needed for crop can coerce index by day water and be characterized, nutrient situation needed for crop
It can be characterized by day Nutrient Stress index.
S206, variable farm chemical applying system utilize Remote Sensing Model, and the remote sensing images based on crop obtain the growing way index of crop;
Here, the growing way index of crop can characterize the growing way of crop.
S207, variable farm chemical applying system utilizes crop growth model, based on the growing environment information in process of crop growth, with
And moisture needed for crop and nutrient situation, determine the growth phase of crop;
Here, the growth phase of crop can be characterized by crop growth stage index, such as crop growth stage refers to
Number may include 10 growth phases, can be by VNIt is indicated, wherein N is less than or equal to 10 positive integers.
S208, variable farm chemical applying system utilize crop diseases prediction model, Meteorological Index, crop institute based on plant growth ground
The moisture and nutrient situation, the growing way index of crop, the growth phase of crop and field investigation on the spot needed is as a result, prediction is predicted not
Carry out the case where crop infects the potential disease in predetermined time period.
Here, it may include: that potential disease type, the morbidity of potential disease are general that crop, which infects the case where potential disease,
Rate, the catch an illness severity and crop cut yield etc. of potential disease.
For example, variable farm chemical applying system prediction is 86% to the probability that leaf blight occurs in corn, severity of catching an illness is low, jade
The area of the aggrieved leaf of rice is less than 20%, and output reduction can then determine that corn does not need to spray less than 3%.
S209, variable farm chemical applying system according to the crop of prediction infect potential disease the case where, predict crop the application phase and
Pesticide dosage, and growing location is divided into the operating area of at least one preset area, for operating area configuration and crop
The pesticide dosage that potential disease type and the severity of catching an illness of potential disease match.
The two variable pesticide grown method for integrating remote sensing, model, algorithm provided through the foregoing embodiment, can pass through
The prediction of the case where potential disease can determine the type and pesticide dosage of Pesticide use, to effectively control Pesticide use
Dosage improves the utilization rate of pesticide.
Embodiment three
The embodiment of the present application three provide integrate remote sensing, model, algorithm variable pesticide grown system 30 basic knot
Structure is as shown in Figure 2, comprising: obtains module 31, growing environment prediction module 32, disease forecasting module 33 and pesticide dosage and configures mould
Block 34;Wherein,
The acquisition module 31, the historical growth season weather characteristics for growing location where obtaining crop;
The growing environment prediction module 32, for predicting current Growing season according to the historical growth season weather characteristics
The growing environment information of growing location where the crop;
The disease forecasting module 33, for the history crop morbidity based on the growing environment information and the growing location
Situation predicts the potential disease of crop described in current Growing season;And for being based on the crop after crop sowing
Growth phase information and the crop growing environment, predict that the crop infection is described potential in the following predetermined time period
The case where disease;
The pesticide dosage configuration module 34, for according to the crop of prediction infect the potential disease the case where,
The pesticide dosage of the potential disease is treated for the crop disposition of the growing location.
It, can be by potential disease by the above-mentioned variable pesticide grown system 30 for integrating remote sensing, model, algorithm
The prediction of situation, and then the type and dosage of pesticide needed for determining crop improve agriculture to effectively control Pesticide use dosage
The utilization rate of medicine.
The disease forecasting module 33, specifically for according to following steps predict current Growing season described in crop potential disease
Disease:
Based on growing location described in the growing environment information, the history onset state of the growing location, current Growing season
The disease type that the crop of growing location described in the agrotype of growing location described in arable land situation, a upper season and a upper season occurs
At least one of information, predict the potential disease of crop described in current Growing season.
Further, the disease forecasting module 33, specifically for determining the growth step of the crop according to following steps
Segment information:
Obtain the growth step of the growing environment information of the crop, the growing way characteristic information of the crop and the crop
Segment information;
The growing way characteristic information of growing environment information, the crop based on the crop and the growth step of the crop
Segment information determines the growth phase information of the crop.
Further, the growing environment information includes: aerial environmental information and underground growing environment information;
The aerial environmental information includes: the weather conditions information of the growing location;
The underground growing environment information include: that the root of the crop is deep and the soil regime of the growing location at least
It is a kind of.
The disease forecasting module 33, specifically for obtaining the growing way characteristic information of the crop according to following steps:
Obtain the remote sensing images of the crop;
The growing way characteristic information of the crop is extracted from the remote sensing images;
Based on the growing way characteristic information, the growing way index of the crop is determined.
Further, the case where crop infects the potential disease includes: the hair of potential disease type, potential disease
The severity of catching an illness of sick probability and potential disease;
The pesticide dosage configuration module 34 infects described potential specifically for the crop predicted according to following steps
The case where disease, treats the pesticide dosage of the potential disease for the crop disposition of the growing location:
The case where infecting the potential disease according to the crop of prediction, it is pre- to be divided at least one for the growing location
If the operating area of area;
For each operating area, if the incidence rate of the potential disease of crop is greater than preset value on the operating area, it is
The pesticide agent that operating area configuration matches with the potential disease type of the crop and the severity of catching an illness of potential disease
Amount.
Optionally, the variable pesticide grown system 30 for integrating remote sensing, model, algorithm further include:
Route setup module 35 is used for the case where infecting the potential disease according to crop on the operating area, for institute
State crop and the route sprayed insecticide be set, so as to operating apparatus according to the route sprayed insecticide and with the operating area phase
Matched pesticide dosage is sprayed insecticide for the crop on the operating area.
The above-mentioned variable pesticide grown system 30 for integrating remote sensing, model, algorithm, not only can control Pesticide use agent
Amount, can also be that the operating equipment sprayed insecticide plans reasonable work route according to pesticide dosage, so that operating equipment can be with
Economy is sprayed insecticide for crop.
Embodiment three
The basic structure of a kind of electronic equipment 40 provided by the embodiment of the present application three is as shown in Figure 4, comprising: processor
41, memory 42 and bus 43;
The machine readable instructions that the memory storage 42 has the processor 41 executable, when network side equipment is run
When, it is communicated between the processor 41 and the memory 42 by bus 43, the machine readable instructions are by the processor
41 execute following processing when executing:
The historical growth season weather characteristics of growing location where obtaining crop;
According to the historical growth season weather characteristics, the growing environment of growing location where predicting crop described in current Growing season
Information;
History crop onset state based on the growing environment information and the growing location, is predicted described in current Growing season
The potential disease of crop;
After crop sowing, the growing environment of growth phase information and the crop based on the crop, in advance
Survey the case where crop infects the potential disease in the following predetermined time period;
The case where infecting the potential disease according to the crop of prediction treats institute for the crop disposition of the growing location
State the pesticide dosage of potential disease.
In specific implementation, described based on the growing environment information and described in the processing that above-mentioned processor 41 executes
The history crop onset state of growing location, predicts the potential disease of crop described in current Growing season, comprising:
Based on growing location described in the growing environment information, the history onset state of the growing location, current Growing season
The disease type that the crop of growing location described in the agrotype of growing location described in arable land situation, a upper season and a upper season occurs
At least one of information, predict the potential disease of crop described in current Growing season.
In specific implementation, described to determine the crop according to following steps in the processing that above-mentioned processor 41 executes
Growth phase information:
Obtain the growth step of the growing environment information of the crop, the growing way characteristic information of the crop and the crop
Segment information;
The growing way characteristic information of growing environment information, the crop based on the crop and the growth step of the crop
Segment information determines the growth phase information of the crop.
In specific implementation, in the processing that above-mentioned processor 41 executes, the growing environment information includes: aerial ring
Border information and underground growing environment information;
The aerial environmental information includes: the weather conditions information of the growing location;
The underground growing environment information include: that the root of the crop is deep and the soil regime of the growing location at least
It is a kind of.
In specific implementation, in the processing that above-mentioned processor 41 executes, the growing way characteristic information for obtaining the crop,
Include:
Obtain the remote sensing images of the crop;
The growing way characteristic information of the crop is extracted from the remote sensing images;
Based on the growing way characteristic information, the growing way index of the crop is determined.
In specific implementation, in the processing that above-mentioned processor 41 executes, the case where crop infects the potential disease
It include: the severity of catching an illness of potential disease type, the incidence rate of potential disease and potential disease;The institute according to prediction
The case where crop infects the potential disease is stated, the pesticide agent of the potential disease is treated for the crop disposition of the growing location
Amount, comprising:
The case where infecting the potential disease according to the crop of prediction, it is pre- to be divided at least one for the growing location
If the operating area of area;
For each operating area, if the incidence rate of the potential disease of crop is greater than preset value on the operating area, it is
The pesticide agent that operating area configuration matches with the potential disease type of the crop and the severity of catching an illness of potential disease
Amount.
In specific implementation, in the processing that above-mentioned processor 41 executes, the method also includes:
The case where infecting the potential disease according to crop on the operating area, the crop setting are sprayed insecticide
Route, so that operating apparatus is according to the route sprayed insecticide and the pesticide dosage to match with the operating area, for institute
The crop stated on operating area is sprayed insecticide.
Example IV
The embodiment of the present application four provides a kind of computer readable storage medium, stores on the computer readable storage medium
Have computer program, the computer program executed when being run by processor it is above-mentioned integrate remote sensing, model, algorithm variable apply
The step of pesticide method.
Specifically, which can be general storage medium, such as mobile disk, hard disk, on the storage medium
Computer program when being run, be able to carry out the above-mentioned variable pesticide grown method for integrating remote sensing, model, algorithm, thus
Solve the problems, such as the dosage that can not effectively control pesticide at present and caused by pesticide abuse, control the dosage of pesticide, mention
The utilization rate of high pesticide.
Integrate provided by the embodiment of the present application remote sensing, model, algorithm variable pesticide grown method computer journey
Sequence product, the computer readable storage medium including storing program code, before the instruction that program code includes can be used for execution
Method in the embodiment of the method for face, specific implementation can be found in embodiment of the method, and details are not described herein.
It is apparent to those skilled in the art that for convenience and simplicity of description, the system of foregoing description
Specific work process, can refer to corresponding processes in the foregoing method embodiment, details are not described herein.
If function is realized in the form of SFU software functional unit and when sold or used as an independent product, can store
In a computer readable storage medium.Based on this understanding, the technical solution of the application is substantially in other words to existing
Having the part for the part or the technical solution that technology contributes can be embodied in the form of software products, the computer
Software product is stored in a storage medium, including some instructions are used so that a computer equipment (can be personal meter
Calculation machine, server or network equipment etc.) execute each embodiment method of the application all or part of the steps.And it is above-mentioned
Storage medium includes: USB flash disk, mobile hard disk, read-only memory (Read-Only Memory, ROM), random access memory
The various media that can store program code such as (Random Access Memory, RAM), magnetic or disk.
More than, the only specific embodiment of the application, but the protection scope of the application is not limited thereto, and it is any to be familiar with
Those skilled in the art within the technical scope of the present application, can easily think of the change or the replacement, and should all cover
Within the protection scope of the application.Therefore, the protection scope of the application should be subject to the protection scope in claims.
Claims (10)
1. a kind of variable pesticide grown method for integrating remote sensing, model, algorithm, which is characterized in that the described method includes:
Mapping relations where the geography information of growing location where determining crop and crop between the actual geographic information of growing location;
According to the mapping relations, growing location where crop is divided at least one grid, wherein described in each grid is corresponding
The operating area of preset area in growing location;
The case where infecting potential disease based on the crop for each operating area prediction, is the potential disease
Incidence rate is greater than the operating area of preset value, configuration and the potential disease type of the crop and catching an illness seriously for potential disease
The pesticide dosage that degree matches carries out variable farm chemical applying with the crop to place growing location.
2. the method according to claim 1, wherein predicting that the crop infects potential disease according to following steps
The case where:
The growing environment feature of crop described in current Growing season based on prediction, the growing location history onset state, current
The arable land situation of growing location described in Growing season, current Growing season crop resist this place and often sent out growth described in disease ability, a upper season
At least one of the disease type that the crops of growing location described in the crop type on ground and a upper season occur information, prediction
The potential disease of crops described in current Growing season;
After crop sowing, aerial environmental information, underground growth based on crop described in each operating area
Environmental information, soil information, Indices, crop actual growing situation information and growth phase information predict that the following preset time is long
Crop described in each operating area infects the case where potential disease in spending.
3. according to the method described in claim 2, it is characterized in that, the prediction future predetermined time period in each operation area
Crop described in domain infects the case where potential disease, comprising:
Predict crop described in each operating area in the following predetermined time period infect the potential disease probability and degree,
The underproduction rate of the crop and best spraying time.
4. according to the method described in claim 2, it is characterized in that, according to following steps predict current Growing season described in crop
Growing environment feature, comprising:
Obtain the growing location historical growth season weather characteristics and the crop sow before Growing season day in preset time period
Gas feature;
Growing season weather characteristics before being sowed according to the historical growth season weather characteristics and the crop in preset time period, in advance
The growing environment feature of growing location where surveying crop described in current Growing season;
The aerial environmental information of the crop is predicted according to following steps:
According to the temperature, humidity and rainfall of the growing location, the gas for characterizing the aerial environmental information of the crop is determined
As index;
The underground growing environment information of the crop is predicted according to following steps:
Deep, water demand information and nutrient demand information according to the root of crop described in each operating area, determine for characterizing
The day water stress index and day Nutrient Stress index of the crop of the underground growing environment information;
The growth phase information of the crop is predicted according to following steps:
Referred to according to the Weather information of the growing location, soil information, tillage system reform, upper season agrotype, day water stress
Number, day Nutrient Stress index, day water requirement, growing environment day water supply, day by day amount of nutrients, growing environment day for amount of nutrients, when
Preceding Growing season density of crop, the agrotype of the crop and day disease coerce index, predict the growth step of the crop
Segment information.
5. according to the method described in claim 2, it is characterized in that, determining the Indices by following steps:
Obtain the remote sensing images of the crop;
From the growing way characteristic information for extracting the crop on each operating area in the remote sensing images;
Based on the growing way characteristic information, the Indices of the crop are determined.
6. the method according to claim 1, wherein the configuration and the potential disease type of the crop and latent
In the pesticide dosage that the severity of catching an illness of disease matches, comprising:
The case where infecting potential disease according to the crop of each operating area prediction, the treatment potential disease pesticide
Current pesticide price, the crop price of prediction are determined as the pesticide dosage of each operating area configuration.
7. method according to claim 1 or 6, which is characterized in that the method also includes:
It is the crop according to the operating apparatus used on the pesticide dosage and each operating area determined on each operating area
The sprinkling strategy of the route sprayed insecticide and the operating apparatus is set;
The operating apparatus is according to the route sprayed insecticide, the pesticide dosage and the work that match with the operating area
The sprinkling strategy of industry instrument is sprayed insecticide for the crop on the operating area.
8. the method according to claim 1, wherein after carrying out variable farm chemical applying to the crop of place growing location,
Further include:
It obtains in preset time range, the actual growing situation information of crop and/or the practical defect information of crop;
According to the actual growing situation information and/or practical defect information, configuration and the actual growing situation information and/or practical disease
The supplement pesticide dosage that information matches, in the case where affiliated supplement pesticide dosage is greater than zero, with the institute to place growing location
It states crop and carries out additional variable application.
9. the method according to claim 1, wherein the method also includes:
Obtain practical defect information, Indices and the soil information of crop described in each operating area;
According to the practical defect information, the Indices and the soil information, institute in each operating area is judged
State whether crop there is application to be worth;
In the case that the crop described in the operating area has application value, estimates and make described in each operating area
The disease degree index of object;
Worked as according to the pesticide of the disease degree index of crop described in each operating area of estimation, treatment currently practical disease
Preceding pesticide price, the crop price of prediction are determined as the pesticide dosage of each operating area configuration.
10. a kind of variable pesticide grown system for integrating remote sensing, model, algorithm, which is characterized in that the system comprises: it draws
Sub-module and variable farm chemical applying module;Wherein,
The division module, for the remote sensing images of growing location where crop to be divided at least one grid, wherein each net
Lattice correspond to the operating area of preset area in the growing location;
The variable farm chemical applying module, for based on the crop infection potential disease for each operating area prediction
Situation is that the incidence rate of the potential disease is greater than the operating area of preset value, potential disease class of the configuration with the crop
The pesticide dosage that the severity of catching an illness of type and potential disease matches carries out variable farm chemical applying with the crop to place growing location.
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