JP7724754B2 - Agricultural Management Systems - Google Patents

Description

The present invention relates to an agricultural management system.

Conventional agricultural management systems include, for example, the agricultural management system described in Patent Document 1. Conventional agricultural management systems include an adjuster (referred to in the document as a "color sorter") that adjusts crops harvested by harvesters, and a management server (referred to in the document as an "agricultural management device") that is communicatively connected to a user terminal (referred to in the document as a "communication terminal") owned by the user.

Japanese Patent Application Laid-Open No. 2019-192138

In conventional agricultural management systems, the parameters of the regulator must be checked at the regulator itself, making it inconvenient to check the parameters of the regulator outside the location where the regulator is installed. In other words, conventional agricultural management systems have room for improvement in terms of making it easier to check the parameters of the regulator.

In light of the above situation, there is a demand for an agricultural management system that makes it easy to check the parameters of the adjustment machine that adjusts the harvested crop by the harvester.

A feature of the present invention is an agricultural management system comprising an adjuster that adjusts harvested crops using a harvester and a management server to which a user terminal owned by a user is communicatively connected, and comprising: a parameter acquisition unit that acquires parameters of the adjuster in association with a field in which the harvested crop adjusted by the adjuster was harvested; a memory unit that stores the parameters acquired by the parameter acquisition unit; a display data generation unit that calls up the parameters from the memory unit and generates parameter display data for displaying the parameters on the user terminal; a transmission unit that transmits the parameter display data to the user terminal in response to a request from the user terminal; a field selection acceptance unit that accepts a field selection by the user terminal; a parameter association unit that associates the parameters corresponding to a first field accepted by the field selection acceptance unit with a second field accepted by the field selection acceptance unit in response to a request from the user terminal; and a parameter setting unit that sets the parameters corresponding to the second field in the adjuster that adjusts the harvested crop harvested in the second field in response to a request from the user terminal.

This feature allows the adjustment device's parameters to be displayed on the user's terminal. This makes it easy to check the adjustment device's parameters.

Furthermore, according to this characteristic configuration, the parameters corresponding to the first field are associated with the second field, and the parameters corresponding to the second field are set in an adjuster that adjusts the crop harvested at the second field. This makes it possible to easily set the parameters of the adjuster that adjusts the crop harvested at the second field using the parameters corresponding to the first field.

Furthermore, in the present invention, it is preferable that the adjustment machine is a color sorter that sorts grains by color, and that the parameters of the color sorter include parameters for adjusting the sensitivity of color sorting.

With this characteristic configuration, the parameters for adjusting the sensitivity of color sorting are displayed on the user's terminal. This allows the user to easily check the parameters for adjusting the sensitivity of color sorting.

Furthermore, in the present invention, it is preferable that the conditioning machine is a dryer for drying grain, and that the parameters of the dryer include a target moisture value for drying the grain.

With this characteristic configuration, the target moisture value for drying the grain is displayed on the user's terminal. This allows the target moisture value for drying the grain to be easily confirmed.

Furthermore, in the present invention, it is preferable that the parameter acquisition unit be capable of acquiring the parameters of multiple types of adjustment devices.

This feature allows the parameters of multiple types of adjustment devices to be displayed on the user's terminal. This makes it easy to check the parameters of multiple types of adjustment devices.

FIG. 1 is a diagram illustrating an overview of an agricultural management system. FIG. 2 is a diagram showing the control blocks of an agricultural management system. FIG. 1 shows a control block for harvest evaluation. FIG. 1 shows the composition of the harvest. FIG. 10 is a diagram showing an example of a screen on the display unit of a user terminal, in which evaluation result display data regarding harvest quality and a farm field map are displayed. FIG. 10 is a diagram showing an example of a screen on which evaluation result display data regarding the composition of harvested crops and a farm field map are displayed on the display unit of a user terminal. FIG. 10 is a diagram showing an example of a screen on which sales information display data and a farm field map are displayed on the display unit of a user terminal. FIG. 10 is a diagram showing a control block of parameters. FIG. 10 is a diagram showing an example of a screen on which a menu related to parameter control and a farm field map are displayed on a display unit of a user terminal. FIG. 10 is a diagram showing an example of a screen on which parameter display data related to dryer parameters and a farm field map are displayed on a display unit of a user terminal. FIG. 10 is a diagram showing an example of a screen on which parameter display data related to color sorter parameters and a farm field map are displayed on a display unit of a user terminal. FIG. 10 is a diagram showing an example of a screen in which sales information display data and a farm field map are displayed on the display unit of a user terminal according to another embodiment.

The following describes an embodiment of the present invention with reference to the drawings.

[Outline of agricultural management system]
FIG. 1 shows an overview of an agricultural management system. As shown in FIG. 1, the agricultural management system includes a management server 1, a user terminal 2, a combine harvester 3 (corresponding to the "harvester" according to the present invention) that harvests and threshes rice in a field, and an adjuster 4 that adjusts the harvested rice harvested by the combine harvester 3. The combine harvester 3 is a head-feeding combine harvester. The combine harvester 3 includes a harvesting section 3A that harvests rice in a field, a thresher (not shown) that threshes the harvested stalks, and a grain tank 3B that stores the threshed grain. The adjuster 4 includes a dryer 5 that dries the grain, a huller 6 that hulls the grain, a sorter 7 that sieves the grain, a color sorter 8 that color sorts the grain, and a weighing machine 9 that weighs the grain. The combine harvester 3, the dryer 5, and the color sorter 8 are communicatively connected to the management server 1. The harvesting process by the combine 3, the drying process by the dryer 5, the hulling process by the huller 6, the sorting process by the sorter 7, the color sorting process by the color sorter 8, and the weighing process by the weigher 9 will proceed in this order.

The user terminal 2 is owned by the user and is, for example, a personal computer, tablet terminal, smartphone, etc. In this embodiment, the user terminal 2 is assumed to be a personal computer. The user terminal 2 is connected to the management server 1 so that it can communicate with the management server 1. The user terminal 2 is equipped with a display unit 2A that can display various information, and an input unit 2B that can input various operations by the user. The display unit 2A is, for example, a display, etc. The input unit 2B is, for example, a keyboard, mouse, etc.

[Control block of agricultural management system]
Figure 2 shows the control block of the agricultural management system. As shown in Figure 2, the combine harvester 3 is equipped with a yield sensor 22 that detects the weight of the grain in the grain tank 3B, a moisture sensor 23 that detects the moisture value of the grain in the grain tank 3B, and a control device 24. The yield sensor 22 and the moisture sensor 23 are connected to the control device 24. The control device 24 is equipped with a control unit 25 and a memory unit 26. The memory unit 26 is configured to store various information (e.g., the weight and moisture value of the grain in the grain tank 3B, etc.). The control unit 25 is configured to transmit the various information stored in the memory unit 26 (e.g., the weight and moisture value of the grain in the grain tank 3B, etc.) to the management server 1.

The dryer 5 comprises a dryer main body 27, a moisture sensor 28 that detects the moisture value of the grain in the dryer 5, and a control device 29. The dryer main body 27 and moisture sensor 28 are connected to the control device 29. The control device 29 comprises a control unit 30 and a memory unit 31. The memory unit 31 is configured to store various information (e.g., the moisture value of the grain in the dryer 5, the target moisture value, etc.). The control unit 30 is configured to control the dryer main body 27 so that the moisture value of the grain in the dryer 5 becomes the target moisture value. The control unit 30 is configured to transmit the various information stored in the memory unit 31 (e.g., the moisture value of the grain in the dryer 5, the target moisture value, etc.) to the management server 1.

The color sorter 8 is equipped with an illumination device (not shown) that illuminates the kernels, a front camera 15 that captures the light reflected by the kernels from the front, a rear camera 16 that captures the light reflected by the kernels from the rear, a transmission camera 17 that captures the light that passes through the kernels, an ejector 21 that blows air at defective kernels, and a control device 32. The front camera 15, rear camera 16, transmission camera 17, and ejector 21 are connected to the control device 32. The control device 32 is equipped with a control unit 33 and a memory unit 34. The memory unit 34 is configured to store various information (e.g., the photographic results of the front camera 15, rear camera 16, and transmission camera 17, reflected light reference values, transmitted light reference values, etc.).

The control unit 33 is configured to transmit various information stored in the memory unit 34 (e.g., the photographing results of the front camera 15, rear camera 16, and transmission camera 17, the reflected light reference value, the transmitted light reference value, etc.) to the management server 1. The control unit 33 determines that the kernel is colored rice if the reflected light of the kernel photographed by the front camera 15 is darker than the reflected light reference value, or if the reflected light of the kernel photographed by the rear camera 16 is darker than the reflected light reference value. The control unit 33 determines that the kernel is immature rice if the transmitted light of the kernel photographed by the transmission camera 17 is darker than the transmitted light reference value. If the control unit 33 determines that the kernel is colored rice or immature rice, it drives the ejector 21 to blow air at the defective kernel.

[Management Server]
As shown in FIG. 2 , the management server 1 includes a control unit 35 and a memory unit 36. The management server 1 may be a server installed in an office or the like, or may be a server installed on the cloud. The memory unit 36 is configured to store various information (e.g., a field map). The various information stored in the memory unit 36 includes various information transmitted from the user terminal 2, the combine harvester 3 (controller 24), the dryer 5 (controller 29), and the color sorter 8 (controller 32). The control unit 35 includes an adjustment information acquisition unit 37, a broken rice ratio calculation unit 38, a leaving time calculation unit 39, a harvest information acquisition unit 40, a harvest evaluation unit 41, a transmission unit 42, a display data generation unit 43, a sales calculation unit 44, a sales information generation unit 45, a parameter acquisition unit 46, a field selection acceptance unit 47, a parameter association unit 48, and a parameter setting unit 49.

As shown in FIG. 3, the adjustment information acquisition unit 37 acquires adjustment information I1, which is information related to the adjustment results of the adjustment machine 4, for each field. In this embodiment, the adjustment information acquisition unit 37 acquires, as adjustment information I1, the weight W6 of broken rice, the weight W7 of colored waste, the weight W8 of polished rice, the discoloration hit rate H of the color sorter 8, the moisture value MX of the grain in the dryer 5, the receiving time T1 of the dryer 5, and the drying start time T2 of the dryer 5 for each field. The adjustment information I1 acquired by the adjustment information acquisition unit 37 (weight W6 of broken rice, weight W7 of colored waste, weight W8 of polished rice, the discoloration hit rate H of the color sorter 8, the moisture value MX of the grain in the dryer 5, the receiving time T1 of the dryer 5, and the drying start time T2 of the dryer 5) is stored in the memory unit 36.

The weight W6 of the broken rice is the weight of the grain (broken rice) removed by the sorter 7. The weight W6 of the broken rice is input by the user via the input unit 2B of the user terminal 2. The adjustment information acquisition unit 37 is configured to receive the weight W6 of the broken rice from the user terminal 2.

The color waste weight W7 is the weight of the grain (color waste) removed by the color sorter 8. The color waste weight W7 is input by the user via the input unit 2B of the user terminal 2. The adjustment information acquisition unit 37 is configured to receive the color waste weight W7 from the user terminal 2.

The discolored rice hit rate H is the percentage of discolored rice (colored rice) among the grains fed into the color sorter 8. The adjustment information acquisition unit 37 is configured to receive the discolored rice hit rate H from the color sorter 8 (control device 32).

The adjustment information acquisition unit 37 is configured to receive the moisture value MX of the grain in the dryer 5 from the dryer 5 (control device 29). The receiving time T1 is the time when the dryer 5 receives the harvested grain. The drying start time T2 is the time when the dryer 5 starts drying the harvested grain. The adjustment information acquisition unit 37 is configured to receive the receiving time T1 and the drying start time T2 from the dryer 5 (control device 29).

The weight W8 of the polished brown rice is the weight of the grain (polished brown rice) measured by the weighing machine 9. The weight W8 of the polished brown rice is input by the user via the input unit 2B of the user terminal 2. The adjustment information acquisition unit 37 is configured to receive the weight W8 of the polished brown rice from the user terminal 2.

The harvest information acquisition unit 40 acquires harvest information I2, which is information about the harvest, from the combine 3 for each field. Specifically, the harvest information acquisition unit 40 acquires, as harvest information I2, the weight WY of the grain in the grain tank 3B, the moisture value MY of the grain in the grain tank 3B, the yield Y of the harvest at the field (weight of raw rice W1), and the moisture value of the harvest at the field (moisture value M1 of raw rice). The harvest information acquisition unit 40 is configured to receive the weight WY of the grain in the grain tank 3B, the moisture value MY of the grain in the grain tank 3B, the yield Y of the harvest at the field (weight of raw rice W1), and the moisture value of the harvest at the field (moisture value M1 of raw rice) from the combine 3 (control device 24). The harvest information I2 acquired by the harvest information acquisition unit 40 (weight WY of the grain in the grain tank 3B, moisture value MY of the grain in the grain tank 3B, yield Y of the harvested product in the field (weight W1 of the raw rice grains), and moisture value M1 of the harvested product in the field) is stored in the memory unit 36.

The broken rice ratio calculation unit 38 calculates the broken rice ratio R for each field. The broken rice ratio R is the proportion of broken rice in the yield of the harvested product. The broken rice ratio calculation unit 38 can calculate the broken rice ratio R, for example, using the following formula.
R = W6/Y
Here, R: broken rice ratio, W6: weight of broken rice, Y: yield of harvested product. The broken rice ratio R calculated by the broken rice ratio calculation unit 38 is stored in the memory unit 36.

The leaving time calculation unit 39 calculates the leaving time T3 of the harvested products for each field. The leaving time calculation unit 39 can calculate the leaving time T3, for example, using the following formula.
T3 = T2 - T1
Here, T1 is the receiving time, T2 is the drying start time, and T3 is the leaving time. The leaving time T3 calculated by the leaving time calculation unit 39 is stored in the memory unit 36.

The harvest evaluation unit 41 evaluates the harvest for each field based on the adjustment information I1 and harvest information I2 from the multiple types of adjustment machines 4. In this embodiment, the harvest evaluation unit 41 evaluates the quality of the harvest for each field based on the adjustment information I1 and harvest information I2 from the multiple types of adjustment machines 4, and evaluates the composition of the harvest for each field. The harvest evaluation results E by the harvest evaluation unit 41 are stored in the memory unit 36.

The harvest evaluation unit 41 evaluates the quality of the harvest for each field based on the moisture value M1 of the harvest (raw rice), the broken rice ratio R, the moisture value M2 of the grain when finished drying in the dryer 5, the leaving time T3, and the burnt hit rate H.
Specifically, the harvest evaluation unit 41 evaluates the quality of the harvest for each field as follows.
(1) The harvest evaluation unit 41 evaluates the harvest in the field as “immature rice” if at least one of the following conditions is met: the moisture content M1 of the harvest (raw rice) has increased compared to the previous year; or the broken rice ratio R has increased compared to the previous year.
(2) If the moisture content M2 of the grain at the time of drying completion in the dryer 5 is lower than that of the previous year, the harvest evaluation unit 41 evaluates the harvest in the field as being "over-dried."
(3) The harvest evaluation unit 41 evaluates the harvest in the field as being “excessively neglected” if at least one of the following conditions is met: the abandoned time T3 has increased compared to the previous year, or the burnt hit rate H has increased compared to the previous year.

As shown in Figure 4, the composition of the harvested product (raw rice) in the field can be divided into, for example, moisture, rice husks, broken rice, discolored scraps, and polished brown rice. The combination of moisture, rice husks, broken rice, discolored scraps, and polished brown rice is called raw rice, the combination of rice husks, broken rice, discolored scraps, and polished brown rice is called dried rice, and the combination of broken rice, discolored scraps, and polished brown rice can be called rough brown rice.

As shown in Figure 3, the harvest evaluation unit 41 calculates the proportions of moisture, rice husks, broken rice, brown rice, and polished brown rice as the composition of the harvest.

The harvest product evaluation unit 41 calculates the weight W4 of water based on the weight W1 of the raw rice and the weight W2 of the dried rice. The harvest product evaluation unit 41 can calculate the weight W4 of water, for example, using the following formula.
W4 = W1 - W2
Where W1 is the weight of raw rice, W2 is the weight of dried rice, and W4 is the weight of water.

The weight W2 of the dried unhulled grains is the weight of the grains when they are finished drying in the dryer 5. The harvest evaluation unit 41 can calculate the weight W2 of the dried unhulled grains, for example, using the following formula.
W2=(W1-W1×M1/100)/(1-MT/100)
where M1 is the moisture content of the raw rice, MT is the target moisture content of the dryer 5, W1 is the weight of the raw rice, and W2 is the weight of the dried rice.

The harvest product evaluation unit 41 calculates the weight W5 of the rice husks based on the weight W1 of the raw rice, the weight W4 of the water, the weight W6 of the broken rice, the weight W7 of the brown rice, and the weight W8 of the polished brown rice. The harvest product evaluation unit 41 can calculate the weight W5 of the rice husks, for example, using the following formula.
W5=W1-(W4+W6+W7+W8)
Here, W1: weight of raw rice, W4: weight of water, W5: weight of rice husk, W6: weight of broken rice, W7: weight of brown rice, W8: weight of polished brown rice

The sales calculation unit 44 acquires the yield Y of the harvested crops in the field, and calculates the sales S of the harvested crops for the yield Y in the field based on the yield Y and the adjustment information I1. The sales calculation unit 44 can calculate the sales S of the harvested crops, for example, using the following formula.
S = W8 x U
Where S: sales, U: unit price of harvested product, W8: weight of polished brown rice
The weight W8 of the polished brown rice is synonymous with the weighing result of the weighing machine 9. The unit price U of the harvested product is stored in the memory unit 36. The sales S calculated by the sales calculation unit 44 is stored in the memory unit 36.

The sales information generation unit 45 retrieves the yield Y and sales S from the memory unit 36 and generates sales information I3, which is information indicating the relationship between the yield Y and sales S in the field. The sales information I3 generated by the sales information generation unit 45 is stored in the memory unit 36.

The display data generation unit 43 retrieves the evaluation result E from the storage unit 36 and generates evaluation result display data D1 for displaying the evaluation result E on the display unit 2A of the user terminal 2. The evaluation result display data D1 generated by the display data generation unit 43 is stored in the storage unit 36. The display data generation unit 43 retrieves the sales information I3 from the storage unit 36 and generates sales information display data D2 for displaying the sales information I3 on the display unit 2A of the user terminal 2. The sales information display data D2 generated by the display data generation unit 43 is stored in the storage unit 36.

In response to a request from the user terminal 2, the transmission unit 42 retrieves the evaluation result display data D1 and the field map MA from the memory unit 36 and transmits the evaluation result display data D1 and the field map MA to the user terminal 2. The evaluation result display data D1 and the field map MA transmitted from the transmission unit 42 are displayed on the display unit 2A of the user terminal 2 (see Figures 5 and 6). The request from the user terminal 2 is made by the user via the input unit 2B of the user terminal 2.

In response to a request from the user terminal 2, the transmission unit 42 retrieves the sales information display data D2 and the field map MA from the storage unit 36 and transmits the sales information display data D2 and the field map MA to the user terminal 2. The sales information display data D2 and the field map MA transmitted from the transmission unit 42 are displayed on the display unit 2A of the user terminal 2 (see Figure 7). The request from the user terminal 2 is made by the user via the input unit 2B of the user terminal 2.

Figure 5 shows an example of a screen displaying evaluation result display data D1 related to harvest quality and a field map MA on the display unit 2A of the user terminal 2. As shown in Figure 5, when a user selects field F1 on the field map MA on the display unit 2A of the user terminal 2, the fact that the harvest quality of field F1 is "unripe" is displayed on the field map MA on the display unit 2A of the user terminal 2 using text TE1 and illustration IL1. That is, the evaluation result display data D1 includes text TE1 and illustration IL1. The text TE1 and illustration IL1 are displayed using pop-ups. The text TE1 includes the following text: "Possible immature rice," "Harvest (raw rice) moisture value: XX%," and "Raw rice fraction: Increased compared to the previous year." The illustration IL1 is an illustration of unripe grains. Field F1 is colored in the color corresponding to "unripe," distinguishing it from the other fields.

When the user selects field F2 on the field map MA on the display unit 2A of the user terminal 2, the fact that the quality of the harvested product in field F2 is "too dry" is displayed by text TE2 and illustration IL2 on the field map MA on the display unit 2A of the user terminal 2. In other words, the evaluation result display data D1 includes the text TE2 and the illustration IL2.
Text TE2 and illustration IL2 are displayed by a pop-up. Text TE2 includes the text "Possible over-drying" and "Finishing moisture value: Decreased compared to the previous year.""Finishing moisture value" refers to the moisture value of the grain at the time of finishing drying in the dryer 5. Illustration IL2 is an illustration of over-dried grain. Field F2 is colored in the color corresponding to "over-drying" and is color-coded from the other fields.

When the user selects field F3 on the field map MA on the display unit 2A of the user terminal 2, the fact that the quality of the harvest in field F3 is "excessively neglected" is displayed on the field map MA on the display unit 2A of the user terminal 2 by means of text TE3 and illustration IL3. That is, the evaluation result display data D1 includes text TE3 and illustration IL3. Text TE3 and illustration IL3 are displayed by pop-up. Text TE3 includes the text "Possible excessive neglect," "Abandonment time: increased compared to previous year," and "Scorched hit rate: increased compared to previous year." Illustration IL3 is an illustration of over-neglected grain. Field F3 is colored in the color corresponding to "excessively neglected," and is color-coded from the other fields.

Figure 6 shows an example of a screen on the display unit 2A of the user terminal 2, where evaluation result display data D1 regarding the composition of the harvested crop and a field map MA are displayed. As shown in Figure 6, when the user selects field F4 on the field map MA on the display unit 2A of the user terminal 2, the composition of the harvested crop in field F4 is displayed in graph GR1 on the field map MA on the display unit 2A of the user terminal 2. In other words, the evaluation result display data D1 includes graph GR1. Graph GR1 is displayed as a pop-up.

In the example shown in FIG. 6, graph GR1 is a bar graph. The horizontal axis of graph GR1 represents the composition of the harvest (moisture, rice husks, broken rice, brown rice, and polished brown rice). The vertical axis of graph GR1 represents the proportion of the composition of the harvest. Graph GR1 displays the composition of the harvest for two years (this year and last year). In other words, evaluation result display data D1 relating to the composition of the harvest for each year for multiple years (two years in this embodiment) is displayed on the display unit 2A of the user terminal 2.

Figure 7 shows an example of a screen on which the sales information display data D2 and the field map MA are displayed on the display unit 2A of the user terminal 2. As shown in Figure 7, when the user selects field F4 on the field map MA on the display unit 2A of the user terminal 2, the relationship between the yield Y and sales S for field F4 is displayed in the form of graph GR2 on the field map MA on the display unit 2A of the user terminal 2. In other words, the sales information display data D2 includes the graph GR2.
The graph GR2 is displayed by a pop-up.

In the example shown in FIG. 7, graph GR2 is a scatter plot. The horizontal axis of graph GR2 represents yield Y. The vertical axis of graph GR2 represents sales S. Graph GR2 displays the relationship between yield Y and sales S for two years (this year and last year). In other words, sales information display data D2 for each year is displayed on the display unit 2A of the user terminal 2 for multiple years (two years in this embodiment).

As shown in FIG. 8 , the parameter acquisition unit 46 acquires an adjustment machine parameter P, which is a parameter of the adjustment machine 4, in association with the field where the crop to be adjusted by the adjustment machine 4 was harvested. In this embodiment, the parameter acquisition unit 46 acquires a dryer parameter P1, which is a parameter of the dryer 5, from the dryer 5 (control device 29) in association with the field where the grain to be dried by the dryer 5 was harvested, and acquires a color sorter parameter P2, which is a parameter of the color sorter 8, from the color sorter 8 (control device 32) in association with the field where the grain to be color sorted by the color sorter 8 was harvested. In other words, the parameter acquisition unit 46 can acquire multiple types (two types in this embodiment) of adjustment machine parameters P (dryer parameter P1 and color sorter parameter P2). The dryer parameter P1 and color sorter parameter P2 acquired by the parameter acquisition unit 46 are stored in the memory unit 36.

Dryer parameters P1 are parameters used to configure various settings for the dryer 5. For example, dryer parameters P1 include a target moisture value, which is the target moisture value for drying grains.

The color sorter parameters P2 are parameters for configuring various settings for the color sorter 8. For example, the color sorter parameters P2 include parameters for adjusting the sensitivity of color sorting (e.g., sensitivity adjustment parameters such as reflected light reference values and transmitted light reference values).

The field selection receiving unit 47 receives the selection of a field by the user terminal 2. The selection of a field by the user terminal 2 is performed by the user on the field map MA on the display unit 2A of the user terminal 2 using the input unit 2B of the user terminal 2. When the user selects a field on the field map MA on the display unit 2A of the user terminal 2 using the input unit 2B of the user terminal 2, the field selection receiving unit 47 receives the selection of the field by the user terminal 2. In this embodiment, the field selection receiving unit 47 receives the selection of the first field F1 and the second field F5 by the user terminal 2.

In response to a request from the user terminal 2, the parameter association unit 48 associates the adjuster parameter P corresponding to the first field F1 accepted by the field selection acceptance unit 47 with the second field F5 accepted by the field selection acceptance unit 47. Here, the memory unit 36 stores the dryer parameter P1 and the color sorter parameter P2 as the adjuster parameter P corresponding to the first field F1. In this case, the parameter association unit 48 associates the dryer parameter P1 and the color sorter parameter P2 with the second field F5 in response to a request from the user terminal 2. The request from the user terminal 2 is made by the user via the input unit 2B of the user terminal 2.

In response to a request from the user terminal 2, the parameter setting unit 49 retrieves the adjuster parameters P corresponding to the second field F5 from the memory unit 36 and sets the adjuster parameters P corresponding to the second field F5 to the adjuster 4 that adjusts the crop harvested in the second field F5. In this embodiment, in response to a request from the user terminal 2, the parameter setting unit 49 retrieves the dryer parameters P1 and color sorter parameters P2 corresponding to the second field F5 from the memory unit 36 and sets the dryer parameters P1 and color sorter parameters P2 corresponding to the second field F5 to the dryer 5 and color sorter 8 that adjust the crop harvested in the second field F5. The request from the user terminal 2 is made by the user via the input unit 2B of the user terminal 2.

The display data generation unit 43 calls up the adjuster parameters P from the storage unit 36 and generates parameter display data D3 for displaying the adjuster parameters P on the display unit 2A of the user terminal 2. In this embodiment, the display data generation unit 43 calls up the dryer parameters P1 and the color sorter parameters P2 from the storage unit 36 and generates parameter display data D3 for displaying the dryer parameters P1 and the color sorter parameters P2 on the display unit 2A of the user terminal 2. The parameter display data D3 generated by the display data generation unit 43 is stored in the storage unit 36.

In response to a request from the user terminal 2, the transmission unit 42 retrieves the parameter display data D3 and the field map MA from the storage unit 36 and transmits the parameter display data D3 and the field map MA to the user terminal 2. The parameter display data D3 and the field map MA transmitted from the transmission unit 42 are displayed on the display unit 2A of the user terminal 2 (see Figures 10 and 11). The request from the user terminal 2 is made by the user via the input unit 2B of the user terminal 2.

Figure 9 shows an example of a screen on the display unit 2A of the user terminal 2, where menus ME1 and ME2 related to parameter control and a farm field map MA are displayed. Figure 10 shows an example of a screen on the display unit 2A of the user terminal 2, where parameter display data D3 related to dryer parameter P1 and a farm field map MA are displayed. Figure 11 shows an example of a screen on the display unit 2A of the user terminal 2, where parameter display data D3 related to color sorter parameter P2 and a farm field map MA are displayed.

As shown in FIG. 9, when a user selects a first field F1 on the field map MA on the display unit 2A of the user terminal 2, a menu ME1 is displayed on the field map MA on the display unit 2A of the user terminal 2. The menu ME1 includes a "Confirm" button for "Dryer parameters," a "Copy" button for "Dryer parameters," a "Confirm" button for "Color sorter parameters," and a "Copy" button for "Color sorter parameters."

When the user presses the "Confirm" button for "Dryer Parameters," parameter display data D3 for dryer parameters P1 will be displayed on the display 2A of the user terminal 2 (see Figure 10). When the user presses the "Confirm" button for "Color Sorter Parameters," parameter display data D3 for color sorter parameters P2 will be displayed on the display 2A of the user terminal 2 (see Figure 11).

As shown in Figure 9, when a user presses the "Copy" button for "Dryer Parameters," the dryer parameters P1 corresponding to the first field F1 will be copied. When a user presses the "Copy" button for "Color Sorter Parameters," the color sorter parameters P2 corresponding to the first field F1 will be copied.

When the dryer parameters P1 corresponding to the first field F1 (or the color sorter parameters P2 corresponding to the first field F1) have been copied and the user selects the second field F5 on the field map MA on the display unit 2A of the user terminal 2, menu ME2 will be displayed on the field map MA on the display unit 2A of the user terminal 2. Menu ME2 includes a "Reflect to this field" button. When the user presses the "Reflect to this field" button, the dryer parameters P1 (or the color sorter parameters P2) corresponding to the first field F1 will be associated with the second field F5.

[Another embodiment]
(1) In the above embodiment, the combine harvester 3, the dryer 5, and the color sorter 8 are communicatively connected to the management server 1. However, in addition to the combine harvester 3, the dryer 5, and the color sorter 8, the huller 6, the sorter 7, and the weighing machine 9 may also be communicatively connected to the management server 1.

(2) In the above embodiment, the "harvester" according to the present invention is a head-feeding combine. However, the "harvester" according to the present invention may also be a whole-culm-injection combine.

(3) In the above embodiment, the agricultural management system includes a combine harvester 3. However, the agricultural management system does not necessarily have to include a combine harvester.

(4) In the above embodiment, the adjustment information acquisition unit 37 acquires the adjustment information I1 for each field. However, the adjustment information acquisition unit 37 is not limited to acquiring the adjustment information I1 for each field, as long as it acquires the adjustment information I1 for any unit of harvested product. For example, the adjustment information acquisition unit 37 may acquire the adjustment information I1 for each container.

(5) In the above embodiment, the harvest information acquisition unit 40 acquires harvest information I2 for each field. However, the harvest information acquisition unit 40 is not limited to acquiring harvest information I2 for each field, as long as it acquires harvest information I2 for any unit of harvest. For example, the harvest information acquisition unit 40 may acquire harvest information I2 for each container.

(6) In the above embodiment, the harvest evaluation unit 41 evaluates the harvest for each field. However, the harvest evaluation unit 41 is not limited to evaluating the harvest for each field, as long as it evaluates the harvest for any unit of the harvest. For example, the harvest evaluation unit 41 may evaluate the harvest for each container.

(7) In the above embodiment, the harvest evaluation unit 41 evaluates the quality and composition of the harvest. However, the harvest evaluation unit 41 may evaluate either the quality or the composition of the harvest.

(8) In the above embodiment, the harvest evaluation unit 41 calculates the proportions of moisture, rice husks, broken rice, brown rice, and polished brown rice as the composition of the harvest. However, the composition of the harvest calculated by the harvest evaluation unit 41 is not limited to the above embodiment. For example, the composition of the harvest calculated by the harvest evaluation unit 41 may include middle rice.

(9) In the above embodiment, graph GR1 is a bar graph. However, graph GR1 is not limited to a bar graph. For example, graph GR1 may be a pie chart or a table.

(10) In the above embodiment, graph GR2 is a scatter plot. However, graph GR2 is not limited to a scatter plot. For example, graph GR2 may be a table.

(11) In the above embodiment, the evaluation result display data D1 includes text TE1, TE2, TE3, illustrations IL1, IL2, IL3, and graph GR1. However, the evaluation result display data D1 is not limited to including text TE1, TE2, TE3, illustrations IL1, IL2, IL3, and graph GR1, as long as it includes at least one of text, illustrations, graphs, and tables.

(12) In the above embodiment, the graph GR1 displays two years' worth of harvest composition. That is, the transmission unit 42 transmits two years' worth of evaluation result display data D1 regarding each year's harvest composition to the display unit 2A of the user terminal 2. However, the transmission unit 42 may also transmit three or more years' worth of evaluation result display data D1 regarding each year's harvest composition to the display unit 2A of the user terminal 2.

(13) In the above embodiment, the graph GR2 displays the relationship between yield Y and sales S for two years. That is, the transmission unit 42 transmits sales information display data D2 for each year for two years to the display unit 2A of the user terminal 2. However, the transmission unit 42 may also transmit sales information display data D2 for each year for three or more years or one year.

(14) In the above embodiment, sales information I3 is information indicating the relationship between the yield Y in the field and sales S. However, sales information I3 may also be information indicating the relationship between the yield Y in the field and the unit price U of the harvested product. In other words, sales information I3 may include the unit price U of the harvested product.

In this case, as shown in FIG. 12, graph GR3 may be displayed on the field map MA on the display unit 2A of the user terminal 2. In other words, graph GR3 may be included in the sales information display data D2. The horizontal axis of graph GR3 represents yield Y. The vertical axis of graph GR3 represents the unit price U of the harvest. Graph GR3 displays the relationship between yield Y and unit price U of the harvest for two years (this year and last year). The size of each circle in graph GR3 for this year and last year represents the amount of sales.

(15) In the above embodiment, the management server 1 (control unit 35) includes a field selection reception unit 47, a parameter association unit 48, and a parameter setting unit 49. However, the control unit 35 does not necessarily have to include the field selection reception unit 47, the parameter association unit 48, and the parameter setting unit 49.

(16) In the above embodiment, the dryer parameter P1 includes a target moisture value. However, the dryer parameter P1 may include other parameters instead of or in addition to the target moisture value.

(17) In the above embodiment, the color sorter parameters P2 include a color sorting sensitivity adjustment parameter. However, the color sorter parameters P2 may include other parameters instead of or in addition to the sensitivity adjustment parameter.

(18) In the above embodiment, the parameter acquisition unit 46 acquires the dryer parameter P1 and the color sorter parameter P2. However, the parameter acquisition unit 46 is not limited to acquiring the dryer parameter P1 and the color sorter parameter P2, as long as it acquires at least two or more of the dryer parameter P1, the color sorter parameter P2, the parameter of the rice huller 6, the parameter of the sorter 7, and the parameter of the weighing machine 9. For example, the parameter acquisition unit 46 may acquire the parameter of the rice huller 6, the parameter of the sorter 7, and the parameter of the weighing machine 9 in addition to the dryer parameter P1 and the color sorter parameter P2.

The present invention can be used in agricultural management systems.

1 Management server 2 User terminal 3 Combine (harvesting machine)
4 Adjuster 5 Dryer 8 Color sorter 36 Memory unit 42 Transmission unit 43 Display data generation unit 46 Parameter acquisition unit 47 Field selection reception unit 48 Parameter association unit 49 Parameter setting unit D3 Parameter display data F1 First field F5 Second field P Parameter P1 Dryer parameter (dryer parameter)
P2 Color sorter parameters (color sorter parameters)

Claims (4)

An agricultural management system including an adjusting machine that adjusts harvested products by a harvester and a management server to which a user terminal owned by a user is communicably connected,
a parameter acquisition unit that acquires parameters of the adjustment machine in association with a field in which a harvest product to be adjusted by the adjustment machine has been harvested;
a storage unit that stores the parameters acquired by the parameter acquisition unit;
a display data generating unit that retrieves the parameters from the storage unit and generates parameter display data for displaying the parameters on the user terminal;
a transmitting unit that transmits the parameter display data to the user terminal in response to a request from the user terminal;
a field selection receiving unit that receives a field selection made by the user terminal;
a parameter associating unit that associates the parameters corresponding to the first field accepted by the field selection accepting unit with the second field accepted by the field selection accepting unit in response to a request from the user terminal;
An agricultural management system comprising : a parameter setting unit that sets the parameters corresponding to the second field in the adjustment machine that adjusts the crop harvested in the second field in response to a request from the user terminal . The adjusting machine is a color sorter that sorts grains by color,
The agricultural management system according to claim 1 , wherein the parameters of the color sorter include a parameter for adjusting sensitivity of color sorting. The conditioning machine is a dryer that dries grains,
The agricultural management system of claim 1 or 2, wherein the parameters of the dryer include a target moisture value for drying grain. The agricultural management system described in claim 1 or 2, wherein the parameter acquisition unit is capable of acquiring the parameters of multiple types of adjustment machines.