JP2020166379A - Operation surrogate mediation server - Google Patents

Abstract

To provide an operation surrogate mediation server that can easily find an operation surrogate suitable for an operation and can reduce the labor for providing an operation map to the operation surrogate to perform the operation.SOLUTION: In an operation surrogate mediation system 1, an operation surrogate mediation server 4 selects, as surrogate candidate(s), one or more operation surrogates suitable for an operation to which an outsourcing target operation map should be used, based on attribute information of the outsourcing target operation map selected by a user and operation conditions of each operation surrogate dealer. It includes: a second screen providing unit 50C that provides a user with a surrogate selection screen for allowing the user to select one desired surrogate candidate as a final surrogate candidate from the selected surrogate candidates; and a download permission unit 50D that performs processing for permitting the final surrogate candidate to download the outsourcing target operation map.SELECTED DRAWING: Figure 3

Description

The present invention relates to a work agent placement server.

Patent Document 1 discloses a fertilizer application map generation system including a developer terminal PC, a GIS server connected to the developer terminal PC, and a farmer terminal PC connected to the GIS server via the Internet. There is.
In the fertilizer application map generation system described in Patent Document 1, the developer terminal PC creates a hot water extractable nitrogen map based on the remote sensing data of the field and the soil sampling data of the field. The GIS server calculates the amount of fertilizer applied to each mesh in the field based on the information such as crops, fertilizer names, fertilizer components, etc. acquired from the farmer terminal PC, and the hot water extractable nitrogen map acquired from the developer terminal PC. By doing so, a fertilizer application map is created. The fertilizer application map created by the GIS server is provided to the farmer terminal PC by being downloaded to the farmer terminal PC, or is provided to the farmer terminal PC using a storage medium such as a CD-ROM. ..

The fertilizer application map provided to the farmer terminal PC is input to and stored in the memory of the variable fertilizer application PC mounted on the tractor type fertilizer application machine. The variable fertilizer application PC extracts the fertilizer application amount data corresponding to the current position of the tractor type fertilizer application machine, and converts the extracted fertilizer application amount data into control data. Then, the fertilizer application amount control microcomputer mounted on the tractor type fertilizer application machine drives the fertilizer application machine based on the control data converted by the variable fertilizer application PC to perform fertilization.

Japanese Unexamined Patent Publication No. 2011-254711

In order to perform variable fertilization work using the fertilizer application map, a work vehicle equipped with an antenna for receiving satellite signals for detecting the position of the work vehicle and an actuator for changing the amount of fertilizer application is required. Since a work vehicle equipped with such variable fertilizer application equipment is expensive, it is not easy for a small-scale farmer to purchase a work vehicle equipped with variable fertilizer application equipment.
Therefore, it is conceivable that the farmer outsources the variable fertilizer application work to a work agent (hereinafter referred to as “work agent”). However, when the variable fertilizer application work is outsourced to a work agent, the farmer needs to download the fertilizer application map from the server using his / her own terminal and then provide the work agent with the fertilizer application map. For this reason, the farmer takes time and effort to provide the fertilizer application map to the work agent.

An object of the present invention is to provide a work agent placement server that can easily find a work agent suitable for work and can reduce the labor for providing a work map to the work agent on behalf of the work. Is.

In one embodiment of the present invention, a first storage unit in which a plurality of work maps in which each work map is composed of work setting information for each small area in the field and attribute information of each work map are stored. A second storage unit that stores a plurality of work agents and the work conditions of each of the work agents, and a work map used for the work desired to be outsourced among the plurality of work maps. Based on the first screen providing unit that provides the user with a map selection screen for selecting the user, the attribute information of the consignment target work map selected by the user, and the work conditions of each work agent. One or more work agents suitable for the work to which the commissioned work map should be used are selected as the agent candidates, and one desired agent candidate is selected as the final agent candidate from the selected agent candidates. A second screen providing unit that provides the user with a substitute selection screen for selecting the user, and a process for permitting the final substitute candidate to download the commissioned work map. It provides a work agent placement server equipped with a download permission unit to perform.

With this configuration, it is possible to easily find a work agent suitable for the work, and it is possible to reduce the labor for providing the work map to the work agent who acts for the work.
In one embodiment of the present invention, the attribute information of the work map includes a scheduled work period in which the work map should be used, field position information indicating the position of the field in which the work map should be used, and the work. The map contains at least one of the work identification information for identifying the work to be used and the work cost that the work map can tolerate for the work to be used.

In one embodiment of the present invention, the work condition of the work agent includes at least one of a serviceable area, a workable work, a work day and a work cost.
In one embodiment of the invention, the map selection screen includes a list displaying information about the work map for each work map available to the user, and the information about the work map is used by the work map. Includes information that represents the field to be done and information that represents the work for which the work map should be used.

In one embodiment of the present invention, the agent selection screen includes a list in which information about the agent candidate is displayed for each selected agent candidate, and the information about the agent candidate is the agent. The information representing the candidate, the contact information of the substitute candidate, and the work cost of the substitute candidate are included.
In one embodiment of the present invention, the download of the consignment target work map to the substitute candidate selected from the substitute selection screen is executed for the work vehicle designated by the substitute candidate.

It is a schematic diagram which shows the structure of the work agent mediation system including the work agent mediation server which concerns on one Embodiment of this invention, and the work vehicle used by work agent. FIG. 2 is a block diagram showing an electrical configuration of a traveling machine and a working machine. FIG. 3 is a block diagram showing an electrical configuration of a user terminal, an agent terminal, and a work agent placement server. FIG. 4 is a schematic diagram showing an example of a map attribute table. FIG. 5 is a schematic diagram showing an example of an agent information table. FIG. 6 is a sequence diagram for explaining the operation of the user terminal and the mediation server when the user searches for a work agent for the fertilizer application work. FIG. 7 is a schematic diagram showing an example of a map selection screen. FIG. 8 is a schematic diagram showing an example of a substitute selection screen.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings.
FIG. 1 is a schematic view showing a configuration of a work agent placement system including a work agent placement server according to an embodiment of the present invention and a work vehicle used by the work agent. The work agent placement system 1 allows the user to easily find a work agent to act for the work, and provides a work map to the work agent acting for the work or the work vehicle designated by the work agent. Is a possible system.

The work agent placement system 1 includes a user terminal 2 used by a user who owns one or more fields, a work agent terminal 3 used by a work agent who acts on behalf of the user, and a work agent placement server. Includes 4 and. The work agent uses the work machine 5 to perform work on the field of the user of the consignor (consignor).
The user terminal 2, the agent terminal 3, and the work machine 5 can communicate with the agent placement server (hereinafter, referred to as “placement server 4”) via the network 8.

In this specification, the work machine 5 includes a work vehicle, a work vehicle, and the like. The work vehicle includes a work vehicle consisting of a traveling machine and a working machine towed by the traveling machine, and a working vehicle in which the traveling machine and the working machine are integrated. Working vehicles include helicopters, multicopters, drones, and other aircraft equipped with work equipment.
In FIG. 1, a work vehicle is illustrated as a work machine 5. The work vehicle as the work machine 5 illustrated in FIG. 1 includes a traveling machine 6 and a working machine 7 towed by the traveling machine 6. In this embodiment, the traveling machine 6 is a tractor. Types of working machines 7 include, for example, fertilizer sprayers, pesticide sprayers, roll balers, cultivators, plows, levelers, mowers, sowing machines, harvesters and the like. Examples of the work vehicle in which the traveling machine and the working machine are integrated include a rice transplanter, a combine harvester, and the like.

As the work machine 5, a work vehicle or a work flying object may be used depending on the type of work. However, in this embodiment, the case where the work machine 5 is a work vehicle including the traveling machine 6 and the working machine 7 towed by the traveling machine 6 will be mainly described.
The placement server 4 stores a work map used for one or more tasks performed on a field owned by the user. In this embodiment, the work map consists of work setting information for each mesh in the field. The mesh means individual subregions when the field is divided into a plurality of rectangular (square in this embodiment) subregions. It should be noted that the work map may consist of work setting information for each discrete small area in the field, instead of the mesh-like mesh unit in the field.

FIG. 2 is a block diagram showing an electrical configuration of the traveling machine 6 and the working machine 7.
The traveling machine 6 includes a control unit (hereinafter, referred to as “traveling machine control unit 10”). The traveling machine control unit 10 includes a microcomputer provided with a CPU and a memory (volatile memory, non-volatile memory, etc.) 10A. The traveling machine control unit 10 controls the operation of the traveling machine 6 (movements such as forward movement, reverse movement, stop, turning, etc.). A plurality of controllers (controller group 11) for controlling each part of the traveling machine 6 are electrically connected to the traveling machine control unit 10. The plurality of controllers control the engine controller that controls the engine speed and the like, the vehicle speed controller that controls the vehicle speed of the traveling machine 6, the steering controller that controls the steering angle of the front wheels of the traveling machine 6, and the rotation of the PTO axis. Includes PTO axis controller and the like.

The position information calculation unit 12, the communication unit 13, and the like are further connected to the traveling machine control unit 10.
An antenna 14 for receiving satellite signals is electrically connected to the position information calculation unit 12. The satellite signal receiving antenna 14 receives signals from the positioning satellites 9 (see FIG. 1) constituting the satellite positioning system. The satellite positioning system is, for example, GNSS (Global Navigation Satellite System). The position information calculation unit 12 calculates the position of the traveling machine 6 (strictly speaking, the satellite signal receiving antenna 14) based on the positioning signal received by the satellite signal receiving antenna 14. Specifically, the position information calculation unit 12 generates positioning information including time information and position information. The position information includes, for example, latitude information and longitude information.

The communication unit 13 is a communication interface for the traveling machine control unit 10 to communicate with the mediation server 4 via the network 8.
The work machine 7 includes a control unit (hereinafter, referred to as “work machine control unit 20”) that controls the operation of the work machine 7. The work equipment control unit 20 includes a microcomputer provided with a CPU and a memory (volatile memory, non-volatile memory, etc.). The work machine control unit 20 is connected to the traveling machine control unit 10 via a CAN (Controller Area Network).

A work actuator 21 or the like is connected to the work machine control unit 20. When the work machine 7 is a fertilizer spreader, the work actuator 21 is, for example, an actuator for driving an electronic shutter provided at the bottom of a fertilizer storage tank. When the working machine 7 is a pesticide sprayer, the working actuator 21 is, for example, an actuator for driving a pump for supplying a pesticide from a pesticide storage drug tank to a discharge nozzle. When the working machine 7 is a seeding machine, the working actuator 21 is, for example, an actuator for driving a feeding device for feeding seeds from a seed storage tank.

FIG. 3 is a block diagram showing the electrical configurations of the user terminal 2, the agent terminal 3, and the mediation server 4.
The user terminal 2 includes a personal computer (PC), a control device (PC main body) 31, a display 32, an operating device 33 such as a mouse and a keyboard, and a communication unit 34. The communication unit 34 is a communication interface for the control device 31 to communicate with the mediation server 4 via the network 8.

Although not shown, the control device 31 includes a CPU, a memory, a hard disk, and the like. In addition to the OS (operating system), programs such as a browser for browsing web pages and other necessary data are stored on the hard disk.
The agent terminal 3 is composed of a personal computer (PC), and includes a control device (PC main body) 41, a display 42, an operating device 43 such as a mouse and a keyboard, and a communication unit 44. The communication unit 44 is a communication interface for the control device 41 to communicate with the mediation server 4 via the network 8.

Although not shown, the control device 41 includes a CPU, a memory, a hard disk, and the like. In addition to the OS (operating system), programs such as a browser for browsing web pages and other necessary data are stored on the hard disk.
The mediation server 4 includes a control unit (hereinafter, referred to as “server control unit 50”) that controls the mediation server 4. The control unit 50 includes a microcomputer provided with a CPU and a memory (volatile memory, non-volatile memory, etc.) 50A. The communication unit 51, the operation display unit 52, the operation unit 53, and the storage unit 54 are electrically connected to the server control unit 50.

The communication unit 51 is a communication interface for the server control unit 50 to communicate with the user terminal 2, the agent terminal 3, and the work machine 5 via the network 8. The operation display unit 52 includes, for example, a touch panel display. The operation unit 53 includes, for example, a keyboard, a mouse, and the like.
The storage unit 54 is composed of a storage device such as a hard disk and a non-volatile memory. A plurality of work map files (work map file group) 54A, map attribute table 54B, agent information table 54C, and the like are stored in the storage unit 54.

The work map file group 54A includes a work map file (hereinafter, simply referred to as “work map”) used for work performed in a field owned by a plurality of users. A work map for a field includes position information for identifying the position of each mesh in the field and work setting information for each mesh. The position information for specifying the position of the mesh includes, for example, the position information of the four vertices of the mesh or the position information of a pair of vertices among the four vertices. The position information for specifying the position of the mesh may include the position information of the center of the mesh.

As shown in FIG. 4, the map attribute table 54B stores the attribute information of each work map included in the work map file group 54A for each work map. The attribute information includes a scheduled work period, user identification information (user ID), address, field number, field position information, work identification information (work ID), work name, and file name.
The scheduled work period for a work map is information indicating the period during which the work map should be used. The user ID for a work map is the identification information of the user who owns the field in which the work map should be used. The address for a work map is the address of the area where the field in which the work map should be used resides. The address for a work map may be the address of the user who owns the field in which the work map should be used.

The field number and field position information for a work map are the field numbers (field IDs) for which the work map should be used. The field position information for a work map is information indicating the position of the field in which the work map should be used. In this embodiment, the field position information includes latitude / longitude information of the center position of the field.
The work identification information (work ID) for a certain work map is information for identifying the work for which the work map should be used. The work name for a work map is the name of the work for which the work map should be used. The file name for a work map is the file name of the work map (work map file).

In the example of FIG. 4, as the user, there are a user A whose user ID is AAAA, a user B whose user ID is BBBB, and a user C whose user ID is CCCC. The fields owned by the user A include a field having a field number of "1", a field having a field number of "2", and a field having a field number of "3". The fields owned by the user B include a field having a field number of "4" and a field having a field number of "5". The fields owned by the user C include a field having a field number of "6" and a field having a field number of "7".

The field position information consists of position information (latitude / longitude information) of the center position of the field. In addition, the work performed using the work map includes a base fertilizer spraying work, a side strip fertilization work, and a top dressing work. In the following, these operations may be collectively referred to as fertilization operations. The work setting information for the fertilization work (work setting information for each mesh) consists of the target fertilizer application amount per predetermined area. Since the topdressing work is performed while the crop is growing, it may be carried out using a working flying object equipped with a work machine for topdressing.

The work map used for the top dressing work is created, for example, as follows. That is, first, a crop is photographed by a multispectral camera from the sky above the field using a flying object such as a multicopter. Next, the growth status of the crop for each mesh is calculated based on the captured image. Then, a work map consisting of the target fertilizer application amount for each mesh is created based on the calculated growth status of the crop for each mesh. Since the growth status of a crop changes over time, it is preferable that the work map created based on the growth status of the crop is used within a predetermined period after it is created. The scheduled work period for the work map used for the top dressing work is set from this point of view.

As shown in FIG. 5, in the agent information table 54C, the work agent name, telephone number, available area, available work identification information (available work ID), available work name, and work unit price (per 10a). The work unit price) is stored for each combination of the work agent name and the available work name. The telephone number in the agent information table 54C is an example of the "contact information of the agent candidate" of the present invention. In addition, the available area and the available work are examples of the "work conditions of the work agent" of the present invention. The work unit price is an example of the "work cost" of the present invention.

In the example of FIG. 5, there are A farm, agricultural cooperative corporation B, C farm, D agricultural cooperative, and E limited company as work agents. The types of work that can be handled include basal fertilizer work, side row fertilizer application work, and top dressing work.
The server control unit 50 includes a first screen providing unit 50B, a second screen providing unit 50C, and a download permission unit 50D as function processing units.

The first screen providing unit 50B displays a map selection screen for allowing the user to select a work map used for the work desired to be entrusted as the entrusted work map among the plurality of work maps stored in the storage unit 34. Provided to the user (user terminal 2).
The second screen providing unit 50C is one or more suitable for the work to which the consignment target work map should be used, based on the attribute information of the consignment target work map selected by the user and the work conditions of each work agent. The user (user terminal 2) is provided with an agent selection screen for selecting the work agent of the above as an agent candidate and allowing the user to select a desired agent candidate from the selected agent candidates as the final agent candidate. provide.

The download permission unit 50D performs a process for permitting the final agent candidate to download the work map to be entrusted.
FIG. 6 is a sequence diagram for explaining the operation of the user terminal 2 and the mediation server 4 when the user searches for a work agent for the fertilizer application work.
The user operates the user terminal 2 to send a map selection screen acquisition request to the mediation server 4 (step S1). Specifically, for example, the user acquires a user-dedicated web page from the mediation server 4 by operating the user terminal 2. Then, the user performs a predetermined operation for acquiring the map selection screen on the acquired web page. As a result, the map selection screen acquisition request is transmitted from the user terminal 2 to the mediation server 4.

When the first screen providing unit 50B of the mediation server 4 receives the map selection screen acquisition request, the user terminal provides a map selection screen for allowing the user to select the work map for which the user wants to be entrusted as the work map to be entrusted. 2 is provided (step S2).
As a result, for example, the map selection screen 61 as shown in FIG. 7 is displayed on the display 32 of the user terminal 2 (step S3).

On the map selection screen 61, for each work map (work map created for the field owned by the user) that can be used by the user, the field number corresponding to the work map and the work map are displayed. The work name corresponding to, the file name corresponding to the work map, and the selection button 62 are displayed. Although not shown in FIG. 6, when a file name is clicked, a work map corresponding to the file name is downloaded to the user terminal 2.

The user selects the work map as the work map to be outsourced by pressing the selection button 62 corresponding to one work map for which work is to be outsourced. Here, it is assumed that the work map corresponding to F01.task (file name) is selected as the work map to be entrusted.
When any of the selection buttons 62 is pressed (step S4: YES), the consignment target work map specific information (for example, file name) for specifying the work map (consignment target work map) corresponding to the pressed selection button 62 is pressed. ) Is transmitted to the placement server 4 (step S5).

When the second screen providing unit 50C of the placement server 4 receives the consignment target work map specific information, the attribute information of the consignment target work map specified by the consignment target work map specific information and the work conditions of each work agent are set. Based on this, one or more work agents suitable for the work for which the outsourced work map should be used are selected as the agent candidates (step S6).
In this embodiment, the mediation server 4 acts on behalf of the work agent whose work conditions (available area and available work) match the address and work name in the attribute information of the work map to be entrusted. Select as a candidate. In this example, Farm A and Company E are selected as substitute candidates.

Then, the second screen providing unit 50C of the mediation server 4 provides the user terminal 2 with a substitute selection screen for allowing the user to select a desired substitute candidate from the selected substitute candidates (step S7). ..
As a result, for example, the agent selection screen 63 as shown in FIG. 8 is displayed on the display 22 of the user terminal 2 (step S8).

On the agent selection screen 63, for each agent candidate selected in step S6, the name of the agent candidate, the work unit price of the agent candidate (work unit price related to the work corresponding to the work map to be entrusted), and the work unit price of the agent candidate are displayed. The telephone number of the substitute candidate and the selection button 64 are displayed.
In this example, the name, work unit price, telephone number and selection button 64 corresponding to the farm A and the name, work unit price, telephone number and selection button 64 corresponding to the limited company E are displayed.

The user selects the substitute candidate as the final substitute candidate by pressing the selection button 64 corresponding to one substitute candidate to be entrusted with the work.
When any of the selection buttons 64 is pressed (step S9: YES), the final agent candidate information indicating the agent candidate (final agent candidate) corresponding to the pressed selection button 64 is sent to the mediation server 4. It is transmitted (step S10).

When the download permission unit 50D of the mediation server 4 receives the final agent candidate information, the download permission unit 50D performs a process for permitting the work agent corresponding to the final agent candidate information to download the work map to be entrusted (step S11). ..
Specifically, for example, the download permission unit 50D stores, in the storage unit 54, a work agent who permits download for each work map file name included in the work map file group 54A. Stores a download permission table that has a personal storage area. Then, in step S9, the mediation server 4 stores information for identifying the final agent candidate in the agent storage area corresponding to the consignment target work map in the download permission table.

After that, when the work agent corresponding to the final agent candidate logs in to the mediation server 4 via the agent terminal 3, the mediation server 4 will eventually be the work agent based on the download permission table. Determine if you are allowed to download the work map. In this case, the mediation server 4 can recognize that the work agent is permitted to download the consignment target work map, and therefore can input a download command for downloading the consignment target work map. Is provided to the agent terminal 3. When the work agent inputs a download command on this screen, the work map to be entrusted from the mediation server 4 is downloaded from the mediation server 4 to the agent terminal 3.

When the work agent downloads the work map to be outsourced from the placement server 4, the work agent inputs the work map to be outsourced to the traveling machine control unit 10 of the work machine 5 and stores it in the memory 10A. When performing the work, the traveling machine control unit 10 of the work machine 5 performs the work using the consignment target work map stored in the memory 10A.
Specifically, the traveling machine control unit 10 acquires work setting information (target fertilizer application amount) corresponding to the position information calculated by the position information calculation unit 12 from the consignment target work map stored in the memory 10A. , Is given to the working machine control unit 20. The work machine control unit 20 controls the work actuator 21 by using the work control information given by the traveling machine control unit 10. In this example, this controls the amount of fertilizer applied per unit area to the mesh to be worked so as to be the target amount of fertilizer applied to the mesh in the work map.

In the above-described embodiment, when the user wants to search for a work agent who acts on behalf of a certain work, it becomes possible to easily search for a work agent suitable for the work.
Further, in the above-described embodiment, the work agent selected by the user can directly download the outsourced work map from the mediation server 4. As a result, the labor required to provide the consignment target work map to the work agent can be reduced as compared with the case where the user downloads the consignment target work map from the mediation server 4 and provides it to the work agent.

Although the embodiments of the present invention have been described above, the present invention can also be implemented in other embodiments.
For example, in the above-described embodiment, when the mediation server 4 receives the final agent candidate information indicating the final agent candidate, the mediation server 4 downloads the work map to be entrusted to the work agent corresponding to the final agent candidate information. A process for permitting is being performed (see step S11). However, the mediation server 4 may, in place of or in addition to this, transmit the commissioned work map to the work machine 5 used by the final agent candidate. In this way, the work agent who is the final agent candidate does not have to download the consignment target work map from the placement server 4 and input it to the work machine 5. Therefore, the consignment target work map is input to the work machine. It is possible to reduce the labor of the work agent for providing to 5.

Further, the attribute information of the work map stored in the map attribute table 54B may include, as the attribute information, an allowable work cost for the work to which the work map should be used.
Further, the information stored in the agent information table 54C may include the available work day information regarding the available work days as the work condition.

Further, in the above-described embodiment, the case where the work performed using the work map is a basal fertilizer spraying work, a side row fertilizer application work, and a top dressing work has been described. However, the work performed using the work map may be work other than fertilization work such as pesticide spraying work and sowing work.
The work map used for the pesticide spraying work is a pesticide spraying amount map consisting of the target pesticide spraying amount for each mesh. The work map used for the sowing work is a sowing amount map consisting of a target sowing amount for each mesh.

In addition, various changes can be made within the scope of claims.

1 Work agent placement system 2 User terminal 3 Agent terminal 4 Work agent placement server 5 Work machine 6 Traveling machine 7 Work machine 8 Network 9 Positioning satellite (GNSS satellite)
50 Control unit 50A Memory 50B 1st screen providing unit 50C 2nd screen providing unit 50D Download permission unit 51 Communication unit 52 Operation display unit 53 Operation unit 54 Storage unit 54A Work map file group 54B Work map table 54C Work agent information table

Claims (6)

A first storage unit that stores a plurality of work maps in which each work map is composed of work setting information for each small area in the field and attribute information of each work map.
A second storage unit that stores a plurality of work agents and the work conditions of each of the work agents,
Among the plurality of work maps, the first screen providing unit that provides the user with a map selection screen for allowing the user to select the work map used for the work to be entrusted as the entrusted work map.
Based on the attribute information of the outsourced work map selected by the user and the work conditions of each of the work agents, the outsourced work map acts on behalf of one or more work agents suitable for the work to be used. A second screen providing unit that provides the user with a substitute selection screen for selecting as a candidate and causing the user to select one desired substitute candidate from the selected substitute candidates as the final substitute candidate. When,
A work agent placement server including a download permission unit that performs a process for permitting the download of the commissioned work map for the final agent candidate. The attribute information of the work map includes the scheduled work period, which is the period during which the work map should be used, the field position information indicating the position of the field where the work map should be used, and the work for which the work map should be used. The work agent placement server according to claim 1, wherein the work identification information for identification and the work agent containing at least one of the work costs that the work map can tolerate for the work to be used. The work agent placement server according to claim 1, wherein the work condition of the work agent includes at least one of a available area, a possible work, a possible work day, and a work cost. The map selection screen includes a list in which information about the work map is displayed for each work map available to the user.
The work agent placement server according to claim 1, wherein the information regarding the work map includes information representing a field in which the work map should be used and information representing the work in which the work map should be used. The substitute selection screen includes a list in which information about the substitute candidate is displayed for each of the selected substitute candidates.
The work agent placement according to claim 1 or 4, wherein the information regarding the agent candidate includes information representing the agent candidate, contact information of the agent candidate, and work cost of the agent candidate. server. Any one of claims 1 to 5 is executed for the work vehicle designated by the agent candidate to download the commissioned work map to the agent candidate selected from the agent selection screen. The work agent placement server described in the section.

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