JP6318068B2 - Remote server - Google Patents

Description

The present invention relates to a remote server that receives predetermined稼dynamic information from the working machine.

Remote server that receives the predetermined稼dynamic information from the working machine is conventionally known (for example, see Patent Document 1).

  On the other hand, Patent Document 2 proposes a system for determining work contents based on weather prediction for each field. Specifically, Patent Literature 2 should be performed in a predetermined field from the prediction of the weather for each field, the prediction of the growth state of the crop for each field, information on the soil in the field, and the history of the work performed in each field. A work decision support apparatus for deciding a work plan is disclosed.

Japanese Unexamined Patent Publication No. 2013-117853 Japanese Patent No. 4058544

However, Patent Document 2, at a remote server that receives predetermined稼dynamic information from the working machine, a standard relating to the growth of map information and crops including a working area of the working machine in the information (specifically involved in development of the crop The structure which displays weather information in conjunction with a simple growth management model) is not disclosed.

Accordingly, the present invention provides a remote server that receives predetermined稼dynamic information from the working machine, the information (specifically involved in growing crops standard on Plant Growth of map information and crops including a working area of the working machine The purpose is to present a configuration that can display weather information in conjunction with a growth management model.

  In order to solve the above-described problems, the present invention provides the following remote server according to the first aspect and the second aspect.

(1) from a remote server working machine of the first embodiment, the position information indicating the position of the working machine, date and time information indicating the date and time, and, receiving a predetermined稼dynamic information predetermined with unique identification information of the working machine A remote server that extracts map information including a work area of the work machine based on position information indicating a position of the work machine, and extracts weather information corresponding to the area including the work area from weather information. A configuration in which the area of the map information including the work area and the weather information corresponding to the area of the map information including the work area are displayed on a device including an external device in a state where the area is stored in a predetermined display area; The meteorological information includes temperature, precipitation, and sunshine hours, and a period for displaying the meteorological information can be input. The meteorological information can be input in the inputted period. A graph relating to temperature, a graph relating to the precipitation, and a graph relating to the sunshine duration are displayed in a switchable manner, and the integrated temperature difference and precipitation are integrated by integrating the temperature difference between the reference reference temperature and the temperature. the accumulated rainfall, and, a remote server, wherein Rukoto to display information, including integrated daylight hours obtained by integrating the daylight hours in a state of matches in the display area.

(2) from a remote server working machine of the second aspect, the position information indicating the position of the working machine, date and time information indicating the date and time, and, receiving a predetermined稼dynamic information predetermined with unique identification information of the working machine A remote server that extracts map information including a work area of the work machine based on position information indicating a position of the work machine, and extracts weather information corresponding to the area including the work area from weather information. A standard growth management model relating to the growth of the crop for a predetermined period corresponding to the area of the map information including the work area and the target crop, and the weather information corresponding to the area of the map information including the work area Generating a message for the growth management model based on the above, and displaying the extracted growth management model on a device including an external device with the generated message added thereto A remote server characterized by that.

According to the present invention, the remote server receiving predetermined稼dynamic information from the working machine, the standard growth on Plant Growth of map information and crops including a working area of the working machine in the information (specifically involved in development of the crop The weather information can be displayed in conjunction with the management model, thereby improving the convenience of the user using the remote server.

It is a schematic block diagram which shows typically an example of the communication structure which does not go through an access point in the remote monitoring system which monitors agricultural machinery remotely. It is a schematic block diagram which shows typically an example of the communication structure via an access point in the remote monitoring system which monitors agricultural machines remotely. It is a block diagram which shows schematic structure of the agricultural machine provided with the remote monitoring terminal device. It is a block diagram which shows schematic structure of the remote monitoring terminal device in an agricultural machine. It is a block diagram which shows schematic structure of the remote server in a remote monitoring system. It is a schematic diagram which shows the data structure of an example of the map information database which linked | related and saved map file data with the positional information. It is a conceptual diagram which shows notionally the data structure of the mesh data in a weather information database. It is explanatory drawing for demonstrating an example of the display area displayed in the state which put together the area containing a work area, and the weather information corresponding to the area containing a work area in the predetermined display area, FIG. It is explanatory drawing for demonstrating an example of the display area displayed in the state which put together the area containing a work area, and the weather information corresponding to the area containing a work area in the predetermined display area, FIG. It is explanatory drawing for demonstrating an example of the display area displayed in the state which put together the area containing a work area, and the weather information corresponding to the area containing a work area, and stored in the predetermined display area. FIG. It is explanatory drawing for demonstrating an example of the display area displayed in the state which put together the area containing a work area, and the weather information corresponding to the area containing a work area in the predetermined display area, FIG. It is a flowchart which shows an example of control operation by the remote server which concerns on 1st Embodiment. The extracted growth management model, while adding the generated message is an explanatory diagram for explaining an example of a table Shimesuru display area. It is a flowchart which shows an example of control operation by the remote server which concerns on 2nd Embodiment. It is a schematic diagram which shows the data structure of an example of the contact information database which linked | related and stored the contact information of an operator, and the contact information of an owner with machine identification information.

  DESCRIPTION OF THE PREFERRED EMBODIMENTS Embodiments of the present invention will be described below with reference to the accompanying drawings, taking an example of an agricultural machine such as a combine, a tiller or a rice transplanter as a working machine.

[Overall configuration of remote monitoring system]
FIG. 1 is a schematic configuration diagram schematically illustrating an example of a communication configuration without using an access point in a remote monitoring system 100 that remotely monitors agricultural machines 110. FIG. 2 is a schematic configuration diagram schematically illustrating an example of a communication configuration via an access point in the remote monitoring system 100 that remotely monitors the agricultural machines 110. FIG. 3 is a block diagram illustrating a schematic configuration of the agricultural machine 110 including the remote monitoring terminal device 200. FIG. 4 is a block diagram showing a schematic configuration of the remote monitoring terminal device 200 in the agricultural machine 110.

  As shown in FIG. 1 and FIG. 2, the remote monitoring system 100 is provided with one or a plurality (here, a plurality) of agricultural machines (an example of a work machine) 110,. A monitoring terminal device 200 and a remote server 130 connected to the remote monitoring terminal device 200 via a communication network 140 are provided.

  The remote server 130 is disposed in the remote monitoring center 120 located far away from the agricultural machines 110,... And predetermined predetermined operation information (operation data) that is data relating to the operating state of the agricultural machines 110. It collects and accumulates. The remote server 130 is connected to a fixed terminal (specifically a client computer) 160 such as a personal computer via a network 150 such as a LAN (Local Area Network) or the Internet. Connected to a mobile terminal (specifically, a client computer) 170,... Such as a so-called smart phone) or a tablet mobile terminal, and the accumulated data is taken into the fixed terminal 160,. Thus, it is used by a user such as a user of the agricultural machine 110 or a dealer. The fixed terminal 160 and the portable terminal 170 include control units 161 and 171 and display units 162 and 172. The control units 161 and 171 display display information based on data transmitted from the remote server 130, various input screens on the display units 162 and 172, and receive necessary information input by the user. It is supposed to be.

  The remote monitoring terminal device 200 and the remote server 130 have communication units 210 and 131 (specifically, communication modules), respectively, and are connected to each other by the communication units 210 and 131 via the communication network 140. Information can be transmitted and received between the remote monitoring terminal device 200 and the remote server 130. As a result, the remote server 130 can remotely monitor the agricultural machines 110,... By the user at the remote monitoring center 120.

  The communication network 140 may be a wired communication network, a wireless communication network, or a combination of a wired communication network and a wireless communication network.

  As a communication configuration in which the remote server 130 and the remote monitoring terminal device 200 communicate with each other, a communication configuration not via an access point (see FIG. 1) and a communication configuration via an access point (in this example, the portable terminal 170) ( (See FIG. 2).

  In the communication configuration shown in FIG. 1 without an access point, the communication network 140 is typically a public line network provided by a telecommunications carrier, and communicates between terminals such as fixed telephones and mobile phones. Public network can be mentioned.

  In the communication configuration shown in FIG. 2 via the access point (in this example, the portable terminal 170), the communication network 140 can typically be the Internet via a public network. In this case, the communication unit 210 in the remote monitoring terminal device 200 uses a wireless LAN communication of IEEE 802.11 standard represented by the WiFi (registered trademark) standard for the portable terminal 170 that can access the Internet via an access point. Communication via the short-range wireless communication (so-called communication using the tethering function of the portable terminal 170) can be performed.

  As shown in FIG. 3, the agricultural machine 110,... Includes one or a plurality (here, a plurality) of working units 111,. Here, as the working units 111,..., For example, when the agricultural machine is a combine, a traveling working unit, a mowing working unit, a threshing working unit, and the like can be given.

  Each working unit 111,... Is provided with an electronic control device (specifically, a controller) 113,. The electronic control devices 113,... Command various actuators (not shown), and appropriately control the operating states of the working units 111,. Each of the electronic control devices 113,... Is configured to transfer data to each other based on a CAN (Controller Area Network) standard.

  Specifically, each electronic control unit 113,... Goes to each work unit 111,... Based on detection value information (signals) detected by various sensors in each work unit 111,. The operation state is controlled. Moreover, each electronic control unit 113,... Appropriately determines whether or not an abnormality such as a failure or malfunction of the agricultural machine 110 has occurred, and if an abnormality occurs, responds to the abnormality. Error information (specifically, an error code) is generated.

  Of the working units 111,..., A working unit (running working unit 111a) that operates the engine 112 monitors the engine 112, the rotational speed of the engine 112, a load state, and the like, and determines an optimal injection pressure and injection timing to the fuel system. Is provided with an electronic control unit 113 (engine controller 113a) for controlling the entire engine, a generator 114, and a start switch SW, and a battery BT is mounted. The electronic control unit 113 (engine controller 113a) performs operation start / pause operation and operation state control by driving the engine 112 in addition to operation control of the working unit 111 (traveling work unit 111a). It has become.

  In addition, in the operating state of the engine 112 of the working unit 111 (the traveling working unit 111a), the battery BT is appropriately charged by the electric power supplied from the generator 114.

  The activation switch SW provided in the working unit 111 (the traveling working unit 111a) is a changeover switch that selectively switches between a power-on state and a power-off state. Here, the power-on state is a state in which power is supplied from the battery BT to the control unit 240 (see FIG. 4) and the electronic control unit 113 (engine controller 113a) in the remote monitoring terminal device 200. The power-off state is a state in which power supply from the battery BT to the control unit 240 and the electronic control device 113 (engine controller 113a) in the remote monitoring terminal device 200 is cut off.

  Specifically, the battery BT is connected to both the power connection line L1 connected to the control unit 240 and the power connection line L2 connected to the electronic control device 113 (engine controller 113a) via the start switch SW. Connected.

  In this example, the activation switch SW is a so-called key switch, and the “ON” terminal is a connection terminal of the power supply connection lines L1 and L2. The “OFF” terminal is a terminal when the start switch SW is in an OFF state.

  Regardless of whether the start switch SW is on or off, the battery BT and the power control unit 220 (see FIG. 4) in the remote monitoring terminal device 200 are connected via the power connection line L3.

[Remote monitoring terminal]
As shown in FIG. 4, the remote monitoring terminal device 200 supplies power to the communication unit 210, a control unit 240 that performs transmission / reception of data during communication, various input / output controls, and control of arithmetic processing, and the control unit 240. Power supply control unit 220 and a plurality of connection terminals T,... To which operation information regarding the operation state of the agricultural machine 110 is input.

(Communication Department)
The communication unit 210 can communicate with the same communication protocol (communication protocol) as the communication unit 131 of the remote server 130 in the remote monitoring center 120 (see FIGS. 1 and 2). Data transmitted / received during communication is converted by the communication unit 210 so as to follow the communication protocol. Then, the communication unit 210 transmits the operation information of the agricultural machine 110 acquired by the control unit 240 to the remote server 130.

(Power control unit)
The power control unit 220 is connected to the battery BT regardless of whether the start switch SW is off or on. Specifically, an input side power line (not shown) of the power controller 220 and the battery BT are connected by a power connection line L3. As a result, the power controller 220 is constantly supplied with power from the battery BT.

  Further, a power supply line (not shown) of the control unit 240 and an output side power supply line (not shown) of the power supply control unit 220 are connected by a power supply connection line L4.

(Position detector)
In the present embodiment, the remote monitoring terminal device 200 performs positioning using a GNSS (Global Navigation Satellite System). In this example, the remote monitoring terminal device 200 includes a GPS sensor (an example of a position sensor) 231 that receives radio waves from a GPS (Global Positioning System) satellite, and the agricultural machine 110 based on the radio waves received by the GPS sensor 231. It further includes a position detection unit 232 that detects position information and the like, and an information storage unit 233 that temporarily stores various data such as position information detected by the position detection unit 232.

  The GPS sensor 231 receives radio waves (information including the world standard date and time) from GPS satellites. Here, the global standard date and time means Coordinated Universal Time (UTC).

  The position detection unit 232 can detect speed information of the agricultural machine 110 and direction information of the agricultural machine 110 in addition to information on the current location where the agricultural machine 110 is located. That is, the position information includes information on the latitude, longitude, speed, and direction of the agricultural machine 110.

  Specifically, the position detection unit 232 constitutes a GPS satellite system (positioning system) together with the GPS sensor 231 and the GPS satellite.

  The information storage unit 233 includes a non-volatile memory such as a flash memory. The information storage unit 233 is connected to the power supply control unit 220 and is always supplied with power from the battery BT.

(Control part)
The control unit 240 includes a processing unit 250 including a microcomputer such as a CPU (Central Processing Unit), a non-volatile memory such as a ROM (Read Only Memory), and a volatile memory such as a RAM (Random Access Memory). And a time acquisition timer 270 having a clock function for obtaining date and time information of the remote monitoring terminal device 200.

  The control unit 240 controls the operation of various components by causing the processing unit 250 to load and execute a control program stored in advance in the ROM of the storage unit 260 on the RAM of the storage unit 260. .

  The control unit 240 includes an operation information transmission control unit 241 that transmits operation information to the remote server 130.

  The operation information transmission control unit 241 of the remote monitoring terminal device 200 acquires the operation information on the operation state of the agricultural machine 110 input via the connection terminals T,... It is configured to obtain and store the information in the information storage unit 233 at a predetermined cycle (standard year, year, month, day, hour, minute, second).

  Further, the operation information transmission control unit 241 transmits the operation information stored at every predetermined cycle to the remote server 130 (see FIGS. 1 and 2).

  When an input operation for transmitting position information and date / time information is performed while the agricultural machine 110 is in operation, the control unit 240 detects position information (specifically, longitude and latitude) and date / time information (specifically, a global standard). Of year, month, year, month, day, hour, minute, second) is acquired and stored in the information storage unit 233. The position information transmission control unit 242 is further provided.

  The information storage unit 233 stores position information (latitude, longitude) and date and time (specifically, the world standard year, month, day, hour, minute, second) of the agricultural machine 110 in operation.

[About remote server]
FIG. 5 is a block diagram showing a schematic configuration of the remote server 130 in the remote monitoring system 100.

  As shown in FIG. 5, the remote server 130 provided in the remote monitoring center 120 includes a communication unit 131, a control unit 132 that performs transmission / reception of data during communication, various input / output controls, and arithmetic processing control, A display unit 133 that displays the first display control data 135a and the second display control data 135b created by the unit 132. The first display control data 135a and the second display control data 135b are stored in the storage unit 135.

(Communication Department)
The communication unit 131 is communicable with the same communication protocol (communication protocol) as the communication unit 210 (see FIGS. 1 to 4) of the remote monitoring terminal device 200. Data transmitted and received at the time of communication is converted by the communication unit 131 so as to comply with the communication protocol. The communication unit 131 receives the operation data described above.

(Control part)
The control unit 132 can rewrite a processing unit 134 composed of a microcomputer such as a CPU (Central Processing Unit), a volatile memory such as a ROM (Read Only Memory) and a RAM (Random Access Memory), a hard disk device, and a flash memory. And a storage unit 135 including a non-volatile memory.

  The control unit 132 controls the operation of various components by causing the processing unit 134 to load and execute a control program stored in advance in the ROM of the storage unit 135 on the RAM of the storage unit 135. .

  And the control part 132 is the 1st crop cultivation information display control part 136 which acts as a crop cultivation information display function of 1st Embodiment, and the 2nd crop cultivation information display which acts as a crop cultivation information display function of 2nd Embodiment. And a control unit 137.

(Crop cultivation information display function of the first embodiment)
In the first embodiment, the first crop growing information display control unit 136 in the control unit 132 includes first reception control means P11, map information extraction means P12, weather information extraction means P13, and first display control means P14. Has been.

-First reception control means-
The first reception control unit P11 receives position information of the agricultural machine 110 from at least one of the remote monitoring terminal device 200, the fixed terminal 160, and the mobile terminal 170.

  Specifically, the remote monitoring terminal device 200 transmits the current position information of the agricultural machine 110 by the GPS sensor 231 and the position detection unit 232 to the remote server 130. The fixed terminal 160 and the portable terminal 170 accept any point of the agricultural machine 110 (specifically, a desired address, latitude and longitude specified by the operator or owner, or a plurality of points on the map), The received point is transmitted to the remote server 130. That is, an operator or owner of the agricultural machine 110 can easily specify a point while driving the agricultural machine 110 or managing the farm field on foot or by vehicle. Here, as a point designated by the operator or owner of the agricultural machine 110, a point where weather information should be displayed, a point where poor growth or abnormal growth is observed, a dangerous point such as a steep slope, or a super wet field It is possible to exemplify a point having an attribute such as a difficult point of work such as a muddy state in the country.

-Map information extraction means-
The map information extraction means P12 extracts map information including the work area of the agricultural machine 110 based on the position information received by the first reception control means P11 from separately read map information.

  Specifically, the map information extraction means P12 is the current position information of the agricultural machine 110 received from the remote monitoring terminal device 200 by the first reception control means P11, or the fixed terminal 160 or the first reception control means P11. Map information including the work area of the agricultural machine 110 is extracted from the position information of an arbitrary point of the agricultural machine 110 received from the portable terminal 170.

  In FIG. 5, constituent elements that are not described among constituent elements with reference numerals will be described later.

  FIG. 6 shows map file data MD (1) to MD (n) in position information LD (1) to LD (n) (n is an integer of 2 or more corresponding to the number of sections obtained by dividing the map information into a plurality of sections). It is a schematic diagram which shows the data structure of an example of map information database DBM preserve | saved and linked | related.

  As shown in FIG. 6, the map information extracting means P12 uses the map information database DBM stored in advance in the storage unit 135 or existing on the Internet to obtain position information LD (i) (i is an integer from 1 to n). ) To extract the map file data MD (i). Here, as the position information LD (i), a plurality of predetermined predetermined latitude ranges ND (1) to ND (n) and a plurality of predetermined predetermined longitude ranges ED (1) to ED (n). It can be illustrated. A plurality of latitude ranges ND (1) to ND (n) and a plurality of longitude ranges ED (1) to ED (n) respectively correspond to a plurality of mesh numbers NE (1) to NE (n) described later. ing.

  The map file data MD (1) to MD (n) can be extracted using the position information LD (1) to LD (n). For example, the latitude range ND (1) to ND (n) and the longitude range The map file data MD (i) can be specified by ED (1) to ED (n).

  In the map information database DBM, map file data MD (1) to MD (n) includes position information LD (1) to LD (n) (for example, latitude ranges ND (1) to ND (n) and longitude ranges ED (1). ) To ED (n)) and stored in advance. The control unit 132 can specify the map file data MD (i) by referring to the map information database DBM from the position information LD (i).

  Thus, the map information including the work area of the agricultural machine 110 uses the map file data MD (1) to MD (n) set (stored) in association with the position information LD (1) to LD (n). Can be extracted. Specifically, the map information extraction unit P12 receives the latitude range ND (i) and longitude range ED (i) of the current position information LD (i) of the agricultural machine 110 received from the remote monitoring terminal device 200, or is fixed. From the latitude range ND (i) and the longitude range ED (i) of the position information LD (i) at any point of the agricultural machine 110 received from the terminal 160 or the portable terminal 170, or stored in advance in the storage unit 135 Map information including the work area of the agricultural machine 110 can be obtained from the map file data MD (i) acquired in the map information database DBM existing on the Internet.

-Meteorological information extraction means-
The weather information extraction means P13 extracts weather information corresponding to the area including the work area from the separately read weather information.

  Specifically, the weather information extraction means P13 uses the weather information database DBW (see FIG. 5) stored in advance in the storage unit 135 or existing on the Internet to display the weather information from the date and time information, the longitude range, and the latitude range. The mesh (regional section) data (for example, the third mesh: about 1 km section data = 1 km mesh data) is extracted (information including temperature, precipitation, and sunshine time in this example). Here, examples of the temperature include an average temperature, a maximum temperature, and a minimum temperature for each predetermined period (for example, yearly, monthly, daily). Examples of precipitation include accumulated precipitation obtained by integrating precipitation for every predetermined period (for example, yearly, monthly, daily), deepest snow, and average snow. In addition, as the sunshine hours, the amount of direct solar radiation measured from only the solar photosphere in the whole sky, the amount of solar radiation scattered from the whole sky other than the solar photosphere The total solar radiation amount obtained by measuring the solar radiation amount from the whole sky can be exemplified. Such weather information can determine the nearest mesh data from a designated point (point) by latitude and longitude. The temperature, precipitation amount, and sunshine duration can be obtained using, for example, “Regional Meteorological Observation System” which is an unmanned observation facility of the Japan Meteorological Agency, commonly called AMeDAS (Automated Meteorological Data Acquisition System).

  FIG. 7 is a conceptual diagram conceptually showing the data structure of mesh data in the weather information database DBW.

  As shown in FIG. 7, the meteorological information database DBW is assigned a plurality of mesh numbers NE (1) to NE (n) corresponding to a plurality of areas obtained by dividing the area into a grid. In the example shown in FIG. 7, for example, “6441” is assigned as the mesh number of the primary mesh in the vicinity of Yubari-gun, Hokkaido, in the part surrounded by □. Here, the two numbers “64” on the left side mean the numbers on the left vertical axis of the primary mesh shown in FIG. 7, and the two numbers “41” on the right side are the lower horizontal axes of the primary mesh shown in FIG. Means the number. Further, “644145” is assigned as the mesh number of the secondary mesh. Here, the second number “4” from the right means the left vertical axis of the secondary mesh shown in FIG. 7, and the rightmost number “5” is the lower horizontal axis of the secondary mesh shown in FIG. Means the number. Further, “64441445” is assigned as the mesh number NE (i) of the tertiary mesh. Here, the second number “4” from the right means the number on the left vertical axis of the tertiary mesh shown in FIG. 7, and the number “5” on the right end is the lower horizontal axis of the tertiary mesh shown in FIG. Means the number. In the primary mesh, the secondary mesh, and the tertiary mesh shown in FIG. 7, the right vertical axis represents latitude and the upper horizontal axis represents longitude.

  In the weather information database DBW, weather data WD (1,1) to WD (n, m) (m is a period) corresponding to each of a plurality of mesh numbers NE (1) to NE (n), respectively. As an integer of 2 or more corresponding to the number, for example, weather information including temperature, precipitation, and sunshine duration for each predetermined period (for example, yearly, monthly, daily) is stored.

  As shown in FIG. 7, the weather information extracting means P13 extracts weather data WD (i, j) (j is an integer from 1 to m) for each predetermined period based on the mesh number NE (i).

  Meteorological data (1,1) to WD (n, m) can be extracted using mesh numbers NE (1) to NE (n), and predetermined by mesh numbers NE (1) to NE (n). Weather information including temperature, precipitation, and sunshine hours for each period (for example, yearly, monthly, daily) can be specified.

  In the weather information database DBW, weather data WD (1, 1) to WD (n, m) for each predetermined period is stored in advance in association with the mesh numbers NE (1) to NE (n). The control unit 132 can identify the weather data WD (i, j) for each predetermined period by referring to the weather information database DBW from the mesh number NE (i).

  Thus, weather information including temperature, precipitation, and sunshine duration for each predetermined period is meteorological data WD (1, 1) set (stored) in association with mesh numbers NE (1) to NE (n). ~ WD (n, m) can be used for extraction. Specifically, the meteorological information extraction means P13 uses the meteorological data WD (i, j) acquired from the mesh number NE (i) in the weather information database DBW stored in advance in the storage unit 135 or existing on the Internet. Thus, weather information including temperature, precipitation, and sunshine duration for each predetermined period can be obtained.

-First display control means-
The first display control means P14 includes an area α (see FIGS. 8 to 11 described later) of the map information including the work area extracted by the map information extraction means P12, and the weather information extracted by the weather information extraction means P13. Are arranged in a predetermined display area G (see FIGS. 8 to 11 to be described later), and the display unit 133 (see FIG. 5) in the remote server 130 and the display unit 162 in the fixed terminal 160 (see FIGS. 1 and 2). ) And first display control data 135a (see FIG. 5) to be displayed on the display unit 172 (see FIGS. 1 and 2) in the portable terminal 170.

  Here, as the first display control data 135a, data created in a markup language for describing a display screen of a web page such as HTML: Hyper Text Markup Language (hypertext markup language) can be exemplified. In the remote server 130, the control unit 132 displays the first display control data 135 a stored in the storage unit 135 on the display unit 133. Further, in the fixed terminals 160,... And the mobile terminals 170,... Connected to the remote server 130, the control units 161, 171 acquire the first display control data 135a from the remote server 130 and acquire the acquired first. One display control data 135a is displayed on the display sections 162 and 172. The fixed terminals 160,... And the portable terminals 170,... Are logged in when the user performs an authentication operation such as inputting a personal identification number to the remote server 130.

  FIGS. 8 to 11 illustrate an example of the display area G that displays the area α including the work area and the weather information corresponding to the area α including the work area in a state where the area α is stored in the predetermined display area G. It is explanatory drawing and has each shown the 1st display area G1 to the 4th display area G4.

  The first display area G1 to the fourth display area G4 (first display screen to fourth display screen) shown in FIGS. 8 to 11 are areas of map information including the work area extracted by the map information extraction means P12. And a weather information display region g2 for displaying the weather information extracted by the weather information extracting means P13. The map information display area g1 and the weather information display area g2 are contained in one display area.

  In the map information display area g1, the area α is displayed as a map image. Specifically, the map information display area g1 is provided on the display area G on one side in the vertical direction (upper side in this example) and on one side on the left and right (right side in this example). In the map information display area g1, the area α is indicated by the position of the tip of the triangular arrow.

  The weather information display area g2 includes a graph display area g2a for displaying a graph of weather information corresponding to the area α displayed in the map information display area g1, and a weather information corresponding to the area α displayed in the map information display area g1. A data display area g2b for displaying the data, a period setting area g2c for setting a period of weather information corresponding to the area α displayed in the map information display area g1, and a selection operation corresponding to each of a plurality of types of weather information A plurality of tabs TB (1) to TB (p) provided in a possible manner are provided. In this example, p is 3, tab TB (1) is a tab for displaying temperature, tab TB (2) is a tab for displaying precipitation, and tab TB (3) is It is a tab for displaying sunshine hours.

  Specifically, the graph display area g2a is provided on one side in the vertical direction (upper side in this example) in the display area G and on the other left and right side (left side in this example).

  The graph display area g2a is configured to selectively display a graph relating to a plurality of types of weather information (in this example, temperature, precipitation, sunshine duration). The graph display area g2a is provided with a graph area g2ar for individually displaying graphs relating to a plurality of types of weather information.

  The data display area g2b is configured to selectively display data of multiple types of weather information (in this example, integrated temperature difference Ti, integrated precipitation Ri, integrated sunshine duration Si). The data display area g2b is provided with data areas g2br (1) to g2br (p) (p is an integer greater than or equal to 2, in this example, p = 3) for individually displaying a plurality of types of weather information data. . Specifically, the data area g2br (1) is an area for displaying the data of the accumulated temperature difference Ti together with the period of weather information, and the data area g2br (2) is the data of the accumulated precipitation Ri for the period of weather information. The data area g2br (3) is an area for displaying the accumulated sunshine duration Si data together with the weather information period. Here, the integrated temperature difference Ti is the average temperature Ta when the average temperature Ta (the daily average temperature in the example of FIG. 8 and the monthly average in the example of FIG. 11) is higher than the reference temperature Ts set in advance or input in advance. This is the temperature difference accumulated after subtracting the reference temperature Ts from the daily average temperature in the example of FIG. 8 and the monthly average in the example of FIG. Alternatively / further, the accumulated temperature difference Ti may be an accumulated temperature difference after subtracting the reference temperature Ts from the average temperature Ta when the average temperature Ta is lower than a preset or previously inputted reference temperature Ts. However, in this example, no integration is performed when the average temperature Ta is lower than a reference temperature Ts set in advance or inputted in advance. In the case where the reference temperature Ts is set in advance, the reference temperature Ts can be set in advance in units of months or a plurality of months (for example, seasonal units such as three months) when displaying in units of months. The accumulated precipitation Ri is a value obtained by integrating the precipitation, and the accumulated sunshine duration is a value obtained by integrating the sunshine duration.

  The data display area g2b is provided on the other side in the vertical direction in the display area G (in this example, the lower side). In this example, the reference temperature Ts is input in advance. For this reason, the data display area g2b is provided with an input area g2bs for receiving a key input of the reference temperature Ts. When the reference temperature Ts is set in advance, the input area g2bs is simply a display area.

  In the period setting area g2c, a period designation area g2cr for designating a period of weather information is provided so as to be selectively input, and an update button g2cs for updating the graph display and the data display for the period selected and inputted in the period designation area g2cr. Is provided so that a click operation (touch operation) is possible. Here, the period of the weather information is selected and input from the remote server 130, the fixed terminal 160 or the portable terminal 170.

  The period designation region g2cr and the update button g2cs are provided on one side (upper side in this example) of the graph region g2ar in the vertical direction. The period designation region g2cr and the update button g2cs are arranged side by side in the left-right direction. An update button g2cs is provided on one side (right side in this example), and a period designation region g2cr is provided on the other side (left side in this example). It has been. In the period designation area g2cr, the year and month are selected and input from the pull-down menu. Then, when the year and month are selected and input in the pull-down menu and the update button g2cs is clicked (touched), the graph display and data display area of the graph area g2ar in the period selected and input for the weather information The data display of g2b is updated.

  The tabs TB (1) to TB (3) are provided on one side (upper side in this example) of the graph region g2ar in the vertical direction. When the temperature display tab TB (1) is selected (clicked) (see the first display area G1 in FIG. 8 and the fourth display area G4 in FIG. 11), the period selected and input in the period designation area g2cr Is displayed in the graph area g2ar, and the integrated temperature difference Ti for the period selected and input in the period designation area g2cr is displayed in the data area. Displayed in g2br (1). When the tab TB (2) for precipitation display is selected (clicked) (see the second display area G2 in FIG. 9), a bar graph of precipitation for the period selected and input in the period designation area g2cr is displayed in the graph area. The accumulated precipitation Ri for the period selected and input in the period designation area g2cr is displayed in the data area g2br (2). When the tab TB (3) for displaying the sunshine time is selected (clicked) (see the third display area G3 in FIG. 10), a bar graph of the sunshine time for the period selected and input in the period designation area g2cr is displayed. The accumulated sunshine duration Si for the period selected and input in the period designation area g2cr is displayed in the data area g2br (3).

  In this example, as shown in FIGS. 8 to 10, when the year and month are specified in the period specifying region g2cr, a daily graph is displayed and data of the specified month is displayed. As shown in FIG. 11, when only the year is specified among the year and month in the period designation region g2cr, a graph of the specified month in the year is displayed. However, the present invention is not limited to this. Arbitrary periods of the start year, start month and start date and end year, end month and end date can be specified, and graphs and data for the specified period are displayed. It may be.

(Control operation of the remote server according to the first embodiment)
Next, a processing example of the control operation of the remote server 130 according to the first embodiment will be described below.

  FIG. 12 is a flowchart illustrating an example of a control operation by the remote server 130 according to the first embodiment.

  In the processing example shown in FIG. 12, the control unit 132 first receives position information of the agricultural machine 110 from at least one of the remote monitoring terminal device 200, the fixed terminal 160, and the portable terminal 170 (Step Sc1). Based on the position information, map information including the work area of the agricultural machine 110 is extracted from the map file data MD (1) to MD (n) of the map information database DBM (see FIG. 6) (step Sc2).

  Next, the control unit 132 extracts weather information corresponding to the region α including the work area from the weather data WD (1, 1) to WD (n, m) of the weather information database DBW (step Sc3).

  Next, when accessed from the remote server 130, the fixed terminal 160, or the portable terminal 170, the control unit 132 displays an input screen for selectively inputting a period of weather information corresponding to the region α on the display unit 133 in the remote server 130. The input screen display control data 135g to be displayed on the display unit 162 in the fixed terminal 160 and the display unit 172 in the portable terminal 170 is created (step Sc4). The input screen display control data 135g is stored in the storage unit 135.

  Thereby, the input screen display control data 135g created in step Sc4 is transmitted to the accessed device among the remote server 130, the fixed terminal 160, and the portable terminal 170, and the input screen display is performed in the transmitted device. A display screen based on the control data 135g is displayed.

  And the control part 132 receives the selection input of the period of the weather information corresponding to the area | region (alpha) (step Sc5), and the area | region (alpha) of the map information containing the work area extracted at step Sc2 with respect to the period received at step Sc5. And the display unit 133 in the remote server 130 and the display unit 162 in the fixed terminal 160 in a state where the weather information corresponding to the area α of the map information including the work area extracted in Step Sc3 is arranged in a predetermined display area G. And the 1st display control data 135a displayed on the display part 172 in the portable terminal 170 is produced (step Sc6).

  Accordingly, the first display control data 135a created in step Sc6 is transmitted to the accessed device among the remote server 130, the fixed terminal 160, and the portable terminal 170, and the first display is performed in the transmitted device. A display screen based on the control data 135a is displayed.

(Crop cultivation information display function of the second embodiment)
In 2nd Embodiment, the 2nd crop growth information display control part 137 (refer FIG. 5) in the control part 132 is the 2nd reception control means P21, the map information extraction means P22, the weather information extraction means P23, the growth management model extraction means. P24, message generation means P25, and second display control means P26 are provided.

-Second reception control means-
The second reception control unit P <b> 21 receives position information of the agricultural machine 110 from at least one of the remote monitoring terminal device 200, the fixed terminal device 160, and the mobile terminal device 170. Here, the second reception control means P21 is the same as the description of the first reception control means P11 of the first embodiment, and the description is omitted here.

-Map information extraction means-
The map information extraction means P22 extracts map information including the work area of the agricultural machine 110 based on the position information received by the second reception control means P21 from separately read map information. Here, the map information extraction means P22 is the same as the description of the map information extraction means P12 of the first embodiment, and the description is omitted here.

-Meteorological information extraction means-
The weather information extraction means P23 extracts the weather information corresponding to the area including the work area from the separately read weather information. Here, the weather information extraction means P23 is the same as the description of the weather information extraction means P13 of the first embodiment, and the description is omitted here.

-Growth management model extraction means-
Growth management model extracting means P24 is rice varieties Koshihikari, etc. The map information extracting means P 2 area map information including a work area extracted in 2 (e.g. Hokuriku) and varieties designated crop (e.g. crops, specifically ) Is extracted as a standard growth management model MO relating to the growth of crops in a predetermined period (for example, yearly) corresponding to Here, the growth management model MO is stored in advance in the storage unit 135 (see FIG. 5).

-Message generation means-
Message generating means P25 generates a message ME on growth management model MO on the basis of the weather information corresponding to the area of the map information including a work area extracted in the map information extracting means P 2 2. Details extracted, message generating means P25 is weather information corresponding to the area of the map information including a work area extracted in the map information extracting means P 2 2 (current weather information), in growth management model extracting means P24 Every time there is a deviation from the weather information (standard weather information) of the growth management model MO, a message ME corresponding to the deviation is generated.

-Second display control means-
The second display control means P26 includes the display unit 133 and the fixed terminal in the remote server 130 with the message ME generated by the message generation means P25 added to the growth management model MO extracted by the growth management model extraction means P24. The second display control data 135b to be displayed on the display unit 162 in 160 and the display unit 172 in the mobile terminal 170 is created. Here, the second display control data 135b is the same as the description of the first display control data 135a of the first embodiment, and the description thereof is omitted here.

13, the extracted grown management model MO, while adding the generated message ME is an explanatory diagram for explaining an example of a table Shimesuru display region G.

  The display area G (display screen) shown in FIG. 13 displays the growth management model display area g3 for displaying the growth management model MO extracted by the growth management model extraction means P24 and the message ME generated by the message generation means P25. Message display areas g4 to g4. The message display areas g4 to g4 are displayed in the vicinity of the related display contents in the growth management model display area g3. Specifically, the message display areas g4 to g4 are provided with arrows toward the related display contents. The growth management model display area g3 and the message display areas g4 to g4 are contained in one display area.

  In this example, the growth management model MO includes standard weather information such as standard average temperature β, precipitation γ, and sunshine duration δ relating to crop growth in a predetermined period (annual in this example). In addition, the growth management model MO is a standard water management (approximate water level), leaf color, number of stems, plant height, young panicle length, panicle number, culm length, grain in plowing, sowing, mid-drying and harvesting. Includes standard growth information such as weight.

  The message generating means P25 generates a message ME when the weather information corresponding to the area of the map information including the extracted work area is different from the extracted weather information of the growth management model MO. Specifically, the message generation means P25 determines that the average temperature of the weather information is higher or lower than the average temperature β of the growth management model MO, or / or the sunshine amount of the weather information is the sunshine of the growth management model MO. If the amount is larger or smaller than the amount, a message ME (messages ME1, ME3, ME4 in this example) is created to take the countermeasure. Further, when the average temperature of the weather information exceeds a predetermined temperature (26 ° C. to 27 ° C. in this example), the message generating means P25 generates a message ME (message ME2 in this example) notifying the harmful effect.

  Here, as shown in the example of FIG. 13, the message ME may be the message data itself, or indicates the location for referring to the message data in consideration of the information amount of the message data. Information (so-called hyperlink information, specifically, URL: Uniform Resource Locator) may be used. If the message ME is a URL, for example, clicking the URL opens a linked web page, and the message content is displayed on the opened web page.

(Control operation of remote server according to second embodiment)
Next, a processing example of the control operation of the remote server 130 according to the second embodiment will be described below.

  FIG. 14 is a flowchart illustrating an example of a control operation performed by the remote server 130 according to the second embodiment.

  In the processing example illustrated in FIG. 14, the control unit 132 first receives position information of the agricultural machine 110 from at least one of the remote monitoring terminal device 200, the fixed terminal 160, and the mobile terminal 170 (Step Sd1). Based on the obtained position information, map information including the work area of the agricultural machine 110 is extracted from the map file data MD (1) to MD (n) of the map information database DBM (see FIG. 6) (step Sd2).

  Next, the control unit 132 extracts weather information corresponding to the area including the work area from the weather data WD (1, 1) to WD (n, m) of the weather information database DBW (step Sd3).

  Next, when accessed from the remote server 130, the fixed terminal 160, or the mobile terminal 170, the control unit 132, the map information area (in this example, Hokuriku) including the work area extracted in step Sd2 and the target crop ( For example, a standard growth management model MO relating to the growth of a crop for a predetermined period (annual in this example) corresponding to a variety of crops (in this example, a rice variety such as Koshihikari) is extracted from the storage unit 135 (step Sd4). The target crop can be set in advance, or can be selected from an input screen (not shown) in the accessed device among the remote server 130, the fixed terminal 160, and the portable terminal 170. You can enter it.

  Next, the control unit 132 determines whether or not the weather information corresponding to the area of the map information including the work area extracted in step Sd2 is deviated from the weather information of the growth management model MO extracted in step Sd4. If it is determined (step Sd5) and it is determined that there is no deviation (step Sd5: No), the process proceeds to step Sd8, whereas if it is determined that there is a deviation (step Sd5: Yes), according to the deviation. Message ME is generated (step Sd6), and the process proceeds to step Sd7.

  Next, the control unit 132 adds the message ME generated in step Sd6 to the growth management model MO extracted in step Sd4, the display unit 133 in the remote server 130, the display unit 162 in the fixed terminal 160, and Second display control data 135b to be displayed on the display unit 172 in the portable terminal 170 is created (step Sd7).

  Accordingly, the second display control data 135b created in step Sd7 is transmitted to the accessed device among the remote server 130, the fixed terminal 160, and the portable terminal 170, and the second display is performed in the transmitted device. A display screen based on the control data 135b is displayed.

  Next, the control unit 132 repeats the processes of steps Sd5 to Sd8 until an instruction to end the process (step Sd8: No), and ends the processing operation when an instruction to end the process (step Sd8: Yes). .

(About message transmission control)
In the second embodiment, the control unit 132 determines the operator contact information DN and / or the owner contact information EN based on the machine identification information SD (in this example, the operator contact information DN and the owner contact information). The information ME is specified), and the message ME is specified every time the weather information corresponding to the area of the map information including the extracted work area is different from the extracted weather information of the growth management model MO. The information is transmitted to the contact information DN of the operator and the contact information EN of the owner.

  Specifically, the second crop growing information display control unit 137 (see FIG. 5) is configured to further include contact information specifying means P27 and message transmission control means P28.

-Contact identification method-
FIG. 15 is a schematic diagram showing a data structure of an example of a contact information database DBC stored in association with the machine identification information SD in association with the contact information DN of the operator and the contact information EN of the owner.

  As shown in FIG. 15, the contact information specifying means P27 uses the machine identification information SD to contact the operator contact information DN and / or the owner contact information EN (in this example, the operator contact information DN and the possession information). The contact information EN of the person).

  The contact information database DBC is stored in the storage unit 135 (see FIG. 5). In the contact information database DBC in the storage unit 135, the operator contact information DN and the owner contact information EN (specifically, the operator's email address and the owner's email address) are stored in the machine identification information SD ( In the example shown in FIG. 15, it is stored in advance in association with the terminal telephone number). The control unit 132 can recognize the contact information DN of the operator and the contact information EN of the owner by referring to the contact information database DBC in the storage unit 135 from the machine identification information SD.

  Thus, the operator contact information and the owner contact information can be specified using the operator contact information DN and the owner contact information EN set (stored) in association with the machine identification information SD. it can. Specifically, the contact information specifying means P27 uses the contact information DN of the operator and the contact information EN of the owner acquired from the machine identification information SD in the contact information database DBC and the contact information and owner of the operator. You can get contact information.

  In the present embodiment, the contact information specifying means P27 includes the operator contact information DN that matches the machine identification information SD in the contact information database DBC (see FIG. 15) in the storage unit 135 and the owner contact information EN. Is identified.

-Message transmission control means-
Growth message transmission control unit P28 is weather information corresponding to the area of the map information including a work area extracted in the map information extracting means P 2 2 (current weather information), extracted in growth management model extracting means P24 Whenever there is a deviation from the weather information (standard weather information) of the management model MO, the contact information of the operator who specified the message ME generated by the message generating means P25 by the contact information specifying means P27. Send to DN and owner contact information EN (in this example via email).

(About alert output control)
In the second embodiment, the control unit 132 sends a message every time the weather information corresponding to the area of the map information including the extracted work area is deviated from the weather information of the extracted growth management model MO. It has an alert function for notifying the agricultural machine 110 corresponding to the machine identification information SD that the ME has been created.

  Specifically, the second crop growing information display control unit 137 (see FIG. 5) is configured to further include alert output control means P29.

-Alert output control means-
Alert output control means P29 is weather information corresponding to the area of the map information including a work area extracted in the map information extracting means P 2 2 (current weather information), and extracted with growth management model extracting means P24 Growth Every time there is a deviation from the weather information (standard weather information) of the management model MO, the remote monitoring terminal device 200 in the agricultural machine 110 corresponding to the machine identification information SD is informed that the message ME has been created. . Here, the alert function may include an alert display and / or an alert notification. The alert display (specifically, the alert display displayed on the display unit not shown in the agricultural machine 110) is an alarm visually informing the operator (user) and the owner, and is a message display informed by text. Alternatively, it may be a simplified display informed by pictograms or figures. When the alert display is a simplified display, a message may be displayed by a predetermined input operation. In any case, examples of the alert display include lighting display and blinking display. The alert notification is an alarm that is audibly notified to the operator or the owner, and may be an alert sound that is notified by a melody sound, a buzzer sound, a chime sound, or an alert sound that is notified by voice. .

(About this embodiment)
As described above, according to the first embodiment, the map information including the work area of the agricultural machine 110 is extracted based on the position information, and the weather information corresponding to the area α of the map information including the work area from the weather information. Is extracted and the area α of the map information including the work area and the weather information corresponding to the area α of the map information including the work area are displayed side by side in a predetermined display area G. Weather information can be displayed in conjunction with information related to crop cultivation (specifically, map information including the work area of the agricultural machine 110), thereby improving the convenience of the user using the remote server 130. It becomes possible to improve. In addition, the weather information corresponding to the work area can be visually recognized at a glance, thereby making it possible to easily make a work plan for the agricultural machine 110 based on the weather information.

  In the first embodiment, meteorological information is displayed so as to be switchable between a graph relating to temperature during an input period, a graph relating to precipitation, and a graph relating to sunshine duration, and the integrated temperature difference Ti and integrated precipitation are displayed. Since the information including the amount Ri and the accumulated sunshine duration Si is displayed in the display area G, the weather information that is particularly relevant to the cultivation of crops such as temperature, precipitation, and sunshine duration can be seen at a glance. The work plan of the agricultural machine 110 can be easily drafted accordingly.

  According to the second embodiment, the map information including the work area of the agricultural machine 110 is extracted based on the position information, the weather information corresponding to the area of the map information including the work area is extracted from the weather information, and the work area is The growth management model MO for a predetermined period corresponding to the area of the map information including the target crop and the target crop is extracted, and the message ME for the growth management model MO is generated and extracted based on the weather information corresponding to the area of the map information including the work area. Since it is configured to display the generated growth management model MO with the generated message ME added, information relating to the cultivation of the crop (specifically, the standard growth management model MO relating to the growth of the crop) and The weather information can be displayed in conjunction with each other, thereby improving the convenience of the user who uses the remote server 130. In addition, the work plan based on the growth management model MO can be easily corrected based on the weather information.

  In the second embodiment, the standard of current weather information corresponding to the area of the map information including the work area (for example, weather information such as temperature, sunshine duration, and amount of solar radiation that has a particularly large influence on the growth of crops). By generating a message (for example, a growth prediction message) corresponding to the deviation from the deviation from the correct weather information, it is possible to perform more accurate guidance for the next process operation, notification of the appropriate harvest time, and yield prediction. Further, by sending the message (for example, sending an email) or outputting an alert, it is possible to assemble an optimal work without waste.

  By the way, it is meteorological information and soil analysis information that scientifically supports the observation information of crop growth failure and abnormal growth. For example, by mapping the yield and quality of each field, weather information, and soil analysis data, it is possible to create a mechanism for analyzing and judging what caused the growth failure or growth abnormality. .

  In this regard, in the first embodiment, the area α of the map information including the work area and the weather information corresponding to the area α of the map information including the work area are displayed side by side in a predetermined display area G. In addition, in the second embodiment, by displaying the growth management model MO with the message ME added, it is possible to perform higher-order analysis and analysis of weather information and soil analysis. It is possible to feed back the crop growth failure and growth abnormality observation information to the manure management after the following year.

  In the first embodiment and the second embodiment, from the viewpoint of “realizing safe farming”, the remote server 130 may generate a warning when the agricultural machine 110 approaches a registered point corresponding to the dangerous point information. An alert function (for example, an alert display function and / or an alert notification function) and a guidance function (for example, a message transmission function such as “Please reduce the speed because it is a wet field”) to notify the agricultural machine 110 corresponding to the machine identification information SD to avoid May have at least one of them. In this way, such information can be provided as information for Agricultural Production Process Management (GAP), and when an operator operates the agricultural machine 110 (especially a super wet field etc. In operation), it is possible to reduce the accident of the agricultural machine 110.

(About other embodiments)
Although the remote monitoring system 100 according to the present embodiment is applied to a traveling work machine such as a combine, a tiller, or a rice transplanter, the present invention is not limited thereto.

  The present invention is not limited to the embodiment described above, and can be implemented in various other forms. Therefore, such an embodiment is merely an example in all respects and should not be interpreted in a limited manner. The scope of the present invention is shown by the scope of claims, and is not restricted by the text of the specification. Further, all modifications and changes belonging to the equivalent scope of the claims are within the scope of the present invention.

DESCRIPTION OF SYMBOLS 100 Remote monitoring system 110 Agricultural machine 120 Remote monitoring center 130 Remote server 131 Communication part 132 Control part 133 Display part 134 Processing part 135 Storage part 135a 1st display control data 135b 2nd display control data 136 1st crop cultivation information display control part 137 Second crop growing information display control unit 140 Communication network 150 Network 160 Fixed terminal 161 Control unit 162 Display unit 170 Portable terminal 171 Control unit 172 Display unit 200 Remote monitoring terminal device 210 Communication unit 220 Power supply control unit 231 GPS sensor 232 Position detection unit 233 Information storage unit 240 Control unit 241 Operation information transmission control unit 242 Position information transmission control unit 250 Processing unit 260 Storage unit DBC Contact information database DBM Map information database DBW Weather information database DN Point information ED Longitude range EN Contact information G of owner Display area G1 First display area G2 Second display area G3 Third display area G4 Fourth display area LD Location information MD Map file data ME Message MO Growth management model ND Latitude Range NE Mesh number P11 First reception control means P12 Map information extraction means P13 Weather information extraction means P14 First display control means P21 Second reception control means P22 Map information extraction means P23 Weather information extraction means P24 Growth management model extraction means P25 Message Generation means P26 Second display control means P27 Contact information identification means P28 Message transmission control means P29 Alert output control means SD Machine identification information TB Tab Ta Average temperature Ti Integrated temperature difference Ts Reference temperature WD Weather data g1 Map information display area g2 Weather Information display area g2a graph Display area g2ar Graph area g2b Data display area g2br Data area g2bs Input area g2c Period setting area g2cr Period designation area g2cs Update button g3 Growth management model display area g4 Message display area α Area β Average temperature γ Precipitation δ Sunlight time

Claims (2)

From the working machine, the position information indicating the position of the working machine, date and time information indicating the date and time, and, a remote server that receives the predetermined稼dynamic information predetermined with unique identification information of the working machine,
The map information including the work area of the work machine is extracted based on the position information indicating the position of the work machine, the weather information corresponding to the area including the work area is extracted from the weather information, and the work area is included. The map information area and the weather information corresponding to the map information area including the work area are arranged to be displayed on a device including an external device in a state in which the weather information is stored in a predetermined display area .
The weather information includes temperature, precipitation and sunshine hours,
A period for displaying the weather information can be input,
The meteorological information is displayed so as to be switchable between a graph relating to the temperature in the inputted period, a graph relating to the precipitation, and a graph relating to the sunshine duration, and the reference reference temperature and temperature accumulated temperature difference by integrating the difference, accumulated rainfall was accumulated precipitation, and the remote server, wherein Rukoto to display information, including integrated daylight hours obtained by integrating the daylight hours in a state of matches in the display region . From the working machine, the position information indicating the position of the working machine, date and time information indicating the date and time, and, a remote server that receives the predetermined稼dynamic information predetermined with unique identification information of the working machine,
The map information including the work area of the work machine is extracted based on the position information indicating the position of the work machine, the weather information corresponding to the area including the work area is extracted from the weather information, and the work area is included. A standard growth management model relating to the growth of a crop for a predetermined period corresponding to the area of the map information and the target crop is extracted, and the growth management model is based on the weather information corresponding to the area of the map information including the work area. A remote server characterized in that a message is generated and displayed on a device including an external device in a state where the generated message is added to the extracted growth management model.