JP5973153B2 - Agricultural crop cultivation system - Google Patents

Description

  The present invention relates to a crop cultivation interlocking system that provides a crop cultivation simulation game linked to cultivation on an actual farm.

  2. Description of the Related Art Conventionally, a cultivation simulation game that can simulate the cultivation of crops on a computer has been provided, and participants of the game can enjoy the fun of crop cultivation.

  In addition, in Patent Documents 1 and 2 listed below, a simulation system that allows not only the cultivation simulation game to be experienced but also an actual crop harvest according to the game results after the cultivation simulation game ends. Is disclosed.

JP 2002-31421 A JP 2004-62849 A

  However, in the above-mentioned patent documents 1 and 2, the same crop that was cultivated in the cultivation simulation game, and only the crop of quality and quantity according to the results of the game is sent. Since it is not linked to crop cultivation, it is not realistic.

  Moreover, in the said patent documents 1 and 2, although it is necessary to send a predetermined amount of crops to a user who has good results in the simulation game, even in the actual crop cultivation, Yields are often greatly reduced by natural disasters such as typhoons and beasts. However, in the conventional simulation, even in such a case, a large number of predetermined agricultural products must be sent, so that the burden on the service provider is large.

  The present invention has been made in view of such a problem, and can be interlocked with the cultivation of an actual crop, and the crop cultivation interlocking system that can provide a highly realistic crop cultivation simulation game to the user. The purpose is to provide.

  In order to solve the above-mentioned problems, a crop cultivation interlocking system according to the present invention is a crop that includes a simulation server that provides a user who uses a user terminal with a crop cultivation simulation game linked to cultivation in a real farm field. In the cultivation interlocking system, the simulation server includes a cultivation situation recording unit that records a cultivation situation including a yield parameter that determines a yield of the virtual farm, regarding the virtual farm that is virtually cultivated on the cultivation simulation game, and the user terminal On the cultivation simulation game based on a user instruction via the automatic growth control unit that automatically grows the virtual crop while updating the cultivation state including the yield parameter, and is grown in the real field Real Upon receiving information that a disaster that reduces crop yield has occurred, a growth correction control unit that performs correction processing to forcibly reduce the yield parameter, and the real that is harvested according to the yield parameter A distribution amount determination unit that determines a distribution amount of the crop to the user.

  The crop cultivation interlocking program according to the present invention is a crop cultivation interlocking program for causing a computer to provide a crop cultivation simulation game that is interlocked with cultivation in a real field. With respect to a virtual crop that is virtually cultivated on the game, a cultivation status recording step for recording a cultivation status including a yield parameter that determines the yield of the virtual crop, and the cultivation status including the yield parameter on the cultivation simulation game When receiving information that an automatic growth step for automatically growing the virtual crop while updating and that a disaster has occurred that reduces the yield of the real crop cultivated in the real crop, the yield parameter is forcibly reduced. The A growth correction step for performing a correction process for determining the distribution amount, and a distribution amount determination step for determining a distribution amount of the harvested real crops to a user according to the yield parameter. To do.

  According to the crop cultivation interlocking system according to the present invention, it can be interlocked with the cultivation of actual crops, and a highly realistic crop cultivation simulation game can be provided to the user.

FIG. 1 is a schematic diagram schematically showing the configuration of a crop cultivation interlocking system according to an embodiment of the present invention. FIG. 2 is a schematic diagram schematically showing the configuration of the simulation server according to the embodiment of the present invention. FIG. 3 is a block diagram schematically showing functions of the simulation server according to the embodiment of the present invention. Drawing 4 is a mimetic diagram showing the cultivation division of the real farm field concerning the embodiment of the present invention. FIG. 5 is a flowchart showing a flow of cultivation interlocking processing by the crop cultivation interlocking system according to the embodiment of the present invention. FIG. 6 is a diagram illustrating a part of the cultivation status recorded in the cultivation status DB according to the embodiment of the present invention. FIG. 7 is a diagram illustrating a virtual farm displayed on the user terminal according to the embodiment of the present invention.

  Hereinafter, a crop cultivation interlocking system according to an embodiment of the present invention will be described in detail with reference to the drawings. In this embodiment, the virtual cultivation of the crop on the virtual cultivation simulation game provided by the crop cultivation interlocking system is linked to the real cultivation on the actual farm, and the user's instruction on the cultivation simulation game is provided. Based on this, the real crop is cultivated in the real farm in the actual farm, and the real crop harvested in the real farm is actually distributed to the game users.

  In the crop cultivation interlocking system according to the present embodiment, a process of interlocking the yield of the virtual crop on the cultivation simulation game so as to be as close as possible to the yield of the real crop.

  FIG. 1 is a schematic diagram schematically showing a configuration of a crop cultivation interlocking system according to the present embodiment. As shown in the figure, the crop cultivation interlocking system 1 includes a simulation server 10 for providing a virtual crop cultivation simulation game, a user terminal 20 used by a user who uses the cultivation simulation game service, and a real farm field. And a worker terminal 30 used by a worker engaged in farm work.

  The simulation server 10 and the user terminal 20 are connected by a network 5 such as the Internet or a dedicated line, and the worker terminal 30 is connected to the network 5 via a wireless base station 8. Therefore, data communication is possible among the simulation server 10, the user terminal 20, and the worker terminal 30.

  Next, the configuration of the simulation server 10 will be described with reference to FIGS. 2 and 3. FIG. 2 is a schematic diagram schematically illustrating the configuration of the simulation server according to the present embodiment, and FIG. 3 is a block diagram schematically illustrating the function of the simulation server according to the present embodiment.

  As shown in FIG. 2, the simulation server 10 includes a calculation device 11 such as a CPU that performs various calculations, a storage device including an HDD or flash memory that records various types of information, a RAM that functions as a work area for the calculation processing, 13. The simulation server 10 is a server installed by a cultivation simulation game provider.

  The storage device 13 records various information related to a user who is registered as a user of the cultivation simulation game, and a program storage unit 131 that stores various programs for executing predetermined processing described later in the simulation server 10. A user information DB 132 (database), a crop information DB 133 for recording various information about the crops grown in the cultivation simulation game, a content information DB 134 for recording information on the contents of the cultivation simulation game, and cultivation A cultivation situation DB 135 for recording the cultivation situation of the virtual crop on the simulation game.

  The program storage unit 131 stores various programs for providing a cultivation simulation game. As various programs, an automatic growth program for automatically growing various crops that the user has instructed to plant while referring to the crop information DB 133 on the cultivation simulation game, or virtual crop growth on the cultivation simulation game in a real field For example, a growth compulsory correction program for correcting manually to be linked to the growth of the image is included.

  The user information DB 132 records user information such as the ID, password, and address of each user registered in the cultivation simulation game. The crop information DB 133 records the name, description, initial number of units, minimum number of units, cropping period, growth phase information, disease information, insect damage information, etc., for each crop grown on the cultivation simulation game. .

  The content information DB 134 records various content information such as screen information constituting the cultivation simulation game. The cultivation situation DB 135 records the cultivation situation relating to the growth situation of the virtual crop produced by the user on the cultivation simulation game, and the cultivation situation includes the number of remaining units and the energy level of each unit which will be described later. It is. Details of the cultivation situation will be described later.

  As illustrated in FIG. 3, the simulation server 10 includes an automatic growth unit 51, a growth correction unit 52, and a distribution determination unit 55. The automatic growth unit 51 automatically grows a virtual crop grown on the cultivation simulation game according to a predetermined automatic growth algorithm. Such a function of the automatic growth unit 51 is realized by the arithmetic device 11 executing the automatic growth program stored in the program storage unit 131 while referring to the information of the crop information DB 133, and the growth result is Recorded in the cultivation status DB 135.

  The growth correction unit 52 compulsorily corrects the growth state of the virtual crop that is growing automatically based on an instruction from the worker via the worker terminal 30. Such a function of the growth correction unit 52 is realized by the arithmetic unit 11 executing the growth compulsory correction program stored in the program storage unit 131.

  The allocation determination unit 55 determines the allocation amount of the harvest of the real crops for the user who is cultivating the virtual crops based on the yield of the real crops received from the worker terminal 30. Such a function of the distribution determination unit 55 is realized by the calculation device 11 executing the distribution determination program stored in the program storage unit 131 based on the input information of the real yield to the worker terminal 30. .

  The user terminal 20 is a PC used by a user, and includes a computing device that performs various types of arithmetic processing, a storage device that stores various types of information and functions as a work area for arithmetic processing, and a display 23 that displays various types of information. It is equipped with. As the user terminal 20, not only a desktop PC but also various terminals such as a notebook PC, a mobile phone including a smartphone, a tablet computer, a PDA (personal digital assistant), a netbook, a game machine, and the like can be used. Is possible.

  The worker terminal 30 is a portable terminal used by a farm worker on a real farm, and various terminals such as a mobile phone including a smartphone, a tablet computer, and a PDA can be used. The operator terminal 30 is an arithmetic device that performs various arithmetic processes, a storage device that stores various information and functions as a work area for arithmetic processing, and an input device for an operator to input various information to the terminal. A keyboard 31, a camera 32 for taking pictures, and a display 33 for displaying various information.

  The worker at the real farm uses the operator terminal 30 to photograph the growth state of the real crop with the camera 32 and transmits it to the simulation server 10 or inputs information about the growth state of the real crop from the keyboard 31. Can be transmitted to the simulation server 10.

  As mentioned above, although the structure of the crop cultivation interlocking system 1 was demonstrated, the content of the cultivation simulation game interlock | cooperated with the real cultivation which this system 1 provides is demonstrated referring drawings. First, the cultivation method in the real farm field linked with virtual cultivation will be described. FIG. 4 is a schematic diagram showing the cultivation division of the real field according to the present embodiment.

  As shown in the figure, the real field is divided into blocks corresponding to the straw, and the type of the crop to be cultivated is set for each block, and the same crop is planted in the same block. In FIG. 4, lettuce is planted in block 1, komatsuna is built in block 2, and watermelon is planted in block 3.

  Each block is divided into a plurality of fields. In the cultivation simulation game, the user rents one section of the virtual field for virtual cultivation, and purchases seeds (seedlings) for one section of the virtual crop to cultivate the virtual crop.

  Corresponding to the section (virtual field) of the virtual field, each block is divided into a plurality of sections (real field) in the real field. When cropping is performed on a predetermined section (one virtual field) in the virtual field, the operator crops the same crop on one real field in conjunction with the cropping.

  In the field, units corresponding to crop stocks are set. In addition, an initial unit number given initially for each crop is set. For example, as shown in FIG. 4, the initial number of lettuce units is set to 5, the initial unit number of Komatsuna is set to 10, and the initial unit number of watermelon is set to 2. At the time of harvesting, the user is allocated the harvest according to the number of remaining units (yield parameter), which is the number of units surviving in the virtual field.

  Since the yield of crops in the real field varies depending on various factors such as seasons and disasters, in this embodiment, the virtual yield on the cultivation simulation game is adjusted to the real field by adjusting the number of remaining units in the virtual field on the game. We try to get as close as possible to the real yield at the market.

  Next, with reference to FIG. 5, a description will be given of the linkage between virtual cultivation in the cultivation simulation game and real cultivation on the real farm. FIG. 5 is a flowchart showing a flow of cultivation interlocking processing by the crop cultivation interlocking system according to the present embodiment. In addition, the various processes in the simulation server 10, the user terminal 20, and the worker terminal 30 are implement | achieved when the arithmetic unit of each apparatus runs a predetermined program.

  First, in S10, when a user who has been registered in the cultivation simulation game purchases seeds (seedlings) of a desired crop through the user terminal 20 and instructs planting, the instruction information is transmitted via the network 5 to the simulation server 10. (S11).

  Upon receiving the instruction, the simulation server 10 totals the cropping including instructions from other users and creates a list of cropping instructions in S12. This planting totalization may be executed, for example, once a day at 24:00. The aggregated cropping list information is transmitted to the worker terminal 30 via the network 5 after aggregation (S13). The next day, the worker can perform the planting work in the real field while viewing the list displayed on the worker terminal 30 in S14 (S15).

  In the present embodiment, the same work number is assigned to the field of the same crop planted on the same day, and thereafter, the field is managed for each work number on the real farm. That is, forcible growth correction and distribution at the time of harvest, which will be described later, are performed in units of work numbers.

  When the planting in S15 is completed, the worker inputs to the worker terminal 30 that the planting operation is completed in S16. The input planting completion information is transmitted to the simulation server 10 in S17.

  In S18, the simulation server 10 that has received the planting completion information updates the cultivation situation DB 135 and adds information about the planted crop. Here, the information recorded in the cultivation situation DB 135 will be described with reference to FIG. FIG. 6 is a diagram illustrating a part of the cultivation status recorded in the cultivation status DB 135.

  As shown in the figure, the cultivation status is recorded in units of units as described above, and each record includes “record No.”, “work number”, “user”, “crop”, “block”, “field”. ”,“ Unit ”,“ Life / Death ”and“ Energy ”are included. The “work number” is the above-described cultivation management unit on the real farm, and the same work number is assigned to units of the same crop grown on the same day.

  “User” is a user identifier (ID) of a user registered in the cultivation simulation game, and “agricultural crop” is an identifier representing a variety of a crop. “Block” is a block number in the field, “Field” is a field number in each block, and “Unit” is a unit number in each field. In the present embodiment, information on “work number”, “agricultural crops”, and “blocks” is managed as a common number for the virtual field and the real field.

  “Life / Death” is information indicating whether the farm products of each unit have survived or disappeared due to withering, etc., and “Energy” indicates the energy level of each unit's virtual crop in percentage [%]. Has been. In the present embodiment, the number of remaining units remaining at the time of harvesting and the energy level at the time of harvesting are yield parameters that determine the amount of the harvest distributed to users.

  Regarding the growth situation of the crop planted and recorded in the cultivation situation DB 135, the user accesses the simulation server 10 from the user terminal 20 (S20), so that the growth situation of the crop cultivated by the user is displayed together with the game content information. It is transmitted to the user terminal 20 and the state of the virtual farm is displayed on the display 23 (S23). Of course, the display of this virtual field can be performed at any timing after planting.

  FIG. 7 is a diagram illustrating a virtual field displayed on the user terminal according to the present embodiment, where FIG. 7A is a virtual field where mizuna is grown, and FIG. 7B is a cabbage grown. It shows the state of the virtual farm. As shown in the drawing, the number of remaining units of mizuna in FIG. 7 (a) is 23, and the number of remaining units of cabbage in FIG. 7 (b) is six.

  On the other hand, the planted virtual crop is automatically grown by the automatic growth unit 51 (S25), and the cultivation status in the cultivation status DB 135 is updated as appropriate. The automatic growth unit 51 has a function of adjusting the “life and death” and “energy level” of each unit. In addition, the automatic growth unit 51 grows the crops of each unit for each phase such as germination, growth 1, growth 2, growth 3, and waiting for harvesting, and uses the virtual crop images displayed on each unit of the virtual field as phases. It also has a function to change together.

  Regarding the adjustment of the “energy level”, when the user has neglected cultivation instructions such as watering, fertilizer application, weed removal, etc. on the cultivation simulation game, the automatic growth unit 51 determines the energy level of the corresponding unit. Decrease by a certain percentage every day (eg 3%).

  Further, the automatic growth unit 51 has a function of causing a predetermined harmful disease or pest to occur in the virtual crop at a predetermined time set for each variety. While the virtual crop is ill or has a bug on it, the energy is lowered at a predetermined rate every day. The user can stop the decrease in the energy level by giving a medicine for curing the disease or removing the insect on the game.

  Regarding the adjustment of “life and death”, at the time of planting, units of the initial number of units are given in one field. On the other hand, in the cultivation simulation game of the present embodiment, three cases are set as cases for annihilating a predetermined unit.

  The first case is a case where a predetermined unit disappears without germination depending on the germination rate at the time of planting. The setting of the germination rate can reduce the number of units at the germination stage by setting the germination rate to a low level when the yield is reduced for crops whose yield greatly depends on the season. Thereby, the yield in virtual cultivation can be brought close to the yield in real cultivation.

  The second is a case in which the vitality of a given unit becomes 0 during cultivation and dies. As described above, when the user reduces watering, fertilizer supply, pest removal, and the like on the game, the energy level decreases. Then, the crop of the unit whose vitality is 0 is withered and the number of units is reduced. These first and second cases are implemented by the automatic growth unit 51.

  Third, in the real field, when a major disaster such as a typhoon or cold damage, or a beast damage such as weasel or drought occurs, the yield of the virtual crop is reduced in conjunction with the instructions of the worker. This is a case that is forcibly performed. This is performed by the growth correction unit 52 described later.

  In this embodiment, in order to distribute the minimum amount of harvest to all users, the minimum number of units is set for each type, and the number of remaining units in each field on the virtual does not become less than the minimum number of units. As described above, the automatic growth unit 51 and the growth correction unit 52 are controlled. Therefore, even if the user does not perform any work in virtual cultivation or the yield of the real field is greatly reduced due to a large-scale pre-disaster, the units disappear in each field so that it is below the minimum number of units. It will never be done.

  On the other hand, in a real field, cultivation of real crops planted by an instruction to a user is performed by an operator. An operator waters and spreads fertilizer as appropriate to grow a real crop.

  Here, in S30, when a disaster that reduces the yield of real crops occurs on the real farm, it is necessary to perform a forced correction process that also reduces the yield on the cultivation simulation game. In this embodiment, disasters that reduce yields can be divided into major disasters that greatly reduce yields (natural disasters such as typhoons and cold damage, beast damage such as weasels and firewood), and minor disasters that reduce yields (disease and insect damage). The contents of the correction process are different.

  When a disaster occurs in S30, the worker confirms the situation of the disaster, and in S31, the disaster information including the type of disaster, the scale of damage, and the location (work number) where the disaster occurred is input to the worker terminal 30. The inputted disaster information is transmitted from the worker terminal 30 to the simulation server 10 in S32.

  The simulation server 10 that has received the disaster information compulsorily corrects and updates the cultivation status recorded in the cultivation status DB 135 based on the content of the received disaster information (S33). Specifically, in the case of a major disaster, the growth correction unit 52 kills a predetermined number of units in the field belonging to the work number located in the disaster-affected area, and reduces the number of remaining units.

  For example, when 30% of crops are withered over the entire real field due to a natural disaster caused by a typhoon, the remaining number of virtual field units corresponding to all the fields included in the real field is decreased by 30%. As a result, the yield of virtual crops can be reduced in the same way as the yield of real crops is greatly reduced by a catastrophe.

  When the number of units is reduced in conjunction with a major disaster in this way, a message that a major disaster has occurred and the number of units has decreased is displayed on the virtual field along with a photo of the real field that received the disaster. And configured to be informed to the user.

  On the other hand, in the case of a minor disaster, the growth correction unit 52 adjusts the vitality of each unit in the virtual field corresponding to the field belonging to the work number that received the disaster until a disaster is removed (for example, a daily rate) , 3%).

  A minor disaster is the occurrence of a disease or insect damage. When an operator confirms the occurrence of a disease or insect damage that is likely to affect the yield in a real field, the disaster information is input and forced correction is performed. When the user cures the disease or removes the pests in the cultivation simulation game, the decrease in the energy level stops.

  Thus, in the case of a minor disaster, the virtual yield is reduced to a lesser extent than in the case of a major disaster that directly reduces the number of units. Even that leads to reduced virtual yield.

  Next, when the crop harvest time approaches, in S35 to S40, a process of transmitting the real harvest allocation amount to the user is performed. In this embodiment, the yield is transmitted one week before harvesting. First, in S35, one week before the harvesting time, the operator observes the growth state of the crop in the real field in units of work numbers, and predicts the real yield after one week. In general, if it is one week before harvesting, it is possible to accurately predict the yield to some extent.

  In S36, when the worker inputs the real expected yield together with the harvest date to the worker terminal 30, the input information is transmitted to the simulation server 10 in S37. In the simulation server 10 that has received the real expected yield, the allocation determination unit 55 determines the allocation amount to the user having a virtual field in the work number (S38).

  This yield allocation is performed according to the number of remaining units, which is the number of units remaining in the field. For example, assume that the work number includes three fields A, B, and C owned by users A, B, and C, respectively, and the initial number of units in each field is five. When the real yield is expected to be about 80% of the maximum yield (corresponding to 12 units), and the operator inputs the real expected yield of 80% in S36, the allocation determination unit 55 assigns each real harvest to each Allocate to each user according to the number of remaining units in the field. Here, the maximum yield is the yield when all the units in the field grow smoothly.

  If the number of remaining units in fields A, B, and C is 4, 3, and 4, respectively, 4 units are allocated to user A, 3 units are allocated to user B, and 4 units are allocated to user C. To be decided. Since the real harvest amount corresponds to 12 units, if the total number of remaining units in the fields A, B, and C is 11, real crops can be distributed without shortage.

  As described above, in the present embodiment, the virtual yield parameters (the number of remaining units and the energy level) are adjusted during the cultivation so that the yield of the virtual field is linked to the yield of the real field. Therefore, under normal circumstances, the actual expected yield and the virtual yield (the number of remaining units) are close to each other at the time of determining the allocation amount. Therefore, in S38, each user receives the real harvest according to the number of remaining units. Distribution should be performed.

  On the other hand, if the real expected yield falls below the virtual yield (the number of remaining units) due to some factor, the distribution determining unit 55 performs control so that the remaining units are cut off based on the energy level described above.

  That is, the remaining units belonging to the work number are arranged in order according to the energy level, and the remaining units are cut off from the one with the lower energy level by the number of units for which the real yield is insufficient. , Subtract the yield allocation by the number of remaining units that have been cut off, and allocate.

  However, in this embodiment, even for users who have poor performance in the cultivation simulation game and who have only low units, the minimum number of units is also set in order to guarantee the yield of the minimum number of units described above. Done to guarantee. In other words, if the number of remaining units after the cut is less than the minimum number of units, do not cut the user's unit, and cut the cut for the user who has the next lowest energy unit. To do.

  In the present embodiment, when there is a user whose real expected yield is lower than the minimum number of units and the minimum guaranteed yield cannot be distributed, the user is set to deal with the refund process. . Further, even if there is only one user within the same work number, distribution is performed according to the number of remaining units.

  The distribution amount to each user determined in S38 is transmitted to each user terminal 20 in S39, and is displayed on each user terminal 20 in S40. This notification of the allocation amount is made one week before the actual harvest, and the user who knows the allocation amount selects whether to send the harvest to his home or sell it on the net, etc. Can inform the service provider.

  As described above, according to the present embodiment described in detail, the cultivation situation of the virtual crop on the cultivation simulation game is configured to be corrected in conjunction with the cultivation situation of the real crop in the real farm field. It is possible to provide a user with a highly realistic cultivation simulation game that is close to farm products.

  In addition, by correcting the yield of virtual crops in conjunction with the yield of real crops, when allocating harvests at the time of harvesting, the yield of real crops is significantly insufficient compared to the yield of virtual crops, and service providers Can be prevented from taking an excessive burden. In addition, by reducing the yield of the virtual crop in conjunction with the decrease in the yield of the real crop, the user can be convinced that the yield is reduced, and the occurrence of dissatisfaction due to the small amount of harvest can be suppressed.

  The embodiments of the present invention have been described above. However, the embodiments of the present invention are not limited to the above-described embodiments, and various modifications can be made without departing from the gist of the present invention. . For example, the functions of the simulation server described above may be distributed over a plurality of servers instead of a single server.

  In the above embodiment, the worker inputs various information from the worker terminal. However, the information may be input directly to the server using the input device of the simulation server.

DESCRIPTION OF SYMBOLS 1 Crop cultivation interlocking system 5 Network 8 Base station 10 Simulation server 11 Computing device 13 Storage device 131 Program storage part 132 User information DB
133 crop information DB
134 Content information DB
135 cultivation situation DB
DESCRIPTION OF SYMBOLS 51 Automatic growth part 52 Growth correction | amendment part 55 Allocation determination part 20 User terminal 23 Display 30 Worker terminal 31 Keyboard 32 Camera 33 Display

Claims (6)

In a crop cultivation interlocking system including a simulation server that provides a cultivation simulation game of crops linked to cultivation in a real field for a user who uses a user terminal,
The simulation server
Regarding a virtual crop that is virtually cultivated on the cultivation simulation game, a cultivation status recording unit that records a cultivation status including a yield parameter that determines the yield of the virtual crop, and
Based on a user instruction via the user terminal, on the cultivation simulation game, an automatic growth control unit that automatically grows the virtual crop while updating the cultivation state including the yield parameter;
When receiving information that a disaster has occurred that reduces the yield of real crops cultivated in the real field, a growth correction control unit that performs a correction process to forcibly reduce the yield parameter;
An allocation amount determining unit that determines an allocation amount to the user of the harvested real crop according to the yield parameter;
A crop cultivation interlocking system characterized by comprising: The cultivation status recording unit records the cultivation status for each unit that is initially set in a predetermined number in a field that is a planting unit of the virtual crop by the user, and uses the life / death information for each unit as the yield parameter. Is recorded,
The crop cultivation interlocking according to claim 1, wherein the allocation amount determination unit determines an allocation amount to the user in accordance with the number of remaining units, which is the number of the units remaining in the field at the time of harvesting. system. 3. The growth correction control unit, when information indicating that the disaster has occurred is received , performs a correction process for forcibly erasing the unit remaining in the field. Agricultural crop cultivation system. The cultivation status recording unit further records the energy level of the unit for each unit as the yield parameter,
When the yield of the real crop is smaller than the yield of the virtual crop, the allocation amount determination unit cuts the units in the order of the low energy, and subtracts the number of the cut units. 4. The crop cultivation interlocking system according to claim 2 or 3, wherein an amount of distribution is determined. In order to guarantee the user the minimum allocation amount of the real crop, a crop information recording unit that records the minimum number of units that can survive in the field for each type of virtual crop,
5. The crop cultivation interlocking system according to claim 2, wherein the automatic growth control unit and the growth correction control unit perform processing so that the number of remaining units does not fall below the minimum unit. In the crop cultivation interlocking program for causing a computer to provide a crop cultivation simulation game linked to cultivation in a real field,
A cultivation situation recording step for recording a cultivation situation including a yield parameter for determining a yield of the virtual crop, with respect to a virtual crop that is virtually cultivated on the cultivation simulation game in the storage device of the computer;
On the cultivation simulation game, an automatic growth step of automatically growing the virtual crop while updating the cultivation state including the yield parameter;
When receiving information that a disaster has occurred that reduces the yield of real crops grown in the real field, a growth correction step for performing a correction process to forcibly reduce the yield parameter;
An allocation amount determining step for determining an allocation amount to the user of the harvested real crop according to the yield parameter;
To execute the above-mentioned computer.