JP2021124218A - Shooting training system - Google Patents

Abstract

To provide a technique capable of improving usability of a control program for a shooting training system.SOLUTION: A shooting training system includes a plurality of targets positioned in a training field, and an operation terminal having a display device. Each of the plurality of targets is allowed to acquire position information including a latitude and a longitude from a satellite. The operation terminal displays the arrangement state of the plurality of targets in the training field based on the position information of the plurality of the targets.SELECTED DRAWING: Figure 1

Description

The present disclosure relates to a shooting training system, and is applicable to, for example, a shooting training system using a laser beam imitating a live ammunition or a live ammunition.

There is a shooting training system that performs live bullet shooting training that emits bullets or simulated bullet shooting training that irradiates a light beam such as a laser beam that imitates a live bullet. The shooting training system automatically sends control commands to the target sequentially by the operator of the operation terminal and control commands of a pattern (also called a scenario) predetermined by the operator during the limited training time. Shooting training can be carried out by schedule control (also called scenario control) transmitted from the operation terminal.

Japanese Unexamined Patent Publication No. 2006-258392

The present inventors examined the usability of a control program executed on the operation terminal of a shooting training system. As a result, we found that there are the following issues.
1) It is difficult to accurately grasp the placement status of the targets placed in the training ground.
2) It is difficult to create training data in schedule control.
3) In schedule control, it is difficult to control the target according to the shooting result.

An object of the present disclosure is to provide a technique capable of improving the usability of a control program of a shooting training system.

Other challenges and novel features will become apparent from the description and accompanying drawings herein.

The following is a brief overview of the representative ones of the present disclosure.

The shooting training system according to the embodiment includes a plurality of targets arranged in the training field and an operation terminal having a display device. Each of the plurality of targets can acquire position information including latitude and longitude from a satellite. The operation terminal displays the arrangement state of the plurality of targets in the training field on the display device based on the position information of the plurality of targets.

According to the above-described embodiment, the usability of the control program of the shooting training system can be improved.

FIG. 1 is a diagram for explaining a shooting training system according to the first embodiment. FIG. 2 is a diagram for explaining an operation screen of the operation terminal according to the first embodiment. FIG. 3 is a diagram for explaining the arrangement of the target icons. FIG. 4 is a diagram for explaining the acquisition and confirmation screen of the latitude and longitude information of the target. FIG. 5 is a diagram showing a target placement screen on which a placement image of the target placed in the training field of FIG. 1 is displayed. FIG. 6 is a diagram illustrating a scenario input screen according to the second embodiment. FIG. 7 is a diagram showing a list of scenarios. FIG. 8 is a diagram illustrating a schedule screen. FIG. 9 is a diagram illustrating shooting training using a plurality of targets according to the third embodiment. FIG. 10 is a diagram showing training data for schedule control to which conditions for schedule execution are added. FIG. 11 is a diagram showing an execution flow of the training data of FIG. FIG. 12 is a diagram illustrating a scenario input screen provided with an execution condition input area and a jump destination input area.

Hereinafter, each embodiment will be described with reference to the drawings. However, in the following description, the same components may be designated by the same reference numerals and repeated description may be omitted. The drawings may be represented schematically as compared with actual embodiments in order to clarify the description, but they are merely examples and do not limit the interpretation of the present invention.

First, the issues will be described.

1) In the shooting training system, when multiple targets are placed in the training field, the operator of the shooting training system visually confirms each target, and on the screen of the operation terminal, each target is placed in the training area imitating the training field. By arranging icons that imitate targets, the arrangement state of all targets in the training area was created.

In the operation terminal, the screen for arranging the target does not have a function of showing the scale or position information, and the data that serves as a reference when the operator of the operation terminal arranges the target icon in the training area is not shown. .. In addition, when the target is placed, the coordinates on the screen of the target held on the software (control program) are not displayed to the user, so it depends on the ambiguous visual placement of the target in the training ground. It was not possible to accurately grasp the placement state of multiple targets in.

2) Schedule control has the advantage that the same schedule can be used repeatedly in shooting training from a fixed position, and training under the same conditions can be easily performed. However, there is a problem that it is difficult for the user of the shooting training system to create the training data for schedule control. The shooting training system may be provided with a function to automatically generate training data. The automatic generation of training data is a function for saving the user the trouble of creating it, and most of them are created by using random numbers in order to change the training data. However, when applied to shooting training, training data that is completely different from what the user wants may be created even if changes are made evenly everywhere. In addition, the shooting training system is not specialized for a specific shooting system, but for various purposes such as initial training, skill test, simulation training, etc., by the user creating training data by himself. It is possible to correspond to. Therefore, even if it can be automatically generated according to one training, it may not be usable in other trainings.

3) In addition, in schedule control, since the target control content is created as a schedule in advance, the target is controlled according to the schedule regardless of the shooting result, so that the target cannot be controlled according to the training situation. , You can only do regular training. In addition, there is no problem when only one target is used, but during training using multiple targets (shooting while moving, etc.), target control according to the landing state on the target cannot be executed. There was a challenge.

FIG. 1 is a schematic diagram for explaining the shooting training system according to the first embodiment. As shown in FIG. 1, the shooting training system 100 includes a training ground 101 of several kilometers square, a plurality of targets 102 arranged in a training ground or a training ground 101, an access point 106 as a relay device, an operation terminal 107, and the like. including. The operation terminal 107 executes a control program for controlling and controlling the entire shooting training system 100.

The shooting training system 100 has a plurality of targets 102 simulating a plurality of shooting targets in laser light irradiation by training equipment imitating a firearm or shooting training using an original firearm and live ammunition. The shooting training system 100 can be controlled by a signal that remotely transmits an operation such as destruction to a plurality of targets 102. The shooting training system 100 performs manual control in which control commands are sequentially transmitted to the target 102 by the operator of the operation terminal 107, and control commands in a pattern (also referred to as a scenario) predetermined by the operator during a limited training time. It has a function of performing shooting training by schedule control (also referred to as scenario control) that is automatically transmitted from the operation terminal 107 to the target 102. The shooting training system 100 also has a function of confirming the arrangement state (also referred to as an arrangement image) of a plurality of targets 102 arranged in the training field 101 and visually displaying the presence or absence of landing during training, and a target during training. It has a function of totaling, displaying, and printing the landing position and landing time of the laser beam or the actual bullet that landed on 102.

Each of the plurality of targets 102 has a GPS antenna 103 for communicating with a GPS (Global Positioning System) satellite 105, and a wireless antenna 104 for transmitting and receiving to and from an access point 106 that relays a wireless line. An operation terminal 107 is installed in the training field 101, and the operation terminal 107 has a wireless antenna 108 like each target 102, and is configured to be able to transmit and receive to and from the access point 106.

The flow of communication will be described by taking the target 102 on the upper left as an example. First, a command for acquiring GPS information from the operation terminal 107 is transmitted to the radio antenna 104 of the target 102 via the access point 106. Next, the target 102 acquires the GPS position information by requesting the GPS position information from the GPS satellite 105, and stores the values of the latitude and longitude information related to the acquired GPS position information in the transmission protocol. Further, the target 102 transmits GPS position information from the wireless antenna 104 to the operation terminal 107 via the access point 106 using the transmission protocol. The operation terminal 107 that has received the GPS position information is configured to be able to display the GPS position information as a GPS information screen on the screen of the display device 107d of the operation terminal 107.

Here, the GPS information screen displayed on the screen of the display device 107d of the operation terminal 107 is the same as the GPS information screen 401 of FIG. 4 described later. In this example, the GPS position information is displayed as latitude and longitude on the GPS information screen 401, and at the same time, the value obtained by converting the latitude and longitude as the relative coordinates of the training field 101 on the computer of the operation terminal 107 is displayed on the screen. It is configured so that it can be displayed in the arrangement information area 404 (see FIG. 4). Further, by clicking (pressing) the reflection button 405 (see FIG. 4), the screen transitions to the target arrangement screen 200 of FIG. 2, which will be described later, and the value displayed in the screen arrangement information area 404 inside the operation terminal 107 is displayed. It is transmitted to the target placement screen 200, and the value of the screen placement information area 404 is reflected on the target placement screen 200. As a result, the actual position of the target 102 can be displayed at a relatively converted position of the display area 201 of the training field 101 in the target placement screen 200.

In this example, the example of acquiring the position information of one target 102 is shown, but it is also possible to configure the process to acquire the position information of a plurality of targets 102 all at once.

A screen displayed on the display device 107d of the operation terminal 107 will be described with reference to FIGS. 2 to 5. FIG. 2 is a diagram for explaining an operation screen of the operation terminal according to the first embodiment. FIG. 3 is a diagram for explaining the arrangement of the target icons. FIG. 4 is a diagram for explaining the acquisition and confirmation screen of the latitude and longitude information of the target. FIG. 5 is a diagram showing a target placement screen on which a placement image of the target placed in the training field 101 of FIG. 1 is displayed.

FIG. 2 shows a target placement screen 200 for the operator of the operation terminal 107 to visually confirm the placement of the plurality of targets 102. The target placement screen 200 includes a display area 201 of the training field 101 and a storage area (hereinafter referred to as a container area) 202.

The map information of the training ground 101 is displayed in the display area 201 of the training ground 101. The display area 201 has a function of enlarged display and reduced display.

In the container area 202, a target icon 203 indicating all targets 102 that can be deployed in the training field 101 is stored. In this example, all targets 102 corresponding to the maximum horizontal m and the maximum vertical n target icons 203 can be deployed in the training field 101. Here, m and n are positive integers. In the container area 202, a target icon 203 (in this example, target 01 to target 0 m, mark 01, etc.) representing each target 102, which has a different image and name for each operation, is arranged and displayed. Each of the target icons 203 is configured to be arranged (moved) in the display area 201 of the training field 101 by operating a mouse, which is a pointing device provided on the operation terminal 107, for example, by dragging and dropping. .. That is, by moving one or more target icons 203 to the display area 201, one or more targets 102 corresponding to the moved one or more target icons 203 can be arranged in the training field 101.

FIG. 3 shows a target placement screen 200 when the target icon 203 is placed in the display area 201 of the training field 101 by drag and drop. The target icon 203 has coordinate information 301 on the screen with the origin 0 at the upper left of the display area 201 of the training field 101, and the value of the coordinate information 301 is shown in pixel display with X in the horizontal direction and Y in the vertical direction. ing. Immediately after the target icon 203 is arranged, the coordinate information 301 of the target icon 203 is displayed by a tool tip or the like. The tooltip is a supplementary explanation in a frame displayed when the mouse pointer is hovered over the target icon 203.

The target placement screen 200 has a function of displaying the target placement editing screen 302. The target placement edit screen 302 includes two text boxes 304 that display the current coordinate values of X and Y and allow the operator to input arbitrary values, and a placement button 303. When the target icon 203 is arranged in the display area 201 of the training field 101 with a mouse or the like, the value of the coordinate information 301 of the target icon 203 and the value of the text box 304 of the target arrangement edit screen 302 are configured to increase or decrease in conjunction with each other. Has been done.

The target placement screen 200 also enters the re-editing mode by clicking the placed target icon 203 with the mouse. The re-edit mode is a function of re-moving the placed target icon 203 in the display area 201 of the training field 101 with the mouse, inputting coordinate values in the text box 304 of the target placement edit screen 302, and clicking the placement button 303. It has a function of finely adjusting the arrangement of the target icon 203. When the placed target icon 203 is removed or the placement of the target icon 203 is finely adjusted, the corresponding target 102 moves to the corresponding position of the training field 101.

FIG. 4 shows the configuration of the GPS information acquisition and confirmation screen of the target 102. The operation terminal 107 has means for accessing the information of each target icon 203, and the GPS information screen 401 is displayed on the display device 107d of the operation terminal 107 by the means for accessing the information of each target icon 203. It is configured so that it can be displayed.

The GPS information screen 401 includes a target icon 203, a GPS information display area 403, a screen layout information area 404, and a reflection button 405. The target icon 203 means the type and identification name of the corresponding target 102. In the GPS information display area 403, the GPS position information of the corresponding target 102 currently held by the operation terminal 107 is displayed separately for latitude and longitude. The screen layout information area 404 currently indicates at which coordinate of the display area 201 the target icon 203 indicating the corresponding target 102 is located. The reflection button 405 is provided to save the changed information when the value of the screen arrangement information area 404 is changed and to reflect the changed information to the display area 201 in the target arrangement screen 200. ing.

For example, when the GPS position information of the actual target 102 is acquired from the means for obtaining the GPS information, the value (latitude, longitude) of the acquired GPS position information is displayed in the GPS information display area 403, and the value is in the display area 201. The coordinate information of the target icon 203 can be automatically input and displayed in the screen arrangement information area 404 by means for calculating which position is relatively hit by. By clicking the reflection button 405, the coordinate information is transmitted to the target placement screen 200. As a result, it is possible to obtain an image of the arrangement of the target 102 in the training field 101 without making fine adjustments such as mouse operation. As shown in FIG. 5, the arrangement image of the plurality of targets 102 arranged in the training field 101 of FIG. 1 can be displayed relatively accurately in the display area 201 of the target arrangement screen 200.

According to the first embodiment, the following effects can be obtained.

1) From the GPS position information (latitude and longitude) of the placement point of the target 102, it is possible to accurately create and grasp the placement image of one or more targets 102 placed in the training field 101. As a result, the usability of the control program executed by the operation terminal 107 of the shooting training system 100 can be improved.

2) In the map of the training field 101 displayed in the display area 201, the actual placement of the target 102 is performed by enlarging and displaying the display of the display area 201 even at the point where the target icon 203 overlaps in the distant view (reduced display). You can check the image accurately.

3) One or more targets 102 can be automatically arranged in the training field 101 based on the coordinates of the map of the training field 101 and the GPS position information obtained from the target 102. One or more targets 102 can be arranged in the training field 101 while reducing complicated input work and fine adjustment work.

In the second embodiment, the control program of the operation terminal 107 is provided with a function of automatically generating training data by using a scenario, facilitating the creation of training data. The second embodiment will be described with reference to FIGS. 6 to 8. FIG. 6 is a diagram illustrating a scenario input screen according to the second embodiment. FIG. 7 is a diagram showing a list of scenarios. FIG. 8 is a diagram illustrating a schedule screen. Example 2 can be combined with Example 1.

A scenario is a description of a set of actions of the target 102 for a short period of time. For example, when the target 102 controls an operation such as "get up" from the specified start time, "fall down" after 10 seconds, and elapse 10 seconds, the operation start time and end time , It is inefficient to manually specify the operation in the meantime 10 times. Instead, it can be said that it takes less time to create training data in schedule control if the start time, the corresponding scenario, and the scenario are specified to be repeated 10 times. It is considered that training data can be more easily created by creating scenarios required by the members of each unit who are users of the shooting training system 100 and increasing the number of created scenarios.

FIG. 6 shows a scenario input screen 600 displayed on the display device 107d of the operation terminal 107. The scenario input screen 600 has a panel area 601 on which the operation of the target 102 is displayed, an input area 602 for the scenario name, a setting area 603 for setting the control operation of the target of the scenario, and an OK button 604. In the panel area 601 in this example, a panel showing four operations of "get up", "fall down", "time limit", and "wait" is shown.

When creating a scenario, first, the scenario name is input to the input area 602. In this example, "get up for 10 seconds and fall for 10 seconds" is input as the scenario name.

Next, the "wake up", "fall down", "second limit", and "wait" panels are arranged in the setting area 603 in the order of desired operations by dragging and dropping with the mouse of the operation terminal 107. In the case of "Wait", enter the time. After inputting all, press the OK button 604 to complete the scenario with the scenario name "Get up for 10 seconds and fall for 10 seconds".

As shown in FIG. 7, the completed scenario is registered in the scenario list SL. FIG. 7 shows, as an example, a state in which three scenarios SN1 (currently 5 seconds), SN2 (wake up for 10 seconds and fall for 10 seconds), and SN3 (wake up every 30 seconds for 10 seconds) are registered in the scenario list SL. ing.

FIG. 8 shows the schedule screen SS displayed on the display device 107d of the operation terminal 107. The schedule screen SS is used to create training data. When creating training data, first, the target 102 to be controlled is selected (here, person 03, person 04, and person 05 are selected as the target 102), and the start time ST is determined. Then, a desired scenario is appropriately selected and input from the scenarios SN1 to SN3 registered in the scenario list SL (in FIG. 8, the input scenario is described as SN).

Next, a method of creating overall training data will be described.

The user first creates a plurality of scenarios using the scenario input screen of FIG. Then, the user creates training data using FIGS. 7 and 8. The control program of the operation terminal 107 uses each unit as a key to memorize which scenario is used and how many times (number of scenario appearances). Create training data by arranging the scenarios used with random numbers according to the frequency. Units that have used the scenario more than once will be able to automatically generate training data.

When creating training data, first select your unit and determine the number of targets and training time. If automatic generation is to be performed, the user selects automatic generation here. Then, the control program of the operation terminal 107 counts the number of scenarios from the training data used in the past of the unit, and obtains the average number of scenarios appearing per target. In addition, the ratio of the scenarios used is calculated, and the scenario (s) to be used this time and the number of times are determined from it. Since the scenarios used for one target and their numbers are calculated, training data for schedule control can be created by defining the start time and the interval between the scenarios using random numbers.

This is useful when performing similar training. By using the created training data and repeating the same training, it is possible that the trainee will remember the pattern. However, by using the automatically generated training data, it is possible to avoid inertial training such as the trainee waiting for the target movement. If you want to adjust the training data, edit the created training data and configure it so that the user can modify it. Therefore, the time required to create the training data for schedule control can be shortened as compared with the case where the training data is created from the state where there is no basic training data.

Even the same unit may not always train according to the prescribed training data. For example, suppose a newcomer is suddenly assigned and the unit composition changes, or training is conducted for that newcomer. In this case, automatic generation cannot be applied, so new training data will be created. Alternatively, the training data used by other units may be manually created, or the operation terminal 107 may be equipped with a function for reading and editing training data created in the past or data of other units, thereby training. Data may be created.

In addition, Example 1 and Example 2 can be combined.

According to the second embodiment, the training data for schedule control can be easily created. As a result, the usability of the control program executed by the operation terminal 107 of the shooting training system 100 can be improved.

In the third embodiment, by adding the execution condition at the time of executing the schedule at the time of creating the schedule, it is possible to control the target according to the training situation at the time of executing the training by the schedule control. In other words, the control program of the operation terminal 107 is provided with a function of adding an execution condition at the time of schedule execution.

Example 3 will be described with reference to FIGS. 9 to 11. FIG. 9 is a diagram illustrating shooting training using a plurality of targets according to the third embodiment. FIG. 10 is a diagram showing training data for schedule control to which conditions for executing the schedule according to the third embodiment are added. FIG. 11 is a diagram showing an execution flow of the training data of FIG. Example 3 can be combined with Example 1, Example 2, or a combination of Example 1 and Example 2.

As shown in FIG. 9, when a plurality of targets 102 are used and training is performed assuming that the shooter 90 shoots while moving in the traveling direction, the shooter 90 is in the current position depending on the landing state on the target 102. The situation is different whether it stays in, moves forward or backward, and the situation is the same on the target 102 side, which is the enemy side.

When landing on a target (eg, target 102 (1)), the shooter 90 advances, targets the next target 102 (2), and if not landed, the shooter 90 stays in its current position. , Aiming at the same target 102 (1), etc., making it possible to carry out training that is closer to practice. Since it is not feasible with the current schedule control, the operator had to manually control the target while observing the training situation. In the third embodiment, the execution condition at the time of schedule execution is added to the schedule control training data. This makes it possible to control the target according to the training situation at the time of training.

As shown in FIG. 10, the training data for schedule control includes No. 1 indicating a schedule number (No.) at the time of schedule execution. It includes a column, a time column indicating a designated time when each schedule is executed, and a target number column indicating the target number of the target to be controlled. The training data further includes a control column indicating the control content (scenario) of the operation of the target to be controlled, an execution condition column indicating the execution condition, and a schedule number (No.) of the jump destination when each execution condition is satisfied. ) Including the jump destination column. The numbers in the target number column correspond to the numbers in parentheses such as the target 102 (1) in FIG. 9, for example. The control content (scenario) is set to a time limit of 2 seconds in this example. In this example, the execution conditions are three conditions such as the first condition "with landing", the second condition "without landing", and the third condition "number of shots fired = 5". In the case of "with landing", the next schedule number is specified as the jump destination. In the case of "no landing", the previous schedule number is specified as the jump destination. In the case of "number of bullets fired = 5", the end (END) is specified as the jump destination.

In the training data of FIG. 10, the corresponding targets are controlled at schedule numbers 1, 3, 5, 7, and 9 (current seconds 2 seconds), and schedule numbers 2, 4, 6, and 8 are scheduled numbers 1, 3. The training status at the time of execution of 5 and 7 is determined, and the transition to the jump destination of the schedule number according to the determined condition is performed. That is, schedule numbers 1, 3, 5, 7, and 9 are operation regulation schedules, and schedule numbers 2, 4, 6, and 8 are determination schedules for determining the training status after execution of the operation regulation schedule. Therefore, it is possible to control the target according to the training situation at the time of training by schedule control.

(Execution flow)
The execution flow of the training data will be described with reference to FIG.

(Step S1)
When the training based on the schedule control training data is started, the presence or absence of the schedule is determined. If there is a schedule to be executed next (when a numerical schedule number is described in the schedule number (No.)), the process proceeds to step S2. If there is no schedule to be executed next (when the schedule number (No.) is END), the training ends.

(Step S2)
It is determined whether or not the specified time has passed. If the designated time has not elapsed (NO), step S2 is repeatedly executed. When the designated time has elapsed (YES), the process proceeds to step S3.

(Step S3)
Whether or not to control the target is determined. When controlling the target (YES), the process proceeds to step S4. If the target is not controlled (NO), the process proceeds to step S6.

(Step S4)
The control of the target specified in the schedule is executed, and after the execution, the process proceeds to step S5.

(Step S5)
The schedule number (No.) is increased by one, and the process proceeds to step S1. When the transition to step S1, steps S2, S3, and S4 are repeatedly executed, and only the schedule number (No) is executed. In the example of FIG. 10, the schedule number (No.) is executed up to 9.

(Step S6)
It is determined whether or not the execution condition is met. If it is determined that the execution condition is satisfied (YES), the process proceeds to step S7. If it is determined that the execution condition is not met (NO), the process proceeds to step S1.

(Step S7)
The schedule number (No.) is changed to the jump destination schedule number (No.), and the process proceeds to step S1.

This completes the execution of the schedule control training data described with reference to FIG.

FIG. 12 shows a scenario input screen provided with an execution condition input area and a jump destination input area. The scenario input screen 600 of FIG. 12 differs from the scenario input screen 600 of FIG. 6 in that, in FIG. 12, a plurality of input areas 608 for execution conditions and a plurality of input areas 609 for jump destinations are provided. In the execution condition input area 608, for example, "with landing", "without landing", "number of shots = 5" and the like can be input as the execution conditions. Further, as described with reference to FIG. 10, the jump destination schedule number or END or the like corresponding to each execution condition can be input to the jump destination input area 609. FIG. 12 shows schedule numbers 1 and 2 of FIG. 10 as an example.

When the schedule control training data as shown in FIG. 10 is automatically generated as in the second embodiment, "with landing" is input to one input area 608, and for example, +1 is input to the corresponding input area 609. do. Further, "no landing" is input to the other input area 608, and for example, -1 is input to the corresponding input area 609.

According to the third embodiment, the target can be controlled according to the shooting result. As a result, the usability of the control program executed by the operation terminal 107 of the shooting training system 100 can be improved.

Although the invention made by the present inventor has been specifically described above based on examples, it goes without saying that the present invention is not limited to the above-described embodiments and examples and can be variously modified. ..

100: Shooting training system 101: Training ground 102: Target 103: GPS antenna 104: Radio antenna 105: GPS satellite 106: Access point 107: Operation terminal 107d: Display device 108: Radio antenna 200: Target placement screen 201: Display area 202 : Container area 203: Target icon 301: Coordinate information 302: Target placement edit screen 303: Placement button 304: Text box 401: GPS information screen 403: GPS information display area 404: Screen placement information area 405: Reflection button 600: Scenario input Screen 601: Panel area 602: Scenario name input area 603: Setting area 604: OK button SN, SN1, SN2, SN3: Scenario 90: Shooter 608: Execution condition input area 609: Jump destination input area

Claims (6)

With multiple targets placed in the training ground,
Including an operation terminal having a display device,
Each of the multiple targets can acquire position information including latitude and longitude from satellites.
The operation terminal displays the arrangement state of the plurality of targets in the training field on the display device based on the position information of the plurality of targets.
Shooting training system. The operation terminal has a function of displaying a target arrangement screen on the display device.
The target placement screen is
The display area where the map information of the training ground is displayed and
Includes a storage area containing multiple target icons,
Each of the plurality of target icons indicates a target that can be placed in the training ground.
The shooting training system according to claim 1, wherein the corresponding target is arranged in the training field by moving the plurality of target icons to the display area. The shooting training system according to claim 2, wherein the target icon moved to the display area has the position information of the corresponding target. Including an operation terminal having a display device,
The operation terminal has a function of performing shooting training by schedule control that controls the movements of a plurality of targets based on training data including a plurality of scenarios.
The operation terminal is
The scenario input screen for creating a scenario is displayed on the display device, and the scenario is displayed.
Register multiple scenarios created by the scenario input screen in the scenario list, and register them in the scenario list.
Display the schedule screen on the display device and display it.
When creating the training data
On the schedule screen, select the target to be controlled and select the target.
The training data is created by selecting a desired scenario for the target to be controlled from the scenario list.
Shooting training system. It is a shooting training system that performs shooting training by controlling the movement of multiple targets on a schedule.
The schedule control training data is
An operation regulation schedule showing the operation of the target to be controlled, and
Including a determination schedule for determining the training status after execution of the operation regulation schedule,
The determination schedule includes conditions for determining the training status.
Shooting training system. The condition includes a first condition and a second condition.
When it is determined that the training status corresponds to the first condition, the operation regulation schedule for which the training status is determined is executed again, and the training status is determined.
The shooting training system according to claim 5, wherein when it is determined that the training situation corresponds to the first condition, the next operation regulation schedule is executed.

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