KR20230102818A - Method and system for applying local weather conditions to military wargame simulation - Google Patents

Abstract

The embodiment is a military war game simulation method reflecting local weather conditions, wherein a user interface displayed according to the execution of a war game simulation program in a computing device displays a battlefield image and a plurality of entities, Receives wind speed information, air volume cover area information, and air volume information, sets an estimated battle area based on the expected movement path of the enemy and friendly forces and information on the gathering area of troops, and sets a speed based on the wind speed information from the coordinates of the wind's epicenter. While moving to the combat estimation area, wind generation event information for generating wind having a wind volume based on the wind volume information is generated in an area based on the wind volume cover area information, and the wind generation event information is executed according to the execution of the wind generation event. It is possible to provide a military wargame simulation method that reflects local weather conditions by detecting attributes that are changed by wind among the attributes of entities located on a region where wind is generated among entities of , and changing result values of the detected attributes.

Description

Method and system for applying local weather conditions to military wargame simulation}

The present invention relates to a method for applying local weather conditions to a military wargame simulation and a system therefor.

In order to actively respond to the diverse and complex battlefield environment of the 21st century future war and to successfully complete the missions assigned to the military even in the face of cuts in the defense budget and reduced troops, education and training methods that make the most of advanced science and technology are required. In the 1990s, due to the collapse of the Soviet Union and the atmosphere of international reconciliation and disarmament leading to the integration of East and West Germany, not only did large-scale maneuver exercises such as Team Spirit begin to be restricted, but also direct pressure on the defense budget appeared. Such changes in the security environment have led to a demand for the development of more efficient and rational military force construction and operation plans, and war games have emerged as a scientific and economic means to support them. In the 1990s, the Korean military actively utilized war games throughout its defense operations, such as force analysis, military training, and weapon acquisition, and carried out not only paid purchases with the defense budget when necessary, but also some self-development projects. As we enter the 2000s, our military, on the one hand, further develops the atmosphere of reconciliation and cooperation that was created with difficulty through the holding of the inter-Korean summit, while making every effort to establish a permanent peace regime on the Korean Peninsula. We are not neglecting our efforts to transform into a state-of-the-art information technology group that makes the most of the advantages of information technology. In order to successfully carry out such defense reform/military innovation tasks without trial and error, it is necessary to secure a reasonable and economical verification system, and the defense M&S (Modeling & Simulation) system is recognized as a reasonable, economical, and scientific alternative. . In recent years, wargames have been accepted as one of the fields that are rapidly growing with the development of computers as one of the scientific means that can respond quickly to various military demands economically. It is evolving from a centralized system that operates small-scale models independently to a distributed processing system through an interlocking system. One of the key issues in wargames is how realistically virtual training can replace real training. Therefore, various environments considered in actual training conditions are applied to the war game simulation. A wide variety of environmental factors can be considered, but climate conditions can be singled out as one of the most important factors in combat. However, conventional war game simulations cannot reflect realistic environmental changes in actual training conditions in that environmental factors are uniformly applied. Because climate conditions are not just related to climate conditions, but are one of the important factors that determine combat capability, it is important to ensure that climate conditions are actively and realistically reflected in war game simulations.

Korean Registered Patent Publication No. 10-1364602 Korean Registered Patent Publication No. 10-1549471 Korean Registered Patent Publication No. 10-1695852 US Patent Publication No. 8930180

The present invention provides a system and method for simulating military war games reflecting environmental conditions such as local weather.

In addition, the present invention provides a system and method for simulating a military war game that can consider the effect of entity properties according to the occurrence of an event by changing the properties of a plurality of entities by generating a change in environmental factors as an event.

In addition, the present invention provides a system and method for simulating a military war game that can link a rain event independently or dependently associated with an event such as wind generation and a lethal material generation event.

The embodiment is a military war game simulation method reflecting local weather conditions, wherein a user interface displayed according to the execution of a war game simulation program in a computing device displays a battlefield image and a plurality of entities, Receives wind speed information, air volume cover area information, and air volume information, sets an estimated battle area based on the expected movement path of the enemy and friendly forces and information on the gathering area of troops, and sets a speed based on the wind speed information from the coordinates of the wind's epicenter. While moving to the combat estimation area, wind generation event information for generating wind having a wind volume based on the wind volume information is generated in an area based on the wind volume cover area information, and the wind generation event information is executed according to the execution of the wind generation event. It is possible to provide a military wargame simulation method that reflects local weather conditions by detecting attributes that are changed by wind among the attributes of entities located on a region where wind is generated among entities of , and changing result values of the detected attributes.

In another aspect, the estimated combat area is divided into estimated divided combat areas, each of the estimated divided combat areas includes at least one unit entity, and each of the estimated divided combat areas includes at least some of the estimated divided combat areas. Wind movement path information is set based on selection and selection sequence information, the wind volume cover area information includes unit entity coordinate points in each of the divisional combat estimation areas, and the execution of the wind occurrence event Accordingly, it is possible to provide a military war game simulation method reflecting local meteorological conditions that cause the wind to move based on the wind movement path information.

In another aspect, upon receiving the initial rainfall information, the initial rainfall location coordinates are set as the wind origin coordinates, the rainfall movement path is set as the wind movement path, and a rainfall area having the same area as the wind volume cover area is set; , Set the movement speed of rainfall that satisfies Equation 1, set the amount of precipitation in each of the selected divided battle estimation areas that satisfy Equation 2 to generate rainfall occurrence event information, and according to the execution of the occurrence event of rainfall Among the plurality of entities, a military war game simulation method reflecting local weather conditions is provided, which detects attributes changed by rainfall among attributes of entities located in an area where rainfall is generated and changes the resulting value of the detected attribute, [ Equation 1] RS=p*WS (0<p<=1), where p is a preset parameter and WS is wind speed. And, [Equation 2] RVba(n)=RV0+a1*k1-a2*k2+a3*k3-a4*k4, RVba(n) in Equation 2 is n(1<n<=m, m is The total number of divided battle estimation areas) is the amount of precipitation in the selected division battle estimation area, RV0 is the input initial precipitation information, a1, a2, a3, and a4 are preset coefficients, and k1, k2, k3, and k4 are n It is a parameter set based on the characteristics of the topography on the second selected division battle estimation area.

In another aspect, in response to the detection of the killing substance spraying event, coordinate information of the epicenter of the killing substance generation, the amount of the killing substance by time, and the concentration information of the killing substance are detected, and whether the coordinates of the killing substance generation epicenter are located on the movement path of the wind. Determines, and when the coordinates of the killing substance generation epicenter are located on the movement path of the wind, when the wind passes over an area having a preset area including the coordinates of the killing substance generation epicenter, the spreading of the killing substance If the concentration of the deadly substance detected in the selected division battle estimation area exceeds the preset reference value, the deadly substance danger situation event is executed, so that the concentration of the deadly substance exceeds the preset reference value. A military wargame simulation method reflecting local weather conditions that detects attributes that are changed by lethal substances among attributes of entities on an estimated area of selected divisional battles that exceed and changes result values of the detected attributes.

In another aspect, the concentration information of the killing substance for each region according to the diffusion of the killing substance provides a military war game simulation method that reflects local meteorological conditions that satisfy Equation 3, [Equation 3] LDba (n) =

((sigma{LV(tn~to)})/(b*c1*c1*c2))*exp((-1/2)*(((xn-xo)/c1)*((xn-xo) /c1)))*exp((-1/2)*(((yn-yo)/c1)*((yn-yo)/c1)))*

exp((-1/2)*(((zn-zo)/c2)*((xn-xo)/c2))), LDba(n) in Equation 3 is LV is the concentration of the lethal material, LV is the hourly release of the lethal material, and sigma{LV(tn~to)} is the lethal material from the point of release of the lethal substance to the point when the lethal substance reaches the n-th selected divisional combat estimate area (SPBEA) is the total emission amount, b is a preset constant, c1 is the standard deviation of the spread width of the lethal substance in the horizontal direction, c2 is the standard deviation of the spread width of the kill substance in the vertical direction, (xo, yo, zo) Is the coordinate information of the source of occurrence of the lethal substance, and (xn, yn, zn) is the coordinates of a preset concentration detection point within the n-th selected divided combat estimation area.

In another aspect, in response to the detection of the killing substance spraying event, coordinate information of the epicenter of the killing substance generation, the amount of the killing substance by time, and the concentration information of the killing substance are detected, and whether the coordinates of the killing substance generation epicenter are located on the movement path of the wind. Determines, and when the coordinates of the killing substance generation epicenter are located on the movement path of the wind, when the wind passes over an area having a preset area including the coordinates of the killing substance generation epicenter, the spreading of the killing substance If the concentration of the deadly substance detected in the selected divisional battle estimation area exceeds a preset reference value, a deadly substance danger situation event is executed to determine the concentration of the deadly substance in advance. It is possible to provide a military wargame simulation method that reflects local weather conditions by detecting attributes that are changed by lethal substances among attributes of entities on a selected divisional battle estimation area that exceed a set reference value and changing result values of the detected attributes.

In another aspect, the concentration information of the killing substance for each region according to the diffusion of the killing substance provides a military war game simulation method that reflects local meteorological conditions that satisfy Equation 3, [Equation 4] LDba (n) =

((sigma{LV(tn~to)})/(b*c1*c1*c2*RVba(n)))*exp((-1/2)*(((xn-xo)/c1)*( (xn-xo)/c1)))*exp((-1/2)*(((yn-yo)/c1)*((yn-yo)/c1)))*

exp((-1/2)*(((zn-zo)/c2)*((xn-xo)/c2))), in Equation 4, LDba(n) is the nth selected division battle estimation area LV is the concentration of the lethal material, LV is the hourly release of the lethal material, and sigma{LV(tn~to)} is the lethal material from the point of release of the lethal substance to the point when the lethal substance reaches the n-th selected divisional combat estimate area (SPBEA) is the total emission amount, b is a preset constant, c1 is the standard deviation of the spread width of the lethal substance in the horizontal direction, c2 is the standard deviation of the spread width of the kill substance in the vertical direction, and RVba(n) is the nth Precipitation information in the selected divisional battle estimation area (SPBEA), (xo, yo, zo) is the coordinate information of the epicenter of the killing substance occurrence, and (xn, yn, zn) is the preset concentration in the nth selected division battle estimation area are the coordinates of the detection point.

Embodiments provide systems and methods for simulating military wargames that can add local weather events, such as changes in wind or rainfall, and events of lethal spread.

In addition, the embodiment is for military use that enables more realistic simulated combat training by associating a wind occurrence event with a rainfall occurrence event to which at least a part of the simulation process is dependent, changing the attributes of entities, and outputting and simulating the resulting value. A system and method for war game simulation are provided.

In addition, the embodiment changes the property of the entity by associating the event of occurrence of wind and rainfall with the event of diffusion of a killing substance to which at least a part of the simulation process is dependent, and outputs the resulting value to simulate environmental factors. Provided is a system and method for simulating military wargames that enable simulated combat training by reflecting realistic change factors of various combat situations derived from changes.

Figure 1a is a block diagram for a system for simulating military war games reflecting local weather conditions.
1b and 2c schematically show the user interface environment of the war game simulation program.
2 to 6 schematically show a user interface of a war game simulation program for explaining a method of simulating a game for military use in which local weather conditions are reflected in the present invention.
7A and 7 are schematic diagrams of wind flow over a combat estimation area to illustrate wind movement and windy areas;
8 and 9 schematically show a user interface of a war game simulation program for explaining a method of simulating a game for military use in which local weather conditions are reflected in the present invention.
Figure 10 is a schematic diagram of the spread of lethal material on a presumed combat area to illustrate the spread of lethal material by wind.

Since the present invention can apply various transformations and have various embodiments, specific embodiments will be illustrated in the drawings and described in detail in the detailed description. Effects and features of the present invention, and methods for achieving them will become clear with reference to the embodiments described later in detail together with the drawings. However, the present invention is not limited to the embodiments disclosed below and may be implemented in various forms. In the following embodiments, terms such as first and second are used for the purpose of distinguishing one component from another component without limiting meaning. Also, expressions in the singular number include plural expressions unless the context clearly dictates otherwise. In addition, terms such as include or have mean that features or elements described in the specification exist, and do not preclude the possibility that one or more other features or elements may be added. In addition, in the drawings, the size of components may be exaggerated or reduced for convenience of description. For example, since the size and thickness of each component shown in the drawings are arbitrarily shown for convenience of description, the present invention is not necessarily limited to the illustrated bar.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings, and when describing with reference to the drawings, the same or corresponding components are assigned the same reference numerals, and overlapping descriptions thereof will be omitted. .

Figure 1a is a block diagram for a system for simulating military war games reflecting local weather conditions.

A system 10 for simulating military war games may include a main computing device 100 and a secondary computing device 200 .

In various embodiments, the system 10 for simulating a military war game may further include a server for processing information and a server serving as a database in addition to the illustrated computing devices 100 and 200 .

The main computing device 100 may be a computing device used by a commander to oversee the combat strategy of the auxiliary computing devices 200, monitor the situation, and allocate specific tactical instructions. In addition, the auxiliary computing device 200 may be, for example, a commanding officer of each small unit or a computing device of a unit assigned a special mission, which uses various combat strategies according to the command of the commander.

Each of these computing devices 100 and 200 has a war game simulation program installed and executed, communicates with each other through a network, and the war game simulation program matches the respective battle strategy to execute the assigned war game model, and provides a user interface. By displaying it, you can proceed with the war game simulation.

The war game simulation program 300 may execute the war game model 310 . The war game model 310 is a program that stores various military assets as different entities and executes a war game simulation between friendly and enemy forces using the entities based on preset rules.

The war game model 310 is an entity (or object, objects, etc.) are created and registered so that the war game simulation program 300 can manage them. Also, it creates and registers event entities to be executed regularly and executes timing routines for event execution. At this time, the war game model 310 may set the number of entities according to user input.

An entity that is a military asset is one or more resources (troops, tanks, towed artillery, self-propelled artillery, vehicles, fighters, aircraft, naval combat assets, etc.) and characteristics (unit size, unit type, enemy/subdivision, unit location, etc.) resource properties (size, speed, etc.).

In various embodiments, the war game model 310 may generate registration information by generating a 2D or 3D grid for the battlefield according to a user input and registering the entities in the grid based on pre-stored simulation data. there is.

Thereafter, the war game model 310 executes hourly events according to at least one of land battles, sea battles, and air battles based on the battle situation according to registration information, calculates the result value whenever each event is executed, and then displays the real-time battle situation. information can be provided.

At this time, the war game model 310 may execute an event for a battle simulation based on criteria for each situation according to an actual military manual, and generate a result value according to the execution of the event.

The war game model 310 may consider environmental factors as one of the factors influencing the battle simulation, and the environmental factors include various types of environmental factors such as temperature, humidity, rainfall, atmospheric pressure, etc. A plurality of environmental factors may be reflected for each of a plurality of grids (or coordinates) constituting the coordinate system.

Data used for war game simulation may be stored in the database of the main computing device 100 . A battle scenario to be driven in the war game simulation program 300 may be stored in the database.

The war game model 310 can load and simulate scenarios. In various embodiments, the war game simulation program 300 may provide a scenario editing tool. The scenario editing tool reads the scenario-based database stored in the database, initializes the program, accepts the operator's customizing elements based on this, and performs editing so that the scenario can be easily defined. The editing tool can hierarchically classify the editing result reflecting the operator's intention in the order of section, line, and item and save it as a scenario file. The scenario herein refers to a plurality of data files used to perform tactical simulation in the war game model 310, and may mean data files composed of zones, rows, and items, but is not limited thereto.

The war game simulation program 300 configures a training environment by initializing classes in the internal main memory and allocating attributes based on the saved scenarios, reflecting modifications made by the operator in the editing tool to the war game model 310. and prepare for training. Here, the class may refer to an area that allows a user to define a virtual environment to perform training in a numerical data type, but is not limited thereto.

Scenarios can be formed by dividing hierarchies into zones, rows, and items. An item is the smallest layer (or unit) constituting a scenario and may mean one attribute or parameter. Here, the attributes represent the characteristics or properties of objects or things constituting the characteristic simulation of the class as numerical values or data, and may be, for example, the name of a unit, radius, combat power, and the like. Parameters represent setting items to be used globally or locally in simulations as numerical values or data.

At least one of a plurality of preset attributes of a plurality of entities may be an attribute associated with (or matching with) any one of various event types. In addition, the event may be a command signal such as an attack command, a detection command, a movement command, or an event of occurrence of an environmental change factor, but is not limited thereto, and may include various types of events that can be executed in a simulated battlefield. .

When a mock object (or mock object) is created corresponding to a real military asset and an event corresponding to a specific event type is processed in the mock object, the attribute value of the attribute corresponding to the specific event type may be output as output information. In addition, the attribute value included in the output information output in response to the event processing of the mock object may be composed of a specific value for event processing in correspondence with the output value of another mock object or a function for generating a new event in another mock object. Also, the output information may include information about event types.

1b and 2c schematically show the user interface environment of the war game simulation program. In addition, FIGS. 2 to 6, 8 and 9 schematically show a user interface of a war game simulation program for explaining the method of simulating a game for military use in which local weather conditions are reflected in the present invention. 7a and 7b are schematic diagrams of wind flow over an estimated combat area to explain wind movement and windy areas, and FIG. 10 is a schematic diagram of a combat estimated area to explain the spread of lethal substances by wind It is a schematic diagram of the diffusion of the killing agent on the phase.

1b, 1c and 2, a battlefield image bi is displayed on the user interface 300a of the war game simulation program 300, and a plurality of entities et are displayed on the battlefield image bi. It can be. The war game simulation program 300 may provide a 2D or 3D image by enlarging or reducing a partial area of the entire battlefield image (bi) for each image tab (Full map, Point map1, Point map2), and the 3D map It is possible to provide an interface for changing the position on the image or enlarging a part of the area.

Based on the war game scenario, various entities (et) may be displayed on the battlefield image bi of the user interface 300a in real time, their positions may be changed, and various information according to the progress of the war game situation may be displayed. and various interfaces for inputting a command signal may be provided.

As shown in FIG. 3 , the war game simulation program 300 may display the local weather condition setting interface 300b in response to the selection of the local weather condition setting affordance (waf) (selection of the affordance button by the user). .

The local meteorological condition setting interface 300b may be configured to input wind origin coordinate information WP, wind speed information WS, wind volume cover area information WC, and wind volume information WV.

As shown exemplarily in FIG. 4 , the war game simulation program 300 may display a battle estimation area BEA.

The war game simulation program 300 may set and display a battle estimation area (BEA) based on information about an expected movement path and an assembly area of troops for a battle between the enemy and friendly forces.

In various embodiments, the war game simulation program 300 may set and display a battle estimation area (BEA) based on information about a troop movement path and a troop assembly area based on a war game scenario.

The war game simulation program 300 moves past the battle estimation area (BEA) after the wind enters the area adjacent to the wind epicenter of the battle estimation area (BEA) based on the input wind epicenter coordinate information (WP). Wind direction area information (WDA) can be set so that the wind passes through the combat estimation area (BEA).

The wind may be wind blowing in an area having a set area based on the input air volume cover area information WC.

Referring to FIG. 5 , in various embodiments, the war game simulation program 300 may display a divided battle estimation area (PBEA) obtained by dividing the battle estimation area (BEA).

In some embodiments, the divided combat estimation area (PBEA) may include location information of at least one unit entity. Accordingly, each of the divided combat estimation areas PBEA may be set as an area including a point where at least one of the unit entities is located.

The war game simulation program 300 may set the wind direction area information (WDA) based on information on the selection of each of the divided battle estimation areas (PBEs) and the selection order information.

In some embodiments, if there are a total of m divisional battle estimation areas (PBEAs) (m is a natural number equal to or greater than 2), the division battle estimation area (PBE) within the battle estimation area (BEA) is selected at least m times. Order information of selection of (PBEAs) may be generated. In various embodiments, wind does not blow over unselected division battle estimation areas, but wind blows over the selected division battle estimation areas.

In various embodiments, when an n-1th non-selected area is selected among divided combat estimation areas (PBEAs), the n-1 (2<n<=m)th divided combat estimation area (PBEA) is If selected, one of the non-selected divisional battle estimation regions among the regions adjacent to the n-1th selected division battle estimation region may be selected as the nth division battle estimation region. Accordingly, the wind can move along adjacent divided combat estimation areas (PBEAs).

In addition, the area selected first among the divisional combat estimation areas (PBEAs) may be the area closest to the epicenter of the wind.

In various embodiments, the war game simulation program 300 may distinguish and display an area closest to the epicenter of the wind from among the divided battle estimation areas (PBEAs).

In various embodiments, each of the selected divided combat estimation areas (SPBEA) may be sequentially windy areas, but is not limited thereto, and wind direction area information (WDA) configuring at least some areas as windy areas is set. It could be.

In various embodiments, the wind may pass through the coordinates TE at which the unit entity is located in each of the selected divided combat estimation areas SPBEAs while moving the selected divided combat estimation areas SPBEAs. Also, the wind blowing while moving may be wind blowing in an area having a set area based on the input air volume cover area information WC.

Therefore, a windy area having an area set based on the wind volume cover area information (WC) inputted and the position of the unit entity in each of the selected divided combat estimation areas (SPBEA) and a windless division according to the wind moving direction. A combat estimation area (PBEA) may exist.

In addition, since the coordinates at which the unit entity is located here are the coordinates at the time when the wind occurrence event information is generated, it is possible that the unit entity is not selected on the divisional battle estimation area (SPBEA) where the wind has not yet reached during the war game simulation. When moving to another divisional combat estimation area (PBEA), the unit entity is not affected by the wind.

Referring to FIG. 6 , in various embodiments, the war game simulation program 300 may display set wind direction area information (WDA). In various embodiments, wind movement path information (WD) and the selected divided battle estimate area (SPBEA) are selected based on the set wind direction area information (WDA) and the input wind speed information (WP) to the selected divided battle estimation area (SPBEA). Information on the time when the wind starts to blow in each of the fields may be displayed.

Referring to FIGS. 7A and 7B , the war game simulation program 300 may generate wind generation event information based on the information input through the local weather condition setting interface 300b and the above method. The war game simulation program 300 generates distance information and set wind speed information (WS) according to the movement of selected divided battle estimation areas (SPBEAs) from the wind origin coordinate information (WP) according to the execution of the generated wind generation event information. Based on the wind movement time can be calculated. Further, the war game simulation program 300 may cause the wind having the wind volume set based on the input wind volume information (WV) to be moved from the wind origin coordinate information (WP) to the selected divided battle estimation areas (SPBEA). . Also, the war game simulation program 300 may cause wind to be formed on the covered area WCA based on the set wind volume cover area information WC.

Meanwhile, based on the distance from the epicenter of the wind to the selected divided battle estimation area SPBEA where the wind blows first and the set wind speed information WS, the wind is generated from the epicenter to the first divided battle estimation area SPBEA. The time the wind arrives may vary.

In various embodiments, the war game simulation program 300 may provide an interface for adjusting the air volume for each region in order to independently set the air volume in each of the selected divisional combat estimation areas (SPBEAs).

8 and 9, the war game simulation program 300 displays a rainfall condition setting interface 300c allowing initial precipitation information RV0 to be input in response to selection of a rainfall setting affordance raf. can

In various embodiments, the information of the initial rainfall location coordinates may be the same as the wind epicenter coordinate information WP. Also, rainfall may move along the same path as the wind. In addition, rain may be set to fall on a rainfall area WCA having the same area as the wind volume cover area based on the wind volume cover area information WC.

In various embodiments, the rain movement speed RS may satisfy Equation 1.

Equation 1

RS=p*WS (0<p<=1)

In Equation 1, p may be a preset parameter, and the p value may be adjusted. In addition, according to the condition 0<p<=1, the rainfall moving speed RS may be set to be equal to or smaller than the wind speed SW.

In addition, the precipitation amount information RVba(n) of rainfall may satisfy Equation 2.

Equation 2

RVba(n)=RV0+a1*k1-a2*k2+a3*k3-a4*k4

RVba(n) is the amount of precipitation in the nth selected divisional battle estimate area (SPBEA). And RV0 is input initial precipitation information. a1, a2, a3, and a4 are preset coefficients, which are detected through multiple regression analysis based on precipitation data for each feature of the topography, and may be preset. In addition, k1 is a first parameter based on elevation information of the terrain, k2 is a second parameter based on slope information of the terrain, k3 is a third parameter based on shape/size information of obstacles on the terrain, and k4 is a curvature on the terrain. It is a fourth parameter based on degree information.

The war game simulation program 300 detects first to fourth parameters based on elevation, slope, obstruction, and curvature information of the terrain based on terrain feature information matched to a preset terrain feature mapping coordinate (PTC), Using this, it is possible to calculate precipitation information in each of the selected divisional combat estimation areas (SPBEAs).

In various embodiments, when there are a plurality of preset terrain feature mapping coordinates (PTC) on the n-th selected divisional combat estimation area (SPBEA), the average value of each parameter of the terrain feature information mapped on each coordinate is set to the n-th selected It can be set as the first to fourth parameters (k1, k2, k3, k4) on the selected division battle estimation area (SPBEA).

The war game simulation program 300 generates a rainfall occurrence event based on the input initial precipitation information (RP1), rainfall movement speed information based on Equation 1, and precipitation information for each divided battle estimation area (SPBEA) based on Equation 2. information can be generated.

The war game simulation program 300 may detect coordinate information (LAP) of the origin of the killing substance, the amount of the killing substance by time (LV), and the concentration (LD0) of the killing substance in response to the detection of the killing substance spraying event.

The lethal substance may be generated by an explosion of a weapon used by friendly or enemy forces or a scattering event of the lethal substance.

The war game simulation program 300 may determine whether or not the coordinates of the epicenter of the lethal substance generation are located on the movement path of the wind based on the coordinate information (LAP) of the epicenter of the lethal substance generation.

In the war game simulation program 300, when the coordinates of the epicenter of the killing substance are located on the movement path of the wind, when the wind passes over an area having a preset area including the coordinates of the origin of the killing substance, the spreading of the killing substance It is possible to generate the concentration information of the killing substance for each area according to.

The war game simulation program 300 may set the information on the amount of lethal substance discharged (LV) and the concentration (LD0) of the lethal substance per hour based on the type of weapon used and the amount of the weapon used.

The hourly lethal substance emission (LV) may be an emission according to any one of seconds, minutes, and hours.

According to various embodiments, the killing material may be set to move along the same path as at least a part of the wind movement path. That is, when the wind passes over a region of a predetermined area including the coordinates of the epicenter of the killing substance, as shown in FIG. 10 , the killing substance may diffuse (LS) along the wind.

The war game simulation program 300 may detect concentration information of the killing substance in each of the divided battle estimation areas (SPBEAs) selected according to the diffusion of the killing substance.

In addition, the war game simulation program 300 may detect the concentration information of the lethal substance in consideration of the case where there is rainfall on the selected divided battle estimation area (SPBEA).

In detail, when there is current rainfall in the nth selected divisional battle estimation area SPBEA, the concentration of the lethal substance in the selected divisional battle estimation area SPBEA satisfies Equation 3, and the nth selected division battle estimation area SPBEA ), if there is no current rainfall, the concentration of the lethal substance in the selected divisional combat estimation area (SPBEA) satisfies Equation 4.

Equation 3

LDba(n)=

((sigma{LV(tn~to)})/(b*c1*c1*c2*RVba(n)))*exp((-1/2)*(((xn-xo)/c1)*( (xn-xo)/c1)))*exp((-1/2)*(((yn-yo)/c1)*((yn-yo)/c1)))*

exp((-1/2)*(((zn-zo)/c2)*((xn-xo)/c2)))

LDba(n) is the concentration of the lethal substance in the nth selected divisional combat estimate area (SPBEA). And, LV is the hourly release of the lethal substance, and sigma{LV(tn~to)} is the total amount of discharge of the lethal substance from the point of discharge of the lethal substance to the point when the lethal substance reaches the n-th selected divisional battle estimate area (SPBEA) , b is a preset constant, c1 is the standard deviation of the spread width of the lethal material in the horizontal direction, c2 is the standard deviation of the spread width of the lethal material in the vertical direction, and RVba (n) is the nth selected division battle estimation Precipitation information in the region (SPBEA), (xo, yo, zo) is the coordinate information (LAP) of the epicenter of the killing substance, and (xn, yn, zn) is the n-th selected division battle estimation area (SPBEA) in advance. It is the coordinates of the set concentration detection point. And, b may be 5.568.

Equation 4

LDba(n)=

((sigma{LV(tn~to)})/(b*c1*c1*c2))*exp((-1/2)*(((xn-xo)/c1)*((xn-xo) /c1)))*exp((-1/2)*(((yn-yo)/c1)*((yn-yo)/c1)))*

exp((-1/2)*(((zn-zo)/c2)*((xn-xo)/c2)))

If there are a plurality of concentration detection point coordinates in the nth selected divided combat estimation area (SPBEA), the coordinates of any one concentration detection point randomly selected among them are (xn, yn, zn) in Equation 3 It can be.

The war game simulation program 300 calculates the amount of lethal substance discharged per hour, the origin of the kill substance, the spread width of the kill substance, the standard deviation of the spread width of the kill substance according to the wind speed, and the nth selected divisional combat estimation area (SPBEA). Based on the precipitation information of , it is possible to detect the concentration information of the killing substance in the n-th selected divisional combat estimation area (SPBEA).

In addition, the war game simulation program 300 may periodically detect concentration information of the killing substance in each of the selected divided battle estimation areas (SPBEA) in response to the detection of the killing substance spraying event.

The war game simulation program 300 detects attributes that are changed by wind among the attributes of entities located within the selected divided combat estimation area (SPBEA) according to the execution of the generated wind occurrence event, and the resulting values of the detected attributes. can be changed. In some embodiments, the war game simulation program 300 may display information about changes in resultant values of detected attributes. In addition, the war game simulation program 300 detects attributes that change due to rain among the attributes of entities located within the selected divisional battle estimation area (SPBEA) according to the execution of a rain occurrence event, and the resulting values of the detected attributes. can be changed. In some embodiments, the war game simulation program 300 may display information about changes in resultant values of detected attributes. In addition, the war game simulation program 300 may execute lethal substance danger situation event information when the concentration of the lethal substance detected within the selected divided battle estimation area (SPBEA) exceeds a preset reference value. Also, the war game simulation program 300 may detect an attribute that is changed by a lethal substance having a dangerous level among attributes of the entity, and may change a resultant value of the detected attribute. In some embodiments, the war game simulation program 300 may display information about changes in resultant values of detected attributes.

Embodiments according to the present invention described above may be implemented in the form of program instructions that can be executed through various computer components and recorded on a computer-readable recording medium. The computer readable recording medium may include program instructions, data files, data structures, etc. alone or in combination. Program instructions recorded on the computer-readable recording medium may be specially designed and configured for the present invention, or may be known and usable to those skilled in the art of computer software. Examples of computer-readable recording media include magnetic media such as hard disks, floppy disks and magnetic tapes, optical recording media such as CD-ROMs and DVDs, and magneto-optical media such as floptical disks. medium), and hardware devices specially configured to store and execute program instructions, such as ROM, RAM, flash memory, and the like. Examples of program instructions include high-level language codes that can be executed by a computer using an interpreter or the like as well as machine language codes generated by a compiler. A hardware device may be modified with one or more software modules to perform processing according to the present invention and vice versa.

Specific implementations described in the present invention are examples and do not limit the scope of the present invention in any way. For brevity of the specification, description of conventional electronic components, control systems, software, and other functional aspects of the systems may be omitted. In addition, the connection of lines or connecting members between the components shown in the drawings are examples of functional connections and / or physical or circuit connections, which can be replaced in actual devices or additional various functional connections, physical connection, or circuit connections. In addition, if there is no specific reference such as “essential” or “important”, it may not be a component necessarily required for the application of the present invention.

In addition, the detailed description of the present invention described has been described with reference to preferred embodiments of the present invention, but those skilled in the art or those having ordinary knowledge in the art will find the spirit of the present invention described in the claims to be described later. And it will be understood that the present invention can be variously modified and changed without departing from the technical scope. Therefore, the technical scope of the present invention is not limited to the contents described in the detailed description of the specification, but should be defined by the claims.

Claims (7)

In the military war game simulation method reflecting local weather conditions,
The user interface displayed according to the execution of the war game simulation program on the computing device displays a battlefield image and a plurality of entities,
Receive wind origin coordinate information, wind speed information, wind volume cover area information, and wind volume information;
Based on the expected movement path of the enemy and friendly forces and the gathering area information of the troops, the estimated battle area is set,
While moving from the wind origin coordinates to the battle estimation area at a speed based on the wind speed information, wind generation event information for generating wind having a wind volume based on the wind volume information is provided in an area based on the wind volume cover area information. create,
According to the execution of the wind generation event, among the plurality of entities, among the attributes of entities located in the region where the wind is generated, a property changed by the wind is detected and a resultant value of the detected property is changed.
A military war game simulation method reflecting local weather conditions. According to claim 1,
Dividing the combat estimation area into divided combat estimation areas;
Each of the divisional combat estimation areas includes at least one unit entity;
setting wind movement path information based on selection of each of at least some divisional battle estimation regions among the division battle estimation regions and information on an order of selection;
The wind volume cover area information includes a unit entity coordinate point in each of the divided combat estimation areas;
To cause the wind to move based on the movement path information of the wind according to the execution of the wind generation event
A military war game simulation method reflecting local weather conditions. According to claim 2,
Upon receiving the initial rainfall information, the initial rainfall location coordinates are set as the wind origin coordinates, the rainfall movement path is set as the wind movement path, and a rainfall area having the same area as the wind volume cover area is set, and Equation 1 Setting the movement speed of rainfall that satisfies Equation 2, setting the amount of precipitation in each of the selected divided battle estimation areas that satisfies Equation 2 to generate rainfall occurrence event information,
According to the execution of the event of occurrence of rainfall, among the plurality of entities, among the attributes of entities located in the area where the rainfall is generated, an attribute that is changed by the rainfall is detected and a resultant value of the detected attribute is changed.
A military war game simulation method reflecting local weather conditions.
[Equation 1]
RS=p*WS (0<p<=1)
In Equation 1, p is a preset parameter, and WS is wind speed.
[Equation 2]
RVba(n)=RV0+a1*k1-a2*k2+a3*k3-a4*k4
In Equation 2, RVba(n) is the amount of precipitation in the n (1<n<=m, where m is the total number of divided battle estimation areas) th selected division battle estimation area, RV0 is the input initial precipitation information, a1, a2, a3, and a4 are preset coefficients, and k1, k2, k3, and k4 are parameters set based on the characteristics of terrain on the nth selected divided battle estimation area. According to claim 2,
In response to the detection of the killing substance spraying event, coordinate information of the origin of the killing substance, the amount of the killing substance by time, and the concentration information of the killing substance are detected,
Determining whether the coordinates of the epicenter of the killing substance are located on the movement path of the wind,
When the coordinates of the epicenter of the killing substance are located on the movement path of the wind,
When the wind passes over a region having a preset area including the coordinates of the origin of the killing substance, generating concentration information of the killing substance for each region according to the diffusion of the killing substance;
If the concentration of the deadly substance detected in the selected estimated divided battle area exceeds a preset reference value, a lethal substance danger situation event is executed. Detecting the attributes changed by the killing substance and changing the result value of the detected attributes
A military war game simulation method reflecting local weather conditions. According to claim 4,
The concentration information of the killing substance for each region according to the diffusion of the killing substance satisfies Equation 3
A military war game simulation method reflecting local weather conditions.
[Equation 3]
LDba(n)=
((sigma{LV(tn~to)})/(b*c1*c1*c2))*exp((-1/2)*(((xn-xo)/c1)*((xn-xo) /c1)))*exp((-1/2)*(((yn-yo)/c1)*((yn-yo)/c1)))*
exp((-1/2)*(((zn-zo)/c2)*((xn-xo)/c2)))
In Equation 3, LDba (n) is the concentration of the killing substance in the nth selected divisional combat estimation area, LV is the hourly killing substance discharge, and sigma {LV (tn ~ to)} is the killing substance from the point of discharge of the killing substance This is the total amount of lethal material discharged until the nth selected divisional combat estimate area (SPBEA) is reached, b is a preset constant, c1 is the standard deviation of the spread width of the lethal material in the horizontal direction, and c2 is the vertical direction. is the standard deviation of the spread width of the lethal substance, (xo, yo, zo) is the coordinate information of the epicenter of the deadly substance occurrence, and (xn, yn, zn) is the concentration detection point set in advance within the n-th selected divided combat estimation area is the coordinates According to claim 3,
In response to the detection of the killing substance spraying event, coordinate information of the origin of the killing substance, the amount of the killing substance by time, and the concentration information of the killing substance are detected,
Determining whether the coordinates of the epicenter of the killing substance are located on the movement path of the wind,
When the coordinates of the epicenter of the killing substance are located on the movement path of the wind,
When the wind passes over a region having a preset area including the coordinates of the epicenter of the killing substance, generating concentration information of the killing substance in consideration of the amount of precipitation for each region according to the diffusion of the killing substance;
If the concentration of the deadly substance detected in the selected estimated divided battle area exceeds a preset reference value, a lethal substance danger situation event is executed. Detecting the attributes changed by the killing substance and changing the result value of the detected attributes
A military war game simulation method reflecting local weather conditions. According to claim 6,
The concentration information of the killing substance for each area according to the diffusion of the killing substance satisfies Equation 3
A military war game simulation method reflecting local weather conditions.
[Equation 4]
LDba(n)=
((sigma{LV(tn~to)})/(b*c1*c1*c2*RVba(n)))*exp((-1/2)*(((xn-xo)/c1)*( (xn-xo)/c1)))*exp((-1/2)*(((yn-yo)/c1)*((yn-yo)/c1)))*
exp((-1/2)*(((zn-zo)/c2)*((xn-xo)/c2)))
In Equation 4, LDba (n) is the concentration of the killing substance in the nth selected divisional battle estimation area, LV is the hourly killing substance discharge, and sigma {LV (tn ~ to)} is the killing substance from the point of discharge of the killing substance This is the total amount of lethal material discharged until the nth selected divisional combat estimate area (SPBEA) is reached, b is a preset constant, c1 is the standard deviation of the spread width of the lethal material in the horizontal direction, and c2 is the vertical direction. is the standard deviation of the spread width of the lethal substance, RVba(n) is the precipitation information in the nth selected divisional battle estimation area (SPBEA), (xo, yo, zo) is the coordinate information of the epicenter of the deadly substance occurrence, ( xn, yn, zn) are the coordinates of a preset concentration detection point in the nth selected divided battle estimation region.

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