EP2101138A1 - Sniper training system - Google Patents
Sniper training system Download PDFInfo
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- EP2101138A1 EP2101138A1 EP08170624A EP08170624A EP2101138A1 EP 2101138 A1 EP2101138 A1 EP 2101138A1 EP 08170624 A EP08170624 A EP 08170624A EP 08170624 A EP08170624 A EP 08170624A EP 2101138 A1 EP2101138 A1 EP 2101138A1
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- Prior art keywords
- sniper
- training system
- trainer
- reticle
- skills training
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- 238000012549 training Methods 0.000 title claims abstract description 68
- 238000009877 rendering Methods 0.000 claims abstract description 14
- 238000013500 data storage Methods 0.000 claims abstract description 6
- 238000010586 diagram Methods 0.000 description 10
- 238000010304 firing Methods 0.000 description 9
- 238000004088 simulation Methods 0.000 description 8
- 238000000034 method Methods 0.000 description 7
- 230000003993 interaction Effects 0.000 description 4
- 238000012552 review Methods 0.000 description 3
- 230000006399 behavior Effects 0.000 description 2
- 241001310793 Podium Species 0.000 description 1
- 238000013473 artificial intelligence Methods 0.000 description 1
- 238000004364 calculation method Methods 0.000 description 1
- 230000005484 gravity Effects 0.000 description 1
- 230000003287 optical effect Effects 0.000 description 1
- 238000013386 optimize process Methods 0.000 description 1
- 238000012545 processing Methods 0.000 description 1
- 230000004044 response Effects 0.000 description 1
- 230000003068 static effect Effects 0.000 description 1
Images
Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F41—WEAPONS
- F41G—WEAPON SIGHTS; AIMING
- F41G3/00—Aiming or laying means
- F41G3/26—Teaching or practice apparatus for gun-aiming or gun-laying
- F41G3/2616—Teaching or practice apparatus for gun-aiming or gun-laying using a light emitting device
- F41G3/2622—Teaching or practice apparatus for gun-aiming or gun-laying using a light emitting device for simulating the firing of a gun or the trajectory of a projectile
- F41G3/2644—Displaying the trajectory or the impact point of a simulated projectile in the gunner's sight
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F41—WEAPONS
- F41G—WEAPON SIGHTS; AIMING
- F41G3/00—Aiming or laying means
- F41G3/26—Teaching or practice apparatus for gun-aiming or gun-laying
- F41G3/2616—Teaching or practice apparatus for gun-aiming or gun-laying using a light emitting device
- F41G3/2622—Teaching or practice apparatus for gun-aiming or gun-laying using a light emitting device for simulating the firing of a gun or the trajectory of a projectile
- F41G3/2627—Cooperating with a motion picture projector
- F41G3/2633—Cooperating with a motion picture projector using a TV type screen, e.g. a CRT, displaying a simulated target
Definitions
- Snipers are utilized in various types of battle situations and environments, and can be a force multiplier on the battlefield if the respective sniper is well trained for the specific engagement. Training for a specific engagement however, is sometimes difficult. Current training methods can effectively train a sniper on aspects of marksmanship such as breath control, stance, support, and trigger control but are often lacking in addressing the critical skills for determining the point-of-aim on a target.
- Determination of the point-of-aim on a target requires the consideration of several factors, and the combinations of those factors, including distance, wind and other weather conditions, target movements, and parallax. This is a skill that requires substantial practice not only to learn, but to maintain as well.
- Point-of-aim practice is currently limited to firing range facilities, resulting in a limited variety of distance and weather condition. Sniper trainees would also need to relocate among firing range facilities to receive a more comprehensive training, costing time and money.
- firing range facilities which are suitable for sniper training, are not always available at all bases and when soldiers are deployed.
- Trace which is the vapor trail formed by the bullet due to air turbulence, allows the trainer and the trainee to observe the path of the bullet to determine the point of impact on the target.
- the vapor trail however, lasts only a matter of seconds, making it difficult for new trainees to learn.
- the sniper training system comprises a computer trainer station having a 3D rendering engine, a computer display, a trainer user interface module, at least one database, and a data storage; and a simulated rifle unit having a near-to-eye display and a hardware interface module, wherein the trainer station is interfaced with the simulated rifle unit to provide a simulated training scenario.
- Figure 1 is a pictorial diagram showing the sniper training system 100, including a trainer computer station 102 and a simulated trainee rifle unit 104, according to one embodiment of the invention.
- the trainer computer station 102 acts as the host to the simulations for training. Scenarios are created and loaded into the computer to provide the appropriate conditions that the trainee is preparing for.
- the trainer computer station 102 is interfaced with the simulated rifle unit 104, which the trainee uses to simulate aiming and firing at targets during training. While the trainer computer station 102 is preferably a laptop or other portable computer for increased portability, other processing devices alternatively may be used.
- the simulated rifle unit 104 includes a trigger sensor 110, a motion tracker 106, and a near-to-eye display system 112 with adjustment knobs 108.
- the main structure of the simulated rifle unit 104 is a construct of materials similar to those of an actual sniper rifle, such that the training simulations are as realistic as possible.
- the simulated rifle unit 104 does not need to be in the shape or form of an actual sniper rifle. For instance, a smaller unit may be appropriate for portability.
- Determining the point-of-aim for a target is performed through the use of a scope.
- the near-to-eye display system 112 which is in the shape of a scope, is mounted on the simulated rifle structure, similar to how scopes are mounted on the top of actual sniper rifles. Looking into the near-to-eye display system 112, the trainee will see a high resolution, realistic training environment. Incorporated in the near-to-eye system 112 are adjustment knobs 108 for simulated windage control, elevation control, and parallax compensation.
- the scope orientation tracker 106 senses orientation of the simulated rifle unit.
- Information from this sensor along with input via the adjustment knobs 108 are processed by the trainer computer station 102 and the image in the near-to-eye display system 112 is updated in real-time.
- the trigger sensor 110 is excited when the trainee has determined the point-of-aim for the target in the scenario and takes the shot.
- FIG. 2 is a block diagram showing the software architecture 200 of the sniper training system, according to one embodiment of the invention.
- the entire architecture can be divided into two sections - a simulated rifle unit 244 and a simulation hosting trainer computer 246.
- the simulated rifle unit 244 includes a near-to-eye display 236 and a hardware interface module 238.
- the hardware interface module 238 includes a scope orientation tracker 204, a windage input 206, an elevation input 208, a parallax input 210, and a trigger input 212, all connected to the simulation hosting trainer computer 246 via a hardware interface 248.
- the simulation hosting trainer computer system 246 includes a computer display 202, a trainer user interface module 240, a 3D rendering engine 242, a maps database 232, a scenarios database 234, and a data storage 226.
- the trainer user interface module 240 and 3D rendering engine 242 execute method steps, as shown in Figure 2 .
- the trainer user interface module 240 includes a map, scenario and conditions selection step 214, an initiate step 216, a monitor hardware step 218, a record and log data step 220, a calculate ballistic physics step 222, and an after action review (AAR) step 224.
- the 3D rendering engine 242 includes a load map and scenario step 228 and a simulation rendering step 230.
- the data flow within the software architecture 200 begins with the maps, scenario and conditions selection 214.
- a trainer or trainee can select from the geographical maps database 232 and scenarios database 234.
- Geographical maps can be representations of actual locations, or virtually created environments. Scenarios will include different target situations, such as riding in a moving vehicle or standing at a podium, and different target behaviors. Entry-level scenarios may include static targets whereas high-level scenarios may include targets moving in less predictable ways.
- Conditions that can be selected will include weather elements that can affect the trajectory of a bullet, such as wind, rain fall, and elevation etc. Once these elements are selected, the training session will begin.
- An alternative to trainer or trainee selections of scenarios or conditions is random scenario generation. The sniper training system can generate random scenarios or semi-random scenarios that are increasingly more difficult, based on the trainee's prior performance.
- the initiate step 216 activates the hardware interface module 238 in the simulated rifle unit 244 and loads the map and scenario 228 that was previously selected into the 3D rendering engine 242.
- the 3D rendering engine can be a commercially available graphics engine such as the Unreal Engine 3 by Epic Games.
- foliage and groundcover can be rendered using programs such as the SpeedTree Application Programming Interface.
- Target models can be created using applications such as 3D Studio Max or Maya and imported into the user set virtual training environment.
- Most graphic engines, including the aforementioned Unreal Engine 3 offer robust artificial intelligence that closely approximates human target behaviors. With the provided map and scenario information and selected conditions, simulation rendering 230 occurs and the resulting image is presented to the trainee via the near-to-eye display 236.
- the image presented through the near-to-eye display 236 includes a reticle, which is standard in optical scope eyepieces.
- a reticle which is standard in optical scope eyepieces.
- various types of reticles such as the army reticle, the marine reticle, or the Horus reticle can be available for selection.
- the goal is to produce a realistic environment for the trainee when looking into the near-to-eye display 236.
- the rendered image will also be present on the computer display 202 .
- the trainee will make adjustments to elements in the hardware interface module 238 .
- Moving the simulated rifle unit 244 will prompt input from the scope orientation tracker 204.
- the scope orientation tracker 204 that provides input to the hardware interface 204 calculates the direction the simulated rifle unit 244 is pointed.
- the hardware interface 204 sends the acquired information to the monitor hardware 218 which relays the information for simulation rendering 230 to provide an updated image on the near-to-eye display 236 and computer display 202 in real-time. Similar steps are executed in response to windage input 206, elevation input 208, and parallax input 210.
- Windage adjustment is the side to side adjustment of the scope on a rifle, to account for the side force on a projectile from a cross wind.
- Elevation adjustment is the up down adjustment of the scope on a rifle to account for bullet drop as a result of gravity which varies depending on the distance to the target.
- Parallax compensation accounts for aiming errors from positioning one's eyes at different angles against the rifle scope. This error is often magnified when the target is moving.
- This process continues in a loop until the trainee has determined the point-of-aim and is ready to take the shot. Each adjustment can be recorded and logged 220 then stored 226 for review later on and used to improve the trainee's process to determine point-of-aim.
- a trigger input 212 will be sent to the monitor hardware 218 via the hardware interface 204.
- This trigger input 212 will initiate ballistic physics calculation 222 to simulate the bullet path and result of the shot.
- the simulated firing event will be rendered 230 and be shown in real-time on the computer display 202 and the near-to-eye display 236 .
- the rendered real-time image will be similar to the result of an actual firing of a rifle, including the quickly disappearing bullet trace.
- the resulting simulated firing event will be recorded and logged 220 and stored 226 and will also be immediately available for AAR 224 .
- graphics rendering 230 and display on the computer display 202 the trainee and/or trainer can have a closer and more detailed look at the firing event that had just occurred, providing immediate feedback.
- the training system can also generate recommended scope adjustments and/or point of aims for the scenario.
- Recommended scope adjustments and point of aims allows the trainee to compare his/her process to an optimized process.
- the recommended scope adjustments are an optimized series of adjustments that allows a sniper to quickly determine a point of aim.
- the recommended point of aim can be generated either from the resulting scope adjustments by the trainee or the recommended scope adjustments and can be shown on the display in the form of an indicator such as a red dot or a red crosshair.
- Figure 3A is a flow diagram 300 showing the interaction between a trainee 302 and a sniper training system 304 during a training session, according to one embodiment of the invention.
- the different components include the trainee 302 ; the sniper skills training system 304 , which further includes a near-to-eye display 306 , scope adjustments 308 , a trigger sensor 314 , and training session results 310 ; and a training scenario 312 input.
- the training scenario 312 is selected and loaded into the sniper training system 304 .
- the trainee 302 will now be able to look into the near-to-eye display 306 and begin to determine the best point-of-aim for the target in the loaded scenario by making simulated scope adjustments 308 .
- the display 306 is updated in accordance with the adjustments 308 .
- the trainee 302 will continue this process to make adjustments to determine the best point-of-aim.
- the point-of-aim to take the shot is determined, the trainee 302 will excite the trigger sensor 314 .
- the result of the shot is then simulated and stored in the training session results 310 .
- the trainee can continue to make adjustments and take additional shots within the loaded scenario.
- the trainee 302 can look at the output of the training session results 310 either immediately after the shot, or after all the training scenarios have been completed.
- Figure 3B is a flow diagram 350 showing the interaction between a trainee 352 and a sniper training system 354 during a training session with the help of a trainer 362 , according to one embodiment of the invention.
- the sniper training system in this embodiment includes a near-to-eye display 356 , a computer display 366, scope adjustments 358, a trigger sensor 364, and training session results 360.
- the trainer 362 can select the scenario for the session. While the trainee 352 goes through the process of determining a point-of-aim for the target, the trainer 362 can monitor the trainee's selections through the computer display 366 and has the option to provide real-time feedback to the trainee 352 . At the end of the training session, the trainer 362 can review the training session results 360 and provide feedback to the trainee 352 based on those results.
- FIG 4 is a pictorial diagram showing the setup of a sniper training session 400 using a sniper training system 414 , in one embodiment of the invention.
- the sniper training session 400 shown involves a trainer 402 , a trainee 404 and a sniper skills training system 414.
- the sniper training system 414 includes a simulated rifle unit 406 , the trainer computer station 408 , a connection 412 from the computer station 408 to the rifle unit 406 , and a connection 410 from the rifle unit 406 to the computer station 408 . While wired communications 410 and 412 are shown, the connections 410 and 412 may alternatively be wireless.
- the trainer 402 operates the computer station 408 portion of the sniper training system 414 , while the trainee 404 operates the simulated rifle unit 406 portion of the sniper training system 414 .
- One alternative training session setup may involve only a trainee operating both the computer station as well as the simulated rifle unit.
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Abstract
For improved sniper training, a sniper skills training system is described. The sniper training system comprises a computer trainer station having a 3D rendering engine, a computer display, a trainer user interface module, at least one database, and a data storage; and a simulated rifle unit having a near-to-eye display and a hardware interface module, wherein the trainer station is interfaced with the simulated rifle unit to provide a simulated training scenario.
Description
- Snipers are utilized in various types of battle situations and environments, and can be a force multiplier on the battlefield if the respective sniper is well trained for the specific engagement. Training for a specific engagement however, is sometimes difficult. Current training methods can effectively train a sniper on aspects of marksmanship such as breath control, stance, support, and trigger control but are often lacking in addressing the critical skills for determining the point-of-aim on a target.
- Determination of the point-of-aim on a target requires the consideration of several factors, and the combinations of those factors, including distance, wind and other weather conditions, target movements, and parallax. This is a skill that requires substantial practice not only to learn, but to maintain as well.
- Point-of-aim practice is currently limited to firing range facilities, resulting in a limited variety of distance and weather condition. Sniper trainees would also need to relocate among firing range facilities to receive a more comprehensive training, costing time and money. In addition, firing range facilities which are suitable for sniper training, are not always available at all bases and when soldiers are deployed.
- Another component to point-of-aim training is the ability to observe trace. Trace, which is the vapor trail formed by the bullet due to air turbulence, allows the trainer and the trainee to observe the path of the bullet to determine the point of impact on the target. The vapor trail however, lasts only a matter of seconds, making it difficult for new trainees to learn.
- For improved sniper training, a sniper skills training system is described. The sniper training system comprises a computer trainer station having a 3D rendering engine, a computer display, a trainer user interface module, at least one database, and a data storage; and a simulated rifle unit having a near-to-eye display and a hardware interface module, wherein the trainer station is interfaced with the simulated rifle unit to provide a simulated training scenario.
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Figure 1 is a pictorial diagram showing the sniper training system, including a trainer computer station and a simulated trainee rifle unit, according to one embodiment of the invention. -
Figure 2 is a block diagram showing the software architecture of the sniper training system, according to one embodiment of the invention. -
Figure 3A is a flow diagram showing the interaction between the trainee and the sniper training system during a training session, according to one embodiment of the invention. -
Figure 3B is a flow diagram showing the interaction between the trainee and the sniper training system during a training session with the help of a trainer, according to one embodiment of the invention. -
Figure 4 is a pictorial diagram showing the setup of a sniper training session using a sniper training system, according to one embodiment of the invention. -
Figure 1 is a pictorial diagram showing thesniper training system 100, including atrainer computer station 102 and a simulatedtrainee rifle unit 104, according to one embodiment of the invention. Thetrainer computer station 102 acts as the host to the simulations for training. Scenarios are created and loaded into the computer to provide the appropriate conditions that the trainee is preparing for. Thetrainer computer station 102 is interfaced with the simulatedrifle unit 104, which the trainee uses to simulate aiming and firing at targets during training. While thetrainer computer station 102 is preferably a laptop or other portable computer for increased portability, other processing devices alternatively may be used. - The simulated
rifle unit 104 includes atrigger sensor 110, amotion tracker 106, and a near-to-eye display system 112 withadjustment knobs 108. In one embodiment of this invention, the main structure of the simulatedrifle unit 104 is a construct of materials similar to those of an actual sniper rifle, such that the training simulations are as realistic as possible. Alternatively, the simulatedrifle unit 104 does not need to be in the shape or form of an actual sniper rifle. For instance, a smaller unit may be appropriate for portability. - Determining the point-of-aim for a target, which is a core aspect of sniper skills training, is performed through the use of a scope. The near-to-
eye display system 112, which is in the shape of a scope, is mounted on the simulated rifle structure, similar to how scopes are mounted on the top of actual sniper rifles. Looking into the near-to-eye display system 112, the trainee will see a high resolution, realistic training environment. Incorporated in the near-to-eye system 112 areadjustment knobs 108 for simulated windage control, elevation control, and parallax compensation. The scope orientation tracker 106 senses orientation of the simulated rifle unit. Information from this sensor along with input via theadjustment knobs 108 are processed by thetrainer computer station 102 and the image in the near-to-eye display system 112 is updated in real-time. Thetrigger sensor 110 is excited when the trainee has determined the point-of-aim for the target in the scenario and takes the shot. -
Figure 2 is a block diagram showing thesoftware architecture 200 of the sniper training system, according to one embodiment of the invention. The entire architecture can be divided into two sections - a simulatedrifle unit 244 and a simulationhosting trainer computer 246. - The simulated
rifle unit 244 includes a near-to-eye display 236 and ahardware interface module 238. Thehardware interface module 238 includes ascope orientation tracker 204, awindage input 206, anelevation input 208, aparallax input 210, and atrigger input 212, all connected to the simulationhosting trainer computer 246 via ahardware interface 248. - The simulation hosting
trainer computer system 246 includes acomputer display 202, a traineruser interface module 240, a3D rendering engine 242, amaps database 232, ascenarios database 234, and adata storage 226. - The trainer
user interface module 3D rendering engine 242 execute method steps, as shown inFigure 2 . The traineruser interface module 240 includes a map, scenario andconditions selection step 214, aninitiate step 216, amonitor hardware step 218, a record andlog data step 220, a calculateballistic physics step 222, and an after action review (AAR)step 224. The3D rendering engine 242 includes a load map andscenario step 228 and asimulation rendering step 230. - The data flow within the
software architecture 200 begins with the maps, scenario andconditions selection 214. Here a trainer or trainee can select from thegeographical maps database 232 andscenarios database 234. Geographical maps can be representations of actual locations, or virtually created environments. Scenarios will include different target situations, such as riding in a moving vehicle or standing at a podium, and different target behaviors. Entry-level scenarios may include static targets whereas high-level scenarios may include targets moving in less predictable ways. Conditions that can be selected will include weather elements that can affect the trajectory of a bullet, such as wind, rain fall, and elevation etc. Once these elements are selected, the training session will begin. An alternative to trainer or trainee selections of scenarios or conditions is random scenario generation. The sniper training system can generate random scenarios or semi-random scenarios that are increasingly more difficult, based on the trainee's prior performance. - The
initiate step 216 activates thehardware interface module 238 in the simulatedrifle unit 244 and loads the map andscenario 228 that was previously selected into the3D rendering engine 242. The 3D rendering engine can be a commercially available graphics engine such as the Unreal Engine 3 by Epic Games. In addition, foliage and groundcover can be rendered using programs such as the SpeedTree Application Programming Interface. Target models can be created using applications such as 3D Studio Max or Maya and imported into the user set virtual training environment. Most graphic engines, including the aforementioned Unreal Engine 3 offer robust artificial intelligence that closely approximates human target behaviors. With the provided map and scenario information and selected conditions,simulation rendering 230 occurs and the resulting image is presented to the trainee via the near-to-eye display 236. The image presented through the near-to-eye display 236 includes a reticle, which is standard in optical scope eyepieces. For versatility, various types of reticles, such as the army reticle, the marine reticle, or the Horus reticle can be available for selection. The goal is to produce a realistic environment for the trainee when looking into the near-to-eye display 236. The rendered image will also be present on thecomputer display 202. - Based on what is seen in the near-to-
eye display 236, the trainee will make adjustments to elements in thehardware interface module 238. Moving thesimulated rifle unit 244 will prompt input from thescope orientation tracker 204. Thescope orientation tracker 204 that provides input to thehardware interface 204 calculates the direction thesimulated rifle unit 244 is pointed. Thehardware interface 204 sends the acquired information to themonitor hardware 218 which relays the information forsimulation rendering 230 to provide an updated image on the near-to-eye display 236 andcomputer display 202 in real-time. Similar steps are executed in response towindage input 206,elevation input 208, andparallax input 210. Windage adjustment is the side to side adjustment of the scope on a rifle, to account for the side force on a projectile from a cross wind. Elevation adjustment is the up down adjustment of the scope on a rifle to account for bullet drop as a result of gravity which varies depending on the distance to the target. Parallax compensation accounts for aiming errors from positioning one's eyes at different angles against the rifle scope. This error is often magnified when the target is moving. - This process continues in a loop until the trainee has determined the point-of-aim and is ready to take the shot. Each adjustment can be recorded and logged 220 then stored 226 for review later on and used to improve the trainee's process to determine point-of-aim.
- Then the trainee will activate the trigger sensor when point-of-aim has been determined and a
trigger input 212 will be sent to themonitor hardware 218 via thehardware interface 204. Thistrigger input 212 will initiateballistic physics calculation 222 to simulate the bullet path and result of the shot. The simulated firing event will be rendered 230 and be shown in real-time on thecomputer display 202 and the near-to-eye display 236. The rendered real-time image will be similar to the result of an actual firing of a rifle, including the quickly disappearing bullet trace. - The resulting simulated firing event will be recorded and logged 220 and stored 226 and will also be immediately available for
AAR 224. Through graphics rendering 230 and display on thecomputer display 202, the trainee and/or trainer can have a closer and more detailed look at the firing event that had just occurred, providing immediate feedback. - In addition to providing the trainee and/or trainer with feedback in the form of a rendering of the firing event, the training system can also generate recommended scope adjustments and/or point of aims for the scenario. Recommended scope adjustments and point of aims allows the trainee to compare his/her process to an optimized process. The recommended scope adjustments are an optimized series of adjustments that allows a sniper to quickly determine a point of aim. The recommended point of aim can be generated either from the resulting scope adjustments by the trainee or the recommended scope adjustments and can be shown on the display in the form of an indicator such as a red dot or a red crosshair.
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Figure 3A is a flow diagram 300 showing the interaction between atrainee 302 and asniper training system 304 during a training session, according to one embodiment of the invention. The different components include thetrainee 302; the sniperskills training system 304, which further includes a near-to-eye display 306,scope adjustments 308, atrigger sensor 314, and training session results 310; and atraining scenario 312 input. - First, the
training scenario 312 is selected and loaded into thesniper training system 304. Thetrainee 302 will now be able to look into the near-to-eye display 306 and begin to determine the best point-of-aim for the target in the loaded scenario by makingsimulated scope adjustments 308. Thedisplay 306 is updated in accordance with theadjustments 308. Thetrainee 302 will continue this process to make adjustments to determine the best point-of-aim. When the point-of-aim to take the shot is determined, thetrainee 302 will excite thetrigger sensor 314. The result of the shot is then simulated and stored in the training session results 310. After the shot is taken, the trainee can continue to make adjustments and take additional shots within the loaded scenario. Thetrainee 302 can look at the output of the training session results 310 either immediately after the shot, or after all the training scenarios have been completed. -
Figure 3B is a flow diagram 350 showing the interaction between atrainee 352 and asniper training system 354 during a training session with the help of atrainer 362, according to one embodiment of the invention. The sniper training system in this embodiment includes a near-to-eye display 356, acomputer display 366,scope adjustments 358, atrigger sensor 364, and training session results 360. - The
trainer 362 can select the scenario for the session. While thetrainee 352 goes through the process of determining a point-of-aim for the target, thetrainer 362 can monitor the trainee's selections through thecomputer display 366 and has the option to provide real-time feedback to thetrainee 352. At the end of the training session, thetrainer 362 can review the training session results 360 and provide feedback to thetrainee 352 based on those results. -
Figure 4 is a pictorial diagram showing the setup of asniper training session 400 using asniper training system 414, in one embodiment of the invention. Thesniper training session 400 shown involves atrainer 402, atrainee 404 and a sniperskills training system 414. Thesniper training system 414 includes asimulated rifle unit 406, thetrainer computer station 408, aconnection 412 from thecomputer station 408 to therifle unit 406, and aconnection 410 from therifle unit 406 to thecomputer station 408. Whilewired communications connections - The
trainer 402 operates thecomputer station 408 portion of thesniper training system 414, while thetrainee 404 operates thesimulated rifle unit 406 portion of thesniper training system 414. One alternative training session setup may involve only a trainee operating both the computer station as well as the simulated rifle unit.
Claims (10)
- A sniper skills training system, comprising:a computer trainer station having a 3D rendering engine, a computer display, a trainer user interface module, at least one database, and a data storage; and a simulated rifle unit having a near-to-eye display and a hardware interface 1. A sniper skills training system, comprising:a computer trainer station having a 3D rendering engine, a computer display, a trainer user interface module, at least one database, and a data storage; anda simulated rifle unit having a near-to-eye display and a hardware interface module, wherein the trainer station is interfaced with the simulated rifle unit to provide a simulated training scenario.
- The sniper skills training system in Claim 1, wherein the at least one database comprises a maps database.
- The sniper skills training system in Claim 1, wherein the at least one database comprises a scenarios database.
- The sniper skills training system in Claim 1, wherein the at least one database comprises a maps database and a scenarios database.
- The sniper skills training system in Claim 1, wherein the data storage is a portable storage device.
- The sniper skills training system in Claim 1, wherein the hardware interface module is a wireless interface module.
- The sniper skills training system in Claim 1, wherein the simulated rifle unit is constructed to physical specifications of an actual rifle.
- The sniper skills training system in Claim 1, wherein the computer trainer system is a laptop computer.
- The sniper skills training system in Claim 1, wherein the near-to-eye display contains a reticle.
- The sniper skills training system in Claim 9, wherein the reticle is chosen from the group consisting of army reticle, marine reticle, Horus reticle, German reticle, SVD type reticle, mil-dot reticle, and range-finding reticle.
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
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US11/956,922 US20090155747A1 (en) | 2007-12-14 | 2007-12-14 | Sniper Training System |
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EP2101138A1 true EP2101138A1 (en) | 2009-09-16 |
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EP08170624A Withdrawn EP2101138A1 (en) | 2007-12-14 | 2008-12-03 | Sniper training system |
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US10480903B2 (en) * | 2012-04-30 | 2019-11-19 | Trackingpoint, Inc. | Rifle scope and method of providing embedded training |
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