Probabilistic low-power position and orientation
A base station server of a combat simulation system includes, a communications interface, a processor and a memory. The memory has instructions stored thereon that, when executed by the processor, cause the processor to receive an indication of a trigger pull from a weapon device and receive a data packet from the weapon device. The data packet may include an orientation of the weapon device and a position of the weapon device. The instructions further cause the processor to determine a position and an orientation of a target and identify a ballistic path of a simulated projectile fired from the weapon device. The ballistic path may be based at least in part on the orientation and the position of the weapon device. The instructions further cause the processor to determine a ballistic outcome by identifying whether the ballistic path intersects with the position of the target.
1. A base station server of a combat simulation system, comprising:
a communications interface;
at least one processor; and
a memory having instructions stored thereon that, when executed by the at least one processor, cause the at least one processor to:
receive an indication of a trigger pull from a weapon device;
receive a data packet from the weapon device, the data packet comprising an orientation of the weapon device and a position of the weapon device;
determine a position and an orientation of a target;
identify a ballistic path of a simulated projectile fired from the weapon device, wherein the ballistic path is based at least in part on:
the orientation and the position of the weapon device, the orientation of the weapon device comprising:
a canting angle of the weapon device;
an azimuth angle of the weapon device; and
an elevation angle of the weapon device, and
at least one of:
an estimated uncertainty of the canting angle of the weapon device,
an estimated uncertainty of the azimuth angle of the weapon device, and
an estimated uncertainty of the elevation angle of the weapon device; and
determine a ballistic outcome by identifying whether the ballistic path intersects with the position of the target.
2. The base station server of a combat simulation system of claim 1 , wherein:
the data packet further comprises an estimated uncertainty of one or both of the position of the weapon device and the orientation of the weapon device; and
identifying the ballistic path is further based at least in part on the estimated uncertainty.
3. The base station server of a combat simulation system of claim 1 , wherein:
the indication of the trigger pull further comprises a timestamp of the trigger pull;
the instructions further cause the at least one processor to determine a velocity and heading of one or both of the weapon device and the target; and
determining the ballistic outcome is further based on the velocity and heading of one or both of the weapon device and the target.
4. The base station server of a combat simulation system of claim 3 , wherein:
determining the position and the orientation of the target comprises generating a number of positions indicative of a movement path of the target based on the velocity and heading of the target; and
determining the ballistic outcome by identifying whether the ballistic path intersects with the position of the target further comprises comparing the ballistic path with at least one of the number of positions based on the timestamp of the trigger pull, a distance between the weapon device and the target, and a velocity map of the simulated projectile.
5. The base station server of a combat simulation system of claim 1 , wherein:
the ballistic path is further based on one or more of:
ballistic properties associated with the weapon device and the simulated projectile;
environmental conditions;
a canting angle of the weapon device; and
gravitational effects on the simulated projectile.
6. The base station server of a combat simulation system of claim 1 , wherein:
the instructions further cause the at least one processor to provide feedback related to the ballistic outcome to one or both of a user of the weapon device and the target.
7. The base station server of a combat simulation system of claim 1 , wherein:
the instructions further cause the at least one processor to calibrate one or both of the orientation and the position of the weapon device by comparing known locations of one or more objects relative to the orientation and the position of the weapon device.
8. A method of determining a ballistic outcome of a simulated round at a base station server, comprising:
receiving an indication of a trigger pull from a weapon device;
receiving a data packet from the weapon device, the data packet comprising an orientation of the weapon device and a position of the weapon device;
determining a position and an orientation of a target;
identifying a ballistic path of a simulated projectile fired from the weapon device, wherein the ballistic path is based at least in part on:
the orientation and the position of the weapon device, the orientation of the weapon device comprising:
a canting angle of the weapon device;
an azimuth angle of the weapon device; and
an elevation angle of the weapon device, and
at least one of:
an estimated uncertainty of the canting angle of the weapon device;
an estimated uncertainty of the azimuth angle of the weapon device; and
an estimated uncertainty of the elevation angle of the weapon device; and
determining a ballistic outcome by identifying whether the ballistic path intersects with the position of the target.
9. The method of determining a ballistic outcome of a simulated round at a base station server of claim 8 , wherein:
the indication of the trigger pull and the data packet are received as part of a single message from the weapon device.
10. The method of determining a ballistic outcome of a simulated round at a base station server of claim 8 , wherein:
the data packet further comprises an estimated uncertainty of one or both of the position of the weapon device and the orientation of the weapon device; and
identifying the ballistic path is further based at least in part on the estimated uncertainty.
11. The method of determining a ballistic outcome of a simulated round at a base station server of claim 8 , wherein:
the indication of the trigger pull further comprises a timestamp of the trigger pull;
the method further comprises determining a velocity and heading of one or both of the weapon device and the target; and
determining the ballistic outcome is further based on the velocity and heading of one or both of the weapon device and the target.
12. The method of determining a ballistic outcome of a simulated round at a base station server of claim 11 , wherein:
determining the position and the orientation of the target comprises generating a number of positions indicative of a movement path of the target based on the velocity and heading of the target; and
determining the ballistic outcome by identifying whether the ballistic path intersects with the position of the target further comprises comparing the ballistic path with at least one of the number of positions based on the timestamp of the trigger pull, a distance between the weapon device and the target, and a velocity map of the simulated projectile.
13. The method of determining a ballistic outcome of a simulated round at a base station server of claim 8 , wherein:
the ballistic path is further based on one or more of:
ballistic properties associated with the weapon device and the simulated projectile; environmental conditions; a canting angle of the weapon device; and
gravitational effects on the simulated projectile.
14. The method of determining a ballistic outcome of a simulated round at a base station server of claim 8 , further comprising:
providing feedback related to the ballistic outcome to one or both of a user of the weapon device and the target.
15. A non-transitory computer-readable medium having instructions stored thereon that, when executed by at least one processor, cause the at least one processor to:
receive an indication of a trigger pull from a weapon device;
receive a data packet from the weapon device, the data packet comprising an orientation of the weapon device and a position of the weapon device;
determine a position and an orientation of a target;
identify a ballistic path of a simulated projectile fired from the weapon device, wherein the ballistic path is based at least in part on:
the orientation and the position of the weapon device, the orientation of the weapon device comprising:
a canting angle of the weapon device;
an azimuth angle of the weapon device; and
an elevation angle of the weapon device, and
at least one of:
an estimated uncertainty of the canting angle of the weapon device;
an estimated uncertainty of the azimuth angle of the weapon device; and
an estimated uncertainty of the elevation angle of the weapon device; and
determine a ballistic outcome by identifying whether the ballistic path intersects with the position of the target.
16. The non-transitory computer-readable medium of claim 15 , wherein:
the data packet further comprises an estimated uncertainty of one or both of the position of the weapon device and the orientation of the weapon device; and
identifying the ballistic path is further based at least in part on the estimated uncertainty.
17. The non-transitory computer-readable medium of claim 15 , wherein:
the indication of the trigger pull further comprises a timestamp of the trigger pull;
the instructions further cause the at least one processor to determine a velocity and heading of one or both of the weapon device and the target; and
determining the ballistic outcome is further based on the velocity and heading of one or both of the weapon device and the target.
18. The non-transitory computer-readable medium of claim 17 , wherein:
determining the position and the orientation of the target comprises generating a number of positions indicative of a movement path of the target based on the velocity and heading of the target; and
determining the ballistic outcome by identifying whether the ballistic path intersects with the position of the target further comprises comparing the ballistic path with at least one of the number of positions based on the timestamp of the trigger pull, a distance between the weapon device and the target, and a velocity map of the simulated projectile.
19. The non-transitory computer-readable medium of claim 15 , wherein:
the instructions further cause the at least one processor to provide feedback related to the ballistic outcome to one or both of a user of the weapon device and the target.
20. The non-transitory computer-readable medium of claim 15 , wherein:
the instructions further cause the at least one processor to calibrate one or both of the orientation and the position of the weapon device by comparing known locations of one or more objects relative to the orientation and the position of the weapon device.