FIREARM SIMULATORS

• US 20160169608A1
• Filed: 12/15/2015
• Published: 06/16/2016
• Est. Priority Date: 12/16/2014
• Status: Active Grant

• Current Assignee: Kurt S. Schulz, Michael Z. Bac
• Original Assignee: Kurt S. Schulz, Michael Z. Bac
• Inventors: SCHULZ, Kurt S., Bac, Michael Z.
• Granted Patent: US 10,451,376 B2
• Time in Patent Office: Days
• CPC Class Codes: F41A 33/02 Light- or radiation-emitting guns ; Light- or radiation-sensitive guns; Cartridges carrying light emitting sources, e.g. laser

Abstract

Firearm simulators are disclosed. In embodiments, a firearm simulator includes a processor, a memory module, a trigger unit that outputs a trigger output signal, a magazine sensor that outputs a magazine sensor output signal, an optoelectronic output device, an optoelectronic sensor, and a wireless communication device. In embodiments, the firearm simulator determines whether a trigger prep event has occurred, determines whether a trigger break event has occurred, and transmits the trigger prep event and the trigger break event with the wireless communication device. In embodiments, the optoelectronic output device is activated when a trigger break event has occurred and a simulated round is available to be fired. In embodiments, a firearm simulator wirelessly transmits information, such as magazine insertion events, magazine ejection events, trigger break events, and trigger prep event to a computing device that displays information pertaining to the received information.

Claims

1. A firearm simulator comprising:

a processor;

a memory module communicatively coupled to the processor;

a trigger unit communicatively coupled to the processor, wherein the trigger unit outputs a trigger output signal;

an optoelectronic output device communicatively coupled to the processor, wherein the optoelectronic output device outputs light when activated; and

machine readable instructions stored in the memory module that cause the firearm simulator to perform at least the following, when executed by the processor;

determine whether a trigger break event has occurred based on the trigger output signal;

determine whether a simulated round is available to be fired;

activate the optoelectronic output device when the trigger break event has occurred and the simulated round is available to be fired; and

maintain the optoelectronic output device in a deactivated state when the trigger break event has occurred and the simulated round is not available to be fired.

2. The firearm simulator of claim 1, further comprising a round count stored in the memory module, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine that the simulated round is available to be fired when the round count is greater than zero; and

determine that the simulated round is not available to be fired when the round count is less than one.

3. The firearm simulator of claim 1, further comprising a magazine sensor communicatively coupled to the processor, wherein the magazine sensor outputs a magazine sensor output signal, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine that a magazine insertion event has occurred based on the magazine sensor output signal;

after the magazine insertion event has occurred, determine that a subsequent trigger break event has occurred based on the trigger output signal; and

activate the optoelectronic output device in response to the subsequent trigger break event.

4. The firearm simulator of claim 3, further comprising a round count stored in the memory module, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

modify the round count after the magazine insertion event has occurred.

5. The firearm simulator of claim 4, further comprising a wireless communication device communicatively coupled to the processor, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

transmit the round count to a computing device.

6. The firearm simulator of claim 1, further comprising:

an optoelectronic sensor communicatively coupled to the processor, wherein the optoelectronic sensor outputs an optoelectronic sensor output signal in response to sensed light;

a wireless communication device communicatively coupled to the processor, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor;

determine an ambient light value based on the optoelectronic sensor output signal when the optoelectronic output device is in the deactivated state;

determine a reflected light value based on the optoelectronic sensor output signal when the optoelectronic output device is activated;

determine that a target hit event has occurred based on the reflected light value and the ambient light value; and

transmit the target hit event with the wireless communication device.

7. The firearm simulator of claim 6, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine a hit threshold value based on the ambient light value;

compare the reflected light value to the hit threshold value; and

determine that the target hit event has occurred based on the comparison of the reflected light value and the hit threshold value.

8. The firearm simulator of claim 7, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine a time series of reflected light values based on the optoelectronic sensor output signal when the optoelectronic output device is activated;

calculate a running average reflected light value based on the time series of reflected light values;

compare the running average reflected light value with the hit threshold value; and

determine that the target hit event has occurred based on the comparison of the running average reflected light value and the hit threshold value.

9. The firearm simulator of claim 7, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine the hit threshold value based on a light sensitivity setting stored in the memory module.

10. The firearm simulator of claim 6, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine a time series of reflected light values based on the optoelectronic sensor output signal when the optoelectronic output device is activated;

calculate a running average reflected light value based on the time series of reflected light values;

compare the running average reflected light value with the ambient light value; and

determine that the target hit event has occurred based on the comparison of the running average reflected light value and the ambient light value.

11. The firearm simulator of claim 6, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine that a target miss event has occurred based on the reflected light value and the ambient light value; and

transmit the target miss event with the wireless communication device.

12. A firearm simulator comprising:

a processor;

a memory module communicatively coupled to the processor;

a trigger unit communicatively coupled to the processor, wherein the trigger unit outputs a trigger output signal;

a wireless communication device communicatively coupled to the processor; and

machine readable instructions stored in the memory module that cause the firearm simulator to perform at least the following, when executed by the processor;

determine whether a trigger prep event has occurred based on the trigger output signal;

transmit the trigger prep event with the wireless communication device when the trigger prep event is determined to have occurred;

determine whether a trigger break event has occurred based on the trigger output signal; and

transmit the trigger break event with the wireless communication device when the trigger break event is determined to have occurred.

13. The firearm simulator of claim 12, wherein the trigger unit includes:

a trigger prep switch that outputs a trigger prep output signal indicative of whether a trigger is in a trigger prep position; and

a trigger break switch that outputs a trigger break output signal indicative of whether the trigger is in a trigger break position, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor;

determine that the trigger prep event has occurred based on the trigger prep output signal of the trigger prep switch; and

determine that the trigger break event has occurred based on the trigger break output signal of the trigger break switch.

14. The firearm simulator of claim 12, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

determine whether a trigger release event has occurred based on the trigger output signal; and

transmit the trigger release event with the wireless communication device when the trigger release event is determined to have occurred.

15. A system comprising the firearm simulator of claim 12 and a computing device, wherein:

the machine readable instructions stored in the memory module of the firearm simulator cause the firearm simulator to perform at least the following, when executed by the processor of the firearm simulator;

transmit the trigger prep event with the wireless communication device of the firearm simulator to the computing device when the trigger prep event is determined to have occurred; and

transmit the trigger break event with the wireless communication device of the firearm simulator to the computing device when the trigger break event is determined to have occurred;

the computing device comprises;

a second processor;

a second memory module communicatively coupled to the second processor;

a second wireless communication device communicatively coupled to the second processor;

a display; and

second machine readable instructions stored in the second memory module that cause the computing device to perform at least the following, when executed by the second processor;

receive the trigger prep event with the second wireless communication device;

receive the trigger break event with the second wireless communication device; and

output information pertaining to the trigger break event and the trigger prep event on the display.

16. The system of claim 15, wherein:

the firearm simulator further comprises a magazine sensor communicatively coupled to the processor of the firearm simulator, wherein the magazine sensor outputs a magazine sensor output signal;

the machine readable instructions stored in the memory module of the firearm simulator further cause the firearm simulator to perform at least the following when executed by the processor of the firearm simulator;

determine that a magazine insertion event has occurred based on the magazine sensor output signal;

transmit the magazine insertion event with the wireless communication device of the firearm simulator to the computing device when the magazine insertion event is determined to have occurred;

determine that a magazine ejection event has occurred based on the magazine sensor output signal;

transmit the magazine ejection event with the wireless communication device of the firearm simulator to the computing device when the magazine ejection event is determined to have occurred; and

the second machine readable instructions stored in the second memory module further cause the computing device to perform at least the following when executed by the second processor;

receive the magazine insertion event with the second wireless communication device;

receive the magazine ejection event with the second wireless communication device; and

output information pertaining to the magazine insertion event and the magazine ejection event on the display.

17. A firearm simulator comprising:

a magazine comprising a magnet;

a firearm frame comprising a magazine well for receiving the magazine and a magnetic field sensor positioned proximate the magazine well, wherein the magnetic field sensor outputs a magnetic field sensor output signal;

a processor;

a memory module communicatively coupled to the processor; and

machine readable instructions stored in the memory module that cause the firearm simulator to perform at least the following, when executed by the processor;

determine that the magazine has been inserted into the magazine well based on the magnetic field sensor output signal; and

determine that the magazine has been ejected from the magazine well based on the magnetic field sensor output signal.

18. The firearm simulator of claim 17, further comprising a wireless communication device communicatively coupled to the processor, wherein the machine readable instructions stored in the memory module further cause the firearm simulator to perform at least the following when executed by the processor:

transmit a magazine insertion event with the wireless communication device in response to determining that the magazine has been inserted into the magazine well; and

transmit a magazine ejection event with the wireless communication device in response to determining that the magazine has been ejected from the magazine well.

19. The firearm simulator of claim 17, wherein the magazine includes a magazine head connector and a microcontroller is housed within the firearm frame, the firearm simulator further comprising a trigger unit housed within the firearm frame, wherein:

when the magazine is retained in the magazine well, the trigger unit is electrically coupled to the magazine head connector and the magazine head connector is electrically coupled to the microcontroller, such that the trigger unit is electrically coupled to the microcontroller; and

when the magazine is not retained in the magazine well, the trigger unit is not electrically coupled to the microcontroller.

20. The firearm simulator of claim 19, wherein:

the magazine head connector includes a first conductive contact and a second conductive contact;

the trigger unit includes a trigger break switch and a trigger prep switch;

the microcontroller includes a first input pin and a second input pin;

when the magazine is retained in the magazine well, the trigger break switch is electrically coupled to the first conductive contact and the first conductive contact is electrically coupled to the first input pin of the microcontroller, such that the trigger break switch is electrically coupled to the first input pin of the microcontroller;

when the magazine is retained in the magazine well, the trigger prep switch is electrically coupled to the second conductive contact and the second conductive contact is electrically coupled to the second input pin of the microcontroller, such that the trigger prep switch is electrically coupled to the second input pin of the microcontroller;

when the magazine is not retained in the magazine well, the trigger break switch is not electrically coupled to the first input pin of the microcontroller; and

when the magazine is not retained in the magazine well, the trigger prep switch is not electrically coupled to the second input pin of the microcontroller.