Firearm laser training system and method employing various targets to simulate training scenarios

• US 20050153262A1
• Filed: 11/24/2004
• Published: 07/14/2005
• Est. Priority Date: 11/26/2003
• Status: Abandoned Application

• Current Assignee: Kendir O. Tansel
• Original Assignee: Kendir O. Tansel
• Inventors: Kendir, O. Tansel
• Application Number:
  US10/995,128
• Publication Number:
  US 20050153262A1
• Time in Patent Office: Days
• US Class Current: 434/21
• CPC Class Codes: F41G 3/2655 in which the light beam is sent from the weapon to the target
• CPC Class Codes: F41J 5/02 Photo-electric hit-detector systems comprising a light-emitting device for simulating the firing of a gun F41G3/2622; detecting by optical means G01V8/10
• CPC Class Codes: F41J 5/08 Infrared hit-indicating systems
• CPC Class Codes: F41J 5/14 Apparatus for signalling hits or scores to the shooter, e.g. manually operated, or for communication between target and shooter; Apparatus for recording hits or scores
• CPC Class Codes: F41J 7/04 disappearing or moving when hit exploding targets F41J5/26; exploding clay-pigeon targets F41J9/165
• CPC Class Codes: F41J 7/06 Bobbing targets, i.e. targets intermittently or unexpectedly appearing
• CPC Class Codes: G09B 19/0038 Sports

Abstract

A firearm laser training system according to the present invention includes a laser assembly, actuable target assemblies and a computer system. The laser assembly is attached to a user firearm to project a laser beam toward the target. The target assemblies raise and lower targets in accordance with control signals from the computer system. Targets are raised to indicate intended targets, and are lowered in response to the beam impacting the raised targets or upon expiration of an interval without a beam impact. A corresponding target assembly forwards information to the computer system for display via wired or wireless communications. In addition, the training system may employ stationary target assemblies and/or laser-detecting body gear worn by exercise participants. The target assemblies and body gear communicate impact information to the computer system via wireless communications and may be utilized to create various training scenarios for firearm training.

Claims

1. A firearm laser training system enabling a user to project a laser beam toward one or more targets presented in accordance with control signals received from a processing system, said training system comprising:

at least one target assembly with each target assembly including a target device including a three dimensional impact surface to receive laser beam impacts and at least one detection unit to detect said impacts on said impact surface, wherein each said target assembly is responsive to control signals from said processing system to manipulate said target device into a position indicating presentation to said user; and

a transference unit in communication with each said target assembly and said processing system to transfer control and operational signals between said processing system and each said target assembly.

2. The training system of claim 1, wherein said target device includes:

a platform including said at least one detection unit; and

a shell covering said platform and including said three dimensional impact surface to receive said laser beam impacts thereon.

3. The training system of claim 1, wherein said target device is partitioned into a plurality of zones each representing a simulated location and type of shot for a beam impact, wherein each zone includes at least one detection unit to detect a beam impact within that zone.

4. The training system of claim 3, wherein each said zone includes:

a plurality of said detection units to detect said beam impact within that zone, wherein output of each said detection unit is coupled together to produce a hit signal indicating a beam impact within that zone, and wherein each said detection unit includes;

a detector to detect said laser beam on said impact surface; and

a phase lock loop to process signals from said detector and determine the presence of said laser beam impact.

5. The training system of claim 4, wherein at least one of a mask and a filter is disposed proximate said detector to control extraneous signals received by said detector.

6. The training system of claim 4, wherein said target device further includes a gain adjustment circuit to determine a gain adjustment parameter and said phase lock loop receives said gain parameter and determines the presence of said beam impact in accordance with said gain parameter.

7. The training system of claim 4, wherein said target device further includes a detection control unit disposed within one of said zones to combine said hit signals received from other zones and produce an impact signal indicating the presence of a beam impact on said impact surface, and wherein at least one of said impact signal and said hit signals are communicated to said processing system.

8. The training system of claim 1, wherein each said detection unit is configured to detect laser signals emitted from an eye-safe ANSI class 3A laser.

9. The training system of claim 1, wherein each said detection unit is configured to detect laser signals modulated at approximately 45 KHz.

10. The training system of claim 1, wherein said target device includes at least one of indicia and garments disposed thereon to indicate the target type to said user.

11. The training system of claim 1 further including a printing device coupled to said processing system to generate printed reports including information relating to performance of said user during said target presentation.

12. The training system of claim 1, wherein said transference unit supplies power signals to each said target assembly and transfers information between each said target assembly and said processing system to facilitate target presentation and display of user performance during said target presentation.

13. The training system of claim 1 further including a control module for installation on said processing system to control each said target assembly in accordance with a target presentation sequence and to process information received by said processing system from each said target assembly for selective display of user performance during said target presentation in the form of at least one of one or more graphical user screens and a printed report.

14. The training system of claim 13, wherein said control module facilitates entry of a target presentation sequence by said user into said processing system and controls said processing system to actuate each said target assembly in accordance with said entered target presentation sequence.

15. The training system of claim 1, wherein each said target assembly further includes:

a plurality of arms with said target device attached thereto;

a motor and gear assembly to actuate said arms to present said target device to said user; and

a control unit in communication with said target device and said processing system to control actuation of said arms in response to detection information received from said target device and control signals received from said processing system.

16. The training system of claim 15, wherein said control unit controls said motor assembly to actuate said arms and raise said target device in response to control signals received from said processing system, and controls said motor to actuate said arms to lower said target in response to detection information received from said target device or in response to control signals received from said processing system upon expiration of a particular time interval for presentation of said target device to said user.

17. The training system of claim 1 further including:

at least one connection unit to couple said processing system to at least one of another training system, another transference unit, a target assembly, a target and a sensor to expand said training system and enable communication between said processing system and devices coupled to said connection unit.

18. The training system of claim 1, wherein at least one target assembly is responsive to an input signal from an event detecting device to trigger presentation of said target device in response to detection of a particular event.

19. The training system of claim 1 further including at least one detection panel disposed proximate a corresponding target assembly to detect laser beam impacts on said detection panel indicating a missed target.

20. The training system of claim 1 further including an impact quantity indicator manipulable by said user to selectively designate a quantity of beam impacts that are to be detected within a predetermined time interval by said target device of each said target assembly to comprise a hit.

21. The training system of claim 1 further including:

a transference unit for each corresponding target assembly with each transference unit including a target converter unit to convert signals between a first format compatible with said corresponding target assembly and a second format for communication; and

a processor converter unit in communication with said processing system and each said transference unit to convert signals between a third format compatible with said processing system and said second format for communication with each said transference unit.

22. The training system of claim 21, wherein said target converter unit and said processor converter unit are configured to communicate over a maximum distance of approximately 1.2 kilometers, and wherein said second format includes an RS-485 format and said third format includes an RS-232 format.

23. The training system of claim 21, wherein each transference unit is coupled to said corresponding target assembly and further includes at least one indicator to indicate the presence of a beam impact on said corresponding target assembly to said user.

24. The training system of claim 1 further including:

a transference unit for each corresponding target assembly with each transference unit including a wireless communication unit for communication with said processing system; and

a wireless transceiver unit in communication with said processing system and each said transference unit to enable communication between said processing system and each said transference unit.

25. The training system of claim 24 further including:

at least one stationary target assembly including said target device and a stand to support said target device; and

a transference unit for each corresponding stationary target assembly with each transference unit including a wireless communication unit for communication.

26. The training system of claim 25, wherein said stand includes:

a platform; and

a plurality of legs attached to said platform with each leg including an engagement member to receive and secure said target device to said stand.

27. The training system of claim 25, wherein each transference unit is coupled to said corresponding target assembly and further includes at least one indicator to indicate the presence of a beam impact on said corresponding target assembly to said user.

28. The training system of claim 24, wherein said wireless communication unit and said wireless transceiver unit communicate via transmission and reception of RF signals.

29. The training system of claim 24, wherein each said transference unit and said wireless transceiver unit are configured to communicate over a maximum distance of approximately one mile.

30. The training system of claim 24 further including:

at least one body gear assembly for placement on a corresponding user, wherein each said body gear assembly includes;

at least one body gear unit each for placement on a corresponding user body portion and including at least one detection assembly to detect laser beam impacts on that body gear unit; and

a body gear wireless unit to communicate with said wireless transceiver unit and enable communication of beam impact information between that body gear assembly and said processing system.

31. The training system of claim 30, wherein said at least one body gear assembly includes a gear control unit to receive impact information from other body gear units within a corresponding body gear assembly and combine said received information to produce an impact signal indicating occurrence of a laser beam impact on that body gear assembly and to transfer said impact information and said impact signal to said body gear wireless unit for transference to said processing system.

32. The training system of claim 31, wherein each said detection assembly includes:

a plurality of detectors to detect a laser beam impact on a corresponding body gear unit;

a phase lock loop to process signals from said plurality of detectors and determine the presence of said laser beam impact; and

a plurality of indicators to indicate the occurrence of said laser beam impact in response to said determination.

33. The training system of claim 32, wherein at least one of a mask and a filter is disposed proximate each said detection assembly detector to control extraneous signals received by that detector.

34. The training system of claim 32, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and each said detection assembly further includes:

a toggle unit to actuate said indicators of a body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts on that body gear unit.

35. The training system of claim 32, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and said gear control unit further includes:

a toggle unit to actuate said indicators of each said body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts indicated by said impact signal.

36. The training system of claim 31, wherein each said detection assembly includes:

a plurality of detectors to detect a laser beam impact on a corresponding body gear unit;

a plurality of phase lock loops each to process signals from a corresponding detector and determine detection of said laser beam impact by that corresponding detector;

a plurality of indicators each placed proximate, and actuated in response to detection of a beam impact by, a corresponding detector to indicate the location and occurrence of said laser beam impact in accordance with said determination by a phase lock loop associated with that corresponding detector; and

a logic unit to combine said phase lock loop determinations and produce a hit signal indicating occurrence of a laser beam impact on a corresponding body gear unit.

37. The training system of claim 30, wherein said body gear wireless unit includes a position unit to retrieve a position of said body gear assembly from a Global Positioning System and to communicate said body gear assembly position to said processing system.

38. The system of claim 37, further including a control module for installation on said processing system to process information received by said processing system from each said target and body gear assemblies for selective display of user performance and user position during a training session via a graphical user screen illustrating a layout of an area utilized for said training session.

39. The training system of claim 36 further including a control module for installation on said processing system to process information received by said processing system from each said body gear assembly for selective display of user performance during a training session via a graphical user screen including laser beam impact locations on each said body gear assembly.

40. The training system of claim 1, wherein said at least one detection unit identifies a location on said impact surface of said beam impact and said control and operational signals include said beam impact location.

41. The training system of claim 40 further including a control module for installation on said processing system to process information received by said processing system from each said target assembly for selective display of user performance during a training session via a graphical user screen including laser beam impact locations on each said target assembly.

42. The training system of claim 1, wherein said target device retains a heated gas to enable users to ascertain a location of said target device via a thermal detection device.

43. The training system of claim 24, wherein said wireless communication unit stores impact information in response to attaining a position outside a communication range of said wireless transceiver unit and forwards said stored information to said wireless transceiver unit in response to regaining a position within said communication range of said wireless transceiver unit.

44. The training system of claim 30, wherein said body gear wireless unit stores impact information in response to attaining a position outside a communication range of said wireless transceiver unit and forwards said stored information to said wireless transceiver unit in response to regaining a position within said communication range of said wireless transceiver unit.

45. The training system of claim 30 further including:

a hand-held wireless unit to receive and display impact information to a user from at least one of said wireless communication unit and said body gear wireless unit.

105. The training system of claim 1, wherein said target device includes an inflatable unit providing said three dimensional impact surface.

106. The training system of claim 1, wherein at least one target assembly is disposed on a vehicle.

107. The training system of claim 1, wherein said at least one detection unit detects a beam impact in response to detection of a central portion of said laser beam.

108. The training system of claim 8, wherein said at least one target assembly is at least 600 meters from said user.

109. The training system of claim 19, wherein said corresponding target assembly includes a laser transmitter to project a laser beam in response to detection of a laser beam impact by at least one detection panel.

46. A firearm laser training system enabling a user to project a laser beam toward a target in the form of another user comprising:

at least one body gear assembly for placement on a corresponding user, wherein each said body gear assembly includes;

at least one body gear unit each for placement on a corresponding user body portion and including at least one detection assembly to detect laser beam impacts on that body gear unit; and

a body gear wireless unit to communicate beam impact information to a processing system.

47. The training system of claim 46, wherein said at least one body gear assembly includes a gear control unit to receive impact information from other body gear units within a corresponding body gear assembly and combine said received information to produce an impact signal indicating occurrence of a laser beam impact on that body gear assembly and to transfer said impact information and said impact signal to said body gear wireless unit for transference to said processing system.

48. The training system of claim 47, wherein each said detection assembly includes:

a plurality of detectors to detect a laser beam impact on a corresponding body gear unit;

a phase lock loop to process signals from said plurality of detectors and determine the presence of said laser beam impact; and

a plurality of indicators to indicate the occurrence of said laser beam impact in response to said determination.

49. The training system of claim 48, wherein at least one of a mask and a filter is disposed proximate each detection assembly detector to control extraneous signals received by that detector.

50. The training system of claim 48, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and each said detection assembly further includes:

a toggle unit to actuate said indicators of a body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts on that body gear unit.

51. The training system of claim 48, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and said gear control unit further includes:

a toggle unit to actuate said indicators of each said body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts indicated by said impact signal.

52. The training system of claim 47, wherein each said detection assembly includes:

a plurality of detectors to detect a laser beam impact on a corresponding body gear unit;

a plurality of phase lock loops each to process signals from a corresponding detector and determine detection of said laser beam impact by that corresponding detector;

a plurality of indicators each placed proximate, and actuated in response to detection of a beam impact by, a corresponding detector to indicate the location and occurrence of said laser beam impact in accordance with said determination by a phase lock loop associated with that corresponding detector; and

a logic unit to combine said phase lock loop determinations and produce a hit signal indicating occurrence of a laser beam impact on a corresponding body gear unit.

53. The training system of claim 46, wherein said body gear wireless unit includes a position unit to retrieve a position of said body gear assembly from a Global Positioning System and to communicate said body gear assembly position to said processing system.

54. The training system of claim 46 further including:

a wireless transceiver unit in communication with said processing system and each said body gear wireless unit to enable communication of said beam impact information to said processing system.

55. The training system of claim 54, wherein said body gear wireless unit stores impact information in response to attaining a position outside a communication range of said wireless transceiver unit and forwards said stored information to said wireless transceiver unit in response to regaining a position within said communication range of said wireless transceiver unit.

56. The training system of claim 46 further including:

a hand-held wireless unit to receive and display impact information to a user from said body gear wireless unit.

57. In a firearm laser training system including at least one target assembly and a processing system to control each said target assembly, a method of presenting one or more targets to a user to enable the user to project a laser beam at the presented target and thereby conduct a training exercise comprising the steps of:

(a) transferring control and operational signals between said processing system and each said target assembly, wherein each target assembly includes a target device including a three dimensional impact surface to receive laser beam impacts and at least one detection unit to detect said impacts on said impact surface;

(b) manipulating a corresponding target device into a position indicating presentation to said user, via each said target assembly, in accordance with said control signals received from said processing system; and

(c) detecting said projected laser beam, via said manipulated target device, to determine the presence of beam impact on said presented target device.

58. The method of claim 57, wherein step (c) further includes:

(c.1) partitioning said target device into a plurality of zones each representing a simulated location and type of shot for a beam impact, wherein each zone includes at least one detection unit to detect a beam impact within that zone.

59. The method of claim 58, wherein each said zone includes a plurality of said detection units to detect said beam impact within that zone, and step (c.1) further includes:

(c.1.1) detecting said laser beam on said impact surface via detectors of said detection units within each zone;

(c.1.2) processing signals from said detectors to determine the presence of said laser beam impact within each zone; and

(c.1.3) combining the output of each said detection unit within each zone to produce a hit signal indicating a beam impact within that zone.

60. The method of claim 59, wherein step (c.1.1) further includes:

(c.1.1.1) controlling extraneous signals received by each detector via at least one of a mask and a filter placed proximate each detector.

61. The method of claim 59, wherein said target device further includes a detection control unit disposed within one of said zones, and step (c.1) further includes:

(c.1.4) combining said hit signals received from other zones and producing an impact signal indicating the presence of a beam impact on said impact surface; and

(c.1.5) communicating at least one of said impact signal and said hit signals to said processing system.

62. The method of claim 57, wherein step (a) further includes:

(a.1) indicating the target type to said user via at least one of indicia and garments placed on said target device.

63. The method of claim 57 further including the step of:

(d) generating printed reports including information relating to performance of said user during said target presentation.

64. The method of claim 57, wherein step (a) further includes:

(a.1) supplying power signals to each said target assembly and transferring information between each said target assembly and said processing system to facilitate target presentation and display of user performance during said target presentation.

65. The method of claim 57, wherein step (b) further includes:

(b.1) controlling each said target assembly in accordance with a target presentation sequence; and

said method further includes the step of;

(d) processing information received by said processing system from each said target assembly for selective display of user performance during said target presentation in the form of at least one of one or more graphical user screens and a printed report.

66. The method of claim 57, wherein step (a) further includes:

(a.1) facilitating entry of a target presentation sequence by said user into said processing system; and

step (b) further includes;

(b.1) controlling each said target assembly, via said processing system, in accordance with said entered target presentation sequence.

67. The method of claim 57, wherein step (b) further includes:

(b.1) raising said corresponding target device in response to control signals received from said processing system; and

(b.2) lowering said corresponding target device in response to detection of a beam impact by that target device or in response to control signals received from said processing system upon expiration of a particular time interval for presentation of that target device to said user.

68. The method of claim 57, wherein step (a) further includes:

(a.1) expanding said training system by coupling said processing system to at least one of another training system, a target assembly, a target and a sensor via a connection unit to establish communication between said processing system and devices coupled to said connection unit.

69. The method of claim 57, wherein step (b) further includes:

(b.1) manipulating a corresponding target device into a position indicating presentation to said user, via a corresponding target assembly, in response to an input signal from an event detecting device to trigger presentation of that target device in response to detection of a particular event.

70. The method of claim 57, wherein step (c) further includes:

(c.1) detecting laser beam impacts on at least one detection panel placed proximate a corresponding target assembly to indicate a missed target.

71. The method of claim 57, wherein step (a) further includes:

(a.1) selectively designating a quantity of beam impacts that are to be detected within a predetermined time interval by said target device of each said target assembly to comprise a hit.

72. The method of claim 57, wherein step (a) further includes:

(a.1) at each target assembly, converting signals between a first format compatible with said corresponding target assembly and a second format for communication; and

(a.2) at said processing system, converting signals between a third format compatible with said processing system and said second format for communication with each said target assembly.

73. The method of claim 72, wherein each said target assembly and said processing system are configured to communicate over a maximum distance of approximately 1.2 kilometers, and wherein said second format includes an RS-485 format and said third format includes an RS-232 format.

74. The method of claim 72, wherein each said target assembly includes at least one indicator, and said method further includes:

(d) indicating the presence of a beam impact on that target assembly to said user.

75. The method of claim 57, wherein step (a) further includes:

(a.1) communicating information between each said target assembly and said processing system via a wireless communication scheme.

76. The method of claim 75, wherein said training system includes at least one stationary target assembly including said target device and a stand to support said target device.

77. The method of claim 76, wherein each said target assembly includes at least one indicator, and said method further includes:

(d) indicating the presence of a beam impact on that target assembly to said user.

78. The method of claim 75, wherein each said target assembly and said processing system are configured to communicate over a maximum distance of approximately one mile.

79. The method of claim 75, wherein said training system further includes at least one body gear assembly for placement on a corresponding user, wherein each said body gear assembly includes at least one body gear unit each for placement on a corresponding user body portion, and step (c) further includes:

(c.1) detecting laser beam impacts on each body gear assembly; and

(c.2) communicating beam impact information from each body gear assembly to said processing system via said wireless communication scheme.

80. The method of claim 79, wherein said at least one body gear assembly includes a gear control unit, and step (c.1) further includes:

(c.1.1) at each gear control unit, receiving impact information from body gear units within that body gear assembly and combining said received information to produce an impact signal indicating occurrence of a laser beam impact on that body gear assembly; and

(c.1.2) at each body gear assembly, transferring said impact information and said impact signal to said processing system.

81. The method of claim 80, wherein step (c.1.1) further includes:

(c.1.1.1) at each body gear assembly, detecting a laser beam impact on a corresponding body gear unit via a plurality of detectors;

(c.1.1.2) processing signals from said plurality of detectors and determining the presence of said laser beam impact; and

(c.1.1.3) indicating the occurrence of said laser beam impact in response to said determination via a plurality of indicators.

82. The method of claim 81, wherein step (c.1.1.1) further includes:

(c.1.1.1.1) controlling extraneous signals received by each detector via at least one of a mask and a filter disposed proximate each said detector.

83. The method of claim 81, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and step (c.1.1.3) further includes:

(c.1.1.3.1) actuating said indicators of a body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts on that body gear unit.

84. The method of claim 81, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and step (c.1.1.3) further includes:

(c.1.1.3.1) actuating said indicators of each said body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts indicated by said impact signal.

85. The method of claim 80, wherein step (c.1.1) further includes:

(c.1.1.1) at each body gear assembly, detecting a laser beam impact on a corresponding body gear unit via a plurality of detectors;

(c.1.1.2) processing signals from a corresponding detector and determining detection of said laser beam impact by that corresponding detector;

(c.1.1.3) indicating the location and occurrence of said laser beam impact in accordance with said determination via a plurality of indicators each placed proximate, and actuated in response to detection of a beam impact by, a corresponding detector; and

(c.1.1.4) combining said determinations and producing a hit signal indicating occurrence of a laser beam impact on a corresponding body gear unit.

86. The method of claim 79, wherein step (c.2) further includes:

(c.2.1) retrieving a position of said body gear assembly from a Global Positioning System and communicating said body gear assembly position to said processing system.

87. The method of claim 86 further including:

(d) displaying user performance and user position during a training session via a graphical user screen illustrating a layout of an area utilized for said training session.

88. The method of claim 85 further including:

(d) displaying user performance during a training session via a graphical user screen including laser beam impact locations on each said body gear assembly.

89. The method of claim 57, wherein step (c) further includes:

(c.1) identifying a location on said impact surface of said beam impact, wherein said control and operational signals include said beam impact location.

90. The method of claim 89 further including:

(d) displaying user performance during a training session via a graphical user screen including laser beam impact locations on each said target assembly.

91. The method of claim 57, wherein said target device retains a heated gas, and step (c) further includes:

(c.1) ascertaining a location of said target device via a thermal detection device.

92. The method of claim 75, wherein step (a.1) further includes:

(a.1.1) at each target assembly, storing impact information in response to that target assembly attaining a position outside a wireless communication range of said processing system and forwarding said stored information to said processing system in response to regaining a position within said wireless communication range of said processing system.

93. The method of claim 79, wherein step (c.2) further includes:

(c.2.1) at each body gear assembly, storing impact information in response to attaining a position outside a wireless communication range of said processing system and forwarding said stored information to said processing system in response to regaining a position within said wireless communication range of said processing system.

94. The method of claim 79, wherein step (c.2) further includes:

(c.2.1) receiving and displaying impact information to a user from at least one of said body gear assemblies and said target assemblies via a hand-held wireless unit.

110. The method of claim 57, wherein said target device includes an inflatable unit to provide said three dimensional impact surface.

111. The method of claim 57, wherein at least one target assembly is disposed on a vehicle.

112. The method of claim 57, wherein step (c) further includes:

(c.1) detecting a beam impact in response to detection of a central portion of said laser beam.

113. The method of claim 70, wherein said corresponding target assembly includes a laser transmitter, and step (c.1) further includes:

(c.1.1) projecting a laser beam in response to detection of a laser beam impact by at least one detection panel.

95. A method of firearm training enabling a user to project a laser beam toward a target in the form of another user comprising the steps of:

(a) detecting laser beam impacts via a body gear assembly for placement on a corresponding user, wherein said body gear assembly includes at least one body gear unit each for placement on a corresponding user body portion;

(b) communicating beam impact information from each body gear assembly to a processing system via a wireless communication scheme.

96. The method of claim 95, wherein each body gear assembly includes a gear control unit, and step (a) further includes:

(a.1) at each gear control unit, receiving impact information from other body gear units within that body gear assembly and combining said received information to produce an impact signal indicating occurrence of a laser beam impact on that body gear assembly; and

step (b) further includes;

(b.1) at each body gear assembly, transferring said impact information and said impact signal to said processing system.

97. The method of claim 96, wherein step (a.1) further includes:

(a.1.1) at each body gear assembly, detecting a laser beam impact on a corresponding body gear unit via a plurality of detectors;

(a.1.2) processing signals from said plurality of detectors and determining the presence of said laser beam impact; and

(a.1.3) indicating the occurrence of said laser beam impact in response to said determination via a plurality of indicators.

98. The method of claim 97, wherein step (a.1.1) further includes:

(a.1.1.1) controlling extraneous signals received by each detector via at least one of a mask and a filter disposed proximate each said detector.

99. The method of claim 97, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and step (a.1.3) further includes:

(a.1.3.1) actuating said indicators of a body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts on that body gear unit.

100. The method of claim 97, wherein said plurality of indicators include a plurality of visual indicators providing first and second color indications, and step (a.1.3) further includes:

(a.1.3.1) actuating said indicators of each said body gear unit to alternately provide said first and second color indications in response to successive laser beam impacts indicated by said impact signal.

101. The method of claim 96, wherein step (a.1) further includes:

(a.1.1) at each body gear assembly, detecting a laser beam impact on a corresponding body gear unit via a plurality of detectors;

(a.1.2) processing signals from a corresponding detector and determining detection of said laser beam impact by that corresponding detector;

(a.1.3) indicating the location and occurrence of said laser beam impact in accordance with said determination via a plurality of indicators each placed proximate, and actuated in response to detection of a beam impact by, a corresponding detector; and

(a.1.4) combining said determinations and producing a hit signal indicating occurrence of a laser beam impact on a corresponding body gear unit.

102. The method of claim 95, wherein step (b) further includes:

(b.1) retrieving a position of said body gear assembly from a Global Positioning System and communicating said body gear assembly position to said processing system.

103. The method of claim 95, wherein step (b) further includes:

(b.1) at each body gear assembly, storing impact information in response to attaining a position outside a wireless communication range of said processing system and forwarding said stored information to said processing system in response to regaining a position within said wireless communication range of said processing system.

104. The method of claim 95, wherein step (b) further includes:

(b.1) receiving and displaying impact information to a user from at least one body gear assembly via a hand-held wireless unit.

114. A firearm laser training system enabling a user to project a laser beam toward one or more targets comprising:

at least one target assembly with each target assembly including;

a target device including a three dimensional impact surface to receive laser beam impacts; and

at least one detection unit to detect said impacts on said impact surface;

a transference unit for each corresponding target assembly with each transference unit including a wireless communication unit; and

a wireless transceiver unit in communication with a processing system and each said transference unit to enable transfer of impact information between said processing system and each said target assembly.

115. The training system of claim 114, wherein each transference unit is coupled to said corresponding target assembly and further includes at least one indicator to indicate the presence of a beam impact on said corresponding target assembly to said user.

116. The training system of claim 114, wherein said wireless communication unit and said wireless transceiver unit communicate via transmission and reception of RF signals.

117. The training system of claim 114, wherein each said transference unit and said wireless transceiver unit are configured to communicate over a maximum distance of approximately one mile.

118. In a firearm laser training system including at least one target assembly and a processing system, a method of enabling a user to project a laser beam at a target to conducting a training exercise comprising:

(a) detecting said projected laser beam by at least one target assembly to determine the presence of a beam impact, wherein each target assembly includes a three dimensional impact surface to receive laser beam impacts and at least one detection unit to detect said impacts on said impact surface; and

(b) communicating information between each said target assembly and a processing system via a wireless communication scheme.

119. The method of claim 118, wherein each said target assembly includes at least one indicator, and said method further includes:

(c) indicating the presence of a beam impact on that target assembly to said user.

120. The method of claim 118, wherein step (b) further includes:

(b.1) communicating information between each said target assembly and said processing system via transmission and reception of RF signals.

121. The method of claim 118, wherein each said target assembly and said processing system are configured to communicate over a maximum distance of approximately one mile.