TRAINING AID FOR FIRARMS USING ROTATING AND NON- ROTATING BOLTS
FIELD OF THE INVENTION
The present invention relates to an apparatus and system permitting
simulated firing from any firearm including a bolt and/or rotating bolt as well
as rifles, Machine guns, Sniper rifles and the like. In particular, the present
invention relates to a light-emitting ammunition to be used as part of a system
for registering "hits" during dry-fire exercises and gaming with any hand-held
firearm, without any change to either the feel, or the external dimensions of the
gun.
BACKGROUND OF THE INVENTION
There has long existed the need for an apparatus and system whereby a
user could train with a firearm and any firearm including a bolt and/or rotating
bolt as well as rifles, Machine guns, Sniper rifles and the like, without placing
the user or others at risk of an accidental discharge of the firearm. This safety
imperative coincides with an added desire to limit the wear and tear on a
firearm brought about by extensive firing during training. This has proven to be
especially relevant to those in the law-enforcement field or military personnel
requiring a high degree of firearm practice.
With firearm including a bolt and/or rotating bolt as well as rifles,
Machine guns, Sniper rifles and the like it is also imperative that any
installation or de-installation (removal) shall be readily performed by any user
without having recourse for the services of an armorer or gunsmith (also known
as "drop in" feature).
The traditional means of training with a firearm including a bolt and/or
rotating bolt as well as rifles, Machine guns, Sniper rifles and the like, whereby
a user at a shooting range fires live ammunition at a target, has proven to have
a number of significant drawbacks. The more prevalent of these drawbacks
include the above-mentioned risk of accidental discharge of the user's or
others' firearms, the associated dangers of being present near live fire training,
the increasing wear and tear on a firearm as it is used in training, and the
general inconvenience of the shooting range paradigm. Furthermore, with
firearms including a bolt and/or rotating bolt as well as rifles, Machine guns,
Sniper rifles and the like there is an added cost of ammunition which can be
quite significant indeed. Furthermore, range "time" and space are a scarce
commodity in all training facilities. Thus, training capabilities which do not
require the use of a range are an added benefit to trainees and users. As such,
there exists the need for an alternative to traditional firearm training that will
mitigate the above disadvantages while maintaining the overall benefit of live
fire training as well as provide enhanced "dry fire" facilities and more efficient
"dry fire" systems and methods.
Many "dry-fire" inventions and methods now exist to ensure that users
may train with their respective firearms without the safety risks and
accompanying deterioration inherent in traditional firearm training. The present
invention introduces a new apparatus and system for achieving a high degree of
safety and accuracy during training while significantly reducing the wear and
tear on a firearm during same.
Various prior art apparatuses and methods have been described and
reviewed in earlier U.S. Pat. Nos. 5,488,795, US02/0057719, US5909951, and
European Patent No. EP0467090, which are incorporated herein by reference
for all purposes as if fully set forth herein.
U.S. Patent No. 5,488,795 (hereinafter: "Sweat") describes the Multi-
caliber Laser Firing Cartridge, comprised of a laser projector with a mechanical
firing pin switch. The laser projector utilizes a concentric shape recalling that
of a bullet. Sweat's innovation lies in the adjustable settings that allows a single
cartridge to be used in different caliber weapons. Sweat also teaches a switch
unit that allows a mechanical pulse delay using a specific described
mechanism. However, the disclosed invention still has many disadvantages.
Sweat does not teach rim modification that prevents ejection of the cartridge,
nor does Sweat describe the use of modulation to carry information.
Furthermore, Sweat does not describe a safety interlock. Sweat's module can
be activated by a single pressure switch, leading to a laser radiation in a
direction perhaps unintended by the user. Furthermore, a live round could be
entered in error into the chamber of the firearm leading to potentially fatal
consequences.
U.S. Patent No. US02/0057719 (hereinafter: "Shechter") describes an
improved system over Sweat's innovation in that Shechter describes a rim
design that prevents ejection of the bullet. However, Shecter teaches away from
a firing pin switch, instead describing a mechanical wave sensor and/or an
acoustic sensor. This is a disadvantage in that Shecter' s mechanical wave
sensor and/or acoustic sensor is prone to misfiring when subjected to
extraneous vibration or noise, which often occur during simulation training.
Here as well, a live round could be entered in error into the chamber of the
firearm leading to potentially fatal consequences.
European Patent No. 0467090 (hereinafter: "Budmiger"), which was not
submitted for U.S. patent prosecution, teaches a switch mechanism that is
comprised of a piezoelectric transducer and an independent power supply.
However, Budmiger only claims as novelty a combination of a piezoelectric
transducer and a battery as a firing pin impact switch and such novelty would
appear to be limited to the specific combination described, leaving other
innovations available to the public.
U.S. Patent No. US5909951 (hereinafter: "Johnsen") teaches the use of
a multi-channel laser signal. The signal includes an alignment carrier that
allows a training system to generate aiming feedback as well as a pulse that
simulates a gunshot when an acoustic sensor detects a trigger release. Johnsen
does not utilize a firing pin, nor is there a method dealing with an ejection
mechanism. Johnsen' s implementation is not limited to a handgun but can be
applied to a rifle and a shotgun as well. There exists, however, several
disadvantages to Johnsen' s apparatus. Despite teaching visible light, Johnsen
does not claim the use of visible light. Rather, Johnsen' s claims specifically
refer to non- visible light, modulated to carry information about the state of the
weapon (firing or aiming). Johnsen also discloses specific algorithms and
circuitry required to properly simulate the travel delay of a projectile for more
accurate simulations, such specific algorithms and circuitry not being relevant
for a handgun at a range of 25 yards or less. Johnsen's system does not use the
case of the embodiment to complete an electrical circuit, relying instead on
internal circuitry. Finally, the shape of the module in Johnsen is not concentric
and does not resemble a true bullet.
Thus, such inventions as those described above generally suffer from at
least one of several disadvantages, including, inter alia, the lack of a safety
interlock, the use of an accident prone mechanical wave/acoustic sensor, the
lack of a preventative mechanism for preventing loading a live round into the
chamber. Therefore, the need exists to create a module and system whereby the
foregoing disadvantages are adequately remedied to a provide safe and durable
"dry-fire" alternative.
SUMMARY OF THE INVENTION
The present invention is a training aid and system, which training aid is
capable of being manufactured in different sizes for use with any pre-existing
firearm. The training aid is designed to replace a standard a bolt and/or rotating
bolt and/or bolt carrier for use during firearm training exercises and preferably
bears a strong visual and physical resemblance to the standard a bolt and/or
rotating bolt and/or bolt carrier being replaced. The training aid of the present
invention is comprised of no combustible material and need not be capable of
any physical projection. Rather, the training aid utilizes an illumination source
to emit a visible light and/or IR illumination collinear with the barrel of the
firearm.
As is the case with any firearm, a user must first "fire" the firearm
loaded with the present invention in order initialize the training aid. "Cocking"
a weapon prior to firing is known as the process of displacing the hammer
and/or firing pin of a firearm to a rearward position, thereby -preparing the
trigger of the weapon for firing. Cocking is generally accomplished in one of
several ways, depending on the make and model of a given firearm. In many
handgun models a user may cock the weapon by manually thumbing back the
hammer of the firearm. In other models, a "slide", a bolt, a rotating bolt or a
bolt carrier is displaced to aft of the firearm. In still other models, such as in
double action handguns, a rearward displacement of the trigger results in a
complimentary rearward displacement of the hammer. Release of the hammer
occurs when the trigger of the firearm is depressed with the requisite amount of
pressure. Once the firearm has been appropriately cocked, the firearm thereby
becomes ready to be discharged by a rearward displacement of the firearm's
trigger.
Other weapon systems include a "hammerless" wherein pulling the
trigger results in a rearward displacement of the firearm's firing pin and/or
release of a "cocked" firing pin. By way of example only, a variety of other
"cocking" mechanisms including, but not limited to, "squeeze cockers" and the
like.
When the user "pulls the trigger" of the firearm, it causes a
complimentary displacement of the hammer and/or firing pin to a forward
position, which hammer and/or firing pin bring about a strike of the firing pin
on the firing cap/primer of the chambered cartridge. With a standard cartridge,
this causes a chemical reaction whereby the primer is burned, the extreme heat
from which burning leads to the bullet being launched from the cartridge at an
extremely fast speed. When the training aid is chambered instead of a standard
a bolt, a rotating bolt or a bolt carrier, the firing pin and/or hammer will impact
an actuator located on the rear of the training aid, thereby completing an
electrical circuit. Completion of the electrical circuit brings about a release of
illumination from the illuminator in the training aid. The illumination then
passes through a collimator for readily focusing the illumination. The focused
illumination is emitted from the barrel of the firearm and appears for a fixed
duration at a point collinear with the firearm's barrel.
The foregoing objective, feature, functions and advantages of the
present invention can be more easily understood upon a thoughtful deliberation
of the following detailed description of the embodiments of the present
invention in conjunction with the accompanying drawings.
According to the present invention there is provided a training aid
apparatus including: (a) a power source, an illuminator electrically attached to
the power source, and (c) an actuator electrically attached to the illuminator for
readily controlling illumination of the illuminator.
According to further embodiments of the present invention the
training aid has a concentric shape recalling that of a bolt, a rotating bolt or a
bolt carrier.
According to yet further embodiments of the present invention the
illuminator is a light emitting diode.
According to still further embodiments of the present invention the
illuminator is a light bulb.
According to further embodiments of the present invention the
illuminator is a laser.
According to still further embodiments of the present invention the
illuminator is an "eye safe" laser.
According to yet further embodiments of the present invention the
actuator further includes a pressure sensitive switch.
According to further embodiments of the present invention the pressure
sensitive switch is constructed of electrically conductive material.
. According to yet further embodiments of the present invention the
pressure sensitive switch simulates a firearm primer.
According to further embodiments of the present invention the actuator
includes an energy absorbing material.
According to still further embodiments of the present invention the
training aid apparatus further includes a collimator for focusing and/or
collimating illumination passing through the collimator.
According to yet further embodiments of the present invention the
collimator collimates illumination passing through the collimator into an area
of illumination is substantially between 0.01 and 0.1 centimeters in diameter
when illuminating at 9 yards.
According to further embodiments of the present invention the
collimator collimates illumination passing through the collimator into an area
of illumination is substantially between 0.1 and 0.6 centimeters in diameter
when illuminating at 9 yards.
According to further embodiments of the present invention the power
source includes a capacitor for limiting illumination duration.
According to further embodiments of the present invention the power
source includes a capacitor for limiting the number of illuminations thereby
readily simulating the magazine capacity of the specific weapon.
According to further embodiments of the present invention the training
aid apparatus further includes a time chip for controlling the time of
illumination of the illuminator and/or the number of illuminations thereby
readily simulating the magazine capacity of the specific weapon.
According to further embodiments of the present invention the time chip
facilitates illumination of the illuminator for any time between 0.01 seconds
and 1.0 seconds.
According to further embodiments of the present invention the time chip
facilitates "eye safe" illumination of the illuminator.
According to further embodiments of the present invention the time chip
facilitates illumination of the illuminator for substantially 0.25 seconds.
According to further embodiments of the present invention the time chip
facilitates illumination of the illuminator for any time between 0.5 seconds and
2.0 seconds
According to further embodiments of the present invention the
illuminator is modulated between 10-100 KHz.
According to further embodiments of the present invention the
illuminator is modulated at substantially 40 KHz.
According to further embodiments of the present invention the
illuminator illuminates at any wavelength.
According to further embodiments of the present invention the
illuminator illuminates substantially at a wavelength producing visible color
selected from the group consisting of: red illumination, green illumination, blue
illumination and/or IR illumination.
According to further embodiments of the present invention the training
aid apparatus further includes a transmitter for transmitting a signal.
According to further embodiments of the present invention the signal is
compatible with any weapon simulation system.
According to a further embodiment of the present invention, there is
provided a training aid system including: (a) a firearm including a barrel, (b) a
training aid apparatus replacing a firing mechanism selected from the group
consisting of: a bolt, a rotating bolt or a bolt carrier, situated in the barrel
including: (i) a power source, (ii) an illuminator electrically attached to the
power source, and (iii) an actuator electrically attached to the illuminator for
readily controlling illumination of the illuminator, and (c) an audio apparatus
responsive to the training aid apparatus.
According to further embodiments of the system according to the
present invention the training aid apparatus includes a wireless transmitter and
the audio apparatus includes a receiver.
According to further embodiments of the present invention the firearm
includes a magazine with an identification chip and the audio apparatus
includes a receiver.
According to still further embodiments of the present invention the
training aid apparatus has a concentric shape recalling that of a bolt, a rotating
bolt or a bolt carrier.
According to further embodiments of the present invention the training
aid apparatus includes a pneumatic recoil simulator.
According to further embodiments of the present invention the magazine
includes a weighted striker for simulating subjective and objective recoil.
According to further embodiments of the present invention the magazine
further includes a displacer for readily displacing the weighted striker against a
striking surface.
According to further embodiments of the present invention the displacer
is responsive to an action selected from the group consisting of: the training aid
apparatus being activated, the actuator being activated, a sound from a firing
pin, a vibration from the firing pin and the firing pin striking the actuator.
According to further embodiments of the present invention the audio
apparatus further includes a speaker.
According to further embodiments of the present invention the audio
apparatus further includes a speaker for simulating a sound selected from the
group consisting of: a specific firearm being fired, voicing instructions by a
human instructor and voicing imbedded instructions in accordance to a training
scenario.
According to further embodiments of the present invention the audio
apparatus includes a set of headphones for simulating a sound selected from the
group consisting of: a specific firearm being fired, voicing instructions by a
human instructor and voicing imbedded instructions in accordance to a training
scenario.
According to further embodiments of the present invention the audio
apparatus further includes a processing unit.
According to further embodiments of the present invention the
processing unit is a computer.
According to further embodiments of the present invention the computer
is interfaced to a signal from the training aid apparatus.
According to further embodiments of the present invention the signal
received by the computers is fully interfaced with any on-line or web-based
software running on the computer.
BRIEF DESCRIPTION OF THE DRAWINGS
FIG. 1 is an exploded view of a replacement bolt carrier and/or bolt of a first
embodiment of the training aid apparatus in a firearm; and
FIG. 2 is an exploded view of an M16/AR15/M4 weapon system including a
schematic view of the training aid system according to the present invention.
DETAILED DESCRIPTION OF THE INVENTION
Turning now to the drawings, Figure 1 shows an embodiment of a
training aid 10. Training aid 10 is preferably comprised of an illuminator 12, a
power source 14, and an actuator 16.
Training aid 10 is preferably used while situated inside of, and in
conjunction with, a firearm 18, wherein firearm 18 is preferably comprised of a
trigger 20, a hammer 22, a firing pin 24, and a barrel 26. Barrel 26 is preferably
comprised of a material capable of conducting an electrical current.
Preferably, firearm 18 is one selected from the group consisting of any
firearm including a bolt and/or rotating bolt 28, a bolt carrier 30 as well as
rifles, Machine guns, Sniper rifles, a pistol, a revolver, a shotgun, a rifle and the
like.
Preferably, training aid 10 has a concentric shape recalling that of a bolt
and/or rotating bolt 28 and/or a bolt carrier 30.
Preferably, illuminator 12 is a light emitting diode ("LED") for readily
emitting a visible light and/or IR illumination.
Alternatively, illuminator 12 is an LED of sufficient power to illuminate
proximal and distal targets with visible and/or invisible illumination.
Preferably, illuminator 12 is an LED has a capacity of at between 0.1-1
watts.
Preferably, illuminator 12 is an LED has a capacity of at between 0.1-1
watts.
Preferably, illuminator 12 is an LED has a capacity of at least 1 watts.
Alternatively, illuminator 12 is a bulb, which bulb is constructed of such
desired shape and size so as to fit within the physical contours of training aid
10.
More preferably, illuminator 12 is a laser diode for readily emitting
coherent electro-magnetic radiation.
Preferably, power source 14 is electrically connected to illuminator 12.
Preferably, power source 14 is situated in adjacency to illuminator 12 for
readily powering illuminator 12. Optionally, illuminator 12 is powered by a
battery 32.
Preferably, battery 32 is a lithium battery for readily enhancing length of
use. More preferably, battery 32 is a battery commonly used with known
electro-optic products known in the art.
Especially preferred, battery 32 is a 3v lithium battery akin of CR 123
batteries known in the art.
Alternatively, actuator 16 is constructed of a crystalline. Optionally,
actuator 16 is constructed of at least one crystalline formation, such that
application of mechanical stress and/or pressure on actuator 16 generates
sufficient electric current to power illuminator 12.
Preferably, power source 14 generates electric current by application of
stress and/or mechanical pressure to a substance thus bringing about electric
polarization in the substance.
Preferably, actuator 16 includes a pressure sensitive switch 34
constructed of such material so as to be able to conduct an electrical current.
Preferably, pressure sensitive switch 34 simulates a firearm primer.
Preferably, actuator 16 is constructed of such material so as to substantially
lessen impact of firing pin 24 when actuator 16 is struck by firing pin 24.
Optionally an abbreviated firing pin 24 can be used thereby facilitating
larger overall length (OAL) of the components in bolt carrier 30.
Preferably, actuator 16 and/or pressure sensitive switch 34 includes an
energy absorbing material such that energy from firing pin 24 striking pressure
sensitive switch 34 is dampened.
Preferably, actuator 16 and/or pressure sensitive switch 34 are
constructed in way that energy from firing pin 24 striking pressure sensitive
switch 34 is dampened.
Preferably, actuator 16 is electrically connected to, and situated near,
power source 14 so as to be capable of conducting an electrical current from
power source 14. Actuator 16 is further preferably electrically connected to,
and situated near, batteries 32 so as to be capable of conducting an electrical
current from batteries 32.
Preferably, training aid 10 includes a capacitor 36 attached to, or
integrally formed with, power source 14.
Preferably, capacitor 36 is geared toward providing a multiplicity of
time settings wherein capacitor can be preset to release an electrical charge
sufficient for a single illumination of illuminator 12.
Optionally capacitor 36 replaces and/or augments the use of batteries 32
in training aid 10.
Preferably, capacitor 36 is geared toward providing the ability to create
a simulated jam in the firearm, such that the user shall be required to perform a
predetermined manipulation of the firearm prior to capacitor 36 reengaging and
facilitating the continuation of the string of fire.
By way of example only, the "jam" may require the removal and
insertion of the magazine in order to clear the "jammed" weapon and prior to
capacitor 36 reengaging and facilitating the continuation of the string of fire.
Alternatively, either randomly, or once in, for example, 90 shots fired, or the
fourth shot fired the firearm is set to simulate a "jam", thereby forcing the user
to "clear" the jammed condition of the firearm.
Optionally, a time chip 38 is electrically to, or integrally formed with,
power source 14.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for any time between 0.01 seconds and 1.0 seconds.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for any time between 0.05 seconds and 0.30 seconds.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for substantially 0.25 seconds.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for any time between 0.5 seconds and 2.0 seconds, such that any
displacement of firearm 18 during or after illumination initiation is readily
visible to a user either with the naked eye or with the assistance of suitable
apparatus as in the case of an IR illumination.
Preferably, training aid 10 includes a collimator 40 attached to, or
integrally formed, with illuminator 12.
Preferably, collimator 40 is situated in adjacency to illuminator 12 for
readily focusing light and/or electromagnetic radiation passing through
collimator 40.
Preferably, collimators 40 of different characteristics can be used as
known in the art for producing alternate focusing and/or collimating properties
of illumination emitted from illuminator 12.
Preferably, collimator 40 focuses and/or collimates illumination passing
through collimator 40 into a clear, substantially circular area of illumination
that is substantially between 0.01 and 0.1 centimeters in diameter when
illuminating at 9 yards.
Preferably, collimator 40 focuses and/or collimates illumination passing
through collimator 40 into a clear, substantially circular area of illumination
that is substantially between 0.1 and 0.6 centimeters in diameter when
illuminating at 9 yards.
Preferably, a bias 42 is situated on, or in adjacency to, actuator 16 for
readily displacing actuator 16 such that actuator 16 disengages and illumination
ceases.
Preferably, training aid 10 includes an identification transmitter 44 for
readily transmitting a signal from training aid 10 to any receiver.
Preferably, identification transmitter 44 readily transmits a signal
substantially contemporaneously with every illumination of illuminator 12.
Preferably, identification transmitter 44 is capable of transmitting any
type of signal compatible with any weapon simulation system known in the art,
including but not limited to, Miles2000™. Namely and by way of example only
identification transmitter 44 readily facilitates transmitting any signal indicative
of simulating any weapon type.
Preferably, identification transmitter 44 is capable of transmitting any
signal indicative of simulating any specific firearm 18.
Optionally, training aid 10 is further comprised of a pneumatic recoil
simulation element 46, for readily allowing discharge of training aid 10 as if
training aid was a fully functional bolt, rotating bolt or bolt carrier firing a
standard cartridge.
Alternatively, recoil simulation element only "re-cocks" hammer 22
without appreciably displacing bolt carrier 30 or bolt 28.
Optionally, recoil simulation element 46 is non-pneumatic and includes
a solenoid for simulating the recoil and/or "re-cocking" hammer 22.
Optionally, recoil simulation element is activated electrically by trigger
20 without having recourse to using hammer 22 and/or firing pin 24.
Optionally, firearm 18 is further comprises of a pneumatic mechanism
48 such as has been disclosed in U.S. Patent No's. 6,146,141, for readily
simulating "kickback".
In operation, hammer 22 is displaced to a rearward position. Such
rearward positioning of hammer 22 is known as "cocking" and usually a
prerequisite step to discharging firearm 18 and engaging training aid 10.
After firearm 18 has been cocked, rearward displacement of trigger 20
results in a complimentary displacement of the hammer 22 to a forward
position, thereby striking firing pin 24. Such strikes cause firing pin 24 to strike
actuator 16, the contact from such striking of actuator 16 thereby completing an
electrical circuit.
Occasioning on a hammerless firearm 18 being used, in operation, firing
pin 24 is displaced to a rearward position. Such rearward positioning of firing
pin 24 is known as "cocking" and is a prerequisite step to discharging
hammerless firearm 18 and engaging training aid 10.
After hammerless firearm 18 has been cocked, rearward displacement of
trigger 20 results in a complimentary release of firing pin 24 to a forward
position, thereby striking actuator 16, the contact from such striking of actuator
16 thereby completing an electrical circuit.
Occasioning on firearm 18 being a revolver, a bolt action rifle, a roating
bolt rifle or firearm 18 having a "double action" mechanism (DA) or double
action only mechanism (DAO), illumination of illuminator 12 occurs
substantially contemporaneously with firing pin 24 striking actuator 16.
Completion of electrical circuit brought about by firing pin 24 striking
actuator 16 causes power source 14 to provide power to illuminator 12. Upon
receiving power from power source 14, illuminator 12 emits illumination that
passes through collimator 40 and further through barrel 26 and then out of
firearm 18 to a location collinear with barrel 26. In an embodiment of the
present invention wherein illuminator 12 is a laser diode, illuminator 12 emits
coherent electro-magnetic radiation that passes through collimator 40 before
exiting barrel 26 of firearm 18 to a location collinear with barrel 26.
Preferably, illuminator 12 illuminates for 0.05-0.5 seconds for every
illumination.
The term "eye safe" as used herein includes, but is not limited to lasers
in classes 1, IM, 2 and 2M of American National Standards Institute (ANSI)
Zl 36.1 (2000) standard.
More preferably illuminator 12 illuminates substantially "eye safe"
illumination.
Preferably, illumination of illuminator 12 is modulated between 10-100
KHz.
More preferably, illumination of illuminator 12 is modulated at
substantially 40 KHz.
Preferably, illuminator 12 is capable of illuminating at any wavelength
including, but not limited to, visible, Infra Red, Ultra Violet and X-ray
wavelengths.
Preferably, illuminator 12 illuminates at a wavelength of substantially
635 nm.
Preferably, illuminator 12 illuminates substantially at a wavelength
producing visible red.
Preferably, illuminator 12 illuminates substantially at a wavelength
producing Infra Red (IR) illumination.
Preferably, illuminator 12 illuminates substantially at a wavelength
producing visible red illumination
Preferably, training aid 10 is compatible with any simulation known and
used in the art including, but not limited to, Miles 2000™.
Preferably, duration of completed electrical circuit resulting from
contact between firing pin 24 and actuator 16 is predetermined by bias 42, or
by capacitor 36 circuitry located in training aid 10.
Occasioning on a hammerless firearm 18 being used, in operation, firing
pin 24 is displaced to a rearward position. Such rearward positioning of firing
pin 24 is known as "cocking" and is a prerequisite step to discharging
hammerless firearm 18 and engaging training aid 10.
After firearm 18 has been cocked, rearward displacement of trigger 20
results in a complimentary displacement of firing pin 24 to a forward position.
Thereafter, firing pin 24 strikes actuator 16, the contact from such striking of
actuator 16 thereby completing an electrical circuit.
Completion of electrical circuit brought about by firing pin 24 striking
actuator 16 causes power source 14 to provide power to illuminator 12. Upon
receiving power from power source 14, illuminator 12 emits illumination that
passes through collimator 40 and further through barrel 26 and then out of
firearm 18 to a location collinear with barrel 26. In an embodiment of the
present invention wherein illuminator 12 is a laser diode, illuminator 12 emits
coherent electro-magnetic radiation that passes through collimator 40 before
exiting barrel 26 of firearm 18 to a location collinear with barrel 26.
Preferably, duration of completed electrical circuit resulting from
contact between firing pin 24 and actuator 16 is predetermined by bias 42, or
by capacitor 36 circuitry located in training aid 10.
Preferably, actuator 16 is activated in response to sound and/or vibration
from firing pin 24 being struck by hammer 22 and/or firing pin 24 striking
actuator 16 and/or firing pin 24 striking pressure sensitive switch 34.
.Preferably, a firearm magazine 50 includes a recoil simulation element
46 for simulating subjective and objective recoil.
As used herein the term "objective recoil" includes but is not limited to
the backwards displacement of a firearm by the conservation of momentum on
emission of a projectile from the firearm, the rebounding of a firearm after the
firearm has been fired.
As used herein the term "subjective recoil" includes but is not limited to
the "flip" of a muzzle on a firearm after being fired and/or the felt torque of the
firearm due to contrary forces being applied while a projectile travels down a
rifled barrel and/or the slap the user feels and/or recoil impulse the user feels
when firing a firearm.
Thus, recoil simulation element 46 for simulating subjective and
objective recoil is geared towards simulating subjective and objective recoil
with sufficient energy and or momentum to simulate subjective recoil and/or
objective recoil of any cartridge known in the art.
Preferably, training aid 40 includes an identification chip 52 for readily
transmitting any type of signal compatible with any weapon simulation system
known in the art, including but not limited to, Miles2000™. Namely and by
way of example only identification chip 52 readily facilitates transmitting any
signal indicative of simulating any weapon type.
Preferably, identification chip 52 is capable of transmitting any
signal indicative of simulating any specific firearm.
As used herein, the term "transmitter" includes, but is not limited to, a
RF transmitter, an IR source, a WiFi module, RFID and a "blue tooth" module.
As used herein, the term "receiver" includes, but is not limited to, a RF
receiver, an IR module, a WiFi module, RFID module and a "blue tooth"
module.
Optionally magazine 50 includes a speaker or an audio apparatus 54
responsive to the training aid 10 for readily simulating the audio sound
characteristic the firearm being used.
Alternatively, audio apparatus 54 can be set and/or programmed to
produce any audio sound characteristic of any firearm thereby providing
simulating and training enhancements beyond what is commonly known in the
art.
A variety of safety enhancements are envisaged with training aid 10. By
way of example only, a safety color such as bright orange can be included on a
cocking handle 56 or any other prominent or visible area of the firearm.
Optionally, bolt carrier 30 can be constructed or include a component
selected from the group consisting of: colored polymer, painted aluminum,
anodized aluminum, Teflon coated materials, brass, copper or any other non-
marring and/or readily visible material or color.
Figure 2 shows a training aid system 58 in alternative embodiment of a
replacement bolt and/or rotating bolt 28 and/or a bolt carrier 30 for dry fire and
live fire simulation.
As shown, a training aid system 58 preferably includes an illuminator
12, a power source 14, and an actuator 16.
Training aid system 58 is preferably used while situated inside of, and in
conjunction with, a firearm 18, wherein firearm 18 is preferably comprised of a
trigger 20 (shown in Figure 1), a hammer 22 (shown in Figure 1), a firing pin
24, and a barrel 26 (shown in Figure 1). Barrel 26 (shown in Figure 1) is
preferably comprised of a material capable of conducting an electrical current.
Preferably, the firearm is one selected from the group consisting of any
firearm including a bolt and/or rotating bolt 28, a bolt carrier 30 as well as
rifles, Machine guns, Sniper rifles, a pistol, a revolver, a shotgun, a rifle and the
like.
Preferably, training aid system 58 has a concentric shape recalling that
of a bolt and/or rotating bolt 28 and/or a bolt carrier 30.
Preferably, illuminator 12 is a light emitting diode ("LED") for readily
emitting a visible light and/or IR illumination.
Alternatively, illuminator 12 is an LED of sufficient power to illuminate
proximal and distal targets with visible and/or invisible illumination.
Preferably, illuminator 12 is an LED has a capacity of at between 0.1-1
watts.
Preferably, illuminator 12 is an LED has a capacity of at between 0.1-1
watts.
Preferably, illuminator 12 is an LED has a capacity of at least 1 watts.
Alternatively, illuminator 12 is a bulb, which bulb is constructed of such
desired shape and size so as to fit within the physical contours of training aid
system 58.
More preferably, illuminator 12 is a laser diode for readily emitting
coherent electro-magnetic radiation.
Preferably, power source 14 is electrically connected to illuminator 12.
Preferably, power source 14 is situated in adjacency to illuminator 12 for
readily powering illuminator 12. Optionally, illuminator 12 is powered by a
battery 32.
Preferably, battery 32 is a lithium battery for readily enhancing length of
use. More preferably, battery 32 is a battery commonly used with known
electro-optic products known in the art.
Especially preferred, battery 32 is a 3v lithium battery akin of CRl 23
batteries known in the art.
Alternatively, actuator 16 is constructed of a crystalline. Optionally,
actuator 16 is constructed of at least one crystalline formation, such that
application of mechanical stress and/or pressure on actuator 16 generates
sufficient electric current to power illuminator 12.
Preferably, power source 14 generates electric current by application of
stress and/or mechanical pressure to a substance thus bringing about electric
polarization in the substance.
Preferably, actuator 16 includes a pressure sensitive switch 34
constructed of such material so as to be able to conduct an electrical current.
Preferably, pressure sensitive switch 34 simulates a firearm primer.
Preferably, actuator 16 is constructed of such material so as to substantially
lessen impact of firing pin 24 when actuator 16 is struck by firing pin 24.
Optionally an abbreviated firing pin 24 can be used thereby facilitating
larger overall length (OAL) of the components in bolt 28.
Preferably, actuator 16 and/or pressure sensitive switch 34 include an
energy absorbing material such that energy from firing pin 24 striking pressure
sensitive switch 34 is dampened.
Preferably, actuator 16 and/or pressure sensitive switch 34 are
constructed in way that energy from firing pin 24 striking pressure sensitive
switch 34 is dampened.
Preferably, actuator 16 is electrically connected to, and situated near,
power source 14 so as to be capable of conducting an electrical current from
power source 14. Actuator 16 is further preferably electrically connected to,
and situated near, batteries 32 so as to be capable of conducting an electrical
current from batteries 32.
Preferably, training aid system 58 includes a capacitor 36 attached to, or
integrally formed with, power source 14.
Preferably, capacitor 36 is geared toward providing a multiplicity of
time settings wherein capacitor can be preset to release an electrical charge
sufficient for a single illumination of illuminator 12.
Optionally capacitor 36 replaces and/or augments the use of batteries 32
in training aid system 58.
Preferably, capacitor 36 is geared toward providing the ability to create
a simulated jam in the firearm, such that the user shall be required to perform a
predetermined manipulation of the firearm prior to capacitor 36 reengaging and
facilitating the continuation of the string of fire.
By way of example only, the "jam" may require the removal and
insertion of the magazine in order to clear the "jammed" weapon and prior to
capacitor 36 reengaging and facilitating the continuation of the string of fire.
Alternatively, either randomly, or once in, for example, 90 shots fired, or the
fourth shot fired the firearm is set to simulate a "jam", thereby forcing the user
to "clear" the jammed condition of the firearm.
Optionally, a time chip 38 is electrically to, or integrally formed with,
power source 14.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for any time between 0.01 seconds and 1.0 seconds.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for any time between 0.05 seconds and 0.30 seconds.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for substantially 0.25 seconds.
Preferably, time chip 38 can be preset to readily facilitate illumination of
illuminator 12 for any time between 0.5 seconds and 2.0 seconds, such that any
displacement of the firearm during or after illumination initiation is readily
visible to a user either with the naked eye or with the assistance of suitable
apparatus as in the case of an IR illumination.
Preferably, training aid system 58 includes a collimator 40 attached to,
or integrally formed, with illuminator 12.
Preferably, collimator 40 is situated in adjacency to illuminator 12 for
readily focusing light and/or electromagnetic radiation passing through
collimator 40.
Preferably, collimators 40 of different characteristics can be used as
known in the art for producing alternate focusing and/or collimating properties
of illumination emitted from illuminator 12.
Preferably, collimator 40 focuses and/or collimates illumination passing
through collimator 40 into a clear, substantially circular area of illumination
that is substantially between 0.01 and 0.1 centimeters in diameter when
illuminating at 9 yards.
Preferably, collimator 40 focuses and/or collimates illumination passing
through collimator 40 into a clear, substantially circular area of illumination
that is substantially between 0.1 and 0.6 centimeters in diameter when
illuminating at 9 yards.
Preferably, training aid system 58 includes an identification transmitter
44 for readily transmitting a signal from training aid system 58 to any receiver.
Preferably, identification transmitter 44 readily transmits a signal
substantially contemporaneously with every illumination of illuminator 12.
Preferably, identification transmitter 44 is capable of transmitting any
type of signal compatible with any weapon simulation system known in the art,
including but not limited to, Miles2000™. Namely and by way of example only
identification transmitter 44 readily facilitates transmitting any signal indicative
of simulating any weapon type.
Preferably, identification transmitter 44 is capable of transmitting any
signal indicative of simulating any specific the firearm.
Occasioning on the firearm being a revolver, a bolt action rifle, a roating
bolt rifle or the firearm having a "double action" mechanism (DA) or double
action only mechanism (DAO), illumination of illuminator 12 occurs
substantially contemporaneously with firing pin 24 striking actuator 16.
Completion of electrical circuit brought about by firing pin 24 striking
actuator 16 causes power source 14 to provide power to illuminator 12. Upon
receiving power from power source 14, illuminator 12 emits illumination that
passes through collimator 40 and further through barrel 26 (shown in Figure 1)
and then out of the firearm to a location collinear with barrel 26 (shown in
Figure 1). In an embodiment of the present invention wherein illuminator 12 is
a laser diode, illuminator 12 emits coherent electro-magnetic radiation that
passes through collimator 40 before exiting barrel 26 (shown in Figure 1) of the
firearm to a location collinear with barrel 26 (shown in Figure 1).
Preferably, illuminator 12 illuminates for 0.05-0.5 seconds for every
illumination.
The term "eye safe" as used herein includes, but is not limited to lasers
in classes 1, IM, 2 and 2M of American National Standards Institute (ANSI)
Zl 36.1 (2000) standard.
More preferably illuminator 12 illuminates substantially "eye safe"
illumination.
Preferably, illumination of illuminator 12 is modulated between 10-100
KHz.
More preferably, illumination of illuminator 12 is modulated at
substantially 40 KHz.
Preferably, illuminator 12 is capable of illuminating at any wavelength
including, but not limited to, visible, Infra Red, Ultra Violet and X-ray
wavelengths.
Preferably, illuminator 12 illuminates at a wavelength of substantially
635 run.
Preferably, illuminator 12 illuminates substantially at a wavelength
producing visible red.
Preferably, illuminator 12 illuminates substantially at a wavelength
producing Infra Red (IR) illumination.
Preferably, illuminator 12 illuminates substantially at a wavelength
producing visible red illumination
Preferably, training aid system 58 is compatible with any simulation
known and used in the art including, but not limited to, Miles 2000™.
Preferably, duration of completed electrical circuit resulting from
contact between firing pin 24 and actuator 16 is predetermined by capacitor 36
circuitry located in training aid system 58.
Occasioning on a hammerless the firearm being used, in operation,
firing pin 24 is displaced to a rearward position. Such rearward positioning of
firing pin 24 is known as "cocking" and is a prerequisite step to discharging
hammerless the firearm and engaging training aid system 58.
After the firearm has been cocked, rearward displacement of trigger 20
(shown in Figure 1) results in a complimentary displacement of firing pin 24 to
a forward position. Thereafter, firing pin 24 strikes actuator 16, the contact
from such striking of actuator 16 thereby completing an electrical circuit.
Completion of electrical circuit brought about by firing pin 24 striking
actuator 16 causes power source 14 to provide power to illuminator 12. Upon
receiving power from power source 14, illuminator 12 emits illumination that
passes through collimator 40 and further through barrel 26 (shown in Figure 1)
and then out of the firearm to a location collinear with barrel 26 (shown in
Figure 1). In an embodiment of the present invention wherein illuminator 12 is
a laser diode, illuminator 12 emits coherent electro-magnetic radiation that
passes through collimator 40 before exiting barrel 26 (shown in Figure 1) of the
firearm to a location collinear with barrel 26 (shown in Figure 1).
Preferably, duration of completed electrical circuit resulting from
contact between firing pin 24 and actuator 16 is predetermined by capacitor 36
circuitry located in training aid system 58.
Preferably, actuator 16 is activated in response to sound and/or vibration
from firing pin 24 being struck by hammer 22 (shown in Figure 1) and/or firing
pin 24 striking actuator 16 and/or firing pin 24 striking pressure sensitive
switch 34.
Preferably, training aid 40 includes an identification chip 52 for readily
transmitting any type of signal compatible with any weapon simulation system
known in the art, including but not limited to, Miles2000™. Namely and by
way of example only identification chip 52 readily facilitates transmitting any
signal indicative of simulating any weapon type.
Preferably, identification chip 52 is capable of transmitting any
signal indicative of simulating any specific firearm.
As used herein, the term "transmitter" includes, but is not limited to, a
RF transmitter, an IR source, a WiFi module, RFTD and a "blue tooth" module.
As used herein, the term "receiver" includes, but is not limited to, a RF
receiver, an IR module, a WiFi module, RFID module and a "blue tooth"
module.
It will be appreciated that the above descriptions are intended to only
serve as examples, and that many other embodiments are possible within the
spirit and scope of the present invention.