The present invention relates to a safety glove for disorienting an assailant or aggressive animal. More particularly, the present invention relates to a glove that includes at least one lamp that lights upon activation of one or more sensors on the glove.
Service men and women, such as police officers and military personnel, encounter assailants in the line of duty. Such assailants often attack without warning, thereby surprising the police officer or military person. Aggressive animals can also attack without warning. Although many police officers and military personnel are highly trained, any delay in reacting to an assailant could mean injury or death and failure to capture the assailant or aggressive animal. Also, people, such as walkers, joggers, and hikers can be confronted by assailants or animals, like an unleashed dog.
Therefore, a need exists for a way to immediately disorient and neutralize an assailant or aggressive animal, particularly in a surprise attack.
The present invention provides a glove that comprises a main body and a plurality of finger portions that extend from the main body. The main body includes a palm portion and a wrist portion. The glove includes at least one lamp. The lamp is configured to disorient a human or animal. At least first and second contact sensors are disposed on first and second finger portions, respectively. A power source is electrically connected to each lamp and the first and second contact sensors, wherein when the first and second contact sensors are in contact, power is provided to the lamp from the power source, thereby lighting the lamp, and when the first and second contact sensors are disengaged, no power is provided to the lamp. In a preferred embodiment, a controller is provided that is electrically connected to the first and second contact sensors, the lamp and the power source.
The present invention may also provide a glove that comprises a main body and a plurality of finger portions that extend from the main body. A lamp is coupled to the main body. At least first and second contact sensors disposed on the first and second finger portions of the plurality of finger portions, respectively. A controller is electrically connected to the lamp and each of the first and second contact sensors. The controller includes a flashing strobe timer circuit. A power source is electrically connected to the controller, wherein when the first and second contact sensors are in contact, power is provided to the lamp from the power source, thereby lighting the lamp, and when the first and second contact sensors are disengaged, no power is provided to the lamp. In a preferred embodiment, the lamp is an LED or a matrix of LEDs.
The present invention may further provide a glove that comprises a main body and a plurality of finger portions that extend from the main body. The plurality of finger portions include at least a thumb portion, an index finger portion, and a middle finger portion. A lamp is coupled to the main body of the glove. The lamp is configured to disorient a human or animal. First, second, and third contact sensors are disposed on the thumb portion, the index finger portion, and the middle finger portion, respectively. A controller is electrically connected to the lamp and each of the first, second, and third contact sensors. A power source is electrically connected to the controller, wherein when the first and second contact sensors are in contact, the controller provides power to the lamp so that the lamp lights with a first lighting effect, and when the first and third contact sensors are in contact, the controller provides power to the lamp so that the lamp lights with a second lighting effect that is different than the first lighting effect. In one embodiment, the first lighting effect is a strobe effect and the second lighting effect is constant light. In another embodiment, the first lighting effect is constant light and the second lighting effect is a strobe effect. In one embodiment, the strobe effect flash rate effective to cause disorientation is between about 1 and about 20 Hertz (flashes per second), preferably between about 9 and about 15 Hertz. Such flash rate may be effective to cause the Bucha effect in an assailant, causing disorientation and/or vertigo and/or nausea. The flash rate may be varied by the user (i.e. wearer of the glove 100) in order to regulate the level of discomfort caused to an assailant.
The present invention may still further provide a glove that comprises a main body and a plurality of finger portions that extend from the main body. A lamp is coupled to the main body of the glove. The lamp is configured to disorient a human or animal. A controller is electrically connected to the lamp. The controller includes a movement sensor that is activated upon a recognized motion pattern or position of the glove. A power source is electrically connected to the controller, wherein when the movement sensor recognizes the motion pattern or position of the glove, the controller provides power to the lamp, thereby lighting said lamp.
Other objects, advantages and salient features of the invention will become apparent from the following detailed description, which, taken in conjunction with the annexed drawings, discloses a preferred embodiment of the present invention.
A more complete appreciation of the invention and many of the attendant advantages thereof will be readily obtained as the same becomes better understood by reference to the following detailed description when considered in connection with the accompanying drawings, wherein:
Referring to
As seen in
The lamp 110 may be any type of light that can be incorporated into the glove 100. Preferably, the lamp 110, when activated, causes disorientation when directed towards a person or animal. In a preferred embodiment, the lamp 110 is an LED or a matrix of LEDs, and more preferably an LED in wafer form, as seen in
The lamp 110 may be from about 20 to about 200 watts, preferably 50 watts (about 4000 lumen). At the time of the present application, current technologies allow for the manufacture of LED lamps capable of over 230 lumens per watt. This ratio of light output to wattage required has more than doubled in the last 4 years and is expected to continue increasing. A protective refractor lens may be added to the lamp that would direct the light pattern to a specified angle, increasing the lumen value and providing additional protection for the lamp. The lamp 110 may also be different colors and/or patterns. A red LED, for example, would be particularly useful for law enforcement and traffic control applications. A Red Green Blue (RGB) LED may be used that allows the user to switch between emitting a number of different colors. Various patterns may also be provided on the lamp 110 such that the lamp 110 displays a selected pattern. For example, a pattern in the form of the word STOP may be provided on the lamp 110 so that the word STOP, in English or a foreign language, is displayed when the lamp 110 is activated. A pattern, such as traffic sign like an eight sided stop sign, may be displayed. Such a symbol would be particularly useful when there may be a language barrier, such as a solider in a foreign country needing to get cars to stop at checkpoints.
Although the LED wafer 110 is shown as having a substantially square shape, the lamp 110 may have any shape, such as circular, triangular, and diamond or may be custom molded to maximize palm surface area. The lamp 110 may also be a bright light, such as a 100 watt (about 10,000 lumen) light, that is particularly useful for law enforcement and military personnel, for example, for blinding an aggressor from increased distances using wider, more forgiving dispersion patterns requiring less aim and user expertise than would normally be required by using handheld flashlight style strobe disorienting devices. By using a lamp or lamps capable of thousands of lumens requires less aim and skill and will completely disorient an aggressor. Other examples of lamps may include standard 3, 5, 8 or 10 mm raw LED elements mounted on a flexible fabric that forms the glove, preferably between 100 to 250 pcs. Organic LED elements may also be used to allow for maximum palm surface area coverage and pliability. Organic LED elements would also allow the glove to be very flexible.
The LED wafer 110 may be supported on the glove 100 in any known manner, such as by being sewn in, adhered thereto, and the like. In a preferred embodiment, the LED wafer 110 is supported in a clear flexible pocket 112 attached to the glove 100, such as at the palm portion 106, as seen in
Contact sensors 120, 122 and 124 may be provided on the glove, such as the finger portions 104 of the glove 100. Preferably, the contact sensors 120, 122 and 124 are disposed on the thumb portion 104a, the index finger portion 104b, and the middle finger portion 104c, respectively, as seen in
A power source 130 for the lamp 110 may be provided either on the glove 100 or remote from the glove 100, such as on the belt of the user (shown in dashed lines in
An electronic control unit or controller 140 is provided that electrically connects the contact sensors 120, 122 and 124 and the lamp 110 to the power source 130 and controls the operation of the lamp 110. The controller 140 is preferably supported in the wrist portion 108 of the glove 100. The controller 140 is connected to the power source 130 and is coupled to the contact sensors 120, 122 and 124 and the lamp 110 by conductors, such as copper wires 142. The controller 140, as seen in
In accordance with another embodiment of the invention, the controller may include a movement sensor 440 (
In operation, when a user requires light quickly, the user simply touches the contact sensor 120 on the glove's thumb portion 104a with the contact sensor 122 on the index finger portion 104b, as seen in
While particular embodiments have been chosen to illustrate the invention, it will be understood by those skilled in the art that various changes and modifications can be made therein without departing from the scope of the invention as defined in the appended claims. For example, the safety glove 100 may be used by anyone needing light particularly for defensive purposes, such as, joggers, hikers, etc. The glove can also provide the location of the user by the GPS of the controller. Also, although the glove 100 of the present invention is described as being used in a safety application, the glove 100 can be used for other applications including a non-safety application.