子分类：
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 1 | Dispositif de marquage d'impact pour munition d'exercice et munition équipée d'un tel dispositif | EP13290024.2 | 2013-01-30 | EP2626663B1 | 2014-03-19 | Barthelemy, Patrick; Sibilaud, Nicolas; Ferrat, Marc; Carton, Laurent; Dubois, Philippe; Vuillermoz, Hervé |
| 2 | NON-DETONABLE AND NON-EXPLOSIVE EXPLOSIVE SIMULATORS | EP94912177.0 | 1994-03-03 | EP0653045A1 | 1995-05-17 | SIMPSON, Randall, L.; PRUNEDA, Cesar, O. |
| A simulator which is chemically equivalent to an explosive, but is not detonable. The simulator has particular use in the training of explosives detecting dogs and calibrating sensitive analytical instruments. The explosive simulants may be fabricated by different techniques, a first involves the use of standard slurry coatings to produce a material with a very high binder to explosive ratio without masking the explosive vapor, and the second involves coating inert beads with thin layers of explosive molecules. | ||||||
| 3 | Haptic feedback spark devices for simulator | US15859861 | 2018-01-02 | US10066913B2 | 2018-09-04 | William John Carey; Josiah Carey |
| Haptic feedback system that simulates a detonation or explosive event. The system includes a power supply, an energy storage circuit, a switching circuit, and a conductor operatively connected to said energy storage circuit through said switching circuit whereby said conductor causes a haptic event when said energy storage circuit is electrically connected to said conductor by operation of said switching circuit. The system creates shock waves and pressure waves in a safe manner for use in a simulator. | ||||||
| 4 | Haptic Feedback Spark Devices for Simulator | US15859861 | 2018-01-02 | US20180120068A1 | 2018-05-03 | William John Carey; Josiah Carey |
| Haptic feedback system that simulates a detonation or explosive event. The system includes a power supply, an energy storage circuit, a switching circuit, and a conductor operatively connected to said energy storage circuit through said switching circuit whereby said conductor causes a haptic event when said energy storage circuit is electrically connected to said conductor by operation of said switching circuit. The system creates shock waves and pressure waves in a safe manner for use in a simulator. | ||||||
| 5 | LASER TRAINER CARTRIDGE WITH MULTIPLE SUPPORT STRUCTURES | US15243813 | 2016-08-22 | US20170153095A1 | 2017-06-01 | Larry Moore |
| A laser trainer cartridge fits into a gun barrel and includes a backer, circuit and a laser. When the firing pin of the gun is activated it strikes the backer, which contacts the circuit and activates the laser. The laser trainer cartridge has a plurality of spaced-apart O-rings to keep it positioned properly in a gun barrel. The O-rings are configured to be positioned in a particular-sized gun bore. Multiple laser trainer cartridges, wherein each has different-sized O-rings to fit different caliber guns, may be provided as a kit. | ||||||
| 6 | Laser trainer target | US13353241 | 2012-01-18 | US09429404B2 | 2016-08-30 | Larry E. Moore; Aaron M. Moore |
| A target senses whether and where it has been struck by a laser light. The target includes a screen for allowing laser light to pass through, a plurality of light sensors behind the screen, and an optical display associated with one or more of the light sensors. When the target is struck by a laser light, a sensor records the strike, and the target may be struck with laser light multiple times, whereby different sensors may record the different strikes. To determine whether and where the target has been struck, the user activates a display mode that causes the optical displays in the target to illuminate. The user can then reset the target so the user can begin again. | ||||||
| 7 | Inert IED training kits | US14334997 | 2014-07-18 | US09291436B2 | 2016-03-22 | Abiy Eshetu; Timothy B. Burton; John D. Howell; Mathew F. Rutter; Timothy James Winnett |
| Disclosed herein are embodiments of simulated explosive materials and Threat Screening Kits and simulated IED Circuit Kits including simulated explosive materials. The simulated explosive materials are configured to produce an output signal consistent with the presence of an actual explosive material when scanned in an X-ray scanner. | ||||||
| 8 | Impact marking device for practice round and round equipped with such a device | US14373864 | 2013-01-30 | US09103639B2 | 2015-08-11 | Patrick Barthelemy; Nicolas Sibilaud; Marc Ferrat; Laurent Carton; Philippe Dubois; Hervé Vuillermoz |
| According to the invention, the marking device has a shape of revolution and comprises a casing (1) with a conical bottom (8) closed off by an obturator (2), fixed in a sealed manner to said casing (1). Inside said marking device there is a block (15) of compacted marking product. | ||||||
| 9 | Simulant material for primary explosives | US12318820 | 2009-01-08 | US08641843B2 | 2014-02-04 | Shulman Hagit; Yael Cohen-Arazi; Edith Sokol; Moshit Yaskin-Harush |
| The present invention provides a simulant material comprising a primary explosive and a carrier. | ||||||
| 10 | LASER TRAINER CARTRIDGE | US13353165 | 2012-01-18 | US20120224387A1 | 2012-09-06 | Larry E. Moore |
| A cartridge laser trainer fits into a gun barrel and includes a backer, circuit and a laser. When the firing pin of the gun is activated it strikes the backer, which contacts the circuit and activates the laser. The cartridge laser trainer may also have one or more O-rings to keep it positioned properly in the gun barrel. Also disclosed are kits that contain (1) a plurality of sheaths and a cartridge laser trainer, or (2) a plurality of O-rings and a cartridge laser trainer. Each sheath or O-ring(s) is configured to be positioned in a particular-sized gun bore and is configured to receive a cartridge laser trainer. With a kit, a single cartridge laser trainer can be used with more than one size of gun bore. | ||||||
| 11 | SIMULANT MATERIAL FOR PRIMARY EXPLOSIVES | US13227642 | 2011-09-08 | US20110315283A1 | 2011-12-29 | Shulman HAGIT; Yael COHEN-ARAZI; Edith SOKOL; Moshit YASKIN-HARUSH |
| The present invention provides a simulant material comprising a primary explosive and a carrier. | ||||||
| 12 | SIMULANT MATERIAL AND METHOD FOR MANUFACTURE THEREOF | US13053941 | 2011-03-22 | US20110168950A1 | 2011-07-14 | Yael COHEN-ARAZI; Tamar KAULLY; Edith SOKOL; Aviv NISAN |
| Provided is a simulant material for simulating hazardous materials, including a quantity of at least one explosive material and at least one inert material. The simulant material is a non-explosive material and is in the form of a homogenous, flexible and non-particulated material. Also provided is a method for manufacturing such a simulant material. | ||||||
| 13 | Method of producing energetically-inert pseudoscents of explosive materials, and compositions thereof | US11385472 | 2006-03-21 | US07694628B2 | 2010-04-13 | David B. Adebimpe; Marek A. Zgol; R. Glenn Wright |
| This invention relates to a method that can be used to scientifically fabricate pseudoscents of explosives, which, in their entirety, are comprised of non-energetic materials. It also discloses specific compositions of such pseudoscents, which can be used as energetically-inert-but-odoriferously-identical simulants for a range of explosives and are comprised of non-energetic components of the scent signature of an explosive and/or energetic scent components of the same headspace scent signature that have been rendered non-energetic. The scents achievable by the groups of formulations generated by this method encompass the different types of military and commercial explosives, and the components within the pseudoscents can be tuned to generate simulants representative of different qualities and quantities of such explosives. These explosive-scent simulants can be used to bolster existing explosive detecting dog (EDD) training programs, establish new training paradigms in canine, rodent, insect, and other creature explosive detection and training and, in some cases, increase the efficiencies of analytical instruments that rely on the phenomenon of vapor sampling to detect explosive materials. | ||||||
| 14 | Methods for making scent simulants of chemical explosives, and compositions thereof | US12222738 | 2008-08-14 | US20090194744A1 | 2009-08-06 | David O.B.A Adebimpe |
| The present invention relates to methods for producing non-detonable and non-explosive parent-odor scent simulants of both detonable and entropy-burst chemical explosive materials. A detonable explosive material is a material that explosives with the aid of detonation while an entropy burst explosive material is a very sensitive energetic material that does not require detonation, but explodes through a spontaneous decomposition of its molecules into gaseous products. The invention also presents representative non-detonable, non-hazardous compositions of such simulants that can be safely and effectively utilized within a broad spectrum of biological and non-biological explosives detection programs, non-limiting examples being the training of biological search-and-detect creatures such as explosive detecting dogs and the calibration of electronic explosive detecting instruments that rely on the principles of vapor sampling for their operations. | ||||||
| 15 | NON-PYROTECHNIC EXPLOSION DEVICE | US10976288 | 2004-10-27 | US20070169658A1 | 2007-07-26 | Nathan Brock |
| A “non pyrotechnic explosion device” closely replicates in sound and visual cue a “real” exploding device, but without the accompanying safety concerns. This device is not only realistic and safe, but is inexpensive to operate and maintain, durable, and easy to transport and operate. It provides the user with numerous options for employment from mine, bomb, and improvised explosive device (ied) simulators to an artillery impact simulator. The device is comprised of a pressurized chamber, a pressure release device, an expulsion substance container, and a rupture-able/explosion tube assembly. | ||||||
| 16 | Explosion simulator and system for generating audio and visual effects | US210475 | 1994-03-21 | US5511978A | 1996-04-30 | John W. Sellers, Jr.; Stanley E. Tate |
| An explosion simulator generates bang, smoke and flash cues. Pressurized gas is released into a shock tube to generate a shock wave and, thereby produce the bang cue. The pressurized gas is released from a gas reservoir into the shock tube through a diaphragm which is broken by a firing pin in response to a control circuit. A smoke powder packet containing a smoke powder is positioned in the shock tube. The pressurized gas travelling in the shock tube bursts the smoke powder packet and the smoke powder is dispersed to produce a smoke cue, or cloud. A flashtube generates the flash cue to illuminate the smoke cloud. An audio/visual explosion simulation system is also disclosed for generating multiple bang, smoke and flash cues from a single shock tube. Immediately prior to generating a bang cue, a gas supply fills a gas reservoir with pressurized gas. A reusable valve opens to release the pressurized gas from the reservoir into the shock tube and closes to seal the reservoir for refilling by the gas supply. A smoke generator repeatedly releases smoke powder into the shock tube to generate smoke clouds for each successive smoke cue. | ||||||
| 17 | Method for fabricating non-detonable explosive simulants | US221568 | 1994-04-01 | US5413812A | 1995-05-09 | Randall L. Simpson; Cesar O. Pruneda |
| A simulator which is chemically equivalent to an explosive, but is not detonable. The simulator has particular use in the training of explosives detecting dogs and calibrating sensitive analytical instruments. The explosive simulants may be fabricated by different techniques, a first involves the use of standard slurry coatings to produce a material with a very high binder to explosive ratio without masking the explosive vapor, and the second involves coating inert beads with thin layers of explosive molecules. | ||||||
| 18 | Dispositif de marquage d'impact pour munition d'exercice et munition équipée d'un tel dispositif | EP13290024.2 | 2013-01-30 | EP2626663A1 | 2013-08-14 | Barthelemy, Patrick; Sibilaud, Nicolas; Ferrat, Marc; Carton, Laurent; Dubois, Philippe; Vuillermoz, Hervé |
- Dispositif de marquage d'impact pour munition d'exercice et munition équipée d'un tel dispositif. - Selon l'invention, le dispositif de marquage présente une forme de révolution et comporte un boîtier (1), à fond conique (8), obturé par un obturateur (2), fixé de manière étanche audit boîtier (1). A l'intérieur dudit dispositif de marquage se trouve un bloc (15) de produit de marquage compacté.
|
||||||
| 19 | Missile training system | EP08200007.6 | 2008-02-21 | EP2093532A1 | 2009-08-26 | The designation of the inventor has not yet been filed |
A missile training system having a module for attaching to the missile. When the missile is directed towards a target, the module's control system provides an output signal indicative of whether or not the missile is to be destroyed. The control system evaluates whether a number of conditions are met or not, and determines the output signal accordingly. A module for use in the training system and methods of use are also provided.
|
||||||
| 20 | Vorrichtung zur Erzeugung pyrotechnischer Effekte | EP05024893.9 | 2005-11-15 | EP1677067A1 | 2006-07-05 | Garms, Thomas; Schultz, Oliver; Zahn, Arthur Detlef |
Zur Ausbildung auf dem militärischen zivilen Verteidigungssektor finden Vorrichtungen Verwendung, die pyrotechnische Effekte erzeugen und damit beispielsweise die Explosion einer Handgranate simulieren. Bekannte Vorrichtungen dieser Art verfügen über einen hülsenartigen Hüllkörper, der mit der pyrotechnischen Ladung (10) und Anzündmitteln (12) versehen wird. Besonders aufwendig ist es, in einen solchen rohrförmigen Hüllkörper (11) mehrere pyrotechnische Ladungen (10) und Anzündmittel (12) unterzubringen. Bei der Erfindung geht es um die Schaffung einer einfachen Vorrichtung zur Erzeugung pyrotechnischer Effekte, bei der der Hüllkörper (11) aus mehreren miteinander verbundenen plattenartigen Schichten gebildet ist, zwischen denen die pyrotechnischen Ladungen (10) und auch die Anzündmittel (12) eingebettet sind. Außerdem ist vorgesehen, die Anzündmittel (12) aus Heizwiderständen zu bilden, und zwar insbesondere Heizwiderstände, bei denen die Heizdrähte ein mäanderförmigen Verlauf aufweisen. Solche Anzündmittel (12) eignen sich besonders für die Bildung eines aus mehreren Schichten zusammengesetzten plattenartigen Hüllkörpers. Infolge dieses Hüllkörpers verfügt die Vorrichtung über eine Gestalt, die mit einer Kredit- oder Scheckkarte vergleichbar ist.
|
||||||
QQ群二维码
意见反馈
意见反馈