| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 181 | Cartridge | US12674641 | 2008-07-25 | US08516964B2 | 2013-08-27 | Thomas Heitmann; Klaus-Achim Kratzsch; Michael Vagedes |
| The invention relates to a cartridge having a propellant charge casing at least partially filled with a propellant charge powder, and a projectile part connected on a front of the propellant charge casing, wherein the propellant charge casing comprises a casing cover, a casing sheath and a casing base, and the casing sheath is connected to the projectile part via the casing cover and to the casing base via a spring steel sheet. In order to achieve different amounts of propellant charge powder filled into the same propellant charge casing without igniting the propellant charge at undesirable blast waves, a sack-shaped container that is completely filled with the respective amount of propellant charge powder is disposed inside the propellant charge casing so that the container, and thus also the propellant charge powder, extends in the direction of the central longitudinal axis of the cartridge. | ||||||
| 182 | PACKAGING MACHINES SUITABLE FOR SHOT BAGS AND RELATED METHODS | US13742848 | 2013-01-16 | US20130186261A1 | 2013-07-25 | Dennis J. May; Matthew D. Lowder |
| Apparatus, systems, devices, methods and computer program products are configured to package products using automated movement of components that fill, then clip bags in a manner that is particularly suitable for packaging blasting powder and/or explosives in shot bags. | ||||||
| 183 | Methods for making and using high explosive fills for MEMS devices | US12647707 | 2009-12-28 | US07967929B1 | 2011-06-28 | Daniel Stec, III; Amy Wilson; Brian E. Fuchs; Neha Mehta; Paula Cook |
| Secondary crystalline high explosives are disclosed which are suitable for filling very small volume loading holes in micro-electric initiators for micro-electro-mechanical mechanisms (MEMS), used as safe and arm (S&A) devices. The explosives are prepared by adding the such a high explosive to an aqueous first volatile mobile phase, adding such a high explosive to a non-aqueous second volatile mobile phase, mixing the first and second volatile mobile phases and then loading the combined phases into the MEMS device and allowing the aqueous and non-aqueous solvents to evaporate depositing the high explosive. Enhanced adhesion between the deposited high explosive and enhanced rheological properties can be obtained by adding a polymeric binder to both mobile phases. | ||||||
| 184 | Method for supplying pyrotechnic material slurry | US11612306 | 2006-12-18 | US07789984B2 | 2010-09-07 | Shingo Oda; Hiroyuki Fujii |
| A method for supplying a pyrotechnic material slurry to a container, includes, taking out a pyrotechnic material slurry, stored inside a storage container, from the bottom portion of the storage container or a vicinity thereof, sealing the exposed surface of the pyrotechnic material slurry with a sealing material, and maintaining the sealed state of the pyrotechnic material slurry in the process of supplying the pyrotechnic material slurry to the container. | ||||||
| 185 | METHOD AND APPARATUS FOR LOADING CARTRIDGES WITH PRESSABLE PLASTIC BONDED EXPLOSIVES | US12476675 | 2009-06-02 | US20100180757A1 | 2010-07-22 | Jung-Su PARK; Hee-Duck PARK; Hyoun-Soo KIM; Tae-Soo KWON |
| Disclosed are an apparatus and method for loading small and medium caliber cartridges with pressable plastic bonded explosives (PBXs). A plurality of pellets are pre-formed to have a high density, and are loaded into a small and medium caliber cartridge one by one. Accordingly, a high and uniform density is obtained. And, when manufacturing small and medium caliber cartridges, the pressable PBXs are anticipated to be massively loaded into the small and medium caliber cartridges in the future. | ||||||
| 186 | Method of manufacturing ammunition | US12079775 | 2008-03-28 | US07665402B2 | 2010-02-23 | Leslie Mervyn Harrison |
| A method of manufacturing ammunition 10 for firing from the barrel of a weapon comprises forming a mould 32 having an interior surface, placing a core 42 in the mould 32 to produce a casting void 43 and pouring a liquefied solidifiable material into the casting void 43. Upon solidification of the material, the core 42 is removed to produce a projectile body 12 having a closed end and an opposite end. The removal of the core 42 also creates the cavity 18 in the projectile body 12 that opens onto the opposite end. The projectile body 12 is removed from the mould 32 and a quantity of propellant 22 is deposited into the cavity 18 through the opposite end. A seal 26 which incorporates a primer is pressed into the opposite end. Circumferential flanges 30a and 30b are integrally moulded with the projectile body 12. | ||||||
| 187 | METHODS FOR MAKING AND USING HIGH EXPLOSIVE FILLS FOR VERY SMALL VOLUME APPLICATIONS | US11307626 | 2006-02-15 | US20100024933A1 | 2010-02-04 | Daniel Stec, III; Gartung Cheng; Brian E. Fuchs; Gerard Gillen; Neha Mehta |
| High explosives suitable for filling very small volume loading holes in micro-electric initiators for micro-electro-mechanical mechanisms, used as safe and arm devices, are prepared from slurries of crystalline energetic materials including organic liquid and applied using various methods. These methods include swipe loading, pressure loading and syringe loading. The organic liquid serves as a volatile mobile phase in the slurry so as to partially dissolve the energetic material so that, upon evaporation of the mobile phase, the energetic material precipitates and adheres to the loading hole. | ||||||
| 188 | Case activated drum powder measure | US12341172 | 2008-12-22 | US07624665B1 | 2009-12-01 | Richard J. Lee |
| A case activated drum powder measure includes a measure body, a powder drum, a drive assembly and an actuation assembly. The measure body includes a drum receiver, an actuation tube and a hopper. The powder drum includes a powder cavity and is retained in the drum receiver. One end of an expanding die is secured to the actuation tube and the other end is secured to a loading press. A connecting rod transmits linear motion from the actuation assembly to rotate the powder drum through the drive assembly. Gun powder fills the powder cavity through the hopper. A case is retained in a shell holder retained in a ram of the reloading press. A lever arm is pulled, which causes the ram to push the case into the expanding die. Upward movement of the case causes the gun powder in the powder cavity to fall into the case. | ||||||
| 189 | Method of manufacturing ammunition | US12079775 | 2008-03-28 | US20080257139A1 | 2008-10-23 | Leslie Mervyn Harrison |
| A method of manufacturing ammunition 10 for firing from the barrel of a weapon comprises forming a mould 32 having an interior surface, placing a core 42 in the mould 32 to produce a casting void 43 and pouring a liquefied solidifiable material into the casting void 43. Upon solidification of the material, the core 42 is removed to produce a projectile body 12 having a closed end and an opposite end. The removal of the core 42 also creates the cavity 18 in the projectile body 12 that opens onto the opposite end. The projectile body 12 is removed from the mould 32 and a quantity of propellant 22 is deposited into the cavity 18 through the opposite end. A seal 26 which incorporates a primer is pressed into the opposite end. Circumferential flanges 30a and 30b are integrally moulded with the projectile body 12. | ||||||
| 190 | Round of rifle ammuniton and method for making same | US09755703 | 2001-01-05 | US20060081148A1 | 2006-04-20 | Harold Beal |
| A round of gun ammunition including a projectile adapted to be propelled from the gun at a subsonic velocity. The round includes a case containing a quantity of gun powder therein, but not filling the case. A projectile projects into the body portion of a case to a location proximate the gun powder. A disc having a circumference substantially matching the inner circumference of the body portion of the case at the level of the gun powder within the case is interposed between the gun powder and the proximal end of the projectile within the case to provide a barrier against movement of gun powder toward the open end of the case. In one embodiment, a further disc is interposed between the disc and the proximal end of the projectile to filter out gun powder particles which may escape past the barrier disc. A method for the manufacture of the round of gun ammunition is disclosed. | ||||||
| 191 | Manual die set for pressing explosive powder into hardware | US09625846 | 2000-07-26 | US06332389B1 | 2001-12-25 | Philip S. Han |
| A manual die set includes a ram, the ram having an upper portion and a lower portion; a ram head removably connected to the upper portion of the ram; a die, the die defining an opening therethrough for reciprocably receiving the ram, the die including a top portion and a bottom portion, the bottom portion including an upward facing step; a support ring disposed in the die opening in the bottom portion of the die, the support ring defining a bore therethrough; a baseplate disposed in a bottom of the die opening and extending into a bottom of the support ring bore; a die guide plate for supporting the die and the baseplate; and a spring disposed in the die opening, the lower portion of the ram being inserted through a center of the spring, a lower end of the spring bearing against the upward facing step in the bottom portion of the die, an upper end of the spring bearing against a bottom face of the upper portion of the ram; wherein the spring is compressed when a pressing force moves the ram downwardly such that when the pressing force is removed from the ram, the spring forces the ram to move upwardly. | ||||||
| 192 | Slurry-loadable electrical initiator | US578890 | 1995-12-22 | US5686691A | 1997-11-11 | Brian K. Hamilton; Kenneth E. Haynes; Doug R. Kirk; William J. Blomberg |
| Slurry-loadable electrical initiators are disclosed. In one aspect, a fuel slurry and oxidizer slurry are separately prepared and then mixed (e.g., in a static mixer) into a pyrotechnic material slurry. The pyrotechnic material slurry is loaded into the initiator (e.g., by a positive displacement pump). An ignition assembly which includes a header having at least one electrically conductive pin and a bridgewire between the header and the pin are installed such that the bridgewire appropriately interfaces with the pyrotechnic material of the initiator. In another aspect, another of the electrical connectors for the header is a shell and is joined to the header by a crimped connection or by a welded connection which also interconnects the shell with the charge cup which contains the pyrotechnic material. | ||||||
| 193 | Method for improving the mechanical stressability of ammunition bodies with shaped charges | US925074 | 1992-08-05 | US5353709A | 1994-10-11 | Anton Emmenegger; Ralph Eller |
| A method is described for improving the mechanical stressability of ammunition bodies, particularly shaped charges, which are highly accelerated and/or subjected to shock waves by coating the contacting portion of the cavity. In a first step of the method, the charge liner is coated on its outer surface and the case is coated on its inner surface with a styrene-containing copolymer; in a further step of the method, the explosive charge is cast or compressed in a known manner. The method finds use particularly for the production of tandem shaped charge projectiles. | ||||||
| 194 | Incendiary projectile, method of introducing the incendiary composition into the projectile and arrangement for implementing the method | US219664 | 1988-07-15 | US4870884A | 1989-10-03 | Rudolf Schubart; Wolfgang Schwarz |
| An incendiary projectile possessing an incendiary composition arranged locally bonded about the internal casing surface of the projectile wall structure. The projectile has the inner casing surface of its wall structure covered with the incendiary composition in fixed adherence therewith, and the explosive in the inner space of the projectile extends into grid-structured interspaces or scorings for the mutual bounding of covered regions. In this connection, there is also disclosed a particularly advantageous method for the formation of a projectile which is designed in this manner, as well as an expediently employable arrangement for the implementation of the method. | ||||||
| 195 | Method of constructing a dome restraint assembly for rocket motors | US805680 | 1985-12-06 | US4631154A | 1986-12-23 | Peter F. O'Driscoll |
| An adjustable restraint assembly connectable between a dome portion of a solid propellant rocket motor casing and a rigid base or support, for use during the curing of a propellant in the casing. The assembly includes an upper attach bracket connectable to the dome portion, a lower attach bracket connectable to a rigid base, upper and lower flanges connected to the upper and lower brackets, respectively, and an adjustable threaded turnbuckle-like member connected between the flanges. The assembly is used to establish a maximum net downward deflection of the dome portion upon maximum pressurization of the uncured propellant in the motor casing and is thereafter adjusted at various times during the curing process to reduce and ultimately eliminate the deflection in increments to thereby improve the bond between the grains of the cured propellant and the casing in the region of the forward dome. | ||||||
| 196 | Dome restraint assembly for rocket motors | US586952 | 1984-03-07 | US4577542A | 1986-03-25 | Peter F. O'Driscoll |
| An adjustable restraint assembly connectable between a dome portion of a solid propellant rocket motor casing and a rigid base or support, for use during the curing of a propellant in the casing. The assembly includes an upper attach bracket connectable to the dome portion, a lower attach bracket connectable to a rigid base, upper and lower flanges connected to the upper and lower brackets, respectively, and an adjustable threaded turnbuckle-like member connected between the flanges. The assembly is used to establish a maximum net downward deflection of the dome portion upon maximum pressurization of the uncured propellant in the motor casing and is thereafter adjusted at various times during the curing process to reduce and ultimately eliminate the deflection in increments to thereby improve the bond between the grains of the cured propellant and the casing in the region of the forward dome. | ||||||
| 197 | Film cartridge manufacture and filling method and apparatus | US450144 | 1982-12-15 | US4420440A | 1983-12-13 | Horst F. Marz |
| A method and apparatus is provided for cartridging viscous explosives mixtures, such as emulsion explosives, in convolutely wound paper tubes. The method comprises winding a section of paper film on a rotating hollow mandrel, closing one end of the wound paper tube, injecting the explosives mixture through the hollow mandrel into the paper tube upon the mandrel, removing the filled tube from the mandrel and closing the tube open end. The method replaces higher cost plastic chub packages with low cost paper and allows the efficient and economic production of sensitive small-diameter cartridges wherein the occluded air or gas is not dissipated during cartridging. | ||||||
| 198 | Method and system for preventing base separation of cast explosives in projectiles | US194314 | 1980-10-06 | US4365556A | 1982-12-28 | Paul F. Reibel |
| Base separation of cast explosives in projectiles is prevented by means of resilient device, such as a spring washer, positioned between the bottom of the fuzewell cavity in the cast explosive and the bottom of the fuzewell liner threadedly secured to the projectile. By tightening the liner, the spring washer is compressed, causing it to apply a force upward on the liner and downward on the cast explosive toward the base of the projectile, thereby allowing the cast explosive to move in response to thermal changes while maintaining it in contact with the projectile base at all times. | ||||||
| 199 | Shaped charge warhead with mechanical means for preventing rotation | US161710 | 1980-06-23 | US4342261A | 1982-08-03 | John N. Majerus |
| Mechanical interference between a cast explosive material and a casing prnts rotation of the cast explosive material during machining thereof and improves symmetry and performance of the shaped-charge warhead. The cast explosive material may be keyed to the casing by flowing portions of the explosive material into a plurality of cavities in the casing before curing. Alternatively, pins may extend inward from the casing into the explosive material which surrounds them when cast and resists relative motion therebetween when cured. Alternatively, the explosive material may be pre-cast into an appropriate shape, cured and pressed into the casing. Protuberances to fit into holes in the casing or indentations to fit over pins extending into the casing may be formed on the pre-cast explosive. Engagement between the protuberances or indentations and the holes or pins respectively is attained when the explosive material is pressed into the casing. | ||||||
| 200 | Method of manufacturing a miniature rocket | US54191966 | 1966-04-04 | US3345902A | 1967-10-10 | BIEHL ARTHUR T; ROBERT MAINHARDT |
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