序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
21 HYDROGEN OPERATED RECREATIONAL LAUNCHER PCT/US2006019904 2006-05-23 WO2006127700A3 2007-07-19 LUND BRUCE D; STARRICK MICHAEL D
A hydrogen operated gun for shooting projectiles such as a paint pellet. Hydrogen gas is supplied to a combustion chamber and is combusted by a trigger controlled piezo igniter. The hydrogen may be supplied by a hydrogen generator or by a hydrogen storage container located in the gun housing. Suitable valve mechanisms are provided to control the flow of hydrogen to the combustion chamber and the expelling of exhaust gases from the combustion chamber.
22 Device and method for combustion of monopropellant JP2004143032 2004-05-13 JP2004340148A 2004-12-02 BERG GERALD R; MUELLER DONN C; PARISH MARK W
PROBLEM TO BE SOLVED: To provide a device and a method for decomposition of propellant. SOLUTION: The propellant 24 includes ionic salt and additional fuel. A means 42 to decompose most parts of the ionic salt is provided. A means 48 to burn the additional fuel and decomposition product of the ionic salt is provided. The propellant 24 is introduced to a reactor 42. The propellant is decomposed in the reactor to dissociate at least most parts of HAN. Output of the reactor 42 is introduced to a combustor 48. The output is burnt in the combustor 48 to burn dissociated product of dissociated HAN with unreacted fuel in the propellant. COPYRIGHT: (C)2005,JPO&NCIPI
23 Having a breech chamber to seal the breech of the projectile cannon for projectiles supplied in the axial direction JP51873598 1997-10-23 JP2001507437A 2001-06-05 オドワイヤー,ジェームズ・マイケル
(57)【要約】 砲身組立体(11)から大砲発射体(30)を発射する弾丸発射武器(10)は、弾丸(31)と、関係したボア・シール(32)とを有する発射体を利用する。 このボア・シールは、弾丸とボア・シールが相対的に軸方向に動くことにより半径方向に膨張する。 砲身組立体(11)は、砲身ボア(13)と、発射すべき発射体に対する砲身チャンバ(14)と、発射すべき次の発射体に対する関係した砲尾チャンバ(15)とを提供する。 砲身チャンバ(14)と砲尾チャンバ(15)の間には、推進薬チャンバ(17)が形成される。 砲尾の発射体(30)は、砲身チャンバ(14)に対する閉塞体を提供し、また、発射後、砲尾チャンバ(15)内に導入された次の発射体により砲身チャンバ(17)内に前進する。 迅速な発射を促進させるため、推進薬チャンバ(17)内に液体推進薬を噴射することができる。
24 Method and equipment for shooting ball JP20598296 1996-08-05 JPH1047895A 1998-02-20 NAKAMURA SATOSHI
PROBLEM TO BE SOLVED: To enable execution of consecutive shooting by using a thermit reaction of an iron oxide and aluminum for an ignition part, by using a hydrate of an oxidizing agent and magnesium as a reacting material and by making reaction gas constituted of a magnesium oxide and hydrogen, in a method for shooting a ball. SOLUTION: In the rear end 10a of a casing 10 having a shooting tube 1 charged with a ball 15, an electrode 4 is so provided as to be exposed outside, with an insulator 2 interposed, and an ignition chamber 10B communicating with the electrode 4, a reaction chamber 10C and a centrifugal separation chamber 19 are formed sequentially in the casing 10. The ignition chamber 10B and the reaction chamber 10C are divided by a division wall 3, while the reaction chamber 10C and the centrifugal separation chamber 19 are divided by a division wall 5 and a jet plate 40 having jet nozzles 6. Moreover, an ignition part 32 made up of a mixture 30 of an iron oxide and aluminum powder and of a filament 31 is provided in the ignition chamber 10B and a reacting material 9 constituted of a magnesium powder 7 and a hydrate 8 being an oxidizing agent is held in the reaction chamber 10C, while the hydrate 8 is covered with a film body 35.
25 Generating method for high purity hydrogen and cartridge case JP11284694 1994-05-26 JPH07318299A 1995-12-08 IKUTA KAZUNARI
PURPOSE: To highly purify hydrogen obtained by reducing reactions of water and aluminum and high-temperature steam and magnesium. CONSTITUTION: A method for generating high purity hydrogen and a cartridge case comprise an igniter 6 as a heat source, and purifies reactive products obtained by reducing reactions of aluminum 20 and water 21 and magnesium 23 and high-temperature steam by using a centrifugal separator 19, thereby obtaining the high purity hydrogen. COPYRIGHT: (C)1995,JPO
26 Pump of the sealing mechanism, liquid propellant gun having a sealing mechanism, and a method of making a vacuum seal against the piston JP25749687 1987-10-14 JPH07109356B2 1995-11-22 ハーバート・ジョン・ウェスト; ポール・ブルース・プリビス
27 Ammunition for electrothermal chemical shell gun JP25254092 1992-09-22 JPH06101996A 1994-04-12 UEHARA YASUSHI; IKUTA KAZUNARI
PURPOSE: To embody a shell gun for shooting a bullet with electrothermal chemical gunpowder as a shooting gunpowder and shoot it with light gas at an ultrahigh speed by shooting the bullet by a plurality of independent shooting gunpowders, and forming the shooting gunpowders of water and reactive substance to be reacted with the water. CONSTITUTION: In the case of shooting a bullet 10, a switch 12 is closed, and an electric heating wire 4 of an ignition shooting gunpowder part 22 of an initial stage is heated to generate high temperature steam. An aluminum cylinder 5 is melted with the steam, and the steam is chemically reacted with powderlike reactive material 7 to generate high temperature, high pressure hydrogen gas. The hydrogen gas is injected to a first shooting gunpowder part 23, similar reaction is generated in the part 23, other shooting gunpowder parts 24, 25, 26 are sequentially similarly reacted to shoot the bullet 10 by pressures of the generally generated hydrogen gas from a muzzle 20c. A range of the bullet 10 is freely adjusted by selecting the gunpowders of the parts 23-26 or its number. COPYRIGHT: (C)1994,JPO&Japio
28 Direct injection Play-shaped liquid propellant gun structure JP23048884 1984-11-02 JPH068719B2 1994-02-02 ROBAATO YUUGEN MEIYA; INDAA KUMAA MAGUUN; HAABAATO JEI UESUTO
29 Rotary fuel injection system JP16467188 1988-06-30 JPH063358B2 1994-01-12 OKUMURA TOSHIHARU
30 JPH0559359B2 - JP7362285 1985-04-09 JPH0559359B2 1993-08-30 MAGOON INDER KUMAR
31 Liquid propellant gun and propellant charging method JP33340090 1990-11-29 JPH03217796A 1991-09-25 ROBAATO AASAA PEITO; ARUMA JIYON PEITO
PURPOSE: To enable repetition of an ignition process for a charge of propellant, by injecting a liquid propellant less by a fixed amount than the total capacity of a combustion chamber into the combustion chamber so as to keep a specified size of an ullage capacity for adjusting combustion in the combustion chamber and a tube. CONSTITUTION: Initially, when dynamic injection is selected, about 70% of a liquid propellant is introduced leaving about 30% of ullage into a combustion chamber 16 through a propellant inlet 24 from a propellant source 24A. At this point, a propellant injector applies a spiral flow pattern turning by a centrifugal force centered on the axis core of a gun to the injected liquid propellant and a retained gas left in the ullage is moved axially on the flow pattern. The portion from an ignition gas source 26A to an ignition gas inlet 26 is turned to the tangential direction of the combustion chamber 16, and an ignition gas is sent into the combustion chamber 16 near the breech and begins to circulate along the inner circumferential surface from an end part on the side of the breech. A mixing is accomplished between the ignition gas, a byproduct gas generated from the combustion of the liquid propellant and a byproduct gas from an ignitor. COPYRIGHT: (C)1991,JPO
32 Burning method for liquid propellant JP14402989 1989-06-08 JPH0311297A 1991-01-18 SHIMIZU TOSHIHIKO; KUSHIMA SHIRO; KOSAKA YASUNORI; UMASAKI HAKOBU; SHINOZAKI HIROSHI
PURPOSE: To stabilize combustion by simultaneously combusting liquid propellant and carrier in a state that the propellant is immersed with porous flammable carrier in a propellant chamber. CONSTITUTION: This is a method of simultaneously combusting liquid propellant and carrier in a state that the propellant is immersed with porous flammable carrier in a propellant chamber. The flammable carrier to be used includes, for example, spongy cellulose, spongy polyurethane, fibrous cellulose, etc. The powder to be used includes, for example, mixture aqueous solution of oxidizer and a plurality of burning components by using hydroxyammonium nitrate as an oxidizer, and triethanolammonium nitrate, trimethylammonium nitrate, etc., as combustion components. Thus, an optimum igniting area and the quantity of the powder can be determined from the initial of burning to obtain stable combustion of the powder. COPYRIGHT: (C)1991,JPO&Japio
33 Liquid propellant weapon system JP31662588 1988-12-16 JPH024197A 1990-01-09 MERUBUIN JIYON BARUMAN
PURPOSE: To avoid strong feedback by performing additionally accelerating a mass integrating a traveling charge and a projectile through combustion of charged propellant and moving the mass forward along the cavity of barrel thereby performing controlled ignition and combustion. CONSTITUTION: A regeneration piston 34 is pushed forward by combustion gas generated in the rear combustion chamber 56 at the head thereof to push an initial propellant interposed between both heads. Consequently, the piston head separates from the conical face of head at the idle bottom to make an annular gap 56A and a stationary propellant flows through an injection port 56A into the chamber 56 thus sustaining or increasing the combustion gas pressure. When the pressure being applied to a moving propellant exceeds a propulsion starting level, the propellant and a projectile bring to accelerate while passing through a fixed center inclining face under influence of first stage liquid pressure of regeneration system. COPYRIGHT: (C)1990,JPO
34 Sealing mechanism of pump JP25749687 1987-10-14 JPS63163795A 1988-07-07 POORU BURUUSU PURIBISU; HAABAATO JIYON UESUTO
35 Gun using liquid propellant and method of controlling liquid propellant JP15461987 1987-06-23 JPS6334496A 1988-02-15 INDAA KUMAA MAGUUN; ROBAATO YUUJIN MEIYAA
36 Weapon device JP12611187 1987-05-25 JPS62293098A 1987-12-19 BULMAN MELVIN JOHN
37 Regenerating injection type liquid propellant gun structure JP23048784 1984-11-02 JPS60133296A 1985-07-16 INDAA KUMAA MAGUUN
38 LAUNCH SYSTEM AND METHOD FOR ECONOMICALLY EFFICIENT LAUNCH EP18171935.2 2014-03-14 EP3381811A1 2018-10-03 Palmer, Miles R.; Brown, Jr., Glenn William

The present disclosure relates to a launch system (20) comprising a launch tube (100) comprising a plurality of conductive layers separated by one or more insulating layers and being configured for transmission of energy therethrough; and an electrical energy source (300); wherein the launch tube (100) is configured for propulsion of a launch vehicle (200) therethrough, and the launch system (20) is configured to be electroantimagnetic, preferably wherein the launch tube (100) is configured to be electroantimagnetic such that any magnetic field formed by passage therethrough of an electrical current of about 0.2 to about 2 million amps is at a strength of less than about 1.25 Tesla.

39 RAM ACCELERATOR SYSTEM EP14770528 2014-01-21 EP2971431A4 2017-02-22 RUSSEL MARK C
One or more ram accelerator devices may be used to form one or more holes in geologic or other material. These holes may be used for drilling, tunnel boring, excavation, and so forth. The ram accelerator devices propel projectiles which are accelerated by combustion of one or more combustible gasses in a ram effect to reach velocities exceeding 500 meters per second.
40 CANNON FOR AXIALLY FED ROUNDS WITH BREECHED ROUND SEALING BREECH CHAMBER EP97945665.4 1997-10-23 EP0932806B1 2003-09-24 O'Dwyer, James Michael
A projectile firing weapon (10) for firing artillery rounds (30) from a barrel assembly (11) utilises rounds having a projectile (31) and an associated bore seal (32) which is radially expanded by relative axial displacement between the projectile and the bore seal. The barrel assembly (11) provides a barrel bore (13), a barrel chamber (14) for the round to be fired and an associated breech chamber (15) for the next round to be fired. A propellant chamber (17) is formed between the barrel chamber (14) and the breech chamber (15). The breeched round (30) provides the closure for the barrel chamber (14) and after firing is advanced into the barrel chamber (17) by the next round introduced to the breech chamber (15). Liquid propellant may be injected to the propellant chamber (17) to facilitate rapid firing.
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