| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 41 | Modular ground mine | EP84306031.0 | 1984-09-03 | EP0137713B1 | 1987-08-19 | Leigh, John William |
| 42 | Device for underwater missiles for use against submerged submarines | EP83850227 | 1983-08-29 | EP0102338A3 | 1985-04-10 | Landström, Sven |
A device for underwater missiles for use against submerged submarines, said missiles including a housing (1) having a front portion, intended to contact the outside surface of a submarine. According to the invention, a tubular ring member (6) is rotatably attached to the front portion of the housing (1), said ring member (6) being arranged to take up a rotary movement in relation to the housing (1) when contacting the outside surface of a submarine. In order to facilitate rapid acceleration of the ring member (6) into said rotary movement, the ring member (6) is attached to the housing (1) by means of a ball bearing joint (7) or any other known low-frictional rotary joint or connection, and the mass of the ring member (6) is also considerably smaller than the total mass of the missile. The outer surface(s) of the ring member (6) is/are also preferably arranged with means intended to increase the frictional contact between the ring member (6) and the outer surface of a submarine on impact, e.g. a layer or coating of a meterial having a high frictional coefficient, an irregular surface, or means directed outwardly from the ring member (6). |
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| 43 | Device for underwater missiles for use against submerged submarines | EP83850227.6 | 1983-08-29 | EP0102338A2 | 1984-03-07 | Landström, Sven |
A device for underwater missiles for use against submerged submarines, said missiles including a housing (1) having a front portion, intended to contact the outside surface of a submarine. According to the invention, a tubular ring member (6) is rotatably attached to the front portion of the housing (1), said ring member (6) being arranged to take up a rotary movement in relation to the housing (1) when contacting the outside surface of a submarine. In order to facilitate rapid acceleration of the ring member (6) into said rotary movement, the ring member (6) is attached to the housing (1) by means of a ball bearing joint (7) or any other known low-frictional rotary joint or connection, and the mass of the ring member (6) is also considerably smaller than the total mass of the missile. The outer surface(s) of the ring member (6) is/are also preferably arranged with means intended to increase the frictional contact between the ring member (6) and the outer surface of a submarine on impact, e.g. a layer or coating of a meterial having a high frictional coefficient, an irregular surface, or means directed outwardly from the ring member (6). |
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| 44 | Multi-functional cellular surface for underwater vehicles | US09861496 | 2001-05-18 | US06532886B2 | 2003-03-18 | George C. McNamara; Bruce E. Sandman; Bernard J. Myers |
| A system of sensors and weapons in the form of individual cells forming a multi-functional cellular skin is provided to cover the outer surface of an underwater vehicle. The cells are engineered to have specific functional capabilities, e.g., acoustic sensing cells, communications cells, munitions cells, control cells and motive cells, and are electromagnetically attached to the vehicle. The functional arrangement of the cells types and the number of layers will be dependent on the desired capabilities and the overall mission of the vehicle. Cells may be deployed from the vehicle individually or in functional groups by decoupling appropriate cells from the vehicle. Once decoupled, motive cells can transport themselves and other cells as necessary, to positions remote from the vehicle. Groups of cells can be deployed to specific locations and arrayed in specific configurations by motive cells, allowing the vehicle to remain in a standoff position. | ||||||
| 45 | Multi-functional cellular surface for underwater vehicles | US09861496 | 2001-05-18 | US20020170481A1 | 2002-11-21 | George C. McNamara; Bruce E. Sandman; Bernard J. Myers |
| A system of sensors and weapons in the form of individual cells forming a multi-functional cellular skin is provided to cover the outer surface of an underwater vehicle. The cells are engineered to have specific functional capabilities, e.g., acoustic sensing cells, communications cells, munitions cells, control cells and motive cells, and are electromagnetically attached to the vehicle. The functional arrangement of the cells types and the number of layers will be dependent on the desired capabilities and the overall mission of the vehicle. Cells may be deployed from the vehicle individually or in functional groups by decoupling appropriate cells from the vehicle. Once decoupled, motive cells can transport themselves and other cells as necessary, to positions remote from the vehicle. Groups of cells can be deployed to specific locations and arrayed in specific configurations by motive cells, allowing the vehicle to remain in a standoff position. | ||||||
| 46 | Underwater mine | US671427 | 1991-03-20 | US5146045A | 1992-09-08 | Steve Cordell |
| The invention relates to an underwater mine or decoy which should lie on the ocean bottom or which has buoyancy characteristics. The mine or decoy is made up of at least an expandable material and a foldable, preferably webbed shell which determines the external form of the mine. The disadvantages associated with the storage, transportation and stowage of heavy mines of fixed shape in submarines, small ships and aircraft are thereby avoided. It is possible to manufacture decoys or mines rapidly and economically, and they may have variable magnetic and/or sonar reflecting properties. The release of the decoys or mines from submerged submarines via forceful ejection is possible. | ||||||
| 47 | Arrangement for mine construction | US409663 | 1989-09-20 | US5016535A | 1991-05-21 | Stig Hallstrom |
| A mine assembly comprises at least one charge module having a cylindrical shape, and an upper and lower circular surface end. An activating module for detonating the at least one charge module is operatively connected thereto. The activating module has at least a lower cylindrical end and interconnecting means provided at the upper circular end of the charge module. The interconnecting means includes a ring-shaped element having an inner diameter which corresponds to an outer diameter of the lower end of the activating module and to a diameter of other charge modules. The ring-shaped element forms an upwardly extending projection along the circular upper end surface of the charge module to provide a space thereon adapted for receiving a cylindrical end of one of the modules. | ||||||
| 48 | Modular ground mine | US662987 | 1984-09-06 | US4691637A | 1987-09-08 | John W. Leigh |
| A naval ground mine comprising two modules (1, 2) each having a cylindrical casing (4) containing explosive material. The modules have mating end faces (5), each provided with a spigot (6). Lips (7) on adjacent spigots form an annular projection which tapers in a radially outward direction. The two modules (1, 2) are held together by a split ring (3) having a corresponding internally tapered surface (9), which embraces this annular projection. As the ring (3) is tightened, the adjacent end faces (4, 5) are drawn tightly together. The external surface of the ring provides a smooth transition between the external surfaces of the modules, so as to minimize surface discontinuity and the possibility of detection by sonar. | ||||||
| 49 | Device for underwater missiles for use against submerged submarines | US527866 | 1983-08-30 | US4535696A | 1985-08-20 | Sven Landstrom |
| A device for underwater missiles for use against submerged submarines, said missiles including a housing (1) having a front portion, intended to contact the outside surface of a submarine. According to the invention, a tubular ring member (6) is rotatably attached to the front portion of the housing (1), said ring member (6) being arranged to take up a rotary movement in relation to the housing (1) when contacting the outside surface of a submarine. In order to facilitate rapid acceleration of the ring member (6) into said rotary movement, the ring member (6) is attached to the housing (1) by means of a ball bearing joint (7) or any other known low-frictional rotary joint or connection, and the mass of the ring member (6) is also considerably smaller than the total mass of the missile. The outer surface(s) of the ring member (6) is/are also preferably arranged with means intended to increase the frictional contact between the ring member (6) and the outer surface of a submarine on impact, e.g. a layer or coating of a material having a high frictional coefficient, an irregular surface, or means directed outwardly from the ring member (6). | ||||||
| 50 | Underwater weapon systems | US213071 | 1980-12-04 | US4395952A | 1983-08-02 | Christopher D. D. Hickey |
| An underwater weapon system comprises a container for a self-propelled weapon with target homing means, the container including pumps having inlets on the underside of the container to pump silt, gravel etc, from underneath the container whereby the container can be buried or partially buried in the sea bed. Reverse operation of the pumps raises the container which is opened automatically, e.g. with a radio control system, to release the weapon when the weapon is to be used. | ||||||
| 51 | Sea-bottom mine | US703140 | 1976-07-02 | US4317414A | 1982-03-02 | Helmut Grawe; Claus Petters |
| A sea-bottom mine actuated by a remote-control device, includes at least operational part and a plurality of explosive sections. While awaiting use, the operational part and explosive sections are kept in an elongated column-like storage arrangement with the operational part and explosive sections hinged or flexibly connected together. In the storage arrangement, the operational part and explosive sections can be releaseably locked together. When the mine is thrown into the sea, the operational part and explosive sections are displaced from the column-like storage arrangement and open out into a flat arrangement with the operational part and explosive sections still interconnected together. | ||||||
| 52 | Attachment device | US74297568 | 1968-07-02 | US3891466A | 1975-06-24 | ERICKSON PORTER W; HELLFRITZSCH ALVIN G |
| A thermoelectric magnet for interconnecting metallic elements utilizing a thermocouple having an insulated heat-producing chemical charge at the ''''hot'''' junction thereof which is activated on command and permanently magnetizes the core material.
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| 53 | Release mechanism | US50529765 | 1965-08-17 | US3316531A | 1967-04-25 | BAKER BUFORD M |
| 54 | Underwater launched surface mine | US7607760 | 1960-12-15 | US3084627A | 1963-04-09 | HOLM CARL H |
| 55 | Low density cellular explosive foam | US58067756 | 1956-04-25 | US3049454A | 1962-08-14 | STARK HOWARD J |
| 56 | Marker for submerged articles | US20142750 | 1950-12-18 | US2679655A | 1954-06-01 | PERKINS LAYTON E |
| 57 | Protecting device and means for using said device | US35607540 | 1940-09-09 | US2379191A | 1945-06-26 | HERMAN SCHMARION |
| 58 | System of submarine-mine laying | US1913757565 | 1913-03-29 | US1418797A | 1922-06-06 | HAMMOND JR JOHN HAYS |
| 59 | Shell for torpedoes or similar purposes. | US1903177922 | 1903-10-21 | US810983A | 1906-01-30 | ROWLAND THOMAS F |
| 60 | Joseph pannell gibbins | US330227D | US330227A | 1885-11-10 | ||
