| 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 | Spring assembly and process of producing a spring assembly | US15143837 | 2016-05-02 | US09777787B2 | 2017-10-03 | Gregor Teichmann; Boris Ditzer; Hans-Ulrich Kriese |
| A spring assembly comprises a spring with a coating, a spring retainer made of plastic material, an adhesive layer by which the spring and the spring retainer are bounded adhesively to one another, wherein the hardness of the adhesive layer is lower than the hardness of the coating. Further, a process of producing such a spring assembly is provided. | ||||||
| 22 | BEARING SHOE FOR THE MOUNTING OF A LEAF SPRING END OF A LEAF SPRING | US15408763 | 2017-01-18 | US20170203625A1 | 2017-07-20 | Rodscha Drabon; Sebastian Saggel; Peter Koczar; Ullrich Hammelmaier |
| The disclosure relates to a bearing shoe for mounting a leaf spring end of a leaf spring on a vehicle body of a motor vehicle, with a receiving recess configured to house the leaf spring end; a bearing opening configured to mount the bearing shoe on the vehicle body, wherein the bearing opening is confined by an inner wall; and an elastomer bearing disposed in the bearing opening, wherein the elastomer bearing comprises an inner sleeve and an elastomer disposed between the inner sleeve and the inner wall of the beating opening and directly contacts the inner wall of the bearing opening. | ||||||
| 23 | SPRING ASSEMBLY AND PROCESS OF PRODUCING A SPRING ASSEMBLY | US15143837 | 2016-05-02 | US20160333956A1 | 2016-11-17 | Gregor Teichmann; Boris Ditzer; Hans-Ulrich Kriese |
| A spring assembly comprises a spring with a coating, a spring retainer made of plastic material, an adhesive layer by which the spring and the spring retainer are bounded adhesively to one another, wherein the hardness of the adhesive layer is lower than the hardness of the coating. Further, a process of producing such a spring assembly is provided. | ||||||
| 24 | Method of making chamber with tensile member | US13460710 | 2012-04-30 | US08394221B2 | 2013-03-12 | Zvi Rapaport; Darren C. Davison |
| A fluid-filled may include including an outer barrier, a tensile member, and a fluid. The tensile member may be located within barrier and formed from a textile element that includes a pair of spaced layers joined by a plurality of connecting members. A method of manufacturing the chamber may include locating a textile tensile member between two polymer elements. Pressure and heat are applied to the tensile member and the polymer elements in a first area and in a second area. The pressure is greater in the first area than in the second area. In addition, the polymer elements are bonded together around a periphery of the tensile member. | ||||||
| 25 | Method of Making Chamber with Tensile Member | US13460739 | 2012-04-30 | US20120216943A1 | 2012-08-30 | Zvi Rapaport; Darren C. Davison |
| A fluid-filled may include including an outer barrier, a tensile member, and a fluid. The tensile member may be located within barrier and formed from a textile element that includes a pair of spaced layers joined by a plurality of connecting members. A method of manufacturing the chamber may include locating a textile tensile member between two polymer elements. Pressure and heat are applied to the tensile member and the polymer elements in a first area and in a second area. The pressure is greater in the first area than in the second area. In addition, the polymer elements are bonded together around a periphery of the tensile member. | ||||||
| 26 | Contoured fluid-filled chamber with a tensile member | US12123646 | 2008-05-20 | US08241451B2 | 2012-08-14 | Zvi Rapaport; Darren C. Davison |
| A fluid-filled may include including an outer barrier, a tensile member, and a fluid. The tensile member may be located within barrier and formed from a textile element that includes a pair of spaced layers joined by a plurality of connecting members. A method of manufacturing the chamber may include locating a textile tensile member between two polymer elements. Pressure and heat are applied to the tensile member and the polymer elements in a first area and in a second area. The pressure is greater in the first area than in the second area. In addition, the polymer elements are bonded together around a periphery of the tensile member. | ||||||
| 27 | Pressurizable structures comprising different surface sections | US10523878 | 2002-08-08 | US08087536B2 | 2012-01-03 | Sotiris Koussios; Otto Korneles Bergsma; Adriaan Beukers |
| Composite pressurizable structures overwound with fibers or braided bundles of fibers are described. The pressurizable structures comprise one or more axial sections which themselves comprise both concave and convex surfaces. The shape characteristics are related to geodesic as well as to non-geodesic trajectories of the fibers. Axial sections of the pressurizable structures can be rotated, expanded, or bended with respect to their longitudinal axis. Such pressurizable structures may be used in pressure vessels, flexible pipelines, spring elements, robotic actuators, adaptive buildings among other uses. Manufacturing techniques facilitated by the present structures allow for the construction of very large structures. | ||||||
| 28 | STRETCHING ROD HOLDING ARRANGEMENT | US12251104 | 2008-10-14 | US20090098235A1 | 2009-04-16 | Hans-Juergen Fleischmann; Erik Blochmann; Florian Geltinger |
| A stretching rod holding arrangement may include a stretching rod for expanding plastic containers, wherein the stretching rod has an elongate rod-shaped main body and a holding body, which protrudes with respect to this rod-shaped main body in a radial direction of the rod-shaped main body. The arrangement comprises a receiving space for mounting the stretching rod, wherein at least one region of the holding body can be received by this receiving space, and the receiving space has a lower boundary wall in the longitudinal direction of the stretching rod. An opening is provided in this lower boundary wall, through which opening the main body of the stretching rod can pass. An arresting mechanism, which can be moved with respect to the receiving space between at least two positions, may be provided above the lower boundary wall in the longitudinal direction of the stretching rod. In the first position, the arresting mechanism allows the passage of the holding body in the longitudinal direction of the stretching rod, and in the second position prevents the passage of the holding body of the stretching rod. | ||||||
| 29 | Writing instrument with cushioning element | US10800402 | 2004-03-11 | US07137751B2 | 2006-11-21 | Andrew Candelora; Richard O'Brien |
| A writing instrument having a writing tip that responds to pressure applied during writing through the use of a cushioning element integrally formed with another part of the writing instrument. In a preferred embodiment, a writing instrument comprises a barrel, a cartridge with a writing tip, and an end plug with a cushioning element formed integrally with the end plug. The cartridge may be held in the barrel via the cushioning element, which is attached to the proximal end of the barrel. The end plug may be formed by an injection molding process. A stop element may be provided to inhibit or to prevent compression of the cushioning element after a predetermined degree of compression of cushioning element. The cushioning element may have a variable spring rate. | ||||||
| 30 | Device and method for the continuous production of tubular structures that are reinforced with a strengthening support | US10518932 | 2003-05-14 | US20050199335A1 | 2005-09-15 | Rainer Oehl; Roland Wilmer; Markus Berger; Klaus Binder |
| An arrangement for continuously making reinforced hose-shaped structures (1) having: a conveying unit for continuously driving a row of sequential cylindrical mandrels (5), which are coupled to each other, in a conveying direction (X) and for returning individual mandrels (5) to the manufacturing start; at least one extrusion unit (4) for applying a rubber or plastic layer (2) to the periphery of the mandrels (5); at least one unit for applying at least one reinforcement layer (3); a separating device (13) for cutting the reinforced hose-shaped structures (1) at the connecting location of mutually adjoining mandrels (5) and a strip-off device (14) for stripping off the cut reinforced hose-shaped structures (1) from the individual mandrels (5). The mandrels (5) are rigid and are coupled to each other in such a manner that, in each case, a peripherally-extending cutting zone (S) of a material, which is different to the mandrel (5), is provided between the abutting surfaces of mutually adjoining mandrels (5). The arrangement is so aligned that a vulcanization of the reinforced hose-shaped structures (1) takes place only at after the strip off. | ||||||
| 31 | Writing instrument with cushioning element | US10800402 | 2004-03-11 | US20040234322A1 | 2004-11-25 | Andrew Candelora; Richard O'Brien |
| A writing instrument having a writing tip that responds to pressure applied during writing through the use of a cushioning element integrally formed with another part of the writing instrument. In a preferred embodiment, a writing instrument comprises a barrel, a cartridge with a writing tip, and an end plug with a cushioning element formed integrally with the end plug. The cartridge may be held in the barrel via the cushioning element, which is attached to the proximal end of the barrel. The end plug may be formed by an injection molding process. A stop element may be provided to inhibit or to prevent compression of the cushioning element after a predetermined degree of compression of cushioning element. The cushioning element may have a variable spring rate. | ||||||
| 32 | Method for producing a hybrid leaf spring | US10102100 | 2002-03-19 | US06660114B2 | 2003-12-09 | Frank Meatto; Edward Pilpel; D. Michael Gordon; David C. Gordon, Jr. |
| In a method for making a hybrid leaf spring, at least one layer of composite material is molded onto a primary leaf using a mold with an interior cavity having a curvature for receiving the primary leaf at a depressed camber relative to its initial camber. The depressed camber is between unloaded and curb load cambers of the hybrid leaf spring. The primary leaf and the layer of composite material are positioned in the mold adjacent to one another and with a layer of adhesive therebetween. The layer of adhesive is cured for bonding together the primary leaf and the layer of composite material at the depressed camber so as to generally eliminate bond line shear stress when the camber of the hybrid leaf spring is at the curb height. | ||||||
| 33 | Machine for making a coil in a length of thermoplastic tubing | US10299117 | 2002-11-19 | US20030072838A1 | 2003-04-17 | Thomas E. Hargreaves |
| A machine and method for forming a spring coil in a length of hollow, cylindrical thermoplastic tubing comprises clamping the ends of a predetermined length of cylindrical thermoplastic tubing between first and second opposing spaced clamping members. In the machine, these clamping members include aligned first and second sections of a mandrel. These first and second clamping members then are rotated relative to one another by a predetermined amount selected to be slightly in excess of 360null, while the mandrels are simultaneously moved toward one another, to shorten the distance between the ends of the length of tubing, while the coil is formed. At the end of this relative rotation, the mandrel sections engage one another. The clamped tube, with the coil now formed around the mandrels, is rotated and simultaneously heated to the thermosetting temperature of the tubing. After a sufficient time to establish thermosetting of the coil, the heat is removed. Rotation continues while the tube is cooled. Following the cooling cycle, the apparatus operates to release the tubing with the formed coil in it from the machine. | ||||||
| 34 | Process of making a coil in a length of thermoplastic tubing | US09657741 | 2000-09-08 | US06537476B1 | 2003-03-25 | Thomas E. Hargreaves |
| A method for forming a spring coil in a length of hollow, cylindrical thermoplastic tubing comprises clamping the ends of a predetermined length of cylindrical thermoplastic tubing between first and second opposing spaced clamping members. The first and second clamping members then are rotated relative to one another by a predetermined amount selected to be slightly in excess of 360°, while the mandrels are simultaneously moved toward one another, to shorten the distance between the ends of the length of tubing, while the coil is formed. The clamped tube, with the coil now formed around the mandrels, is rotated and simultaneously heated to the thermosetting temperature of the tubing. After a sufficient time to establish thermosetting of the coil, the heat is removed; the tube is cooled and released from the machine. | ||||||
| 35 | Apparatus for manufacturing resin bellows | US09801254 | 2001-03-07 | US20020160074A1 | 2002-10-31 | Katsushi Saito; Mayuki Toriumi |
| The present invention provides an apparatus for manufacturing bellows which contributes to expand the life of the resin bellows to be used for vehicles and to improve the quality of the same. The apparatus for manufacturing bellows comprises a nozzle body including an annular passage and a nozzle port formed by the annular nozzle mouthpiece and the nozzle core, and a neck die having a pin and an outer surrounding body on the opposite side of the nozzle body in which the outer surrounding body abuts against the nozzle mouthpiece and the end portion of the pin projecting from the outer surrounding body abuts against the nozzle core to form a cavity for molding the neck portion in communication with the nozzle port between the pin and the outer surrounding body prior to manufacturing of the bellows, and moves away from the state being abutted against the nozzle body with the resin portion filled in the cavity crimped when manufacturing the bellows, wherein the extent of projection of the end of the pin from the outer surrounding body is determined so that the nozzle core is allowed to be displaced in the axial direction while maintaining the state being abutted against the end portion, and the boundary portion between said neck portion and the bellows body is able to be increased in thickness and quantity when filling resin into said cavity. | ||||||
| 36 | Method of producing a hybrid leaf spring | US09490308 | 2000-01-24 | US06461455B1 | 2002-10-08 | Frank Meatto; Edward Pilpel; D. Michael Gordon; David C. Gordon, Jr. |
| In a method for making a hybrid leaf spring at least one layer of composite material is provided and a metal primary leaf. The layer of composite material and metal primary leaf are positioned adjacent one another in a mold having an interior cavity defined by at least one cavity wall. A layer of adhesive material is located between and in engagement with the layer of composite material and the metal primary leaf. The adhesive is cured by controllably heating the metal primary leaf so that energy in the form of heat is conducted therefrom into the adhesive layer bonding said metal primary leaf and layer of composite material together. | ||||||
| 37 | Apparatus for producing a fiber winding of varying width | US847389 | 1986-04-02 | US4790900A | 1988-12-13 | Daniel Guillon; Alain Bricard |
| A method and apparatus are disclosed for winding at least a layer of separate fibers or groups of fibers onto a rotating support while modifying the width of the layer by moving the layer between two extreme positions perpendicular to the direction of fiber travel and simultaneously moving each fiber or group of fibers in its own plane of motion, offset in relation to a vertical plane at an angle varying from one plane to the next. | ||||||
| 38 | Composite deflectable spring structure | US118522 | 1987-11-09 | US4786536A | 1988-11-22 | Charles E. Kaempen |
| A composite structure comprises at least one ply comprising approximately parallel unidirected twines comprising helically-configured matrix-impregnated continuous strands of filament reinforcements to provide a flanged composite cantilever spring which serves as the principal constituent of a coupling structure. An interior ply of a coupling structure body member comprises unidirected longitudinal twines configured at a body member extremity to provide a flange member connected to a cantilever spring. An exterior ply is disposed transversely of and superimposed upon the interior ply to provide the cantilever spring hinge line. The composite cantilever spring can be constructed to deflect about either a straight or curved hinge line. A preferred tubular form of the coupling structure comprises at least one end configured as a polygonal array of flanged cantilever springs which serve as the socket end of a spring-lock coupling used to connect mating flanged spigot-end structures. A preferred segmented form of coupling structure comprises two semi-circular flanged cantilever spring members assembled and deflected by an encircling retaining sleeve.The method and apparatus for making a composite in the form of a preferred coupling structure comprises placing first ply loops of longitudinal twines upon a pin-ended forming surface, transversely placing a second ply of twines upon the first ply twines to deflect them into flange-forming cavities, hardening the twine-impregnating matrix, removing and slotting the flanged spring members to provide the desired coupling structure. | ||||||
| 39 | Mold for airspring rubber membrane | US25433 | 1987-03-13 | US4749345A | 1988-06-07 | Ivan J. Warmuth; Carl K. Safreed, Jr. |
| A method of manufacturing a beadless flexible member for an airspring having a fully molded non-tubular shape. An axially segmented mold with tapered circular end bores is used with conically tapered end plugs which sealingly compress an uncured preform of the flexible member between the conical plugs and the tapered circular end bores. Compressed fluid is injected into the interior of the preform to radially expand it to the desired molded shape. At a rate determined by the radial expansion of the preform, the annular segments of the mold are axially moved together to accommodate the axial foreshortening of the preform during its radial expansion. After full axial closure of the mold, heat and pressure are applied to vulcanize the preform. The beadless, fully molded flexible member may be used for airsprings requiring zero pressure roll capability. Preferred forms of the flexible member have tapered wall thickness in the neck with circumferential indexing ribs for exact placement of compression rings on the finished airspring. | ||||||
| 40 | Airspring and a method for making airspring flexible members | US748539 | 1985-06-25 | US4673168A | 1987-06-16 | Ivan J. Warmuth; Carl K. Safreed, Jr. |
| A method of manufacturing a beadless flexible member for an airspring having a fully molded non-tubular shape. An axially segmented mold with tapered circular end bores is used with conically tapered end plugs which sealingly compress an uncured preform of the flexible member between the conical plugs and the tapered circular end bores. Compressed fluid is injected into the interior of the preform to radially expand it to the desired molded shape. At a rate determined by the radial expansion of the preform, the annular segments of the mold are axially moved together to accommodate the axial foreshortening of the preform during its radial expansion. After full axial closure of the mold, heat and pressure are applied to vulcanize the preform. The beadless, fully molded flexible member may be used for airsprings requiring zero pressure roll capability. Preferred forms of the flexible member have tapered wall thickness in the neck with circumferential indexing ribs for exact placement of compression rings on the finished airspring. | ||||||
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