| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 121 | METHOD TO PRODUCE IN-MOULD HELMETS AND IN-MOULD HELMETS ACCORDING TO THE METHOD | US11972572 | 2008-01-10 | US20080172774A1 | 2008-07-24 | Stefan Ytterborn; Jan Woxing |
| The invention concerns an in-mould helmet, comprising a shell (1) and a blow-moulded layer of shock absorbing material (2) inside the shell. The in-mould helmet is provided with penetration protection (3), at least partially, between the shell (1) and the shock absorbing layer (2). The invention also concerns a method to produce an in-mould helmet, comprising the steps of vacuum forming a shell (1), arranging penetration protection (3) inside the shell (1), and blow-moulding shock absorbing material (2) inside the shell (1). | ||||||
| 122 | Process for in-molding an energy-absorbing countermeasure to a headliner and resulting assembly | US11044573 | 2005-01-27 | US07384095B2 | 2008-06-10 | Joel Matthew Cormier; Donald Scott Smith |
| A process for in-molding an energy-absorbing countermeasure to a headliner 18 for use in a vehicle, plus the intermediate and final assemblies formed by the process. The process includes the steps of (1) preparing a sheet; (1A) optionally affixing to the sheet a means for adhering to form a composite sheet; (2) thermoforming the composite sheet into a composite energy-absorbing countermeasure; (3) preparing a headliner layup (including optionally a means for adhering, a headliner core, and a cover stock) before forming a bond between the headliner layup and the composite energy-absorbing countermeasure. The assembly thus includes the energy-absorbing countermeasure 22 and a means for adhering it to the headliner core 18. | ||||||
| 123 | METHOD OF DEFORMING A MICROCELLULAR POLYURETHANE COMPONENT | US11457835 | 2006-07-17 | US20080012178A1 | 2008-01-17 | Daniel G. Dickson; Gary M. Lawrence |
| A method of deforming a component includes the step of forming the component from thermosetting, elastomeric microcellular polyurethane. The method further includes the step of heating at least a first portion of the component to a first temperature. The method further includes the step of compressing the first portion of the component while maintaining the first portion at the first temperature and while maintaining the second portion of the component at an undeformable state. The method of deforming the component shapes the first portion of the component. Preferably the method shapes the first portion of the component into a thin and/or complexly shape. The method of deforming the component also increases the first portion of the component relative to the second portion of the component, i.e. to densifying the component such that the component has varying density. | ||||||
| 124 | Vibration isolator and attachment method thereof | US10541921 | 2004-12-13 | US20060125165A1 | 2006-06-15 | Satoshi Niwa; Kazushi Nishiyama; Hiroyuki Masuda; Yasuhiro Teranishi |
| The invention is to permit a bushing main body of rubber elastomer to be adhered to a bar member while retaining a necessary contact pressure for adhering and after adhering, to permit a further compressive force to be imparted. The bushing main body (10) having a bore (11), through which the bar member (B) passes, and a bracket (20) holding the former are longitudinally split into two, respectively, the resulting split rubber bodies (10a)(10b) are vulcanization bonded to inner peripheral surfaces of the resulting half bracket members (20a)(20b). The inside diameter (D1) of both split rubber bodies as molded is made smaller than the outside diameter (D2) of the bar member, and inner peripheral surfaces (11a)(11b) at the bore are formed to be eccentric on mutually opposite sides. While pinching the bar member by both split rubber bodies, both half bracket members interposing a spacer (30) are locked together to compress the split rubber bodies thereby to adhere the peripheral surfaces at the bore to the outer peripheral surface of the bar member, and after the spacer is removed, both half members are locked so as to butt contact with each other thereby further compressing both split rubber bodies in mutually opposing directions. | ||||||
| 125 | Polymeric ballistic material and method of making | US10889946 | 2004-07-13 | US20060013977A1 | 2006-01-19 | Leslie Duke; Eric Hart |
| This invention relates to a polymeric ballistic material comprising a high molecular weight, high density polyethylene (HMW-HDPE) and/or composite, and to articles made from this ballistic material suitable for stopping projectiles. The articles may include backstops for firing ranges and home use, armor for vehicles, personnel, and aircraft, training targets, protection for temporary or mobile military and/or police installations, buildings, bunkers, pipelines or any “critical” need equipment that might require protection from ballistic impact, and the like. | ||||||
| 126 | Method of making three-fold bellows and an arrangement for carrying out the method | US10273847 | 2002-10-21 | US06986862B2 | 2006-01-17 | Wolfgang Gnirk; Manfred Degenhardt; Joachim Muth |
| A vulcanization mold (2) includes several segments (8a, 8b; 10a, 10b; 12a, 12b; 14a, 14b) which define two end profiles (8, 10) and two inner profile shells (12, 14) having concave surfaces. With synchronous movement sequences, which take place via linear controls from both ends, the segments (8a, 8b; 10a, 10b; 12a, 12b; 14a, 14b) are moved together under simultaneous shaping pressure. The outer profile shells (8, 10) pass through twice the distance as the inner profile shells (12, 14). The forming of the work blank (20) is completed via the shaping pressure when the mold (2) has reached the closed position. Preferably the upper profile half shells (8a, 10a, 12a, 14a) and the lower profile segments (8b, 10b, 12b, 14b) are operatively connected to each other via toothed racks (40a, 46a, 48a, 54a; 40b, 46b, 48b, 54b) and gear wheels (42a, 44a, 50a, 52a; 42b, 44b, 50b, 52b) including additional sets of teeth (42a′, 50a′; 42b′, 50b′). | ||||||
| 127 | Component having vibration-damping properties, mixture for manufacturing the component, and method of manufacturing such a component | US10855125 | 2004-05-27 | US20040219351A1 | 2004-11-04 | Ingo Borchers; Martin Hartweg; Josef Michel; Rolf-Dirc Roitzheim; Silvia Tomaschko; Ping Wang; Jurgen Schnur |
| In a component having vibration-damping properties, a mixture for manufacturing the component, and a method of manufacturing such a component, the component has granular and/or grain- and/or flake-shaped piezoelectric particles which are embedded in a polymer matrix in a proportion of at least 10 volume %. In order to improve the damping effect, at least some of the piezoelectric particles have a polarization which is different from zero. | ||||||
| 128 | Component having vibration-damping properties, mixture for manufacturing the component, and method of manufacturing such a component | US10061605 | 2002-02-01 | US06761831B2 | 2004-07-13 | Ingo Borchers; Martin Hartweg; Josef Michel; Rolf-Dirc Roitzheim; Silvia Tomaschko; Ping Wang; Jürgen Schnur |
| In a component having vibration-damping properties, a mixture for manufacturing the component, and a method of manufacturing such a component, the component has granular and/or grain- and/or flake-shaped piezoelectric particles which are embedded in a polymer matrix in a proportion of at least 10 volume %. In order to improve the damping effect, at least some of the piezoelectric particles have a polarization which is different from zero. | ||||||
| 129 | Sound barrier | US10733140 | 2003-12-11 | US20040121100A1 | 2004-06-24 | Michael Matheau Potempa |
| A sound barrier for reducing noise is provided. The sound barrier may include at least one of a polyethylene, a thermoplastic, a thermoset, an elastomer, and a combination thereof. | ||||||
| 130 | Method of making three-fold bellows and an arrangement for carrying out the method | US10273847 | 2002-10-21 | US20030075832A1 | 2003-04-24 | Wolfgang Gnirk; Manfred Degenhardt; Joachim Muth |
| A vulcanization mold (2) includes several segments (8a, 8b; 10a, 10b; 12a, 12b; 14a, 14b) which define two end profiles (8, 10) and two inner profile shells (12, 14) having concave surfaces. With synchronous movement sequences, which take place via linear controls from both ends, the segments (8a, 8b; 10a, 10b; 12a, 12b; 14a, 14b) are moved together under simultaneous shaping pressure. The outer profile shells (8, 10) pass through twice the distance as the inner profile shells (12, 14). The forming of the work blank (20) is completed via the shaping pressure when the mold (2) has reached the closed position. Preferably the upper profile half shells (8a, 10a, 12a, 14a) and the lower profile segments (8b, 10b, 12b, 14b) are operatively connected to each other via toothed racks (40a, 46a, 48a, 54a; 40b, 46b, 48b, 54b) and gear wheels (42a, 44a, 50a, 52a; 42b, 44b, 50b, 52b) including additional sets of teeth (42anull, 50anull; 42bnull, 50bnull). | ||||||
| 131 | Component having vibration-damping properties, mixture for manufacturing the component, and method of manufacturing such a component | US10061605 | 2002-02-01 | US20020173573A1 | 2002-11-21 | Ingo Borchers; Martin Hartweg; Josef Michel; Rolf-Dirc Roitzheim; Silvia Tomaschko; Ping Wang; Jurgen Schnur |
| In a component having vibration-damping properties, a mixture for manufacturing the component, and a method of manufacturing such a component, the component has granular and/or grain- and/or flake-shaped piezoelectric particles which are embedded in a polymer matrix in a proportion of at least 10 volume %. In order to improve the damping effect, at least some of the piezoelectric particles have a polarization which is different from zero. | ||||||
| 132 | Magnetically active flexible polymers | US09743815 | 2001-01-11 | US06476113B1 | 2002-11-05 | Maurice Hiles |
| Thermosetting and thermoplastic elastomers are provided having magnetic filler packed within the elastomeric matrix and capable of being aligned and energized, before, during or after the molding of the elastomer. The magnetically-filled elastomers therefore provide useful permanent magnetic fields which being physically soft. The magnetic filler is aligned within the elastomeric matrix and energized by subjecting the magnetically-filled elastomer to magnetic energy before, during and/or after molding of the magnetically-filled elastomer. A particularly preferred magnetically-filled elastomer is a magnetically-filled polyurethane elastomer composition wherein the elastomer is the reaction product of a urethane-forming compound having at least two urethane-forming reactive sites, an elasticizing diol or triol, and a diisocyanate reacted in less than stoiciometric amounts to allow for the formation of urethane linkages involving less than about 85% of the urethane-forming reactive sites. Vibration dampening devices employing elastomers and, more particularly, the magnetically-filled elastomers of the present invention are also provided. | ||||||
| 133 | Method for molding and impact resistant automotive part produced thereby | US10122270 | 2002-04-12 | US20020155251A1 | 2002-10-24 | Thierry Renault |
| A molding method and an impact resistant automotive part such as a bumper beam resulting from the molding method are obtained wherein a thermoplastic reinforced fiber structure at least partially forms a pair of attachment portions of the part and continuously extends between the attachment portions to link the attachment portions. The method includes the steps of providing a plurality of blanks, heating the plurality of blanks, and stacking the plurality of blanks to form a stack of blanks. The stack is then stamped to form the part including the pair of attachment portions spaced a predetermined distance apart. The thermoplastic reinforced fiber structure has tows of fibers wetted by a resin material such as polypropylene. Preferably, the fibers are woven glass fibers. | ||||||
| 134 | Powder coating as substrate for epoxy bonding of vibration isolation mounts | US08976672 | 1997-11-24 | US06292995B1 | 2001-09-25 | Douglas C. Corbin; David G. Siciliano |
| A method of producing a vibration isolation mount assembly comprising at least one metal bracket member bonded to a volume of a resilient elastomeric material. The bonding of the elastomeric material to the metal bracket is improved by electrostatically spraying the metal brackets with an epoxy coating prior to adhering the rubber to the metal bracket members, but after vulcanization of the rubber material. | ||||||
| 135 | Method of making a fender protective structure | US09295918 | 1999-04-21 | US06224809B1 | 2001-05-01 | Roy Lee Orndorff, Jr. |
| A method of making a fender protective structure having a layer of resilient plastic/elastomer alloy having a delayed elastic response, comprising providing a mold, placing elastomer spacers in the mold, adding the plastic and elastomer to the mold under heat and pressure, and opening the mold and removing the spacers to create voids the alloy. | ||||||
| 136 | Apparatus for manufacturing a rubber-metal plate composite | US09499277 | 2000-02-07 | US06203306B1 | 2001-03-20 | Yoichi Inoue; Shigeru Yuki; Hirohiko Fukumoto; Shigeto Adachi; Kashiro Ureshino; Takayuki Sato; Yoshinori Kurokawa; Kazuhiko Sakiyama |
| An apparatus for heating a rubber-metal plate composite formed of a plurality of unvulcanized rubber layers and metal plates, each being overlaid alternately, by induction heating, includes an induction coil for applying a magnetic field to the composite and heating the metal plates due to eddy currents generated by the magnetic field, a power unit for applying an alternating current to the induction coil to generate the magnetic field, and a mold to confine the periphery of the composite. The mold is made of a nonmagnetic or weakly magnetic material with electrical conductivity, such as austenitic stainless steel. The mold generates enough heat to function as the heating unit by generating eddy currents in the conductive mold while magnetic flux permeates the mold substantially without loss and reaches the composite therein. | ||||||
| 137 | Process for manufacturing a pressed-in torsional vibration damper | US385256 | 1995-02-08 | US6136134A | 2000-10-24 | Hans-Werner Schwerdt; Helmut Lau |
| In the manufacture of a pressed-in torsional vibration damper, the contact surfaces of the components arranged concentrically with one another are coated, before the elastomeric spacer ring is inserted, with an adhesive which is then activated by fitting the components together. The adhesive is subsequently cold-cured or catalytically activated. | ||||||
| 138 | Resilient bladder for use in footwear | US348201 | 1999-07-08 | US6119371A | 2000-09-19 | David A. Goodwin; Richard M. Hogan; Steven D. Buchanan, Sr.; Edward Nathaniel Thomas; Gary Allen Kokstis |
| A bladder for use as a cushioning element and footwear incorporating the bladder. The enclosed core is formed of spaced apart first and second fabric layers connected together by a plurality of connecting yarns. The shell is formed of see-through plastic material whereby the connecting yarns are visible through the sidewall. The plurality of connecting yarns preferably are arranged in bands with gaps devoid of connecting yarns between adjacent bands, and the ends of the bands and the gaps are visible through the sidewall. | ||||||
| 139 | Apparatus for manufacturing a rubber-metal plate composite | US941033 | 1997-09-30 | US6109903A | 2000-08-29 | Yoichi Inoue; Shigeru Yuki; Hirohiko Fukumoto; Shigeto Adachi; Kashiro Ureshino; Takayuki Sato; Yoshinori Kurokawa; Kazuhiko Sakiyama |
| A vulcanized rubber-metal plate composite is obtained by overlaying a plurality of unvulcanized rubber layers and metal plates alternately and heating thereof by magnetic induction heating. The vulcanized rubber-metal plate composite is obtained by placing a composite of a plurality of unvulcanized rubber layers and metal plates, each being overlaid alternately, into a place affected by an induction coil; heating the metal plates due to eddy currents formed in the metal plates by applying an alternating current to the induction coil; and vulcanizing the unvulcanized rubber layers due to heat conduction from the heated metal plates. | ||||||
| 140 | Resilient bladder for use in footwear and method of making the bladder | US4908 | 1998-01-09 | US5993585A | 1999-11-30 | David A. Goodwin; Richard M. Hogan; Steven D. Buchanan, Sr.; Gary Allen Kokstis |
| The present invention includes a method for forming a resilient bladder structure for use in the sole of footwear. The method comprises the steps of forming a shell from a flexible material to have a floor and a perimeter sidewall extending from the floor; placing a core, having spaced apart outer surfaces connected together by a plurality of connecting members, into the shell within the area bounded by the sidewalls; enclosing the shell and core with a covering sheet; bonding the floor of the shell to one outer surface of the core and the covering sheet to the other outer surface of the core by applying pressure and heat to the shell-core-covering sheet assembly to compress the core during the bonding step; preventing bonding of the sidewall to the covering sheet during the compression of the core; and bonding the covering sheet to an outer edge of the perimeter sidewall of the shell to form a sealed bladder structure; and placing fluid into the interior of the bladder so that the plurality of connecting members are placed under tension. | ||||||
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