IPC분류정보
국가/구분 |
United States(US) Patent
등록
|
국제특허분류(IPC7판) |
|
출원번호 |
US-0701759
(2000-12-02)
|
국제출원번호 |
PCT/US99/12424
(1999-06-03)
|
국제공개번호 |
WO99/62728
(1999-12-09)
|
발명자
/ 주소 |
|
대리인 / 주소 |
Boyle Fredrickson Newholm Stein & Gratz S.C.
|
인용정보 |
피인용 횟수 :
23 인용 특허 :
7 |
초록
▼
A blow-molded wheel including an axle retainer assembly. The retainer assembly (31) includes a housing (42) having transverse sleeves that support an axle (14) and a spring biased retainer pin (10) that mounts to an annular groove (12) at the axle. The housing is supported in a cavity formed into a
A blow-molded wheel including an axle retainer assembly. The retainer assembly (31) includes a housing (42) having transverse sleeves that support an axle (14) and a spring biased retainer pin (10) that mounts to an annular groove (12) at the axle. The housing is supported in a cavity formed into a wheel spoke (18) and a bore of a wheel hub and is retarined upon the shrinkage of the plastic around the housing. An aperture of the pin sleeve facilitates retraction of the pin and release of the wheel from the axle.
대표청구항
▼
A blow-molded wheel including an axle retainer assembly. The retainer assembly (31) includes a housing (42) having transverse sleeves that support an axle (14) and a spring biased retainer pin (10) that mounts to an annular groove (12) at the axle. The housing is supported in a cavity formed into a
A blow-molded wheel including an axle retainer assembly. The retainer assembly (31) includes a housing (42) having transverse sleeves that support an axle (14) and a spring biased retainer pin (10) that mounts to an annular groove (12) at the axle. The housing is supported in a cavity formed into a wheel spoke (18) and a bore of a wheel hub and is retarined upon the shrinkage of the plastic around the housing. An aperture of the pin sleeve facilitates retraction of the pin and release of the wheel from the axle. 0200, White, 280/735; US-5890085, 19990300, Corrado et al., 701/047; US-5901978, 19990500, Breed et al., 280/735; US-5914610, 19990600, Gershenfeld et al., 324/663; US-5943295, 19990800, Varga et al., 367/099; US-5948031, 19990900, Jinno et al., 701/045; US-5954360, 19990900, Griggs, II et al., 280/735; US-5964478, 19991000, Stanley et al., 280/735; US-5983147, 19991100, Krumm, 701/045; US-6007095, 19991200, Stanley, 280/735; US-6014602, 20000100, Kithil et al., 701/045; US-6024378, 20000200, Fu, 280/735; US-6027138, 20000200, Tanaka et al., 280/735; US-6039139, 20000300, Breed et al., 180/271; US-6043743, 20000300, Saito et al., 340/562; US-6158768, 20001200, Steffens, Jr. et al., 280/735; US-6186538, 20010200, Hamada et al., 280/735 f vertically laminated anisotropic structures, said plurality of vertically laminated anisotropic structures including first and second anisotropic structures, said first and second anisotropic structures having first and second principal axes, respectively, along which a mechanical property of said first and second anisotropic structures has a maximum value, said mechanical property being selected from the group consisting of compressive strength, compressive stiffness, compressive fatigue strength, compressive creep strength, tensile strength, tensile stiffness, tensile fatigue strength and tensile creep strength, wherein said first principal axis is oriented in a first direction and lies in a first plane that is parallel to said base plane, and said second principal axis is oriented in a second direction that is non-parallel to said first direction. 2. The gliding board core recited in claim 1, wherein said second principal axis is oriented with at least one angle of between 10° and 80° relative to any one of said longitudinal axis, said transverse axis and said normal axis. 3. The gliding board core recited in claim 2, wherein said angle is approximately 45°. 4. The gliding board core recited in claim 1, wherein said second principal axis lies in a second plane extending parallel to a longitudinal plane extending through said longitudinal axis and said normal axis. 5. The gliding board core recited in claim 1, wherein said second principal axis lies in a second plane extending parallel to a transverse plane extending through said transverse axis and said normal axis. 6. The gliding board core recited in claim 5, wherein said first direction is parallel to said longitudinal axis. 7. The gliding board core recited in claim 1, wherein said second principal axis lies in a second plane that is perpendicular to said base plane, said second plane being non-parallel to said longitudinal axis and said transverse axis. 8. The gliding board core recited in claim 7, wherein said first direction is parallel to said longitudinal axis. 9. The gliding board core recited in claim 1, wherein said plurality of vertically laminated anisotropic structures includes a plurality of said first anisotropic structures and a plurality of said second anisotropic structures. 10. The gliding board core recited in claim 1, wherein said first and second anisotropic structures are formed from an anisotropic material. 11. The gliding board core recited in claim 10, wherein said first and second anisotropic structures include wood. 12. The gliding board recited in claim 11, wherein said first and second principal axes of said wood anisotropic structures lie along a grain of said wood anisotropic structures. 13. The gliding board core recited in claim 1, wherein said core member is constructed and arranged to be incorporated in a snowboard. 14. The gliding board core recited in claim 1, wherein said core member includes a first region with said first anisotropic structure and a pair of second regions with said second anisotropic structure disposed along said pair of opposite edges, said first region being disposed between said pair of second regions. 15. The gliding board core recited in claim 14, wherein said first direction is parallel to said longitudinal axis. 16. The gliding board core recited in claim 14, wherein said second plane is parallel to said transverse axis. 17. The gliding board core recited in claim 16, wherein said first direction is parallel to said longitudinal axis. 18. The gliding board core recited in claim 1, in combination with said gliding board, said gliding board core being incorporated into said gliding board. 19. The combination recited in claim 18, wherein said gliding board is a snowboard. 20. A core for a gliding board, comprising: an elongated core member constructed and arranged for incorporation into a gliding board, said core member including top and bottom outer surfaces and having a tip end, a tail end and a pair
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