초록 ▼

Embodiments of the present invention provide for a noise-reducing blower structure in which a fan-housing is disposed on an expansion card and juxtaposed to a heat sink. The heat sink is disposed on the expansion card and resides within a rigid frame above a processing unit chip. A fan that circulat

Embodiments of the present invention provide for a noise-reducing blower structure in which a fan-housing is disposed on an expansion card and juxtaposed to a heat sink. The heat sink is disposed on the expansion card and resides within a rigid frame above a processing unit chip. A fan that circulates air is disposed on the expansion card within the fan-housing. A duct is disposed on the expansion card, covering the heat sink and the fan-housing, and the duct is mechanically separated from the fan-housing for reducing vibration noises. By placement of the fan next to the heat sink, and not on top of it, the fan can be made larger to thereby rotate at slower speeds.

대표청구항 ▼

What is claimed is: 1. A heat-removing blower structure comprising: a fan-housing disposed within an expansion card and juxtaposed to a heat sink, said heat sink disposed within said expansion card; a fan for circulating air, said fan located within said fan-housing; and a duct disposed to cover sa

What is claimed is: 1. A heat-removing blower structure comprising: a fan-housing disposed within an expansion card and juxtaposed to a heat sink, said heat sink disposed within said expansion card; a fan for circulating air, said fan located within said fan-housing; and a duct disposed to cover said heat sink and said fan-housing, wherein said duct is mechanically separated from said fan-housing by an air gap, wherein said air gap is for reducing translation of vibration noises from said fan to said duct. 2. The blower structure as described in claim 1 further comprising vibration-absorbing spacers and wherein said fan-housing is mounted on said vibration-absorbing spacers. 3. The blower structure of claim 2 wherein said vibration-absorbing spacers are rubber. 4. The blower structure of claim 1 wherein said fan-housing is rigidly mounted on said expansion card. 5. The blower structure of claim 1 wherein said fan-housing is constructed of nylon. 6. The blower structure of claim 1 wherein said heat sink is disposed on said expansion card through slots in a rigid frame, said rigid frame for surrounding and securing a processing unit chip to said expansion card. 7. The blower structure of claim 6 wherein said duct is configured to direct ambient air over said fan and exhaust said air over said heat sink and wherein said duct is disposed on said expansion card through openings in said rigid frame. 8. The blower structure of claim 7 wherein said expansion card is a graphics card and wherein said processing unit chip is a graphics processor unit chip. 9. An expansion card for a computer, comprising: a heat sink disposed on an assembly; a fan-housing disposed on said assembly and juxtaposed to said heat sink; a fan for circulating air, said fan disposed within said fan-housing; and a duct disposed to cover said heat sink and said fan-housing, wherein said duct is mechanically separated from said fan-housing by an air gap, wherein said air gap is for reducing translation of vibration noises from said fan to said duct. 10. The expansion card of claim 9 further comprising vibration-absorbing spacers and wherein said fan-housing is mounted on said vibration-absorbing spacers. 11. The expansion card of claim 10 wherein said vibration-absorbing spacers are rubber. 12. The expansion card of claim 10 wherein said vibration-absorbing spacers are soft plastic. 13. The expansion card of claim 9, wherein said fan-housing is rigidly mounted on said assembly. 14. The expansion card of claim 9 wherein said fan-housing is constructed of nylon. 15. The expansion card of claim 9 wherein said heat sink is coupled to said graphics card through slots in a rigid frame, said rigid frame surrounding and securing a processing unit chip to said assembly. 16. The expansion card of claim 15 wherein said duct is configured to direct ambient air over said fan and exhaust said air over said heat sink and said duct is disposed on said assembly through openings in said rigid frame. 17. The expansion card of claim 16 wherein said expansion card is a graphics card and wherein said processing unit chip is a graphics processor unit chip. 18. A method of assembling a blower structure of an expansion card, said method comprising: securing a fan and fan-housing to said expansion card; securing a heat sink to said expansion card, next to said fan-housing, above a processing unit chip, said processing unit surrounded by a rigid frame; and attaching a duct to said expansion card at said rigid frame, said duct covering said fan-housing and said heat sink, and said duct being mechanically separated from said fan-housing by an air gap, wherein said air gap is for reducing translation of vibration noises from said fan to said duct. 19. The method as described in claim 18, wherein said fan-housing is mounted on vibration-absorbing spacers. 20. The method as described in claim 19 wherein said vibration-absorbing spacers are rubber. 21. The method as described in claim 19 wherein said vibration-absorbing spacers are soft plastic. 22. The method as described in claim 18, wherein said fan-housing is rigidly mounted on said expansion card. 23. The method as described in claim 18 wherein said fan-housing is constructed of nylon. 24. The method as described in claim 18 wherein said heat sink is coupled to said expansion card through slots in said rigid frame. 25. The method as described in claim 24 wherein said duct is coupled to said expansion card through openings in said rigid frame and configured to direct ambient air over said fan and exhaust said air over said heat sink. 26. The method of claim 25 wherein said expansion card is a graphics card and wherein said processing unit chip is a graphics processor unit chip.