U.S. patents available from 1976 to present.
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Nanoscopic thermoelectric coolers

Patent 6256996 Issued on July 10, 2001. Estimated Expiration Date: Icon_subject December 9, 2019. Estimated Expiration Date is calculated based on simple USPTO term provisions. It does not account for terminal disclaimers, term adjustments, failure to pay maintenance fees, or other factors which might affect the term of a patent.

Patent References

Thermoelectric cooling with plural dynamic switching to isolate heat transport mechanisms
Patent #: 5867990
Issued on: 02/09/1999
Inventor: Ghoshal

Multistage thermoelectric cooling device
Patent #: 5966939
Issued on: 10/19/1999
Inventor: Tauchi

Thermoelectric cooling with dynamic switching to isolate heat transport mechanisms
Patent #: 5966941
Issued on: 10/19/1999
Inventor: Ghoshal

Two dimensional thermoelectric cooler configuration
Patent #: 6000225
Issued on: 12/14/1999
Inventor: Ghoshal

Method for making advanced thermoelectric devices Patent #: 6100463
Issued on: 08/08/2000
Inventor: Ladd, et al.

Inventor

Application

No. 458272 filed on 12/09/1999

US Classes:

62/3.7, Including specific circuitry or heat exchanger material62/3.3, Heat pump, selective heating and cooling136/203, Peltier effect device257/E23.082Cooling arrangements using Peltier effect (EPO)

Examiners

Primary: McDermott, Corrine
Assistant: Jiang, Chen-Wen

Attorney, Agent or Firm

Foreign Patent References

  • PCT/GB98/03412 WO. 12/13/1999
  • WO 00-08693 WO 02/13/2012

International Classes

F25B 021/02
H01L 035/28

Abstract

Thermoelectric cooler for providing sub-ambient cooling and method of fabricating same. In one form, sub-micron thermoelectric coolers are formed using doped thin films as thermoelectric elements. The thin film thermoelectric elements are created on thermally and electrical isolating materials using an electrochemical deposition process with a junction formed between the thermoelectric elements. The sub-micron thermoelectric coolers can then be used to locally cool nanoscopic geometric regions such as regions of an integrated circuit or can be configured in an array for large scale microscopic cooling applications.

Other References

  • Rinzler, A.G. et al.; Large-Scale Purification of Single-Wall Carbon Nanotubes: Process, Product and Characterization; 1998; pp. 29-37
  • Liu, Jie et al.; Fullerene Pipes; Science; vol. 280; May 22, 1998; pp. 1253-1255
  • Thess, Andreas et al.; Crystalline Ropes of Metallic Carbon Nanotubes; Science; vol. 273; Jul. 26, 1996; pp. 483-487
  • Tubes @ Rice; Rice University; http://cnst.rice.edu/tubes/
  • An Introduction to Thermoelectrics; http://www.tellurex.com/resource/introc.html
  • Tellurex Corporation Frequently Asked Questions; http://www.tellurex.com/resource/txfaqc.htm
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