The optimization methodology discussed in Chapter 5 is extended in this chapter to incorporate multiple interacting temperature stages within the same refrigerator structure. The updated methodology considers performance dependencies across neighboring stages while refining strategies to distribute components within different temperature zones. Emphasis is placed on reducing overall power consumption and validating the approach via a cloud computing case study that leverages both CMOS and superconductive logic. The improved methodology is validated using a cryogenic cloud computing case study.

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Heat Load Efficiency in Multi-Temperature Zones

  • Nurzhan Zhuldassov,
  • Eby G. Friedman

摘要

The optimization methodology discussed in Chapter 5 is extended in this chapter to incorporate multiple interacting temperature stages within the same refrigerator structure. The updated methodology considers performance dependencies across neighboring stages while refining strategies to distribute components within different temperature zones. Emphasis is placed on reducing overall power consumption and validating the approach via a cloud computing case study that leverages both CMOS and superconductive logic. The improved methodology is validated using a cryogenic cloud computing case study.