International business machines corporation (20240133609). SILICON THERMALIZER FOR CRYOGENIC MICROWAVE APPLICATION USING A COPLANAR WAVE GUIDE STRUCTURE simplified abstract

SILICON THERMALIZER FOR CRYOGENIC MICROWAVE APPLICATION USING A COPLANAR WAVE GUIDE STRUCTURE

Organization Name

international business machines corporation

Inventor(s)

David Abraham of Croton NY (US)

Gerard Mcvicker of Stormville NY (US)

Sri M. Sri-jayantha of Ossining NY (US)

Vijayeshwar Das Khanna of Milwood NY (US)

Nicholas A. Masluk of Putnam NY (US)

SILICON THERMALIZER FOR CRYOGENIC MICROWAVE APPLICATION USING A COPLANAR WAVE GUIDE STRUCTURE - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240133609 titled 'SILICON THERMALIZER FOR CRYOGENIC MICROWAVE APPLICATION USING A COPLANAR WAVE GUIDE STRUCTURE

Simplified Explanation

The abstract describes a cryogenic system with two stages connected by signal lines and a superconducting thermal break.

• The system consists of a first cryogenic stage and a second cryogenic stage.
• A first signal line connects the first cryogenic stage to a superconducting thermal break in the second stage.
• A second signal line connects the superconducting thermal break to a cryogenic device.

Potential Applications

This technology could be applied in various fields such as:

• Cryogenics research
• Superconducting devices
• Medical imaging equipment

Problems Solved

This technology helps in:

• Maintaining low temperatures efficiently
• Preventing heat transfer between cryogenic stages
• Enhancing the performance of cryogenic devices

Benefits

The benefits of this technology include:

• Improved cryogenic system efficiency
• Enhanced reliability of superconducting devices
• Better control over temperature gradients

Potential Commercial Applications

This technology has potential commercial applications in:

• Research laboratories
• Medical facilities
• Semiconductor industry

Possible Prior Art

One possible prior art could be the use of traditional thermal breaks in cryogenic systems to prevent heat transfer between stages.

Unanswered Questions

How does the superconducting thermal break improve the efficiency of the cryogenic system?

The superconducting thermal break helps in reducing heat transfer between stages, leading to better overall system performance.

What are the specific advantages of using a superconducting thermal break over traditional thermal breaks?

Superconducting thermal breaks offer lower thermal conductivity and higher efficiency in preventing heat transfer compared to traditional thermal breaks.

Original Abstract Submitted

a cryogenic system comprising a first cryogenic stage and a second cryogenic stage. a first signal line passing from the first cryogenic stage and is connected to a superconducting thermal break in the second cryogenic stage. a second signal line connecting the superconducting thermal break to a cryogenic device.