Location History:
- Huerth, DE (2013 - 2014)
- Hürth, DE (2013 - 2014)
Company Filing History:
Years Active: 2013-2014
Title: Jürgen Ehrenberg: Innovator in Superconducting Technology
Introduction
Jürgen Ehrenberg is a prominent inventor based in Huerth, Germany. He has made significant contributions to the field of superconducting technology, holding a total of 5 patents. His work focuses on developing advanced materials and methods that enhance the performance of superconductors.
Latest Patents
Ehrenberg's latest patents include innovative designs that address critical challenges in superconducting wire technology. One of his notable inventions is a superconducting wire with low AC losses. This multilayer superconducting wire features a round cross-sectional area, with an outer surface coated in a high-temperature superconductor layer. The design incorporates a spiral configuration that runs along the length of the wire in parallel lanes. Another significant patent is for a coated conductor with improved grain orientation. This invention includes a coated conductor that utilizes an advanced buffer layer architecture, where the buffer layers are created through chemical solution deposition, effectively adopting the texture of the substrate.
Career Highlights
Ehrenberg is currently employed at Nexans, a company known for its expertise in cable manufacturing and electrical solutions. His work at Nexans has allowed him to push the boundaries of superconducting materials and their applications in various industries.
Collaborations
Throughout his career, Ehrenberg has collaborated with several talented individuals, including Mark O Rikel and Arnaud Allais. These collaborations have fostered an environment of innovation and have contributed to the advancement of superconducting technologies.
Conclusion
Jürgen Ehrenberg is a key figure in the field of superconducting technology, with a focus on developing innovative solutions that improve performance and efficiency. His contributions through patents and collaborations continue to shape the future of superconducting materials.