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Radiotekhnika i Elektronika

Superconductor electronics /Review/

Vladimir N. Gubankov, K. K. Likharev

Published Jan 1, 1975• 0 citations
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We review several recent theoretical and experimental results in the study of superconductor hybrids. This includes the recent experimental advances in the study of superconducting beamsplitters as well as more advanced superconductor hybrid systems including ferromagnets or Majorana fermions. In the same manner, theoretical studies have revealed that such superconductor hybrid systems pave the way towards electronic generation and detection of entanglement as well as possible use cases in quantum computing. We will review the aspects in detail and illustrate the possible next steps to be taken.
The International Roadmap for Devices and Systems (IRDS) recently succeeded the International Technology Roadmap for Semiconductors (ITRS). The roadmap driver changed from scaling physical dimensions to application requirements and now includes a broader range of non-semiconductor technologies, such as superconductor electronics (SCE). We review current applications for SCE, ranging from development activities to small- scale commercial products. Computational accelerators within data centers and other future applications will require significant improvements in circuit density, complexity, functional capability, memory capacity, and data rates in and out of the cryogenic environment. As a first step, we propose to develop an application-driven roadmap for superconducting digital computing that will include key decisions to be made by the superconductor electronics community.