A novel cryogenic memory array using ferroelectric SQUIDs as storage elements and Heater Cryotrons as selector devices in a coupled device. The scalable array averts conventional superconducting memory topologies and their bulky peripheral circuits, operating under 4 Kelvin.
Cryogenic memory devices designed to operate at or below 4 Kelvin are prime enablers of practical quantum computing systems and superconducting electronic platforms. Current cryo-memories suffer from issues involving limited scalability, process complexity, bulky peripherals, array-level interference, volatility, and speed incompatibility.
Researchers at the University of Tennessee have designed a novel cryogenic memory array using ferroelectric SQUIDs as storage elements and Heater Cryotrons as selector devices in a coupled device. This scalable cryo-memory array combines the unique characteristics of an FeSQUID and an hTron, averting conventional superconducting memory topologies by using inducting coupling and bulky peripheral circuits. This technology has a revolutionary potential within the field of quantum computing and supercomputing electronics.
Patent Pending
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