Superconducting electronics have emerged as a promising platform for advanced information processing, offering unique opportunities for on chip computation and signal manipulation at cryogenic temperatures. These devices hold particular potential in applications ranging from quantum computing to high sensitivity magnetic sensing, where integrated logic and scalable circuit architectures are essential for performing complex computational and signal-processing tasks. In this work, we present a dual-input multilayered heater nanocryotron (hTron) that introduces both multi input functionality and reconfigurable logic capability within a single device. This capability represents a step forward toward realizing more complex computational architectures. In addition, we demonstrate that these devices can, in principle, drive one another and potentially be integrated on a larger scale. Furthermore, the inherent reconfigurability of the demonstrated device allows for dynamic switching between logic operations without requiring additional components which reduces circuit area and simplifies cryogenic and biasing requirements, making the design highly suitable for scalable superconducting computing systems.
@article{arxiv.2605.04634,
title = {Reconfigurable and cascaded logic gates using dual-input multilayered heater nanocryotrons},
author = {Behnoosh Babaghorbani and M. Yu. Mikhailov and Hui Wang and Thomas Descamps and Val Zwiller and Iman Esmaeil Zadeh},
journal= {arXiv preprint arXiv:2605.04634},
year = {2026}
}