Discrete Semantics for Reversible Transistor Network Verification
H. Blyton & H. Potter (Vaire Computing) — Reversible Computation (RC 2026), Springer LNCS vol. 16626. Work by Vaire colleagues, with M. P. Frank acknowledged; formalizes an adiabatic transition relation on transistor-network states in Lean 4, with a machine-checked discrete adiabatic simulation algorithm.
Industry Perspective: Limits of Energy Efficiency for Conventional CMOS and the Need for Adiabatic Reversible Computing
M. P. Frank & A. J. Edwards — APL Electronic Devices 1(3), 030902 — Vaire's first peer-reviewed journal article; reports results of the 2022 DOE/LPS study at Sandia
B. W. Walker, K. Muthukrishnan, E. Rivas, E. C. Usih, M. P. Frank, et al. — SPIE Spintronics XVIII (paper 13586-37, proceedings vol. PC13586), San Diego
A Universal Circuit Element for Ballistic Asynchronous Reversible Computing in Superconductors
R. M. Lewis, M. P. Frank, S. B. Kaplan — US Committee for Superconducting Electronics Josephson Junction Workshop, Santa Fe, NM, Apr 6–10, 2025 (SAND2025-04647C); also presented as "Superconducting Elements for Ballistic Reversible Computing" at the APS Global Physics Summit, Mar 21, 2025. Universal BARCS element first demonstrated in simulation, Jun 2024; improved (self-timed after initialization), Sep 2024.
First-Principles Derivation of Fluxon Viscosity and Associated Stopping Distance in Long Josephson Junctions
M. P. Frank, R. M. Lewis, S. B. Kaplan — IEEE Transactions on Applied Superconductivity 35(5) (Early Access Jan 15, 2025; final Feb 2025). Presented as a poster at ASC 2024 (Sep 2024).
M. P. Frank & A. J. Edwards — MATLAB tool estimating maximum logic-switching throughput density (conventional vs. fully adiabatic CMOS) across IRDS 2022 technology nodes; DOE CODE ID 145506. Results presented in the CoMET 2023 talk below.
Limits of CMOS and Prospects for Adiabatic/Reversible CMOS
Texas Symposium on Computing with Emerging Technologies (CoMET), UT Dallas — invited talk, plus panel briefing "Touchpoints Between Classical Reversible Computing and Superconductive & Quantum Computing"
Near-Landauer Reversible Skyrmion Logic with Voltage-Based Propagation
B. W. Walker, A. J. Edwards, X. Hu, M. P. Frank, F. García-Sánchez, et al. — GOMACTech 2023; arXiv:2301.10700 (later an invited paper at SPIE Spintronics XVIII, 2025)
Ballistic Asynchronous Reversible Computing in Superconducting Circuits
M. P. Frank & R. M. Lewis — IEEE International Conference on Rebooting Computing (ICRC 2022); includes the BARCS element-classifier software. Also panel presentation: "Continued Efficiency Scaling of General Digital Compute via Reversible Computing"
Auditable, Available and Resilient Private Computation on the Blockchain via MPC
C. Cordi, M. P. Frank, K. Gabert, C. Helinski, R. C. Kao, V. Kolesnikov, A. Ladha, et al. — CSCML 2022 (Int'l Symposium on Cyber Security, Cryptology and Machine Learning)
Logical and Physical Reversibility of Conservative Skyrmion Logic
X. Hu, B. W. Walker, F. García-Sánchez, A. J. Edwards, P. Zhou, J. A. C. Incorvia, et al. (incl. M. P. Frank) — IEEE Magnetics Letters 13. (Slightly before the mid-2022 cutoff; included for completeness.)