Lightweight Error-Correction Code Encoders in Superconducting Electronic Systems

Fuente: arXiv
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Hauptverfasser: Mustafa, Yerzhan, Peköz, Berker, Köse, Selçuk
Format: Preprint
Veröffentlicht: 2025
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author Mustafa, Yerzhan
Peköz, Berker
Köse, Selçuk
author_facet Mustafa, Yerzhan
Peköz, Berker
Köse, Selçuk
contents Data transmission from superconducting electronic circuits, such as single flux quantum (SFQ) logic, to room-temperature electronics is susceptible to bit errors, which may result from flux trapping, fabrication defects, and process parameter variations (PPV). Due to the cooling power budget at 4.2 K and constraints on the chip area, the size of the error-correction code encoders is limited. In this work, three lightweight error-correction code encoders are proposed that are based on Hamming(7,4), Hamming(8,4), and Reed-Muller(1,3) codes and implemented with SFQ logic. The performance of these encoders is analyzed in the presence of PPV. The trade-offs between the theoretical complexity and physical size of error-correction code encoders are identified.
format Preprint
id arxiv_https___arxiv_org_abs_2509_00962
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Lightweight Error-Correction Code Encoders in Superconducting Electronic Systems
Mustafa, Yerzhan
Peköz, Berker
Köse, Selçuk
Signal Processing
Superconductivity
Hardware Architecture
Quantum Physics
94C10, 81V80, 94A24, 94B05, 68M15
B.6.1; B.7.1; C.3; E.4
Data transmission from superconducting electronic circuits, such as single flux quantum (SFQ) logic, to room-temperature electronics is susceptible to bit errors, which may result from flux trapping, fabrication defects, and process parameter variations (PPV). Due to the cooling power budget at 4.2 K and constraints on the chip area, the size of the error-correction code encoders is limited. In this work, three lightweight error-correction code encoders are proposed that are based on Hamming(7,4), Hamming(8,4), and Reed-Muller(1,3) codes and implemented with SFQ logic. The performance of these encoders is analyzed in the presence of PPV. The trade-offs between the theoretical complexity and physical size of error-correction code encoders are identified.
title Lightweight Error-Correction Code Encoders in Superconducting Electronic Systems
topic Signal Processing
Superconductivity
Hardware Architecture
Quantum Physics
94C10, 81V80, 94A24, 94B05, 68M15
B.6.1; B.7.1; C.3; E.4
url https://arxiv.org/abs/2509.00962