Quantum Computing Algorithms has 936 eligible papers in the latest 30-day evidence window, down 8% from the prior window, with representative work spanning Quantum Time-Space Tradeoffs for Matrix Problems; MNISQ: A Large-Scale Quantum Circuit Dataset for Machine Learning in the NISQ Era; and A Practical Protocol for Quantum Oblivious Transfer from One-Way Functions.
Quantum Computing Algorithms shows 936 eligible recent papers and 936 commentary-ready papers in the current 30-day window, compared with 1,018 eligible papers in the prior window. The strongest evidence comes from 1 visible topic cluster and 8 representative papers. 7 representative papers are preprints, so those findings should be treated as preliminary.
Quantum Computing Algorithms recorded 936 eligible papers in the latest 30-day window, compared with 1,018 in the prior 30-day window, making the current snapshot down 8% from the prior window.
936 recent vs 1,018 prior eligible papersQuantum Computing Algorithms and Architecture contributes 936 eligible recent papers, including 936 papers with abstracts available for commentary.
936 papers in the leading clusterThe representative set includes Quantum Time-Space Tradeoffs for Matrix Problems; MNISQ: A Large-Scale Quantum Circuit Dataset for Machine Learning in the NISQ Era; A Practical Protocol for Quantum Oblivious Transfer from One-Way Functions; Demonstration of efficient predictive surrogates for large-scale quantum processors; and Integrated error-suppressed pipeline for quantum optimization of nontrivial binary combinatorial optimization problems on gate-model hardware at the 156-qubit scale. These papers anchor the page's claims and keep the brief tied to visible evidence.
8 representative papersQuantum Computing Algorithms and Architecture accounts for 936 eligible recent papers, including 936 commentary-ready papers in this evidence window.
936 recent eligible papersThe selected papers cover Quantum Time-Space Tradeoffs for Matrix Problems; MNISQ: A Large-Scale Quantum Circuit Dataset for Machine Learning in the NISQ Era; A Practical Protocol for Quantum Oblivious Transfer from One-Way Functions; and Demonstration of efficient predictive surrogates for large-scale quantum processors. 7 representative papers are preprints, so those findings should be treated as preliminary.
8 representative papersA preprint from SIAM Journal on Computing in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A preprint from Scientific Data in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A preprint from Quantum in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A recent paper from Nature Communications in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A preprint from New Journal of Physics in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A preprint from Quantum in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A preprint from The Journal of Chemical Physics in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.
A preprint from arXiv (Cornell University) in the Quantum Computing Algorithms and Architecture evidence packet, selected because it is recent, abstract-backed, and representative of this week's topic activity.