Quantum Machine Intelligence Template
Write in a clean editor, then format for Quantum Machine Intelligence in one click — DocuGuru applies the official Springer Nature template with superscript references and exports a submission-ready PDF plus the editable LaTeX source. Free to start.
About the Quantum Machine Intelligence format
Quantum Machine Intelligence is a peer-reviewed journal published by Springer Nature, covering Quantum Computing Algorithms and Architecture, Quantum Information and Cryptography, Neural Networks and Reservoir Computing.
| Publisher | Springer Nature |
|---|---|
| Reference style | Superscript numbered (Nature) Superscript — small raised numerals in the text 1. Smith, A., Jones, B. & Lee, C. A representative article title. Quantum Machine Intelligence 12, 45–58 (2023).
Formats any DOI in Quantum Machine Intelligence style. No sign-up. |
| Publishes research in | Quantum Computing Algorithms and Architecture Quantum Information and Cryptography Neural Networks and Reservoir Computing Quantum many-body systems Quantum-Dot Cellular Automata |
| ISSN | 2524-4906 |
| Citation impact (2-yr) | 5.89 |
| h-index | 33 |
| i10-index | 124 |
| Total citations | 4,822 |
| Article processing charge | $2,990 |
| Top institutions publishing here | University of Oxford |
| Journal website | www.springer.com |
| You get | A submission-ready PDF and the editable LaTeX source — ready to submit. |
Papers published in Quantum Machine Intelligence per year
Citation impact of Quantum Machine Intelligence by publication year
Citations each year’s papers have accumulated so far — the most recent years are still building up.
Most-cited papers in Quantum Machine Intelligence
Abstract With the increased focus on quantum circuit learning for near-term applications on quantum devices, in conjunction with unique challenges presented by cost function landscapes of parametrized quantum circuits, strategies for effective training are becoming increasingly important. In order to ameliorate some of these challenges, we investigate a layerwise learning strategy for parametrized quantum circuits.…
Abstract This work presents a novel realization approach to quantum Boltzmann machines (QBMs). The preparation of the required Gibbs states, as well as the evaluation of the loss function’s analytic gradient, is based on variational quantum imaginary time evolution, a technique that is typically used for ground-state computation. In contrast to existing methods, this implementation…