Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

World Scientific lecture notes in physics

Nuclear Many-Body Physics

Hisashi Horiuchi, Kiyomi Ikeda, Kiyoshi Katō, T. Motoba

Published Dec 11, 2023• 0 citations
Publisher
DOI
10.1142/13718

Related papers

Lectures on the many-body problem in nuclear physics

L. Rosenfeld, J. Bro-Jørgensen, A. Haatuft +1 more

NORDITA (Nordisk institut for teoretisk atomfysik) eBooks•Jan 1, 1959•0 citations

Few- and many-body methods in nuclear physics

M. Viviani

Springer eBooks•Nov 6, 2008•0 citations

Lectures on the many-body problem and its relation to nuclear physics

B. R. Easlea

•Jan 1, 1963•0 citations

Many-body Green functions in nuclear physics

J. Speth, N. Lyutorovich

WORLD SCIENTIFIC eBooks•Mar 22, 2017•1 citation

NUCLEAR PHYSICS AND THE MANY-BODY PROBLEM.

D. J. Thouless

Principles and Practice of Constraint Programming•Jan 1, 1969•0 citations

Uncovering many-body correlations in nanoscale nuclear spin baths by central spin decoherence

Wen-Long Ma, Gary Wolfowicz, Nan Zhao +3 more

Central spin decoherence caused by nuclear spin baths is often a critical issue in various quantum computing schemes, and it has also been used for sensing single-nuclear spins. Recent theoretical studies suggest that central spin decoherence can act as a probe of many-body physics in spin baths; however, identification and detection of many-body correlations of nuclear spins in nanoscale systems are highly challenging. Here, taking a phosphorus donor electron spin in a 29Si nuclear spin bath as our model system, we discover both theoretically and experimentally that many-body correlations in nanoscale nuclear spin baths produce identifiable signatures in decoherence of the central spin under multiple-pulse dynamical decoupling control. We demonstrate that under control by an odd or even number of pulses, the central spin decoherence is principally caused by second- or fourth-order nuclear spin correlations, respectively. This study marks an important step toward studying many-body physics using spin qubits. Detecting many-body correlations is a long-standing challenge in many-body physics. By studying their effects on the decoherence of the central spin under dynamical decoupling, Ma et al.provide an experimental demonstration of detection of many-body correlations in nanoscale nuclear spin bath.

arXiv:1404.2717•Nature Communications•Sep 10, 2014•55 citations
Central spin decoherence caused by nuclear spin baths is often a critical issue in various quantum computing schemes, and it has also been used for sensing single-nuclear spins. Recent theoretical studies suggest that central spin decoherence can act as a probe of many-body physics in spin baths; however, identification and detection of many-body correlations of nuclear spins in nanoscale systems are highly challenging. Here, taking a phosphorus donor electron spin in a 29Si nuclear spin bath as our model system, we discover both theoretically and experimentally that many-body correlations in nanoscale nuclear spin baths produce identifiable signatures in decoherence of the central spin under multiple-pulse dynamical decoupling control. We demonstrate that under control by an odd or even number of pulses, the central spin decoherence is principally caused by second- or fourth-order nuclear spin correlations, respectively. This study marks an important step toward studying many-body physics using spin qubits. Detecting many-body correlations is a long-standing challenge in many-body physics. By studying their effects on the decoherence of the central spin under dynamical decoupling, Ma et al.provide an experimental demonstration of detection of many-body correlations in nanoscale nuclear spin bath.