activity
20212026
most citedAnalyzing N-point Energy Correlators Inside Jets with CMS Open Data

109 citations · 384 across the 13 of their papers we have counts for

collaborators

13 papers

cs.CL2026

PRBench: End-to-end Paper Reproduction in Physics Research

Shi Qiu, Junyi Deng, Yiwei Deng +48

AI agents powered by large language models exhibit strong reasoning and problem-solving capabilities, enabling them to assist scientific research tasks such as formula derivation a…

hep-ph2023

The Transverse Energy-Energy Correlator at Next-to-Next-to-Next-to-Leading Logarithm

Anjie Gao, Hai Tao Li, Ian Moult +1

We present an operator based factorization formula for the transverse energy-energy correlator in the back-to-back (dijet) region, and uncover its remarkable perturbative simplicit…

hep-ph2023

Energy Correlators on Tracks: Resummation and Non-Perturbative Effects

Max Jaarsma, Yibei Li, Ian Moult +2

Energy correlators measured inside high-energy jets at hadron colliders have recently been demonstrated to provide a new window into both perturbative and non-perturbative Quantum…

hep-ph2023

Power Corrections to Energy Flow Correlations from Large Spin Perturbation

Hao Chen, Xinan Zhou, Hua Xing Zhu

Dynamics of high energy scattering in Quantum Chromodynamics (QCD) are primarily probed through detector energy flow correlations. One important example is the Energy-Energy Correl…

hep-ph2022

Collinear Parton Dynamics Beyond DGLAP

Hao Chen, Max Jaarsma, Yibei Li +3

Renormalization group evolution equations describing the scale dependence of quantities in quantum chromodynamics (QCD) play a central role in the interpretation of experimental da…

hep-ph2022★ 17 cited

Multi-Collinear Splitting Kernels for Track Function Evolution

Hao Chen, Max Jaarsma, Yibei Li +3

Jets and their substructure play a central role in many analyses at the Large Hadron Collider (LHC). To improve the precision of measurements, as well as to enable measurement of j…

hep-ph2022★ 23 cited

Non-Gaussianities in Collider Energy Flux

Hao Chen, Ian Moult, Jesse Thaler +1

The microscopic dynamics of particle collisions is imprinted into the statistical properties of asymptotic energy flux, much like the dynamics of inflation is imprinted into the co…

hep-ph2022★ 68 cited

The Four Loop QCD Rapidity Anomalous Dimension

Ian Moult, Hua Xing Zhu, Yu Jiao Zhu

The rapidity anomalous dimension controls the scaling of transverse momentum dependent observables in the Sudakov region. In a conformal theory it is equivalent to the soft anomalo…

physics.acc-ph2022★ 4 cited

The International Linear Collider: Report to Snowmass 2021

Alexander Aryshev, Ties Behnke, Mikael Berggren +508

The International Linear Collider (ILC) is on the table now as a new global energy-frontier accelerator laboratory taking data in the 2030s. The ILC addresses key questions for our…

hep-ph2022★ 50 cited

Celestial Blocks and Transverse Spin in the Three-Point Energy Correlator

Hao Chen, Ian Moult, Joshua Sandor +1

Quantitative theoretical techniques for understanding the substructure of jets at the LHC enable new insights into the dynamics of QCD, and novel approaches to search for new physi…

hep-ph2022★ 109 cited

Analyzing N-point Energy Correlators Inside Jets with CMS Open Data

Patrick T. Komiske, Ian Moult, Jesse Thaler +1

Jets of hadrons produced at high-energy colliders provide experimental access to the dynamics of asymptotically free quarks and gluons and their confinement into hadrons. In this p…

hep-ph2021★ 60 cited

Extending Precision Perturbative QCD with Track Functions

Yibei Li, Ian Moult, Solange Schrijnder van Velzen +2

Collider experiments often exploit information about the quantum numbers of final state hadrons to maximize their sensitivity, with applications ranging from the use of tracking in…

hep-ph2021★ 53 cited

Spinning Gluons from the QCD Light-Ray OPE

Hao Chen, Ian Moult, Hua Xing Zhu

We study the transverse spin structure of the squeezed limit of the three-point energy correlator, $\langle \mathcal{E}(\vec n_1) \mathcal{E}(\vec n_2) \mathcal{E}(\vec n_3) \rangl…