Prof. Xiaohu Mo | Charmonium Physics | Best Researcher Award
Professor at Institute of High Energy Physics, Chinese Academy of Sciences, China
Mo Xiaohu (born 1969) is a renowned Chinese physicist specializing in ⚛️ particle and nuclear physics. He earned his B.Sc. from Beijing Institute of Technology (1992 🎓), M.Sc. from Tsinghua University (1997 📘), and Ph.D. from the Institute of High Energy Physics (2001 📕). He completed his postdoctoral research at the China Center of Advanced Science and Technology 🌐. Since 2010, he has been a professor at the Institute of High Energy Physics. His work in charmonium physics, including detector development and τ-mass scan optimization, has advanced experimental precision at BEPCII/BESIII 🔬. He has published over 50 influential papers 📄.
Professional Profile:
🔹 Education and Experience
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🎓 B.Sc. – Beijing Institute of Technology (1992)
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📘 M.Sc. – Tsinghua University (1997)
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📕 Ph.D. – Institute of High Energy Physics (2001)
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🧪 Postdoc – China Center of Advanced Science and Technology (2001–2003)
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👨🏫 Professor – Institute of High Energy Physics (since 2010)
🔹 Professional Development
Mo Xiaohu has played a pivotal role in enhancing the precision of experimental physics in China 🔬. He led the construction of a high-accuracy beam energy measurement system at BEPCII ⚙️, which significantly improved the detector and accelerator performance. His creative input in τ-mass scan strategy through the sampling and searching method 📊 led to optimized data collection techniques. Alongside Profs. Yuan Chengzheng and Wang Ping, he introduced the theory of a universal large phase between strong and electromagnetic interactions 🌌. His expertise spans data analysis, phenomenology, and hardware-software integration, contributing to both theoretical insight and experimental innovation 🧠🔧.
🔹 Research Focus
Mo Xiaohu’s research focus lies in the domain of charmonium physics within particle and nuclear physics 🧲⚛️. He has extensive experience in both theoretical phenomenology and practical data analysis, making significant contributions to understanding the interplay of strong and electromagnetic forces in hadron structures 🔍. His work aims to uncover fundamental characteristics of quark interactions and quantum states using advanced collider experiments like BEPCII/BESIII 🚀. By integrating experimental hardware development with analytical models, he enhances the precision and scope of measurements in subatomic particle studies, helping push the boundaries of modern physics exploration 📡📈.
🔹 Awards and Honors
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🏆 Beijing Science and Technology Prize (Second-Class) – 2012
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📄 Published 50+ research papers in domestic and international journals
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🔧 Led construction of high-accuracy beam energy measurement system at BEPCII
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💡 Co-proposed conjecture on universal large phase in charmonium physics
Publication Top Notes
1. Generic Symmetry Analysis of Charmonium Decay
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Journal: Physics Letters B
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Date: February 2025
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Volume: 861
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Article ID: 139287
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Highlights: Provides a symmetry-based framework using SU(3) flavor analysis for charmonium decays, including symmetry breaking effects. Offers a universal parametrization scheme for binary, ternary, and radiative decay channels.
2. Symmetry Analysis Involving Meson Mixing for Charmonium Decay
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Journal: Physical Review D
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Date: February 28, 2024
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Volume: 109
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Issue: 3
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Article ID: 036036
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Highlights: Examines the impact of meson mixing, particularly η-η′, on charmonium decay modes. Discusses flavor symmetry breaking and interference patterns in decay amplitudes.
3. Symmetry Analysis of Charmonium Two-Body Decay
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Journal: Physical Review D
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Date: May 8, 2023
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Volume: 107
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Issue: 9
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Article ID: 094009
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Highlights: Focuses on two-body final states in charmonium decays. Derives amplitude relations from flavor SU(3) symmetry and investigates isospin and G-parity constraints.
4. Symmetry Analysis of Charmonium Decays to Two-Baryon Final State
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Journal: Physics Letters B
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Date: March 2022
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Volume: 827
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Article ID: 136927
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Highlights: Analyzes decay of charmonium into baryon-antibaryon pairs using SU(3) symmetry and Wigner-Eckart theorem. Applies results to decay modes like J/ψ→ppˉJ/\psi \to p\bar{p}, ΛΛˉ\Lambda\bar{\Lambda}, etc.
5. Hadronic Cross Section of e+e−e^+e^- Annihilation at Bottomonium Energy Region
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Journal: Chinese Physics C
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Date: August 2020
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Volume: 44
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Issue: 8
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Article ID: 083001
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Institution: Institute of High Energy Physics, Chinese Academy of Sciences
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Highlights: Presents measurements of hadronic cross sections at bottomonium resonances. Useful for precision tests of QCD and extracting resonance parameters.
Conclusion:
Prof. Mo Xiaohu clearly demonstrates all the hallmarks of a Best Researcher Award recipient: originality in theoretical physics, hands-on impact in experimental system construction, innovation in methodology, and a consistent, high-quality publication record. His work has not only advanced knowledge in charmonium and τ physics but also contributed to the operational strength of China’s major experimental facilities.