Mr. Xuyang Liu | Hadron Physics | Research Excellence Award
Associate Professor | Liaoning University | China
Mr. Xuyang Liu is an active researcher whose work is deeply rooted in hadron physics, contributing substantially to the global understanding of theoretical models and particle interactions within hadron physics. His research spans advanced investigations of baryon structure, multi-quark dynamics, meson cloud effects and form-factor behavior, all of which are central themes within hadron physics. Through high-quality publications, he has strengthened theoretical frameworks that support precision modeling in hadron physics and expanded collaborations with international groups working on perturbative chiral quark approaches and related computational methods. His scholarly contributions demonstrate methodological depth, consistently advancing the predictive capabilities of hadron physics while offering results that inform broader high-energy studies. His influence is reflected in his cumulative publication record, which showcases impactful findings recognized within the hadron physics community. By integrating refined analytical techniques and cross-disciplinary insights, he continually enhances the scientific dialogue surrounding hadron physics, contributing to both conceptual development and practical modeling applications. His sustained commitment to rigorous research has positioned him as a significant contributor to ongoing progress in hadron physics, supporting both theoretical advancement and societal scientific enrichment. Scopus profile of 306 Citations, 30 Documents, 10 h-index.
Citation Metrics (Scopus)
Featured Publications
Study on Meson Cloud Contributions to Octet and Decuplet Baryon Masses
Physics of Particles and Nuclei Letters, 2025 •
Cited by 0
Axial transition form factors of octet baryons in the perturbative chiral quark model
Physical Review D, 2023 •
Cited by 6
On and Off-Chain Load Balancing Model Based on Stackelberg Game
CollaborateCom 2024 (Conference Paper), 2025 •
pp. 60–80
Fibroblast reprogramming in the dura mater of NTG-induced migraine-related chronic hypersensitivity model drives monocyte infiltration via Angptl1-dependent stromal signaling
Physics of Elementary Particles and Atomic Nuclei. Theory, 2025 •
Volume 22, pp. 1385–1391