Welcome To HSQCD
Collaboration in High Energy Physics
A place to share ideas and to do research effectively
Research Groups
Hadronic Structures
Standard model and Beyond
The high energy physics-phenomenology plays an important role in our understanding of the universe. It connects the existing theories to the large experiments carried out around the world on particle physics: Like CERN, Fermilab, etc. The strong interaction is one of the four fundamental interactions governing our universe. The best laboratory to get complete knowledge on quantum chromodynamics (QCD) as the quantum field theory of the strong interaction is hadron physics. Within this collaboration we investigate different aspects of hadrons & QCD.
Our Interests
A highlight of research areas we are interested in.
Perturbative and non-perturbative aspects of QCD; formation and structure of standard hadrons and exotic states; particle phenomenology; PDFs, NPDFs, GPDFs, GDAs, TDAs, and TMDs.
Intrinsic quarks; investigation of hadrons' multipole moments and geometric shapes; electromagnetic, weak, and strong decays of standard hadrons and exotic states; two-point, three-point, and light-cone QCD sum rules.
Finite temperature QCD and its applications in hadron physics; hadronic properties in dense media; exploring new physics scenarios in hadron physics; searching for dark matter and dark energy, both generally and within QCD; machine learning applications in particle physics.
"Global Collaboration with Hadron Colliders: Involvement in CERN's FCC and Germany's PANDA Experiment"
Our collaboration comprises over 36 members, including faculty, postdocs, and graduate students from various universities, all actively engaged in different aspects of particle phenomenology and data analysis across several subgroups. At times, our predictions regarding the existence of certain hadronic states or the parameters of well-established states are validated by significant experiments. Additionally, we are often among the first groups to elucidate the physical properties of newly discovered resonances, determine their quantum numbers, and effectively provide them with an "identity card."
