Navigation

  • Skip to Content
NTNU Home NTNU Home

Department of Physics

  • Studies
    • Master's programmes in English
    • For exchange students
    • PhD opportunities
    • All programmes of study
    • Courses
    • Financing
    • Language requirements
    • Application process
    • Academic calendar
    • FAQ
  • Research and innovation
    • NTNU research
    • Research excellence
    • Strategic research areas
    • Innovation resources
    • PhD opportunities
  • Life and housing
    • Student in Trondheim
    • Student in Gjøvik
    • Student in Ålesund
    • For researchers
    • Life and housing
  • About NTNU
    • Contact us
    • Faculties and departments
    • Libraries
    • International researcher support
    • Vacancies
    • About NTNU
    • Maps
  1. Department of Physics Research
  2. Astrophysics and Theoretical Physics
  3. Theoretical subatomic physics

Språkvelger

Norsk

Theoretical subatomic physics

×
  • Home
  • Contact
  • Employees
  • Studies
  • Research
    • Astrophysics and Theoretical Physics
    • Biophysics and Medical Technology
    • Interdisciplinary Physics
    • Materials Physics
    • Porous Media Physics
    • Science Education Research
  • Open lectures
  • Vacancies
  • About us
  • Physicists' Meeting 2025
MENU

Theoretical subatomic physics

Theoretical subatomic physics

photo_JensAndersen_QuarkMatter

Understanding Quark Matter. Jens O. Andersen (NTNU). PhotoUnderstanding Quark Matter, Jens O. Andersen. Photo: Per Henning/NTNU

Theoretical subatomic physics

We are working on quark-gluon plasma (QCD) in extreme conditions, i.e. QCD at high temperature and density, as well as QCD in strong magnetic fields.

This is relevant for the early universe, compact stars, and heavy-ion collisions at The Large Hadron Collider (LHC) at CERN and Relativistic Heavy Ion Collider (RHIC) at Brookhaven National Laboratory.

Research topics

Thermal QCD in extreme conditions, such as high temperature and high density

If hadronic matter is heated, it is expected to undergo a phase transition to a new state of matter called the quark-gluon plasma.

18 Apr 2016

Principal investigators

Principal investigators

  • Jens Oluf Andersen

NTNU – Norwegian University of Science and Technology

  • For employees
  • |
  • For students
  • |
  • Intranet
  • |
  • Blackboard

Studies

  • Master's programmes in English
  • For exchange students
  • PhD opportunities
  • Courses
  • Career development
  • Continuing education
  • Application process

News

  • NTNU News
  • Vacancies

About NTNU

  • About the university
  • Libraries
  • NTNU's strategy
  • Research excellence
  • Strategic research areas
  • Organizational chart

Contact

  • Contact NTNU
  • Employees
  • Find experts
  • Press contacts
  • Researcher support
  • Maps

NTNU in three cities

  • NTNU in Gjøvik
  • NTNU in Trondheim
  • NTNU in Ålesund

About this website

  • Use of cookies
  • Accessibility statement
  • Privacy policy
  • Editorial responsibility
Facebook Instagram Linkedin Snapchat Tiktok Youtube
Sign In
NTNU logo