Morten Hjorth-Jensen

Professor of Physics
Image of Morten Hjorth-Jensen
Norwegian version of this page
Mobile phone Norway:+4748257387/USA:+15177089279
Room FØ470, Department of Physics
Available hours Any time
Visiting address Department of Physics Sem Sealands vei 24 0371 Oslo
Postal address Department of Physics

Academic Interests

I am a theoretical physicist with a strong interest in computational physics and many-body theory in general, and the nuclear many-body problem and nuclear structure problems in particular. This means that I study various methods for solving either Schrödinger's equation or Dirac's equation for many interacting particles, spanning from algorithmic aspects to the mathematical properties of such methods. The latter also leads to a strong interest in computational physics as well as computational aspects of quantum mechanical methods. I share my time equally between Michigan State University in the US (January-June) and the University of Oslo, Norway (July-December).   
Details about research projects, undergraduate and graduate thesis projects etc can be found at  my website



In addition, I'm strongly involved in teaching at all levels. I have been heading the bachelor program Physics, Astronomy and Meteorology ( FAM ) in the period 2002-2011.  I am also strongly involved in the project Computing in Science Education.   Furthermore, with European and American colleagues, we have established the recent successful  Nuclear Talent initiative.

Please feel free to come by and discuss. I teach now the following courses at the University of Oslo and Michigan State University:

Advanced courses

In 2016 the Nuclear Talent initiative  organizes two new courses for graduate students in nuclear physics.  During the last ten years I have taught advanced nuclear physics topics at several schools, totaling more than 200 one hour lectures.   You can find more about me and my research and educational interests at my website or on Google Scholar, see



Tags: Computational physics, Nuclear Physics, Computational Quantum Mechanics, Many-body Physics, Multi-scale processes, USA


  1. Hagen et al, Nature Physics 12, 186 Neutron and weak-charge distributions of the48Ca nucleus​
  2. Ekström et al, Physical Review C  91, 051301(R) (2015), Accurate nuclear radii and binding energies from a chiral interaction
  3. Hagen et al, Reports on Progress in Physics 79, 096302 (2014), Coupled-cluster computations of atomic nuclei
  4. Hagen et al, Physical Review C 89, 014319 (2014), Coupled-cluster calculations of nucleonic matter
  5. Ekström et al, Physical Review Letters 110, 192502 (2013), Optimized Chiral Nucleon-Nucleon Interaction at Next-to-Next-to-Leading Order
  6.          Baardsen et al, Physical Review C 88, 054312 (2013), Coupled-cluster studies of infinite nuclear matter
  7. Ø. Jensen et al, Physical Review Letters 107, 032501 (2011), Quenching of Spectroscopic Factors for Proton Removal in Oxygen Isotopes
  8. G. Hagen et al, Physical Review  Letters 109, 032502 (2012), Evolution of Shell Structure in Neutron-Rich Calcium Isotopes
  9. M. Pedersen Lohne et al, Physical  Review B 84, 115302 (2011), Ab initio computation of the energies of circular quantum dots
  10. M. Hjorth-Jensen, Physics 4, 38 (2011), The carbon challenge
  11. D. J. Dean and M. Hjorth-Jensen, Reviews of  Modern Physics. 75, 607 (2003), Pairing in nuclear systems: from neutron stars to finite nuclei
Published Nov. 4, 2010 12:19 PM - Last modified Nov. 27, 2019 2:54 PM