Quantum Chromodynamics (QCD) is now widely accepted as the basic theory of the strong interaction. As such, it is the underlying theory behind the physics of quarks and gluons, through hadrons, to nuclei and nuclear matter. At distance scales smaller than 0.1 Fermi, QCD can be treated perturbatively and has been remarkably successful in describing many phenomena in high-energy physics experiments. In contrast, at distance scales of the order of 1 Fermi and above, the regime of hadronic and nuclear physics, a perturbative expansion of QCD is no longer possible. Applying QCD in this non-perturbative regime and understanding how it gives rise to the properties of hadronic and nuclear systems is a formidable unsolved problem. The development of a full understanding of QCD and its implications at all energies and densities is one of the grand challenges of modern physics.

Both regimes, perturbative and non-perturbative, are explored experimentally either by studying the responses of hadronic and nuclear systems to high-precision probes at various energy scales or by creating conditions of high density or temperature in high-energy heavy-ion collisions. Many new experimental opportunities to address these basic questions are arising in the near future. A two-day meeting is being organised to highlight these new opportunities and to bring together people from both the nuclear and particle physics communities who have a common interest in understanding QCD and its consequences. The first day will be dedicated to a general overview of the theoretical and experimental challenges to be faced with particular emphasis on the new facilities that will soon be available. The second day will concentrate on discussions between interested groups who may wish to initiate future collaborations and develop a strategy to purse these new initiatives.

Further details of the meeting, including a list of speakers, will be circulated shortly.

David Evans, University of Birmingham
Tim Greenshaw, University of Liverpool
David Ireland, University of Glasgow
Peter Jones, University of Birmingham
Roy Lemmon, Daresbury Laboratory