Effective field theory (EFT), a technique used extensively in particle physics, provides a framework for systematically describing nuclear systems in a way consistent with quantum chromodynamics, the underlying theory of strong interactions. Because it offers the possibility of a unified description of all low-energy processes involving nucleons, it has the potential to become the foundation of conventional nuclear physics.Since the early 1990's when Weinberg applied the techniques of EFT to multiple-nucleon systems, significant developments have been made. However, serious obstacles have also been encountered. This book contains the proceedings of the Workshop on Nuclear Physics with Effective Field Theory, held in the Kellogg Radiation Laboratory at Caltech on the 26th and 27th of February 1998, which specifically addressed those issues. Physicists from different areas of sub-atomic physics gathered in an attempt to arrive at a consistent power counting scheme for the nucleon-nucleon interaction, a first step toward dealing with few-nucleon systems and ultimately nuclear matter and finite nuclei.

This book contains the proceedings of the Workshop on Nuclear Physics with Effective Field Theory, held in the Kellogg Radiation Laboratory at Caltech on the 26th and 27th of February 1998, which specifically addressed those issues. Physicists from different areas of sub-atomic physics gathered in an attempt to arrive at a consistent power counting scheme for the nucleon-nucleon interaction, a first step toward dealing with few-nucleon systems and ultimately nuclear matter and finite nuclei.

The first Asia-Pacific Conference on Few-Body Problems in Physics took place from August 23 to August 28, 1999, at the Noda campus of the Sci ence University of Tokyo in Noda-city and Sawayaka Chiba Kenmin Plaza in Kashiwa-city, a suburb of Tokyo close to the Narita-Tokyo International Air port, with the Frontier Research Center for Computation Sciences (FRCCS) of the Science University of Tokyo as the host institute. The High Energy Accel erator Research Organization (KEK), the Institute of Physical and Chemical Research (RIKEN), the Research Center for Nuclear Physics (RCNP)-Osaka University, the Physical Society of Japan, and the Association of Asia Pacific Physical Societies (AAPPS) supported this conference. The conference was initiated in the Asia Pacific area as a counterpart to the successful European Conference on Few-Body Problems in Physics (APFB99), in addition to the International Few-Body Conference Series and the Few Body Gordon Conference series in North America. The Physics of Few-Body Problems covers, as is well known, systems with finite numbers of particles in contrast to many-body systems with very large numbers of particles. Therefore, it covers such wide fields as mesoscopic, atom-molecular, exotic atom, nucleon, hyperon, and quark-gluon physics, plus their applications.

The confinement mechanism of the quarks in QCD is one of the most challenging and open problems in physics. Confinement is a nonperturbative phenomenon, and a definite way to handle it has not yet been found in field theory. There are lattice calculations that can produce the low-lying states of the spectrum and ?measure? many important physical quantities, but nevertheless the development of analytical techniques is of extreme importance for understanding the physics involved in confinement. In this respect it is important to test the results obtained directly from the theory (Bethe-Salpeter kernel, effective Hamiltonians, quark potential, etc.) on the spectrum, form factors and decays of bound states of quarks and gluons, and to relate them to the results of lattice theory.In this book, the question of the confinement mechanism is addressed; explanations in terms of monopoles, instantons and dyons are reviewed and the connection with duality is discussed.

The confinement mechanism of the quarks in QCD is one of the most challenging and open problems in physics. Confinement is a nonperturbative phenomenon, and a definite way to handle it has not yet been found in field theory. There are lattice calculations that can produce the low-lying states of the spectrum and “measure” many important physical quantities, but nevertheless the development of analytical techniques is of extreme importance for understanding the physics involved in confinement. In this respect it is important to test the results obtained directly from the theory (Bethe-Salpeter kernel, effective Hamiltonians, quark potential, etc.) on the spectrum, form factors and decays of bound states of quarks and gluons, and to relate them to the results of lattice theory.In this book, the question of the confinement mechanism is addressed; explanations in terms of monopoles, instantons and dyons are reviewed and the connection with duality is discussed.

Introduction / M. Shifman -- Introducing Boris Ioffe / B.V. Geshkenbein -- Boris Lazarevich Ioffe is 75 / I.B. Khriplovich -- ch. 1. Pages of the past. A top secret assignment / B.L. Ioffe. Editor's comments. Snapshots from the 1950's / Yu. F. Orlov -- ch. 2. The making of QCD. Quantizing the Yang-Mills field / L.D. Faddeev. The discovery of asymptotic freedom and the emergence of QCD / D.J. Gross. Editor's note. Recollections on dimensional regularization and related topics / C.G. Bollini. Historical curiosity: how asymptotic freedom of the Yang-Mills theory could have been discovered three times before Gross, Wilczek, and politzer, but was not / M. Shifman -- ch. 3. From hadrons to nuclei: crossing the border / S.R. Beane [und weitere] -- ch. 4. Chiral dynamics / H. Leutwyler -- ch. 5. Aspects of chiral symmetry / A. Smilga -- ch. 6. Nucleons as chiral solitons / D. Diakonov and V. Yu. Petrov -- ch. 7. Chiral QCD: baryon dynamics / U. MeiBner -- ch. 8. Hadrons in the 1/N expansion / A.V. Manohar -- ch. 9. QCD inequalities / S. Nussinov -- ch. 10. Regge poles in QCD / A.B. Kaidalov -- ch. 11. Small x physics and the colored glass condensate / L. McLerran -- ch. 12. On Gribov's ideas on confinement / A. Vainshtein -- ch. 13. QCD in a finite volume / P. van Baal -- ch. 14. Compact variables and singular fields in QCD / F. Lenz and S. Wörlen -- ch. 15. Instanton-induced effects in QCD / E.V. Shuryak -- ch. 16. Perturbative QCD and the parton structure of the nucleon / W.-K. Tung -- ch. 17. Multiloop evolution of the QCD coupling constant and quark masses / K.G. Chetyrkin -- ch. 18. Multi-parton amplitudes in QCD / Z. Bern -- ch. 19. Generalized parton distributions / A. Radyushkin -- ch. 20. Analytical QCD and multiparticle production / V.A. Khoze, W. Ochs and J. Wosiek -- ch. 21. Space-time picture of high energy scattering / H.G. Dosch -- ch. 22. High-energy QCD and Wilson lines / I. Balitsky -- ch. 23. Exclusive processes in quantum chromodynamics and the light-cone Fock representation / S.J. Brodsky -- ch. 24. Quark-hadron duality / M. Shifman -- ch. 25. QCD sum rules, a modern perspective / P. Colangelo and A. Khodjamirian -- ch. 26. Topics in the heavy quark expansion / N. Uraltsev -- ch. 27. Weak decays of heavy quarks / F. De Fazio -- ch. 28. Renormalons and power corrections / M. Beneke and V.M. Braun -- ch. 29. Confinement, magnetic Z[symbol] symmetry and low-energy effective theory of gluodynamics / A. Kovner -- ch. 30. Flux tubes and confinement in the Seiberg-Witten theory: lessons for QCD / A. Yung -- ch. 31. Millennial messages for QCD from the superworld and from the string / M.J. Strassler -- ch. 32. The center symmetry and its spontaneous breakdown at high temperature / K. Holland and U.-J. Wiese -- ch. 33. 2D model field theories and finite temperature and density / V. Schön and M. Thies -- ch. 34. Hot and dense QCD / A.V. Smilga -- ch. 35. The condensed matter physics of QCD / K. Rajagopal and F. Wilczek