The Resonance Code

BLACK-AND-WHITE EDITION Human civilization is at a crossroads. Challenges of immense volatility and uncertainty press us to evolve our ourselves at a greater pace than we have ever done. We need to heal and revitalize the inner terrain of the psyche so our consciousness can respond creatively to the complexity that surrounds and challenges us. The Resonance Code is born of a marriage between ancient and modern, East and West. Its ancient and Eastern sources are Taoist Philosophy and the I Ching, one of Earth's most ancient complexity theories. Its modern and Western sources are contemporary theories of human development and practices of leadership coaching. According to the Taoist framework, the human psyche functions as an organic "resonator," directly exchanging and amplifying resonance - known as qi - with its social and natural environment. Qi carries information essential for our growth and thriving as individuals and as a species. However, on our modern, materialistic path of development, our cognitive minds struggle to process this subtle exchange between ourselves and our environment. This disconnection leads to much of the grief, loneliness, and pervasive distress we experience today. The Resonance Code presents a knowledge system developed through a leadership training curriculum at Resonance Path Institute. This system aims at awakening the psyche to resonance. It enables the rational mind to evolve beyond current limitations so we can dance with complexity and embrace uncertainty as the fertile ground of creativity. The Resonance Code is calling forth a new generation of resonance leaders. These are people who may or may not hold conventional leadership titles, but who love the Earth, feel compassion for all its inhabitants, and are committed to participate in humanity's evolutionary journey.

Progress in Nuclear Energy, Volume 5 covers the significant advances in several aspects of nuclear energy field. This book is composed six chapters that describe the progress in nuclear and gas-cooled reactors. The introductory chapter deals with the development and evolution of decay heat estimates and decay heat Standards, and illustrates the use of these estimates through comparison of both the actinide and fission product decay heat levels from typical fuel samples in a variety of reactor systems. The succeeding chapters present different practical methods for handling resonance absorption problem in the case of thermal reactor lattices and review the physics of the different noise phenomena. These topics are followed by discussions of the developed methodology for the description of breeding, conversion, long-term fuel logistics, and related subjects derived from the detailed mathematical description of the fuel cycle. The concluding chapters consider the historical development of heat transfer surfaces for gas-cooled reactors. These chapters also provide a complete set of differential nuclear data on the three technologically important americium isotopes, 241Am, 242Am, and 243Am, suitable for incorporation into the computer-based U.K. Nuclear Data Library. This book will prove useful to nuclear physicists and nuclear energy scientists and researchers.

Light water critical experiments have been performed in order to measure microscopic parameters and conversion ratios in single region and multi-region cores containing slightly enriched, stainless steel clad, UO2 fuel rods. The experimental results were analyzed with multi-group codes which were supplemented for the resonance energy by a Monte Carlo code. Experimental and analytical results are presented along with a description of experimental and analystical investigations performed in order to account for discrepancies between theory and experiment.

Resonance Self-Shielding Calculation Methods in Nuclear Reactors presents the latest progress in resonance self-shielding methods for both deterministic and Mote Carlo methods, including key advances over the last decade such as high-fidelity resonance treatment, resonance interference effect and multi-group equivalence. As the demand for high-fidelity resonance self-shielding treatment is increasing due to the rapid development of advanced nuclear reactor concepts and progression in high performance computational technologies, this practical book guides students and professionals in nuclear engineering and technology through various methods with proven high precision and efficiency. Presents a collection of resonance self-shielding methods, as well as numerical methods and numerical results Includes new topics in resonance self-shielding treatment Provides source codes of key calculations presented