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Nuclear rockets. --- Rockets, Atomic powered --- Direct energy conversion --- Nuclear propulsion --- Rockets (Aeronautics) --- Space ships --- Space vehicles --- Propulsion systems
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Nuclear reactors --- Atomic piles --- Chain reaction piles --- Reactors (Nuclear physics) --- Neutron transport theory --- Nuclear energy --- Nuclear engineering --- Nuclear facilities --- Nuclear physics --- Nuclear propulsion
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Nuclear reactors. --- Atomic piles --- Chain reaction piles --- Reactors (Nuclear physics) --- Neutron transport theory --- Nuclear energy --- Nuclear engineering --- Nuclear facilities --- Nuclear physics --- Nuclear propulsion
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Nuclear reactors --- Atomic piles --- Chain reaction piles --- Reactors (Nuclear physics) --- Neutron transport theory --- Nuclear energy --- Nuclear engineering --- Nuclear facilities --- Nuclear physics --- Nuclear propulsion --- Technological innovations
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The evolution of nuclear reactors since the 1942 Fermi experiment can be described along the lines of natural history, with an initial flourish of uninhibited creativity followed by a severe selection process leading to a handful of surviving species, with light water reactors occupying most of the biotope today. The is book combines four approaches: A descriptive one. This gives an overview of the main strengths and weaknesses of the different reactor systems. A historical approach, from the 1940’s to nowadays, with an extrapolation to the near future. The LWR dominance being firmly established, what is the next step? An axiomatic approach. Starting with a set of long term criteria concerning the fuel cycle sustainability, a conceptual solution is established, and then a family of reactor systems is selected for development and qualifycation. A dynamic approach. In the early 2000s, the prevailing image combined a “nuclear renaissance”, a strong limitation of the greenhouse gases concentration and a dynamic growth of the world economy. Updating the strategy in the wake of the last decade events requires a sharper understanding of the driving forces as well as of the influence of the post-Fukushima safety framework on the design constraints. All the books of the “Génie Atomique” series have adopted an instructional approach. Initially intended for INSTN’s students, they can be greatly helpful to physicists and engineers involved in the development or operational aspects of nuclear power.
Nuclear reactors. --- Atomic piles --- Chain reaction piles --- Reactors (Nuclear physics) --- Neutron transport theory --- Nuclear energy --- Nuclear engineering --- Nuclear facilities --- Nuclear physics --- Nuclear propulsion --- Nuclear reactors --- Réacteurs nucléaires --- Automatic control.
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· Explains how to use nuclear process heat for industrial applications, especially process heat for hydrogen production · Illuminates the issue of waste heat in nuclear plants, offering a vision for how it can be used in combined-cycle plants · Undertakes the thermal analysis of intermediate heat exchangers throughout the life cycle, from the design perspective through operational and safety assurance stages This book describes recent technological developments in next generation nuclear reactors that have created renewed interest in nuclear process heat for industrial applications. The author’s discussion mirrors the industry’s emerging focus on combined cycle Next Generation Nuclear Plants’ (NGNP) seemingly natural fit in producing electricity and process heat for hydrogen production. To utilize this process heat, engineers must uncover a thermal device that can transfer the thermal energy from the NGNP to the hydrogen plant in the most performance efficient and cost effective way possible. This book is written around that vital quest, and the author describes the usefulness of the Intermediate Heat Exchanger (IHX) as a possible solution. The option to transfer heat and thermal energy via a single-phase forced convection loop where fluid is mechanically pumped between the heat exchangers at the nuclear and hydrogen plants is presented, and challenges associated with this tactic are discussed. As a second option, heat pipes and thermosyphons, with their ability to transport very large quantities of heat over relatively long distance with small temperature losses, are also examined.
Energy. --- Nuclear energy. --- Thermodynamics. --- Heat engineering. --- Heat transfer. --- Mass transfer. --- Nuclear engineering. --- Nuclear Energy. --- Engineering Thermodynamics, Heat and Mass Transfer. --- Nuclear Engineering. --- Nuclear power plants. --- Nuclear reactors. --- Hydrogen as fuel. --- Heat exchangers. --- Hydrogen energy --- Atomic piles --- Chain reaction piles --- Reactors (Nuclear physics) --- Atomic power plants --- Nuclear power stations --- Power plants, Nuclear --- Chemical engineering --- Heat --- Refrigeration and refrigerating machinery --- Fuel --- Neutron transport theory --- Nuclear energy --- Nuclear engineering --- Nuclear facilities --- Nuclear physics --- Nuclear propulsion --- Power-plants --- Antinuclear movement --- Equipment and supplies --- Transmission --- Engineering. --- Construction --- Industrial arts --- Technology --- Mass transport (Physics) --- Thermodynamics --- Transport theory --- Heat transfer --- Thermal transfer --- Transmission of heat --- Energy transfer --- Mechanical engineering --- Chemistry, Physical and theoretical --- Dynamics --- Mechanics --- Physics --- Heat-engines --- Quantum theory --- Atomic energy --- Atomic power --- Energy, Atomic --- Energy, Nuclear --- Nuclear power --- Power, Atomic --- Power, Nuclear --- Force and energy --- Power resources --- Nuclear power plants
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This book covers the basic principles of both fusion and plasma physics, examining their combined application for driving controlled thermonuclear energy. The author begins by explaining the underlying scientific theory, and then goes on to explore the nuances of deployment within thermonuclear reactors. The potential for these technologies to help shape the new generation of clean energy is examined in-depth, encompassing perspectives both highlighting benefits, and warning of challenges associated with the nuclear fusion pathway. The associated computer code and numerical analysis are included in the book. No prior knowledge of plasma physics or fusion is required. Provides a basic scientific grounding in Plasma Physics, as well as in Fusion Demonstrates pathways whereby plasma-driven fusion may be superior to the current generation of fission-based reactors Examines fusion within the broader context of clean energy applications, discussing efficiency, costs and environmental impacts.
Energy. --- Nuclear energy. --- Nuclear physics. --- Thermodynamics. --- Heat engineering. --- Heat transfer. --- Mass transfer. --- Nuclear Energy. --- Engineering Thermodynamics, Heat and Mass Transfer. --- Particle and Nuclear Physics. --- Plasma (Ionized gases) --- Nuclear reactors. --- Atomic piles --- Chain reaction piles --- Reactors (Nuclear physics) --- Gaseous discharge --- Gaseous plasma --- Magnetoplasma --- Neutron transport theory --- Nuclear energy --- Nuclear engineering --- Nuclear facilities --- Nuclear physics --- Nuclear propulsion --- Ionized gases --- Engineering. --- Construction --- Industrial arts --- Technology --- Atomic nuclei --- Atoms, Nuclei of --- Nucleus of the atom --- Physics --- Mass transport (Physics) --- Thermodynamics --- Transport theory --- Heat transfer --- Thermal transfer --- Transmission of heat --- Energy transfer --- Heat --- Mechanical engineering --- Chemistry, Physical and theoretical --- Dynamics --- Mechanics --- Heat-engines --- Quantum theory --- Atomic energy --- Atomic power --- Energy, Atomic --- Energy, Nuclear --- Nuclear power --- Power, Atomic --- Power, Nuclear --- Force and energy --- Power resources --- Nuclear power plants
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