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Path Catalog
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共 7800 条 Path · 第 214 / 780 页
This learning path guides undergraduate engineering students through the fundamental mechanisms by which radiation interacts with materials, from atomic displacement to macroscopic property changes. It covers crystallography and radiation physics prerequisites, then explores displacement cascades, point defects, and their consequences such as swelling, embrittlement, and void formation.
This learning path equips undergraduate engineering students with the knowledge to analyze materials used in nuclear reactor environments. It covers fundamental materials science concepts, radiation effects, and the selection and behavior of specific reactor materials such as Zircaloy, stainless steel, control rod materials, moderators, and coolants.
This path guides undergraduate engineering students through the fundamentals of nuclear waste classification, management strategies, and disposal methods. Starting with the nuclear fuel cycle, it covers waste types, treatment technologies, and geological disposal, culminating in advanced topics like transmutation.
This learning path provides a systematic overview of the nuclear fuel cycle, from uranium mining to waste disposal. It covers the physical and chemical principles, key processes, and the engineering and policy considerations relevant to each stage, including the front end, service period, and back end. Designed for undergraduate engineering students with a foundation in basic chemistry and materials science.
This learning path guides undergraduate engineering students through the fundamental principles of nuclear reactor physics and the classification of major reactor types. It covers thermal and fast reactors, including PWR, BWR, CANDU, RBMK, gas-cooled, and fast reactors, as well as small modular reactors (SMRs).
This learning path guides undergraduate engineering students through the fundamental principles of reactor kinetics and control. It covers point kinetics, reactivity feedback, control rods, poison control, and startup/shutdown procedures, building from basic reactor theory to practical control applications.
This learning path introduces the fundamental principles of nuclear reactor physics, focusing on the concepts of criticality, the multiplication factor, the neutron life cycle, delayed neutrons, and reactivity. Designed for undergraduate engineering students, the path builds from basic nuclear physics and neutron interactions to the analysis of reactor behavior and control.
This learning path guides undergraduate engineering students through the fundamental physics of neutron behavior and moderation in nuclear reactors. Starting with basic nuclear physics and neutron interactions, it progresses through scattering, absorption, and neutron flux, culminating in an understanding of reactor moderation principles.
A beginner-friendly path covering the basic physics and key concepts of nuclear fusion, including fusion reactions, conditions for fusion, plasma behavior, the Lawson criterion, and magnetic confinement in tokamaks.
This learning path introduces high school students with basic physics to the fundamental process of nuclear fission. Starting from atomic structure and nuclear binding energy, it covers neutron capture, fission fragments, energy release, and the conditions for chain reactions, including the distinction between fissile and fissionable materials.