| source University of Illinois at Urbana-Champaign (X) |
level |
department Nuclear, Plasma, and Radiological Engineering (X) |
Introduces freshmen to nuclear, plasma, and radiological engineering. Several demonstrations of nuclear phenomena are presented and discussed (reactor operation, plasma behavior, and others). Experiments are conducted on radioactive decay and radiation shielding with one formal laboratory report and a student project.
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Explains energy technologies using an elementary approach which pre-supposes no prior scientific or technical background. Examines all energy sources including fossil fueled, solar, hydro, and nuclear power. Demonstrations and a tour of the University's power plant are integral parts of the course. Energy related incidents are discussed, including their environmental, economic, and social impact. Same as
Score: 11.0837965 Details | Listing | Web page
May be repeated in separate terms to a maximum of 2 times.
Score: 11.0837965 Details | Listing | Web page
Examines patterns of energy production and utilization and discusses the technical aspects of renewable energy resources, advanced fossil fuel systems, and advanced nuclear systems. Same as
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Introduction to elements of radiation protection and health physics, emphasizing practical applications. Same as
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Applications of elementary nuclear physics in nuclear engineering. Nuclear reactor materials and components. Steady-state and transient operation of nuclear reactors. Nuclear energy removal and conversion. Radiation shielding. Prerequisite:
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Individual investigations or studies of any phase of nuclear engineering selected by the student and approved by the department. May be repeated. Prerequisite: Consent of instructor.
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Subject offerings of new and developing areas of knowledge in nuclear, plasma, and radiological engineering intended to augment the existing curriculum. See Class Schedule or departmental course information for topics and prerequisites. May be repeated in the same or separate terms if topics vary.
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Principles of utilization of fission energy in nuclear power engineering; includes such topics as fission processes and controlled chain reactions; nuclear reactor types, design principles, and operational characteristics; power reactor design criteria; radiation hazards and radioactive waste treatment; economics; other applications such as propulsion and research reactors. Students who plan to pursue more extensive training in nuclear technology are advised to take the
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Quantitative analysis of the impact of the nuclear power industry; nuclear fuel cycle and capital costs for thermal and fast reactors; optimization of the use of nuclear fuels to provide the lowest energy costs and highest system performance; comparison between fossil fuel systems, fission systems, and controlled thermonuclear fusion systems. 3 undergraduate hours. 4 graduate hours. Junior standing is required. Prerequisite:
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Introduction to the physics of plasmas, including particle and fluid descriptions, waves, collisions, stability, and confinement, with applications to controlled thermonuclear fusion rectors, problems in fusion engineering, and astrophysics. Same as
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Laboratory experiments relating to plasma engineering and fusion energy will be conducted in small groups. Topics in ultra-high vacuum technology rf and dc electric plasma probes, measurements of dc and pulsed magnetic fields, dynamics of a theta pinch, and laser interferometry to measure plasma density, may all be included. Prerequisite:
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Basic principles and examples for adapting and applying the plasma state to solve a number of modern engineering problems. These include the plasma processing of materials for microelectronics and other uses, lighting, plasma displays, and other technologies. Prerequisite:
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Develops a materials engineering background in the context of nuclear systems and radiation applications; relates structure of materials to their physical and mechanical properties; develops phase formation and reaction kinetics from basic thermodynamics principles; develops an understanding of charged particle interactions with surfaces; develops transport concepts of neutral and charged particles in matter; discusses materials performance in nuclear and radiation applications, including radiation damage and effects. Credit is not given for both
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Laboratory experiments relating to materials applications in nuclear engineering and energy systems will be conducted in small groups. Topics in room and elevated temperature mechanical properties of structural materials, corrosion, physical properties, radiation damage and effects, and materials selection in design will be included. Prerequisite: Credit or concurrent registration in
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Techniques used to generate ionizing radiation useful in the imaging of solids and medical imaging. Theory and applications of biological and medical imaging modalities that use ionizing radiation: X-ray diagnostic methods such as plain film and digital, computer axial tomography (CAT); radionuclide imaging techniques such as positron emission tomography (PET), single photon emission computed tomography (SPECT), and gamma cameras. Theory and applications of materials imaging, including x-ray, electron, and neutron diffraction, in addition to small angle neutron and x-ray scattering (SANS SAXS). Prerequisite:
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Sources of nuclear radiation; ionization and energy deposition in matter with an emphasis on biological systems; principles of dosimetry; determination of exposure and limits for internal and external emitters; basic shielding calculations. Prerequisite:
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Sources and characteristics of radioactive wastes; methods of treatment; monitoring techniques; methods of hazard evaluation; special aspects of solid, liquid, and gaseous wastes; disposal, both temporary and permanent. Prerequisite:
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Nuclear analytical methods and techniques are covered in-depth in experiments in small groups. Emphasis is placed on neutron activation analysis, energy dispersive x-ray fluorescence and particle spectroscopy. Use of radiation for medical and materials imaging is covered. Credit of 2 hours is given if
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Experimental and theoretical foundations of interaction of neutrons, photons, and charged particles with matter. Emphasis on topics that underlie the following applications: radiation detection, biological effects and radiation dosimetry, radiation damage and nuclear materials, neutron activation analysis, and fission and fusion energy systems. Classical theory of charged particle cross sections. Introductory quantum mechanics. Exact and numerical solutions of the Schroedinger equation. Quantum theory of cross sections. Photon interactions with atomic electrons and nuclei. Radioactive-series decay. Computer assignments illustrate fundamental concepts. Not available for graduate credit to nuclear engineering majors. Prerequisite:
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Continuation of
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Engineering principles that underlie nuclear systems designed with emphasis on nuclear power reactors. Materials for nuclear systems. Energy generation and removal in single- and two-phase flows. Reactor and component control systems and nuclear fuel reloading patterns. Prerequisite:
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Radiation detection and instrumentation; radiation dosimetry and shielding; basic measurements in nuclear engineering; engineering applications; micro computer data acquisition and experimental control. Prerequisite:
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Laboratory experiments relating to nuclear reactor physics and fission reactor operations, conducted in small groups, including: reactor instrumentation, flux and power measurements, start-up procedures, reactivity worth measures, reactor period, control rod calibration experiments, and measurements in subcritical, critical and supercritical systems. Prerequisite:
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Neutron migration, neutron slowing down and thermalization; neutron continuity equation, multigroup diffusion theory, homogeneous and heterogeneous medium, thermal and fast assemblies; numerical methods for multigroup diffusion equations; reactor dynamics, perturbation theory, reactivity coefficients; introductory transport theory. Prerequisite:
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