Physics

Jul
20

PHYS 397B – Special Studies:Research

Prerequisites/Corequisites: Credit Hours: Min: 2; Max: Description:

By Breanna Lisenby |
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Jul
20

PHYS 314L – Modern Physics Lab

Prerequisites/Corequisites: Take PHYS-314. (Required, Concurrent). Credit Hours: Min: ; Max: Description:

By Breanna Lisenby |
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Jul
20

PHYS 312L – Lasers & Optics Lab

Prerequisites/Corequisites: Take PHYS-312. (Required, Concurrent). Credit Hours: Min: ; Max: Description:

By Breanna Lisenby |
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Jul
20

PHYS 314 – Modern Physics

Prerequisites/Corequisites: Take PHYS-202 MATH-202. (Required, Previous). | Take PHYS-314L. (Required, Concurrent). Credit Hours: Min: 4; Max: Description: Introduction to relativity and the quantum theory including their historical background, the experimental basis of these theories, and applications to atomic and molecular structure.

By Breanna Lisenby |
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Jul
20

PHYS 302 – Electricity & Magnetism

Prerequisites/Corequisites: Take PHYS-202 PHYS-220 MATH-202. (Required, Previous). Credit Hours: Min: 3; Max: Description: Introduction to classical electromagnetic theory. The differential form of Maxwell’s equations will be developed and applied to various problems in electrostatics, magnetostatics, electromagnetic fields, and waves. Particular emphasis will be placed on radiation fields with applications to optics. Electric and magnetic properties […]

By Breanna Lisenby |
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Jul
20

PHYS 216 – General Physics II

Prerequisites/Corequisites: Take PHYS-215. (Required, Previous). | Take PHYS-216L. (Required, Concurrent). Credit Hours: Min: 4; Max: Description: Algebra-based introduction to electricity, magnetism, and optics. Topics include electrical forces, electric fields, direct and alternating current circuits, magnetic forces, magnetic fields, electromagnetic induction, reflection, refraction, diffraction, interference, mirrors, and lenses. Examples from medicine and biology will be included […]

By Breanna Lisenby |
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Jul
20

PHYS 216L – General Physics II Laboratory

Prerequisites/Corequisites: Take PHYS-216. (Required, Concurrent). Credit Hours: Min: ; Max: Description:

By Breanna Lisenby |
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Jul
20

PHYS 301L – General Physics II Laboratory

Prerequisites/Corequisites: Credit Hours: Min: ; Max: Description:

By Breanna Lisenby |
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Jul
20

PHYS 210 – Intro to Radiation Protection

Prerequisites/Corequisites: Take PHYS-200. (Required, Previous). Credit Hours: Min: 1; Max: Description: This course will introduce the fundamental principles involved in radiation protection including time, distance, and shielding; activity; radioactive decay; nuclear instrumentation; and the measurement of and units for radiation quantities. Students will also undergo radiation safety training required for future radiation work in the […]

By Breanna Lisenby |
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Jul
20

PHYS 497 – Special Studies:Research

Prerequisites/Corequisites: Credit Hours: Min: 1; Max: 3 Description: Open only to juniors or seniors with a grade point average of 3.0 or higher in their major courses. A maximum of three semester hours may be earned. Academic Committee approval required for each seminar and practicum. All individual research projects are reviewed by three faculty members […]

By Breanna Lisenby |
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Jul
20

PHYS 416 – Nuclear Radiation Physics

Prerequisites/Corequisites: Take PHYS-310 PHYS-316. (Required, Previous). | Take PHYS-416L. (Required, Concurrent). Credit Hours: Min: 4; Max: Description: Topics to be covered include the interaction of radiation with matter, gas and scintillation counters, semiconductor detectors; counting statistics, special electronic circuits, and the literature of radiation detection.

By Breanna Lisenby |
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Jul
20

PHYS 418 – Practical Applications Health Phys

Prerequisites/Corequisites: Take PHYS-417. (Required, Previous). Credit Hours: Min: 3; Max: Description: Advanced topics will be presented, and the implementation of these principles to real-world applications will be discussed. Emphasis on practical applications of radiological protection principles including design of a radiation safety program, special considerations for various radiation-generating facilities, current trends in waste management, response […]

By Breanna Lisenby |
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