PHY - Physics
An exploration of physical concepts; their social and philosophical implications; and the utility and limitations of physics for solution of problems in the modern world. The mathematical level will be that of beginning high school algebra. Not intended for potential science majors. This course may be offered in an online or hybrid format. (University Program Group II-B: Quantitative and Mathematical Sciences)
Credits
3(3-0)
Prerequisites
None
Corequisites
None.
Laboratory experience for students in
PHY 100, PHY 110, or
PHS 101. Hands-on group laboratory to investigate basic concepts in introductory physics. Satisfies University Program Group II laboratory requirement. Pre/Co-requisite:
PHY 100 or 110 or
PHS 101. (University Program Group II-B: Quantitative and Mathematical Sciences)
Credits
1(0-2)
Prerequisites
None
Corequisites
None.
Mechanics, heat, kinetic theory, and sound. The mathematics used is algebra and trigonometry. The sequences PHY 130-131, PHY 170-171 satisfy minimum requirements for medical and dental schools. Quantitative Reasoning. Recommended: A high school math background that includes a good foundation in algebra and trigonometry, or MTH 109. (University Program Group II-B: Quantitative and Mathematical Sciences)
Credits
4(4-0)
Prerequisites
None
Corequisites
None.
A continuation of PHY 130 that covers the topics of electricity, magnetism, optics and modern physics. Prerequisite: PHY 130.
Credits
4(4-0)
Prerequisites
PHY 130
Corequisites
None.
Normally the first physics course for majors and minors. Mechanics of single and many-particle systems, conservation laws, statistical concepts, and gravitational interaction. Quantitative Reasoning. Pre/Co-requisite: MTH 132.
Credits
4(4-0)
Prerequisites
None
Corequisites
None.
Temperature and thermodynamics, electromagnetic interaction, electrical circuits, electromagnetic radiation, and optics. Not open to those with credit in
PHY 131. Prerequisite: PHY 145. Pre/Co-requisite:
MTH 133.
Credits
4(4-0)
Prerequisites
PHY 145
Corequisites
None.
Laboratory experience for PHY 130. Introduction to experimental techniques and the treatment of experimental data via error analysis, graphing, and fitting data to model functions. Satisfies University Program Group II laboratory requirement. Pre/Co-requisite: PHY 130. (University Program Group II-B: Quantitative and Mathematical Sciences)
Credits
1(0-2)
Laboratory experience for PHY131. Introduction to techniques and instrumentation for thermodynamic, electrical, magnetic, optical, and nuclear radiation measurements. Prerequisite: PHY 170. Pre/Co-Requisite: PHY 131.
Credits
1(0-2)
Prerequisites
PHY 170
Corequisites
None.
Laboratory experience for PHY 145. Introduction to experimental techniques and the treatment of experimental data via error analysis, graphing, least squares fitting, and computational simulations. Satisfies University Program Group II laboratory requirement. Pre/Co-requisite: PHY 145. (University Program Group II-B: Quantitative and Mathematical Sciences)
Credits
1(0-2)
Laboratory experience for PHY 146. Introduction to techniques and instrumentation for thermodynamic, electrical, magnetic, optical, and nuclear radiation measurements. Prerequisite: PHY 175. Pre/Co-requisite: PHY 146.
Credits
1(0-2)
Prerequisites
PHY 175
Corequisites
None.
Special topics not included in standard courses in physics. Course may be taken for credit more than once; total credit not to exceed six hours.
Credits
1-6(Spec)
Introduction to elementary probabilistic concepts by exploring ancient and modern games as they relate to decision making. Simple computations will aid the experimental component. Identical to MTH 212QR and STA 212QR. Credit may not be earned in more than one of these courses. Quantitative Reasoning. Prerequisites: MTH 105 or 107 or 109 or 113 or 130 or 132 or 133. (University Program Group II-B: Quantitative and Mathematical Sciences)
Credits
3(2-2)
Prerequisites
MTH 105 or MTH 107 or MTH 109 or MTH 113 or MTH 130 or MTH 132 or MTH 133(University Program Group II-B: Quantitative and Mathematical Sciences)
Corequisites
None.
Cross Listed Courses
STA 212QR, MTH 212QR
Introduction to special relativity, atomic structure, and elementary quantum theory; selected topics from major physics fields: Nuclear Physics, Atomic Physics, Solid State Physics, Particle Physics. Quantitative Reasoning. Prerequisites: PHY 146 or PHY 131; MTH 132. Recommended: MTH 133, PHY 277, CPS 190.
Credits
4(4-0)
Prerequisites
PHY 146 or PHY 131; MTH 132
Corequisites
None.
Modern physics experiments covering topics in quantum physics and relativity. Introduction to the techniques of electron and photon physics, and computational tools for data analysis. Pre/Co-requisite: PHY 247 and CPS 190.
Credits
2(1-3)
Prerequisites
None.
Corequisites
None.
Special topics not included in standard courses in physics. Course may be taken for credit more than once; total credit not to exceed six hours. Prerequisites: PHY 145, 175.
Credits
1-6(Spec)
Laboratory experience using basic computational tools and techniques that are important in modern physics research. The course expands on physics concepts through numerical experimentation. Prerequisite: PHY 145. Pre/Co-requisite:
MTH 133. Recommended:
MTH 223.
Credits
1(0-2)
Prerequisites
PHY 145
Corequisites
None.
Introduction to mathematical concepts and techniques required to understand classical mechanics, electromagnetism, and quantum mechanics. Pre/Co-Requisites:
PHY 247QR;
MTH 233, 334.
Credits
3(3-0)
Prerequisites
None
Corequisites
None.
Newtonian mechanics of particles and systems of particles: conservation theorems, gravitation, oscillations, central force motion, Lagrangian and Hamiltonian dynamics, and two-particle collisions. Pre/Co- requisites: PHY 247; MTH 233; MTH 334 or MTH 232.
Credits
3(3-0)
Electrostatic fields in vacuum and in dielectrics, magnetic fields associated with constant and variable currents, magnetic materials, Maxwell's equations. Prerequisite: PHY 247;
MTH 233, 334.
Credits
3(3-0)
Prerequisites
PHY 247; MTH 233, MTH 334
Corequisites
None.
Special topics not included in standard courses in physics. Course may be taken for credit more than once; total credit not to exceed six hours. Prerequisites: PHY 247QR.
Credits
1-6(Spec)
Introduction to quantum theory, Schrödinger equation, operators, angular momentum, harmonic oscillator, atomic hydrogen, perturbation theory, identical particles, radiation. Some applications will be considered. Prerequisites:
PHY 312, 322, 332.
Credits
4(4-0)
Prerequisites
PHY 312, PHY 322, PHY 332
Corequisites
None.
Introduction to equilibrium thermodynamics and elementary statistical mechanics. Prerequisite:
PHY 312,
PHY 322.
Credits
3(3-0)
Prerequisites
PHY 312, PHY 322
Corequisites
None.
Special topics not included in standard courses in physics. Course may be taken for credit more than once; total credit not to exceed six hours. Prerequisite:
PHY 332.
Credits
1-6(Spec)
Individual study in an area not covered by regular courses. May be taken for credit more than once; total credit not to exceed six hours. Prerequisite:
PHY 332 and permission of instructor.
Credits
1-6(Spec)
Prerequisites
PHY 332 and permission of instructor
Corequisites
None.
Capstone experience for physics majors. Students enroll during their penultimate semester on campus. Writing Intensive. Prerequisites: PHY 312, 322, 332, 578. Prior permission of instructor.
Credits
3(Spec)
Prerequisites
PHY 312, PHY 322, PHY 332, PHY 578. Prior permission of instructor
Corequisites
None.
Career planning and job application skills for students in physics, astronomy, or a closely related area. Prerequisite: Completion of at least 20 credit hours of coursework in the physical sciences or mathematics, or admission to the PHY M.S. program.
Credits
1(0-2)
Prerequisites
Completion of at least 20 credit hours of coursework in the physical sciences or mathematics, or admission to the PHY MSprogram
Corequisites
None.
This course exposes pre-service secondary chemistry and physics teachers to theory and practice of teaching in secondary schools, design of instructional units, and safety practices. Must be completed prior to student teaching. Identical to CHM 505. Credit may not be earned in more than one of these courses. Prerequisites: CHM 132; PHY 131 or PHY 146; admission into the Teacher Education Program; signed major or minor in chemistry or physics (secondary education); Junior or Senior standing. Graduate students must be enrolled in a teaching master’s program.
Credits
3(3-0)
Prerequisites
CHM 132; PHY 131 or 146; admission into the Teacher Education Program; signed major or minor in chemistry or physics (secondary education); Junior or Senior standingGraduate students must be enrolled in a teaching master’s program
Corequisites
None.
Cross Listed Courses
CHM 505
Supervised experience in high school chemistry and/or physics classes. Identical to
CHM 507. Credit may not be earned in more than one of these courses. CR/NC only. Prerequisites: admission into the Teacher Education Program; Junior or Senior standing. Graduate students must be enrolled in a teaching master’s program. Pre/Co-requisite:
CHM 505 or
PHY 505.
Credits
1(Spec)
Prerequisites
Admission into the Teacher Education Program; Junior or Senior standingGraduate students must be enrolled in a teaching master’s program
Corequisites
None.
Cross Listed Courses
CHM 507
This course introduces the fundamental concepts of quantum information technology and quantum computing. Prerequisites: PHY 247 and junior standing or higher; or graduate standing in Physics.
Credits
2(2-0)
Prerequisites
PHY 247 and junior standing or higher; or graduate standing in Physics.
Corequisites
None.
Introduction to standard numerical techniques applied to problems in physics, including numerical differentiation and integration, systems of differential equations, eigenvalues and eigenvectors, and Monte-Carlo simulations. Prerequisites: MTH 233; or graduate standing. Pre/Co- requisites: PHY 322, MTH 334 or MTH 232; or graduate standing. Recommended: Basic knowledge of a programming language such as FORTRAN, Java, C, Python, or others.
Credits
3(2-2)
Radioactive transformations, detection of radiation, methods of producing high-speed particles, nuclear structure, fission, cosmic radiation and applications of radioactivity. Prerequisite:
PHY 442 or graduate standing in Physics.
Credits
3(3-0)
Prerequisites
PHY 442 or graduate standing in Physics
Corequisites
None.
Geometrical and physical optics, electromagnetic theory of light, interference and diffraction from standpoint of Huygens' principle, Fourier formalism, polarized light, principles and applications of lasers. Prerequisites:
PHY 332.
Credits
3(3-0)
Prerequisites
PHY 332
Corequisites
None.
Vibrational and electronic properties of crystalline materials as well as more specialized selected topics such as magnetism, optical, and transport properties. Prerequisites:
PHY 442 or graduate standing in Physics. Pre/Co-requisites:
PHY 450 or graduate standing in Physics.
Credits
3(3-0)
Prerequisites
PHY 442 or graduate standing in Physics
Corequisites
None.
Selected experiments utilizing the techniques of modern experimental physics. Writing Intensive. Prerequisites: PHY 277, PHY 322 or graduate standing in Physics. Pre/Co-requisites: PHY 332 or graduate standing in Physics.
Credits
3(1-5)
Prerequisites
PHY 277, PHY 322 or graduate standing in Physics
Corequisites
None.
Special topics not included in standard courses in physics. Course may be taken more than once; total credit not to exceed six hours. Prerequisite:
PHY 442 or graduate standing.
Credits
1-9(Spec)
Directed research supervised by a Physics faculty member. Prerequisite: PHY 332 or graduate student standing and permission of advisor.
Credits
1-9(Spec)
Prerequisites
PHY 332 or graduate student standing and permission of advisor.
Corequisites
None.