# Physics Courses

**Core Courses**

**Phy 517 Statistical Mechanics (3) **

An introduction to statistical methods and the description of a variety of phenomena on a statistical basis. Thermodynamics, statistical mechanics, and kinetic theory are presented from a unified point of view. Topics include elements of probability theory, interaction between macroscopic systems and their parameters, equilibrium, ensembles, classical and quantum statistics, systems of interacting particles, Boltzmann equation, irreversible processes, and fluctuations. Prerequisite: Phy 547 and Phy 460 or equivalent.

**Phy 527 Classical Mechanics (3)
**

The fundamental principles of classical mechanics are covered. These include the Lagrangian formulation, action, variational principles, and equations of motion, Hamilton’s principle, conserved quantities, rigid bodies, Hamiltonian formulation and canonical equations, canonical transformations and generating functions, Liouville’s theorem.

**Phy 537 Electrodynamics 1 (3) **

An in-depth survey of classical electrodynamics. Topics include: special relativity, motion of charges in electromagnetic fields, Maxwell's equations, energy and momentum in the electromagnetic field, electrostatics, the propagation and generation of electromagnetic waves. Prerequisite: Phy 350 or equivalent.

**Phy 539 Electrodynamics 2 (3)**

An in-depth survey of classical electrodynamics in material media. Topics: conductors, dielectrics, magnetostatics, superconductivity, the interaction of electromagnetic waves with matter, including reflection, diffraction, scattering, and the diffraction of x-rays by crystals. Prerequisite: Phy 537.

**Phy 547 Quantum Mechanics 1 (3)
**

This foundations of quantum mechanics course includes a review of Schroedinger's equation and proceeds to Heisenberg formalism and its properties, basic principles and structure of quantum mechanics, states, observables, measurements and their mathematical descriptions, representation and transformation theory, bound states and scattering, applications to harmonic oscillator and central potentials. Prerequisite: Phy 450 or equivalent.

**Phy 557 Quantum Mechanics 2 (3)
**

This second semester of quantum mechanics includes discussion of angular momentum, rotation, Clebsch-Gordan coefficients, Wigner-Eckart theorem, approximation methods, perturbation, variation and WKB approaches, identical particles, Thomas-Fermi model, Hartree-Fock equation, and the semiclassical theory of radiation. Prerequisite: Phy 547 or equivalent programming experience with permission of instructor.

**Phy 577 Computational Methods (3)
**

Applications of modern computational methods to current topics in physics. Basics of coding and use of standard software packages. Prerequisite Phy 527 and Phy 509, or permission of instructor.

**Phy 587 Solid State Physics 1 (3)**

A broad survey of the phenomena of solid state physics. Symmetries of crystals and diffraction from periodic structures; vibrational states and electronic band structures in crystalline metals, semiconductors, and insulators; thermal, transport and optical properties of solids. Prerequisites: Phy 517 and Phy 547.

**Electives**

**Phy 508 Mathematical Methods in Physics (3)**

Topics in theoretical and applied physics will be studied using both analytical and numerical approaches. Formal descriptions of phenomena and interpretations of results will involve a variety of classical and modern mathematical techniques. Prerequisite: Phy 507.

**Phy 509 Programming in Physics (3)**

Applications of modern computational methods to current topics in physics. Basics of coding and use of standard software packages. Prerequisites: Phy 340 and Phy 440 or equivalent.

**Phy 511 Electromagnetism II: Introduction to Electrodynamics (3)**

A further development of the theory of electromagnetic waves and their interactions with matter. Applications include both geometric and physical optics. The role of special relativity in electromagnetic theory is discussed.

**Phy 515 Electronics (3)**

Topics covered in this course include transistors and their characteristics, electronic circuits, field effect transistors and applications, amplifiers, low and high frequency response, operational amplifiers, consideration of control-circuit design, fast-switching and counting devices, integrated circuits and their designs. Two class periods and one three-hour laboratory each week. Only one version may be taken for credit. Offered fall semester only.

**Phy 516 Electronics Projects (3)
**

Hands on independent study electronics projects. Prerequisite: Phy 515 and consent of instructor.

**Phy 525 Information Physics (3)**

The basic principles of information theory and their relation to the laws of physics. Probability and entropy as tools for inductive reasoning. The Cox axioms. Bayes' theorem and its application to elementary data analysis. Relative entropy, the method of maximum entropy and the foundations of statistical mechanics and thermodynamics. Information geometry, the Fisher-Rao information metric. Derivation of quantum mechanics from information theory. Prerequisites: Graduate status or consent of the instructor.

**Phy 526 Introduction to Particle Physics (3)**

A broad survey of the phenomena of particle physics. Experimental methods. Classification of particles, quantum numbers, and interactions. External and internal symmetries. Electromagnetic, strong, and weak interactions; resonances; unitary symmetry; recent topics.

**Phy 528 The Physics of Radiation Therapy (3)**

This course will be taught at a level such that it will be accessible to ambitious undergraduate students also. The course focuses on radiation therapy physics with special emphasis on clinical applications. The course provides basic radiation physics and physical aspects of treatment planning using photon and electron beams and brachytherapy sources. The course consists of three parts: (i) Part I deals with the basic physics of radiation. (ii) Part II deals with classical radiation therapy, which includes dosimetry and treatment planning. (iii) Part III focuses on modern radiation therapy, which deals with conformal and intensity-modulated radiation therapy, stereotactic radiosurgery, high dose rate brachytherapy and prostate implants. The course will also involve lectures by Medical Physics experts from local hospitals. Students will write a report on a topic selected in consultation with the teacher. Prerequisites: Phy 340 and Phy 440 or equivalent.

**Phy 530 Optics (3)**

This course provides a broad introduction to optics, including both theory and experiment. The geometrical and wave theories of light propagation will be introduced along with their applications such as imaging systems (e.g. microscopes, and telescopes), lasers and polarization optics. The course will include 5 labs covering the material presented in lecture.

**Phy 533 Physics Measurements (3)**

This course offers theoretical and experimental aspects of measurements, data acquisition and test design in physics and engineering. It introduces students to the National Instruments LabVIEW, a graphical programming platform that allows integration of different software and hardware modules into a single project. The course will cover fundamentals of measurement (statistical error, sampling theory and so on), discuss sensor theory, and offer instruction on virtual instrumentation, such as data logging, signal processing, and graphical user interface design. The course will include several labs covering the material presented in lecture. Prerequisites: APhy 335, or permission of instructor.

**Phy 542 Introduction to General Relativity (3)**

Review of special relativity. Introduction to tensor analysis and the geometry of curved spaces. Einstein's equations. Applications to gravitational waves, black holes and expanding universes.

**Phy 543 Introduction to Cosmology (3)**

An introduction to cosmology, the study of the structure and evolution of the Universe. Topics: Newtonian cosmology, elements of general relativity (metric, geodesics, Einstein equations), Friedman equations and their solutions, dark matter, dark energy, inflation, introduction to quantum gravity.

**Phy 546 Laser Physics and Applications (3)**

This course provides a broad introduction to lasers, including theory spontaneous and simulated emission, design of optical resonators and laser beam propagation. The course will also cover the design of various types of lasers and laser applications, such as holography, microscopy and spectroscopy. Prerequisite: Phy 250

**Phy 548 Medical Imaging (3)**

This introduction to the physics of radiography includes discussions of CAT, PET, MRI, SPECT, fluoroscopy, and nuclear medicine. Image quality assessment concepts such as contrast, MTF, DQE(f), and ROC will also be covered.

**Phy 549 Introduction to Quantum Foundations and Quantum Information (3)**

Quantum theory has many mysterious features, such as entanglement and the probabilistic nature of measurements, which seem to defy understanding in terms of the mechanistic clockwork picture of reality that underlies classical physics. What do these features suggest about the nature of physical reality? For example, is there really “spooky action at a distance” in Nature, as Einstein quipped? In this course, we investigate possible answers to these questions, and form an understanding as to why these questions matter. In particular, we look at recent work which views quantum theory as a theory of information manipulation, and see that this provides extraordinary new insights into the nature of physical reality, which leads to new technological possibilities (such as quantum cryptography and entanglement-assisted computation) that harness quantum weirdness, and even helps us to derive the mathematics of quantum theory from simple physical assumptions.

**Phy 550 Quantum Physics II (3)**

Quantum motion in central potentials; angular momentum and spin; the hydrogen atom. Identical Particles. The structure of atoms and molecules, the periodic table. Stationary-state and time-dependent perturbation theory. Scattering theory. Prerequisite(s): Phy 440. Offered spring semester only.

**Phy 551 (Csi 551, Inf 551) Bayesian Data Analysis and Signal Processing (3)
**

This course will introduce both the principles and practice of Bayesian and maximum entropy methods for data analysis, signal processing, and machine learning. This is a hands-on course that will introduce MATLAB computing language for software development. Students will learn to write their own Bayesian computer programs to solve problems relevant to physics, chemistry, biology, earth science, and signal processing, as well as hypothesis testing and error analysis. Optimization techniques to be covered include gradient ascent, fixed-point methods, and Markov chain Monte Carlo sampling techniques. Prerequisites: Csi 101or Csi 201, Mat 214, or equivalents, or permission of instructor. Phy 509 or equivalent programming experience with permission of the instructor.

**Phy 552 Astroparticle Physics (3)**

An in-depth discussion of precision cosmology: dark matter, dark energy, and the Cosmic Microwave Background radiation, from experimental/technological,observational, mathematical/theoretical, phenomenological, and computational perspectives. Introduction to intragalactic and extragalactic gamma-ray/x-ray astronomy, the study of cosmic rays, and astrophysical neutrinos, as well as experimental searches for extra/higher spatial dimensions and constraints on Lorentz invariance violation via various particle astrophysics detection methods. Prerequisites: Phy 443 and 320, or permission of instructor.

**Phy 553 Microprocessor Applications (3)**

This course describes applications of microprocessors to data collection and process control. Topics include the capabilities of typical microprocessors and the techniques used to interface them to external devices, input/output programming, use of the data and address busses, interrupt handling, direct memory access, and data communications; characteristics of peripheral devices such as keyboards, printers, A/D and D/A converters, sensors, and actuators. Prerequisite(s): I Csi 201 or 204 or equivalent.

**Phy 554 Microprocessors Applications Laboratory (3)**

This course complements the theoretical development presented in A Phy 553. It centers around practical laboratory applications in both hardware and software of a particular microprocessor. Students will prototype a minimum system and expanded system. Applications include keyboard, printer, display, A/D, D/A, and control functions. A knowledge of a microprocessor and digital logic functions is desirable. Prerequisite(s): Phy 515 or permission of instructor or Phy 553.

**Phy 558 Physics of Radiation Detectors (3)**

Radiation is everywhere, and radiation detectors have multi-disciplinary applications, ranging from particle physics, nuclear engineering, physical chemistry, to medical physics. New radiation detectors are constantly developed in laboratories around the world. This course will encompass theories, methodologies and technologies in order to understand the conceptual basis of radiation devices. It will also cover the statistics, and data analysis methods and softwares used in the context of radiation detectors.

**Phy 559 Symmetry in Physics (3)**

Symmetry is a fundamental principle by which we organize our knowledge of the physical world. Symmetry expresses not only visible regularities, such as the periodic structure of crystals and fractal structure of snowflakes, but also regularities that underpin the laws of classical and quantum physics. In this course, we investigate physical symmetries using two powerful mathematical tools-group theory (and their matrix representations) and the theory of functional equations. Specific topics include the connection between symmetry and conservation laws in classical and quantum mechanics; the origin of spin; atomic selection rules and the rules for identical particles in quantum mechanics; scaling laws in dynamical systems (which underlie fractal structures such as the Mandelbrot set); the harnessing of symmetry to systematically derive probability theory, information theory and quantum theory; and applications of symmetry methods in other disciplines such as mathematics and economics. Prerequisites: Phy 235 and Phy 440, or permission of instructor.

**Phy 562 Structure and Properties of Materials (3)**

The physics of real materials: the structure of crystalline and amorphous solids; x-ray diffraction and electron microscopy; the thermodynamics and kinetics of phase transformations; crystallographic defects and their relation to mechanical properties. Offered spring semester only. Prerequisite: Phy 517 and Phy 587 or permission of instructor.

**Phy 566 X-Ray optics, Analysis and Imaging (3)**

A broad survey of x-ray optics and their uses. Introduction to the theory of x-ray interaction with matter, including refraction, diffraction, total reflection, image formation, fluorescence, absorption, and surface roughness. Applications include x-ray astronomy, microscopy, lithography, materials analysis and medical imaging. A paper and presentation are required. Prerequisite Phy 587 or permission of instructor.

**Phy 568 Particle Physics (3)
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Particle interactions and symmetries. Introduction to classification and the quark model. Calculation of elementary processes using Feynman diagrams. Prerequisite: Phy 547.

**Phy 580 Electron Diffraction and Microscopy (3)**

Topics covered which are related to electron diffraction and microscopy include the kinematic theory of electron diffraction, reciprocal lattices and fine structure of diffraction patterns, electron guns and electron lenses, the operation and calibration of electron microscopes, the dynamical theory of diffraction contrast, images of various defects in solids, analysis of dislocations and interfaces, many-beam effects and weak-beam images, phase contrast, lattice images and multislice method, sample preparation and analytical electron microscopy techniques. The course includes hands-on electron microscope experiments. Prerequisite Phy 587.

**Phy 588 Solid State Physics II (3)**

A broad survey of the phenomena of solid state physics (continuation of Solid State Physics I). Superconductivity; magnetic and dielectric properties of materials; spectroscopy with photons and electrons; point and line defects; surfaces and interfaces; alloys; noncrystalline solids. Prerequisite: Phy 587.

**Phy 620 Quantum Field Theory (3)**

Lorentz and Poincare symmetries. Noether's theorem. Classical and quantum free fields: scalar, Weyl, Dirac and electromagnetic fields. Interacting fields: perturbation theory, Feynman diagrams. Renormalization. Decay rates and cross sections. Path integrals. Quantum electrodynamics. Non-Abelian gauge theories: Quantum Chromodynamics and the Weinberg-Salam-Glashow model.

**Phy 632 Spectroscopy: Magnetic Resonance (3)
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This course will develop a foundation for the understanding of modern magnetic resonance spectroscopy including both NMR and EPR. Topics will include, quantum mechanics of spins, and the density matrix, Fourier transform experiments, spin relaxation, double resonance, field gradients and imaging, two-dimensional experiments, multiple quantum coherence, protein structure and dynamics, solid state NMR and magic angle spinning. Prerequisite: Phy 557.

**Research, Seminar and Special Topics Courses**

**Phy 680 Seminar in Physics (1) **

Faculty led seminars in ongoing physics research. Emphasis is placed developing skills to explain and discuss current research.

**Phy 695 Introduction to Research Problems in Physics (1-12)
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Individually directed investigation into areas of current research interest in the department. Prerequisite: Consent of faculty member who will act as supervisor for the investigation.

**Phy 699 Master's Thesis in Physics (1-12)
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Up to 6 credits can be used for graduation.

**Phy 782 Advanced Topics in Physics (3) **

Selected topics in physics.

**Phy 784 Special Topics in Physics (1)**

Selected coverage of specialized topics.

**Phy 810 Research in Physics (1-15)
Phy 899 Doctoral Dissertation (1) **

Load graded. Appropriate for doctoral students engaged in research and writing of the dissertation. Prerequisite: Admission to doctoral candidacy.