This is often the first physics class someone will take when they begin the physics major at UVA. It is a calculus based introduction that covers the following topics: kinematics, mechanics, fluid dynamics, thermodynamics, and simple harmonic motion. This class is a 3 credit course (3 credit lecture).

The standard text is Physics for Scientists and Engineers, Giancoli, 4th edtion

You can expect to cover chapters 1-21

Prerequisite: Calculus 1 (MATH 1310)
Corequisite: Calculus 2 (MATH 1320)

This is the second semester of introductory topics in physics and covers the following topics: gravitation, electricity & magnetism, and optics. Like PHYS 1420 this course is 3 credits.

The text is the same as PHYS 1420 and you can expect to cover chapters 21-35.

Here is a copy of the syllabus from when Prof. Basseler taught the course syllabus

Prerequisites: Calculus 1 (MATH 1310) and 2 (MATH 1320), Introductory Physics I (PHYS 1420) or Introductory Physics I for Engineers (PHYS 1425), and Calculus 3 (MATH 2310) is a corequisite.

We have a whole page dedicated to this course already.

Check it out here

This course provides an introduction to the Python programming language with applications to common problems in the science and engineering fields. It emphasizes three core skills: analyzing data, simulating data, and visualizing data. No previous programming or computer experience is required.

There is no specific text for this course but many resources including lecture notes will be given.

Prerequisite: One semester of calculus (MATH 1310)

This class in an introduction into the more modern fields of 20th century physics. The course covers topics such as special relativity, quantum mechanics, nuclear & atomic physics, and particle physics & cosmology.

The standard text is Modern Physics, Krane

Prerequisites: Intro Phys 2 for Engineers (PHYS 2415) or Intro Phys 2 (PHYS 2410),and Calculus 3 (MATH 2310)

This is an introductory lab course where students first become familiar with running experiments related to the topics covered in PHYS 1420 and similar its analogues. The course focuses on quantification, computation, and data analysis with selected experiments in mechanics.

One lecture hour

Corequisite: Intro Physics 1 (PHYS 1420 or 1425).

This is the second semester of the introductory lab sequence for physics majors continuing with experiments in electricity & magnetism, and optics.

Prerequisite: Intro Physics 1 Workshop (PHYS 1429)
Corequisite: PHYS 2410 or 2415

This is usually the first of the core classes that physics majors take and entails a more in-depth and advanced investigation of classical physics. The course begins with an overview of topics covered in PHYS 1710 (kinematics, momentum, and energy) but now with the knowledge of multivariable calculus, differential equations, and linear algebra. Then students are introduced into Lagrangian formalism and the calculus of variations, followed by orbits, rotational motion of rigid bodies, and coupled spring problems.

The standard text is Taylor Classical Mechanics

You will cover chapters 1-11

Prerequisite: Differential Equations (MATH 3250), and Intro Phys 2 (PHYS 2410)

This course entails a more thorough and extensive investigation into electrostatics, magnetostatics, and electrodynamics. You will cover a treatment of electromagnetic phenomena with the use of vector calculus, including Maxwell's equations.

The standard text is Introduction to Electrodynamics, by Griffiths

You can expect to cover chapters 1-7

Prerequisite: Mathematics for Physics (PHYS 3340), and Intro Physics 2 (PHYS 2410) or Intro Phys 2 for Engineers (PHYS 2415).

Continuing where you left off in E&M 1, you will cover topics such as; electomagnetic waves, gauge theory, electromagnetic radation, and relativistic electrodynamics. The integrals in this course are a lot of "fun."

The text is the same as E&M 1 and you will cover chapters 8-12

Prerequisite: E&M 1 (PHYS 3420)

This course is an introduction in statisical mechanics that begins with an overview of the laws of thermodynamics and treatment of kinetic theory, then introduces the theory and applications of Boltzmann, Bose-Einstein, and Fermi-Dirac statistics.

The standard text is Introduction to Thermal Physics, Schroder

You can expect to cover chapters 1-8 Prerequisite: Differential Equations (MATH 3250) and Modern Physics (PHYS 2620).

This course is an introduction to the laws of Quantum Mechanics and focuses on introducing students to wave mechanics, Dirac notion, and solving the schrodinger equation for various potentials.

The standard text is Introduction to Quantum Mechanics, by Griffiths

You can expect to cover chapters 1-4

Prerequisite: Differential Equations (MATH 3250), Modern Physics (PHYS 2620): Corequisite: Classical Mechanics (PHYS 3210)

The second half of Quantum Mechanics focuses less on the formalism, and more on the applications of quantum mechanics to modern problems. Depending on the instructor you might use a different textbook and learn different material, but you should certainly learn perturbation theory.

There isn't a standard text but I would expect them to use Griffiths, but it depends on who your instructor is.

Prerequisite: Quantum Mechanics 1 (PHYS 3650).

This course is designed to teach students on how to run more complicated and modern experiments that are based on quantum mechanics, solid state physics, and optics. Students will also learn on how to write extensive and thorough lab reports that require reading peer reviwed literature. Students will be paired up in partners and will choose 5 experiments to do that take about 2.5 weeks each. You will write a lab report for 4 of them and will then present the last one for a presentation grade.

Like most labs, you can expect a lot of work outside of class.

Prerequisite: Intro Physics 2 Workshop (PHYS 2419).

All physics students seeking the bachelors of science must take PHYS 3995 under the guidance of a professor. This usually includes doing a small project over the course of the semester and then writing a small summary at the end that will be turned into the department. For more information check out the research page here

Applications of physical principles to a diverse set of phenomena: order of magnitude estimates, dimensional analysis, material science and engineering, astrophysics, aeronautics and space flight, communications technology, meteorology, sound & acoustics and fluid dynamics. Not all topics will be covered in every course.

No standard text

Prerequisite: Modern Physics (PHYS 2620)

The course begins by covering the fundamentals of analog and digital electronics, including the use of transistors, FET's, operational amplifiers, TTL, and CMOS integrated circuits. Following this students conduct projects with modern microcontroller boards (Arduino and Raspberry Pi) using the concepts and the experience gained from the prior fundamentals. Six laboratory hours

Prerequisite: Intro Physics 2 for Engineers (PHYS 2419)

This course introduces topics such as reflection and refraction at interfaces, geometrical optics, interference phenomena, diffraction, Gaussian optics, and polarization. For students who do not want to take E&M 2 they can take this course instead and still be awarded the Bachelors of Science.

Standard text is Optics by Klien & Furtak

Prerequisite: Intro Physics 2 (PHYS 2410 or 2415) or an equivalent college-level electromagnetism course; knowledge of vector calculus and previous exposure to Maxwell's equations.

In this course you will study various phenomena in condensed matter physics, including crystallography, basic group theory, x-ray and neutron diffraction, lattice vibrations, electrons in a metal, electronic band theory, electrons under an external magnetic field, semiconductors, magnetism and superconductivity. Not only the topics but also the theoretical and experimental techniques that are covered in this course are essential for PhD students as well as advanced Undergraduate students in Physics, Chemistry, Chemical Engineering, and Materials Science and Engineering to excel in their research career.

Standard text is TBD

Prerequisite: Quantum Mechanics I (PHYS 3650) or an equivalent course

Review of computational methods for differentiation, integration, interpolation, finding zeroes, extrema, etc. proceeding to a concentration on numerical solutions of differential equations, basic spectral analysis, numerical methods for matrices and Monte Carlo simulation applied to problems in classical and modern physics.

Prerequisite: PHYS 2660; pre or corequisite: Clssical Mechanics (PHYS 3210) and Quantum Mechanics (PHYS 3650)

Students will study subatomic structure, basic constituents, and their mutual interactions.

The standard text is Griffiths Intro to Particle

You can expect to cover chapters 1-4, 6, and 7

Application of basic physics principles to functions of the human body: biomechanics, metabolism, cardiovascular, cognitive & respiratory systems, and the senses. Medical diagnosis and therapy technologies (e.g., PET, MRI, CT) are discussed.

No textbook for this class so its important that you go to class and take good notes.

Prerequisite: a semester of calculus and Principles of Physics 1 (PHYS 2010) or Intro Physics 1 for Engineers (PHYS 1425) or Intro Physics 1 (PHYS 1420).
Corequisite: Principles of Physics 2 (PHYS 2020) or Intro Physics 2 for Engineers (PHYS 2415) or Intro Physics 2 (PHYS 2410)

Basic physics principles involved in energy production, distribution and storage: engines, generators, photosynthesis, fossil fuels, solar energy, photovoltaics, thermoelectrics, geothermal, wind & hydro power, fuel cells, batteries, nuclear energy, and the power grid.

No textbook for this class so make sure you take good notes.

Prequiste: Modern Physics (PHYS 2620). PHYS 3110 is not a prerequsite.

Applications of nuclear physics and nuclear energy: Introduction to nuclear physics, radioactivity, radiation standards and units,interaction of radiation with matter, accelerators, x-ray generators, detectors, biological effects, nuclear medicine, nuclear fission and reactors, nuclear fusion.

The standard text is Nuclear Physics, Principles and Applications by Jhon Lilley.

Prerequisite: Modern Physics (PHYS 2620)

This course introduces a modern topic in theoretical high energy physics to an advanced undergraduate / beginner graduate student audience. Among the directions which are being explored are the physics of extra dimensions, and a unified treatment of gravity and electromagnetism in the context of string theory

The standard text is A First Course in String Theory by Barton Zwiebach

You can expect to cover chapters 1-14

Prerequisite: Classical Mechanics (PHYS 3210), Electricity & Magnetism II (PHYS 3430) and Quantum Mechanics II (PHYS 3660)

Reviews special relativity and coordinate transformations. Includes the principle of equivalence, effects of gravitation on other systems and fields, general tensor analysis in curved spaces and gravitational field equations, Mach's principle, tests of gravitational theories, perihelion precession, red shift, bending of light, gyroscopic precession, radar echo delay, gravitational radiation, relativisitic stellar structure and cosmography, and cosmology.

The standard text is A First course in Genreal Relativity by Bernard Schutz

You can expect to cover the entire book.

I (Matt Walker) personally wasn't too much of a fan of Schutz and I think Spacetime and Geometry by Sean Carrol is a much better book, and I recommend buying this book for your personal bookshelf.

Prerequisite: Advanced calculus through partial differentiation and multiple integration; vector analysis in three dimensions.

Continuing from the first semester of Computational Physics you will study advanced topics in computational physics including numerical methods for partial differential equations, Monte Carlo modeling, advanced methods for linear systems, and special topics in computational physics

Prerequisite: Computational Physics 1 (PHYS 5630)

An introduction to quantum computation, a modern discipline looking for ways to harness the power of quantum mechanics to gain exponential speedup of computations and simulations. We will go through the basic algorithms, discuss error correction and various physical platforms suggested for a possible implementation of such a computer.

Students in the PHYS UGRD career must take Quantum Mechanics 1 (PHYS 3650) before they can enroll in PHYS 5880. This does NOT apply to students in ALL other careers

The course assumes a knowledge of linear algebra, basic probability and familiarity with quantum mechanics

This course covers linear algebra/complex analysis/vector differential & integral calculus. Thus it is a compressed version of MATH 3351 & MATH 3340 and a review of some of the material in MATH 2310. Emphasis is on the physical interpretation. [This course does not count as a Mathematics elective for Mathematics majors if both MATH 3351 and MATH 3340 are to be counted.]

The standard text book is Advanced Engineering Mathematics, Peter O'neil

You can expect to cover chapters 6-12 and 19-22

Prerequisite: Calculus 3 (MATH 2310) or Advanced Calculus and Linear Algebra I (MATH 2315) or APMA 2120