17159 |
PHYS 116
Acoustics |
Matthew
Deady |
T Th 8:30am-9:50am |
HEG 102 |
LS |
SCI |
This laboratory
course gives an introduction to the phenomena of acoustics, particularly
aspects that are important in the production and perception of music. The
physics of sound is covered in depth, and characteristics of acoustic and
electronic instruments are discussed. Mathematical and laboratory techniques
are introduced as needed. No specific science or mathematics background beyond
algebra is assumed. Class size: 36
LAB OPTIONS: (register
separately)
17160 |
PHYS 116
LBA Acoustics |
Matthew
Deady |
F 8:30am-9:50am |
HEG 107 |
LS |
SCI |
Class
size: 12
17161 |
PHYS 116
LBB Acoustics |
Matthew
Deady |
F 10:10am-11:30am |
HEG 107 |
LS |
SCI |
Class
size: 12
17162 |
PHYS 116
LBC Acoustics |
Matthew
Deady |
F 1:30pm-2:50pm |
HEG 107 |
LS |
SCI |
Class
size: 12
17164 |
PHYS 142
A Introduction to Physics II |
Eleni-Alexandra
Kontou |
M W F 8:30am-9:50am |
HEG 102 |
LS |
SCI |
Part II of a
calculus-based survey which will focus on electricity and magnetism, light,
electromagnetic radiation, and optics. The course stresses ideas - the unifying
principles and characteristic models of physics. Labs develop the critical
ability to elicit understanding of our physical world. Prerequisites: Physics 141, Mathematics 141. Class
size: 18
17165 |
PHYS 142
B Introduction to Physics II |
Paul
Cadden-Zimansky |
M W F 10:10am-11:30am |
HEG 102 |
LS |
SCI |
See
above. Class size: 18
LAB OPTIONS: (register
separately)
17166 |
PHYS 142
LBA Introduction to Physics II |
|
M 1:00pm-3:00pm |
HEG 107 |
LS |
SCI |
Class
size: 12
17167 |
PHYS 142
LBB Introduction to Physics II |
|
T 1:00pm-3:00pm |
HEG 107 |
LS |
SCI |
Class
size: 12
17168 |
PHYS 142
LBC Introduction to Physics II |
|
T 3:10pm-5:10pm |
HEG 107 |
LS |
SCI |
Class
size: 12
17163 |
PHYS 145
Astronomy |
Eleni-Alexandra
Kontou |
M W F 3:10pm-4:30pm |
ALBEE 100 |
LS |
SCI |
17170 |
PHYS 222
Mathematical Methods II |
Harold
Haggard |
M W F 10:10am-11:30am |
HEG 106 |
MC |
MATC |
This is the second
part of a two-part course series that introduces mathematical topics and
techniques that are commonly encountered in the physical sciences, including
complex numbers and analytic functions, Fourier series and orthogonal
functions, standard types of partial differential equations, and special
functions. Prerequisites: MATH 141 and 142, or the equivalent. Recommended: PHYS 221, Mathematical
Methods I. Class size: 16
17169 |
PHYS 230
Optics |
Harold
Haggard Paul
Cadden-Zimansky |
T 1:30pm – 2:50pm (LAB) Th 3:10pm-6:00pm |
HEG 300 HEG 106 |
LS |
|
From observing the
cosmos to single cells, understanding optics is what has allowed us to
visualize the unseen world. This laboratory course provides an overview of the
theoretical techniques and experimental tools used to analyze light and its
properties. The course will encompass
three broad approaches to understanding the behavior of light, geometrical
optics, wave optics, and quantum optics. Through the manipulation of light using
lenses, polarizers, and single-photon detectors, students will learn the
physics that underlies microscopes, spectrometers, lasers, modern
telecommunication, and human vision. Pre-requisite, Physics 142 or permission of the instructor. Class size: 16
17171 |
PHYS 303
Mechanics |
Matthew
Deady |
M W 8:30am-9:50am Th 1:30pm-2:50pm |
HEG 106 HEG 107 |
MC |
|
Particle
kinematics and dynamics in one, two, and three dimensions.
Conservation laws, coordinate transformations, and problem‑solving
techniques in differential equations, vector calculus, and linear algebra. Lagrangian and
Hamiltonian formulation of dynamics.
Prerequisites: Physics 141‑142,
Mathematics 141‑142. Class size: 16
17172 |
PHYS 321
Quantum Mechanics |
Joshua
Cooperman |
M W F 1:30pm-2:50pm |
HEG 106 |
MC |
MATC |
Quantum mechanics
is our most successful scientific theory: spectacularly tested, technologically
paramount, conceptually revolutionary.
This course will provide a comprehensive introduction to this remarkable
theory. We will begin by establishing
the structure of quantum mechanics in the context of its simplest case, the
so-called qubit. Simultaneously, we will
refresh the mathematical apparatus required to formulate quantum mechanics. To explore some of quantum mechanic’s most
interesting phenomena, including contextuality,
entanglement, and nonlocality, we will next study systems of qubits. After an
interlude on the interpretation of quantum mechanics, we will consider a
variety of applications of quantum mechanics: 1-dimensional systems, including
the harmonic oscillator, 3-dimensional systems, including the hydrogen atom,
and quantum statistical mechanics, including that of identical particles as
well as scattering and perturbation theory.
We will conclude by learning the path integral formulation of quantum
mechanics. Time permitting, we will
touch on such topics as decoherence and quantum
computation. Prerequisites: Physics 241, Mathematics 213. Class size: 16