Physics
Physics | Courses
| Faculty
1126 Lederle GRC Towers
Degrees: Bachelor of Science, Bachelor of Arts
Contact: Professor Edward Chang
Office: 223 Hasbrouck
Phone: 545-0586
Head of Department:ÝProfessor John Donoghue; Undergraduate Program
Director: Professor Chang. Professors Byron, Candela, Dubach, Gerace, Golowich,
Guyer, Hallock, Hertzbach, Hicks, Holstein, Kreisler, Langley, Machta, Mestre,
Miskimen, Penchina, Pichanick, Rabin, Swift, Traschen, Wong; Associate Professors
Blaylock, Kumar, Prokof'ev, Tuominen, Walker; Assistant Professors Dallapiccola,
Dinsmore, Willocq; Lecturers Hatch, Kastor, Papirio; Research Assistant Professors
Dufresne, Leonard.
The Field
Physics is the basic science that underlies all of the physical sciences and
influences most of the biological sciences. It treats matter, energy, and interactions
at the fundamental level. Its subdisciplines include acoustics, optics, mechanics,
thermodynamics, atomic physics, nuclear physics, condensed-matter physics, low-temperature
physics, elementary-particle physics, plasma physics, astrophysics, biophysics,
geophysics, relativity, and nonlinear dynamics. Physics is a laboratory-based
science. Experiments reveal the observable properties of the natural world,
and theories provide an understanding of the observations. Mathematics serves
as the essential language for the analysis of experiment and theory.
The work physicists do can be classified as basic or applied. The scientist
doing basic research typically works in a university or national laboratory,
and is interested in learning about the fundamental processes of nature. The
applied physicist wants to develop uses for knowledge through technological
advances, and is employed most often in an industrial setting.
Physicists usually choose to be either experimentalists or theorists. The experimenter
uses apparatuses designed to test hypotheses and theories, to make unexpected
discoveries of new phenomena, or to develop new applications of ideas. The theorist
uses that data to develop new explanations, hypotheses, or theories. Occasionally
a particularly broad scientist can act as both experimentalist and theorist.
Physicists may also use the computer to simulate a physical system and generate
data from observations of the simulation in order to gain new insights into
real systems.
Physics is a constantly changing science with aspects which sometimes cross
over into other disciplines. Often a field becomes very exciting and physicists
pursue it vigorously. After the fundamental principles are established, a particular
field may be given over to another discipline for further exploration. Thus,
much of the physics of yesterday is now regarded as part of chemistry or engineering.
It is interesting to conjecture how the physics of today may evolve in the decades
to come.
The Major
The Department of Physics has the faculty and facilities to provide unusually
strong programs for students wishing to major in physics. The department offers
a variety of courses and tracks; many options are available at the introductory
level, in the core upper-division courses, and in the advanced electives.
The three available tracks, Professional, Applied, and General, enable students
to tailor the major to suit their goals. Whether the student plans to continue
physics in graduate school, seek employment immediately after the B.S. degree,
study other fields, or pursue other alternatives, an appropriate set of courses
is available.
Courses for majors generally have low enrollments and so students are treated
as individuals. The student-faculty ratio in the department is optimal; it is
easy for a student to interact directly with the faculty and get extra help
and advice.
Most faculty members are engaged in basic experimental or theoretical research
in one of the following areas: atomic physics, condensed-matter physics, elementary-particle
physics, nuclear physics, polymer physics, low-temperature physics, and nonlinear
dynamics. Excellent facilities have been supplied by the University and are
supported by several million dollars annually in federal research funds. This
activity makes it possible to bring the frontiers of physics to the classroom
and enables undergraduates to participate in original research activities. These
opportunities can be found through independent study, the departmental honors
program, or student employment during the summer or academic year.
The department has an active chapter of the Society of Physics Students (SPS),
which allows the student to interact socially with student colleagues and faculty
as well as to carry out interesting extracurricular physics activities. For
example, there is a Five College Undergraduate Physics Colloquium that brings
several nationally known speakers to the area each year. Traditionally, SPS
members and faculty eat together in the dining commons before attending the
evening lecture.
PHYSIC 171-174 and 283/285 are the recommended introductory courses and labs
for students considering a major in physics. (Under certain circumstances, and
with approval of an adviser, PHYSIC 151-154 may be substituted.)
Students intending to go on to graduate school in physics or closely related
fields or simply desiring a complete set of courses in physics should follow
the Professional Track. Those intending to take jobs immediately after receiving
the B.S. degree, or who will go to graduate school in other areas, can choose
one of two other tracks, Applied Track or General Track.
The latter two tracks include fewer Physics courses, but require that the student
take a coherent program of courses (a concentration) from other departments
together with our own. The details of the concentration must be worked out with
an adviser from the department. The Applied Track is for majors interested in
other technical subjects, for example, computing or engineering, while the General
Track allows a concentration in non-technical areas, for example, finance, teaching,
and science writing.
Core Courses (required for all tracks):
171/3 Physics I with Lab
172/4 Physics II with Lab
283 Physics III
284 Modern Physics I
285 Sophomore Lab I
286 Sophomore Lab II
381 Writing in Physics
MATH 131 Calculus I
MATH 132 Calculus II
MATH 233 Multivariate Calculus
Professional Track (B.S.):
282 Techniques of Theoretical Physics
290S Introduction to Computational Physics
421 Mechanics
422 Electricity and Magnetism
423 Statistical Physics
424 Modern Physics II
440 Intermediate Lab I
441 Intermediate Lab II
500-level lab or ASTRON 337
500-level course or ASTRON 451 or 452
MATH 431 Differential Equations
Applied Track (B.S.):
Two of 421, 422, 423 and 424
440 Intermediate Lab I
441 or a 500-level lab
Concentration in scientific/technical field(s), minimum 18 credits, developed
in consultation with Physics adviser.
General Track (B.A.):
One of 421, 422, 423, or 424
440 or 500-level lab
Concentration in non-departmental field(s), minimum 18 credits, developed in
consultation with Physics adviser.
A more detailed description of the programs for majors in both physics and
astronomy is contained in the Handbook for Physics Majors. Copies may
be obtained upon request from the Undergraduate Program Director.
Career Opportunities
Physics provides an excellent background for a wide variety of careers in science,
and in science-related and technological fields. A survey of the department's
graduates has yielded the following information. About half of those responding
are in science-related industrial jobs; half of these had received advanced
degrees (M.S. or Ph.D.) before or during employment. About one-third of the
respondents are presently in graduate school or in academic positions following
graduate school. One-tenth of those surveyed are in the medical professions,
and another one-tenth are employed in other fields. Graduates are in a wide
variety of professions. Some examples include a chemical engineer, a supervisor
in charge of inspection techniques for nuclear power plants, a systems engineer
in ship design, and a graduate student in oceanography. Several graduates are
M.D.s or medical students. One of our former majors is now a Professor of Physics
at the University of Massachusetts.
Industrial research and development is an appealing career opportunity; for
this goal a highly laboratory-oriented physics curriculum is recommended. A
master's degree increases the number of opportunities in industry. For teaching
at the secondary school level one needs also to complete the education courses
necessary for certification. These courses can easily be fitted into a Physics
major's program, especially the General Track. For teaching at the community
college level a master's degree is usually the minimum requirement; at the college
or university level (and for many research jobs in government or industrial
laboratories) a Ph.D. is required.
Many students take courses in other sciences, in mathematics, or in engineering,
in addition to their physics curriculum, to strengthen their industrial "marketability"
or to prepare for graduate school in programs such as astronomy, biophysics,
meteorology, geophysics, oceanography, computer science, polymer science, etc.
The Applied and General tracks are particularly useful in this regard.
The undergraduate program of a physics major is frequently taken by individuals
planning to apply to medical or dental school. Some medical professions, such
as nuclear medicine and health physics, are directly related to physics. Physics
can also be a reasonable preparation for law school. Patent law, for example,
requires a technical background.
Few individuals with bachelor's or advanced degrees in physics are unemployed
or seriously underemployed. A physics education provides a broad background
of fundamental principles and develops skills in solving complex problems, enabling
effective contribution in many kinds of traditional and novel activities.
Material relating to job opportunities and graduate schools is kept up to date
by the senior adviser.
The Minor
To satisfy the requirements for a minor in physics the student must complete
15 credits at the 200 level or above.
Physics | Courses
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