The
New
Graduate
Programs
in
Physics
We are
pleased
to
announce
new
Graduate
Programs
offering
the
Master
of
Science
(M.S.)
and
Ph.D.
Degrees
in
Physics.
These
Programs
started
operations
in the
Fall
2005.
A unique
characteristic
of these
Graduate
Programs
is that
they are
offered
by the
Department
of
Physics
and
Astronomy
at UTSA
in
collaboration
with the
Southwest
Research
Institute
(SwRI).
This
partnership
between
a public
university
and a
private,
nonprofit
institute
is the
first of
its kind
in Texas
and
promises
to
attract
nationwide
attention
and
serve as
a model
for
similar
collaborations
at other
campuses
in the
University
of Texas
System.
The
Programs
are
designed
to
prepare
graduates
to make
significant
contributions
to the
evolution
of space
science
and
space
technologies,
biophysics,
cosmology,
the
nation's
biomedical
infrastructure
and the
rapidly
advancing
scientific
and
technological
capabilities
in San
Antonio,
the
state of
Texas,
and the
nation.
More
specifically,
selected
scientists
from the
Space
Science
and
Engineering
Division
at
SwRI
have
been
appointed
as
Adjoint
Professors
(not to
be
confused
with
Adjunct
Professors),
at the
Full,
Associate,
or
Assistant
levels,
in the
Physics
and
Astronomy
Department
at UTSA,
with all
the
rights
and
privileges
of
regular
Graduate
Faculty,
except
tenure.
They
teach
advanced
graduate
courses,
serve in
committees,
supervise
Ph.D.
dissertations,
etc.
Graduate
students
working
with
SwRI
scientists
can
receive
Research
Assistantships
and
carry
out
cutting-edge
research in
SwRI's world-class
laboratories
in space
physics
and
engineering,
sponsored
by NASA,
NSF, and
other
agencies.
Southwest
Research
Institute
(SwRI)
is a
leading,
independent,
nonprofit
applied
research
and
development
organization.
It has a
staff of
2,800
and
occupies
1,200
acres in
San
Antonio,
Texas.
The
Institute
provides
nearly
two
million
square
feet of
laboratories,
test
facilities,
workshops,
and
offices.
SwRI's
total
revenue
for
fiscal
year
2004 was
$399
million.
For more
information
about
SwRI,
please
check
their
web site
at
http://www.swri.org/.
SwRI's
world-renowned
Space
Science
and
Engineering
Division
carries
out
design
and
development
of
scientific
payloads
aboard
satellites,
advanced
spaceborne
instrumentation,
analysis
and
interpretation
of
returned
space
data,
and
theoretical
studies
of space
physics.
Areas of
expertise
include
space
weather;
ionosphere-thermosphere-mesospheric
physics;
plasmaspheric
physics;
magnetospheric
physics;
heliospheric
physics;
cometary
and
planetary
science;
space
physics
instrumentation,
and
computational
space
physics.
Graduate
students
working
toward
the M.S.
or Ph.D.
degrees
can also
choose
among
many
other
areas of
specialization
in
experimental
and
theoretical
physics,
such as
condensed
matter
physics
and
advanced
materials
physics,
biophysics,
laser
spectroscopy,
theoretical
particle
physics
and
cosmology,
mathematical
physics,
and
computational
physics.
Like the
rest of
the
university,
the
Department
is
undergoing
very
rapid
growth,
having
doubled
in size
in terms
of
students
and
faculty
during
the last
three
years.
New
faculty
searches
are
underway
and more
will be
carried
out in
the near
future.
Back to
top
Graduate
Faculty
The
Graduate
Faculty
in the
Department
of
Physics
and
Astronomy
is
comprised
of the
following
professors
(as of
fall of
2005):
-
Daniel
Boice
Ph.D.,
New
Mexico
State
University,
1985
Adjoint
Associate
Professor.
(SwRI
Principal
Scientist.)
Astronomy,
Cometary
Physics,
Theoretical
and
Computational
Space
Physics.
-
Lorenzo
Brancaleon
Ph.D.,
University
of
Parma,
Italy,
1996
Assistant
Professor
Experimental
Molecular
Biophysics,
Biophotonics
-
Andrey
A.
Chabanov
Ph.D.,
Queens
College,
City
University
of
New
York,
2002
Assistant
Professor
Experimental
Nanophysics,
Photonics,
Advanced
Materials
-
Chonglin
Chen
Ph.D.,
Pennsylvania
State
University,
1994
Associate
Professor
Experimental
Solid
State
Physics,
Advanced
Materials
-
Liao
Y.
Chen
Ph.D.,
Institute
of
Theoretical
Physics,
Academia
Sinica,
Beijing,
1988
Professor
Theoretical
Condensed
Matter
Physics,
Chemical
Physics
-
Geoffrey
Crowley
Ph.D.,
University
of
Leicester
(UK),
1985
Adjoint
Professor.
(ASTRA)
Ionospheric
Physics,
Space
Physics.
-
Mihir I. Desai
Adjoint Associate Professor (SwRI –
Principal Scientist.)
Experimental
Space
Physics
and
Space
Flight
Instrumentation
-
Jerry
Goldstein
Ph.D.,
Dartmouth
College,
2000 Adjoint
Assistant
Professor.
(SwRI
Research
Scientist.)
Plasmaspheric
and
Magnetospheric
Physics,
Space
Physics
-
Jorg-Micha
Jahn
Ph.D.,
Dartmouth
College,
1997 Adjoint
Assistant
Professor.
(SwRI
Senior
Research
Scientist.)
Magnetospheric
Physics,
Space
Physics
-
Zlatko
Koinov
Ph.D.,
St.
Petersburg
Electrotechnical
University,
Russia
Assistant
Professor Theoretical
Solid
State
Physics,
Optical
Properties
of
Semiconductors
-
Rafael
López-Mobilia
Ph.D.,
University
of
Texas
at
Austin,
1995 Assistant
Professor Theoretical
Particle
Physics,
Cosmology
-
David
McComas
Ph.D.,
University
of
California
at
Los
Angeles,
1986 Adjoint
Professor.
(SwRI
Senior
Executive
Director.)
Heliospheric
and
Magnetospheric
Physics,
Experimental
Space
Physics
-
Patrick
L.
Nash
Ph.D.,
University
of
North
Carolina
at
Chapel
Hill,
1981 Professor Theoretical,
Mathematical
and
Computational
Physics
-
Craig
Pollock
Ph.D.,
University
of
New
Hampshire,
1987 Adjoint
Professor.
(SwRI
Staff
Scientist.)
Magnetospheric
Physics,
Experimental
Space
Physics.
-
Dhiraj
Sardar
Ph.D.,
Oklahoma
State
University,
1980 Professor Lasers,
Modern
Optics,
Spectroscopy
-
Eric
M.
Schlegel
Ph.D.,
Indiana
University,
1983 Associate
Professor Observational
Astronomy,
X-ray
Astrophysics.
-
Philip
Valek
Ph.D.,
Auburn
University Adjoint
Assistant
Professor.
(SwRI
Research
Scientist.) Magnetospheric
Physics,
Experimental
Space
Physics
Further
searches
will be
conducted
to
expand
the
number
of
research
faculty
and
support
staff.
Additional
facilities,
such as
laboratories
and
office
space
for
faculty,
postdoctoral
researchers,
and
graduate
students,
will
also
become
available
in the
new BSEII
building,
currently
in the
design
stage.
In
addition
to the
graduate
faculty,
the
Department
of
Physics
and
Astronomy
at UTSA
presently
employs
several
non-tenure-track
faculty,
most of
them
with
Ph.D.’s,
and some
of whom
are
actively
engaged
in
research.
These
instructors
indirectly
complement
the
graduate
programs
with
their
expertise
in
various
fields.
Back to
top
The
Ph.D.
Program
The
Ph.D. in
Physics
program
offers
students
the
opportunity
to
pursue
research
in a
variety
of basic
physics
fields
such as
condensed
matter
physics;
chemical
physics;
biophysics;
biophotonics;
non-ionizing
radiation
physics;
scanning
tunneling,
small
angle
X-ray
and
neutron
scattering
microscopy;
theoretical
particle
physics;
cosmology;
mathematical,
computational
physics;
semiconductor
nanostructures;
experimental
laser
spectroscopy;
laser-tissue
interactions;
plasma
physics;
radiative
transfer.
If
students
choose
to work
with the
core
scientists
from the
Southwest
Research
Institute
Space
Science
and
Engineering
Division,
opportunities
are
available
in the
fields
of space
weather;
ionosphere-thermosphere-mesospheric
physics;
plasmaspheric
physics;
magnetospheric
physics;
heliospheric
physics,
cometary
physics;
space
physics
instrumentation,
and
computational
space
physics.
Doctoral
students
must
obtain a
minimum
of 81
graduate
semester
credit
hours
beyond
the
bachelor’s
degree.
At the
end of
the
second
year,
each
student
takes a
qualifying
examination
and,
upon
passing,
submits
a
research
proposal
under
the
guidance
of the
dissertation
advisor.
Four or
five
years of
full-time
study
are
generally
necessary
to
complete
the
program.
Facilities
Laser-spectroscopy,
molecular
biophysics,
and
biophotonics
research
laboratories
are
available
on the
UTSA
campus,
with
research
laboratories
in the
areas of
biopolymers,
nano-biophotonics,
nanobiomaterials,
ultrafast
spectroscopy,
and
polymer
physics.
A
cluster
mini-supercomputer
with 32,
2.8-GHz
Xeon
CPUs, is
available
for
computational
physics
research
in
condensed
matter,
cosmology,
particle
physics,
and
other
areas.
The
Southwest
Research
Institute
Space
Science
and
Engineering
Division
has
research
laboratories
available
in the
areas of
space
weather;
ionosphere-thermosphere-mesospheric
physics;
plasmaspheric
physics;
magnetospheric
physics;
heliospheric
physics;
cometary
physics;
space
physics
instrumentation,
and
computational
space
physics.
Admission
and
Assistantships
Applications
are
completed
online
through
UTSA’s
Graduate
School’s
website
at:
http://utsa.edu/graduate/
.
Supporting
documentation
must
include
three
letters
of
recommendation,
CV or
Resumé,
statement
of
research
interests,
all
official
transcripts,
GRE
scores,
as well
as the
completed
application.
The GRE
General
Test
scores
are
required,
while
the
Physics
subject
GRE
scores
are
highly
recommended.
Doctoral
students
may, on
a
competitive
basis,
receive
up to
$19,000
of
support
in the
form of
a
research
stipend
or
teaching
assistantship
in
addition
to
support
for all
tuition
and
fees.
For more
information,
please
contact
the
Graduate
Advisor
of
Record
Department
of
Physics
&
Astronomy
The
University
of Texas
at San
Antonio
6900
North
Loop
1604
West
San
Antonio,
TX
78249-0698
Phone:
(210)-458-5451
Fax:
(210)-458-4919
Ph.D.
Degree
requirements
All
candidates
for the
Ph.D.
degree
in
Physics
will
have to
satisfy
the
university-wide
masters
and
doctoral
requirements.
In
addition
to this,
the
candidate
must
meet the
following
requirements.
To
qualify
for the
Ph.D.
degree
in
Physics,
the
candidate
will be
required
to take
45
semester
credit
hours of
formal
graduate
course
work
(exclusive
of
coursework
or other
study
required
to
remove
deficiencies),
9
semester
credit
hours of
Directed
Research
and
Research
Seminar,
and 27
semester
credit
hours of
Doctoral
Research
and
Dissertation.
The
distribution
of the
81
semester
credit
hours
will be
as
follows:
Courses:
15
courses
for a
total of
45
semester
credit
hours.
Research:
36
semester
credit
hours.
| Category |
Semester Credit Hours |
| Core courses (3) |
9 |
| General physics electives (6) |
18 |
| Advanced physics electives (6) |
18 |
| Directed Research |
6 |
| Research Seminar |
3 |
| Doctoral Research |
12 |
| Dissertation |
15 |
Advancement
to
Candidacy.
On
completion
of the
core
courses
with a
grade-point
average
of B
(3.0),
the
student
must
demonstrate
satisfactory
performance
on the
doctoral
Qualifying
Examination
for
Admission
to
Candidacy.
In
particular,
the
student
must
present
a
seminar
on a
proposed
research
topic,
which is
followed
by an
oral
examination.
The
Qualifying
Examination
will be
administered
before
the
student
commences
doctoral
research.
Qualifying
Examination.
The
qualifying
examination
is
divided
into
written
and oral
portions.
Written
Portion
of the
Qualifying
Examination.
(Under
revision.)
Oral
Portion
of the
Qualifying
Examination.
(Under
revision.)
In the
event
that the
student
does not
qualify
for
candidacy,
the
student
will be
considered
for a
terminal
Master
of
Science
Degree
in
Physics
upon
completion
of
requirements
for the
M.S.
degree.
After
passing
the
Qualifying
Examination
the
student
prepares
a
"program
of work"
for the
Ph.D.
degree.
This
program
of work
lists
the
courses
the
student
has
completed
and
those
that
will be
taken to
satisfy
the
requirements
for the
Ph.D.
The
program
of work
must be
approved
by the
Program
Director,
the
Department
Chair of
the
Physics
&
Astronomy
Department,
and by
the Dean
of
Graduate
Studies.
The
doctoral
student,
in
consultation
with the
Graduate
Program
Committee,
will
then
select a
Supervising
Professor
and will
submit a
Dissertation
Proposal,
which
must be
approved
by the
Graduate
Program
Committee.
Upon
approval
of the
Dissertation
Proposal,
the
student
formally
becomes
a Ph.D.
candidate,
and must
assemble
a
Dissertation
Committee.
The
student
may then
be
allowed
to
engage
in
doctoral
research.
The
Supervising
Professor
will
serve as
the
Chair of
the
student’s
Dissertation
Committee,
and will
direct
the
student’s
work at
all
future
stages.
The 36
hours of
formal
course
work
beyond
the core
material
will be
chosen
in
consultation
with the
student’s
Supervising
Professor.
A
Dissertation
based on
original
research
will be
prepared
by the
candidate.
At the
discretion
of the
candidate’s
Supervising
Professor,
this
work
must be
submitted
to,
and/or
published
in, high
impact
journals.
This
work is
expected
to make
a
significant
contribution
to
scientific
knowledge.
The
final
written
version
of the
Dissertation
may be
comprised
of a
compilation
of
published
or
submitted
journal
articles
with
introduction
and
conclusion
sections.
The
Dissertation
Committee
must
approve
the
Dissertation
by
majority
vote.
Immediately
afterwards,
the
candidate
will
present
an oral
defense
of the
Dissertation
before
his/her
Dissertation
Committee.
Courses
for
Ph.D.
program
| Core courses (9 SCH required) |
|
| PHY 5103 – Classical Mechanics I |
3 SCH |
| PHY 5203 – Electrodynamics I |
3 SCH |
| PHY 5303 – Statistical Mechanics |
3 SCH |
| General Physics Electives (18 SCH required) |
|
| PHY 6003 – Quantum Mechanics I |
3 SCH |
| PHY 6103 – Classical Mechanics II |
3 SCH |
| PHY 6113 – Fluid Mechanics |
3 SCH |
| PHY 6123 – Plasma Physics and Magnetohydrodynamics |
3 SCH |
| PHY 6203 – Electrodynamics II |
3 SCH |
| PHY 6303 – Quantum Mechanics II |
3 SCH |
| PHY 6313 – Solid State Physics |
3 SCH |
| PHY 6323 – Non-linear Optics and Lasers |
3 SCH |
| PHY 6403 – Fundamentals of Space Physics |
3 SCH |
| PHY 6413 – Fundamentals of Astronomy |
3 SCH |
| PHY 6503 – Mathematical Physics I |
3 SCH |
| PHY 6513 – Mathematical Physics II |
3 SCH |
| PHY 6523 – Computational Physics |
3 SCH |
| PHY 6613 – Methods of Experimental Physics |
3 SCH |
| PHY 6623 - Space Physics Laboratory |
3 SCH |
| Advanced Physics Electives (18 SCH required) |
|
| PHY 7403 – Topics in Biophysics and Biomedical Physics |
3 SCH – can be repeated for total of 6 SCH |
| PHY 7703 – Topics in Space Physics |
3 SCH – can be repeated for total of 6 SCH |
| PHY 7803 – Topics in Theoretical Physics |
3 SCH – can be repeated for total of 6 SCH |
| PHY 7973 – Special Topics in Physics |
3 SCH – can be repeated for total of 6 SCH |
| Research (36 SCH required) |
|
| PHY 7003-6 – Directed Research |
6 SCH |
| PHY 7013 – Research Seminar |
3 SCH |
| PHY 7103-6 – Doctoral Research |
12 SCH |
| PHY 7113-9 – Dissertation |
15 SCH |
Note:
"SCH"
denotes
"Semester
Credit
Hours"
Back to
top
The M.S.
Program
The
Masters
of
Science
in
Physics
offers
students
the
opportunity
to
pursue
graduate
coursework
in a
variety
of basic
Physics
fields
such as
mechanics:
classical,
quantum,
statistical
and
fluid;
electrodynamics;
biophysics;
plasma
physics
and
magnetohydrodynamics;
solid
state
physics;
optics:
nonlinear,
biophotonics,
and
lasers;
mathematical
and
computational
physics.
Students
will
have
opportunities
to
choose
Special
Topics
courses
taught
by the
UTSA
Physics
faculty
and core
scientists
from the
Southwest
Research
Institute
Space
Science
and
Engineering
Division,
covering
various
topics
in the
fields
of
biophysics
and
biomedical
physics;
space
physics
and
astrophysics
to
include
heliospheric
physics,
magnetospheric
physics,
planetary
science,
computational
fluid
dynamics,
cosmology,
and
space
weather.
Other
special
topics
courses
will
include
theoretical
physics
to
include
general
relativity,
cosmology,
advanced
condensed
matter
physics,
quantum
field
theory
and
particle
physics.
Masters
students
must
obtain a
minimum
of 30
graduate
semester
credit
hours
beyond
the
bachelor’s
degree.
At the
end of
the
second
year,
each
student
takes a
comprehensive
examination
and,
upon
passing,
will
receive
the M.S.
Degree.
There is
no
thesis
option
for the
M.S.
degree
in
Physics
at this
time.
Admisssion
Candidates
are
strongly
encouraged
to
submit
their
applications
for
admission
for the
Fall
semester,
along
with all
supporting
documentation,
at the
earliest
possible
date.
Applications
may be
obtained
online
from
UTSA’s
Graduate
School’s
website
at:
http://www.utsa.edu/graduate/FutureStudentsAcademicPrograms/programs.cfm.
Supporting
documentation
must
include
three
letters
of
recommendation,
CV or
Resumé,
statement
of
research
interests,
all
official
transcripts,
as well
as the
completed
application.
Assistantships
Masters
students
will be
considered
for
teaching
assistantships
to help
defray
costs of
tuition.
For more
information,
please
contact
the
Graduate
Advisor
of
Record
Department
of
Physics
&
Astronomy
The
University
of Texas
at San
Antonio
6900
North
Loop
1604
West
San
Antonio,
TX
78249-0698
Phone:
(210)-458-5451
Fax:
(210)-458-4919
M.S.
Degree
requirements
All
candidates
for the
M.S.
degree
in
Physics
must
satisfy
the
university-wide
master’s
degree
requirements.
To
qualify
for the
M.S.
degree
in
Physics,
the M.S.
candidate
is
required
to take
30
semester
credit
hours in
coursework
approved
by the
Graduate
Program
Committee
(exclusive
of
coursework
or other
study
required
to
remove
deficiencies).
A
candidate
for the
master’s
degree
must, in
addition
to other
requirements,
pass a
comprehensive
examination
comprised
of oral
and
written
components.
The
comprehensive
examination
will be
administered
by the
Graduate
Program
Committee.
Presently
there is
no
Thesis
option
for the
Master
of
Science
degree
in
Physics.
The
Thesis
option
will be
implemented
at a
later
date.
No-thesis
Option
For a
master’s
degree
under
the
No-thesis
Option,
a
student
can meet
requirements
without
writing
a
thesis.
Instead,
the
student
is
required
to
complete
30
Semester
credit
hours of
formal
graduate
coursework
approved
by the
Graduate
Program
Committee
as
prescribed
in the
previous
table.
|
Category |
Semester Credit Hours |
|
No-Thesis option |
Non-Thesis |
|
Core courses (3) |
9 |
|
General physics electives ( 3 ) |
9 |
|
Advanced physics electives ( 3 ) |
9 |
|
Free electives (1) chosen from within Physics or supporting disciplines with approval of Graduate Advisor |
3 |
Courses
for M.S.
Program (No
Thesis)
| Core courses (9 SCH required) |
|
| PHY 5103 – Classical Mechanics I |
3 SCH |
| PHY 5203 – Electrodynamics I |
3 SCH |
| PHY 5303 – Statistical Mechanics |
3 SCH |
| General Physics Electives (9 SCH required) |
|
| PHY 6003 – Quantum Mechanics I |
3 SCH |
| PHY 6103 – Classical Mechanics II |
3 SCH |
| PHY 6113 – Fluid Mechanics |
3 SCH |
| PHY 6123 – Plasma Physics and Magnetohydrodynamics |
3 SCH |
| PHY 6203 – Electrodynamics II |
3 SCH |
| PHY 6303 – Quantum Mechanics II |
3 SCH |
| PHY 6313 – Solid State Physics |
3 SCH |
| PHY 6323 – Non-linear Optics and Lasers |
3 SCH |
| PHY 6403 – Fundamentals of Space Physics |
3 SCH |
| PHY 6413 – Fundamentals of Astronomy |
3 SCH |
| PHY 6503 – Mathematical Physics I |
3 SCH |
| PHY 6513 – Mathematical Physics II |
3 SCH |
| PHY 6523 – Computational Physics |
3 SCH |
| PHY 6613 – Methods of Experimental Physics |
3 SCH |
| PHY 6623 - Space Physics Laboratory |
3 SCH |
| Advanced Physics Electives (9 SCH required) |
|
| PHY 7403 – Topics in Biophysics and Biomedical Physics |
3 SCH – can be repeated for total of 6 SCH |
| PHY 7703 – Topics in Space Physics |
3 SCH – can be repeated for total of 6 SCH |
| PHY 7803 – Topics in Theoretical Physics |
3 SCH – can be repeated for total of 6 SCH |
| PHY 7973 – Special Topics in Physics |
3 SCH – can be repeated for total of 6 SCH |
| Research (3 SCH required) |
|
| PHY 7003 – Directed Research |
3 SCH |
| PHY 6961 - Comprehensive Examination |
1 SCH (only if enrolled in no other classes) |
Note:
"SCH"
denotes
"Semester
Credit
Hours"
Back to
top
Graduate
Course
Descriptions
5103
Classical
Mechanics
I
(Core
course)
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
or
consent
of
instructor.
Newtonian,
Lagrangian,
and
Hamiltonian
formulations.
Orbital
Dynamics,
Symmetries,
and
conservation
laws.
Relativistic
dynamics.
5203
Electrodynamics
I
(Core
course)
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
or
consent
of
instructor.
Electrostatics
and
magnetostatics;
boundary
value
problems,
Maxwell's
equations;
plane
waves;
wave
guides
diffraction;
multipole
radiation.
5303
Statistical
Mechanics
(Core
course)
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
or
consent
of
instructor.
Thermodynamics,
Equilibrium
statistical
mechanics,
Boltzmann
equation
and the
collision
operator,
moments
of the
Boltzmann
equations,
the
Navier
Stokes
equations,
introduction
to
nonequilibrium
concepts,
ensembles,
classical
and
quantum
gases,
statistical
physics
of
solids.
6003
Quantum
Mechanics
I
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
or
consent
of
instructor.
Postulates.
Hilbert
space
formulation.
The
Schrödinger
equation
and
one-dimensional
problems.
The
hydrogen
atom.
Symmetries.
Rotational
invariance
and
angular
momentum.
Spin.
System
with
N-degrees
of
freedom.
6103
Classical
Mechanics
II
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
PHY
5103, or
consent
of
instructor.
Hamilton-Jacobi
theory,
continuous
media,
nonlinear
dynamics
and
chaos,
instabilities,
pattern
formation.
The
three-body
problem.
Dust,
planets,
and
planetary
systems.
6113
Fluid
Mechanics
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
PHY 5103
and
5503, or
consent
of
instructor.
Ideal
fluids,
viscous
flow,
turbulence,
sound
propagation,
shock
waves,
Rankine-Hugoniot
Relations.
6123
Plasma
Physics
and
Magnetohydrodynamics
(MHD)
(3 0) 3
hours
credit.
Prerequisite:
Graduate
standing,
PHY
5103,
PHY
5503,
and PHY
5203, or
|