Physics 599.01  Spring 2002
Graduate Seminar (Atoms and Solids)

Information here is preliminary.  The web page is under construction.

Room B-131, Mondays 2:00-3:30 PM; First meeting Monday January 28, 2002

Instructors : Philip B. Allen [Office B-146;  2-8179;  philip.allen@sunysb.edu]
                    Louis DiMauro   [BNL 344-4323; Stony Brook Office ?; dimauro@bnl.gov]

Goals:

    Gain experience in oral presentation
    Hear interesting talks
    Learn about new developments
    Struggle with new ideas incompletely formulated

 Rules:

    Each student will give one short and one long talk.  Every student must attend all talks. Attendance will be taken.  Students may pick the subject of the short talk, subject to approval by an instructor.  Students should choose the time and subject of the long talk from the list provided here.  Conflicts are decided by lottery.  Long talks on topics not listed in this handout should be approved by an instructor. Approval is given only if you did not talk anywhere about that subject before.  The speaker should confer with an instructors at least two weeks before the long talk. The speaker is responsible for researching the literature and talking to other faculty members, if necessary.   While researching a subject, if a student wishes to change the topic, this requires discussion with an instructor.  Talks may not be postponed.

Grading:

    (a) Short talks contribute 20% of the grade, and they will be discussed in class. No abstract is needed.
    (b) The written abstract, content and presentation of the long talk together contribute 65% of  the grade.  [Content: depth of coverage, amount of literature search involved, scientific accuracy, recent developments, etc.  Presentation: structure and organization of talk, maintaining audience interest, keeping time limit, etc.]
    (c) Attendance and activity (asking the speakers good questions, participating in discussions) contributes 15%.

Abstract:

    Prepare a written abstract for the long talk. The format must conform to the abstracts of the meetings of the American Physical Society, described at the APS home page. You may use the free abstract testing service provided by APS.  Sorting categories (PACS) can be found at the APS home page.
Follow the style of typical abstracts; be specific.  Use LATEX to make an electronic abstract. Tell the instructors (in advance, before the deadline expires) if you do not have access to LATEX.
When you LATEX the abstract, you will need the "apsab.sty" style file in the appropriate directory of your system. If you use a computer in the department, and a working copy of LATEX is installed, it is very likely that the style file is already there. Submit your abstract by email to both of the instructors, or FTP it to "solidstate.physics.sunysb.edu".  Deadline for submission is one week before the talk (2:00pm on Thursday). ASCII FILES ONLY (no encoded files, .dvi files, postscript files, just the plain old .tex file).

Talk:

    No long derivations; talk about physics.  Read "Advice...." in Physics Today, July, 1991.  Hand out to each student a printed copy of your abstract before your talk.  Prepare and use overhead transparencies. Use (color) printers and xerox machines if possible to create attractive graphs (that are LARGE enough to be seen by those sitting in the back of the room!), but BE CAREFUL: not all types of transparency foils work for this purpose, and the wrong ones may damage the copier.  Try to give an overview of the suggested topic first, concentrate on one issue in the second half of the talk. Do not try to present everything you have read.  Plan your talk for 8 minutes (short talk) or 25 minutes (long talk). Expect 2 minutes (10 minutes) discussion. Speakers will be brutally cut off when the time limit expires, and their grades will suffer accordingly.  Practice your talk in front of others before giving it in class.

Resources:

    Archives of the Bulletin of the APS (BAPS) are available on-line. The Stony Brook Library subscribes to several research databases.  Particularly valuable is the Web of Science.  If you try to access these services from off-campus computers, you may encounter difficulties.  Transparencies: A132, Instructional Lab (Joe Feliciano or Frank Chin).

If you have a physical psychiatric/emotional, medical or learning disability that may impact on your ability to carry out the assigned course work, we urge you that you contact the staff in the Disabled
Student Services office (DSS) in Room 133, Humanities, 632-6748/TDD. DSS will review your concerns, and determine, with you, what accommodations are necessary and appropriate. All information and documentation of disability is confidential.
 
 

Possible topics for the long talks


Quantum computers Averin
Single electron tunneling Averin
The Quantum Hall Effect Goldman
Quantum dots Goldman
High Tc superconductors Gurvitch, Abanov
Nanocrystals Allen, Wong, Grey(Chemistry)
Molecular Conductance Likharev, Aleiner, Allen
ESR Spectroscopy Mihaly
Surface Reconstruction Stephens, Jona (Materials Sci)
STM Imaging
AFM Imaging
Composite fermions Abanov, Aleiner
Kondo effect and Kondo problem Aleiner
Giant magnetoresistance Allen
Weak localization. Aleiner
Interaction effects in disordered metals Aleiner
Mesoscopic physics Aleiner
Photoemission spectroscopy P.Johnson (BNL)
Bethe Ansatz Abanov, Korepin, McCoy
Flux quantization and its applications Likharev
Josephson junctions and macroscopic quantum coherence Lukens
Spin glasses McCoy
Bloch oscillations Mendez
Semiconducting quantum wells and superlattices Mendez
Charge and spin density waves Mihaly, Allen
Hopping conductivity Aleiner, Allen, Mendez
Heavy Fermions Aleiner
Liquid crystals Mihaly
Fullerenes Stephens,Mihaly
Quasicrystals Stephens
X-ray spectroscopy Stephens
Neutron scattering Tranquada (BNL)
Kosterlitz-Thouless transition Verbaarschot
Quantum defect theory Bergeman
Bose-Einstein condensation Bergeman, Metcalf
Dressed atom (and Floquet) theory Bergeman, Koch
Atmospheric spectroscopy DeZafra
Femtosecond and ultra-intense lasers DiMauro (BNL)
Multiphoton / above threshold ionization DiMauro (BNL), Koch
X-ray microscopy and holography Kirz, Jacobsen
Dynamical localization in AMO physics Koch
Semiclassical methods in AMO physics Koch
Quantum chaos in atoms Koch
Quantum "billiards" Koch
Rydberg constant measurements Metcalf, Orozco
Rydberg atoms Koch, Metcalf
Precise spectroscopic tests of QED Metcalf, Orozco
Chaos in spectra Verbaarschot, Koch
Ultra stable lasers Metcalf, Orozco
Sonoluminiscence Metcalf
Nonclassical states of the EM field Orozco
MRI in medicine Wagshul (SB radiology)
Parity violations in atoms Orozco
Atomic clocks Metcalf
Cooling and trapping of atoms Metcalf, Orozco
Cooling and trapping of charged particles Orozco
Standard models tests with atoms Orozco
Searches for T violation in atoms Orozco
Cavity Quantum Electrodynamics Oroaco
Isotope shifts in atomic spectra Sprouse
Geometric (Berry)  phase in optics Koch
Landau-Zener transitions and Stueckelberg oscillations Koch