Applied Physics Graduate Program
Rice University
Applied Physics Program, MS 104
6100 Main Street
Houston, TX 77005
713-348-6356
Application
The application deadline is February 1 and must be submitted online. The application fee must be paid by credit card only via the online process. Make sure you're applying to Applied Physics rather than Physics and Astronomy. Applied Physics does indeed require hard copies of 4 letters of reference, in addition to the online recommenders' forms. All supporting materials should be sent to:
Attention Yvonne Kambourelis
Rice University
Applied Physics Program, MS 104
6100 Main Street
Houston, TX 77005
Overview
Rice University offers M.S. and Ph.D. degrees in Applied Physics. A joint effort of both the Natural Sciences and the Engineering divisions at Rice, the Applied Physics program is overseen by a committee composed of members from among the Departments of Chemistry, Electrical and Computer Engineering, and Physics and Astronomy. The objective is to provide an interdisciplinary graduate education in the basic science that underlies important technology. The faculty believes that the experience obtained by performing research at the intellectually stimulating interface of physical science and engineering is particularly effective in producing graduates who succeed in careers based on new and emerging technologies.
Each person accepted into Applied Physics affiliates with a particular department upon arrival at Rice and is paid a stipend according to the guidelines of that department. For the year 2005, these were in the range of $21,750 (competitive with other major U.S. academic institutions). The first 9 months of stipend are paid by RQI student fellowships. The student chooses an advisor during the first school year according to the deadline set by the department, and the advisor pays the stipend in the 10th month and thereafter. Teaching responsibilities are also determined by department. Should an Applied Physics student decide after arrival to work with an advisor from a different department, they may request a change of affiliation.
Research Facilities
Due to the interdisciplinary nature of the program, the student can access virtually any of the research facilities in either the natural sciences or engineering schools of Rice University. The Applied Physics Committee urges prospective students to contact individual departments or RQI for detailed descriptions of research facilities and ongoing research projects. Within RQI alone, there are over 100 separate projects, and there are numerous other research opportunities.
Requirements for Graduate Degrees in Applied Physics
(For Full Requirements, See APPRequirements.pdf)
The Applied Physics program offers Master's and Ph.D. Degrees. For each degree, the student must fulfill the University requirements set forth in the catalog under which he/she entered. The semester hour requirements may be fulfilled both by classroom hours and research hours. A total of nine one-semester graduate level courses is required for the Master's Degree in Applied Physics; a "core" of four courses is required of all students. The Applied Physics Committee may waive some course requirements for students who demonstrate a thorough knowledge of material in one or more core/elective course(s). The student will normally be expected to complete the course requirements in three semesters and maintain a minimum grade of 3.0 in core courses as well as a 3.0 average in all courses taken. The current list of courses is shown below, and is updated regularly upon approval of the Applied Physics Committee and the participating departments. Effective Fall, 2002, any student who receives a grade of "C+" or lower in any course is required to repeat the class.
Each student's curriculum, research, and thesis topics receive individual consideration by the Applied Physics Committee and must be approved. Most APP students defend for a Master's degree and continue on to become candidates for the Ph.D.
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Core Courses: 4 Required
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| Quantum Mechanics I |
PHYS 521 or CHEM 530 |
| Quantum Mechanics II or Statistical Physics |
PHYS 522 or PHYS 526 or CHEM 531 or CHEM 520 |
| Classical Electrodynamics |
PHYS 532 |
| Introduction to Solid State Physics I |
PHYS 563/ELEC 563 |
It is assumed that the student has an adequate background in Classical Mechanics, Electrostatistics, and Statistical and Thermal Physics. This background is determined from interviews or exams given to entering students by the APC or the host department.
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Approved Electives (5 Required) |
| Fundamentals of Systems Physiology |
BIOE 572 |
| Lasers in Medicine and Bioengineering |
BIOE 584 |
| Computational Molecular Biophysics |
BIOE 589/BIOS 589 |
| Methods of Molecular Simulation/Advanced Topics in Physics |
BIOE 610/PHYS 600 (Rau's course) |
| Advanced Biophotonics |
BIOE 684 |
| Chemical Engineering of Nanostructured Materials |
CENG 630 |
| Transition Metal Chemistry |
CHEM 495 |
| Chemical Kinetics & Dynamics |
CHEM 515 |
| Classical and Statistical Thermodynamics |
CHEM 520 |
| Quantum Mechanics I/Quantum Chemistry |
CHEM 530 |
| Quantum Mechanics II/Quantum Chemistry |
CHEM 531 |
| Nanostructure & Nanotechnology |
CHEM 533 |
| Supramolecular Chemistry |
CHEM 547 |
| High Temperature and High Pressure Chemistry |
CHEM 611 |
| Molecular Spectroscopy |
CHEM 630 |
| Semiconductor Devices |
ELEC 462 |
| Lasers and Photonics |
ELEC 463 |
| Physical Electronics Practicum |
ELEC 465 |
| Linear/Nonlinear Fiber Optics |
ELEC 560 |
| Topics in Semiconductor Manufacturing |
ELEC 561 |
| Imaging at the Nanoscale |
ELEC 562 |
| Introduction to Solid State Physics II |
ELEC 564/PHYS 564 |
| Topics in Quantum Semiconductor Nanostructures |
ELEC 565 |
| Applied Quantum Mechanics |
ELEC 567 |
| Laser Spectroscopy |
ELEC 568 |
| Ultrafast Optics |
ELEC 569/PHYS 569 |
| Integrated Photonics |
ELEC 572 |
| Optics |
ELEC 591 |
| Topics in Quantum Optics (Nonlinear Optics) |
ELEC 592 |
| Topics in Micro- and Nano-Photonics |
ELEC 603 |
| Seminar Topics in Nanotechnology |
ELEC 691 |
| Applied Monte Carlo Analysis |
MECH 679 |
| Convective Heat Transfer |
MECH 682 |
| Radiative Heat Transfer I |
MECH 683 |
| Radiative Heat Transfer II |
MECH 684 |
| Mechanical Properties of Materials |
MSCI 402 |
| Properties, Synthesis, and Design of Composite Materials |
MSCI 523 |
| Crystallography and Diffraction |
MSCI 535 |
| Polymer Synthesis, Soft materials and Nanocomposites |
MSCI 597 |
| Crystal Thermodynamics |
MSCI 610 |
| Principles of Nanoscale Mechanics |
MSCI 614 |
| Thin Film Failure Analysis, Measurement & Reliability |
MSCI 615 |
| Analytical Spectroscopies |
MSCI 623 |
| Thermodynamics of Alloys |
MSCI 634 |
| Transformation of Alloys |
MSCI 635 |
| Thin Films |
MSCI 645/ELEC 645 |
| Conduction Phenomena in Solids |
MSCI 666 |
| Introduction to Plasma Physics |
PHYS 480 |
| Ionospheric Physics |
PHYS 512 |
| Classical Dynamics |
PHYS 515 |
| Mathematical Methods |
PHYS 516 |
| Quantum Mechanics I |
PHYS 521 |
| Quantum Mechanics II |
PHYS 522 |
| Statistical Physics |
PHYS 526 |
| Nanostructures and Nanotechnology I |
PHYS 533 |
| Nanostructures and Nanotechnology II |
PHYS 534 |
| Methods of Experimental Physics I |
PHYS 537 |
| Methods of Experimental Physics II |
PHYS 538 |
| Characterization and Fabrication at the Nanoscale |
PHYS 539 |
| Molecular Biophysics |
PHYS 552 |
| Introduction to Solid State Physics II |
PHYS 564/ELEC 564 |
| Surface Physics |
PHYS 566 |
| Quantum Phase Transition |
PHYS 568 |
| Ultrafast Optics |
PHYS 569/ELEC 569 |
| Modern Atomic Physics and Quantum Optics |
PHYS 571 |
| Fundamentals of Quantum Optics |
PHYS 572 |
| Magnetic Materials (Synthesis & Characterization) |
PHYS 600 (Morosan's course) |
| Computational Electrodynamics and Nanophotonics |
PHYS/ELEC 605 |
| Condensed Matter Theory: Applications |
PHYS 663 |
| Condensed Matter Theory: Many-Body Formalism |
PHYS 664 |
No courses may be used for both core and elective courses. Due to overlap of curricula, only one from each of the pairs PHYS 521/CHEM 530, PHYS 522/CHEM 531 and PHYS 526/CHEM 520 may be used for the nine required courses.
By the end of the third year in the program, all APP students should have completed the University requirements for a Master's Degree, fulfilled the course requirements of the APP and defended a Master's thesis in a public oral examination by a committee approved by the APC. The examination covers the work reported in the thesis as well as the entire field in which the student intends to work toward to Ph.D. The examining committee votes separately on awarding the Master's Degree and on admission to candidacy for the Ph.D. Fulfillment of all University degree requirements and successful defense of a Ph.D. thesis in a public examination by an APC approved committee is necessary for the Ph.D. Degree.
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