Master 2021-22 Of Engineering Handbook

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CornellEngineeringApplied and Engineering PhysicsMasterof EngineeringHandbook2021-22

OVERVIEWThe one-year masters program offers advanced study and trainingin engineering physics. It provides valuable graduate training andresearch and design project experience sought after by industry,government, and research and development organizations. Thegoal is to prepare students for cutting-edge industrial and researchpositions. It combines an interdisciplinary curriculum with aresearch or design project focused on applying physics to scientificand technological problems. The curriculum is tailored to fit theneeds of individual students, and the project offers an opportunityfor independent research under the supervision of leading scientistsand engineers.M.ENG. REQUIREMENTS ANDPOLICIES IN ENGINEERING PHYSICSFaculty AdvisorEach M.Eng. candidate will be assigned a field faculty advisor.This person will oversee the academic progress and serve as anintellectual and professional mentor. You may change your advisorto fit your academic and research interests, but he/she must be amember of the Graduate Field Faculty.CurriculumStudents combine a research or design project with electivesselected from a variety of applied physics related graduate fields.Thirty credit hours are required, which includes six to twelvecredits for the project. Courses include a core curriculumof applied quantum mechanics, statistical mechanics, and appliedmathematics in addition to electives in areas of applied physics,computer science, engineering, or biotechnology. The flexibility ofthe curriculum allows students, in consultation with their advisor,to select a program of study to meet their individual interests andeducational goals.

Academic ProgramRequirementsThe primary objective of the one-year masters level study in engineering physics is to provide anopportunity for advanced study at the professional level; students who earn the M.Eng. (EP) degreeare prepared to move into development or research appointments in industrial or governmentalinstitutions.The degree requirements permit considerable flexibility in the course program, which is planned bythe student in consultation with his/her faculty advisor.The following academic components are required:M.Eng Project (AEP 7510)An informal study project, experimental or analytical, which requires individual effort andculminates with a formal report. It is usually completed by the end of the second semester butpermission to continue through the summer may be obtained. The study project is chosen inconsultation with the M.Eng. Director. Typically, the M.Eng. Project Advisor is your faculty advisor,but an appropriate member of the engineering or science faculty may be appointed from outside thefield, subject to the approval of the Director of the Master of Engineering Program.The following are examples of some recent research and design projects completed bystudents in the program: Chemical synthesis and nonlinear optics in microchannelsOn-chip DNA quantificationFabrication of graphene-based devices for the study of atomic membrane interfacesSilicon nanocrystals for solar cellsEngineering a radio-frequency scanning tunneling microscopeSpatially-resolved photocurrent imaging of PbSe quantum dotsCharacterization and measurement of femtosecond pulses using autocorrelationtechniquesComputational simulation of electrohydrodynamic systems pertaining to micro-and nano-scale fluid flow phenomenonCompensation of wake-field-driven energy spread in energy recovery linacs1550nm normal-dispersion femtosecond mode-locking fiber laserTechnology demonstration of the scanning Double Half Wave Interferometer(DHWI) for use on the Stratospheric Observatory for Infrared Astronomy (SOFIE)Vacuum ultraviolet photo ionization studies of fuel-rich ethylene flamesWrinkle-based strain-Engineering of WSe2 quantum emitters

Academic Program Requirements Total number of credits 30 hours minimum/4000 level or higher No grade below C Only 2.0 credits of the 30 hrs minimum may be taken S/U.Required CourseworkAEP 7530“Special Topics Seminar in Applied Physics” (fall term only)1 credit (letter grade)AEP 7540“Special Topics Seminar in Applied Physics” (spring term only)1 credit (letter grade)AEP 7510“M.Eng. Project” 6 - 12 creditsSequenceCourse 1Graduate level course sequence ( 4000 level) in an area ofengineering, applied, or basic science3 - 4 creditsSequenceCourse 2Graduate level course sequence ( 4000 level) in an area ofengineering, applied, or basic science3 - 4 creditsElectivesAdvanced ( 4000 level) courses in an area ofengineering, applied, or basic science8 - 16 credits

Possible Technical Sequences (Fall / Spring)This list is not exclusive. Speak with your faculty advisor regarding other options. The goal is to gaina specialization in an applied field. One course must be taken in the fall semester and the other inspring semester.1. Solid State Physics (AEP 4500) /Applied Solid State Physics (AEP 5500)2. Nanocharacterization (AEP 6610) / Nanofabrication (MSE 5490)3. Nanocharacterization (AEP 6610 /Applied Solid State Physics (AEP 5500)4. Nanocharacterization (AEP 6610) /Electronic Properties of Materials (MSE 6050)5. Thin Film Materials Science (MSE 5430) /Nanofabrication (MSE 5490)6. MicroElectro Mechanical Systems (ECE 4320) /Nanofabrication (MSE 5490)7. MicroElectro Mechanical Systems (ECE 4320) /Applied Solid State Physics (AEP 5500)8. Lasers and Optoelectronics (ECE 4300) /Fiber and Integrated Optics (ECE 4370)9. Lasers and Optoelectronics (ECE 4300) /Quantum & Nonlinear Optics (AEP 4400)10. Quantum Optics (ECE 5310) /Fiber and Integrated Optics (ECE 4370)11. Biophysical Methods (AEP 4700)12. Biophysical Methods (AEP 4700) /Biomedical Optics, Imaging, and Spectroscopy (BME 6260)Computational Engineering Physics (AEP 4380) is a good springclass to accompany many of these fall options.

APPLIED PHYSICS GRADUATEFIELD FACULTYBrock, Joel D.Applied Physicsjdb20@cornell.eduBuhrman, Robert A.Applied Physicsrab8@cornell.eduCohen, ItaiPhysicsic64@cornell.eduDiSalvo, Francis J.Chemistry andChemical Biologyfjd3@cornell.eduErickson, David C.Mechanical andAerospace Engineeringde54@cornell.eduFennie, Craig J.Applied Physicsfennie@cornell.eduFuchs, Gregory D.Applied Physicsgdf9@cornell.eduGiannelis, Emmanuel P.Materials Scienceand Engineeringepg2@cornell.eduGruner, SolPhysicssmg26@cornell.eduHammer, David A.Electrical andComputer Engineeringdah5@cornell.eduHines, Melissa A.Chemistryand Chemical Biologymah11@cornell.eduJena, DebdeepElectrical andComputer Engineering,Materials Science andEngineeringdj326@cornell.eduKourkoutis, Lena F.Applied Physicslf56@cornell.eduKusse, Bruce R.Applied Physicsbrk2@cornell.eduLal, AmitElectrical andComputer Engineeringal274@cornell.eduLambert, GuillaumeApplied Physicslambert@cornell.eduLovelace, Richard V. E.Applied Physicsrvl1@cornell.eduMak, Kin FaiPhysics/Applied Physicskm627@cornell.eduMcEuen, PaulPhysicsplm23@cornell.eduMcMahon, PeterApplied PhysicsMoses, JeffreyApplied Physicspmcmahon@cornell.edujam262@cornell.edu

APPLIED PHYSICS GRADUATEFIELD FACULTYMuller, David A.Applied Physicsdm24@cornell.eduPollack, LoisApplied Physicslp26@cornell.eduPollock, Clifford R.Electrical andComputer Engineeringcrp10@cornell.eduRalph, Daniel C.Physicsdcr14@cornell.eduRobinson, Richard D.Materials Scienceand Engineeringrdr82@cornell.eduSchaffer, Chriscs385@cornell.eduBiomedical EngineeringSchlom, DarrellMaterials Scienceand Engineeringds636@cornell.eduSeyler, Charles E.Electrical andComputer Engineeringces7@cornell.eduShan, JieApplied Physicsjs3469@cornell.eduShvets, GennadyApplied Physicsgs656@cornell.eduThompson, Michael O.Materials Scienceand Engineeringmot1@cornell.eduTiwari, SandipElectrical andEngineeringst222@cornell.eduVan Dover, Robert B.Materials Scienceand Engineeringrbv2@cornell.eduWang, Michellemdw17@cornell.eduPhysicsWang, Zheng JaneMechanical andAerospace Engineeringzw24@cornell.eduWise, Frank W.Applied Physicsfww1@cornell.eduXu, ChrisApplied Physicscx10@cornell.eduZipfel, Warren R.Biomedical Engineeringwrz2@cornell.edu

Kusse, Bruce R. Applied Physics brk2@cornell.edu Lal, Amit Electrical and al274@cornell.edu Computer Engineering Lambert, Guillaume Applied Physics lambert@cornell.edu Lovelace, Richard V. E. Applied Physics rvl1@cornell.edu Mak, Kin Fai Physics/Applied Physics km627@cornell.edu Mc

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