- Autumn 2021
Syllabus Description:
This course is geared towards introducing the field of nanomechanics to early-career graduate students, with a focus on the breadth of contemporary applications. Students will learn fundamentals and survey the current state-of-the-art, learning how mechanical vibrations can be employed in studying fundamental physics and applied to quantum technologies. Topics include (~1 week/topic):
Precision measurements:
- Pushing the limits of force and mass detection
- Experimental tests of gravity (tests of collapse models and short-range corrections)
- Measurements beyond the standard quantum limit
Optomechanics:
- Optical cooling – analogies to cold atoms
- Nonlinear optomechanical effects (synchronization, frequency combs etc.)
- Single photon optomechanics (strong/ultra-strong coupling regime)
Quantum Computing:
- Nanomechanical Qubits
- Resonators as quantum memory elements
- Coupling to charge-based qubits
The course will be split between lectures on fundamental concepts and presentations on contemporary research articles by students (or teams of students based on enrollment).
The overarching goal of the course is to introduce students to a wide range of applications of nanomechanical resonators and help develop their intuition on how mechanical degrees of freedom couple with electrons and photons. Aside from the course content, additional learning goals include strengthening students’ skills in literature review and oral presentations. The course is suitable for Physics, ECE, and ME students, among others.
Grading:
This course is primarily based on active participation. You will be assigned research papers/topics in groups to present during segments of class time.
Aside from participation, you will be asked to individually write a short review on a subtopic of your choosing.
Tentative Schedule:
Week 1 | Sept: 30: Intro Lecture | |
Week 2 | Oct. 5: Force/mass detection | Oct. 7: Force/mass detection |
Week 3 | Oct. 12: Tests of gravity | Oct. 14: Tests of gravity |
Week 4 | Oct. 19: Beyond the standard limit | Oct. 21: Beyond the standard limit |
Week 5 | Oct. 26: Optical cooling | Oct. 28: Optical cooling |
Week 6 | Nov. 2: Nonlinear optomechanics | Nov. 4: Nonlinear optomechanics |
Week 7 | Nov. 9: Single photon optomechanics | Nov. 11: Veteran's Day |
Week 8 | Nov. 16: Single photon optomechanics | Nov. 18: Nanomechanical qubits |
Week 9 | Nov. 23: Nanomechanical qubits | Nov. 25: Thanksgiving |
Week 10 | Nov. 30: Quantum memory elements | Dec. 2: Quantum memory elements |
Week 11 | Dec. 7: Coupling to qubits | Dec. 9: Coupling to qubits |