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MENG 31500 — Advanced Quantum Engineering II (Winter Quarter 2026)

Syllabus and Course Outline subject to updates, check course site for any modifications.



  • Instructor: Prof. Aashish Clerk
  • Lectures: Tues&Thurs 11:00am–12:20pm, KPTC 105
  • Instructor office hours: Thurs 4:30pm–5:30pm (and by appointment)

  • Course TA: Andy Chu (ctchu@uchicago.edu)
  • Discussion session: Friday 1:30pm–2:50pm, Zoom

  • PME Tutor Program support: Adi Gandotra (Zoom)
    • Mondays 9:00–11:30am
    • Wednesdays 1:30–4:00pm

Grading Structure

  • Problem sets: 20%

    • Approximately weekly
    • Typically posted Monday and due the following Monday at midnight via Canvas
    • Late assignments are not graded
    • Collaboration is allowed for discussion, but submitted work must be written up independently in the student’s own words
  • Midterm exam: 35%

    • Wed. Feb. 4, 5:30pm - 7:30pm KPTC 105
    • Will cover Lecs. 1 - 8
    • You will be provided a basic formula sheet (will post this by early next week)
    • Questions will be directly connected to problem set questions and concepts explicitly discussed in lectures & notes.
  • Final exam: 45%

    • Three-hour exam during the regular final exam period
    • Cumulative over the entire course

Course Materials

  • Scanned handwritten lecture notes will be provided on Canvas.
  • Textbooks:
    • Sakurai & Napolitano, Modern Quantum Mechanics (3rd ed., 2020)
    • Shankar, Principles of Quantum Mechanics (2nd ed., 1994)

Topics

  • Entanglement and angular momentum

    • Tensor product spaces; entangled states
    • Clebsch–Gordon coefficients
    • Wigner–Eckart theorem
  • Quantum information preliminaries

    • Bell’s theorem; Hardy paradox
    • Superdense coding
  • Time-independent perturbation theory

    • Non-degenerate and degenerate perturbation theory
    • Applications drawn from atomic physics, quantum optics, and quantum information
  • Time-dependent perturbation theory

    • Interaction picture
    • Fermi’s Golden Rule and applications
  • Many-particle systems

    • Identical particles (bosons and fermions), exchange symmetry/statistics
    • Second quantization