OpenQuantum
  • Program Overview
  • Blueprints
    • Overview
    • External Cavity Diode Laser
    • Saturated Absorption Spectroscopy
    • Ultrahigh Vacuum
    • Electromagnetics & Trapping Optics
  • Curriculum
    • Course Logistics
    • 0 - Introduction to Atomic Physics
    • 1 - External-Cavity Diode Lasers (PID Control & Electronics)
      • Theory - External-Cavity Diode Lasers (PID Loops / Electronics)
      • Experiment - External-Cavity Diode Lasers (PID Loops / Electronics)
    • 2 - External-Cavity Diode Lasers (Assembly)
      • Theory - External-Cavity Diode Lasers (Assembly)
      • Experiment - External-Cavity Diode Lasers (Assembly)
    • 3 - Interferometry (Michelson & Mach-Zehnder)
      • Theory - Interferometry (Michelson & Mach-Zehnder)
      • Experiment - Interferometry (Michelson & Mach-Zehnder)
    • 4 - Absorption Spectroscopy
      • Theory - Absorption Spectroscopy
    • 5 - Frequency-stabilisation
      • Theory - Frequency-stabilisation
      • Experiment - Frequency-Stabilisation
    • 6 - Vacuum Chambers (Cleaning & Assembly)
      • Theory - Vacuum Chambers (Cleaning & Assembly)
      • Page
    • 7 - Vacuum Chambers (Ultra-high vacuum)
      • Vacuum Chambers - ?
    • 8 - Magneto-Optical Trap (Magnetic-field coils)
    • 9 - Magneto-Optical Trap (Beam-shaping)
    • 10 - Magneto-Optical Trap (Fiberization and Laser Alignment)
    • 11 - Magneto-Optical Trap (Atom trapping)
      • Theory - Magneto-Optical Trap (Atom trapping)
  • New Format
    • Course Outline
    • AMO Physics
    • The "M" Part of MOT
      • Theory - the "M" part of MOT
      • Theory - A brief note on Selection Rules
    • 2 - Laser Physics and Control Systems
      • Theory - External-Cavity Diode Lasers (Assembly)
      • Experiment - External-Cavity Diode Lasers (Assembly)
      • Theory - External-Cavity Diode Lasers (PID Loops / Electronics)
      • Experiment - External-Cavity Diode Lasers (PID Loops / Electronics)
    • 3 - Alignment and Interferometry
      • Theory - Interferometry
    • 4 - Interferometry II
    • 5 - Absorption Spectroscopy
      • Theory - Absorption Spectroscopy
    • 6 - Saturated Absorption Spectroscopy
      • Theory - Saturated Absorption Spectroscopy
    • 7 - Laser Locking
    • 8 - Ultrahigh Vacuum
      • Theory - Ultrahigh Vacuum
    • 9 - Fiber Alignment and Beam Shaping
    • 10 - Polarimetry and Magnetometry
    • 11 - Pumping and Repumping
      • Theory - Optical Pumping
    • 12 - Trapped Atom Experiments
      • Theory - Time of Flight Measurements
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  • Instructors
  • Teaching Assistants
  • Catalog Information
  • Overview
  • Schedule
  • Grading
  1. Curriculum

Course Logistics

This is a template for a course logistics page for educators to adapt to their institution and curriculum.

Instructors

TBD

Teaching Assistants

TBD

Catalog Information

Description: This course is designed for advanced undergraduates studying physics, applied physics, or engineering. Basic understanding of electromagnetism and optics knowledge is assumed.

Prereqs:

Units: XX

Meeting times: XX

Office hours: TBD

Overview

The ultimate goal of the following curriculum is to provide students with both the basic theoretical understanding and experimental skillset to construct a magneto-optical trap for neutral rubidium.

As part of this, students will construct their own external cavity diode laser, learn about frequency and temperature stabilization, optics and beam propagation/shaping, ultrahigh vacuum chambers, as well as magnetic field generation and atom trapping.

Schedule

Timeline: Curriculum is designed around ~12 lessons, spanning about 3 hours each week (2 sessions of 1.5 hrs).

Lesson Content/Structure: Each lesson is designed to cover 1 experiment, with each experiment meant to cover 1 to 2 physics and practical engineering concepts relevant to the experiment. Each lesson is additive: students will be building their knowledge and skillset on what they have learnt in the previous lesson, as well as on their previous experimental progress.

12 lesson overview:

Lesson
Topics

1

Introduction to Quantum Engineering (+ Laser Safety)

2

Laser Physics and Control Systems

3

Alignment and Interferometry

4

Interferometry II

5

Absorption Spectroscopy

6

Saturated Absorption Spectroscopy

7

Laser Locking

8

Ultrahigh Vacuum

9

Fiber Alignment and Beam Shaping

10

Polarimetry and Magnetometry

11

Pumping and Repumping

12

Trapped Atom Experiments

Grading

TBD

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Last updated 9 months ago