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Self-paced Advanced

Fundamentals of Nano and Quantum Photonics

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FREE
1061 min
Anytime
English
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Why enroll

Participants join this course because it opens a window into one of the most exciting and fast-growing areas of modern science and technology. It helps learners understand how light behaves at the nano and quantum scale, which is the foundation of many future technologies such as quantum computing, advanced sensors, and nanophotonic devices.The course is especially valuable for students and researchers who want to strengthen their research thinking, build intuition beyond textbook theory, and learn analytical tools used in real research work. It also helps participants connect fundamental concepts with ongoing research trends, making them more confident in pursuing higher studies, publishing research, or starting work in advanced photonics and quantum technology fields.

Is this course for you?

You should take this if

  • You work in Electronics & Instrumentation
  • You're a Electronics & Telecommunication / Physics & Physical Science professional
  • You have 3+ years of hands-on experience in this field
  • You want to build skills in Engineering & Design, Project Management

You should skip if

  • You're new to this field with no prior experience
  • You need a different specialisation outside Electronics & Telecommunication
  • You need live interaction with an instructor

Course details

This course aims to introduce students to advanced topics and current research areas in Nano and Quantum Optics. It focuses on the basic principles while helping learners build strong intuition and practical analytical skills.The course is mainly intended for postgraduate students and PhD research scholars in Photonics. Senior undergraduate students from ECE, EE, Physics, or related fields will also benefit by gaining early exposure to this cutting-edge research area. Faculty members who wish to expand their knowledge or prepare for research-oriented programs will also find this course useful.
Source - NPTEL,NOC IITM

Course suitable for

Key topics covered

  • Fundamentals of nanophotonics

  • Light–matter interaction

  • Plasmonics

  • Dielectric nanostructures

  • Photonic crystals

  • Metamaterials

  • Nano-lasers

  • Nanofabrication

  • Quantum photonics

  • Photon statistics

  • Single-photon sources

  • Light–atom interactions

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

30 lectures17 hr 41 min
  1. Photonic integrated circuits course introduction
    39 min
  2. Wave optics review
    26 min
  3. Electromagnetic theory review 1
    27 min
  4. Electromagnetic theory review 2
    64 min
  5. Photonic integrated circuits: an introduction
    25 min
  6. Photonic integrated circuits evolution
    44 min
  7. Photonic integrated circuit components 1
    29 min
  8. Photonic integrated circuit components 2
    22 min
  9. Dispersion
    47 min
  10. Phase velocity and Group velocity
    30 min
  11. Anisotropic medium and reciprocity
    41 min
  12. Polarisation in anisotropic medium
    40 min
  13. Optical axes
    43 min
  14. Waveguide structure
    32 min
  15. Waveguide modes 1
    31 min
  16. Waveguide modes 2
    49 min
  17. Field Equation
    25 min
  18. Guided modes in symmetric
    23 min
  19. Waveguide design-boundary value formulation
    46 min
  20. Waveguide design-BVP solution
    31 min
  21. Waveguide design-perturbation approach
    33 min
  22. Waveguide design Effective Index method
    38 min
  23. Coupled mode theory 1
    43 min
  24. Coupled mode theory - 1
    34 min
  25. Two-mode coupling
    28 min
  26. Co and counter propagating mode coupling
    56 min
  27. Phase matching
    15 min
  28. Directional coupler
    42 min
  29. Y-splitter
    23 min
  30. Multi-Mode Interference coupler
    35 min

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Questions and Answers

A: Picking the wrong call here sends wafers to fab with the slab intact, and that wrecks spectral alignment across the die. Marking the slab as block suppresses etch, so the intended partial etch never happens, driving neff up and dragging the ring off target by multiple FSRs. Catching it at drawing review avoids a full mask respin and months of slip.

A: Getting this wrong leads to emitter-cavity coupling targets that never close, and the experiment dies quietly. Using the normalized mode volume already expressed in (λ/n)^3, the standard Purcell relation drops straight out and lands near three thousand. That aligns expectations for lifetime shortening without inventing extra scaling terms.

A: Skipping this step risks burning a nanowire or blowing a low-noise amplifier before you ever see 2 K. Verifying continuity and insulation with the system warm catches shorts, opens, and ground faults that become catastrophic once biased cold. Everything else waits until the basics are proven safe.

A: Misclassifying this triggers either overkill controls or unsafe complacency, both bad for schedule and people. IEC 60825 treats fully enclosed systems as Class 1 when accessible emission stays below limits, even if internal power is higher. The connector panel is evaluated under normal use, not worst-case abuse.