Optics and Photonics
Generation, propagation, and detection of light at classical and engineered scales.
Optics and Photonics is a topic within classical physics. Generation, propagation, and detection of light at classical and engineered scales. The area sits at the intersection of foundational theory and active research practice, and its methodology is shaped by a small set of canonical references that frame how problems are posed, how results are validated, and what counts as progress.
Work in this area progresses along several axes: the canonical theoretical framework, benchmark problems that calibrate methods against known answers, computational and experimental tooling that extends reach to larger or more complex systems, and frontier questions that current references either open up or partially answer. The references cited below illustrate these axes in different ways and together define the working vocabulary of the field.
Foundational references
The primary references for this topic establish the conceptual core and the standard problem set.
Principles of Optics (Born et al., 1999) is treated here as a primary reference for this area; its presentation of the subject is the canonical entry point for learners moving from prerequisites into independent work on optics and photonics.
Fundamentals of Photonics (Saleh et al., 2019) is treated here as a primary reference for this area; its presentation of the subject is the canonical entry point for learners moving from prerequisites into independent work on optics and photonics.
Open methodological questions in optics and photonics include the precise scope of validity of the current dominant techniques, the integration of newer computational or experimental tools, and how this topic connects to neighbouring areas in the tree. Subsequent waves of editing will deepen these connections and add fresh frontier references as the literature evolves.
Prerequisites
Sources
- textbook · primary · 1999Principles of Opticsborn-1999, wolf-1999
- textbook · primary · 2019Fundamentals of Photonicssaleh-2019, teich-2019
In context
Where this topic sits in the prerequisite graph. Click any node to jump.
Explore
- 01
Geometric Optics
Ray-based imaging through lenses, mirrors, aberrations, and optical instruments.
- 02
Wave Optics
Interference, diffraction, polarization, and coherence of classical light fields.
- 03
Nonlinear Optics
Frequency conversion, self-focusing, and parametric processes in materials with intensity-dependent response.
- 04
Laser Physics
Population inversion, mode structure, and dynamics of optical amplifiers and resonators.
- 05
Integrated Photonics
On-chip optical circuits in silicon, lithium niobate, and III–V platforms for communications and computing.
- 06
Fiber Optics
Guided light in optical fibers: dispersion, nonlinear pulse propagation, and telecom systems.
- 07
Quantum Optics
Quantization of light, photon statistics, squeezed states, and atom–photon interaction.
- 08
Biophotonics
Use of light for biological imaging, sensing, and therapy across cellular and tissue scales.
- 09
Ultrafast Optics
Femtosecond and attosecond pulse generation, mode-locking, and time-resolved measurement.
- 10
Topological Photonics
Photonic systems with topologically protected edge modes inspired by condensed-matter band topology.
- 11
Holography
Recording and reconstruction of full optical wavefronts and modern computer-generated holograms.
- 12
Quantum Photonic Integration
Integrated photonic chips for generating, manipulating, and detecting quantum light.
- 13
Optomechanics
Radiation-pressure coupling of optical and mechanical modes in micro- and nanostructures.
- 14
Microcavity Photonics
High-Q optical microresonators for sensing, frequency combs, and nonlinear photonics.
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