| Semestre: | 2020-1 |
| Responsável: | Prof. Philippe W. Courteille, philippe.courteille@ifsc.usp.br, Sala 45 do Grupo de Óptica |
| Início e termino das aulas: | 19.2.2020 até 4.7.2020 |
| Consultas: | Sexta-feira à tarde na Sala 45 do Grupo de Óptica |
| Horário e local da aula: | Quarta-feira 10h00 à 12h00 na sala 202 e Quinta-feira de 8h50 à 9h50 na sala 147 |
| Feriados: | 6.4.-12.4.2020 (semana santa), 20.4.-21.4. (Tiradentes), 1.5. (dia do trabalho) |
| Carga Horária (por semana): |
| Teória | 4 |
| Prática | 3 |
| Estudos | 8 |
| Duração | 15 semanas |
| Total | 225 horas |
|
| |
| Ementa: | Este curso tem como objetivo transmitir conceitos fundamentais de espectroscopia óptica,
abordando tanto aspectos fundamentais quanto instrumentais, tais como interação da luz com a matéria,
absorção, fluorescência, espectros atômicos e moleculares e suas características, processos de saturação,
fontes e detectores de luz. Técnicas espectroscópicas de óptica linear serão introduzidas nesse curso.
|
| Literatura recomendada: |
| Philippe W. Courteille, Apostila do Curso: A practical course in Optical Spectroscopy |
| Philippe W. Courteille, Apostila do Curso: Atom-Light Interaction and Basic Applications |
| Philippe W. Courteille, Apostila do Curso: Quantum Mechanics applied to Atoms and Light |
| W. Demtröder, Laser spectroscopy: basic concepts and instrumentation; 2. ed., Berlin, Springer Verlag (1996) |
| G.R. Fowles, Introduction to Modern Optics, New York, Holt, Rinehart and Winston (1968) |
| S.C. Zilio, Óptica Moderna, IFSC-USP (2009) |
|
| Data de entrega | Capítulos da apostila | Exercício | Tópicos |
| ---------------------- | ---------------------------- | ------------ | ----------- |
| 19.02.2020 | 1.1.1 - 1.2.3 | | The area of optics and spectroscopy, energy of electromagnetic fields, blackbody radiation |
| 20.02.2020 | | 1.2.8.1 | Resistance of vacuum |
| 20.02.2020 | | 1.2.8.2 | The laws of Planck and Rayleigh-Jeans |
| 27.02.2020 | | 1.2.8.3 | The laws of Wien and Stefan-Boltzmann |
| 27.02.2020 | | 1.2.8.4 | Photons in a resonator |
| 27.02.2020 | | 1.2.8.5 | Number of modes in a cavity |
| 04.03.2020 | 1.2.4 - 1.2.8 | | Einstein transition rates, light propagation in gases, spectral line profiles |
| 05.03.2020 | | 1.2.8.6 | Number of photons emitted from lasers and blackbodies |
| 05.03.2020 | | 1.2.8.7 | Number of photons per radiation mode |
| 11.03.2020 | 1.3.1 -1.3.2 | | Perturbative two-level system, dressed states |
| 12.03.2020 | | 1.2.8.8 | Atoms in an optical cavity |
| 12.03.2020 | | 1.2.8.9 | Sodium atoms in an optical cavity |
| 18.03.2020 | 1.3.3 | | Numerical simulation and quantum jumps |
| 19.03.2020 | | 1.2.8.10 | Applying the Lambert-Beer law |
| 19.03.2020 | | 1.3.5.1 | Rabi oscillation |
| 19.03.2020 | | 1.3.5.2 | Rabi method |
| download | | Tutorial Scientific Workplace (pdf) |
| download | | Tutorial Scientific Workplace (tex) |
| download | | Tutorial Matlab |
| 19.03.2020 | 1.5.1 | | Level structure of alkali atoms |
| 25.03.2020 | 1.5.2 | | Angular momentum and selection rules |
| 26.03.2020 | | 1.3.5.3 | Ramsey fringes |
| 26.03.2020 | | 1.3.5.4 | Light-shift |
| 26.03.2020 | | 1.3.5.6 | Non-hermitian time evolution (optional) |
| 26.03.2020 | 1.5.3 - 1.5.4 | | Optical transitions in multilevel atoms |
| 01.04.2020 | 1.5.5 | | Role of polarization |
| 02.04.2020 | | 1.5.6.1 | Zeeman shift and quantization axes |
| 02.04.2020 | | 1.5.6.2 | The Stern-Gerlach effect |
| 08.04.2020 SS | QM script: 3.4.1 - 3.5.2 | | Harmonic quantum oscillator and coherent states |
| 09.04.2020 SS | QM script: 14.1.1 - 14.2.1 | | 2nd quantization and Jaynes-Cummings model |
| 15.04.2020 | 2.1.1 - 2.2.2 | | Photometric quantities and Gaussian optics |
| 17.04.2020 | | 2.1.2.1 | Emission of an argon laser |
| 17.04.2020 | | 2.2.3.1 | Imaging through a thin lens |
| 17.04.2020 | | 2.2.3.2 | Image of a convex lens |
| 22.04.2020 | 2.3.1 | | Polarization optics and Jones matrices |
| 23.04.2020 | 2.3.2 | | Fresnel formulae and Brewster angle |
| 24.04.2020 | | 2.2.3.7 | Diameter of a Gaussian beam |
| 24.04.2020 | | 2.2.3.8 | Diffraction of a Gaussian beam at a slit |
| 24.04.2020 | | 2.2.3.10 | Focusing a HeNe laser |
| 29.04.2020 | 1.4.1 - 1.4.2 | | Width of spectral lines and saturation |
| 30.04.2020 | 1.4.3 - 1.4.4 | | Homogeneous and inhomogeneous broadening mechanisms |
| 01.05.2020 | | 2.2.3.11 | Spatial filtering |
| 01.05.2020 | | 2.2.3.12 | Transverse mode selection in an Ar laser |
| 01.05.2020 | | 2.3.3.1 | Light power control using polarization optics |
| 06.05.2020 | 4.1.1 - 4.1.2 | | Beam splitting and interferometry with Michelson |
| 07.05.2020 | 4.1.3 - 4.1.4 | | Interferometry with Mach-Zehnder, Lyot filter |
| 08.05.2020 | | 2.3.3.4 | Thickness of a half-waveplate (Kauê) |
| 08.05.2020 | | 2.3.3.5 | Faraday isolator (Rafael) |
| 08.05.2020 | | 4.1.9.1 | Characterizing a piezo actuator (Jonathas) |
| 13.05.2020 | 4.1.5 | | Mirrors and filters, optical resonators and fibers |
| 14.05.2020 | 4.1.6 - 4.1.7 | | Lasers |
| 15.05.2020 | | 4.1.9.2 | Michelson interferometer (Isabela) |
| 15.05.2020 | | 4.1.9.4 | Rotating the polarization with a Mach-Zehnder interferometer (Jonathas) |
| 15.05.2020 | | 4.1.9.5 | Lyot filter (Kauê) |
| 15.05.2020 | | 4.1.9.6 | Wedge-shaped etalon (Mario) |
| 15.05.2020 | | 4.1.9.7 | Fabry-Pérot interferometer (Rafael) |
| 20.05.2020 | 4.2.1 - 4.2.3 | | HeNe laser, laser diodes and extended cavity diode laser |
| 21.05.2020 | 4.3.1 | | Acousto-optic modulation |
| 22.05.2020 | | 4.1.9.8 | Confocal and concentric cavities (Isabela) |
| 22.05.2020 | | 4.1.9.10 | Stability of a supercavity (Jonathas) |
| 22.05.2020 | | 4.1.9.12 | Interference and colors filters (Kauê) |
| 22.05.2020 | | 4.1.9.13 | Interference filter (Mario) |
| 22.05.2020 | | 4.1.9.14 | Cut-off wavelength of a single-mode fiber (Rafael) |
| 27.05.2020 | 4.3.3 | | The Pockels effect, electro-optic phase modulation and optical sidebands |
| 28.05.2020 | 4.4.1 - 4.4.3 | | Frequency beating, homo- and heterodyning |
| 29.05.2020 | | 4.1.9.15 | Tuning by tilting an etalon (Isabela) |
| 29.05.2020 | | 2.2.3.13 | Anamorphic prism (Jonathas) |
| 29.05.2020 | | 4.2.4.2 | Threshold inversion for lasing 1 (Kauê) |
| 29.05.2020 | | 4.2.4.3 | Threshold inversion for lasing 2 (Mario) |
| 29.05.2020 | | 2.2.3.15 | Beam steering with two wedged substrates (Rafael) |
| 03.06.2020 | 5.2.2 | | Saturated absorption spectroscopy |
| 04.06.2020 | 5.2.3 | | Frequency modulation and modulation transfer spectroscopy |
| 05.06.2020 | | 4.3.4.1 | Response time of an AOM (Isabela) |
| 05.06.2020 | | 4.3.4.2 | Intensity stabilization with a Pockels cell (Jonathas) |
| 05.06.2020 | | 4.3.4.3 | Generating sidebands with an EOM (Kauê) |
| 05.06.2020 | | 4.3.4.4 | Reflection of a phase-modulated signal from an optical cavity (Mario) |
| 05.06.2020 | | 4.4.4.1 | Pound-Drever-Hall signal (Rafael) |
| 10.06.2020 | 5.3.1 & 5.4.4 | | Polarization spectroscopy and Raman spectroscopy |
| 17.06.2020 | | | A virtual lab tour by Dalila Rivero |
| 18.06.2020 | 6.1.1 - 6.3.3 | | Intensity & frequency stabilization techniques |