| First cycle degree courses | Second cycle degree courses | Single cycle degree courses |
| School of Engineering | ||
| ICT FOR INTERNET AND MULTIMEDIA | ||
Course unit
MOLECULAR PHOTONICS
INP8084203, A.A. 2019/20
Information concerning the students who enrolled in A.Y. 2019/20
MOLECULAR PHOTONICS
INP8084203, A.A. 2019/20
Information concerning the students who enrolled in A.Y. 2019/20
Information on the course unit
| Degree course |
Second cycle degree in ICT FOR INTERNET AND MULTIMEDIA (Ord. 2019) IN2371, Degree course structure A.Y. 2019/20, A.Y. 2019/20 |
 bring this page with you |
|---|---|---|
| Degree course track | PHOTONICS [003PD] | |
| Number of ECTS credits allocated | 6.0 | |
| Type of assessment | Mark | |
| Course unit English denomination | MOLECULAR PHOTONICS | |
| Department of reference | Department of Information Engineering | |
| E-Learning website | https://elearning.dei.unipd.it/course/view.php?idnumber=2019-IN2371-003PD-2019-INP8084203-N0 | |
| Mandatory attendance | No | |
| Language of instruction | English | |
| Branch | PADOVA | |
| Single Course unit | The Course unit can be attended under the option Single Course unit attendance | |
| Optional Course unit | The Course unit can be chosen as Optional Course unit |
Lecturers
| Teacher in charge | MARIA-GUGLIELMINA PELIZZO |
|---|
Mutuated
| Course unit code | Course unit name | Teacher in charge | Degree course code |
|---|---|---|---|
| INP8084203 | MOLECULAR PHOTONICS | MARIA-GUGLIELMINA PELIZZO | IN2371 |
| INP8084203 | MOLECULAR PHOTONICS | MARIA-GUGLIELMINA PELIZZO | IN0520 |
| INP8084203 | MOLECULAR PHOTONICS | MARIA-GUGLIELMINA PELIZZO | IN2371 |
ECTS: details
| Type | Scientific-Disciplinary Sector | Credits allocated | |
|---|---|---|---|
| Educational activities in elective or integrative disciplines | FIS/03 | Material Physics | 6.0 |
Course unit organization
| Period | First semester |
|---|---|
| Year | 1st Year |
| Teaching method | frontal |
| Type of hours | Credits | Teaching hours |
Hours of Individual study |
Shifts |
|---|---|---|---|---|
| Lecture | 6.0 | 48 | 102.0 | No turn |
| Start of activities | 30/09/2019 |
|---|---|
| End of activities | 18/01/2020 |
| Show course schedule | 2019/20 Reg.2019 course timetable |
Examination board
| Board | From | To | Members of the board |
|---|---|---|---|
| 1 A.A. 2018/2019 | 01/10/2018 | 15/03/2020 |
PELIZZO
MARIA-GUGLIELMINA
(Presidente)
CORSO ALAIN JODY (Membro Effettivo) NICOLOSI PIERGIORGIO (Supplente) TESSAROLO ENRICO (Supplente) |
| Prerequisites: | Fundamentals of electromagnetics (e.g., as taught in the course of "Physics II"). |
| Target skills and knowledge: | This course explores the fundamentals of light-matter interaction and photonics phenomena. The course will also provide an introduction to practical photonic components and systems and provide an overview of applications of photonics in sensor systems dedicated to agrifood, environmental monitoring and biosensing. |
| Examination methods: | Oral exam. |
| Assessment criteria: | Knowledge of theory and the understanding of the applicative aspects of the discipline. Ability to apply the theoretical concepts to concrete cases. Ability to expose the concepts through appropriate terminology. |
| Course unit contents: | Principles of photometry and radiometry. Quantum nature of light: blackbody radiation and Planck law, photoelectric effect, Compton effect. Bohr atom, limits of Bohr model and the Heisenberg uncertainty principle, introduction to quantum mechanics. Schrödinger equation, wavefunctions and solutions. Hydrogen and Hydrogen-like atoms, quantum numbers and atomic orbitals. Electronic configuration of groups in the periodic table. Molecules, rotational and vibrational transitions and spectra. Dye molecules. Quantum dots. Occupation of energy levels and Boltzmann distribution. Absorption, spontaneous and stimulated emission. Lineshape function, lifetime broadening, collision broadening, Doppler effect. Thermal light, blackbody radiation spectrum, thermography and its applications. Luminescence and photoluminescence. Laser working principles, active medium and Einstein coefficients, resonant cavity. Example of lasers and their applications. Natural and artificial sources and their emission spectra. Biological effects of light, action spectra and regulations. Synchrotron radiation and its application in microscopy. Spectroscopic instrumentation: monochromators, spectrographs, imaging spectrographs, multispectral and hyperspectral imaging remote sensing. Fourier optics and Infrared Fourier Transform Spectroscopy and its applications in agrifood and gas sensing.
Electromagnetic waves in dielectric media. Materials properties, absorption and dispersion. Kramers-Kronig relation. Resonances in media. Sellmeier equation. Optics of conductive media. Drude model. Optics of negative-index materials. Polarization of light and matrix representation. Reflection and refraction. Total reflection. Ellipsometric techniques and their application in materials characterization. Surface Plasmon Polaritons in metals. Surface Plasmon Resonance optical transducers and their application in biosensing. Materials and sensors in space environment. |
| Planned learning activities and teaching methods: | Lectures, tutorials and laboratory. |
| Additional notes about suggested reading: | Selected chapters from reference books. Slides. |
| Textbooks (and optional supplementary readings) |
|