Introduction to photochemistry

Luca Bertini ; Federica Arrigoni; Claudio Greco ; Antonio Papagni

English

The basic principles of Photophysics and photochemistry applied to photocatalisys

  • Unimolecular and bimolecular excited state decay processes
  • Dyad photosensitizer-catalist in pohotocatalysis
  • Photoinduced Electron transfer: Markus theory and quantum approach
  • Energy transfer: Förster and Dexter mechanism
  • All-in-one example: [Ru(bpy)3]2+ in electron-trasfer and energy transfer photocatalysis
  • How to investigate photocatalytic processes: experimental tecniques (absorption and emission spectroscopies, photochemical kinetic measurement within Stern-Volmer equation) and computational approches (Time-dependent DFT)



Photophysics:

- light-matter interaction and photostimulation processes

- Interactions between atoms and molecules and photographic processes

- Frank-Condon's Principle

- Dynamics and time scale for decaying an excited state (fluorescence, phosphorescence)

Photochemistry:

- Organic photochemistry and photochemical processes

- Organic photochemistry: Photostimulate organic reactions

- Radical or ionic dissociation

- Intrameloogic rearrangements and photoisomers

- Hydrogen atom abstraction

- Photodimerization, photoaddition, photoionisation reactions

- Photochemical activity of aromatic compounds

- photochemistry of diazo- and azide compounds

- Photo-removable protective groups

- Chemiluminescence

Technical and experimental aspects of organic photochemistry

- Inorganic photochemistry and coordination compounds

- Characterization of the inorganic and coordinated electron spectra

- Decay and Lifetime kinetics of an excited state

- Energy transfer: Förster and Dexter mechanism

- Electron transfer: Markus theory and quantum approach

- Proton-coupled electron transfer

- Redox properties of excited states of coordination compounds: the case of [Ru(bpy)3]2+;

Objective of the program: The mini-course of photochemistry is an introduction to a selection of general, organic, inorganic, biological, solid state and theoretical photochemical themes with the aim of providing to phd students knowledge in basic principles and application of photochemistry.


Evaluation: NO

2 CFU - 16 Hours (Lecture)

Introduction to photochemistry

Luca Bertini ; Federica Arrigoni; Claudio Greco ; Antonio Papagni

English

The basic principles of Photophysics and photochemistry applied to photocatalisys

  • Unimolecular and bimolecular excited state decay processes
  • Dyad photosensitizer-catalist in pohotocatalysis
  • Photoinduced Electron transfer: Markus theory and quantum approach
  • Energy transfer: Förster and Dexter mechanism
  • All-in-one example: [Ru(bpy)3]2+ in electron-trasfer and energy transfer photocatalysis
  • How to investigate photocatalytic processes: experimental tecniques (absorption and emission spectroscopies, photochemical kinetic measurement within Stern-Volmer equation) and computational approches (Time-dependent DFT)


Photophysics:

- light-matter interaction and photostimulation processes

- Interactions between atoms and molecules and photographic processes

- Frank-Condon's Principle

- Dynamics and time scale for decaying an excited state (fluorescence, phosphorescence)

Photochemistry:

- Organic photochemistry and photochemical processes

- Organic photochemistry: Photostimulate organic reactions

- Radical or ionic dissociation

- Intrameloogic rearrangements and photoisomers

- Hydrogen atom abstraction

- Photodimerization, photoaddition, photoionisation reactions

- Photochemical activity of aromatic compounds

- photochemistry of diazo- and azide compounds

- Photo-removable protective groups

- Chemiluminescence

Technical and experimental aspects of organic photochemistry

- Inorganic photochemistry and coordination compounds

- Characterization of the inorganic and coordinated electron spectra

- Decay and Lifetime kinetics of an excited state

- Energy transfer: Förster and Dexter mechanism

- Electron transfer: Markus theory and quantum approach

- Proton-coupled electron transfer

- Redox properties of excited states of coordination compounds: the case of [Ru(bpy)3]2+;

Objective of the program: The mini-course of photochemistry is an introduction to a selection of general, organic, inorganic, biological, solid state and theoretical photochemical themes with the aim of providing to phd students knowledge in basic principles and application of photochemistry.


Evaluation: NO

2 CFU - 16 Hours (Lecture)

II semester 

Staff

    Teacher

  • Federica Arrigoni
  • Luca Bertini
    Luca Bertini
  • Claudio Greco
    Claudio Greco
  • Antonio Papagni

Enrolment methods

Manual enrolments
Self enrolment (Student)