A complete characterization of solar energy conversion devices and the processes underlying their function is a challenge, and require a multitude of different experimental methods. This chapter discusses investigations of molecular solar cells and solar fuels devices by time-resolved laser spectroscopic methods. These methods have established important concepts we now use for understanding the function of devices for solar energy conversion into primary products. We give examples of scientific insight provided by ultrafast methods using detection in the regions from X-ray to THz radiation, and particularly highlight the case where the use of different methods has provided complementary information. Charge collection and solar fuel catalysi...
Femtosecond time-resolved photoelectron spectroscopy is emerging as a new technique for investigatin...
Using in situ ultrafast laser spectroscopic techniques to monitor the charge dynamics of semiconduct...
International audienceTime-resolved (TR) infrared (IR) spectroscopy in the nanosecond to second time...
A complete characterization of solar energy conversion devices and the processes underlying their fu...
Solar energy is the most abundant renewable energy source available. Conversion of light into electr...
Electrons are the workhorses of solar energy conversion. Conversion of the energy of light to electr...
Light–matter interaction may lead to three fundamental phenomena, viz. (i) absorption, (ii) emission...
Symposium Y - Advanced materials and characterization techniques for solar cells II - Poster Session...
Contains a summary of research.Joint Services Electronics Program (Contract DAABO7-76-C-1400
Time-resolved spectroscopy is a powerful tool for studying fundamental photophysics in optoelectroni...
The need for developing highly efficient solar cell devices have never been so pressing until recent...
The work covered in this thesis all falls under the theme of photophysical processes after light and...
In this thesis, time-resolved spectroscopic techniques are used to link the activity of materials fo...
Studying molecular dynamics and chemical kinetics is important to understand the chemical behavior o...
Time-resolved soft x-ray photoelectron spectroscopy is used to probe the non-steady-state evolution ...
Femtosecond time-resolved photoelectron spectroscopy is emerging as a new technique for investigatin...
Using in situ ultrafast laser spectroscopic techniques to monitor the charge dynamics of semiconduct...
International audienceTime-resolved (TR) infrared (IR) spectroscopy in the nanosecond to second time...
A complete characterization of solar energy conversion devices and the processes underlying their fu...
Solar energy is the most abundant renewable energy source available. Conversion of light into electr...
Electrons are the workhorses of solar energy conversion. Conversion of the energy of light to electr...
Light–matter interaction may lead to three fundamental phenomena, viz. (i) absorption, (ii) emission...
Symposium Y - Advanced materials and characterization techniques for solar cells II - Poster Session...
Contains a summary of research.Joint Services Electronics Program (Contract DAABO7-76-C-1400
Time-resolved spectroscopy is a powerful tool for studying fundamental photophysics in optoelectroni...
The need for developing highly efficient solar cell devices have never been so pressing until recent...
The work covered in this thesis all falls under the theme of photophysical processes after light and...
In this thesis, time-resolved spectroscopic techniques are used to link the activity of materials fo...
Studying molecular dynamics and chemical kinetics is important to understand the chemical behavior o...
Time-resolved soft x-ray photoelectron spectroscopy is used to probe the non-steady-state evolution ...
Femtosecond time-resolved photoelectron spectroscopy is emerging as a new technique for investigatin...
Using in situ ultrafast laser spectroscopic techniques to monitor the charge dynamics of semiconduct...
International audienceTime-resolved (TR) infrared (IR) spectroscopy in the nanosecond to second time...