We are developing and using femtosecond time-resolved spectroscopic and microscopic techniques to investigate excited state dynamics in molecular systems, in molecule/semiconductor hybrid systems and in individual nanoparticles.The prospect that nanoscience will provide solutions for some of the world’s most urgent challenges, such as new non-fossil energy resources, non-silicon based electronics, novel drug delivery techniques, etc., demands a detailed understanding of dynamic processes on the nanoscale. Transport of energy is the most important process determining the evolution of a system. Especially the transport of charge carriers is essential for processes as fundamental as photosynthesis, catalytic chemistry, and of course all electronic applications. Energy transport on the nanoscale occurs on an ultra-short time scale. We are studying energy transport reactions in real time by employing novel time-resolved spectroscopic and microscopic techniques, simultaneously resolving nanoscale dimensions and femtosecond (10-15 s) dynamics. The necessary experimental techniques are developed and improved in our group.
- Congratulations to Jolie Blake for winning the ACS Division of Physical Chemistry Outstanding Student Poster Award in Philadelphia
- Jolie Blake hosts the Delta Academy for middle school girls
- Nanotrees are growing in the lab
- Physics graduate student Xingyu Shen joins the group
- 10 fs visible pulses generated in the lab
- Congratulations to Baxter Abraham for getting the Brennie Hackley Jr. Award for Excellence in Research