Center for Excitonics

Homepage Descriptions - MIT-Harvard Center for Excitonics - Page 2

Participants:
Justin Caram
Sumit Dutta
Nadav Geva
Aaron Goodman
Thomas Mahoney
Tian Ming
Zhibo Zhao
Lei Sun

All the students chose to do live demonstrations at the Museum of Science for their projects.

Building Demo Prototypes

These photos were taken during the development process while the students were creating their hands-on activities during the January internship.

Testing Demo Prototypes

These are photos of the students demonstrating their hands-on activities with museum visitors.  Lei Sun developed a hands-on activity about how mobius strips can represent the movement of electrons in Topological Insulators; Tian Ming developed a hands-on activity about how cell phone displays work; Tom Mahony developed a hands-on activity about polarized light and lasers; and Nadav Geva developed a hands-on activity about electron-hole pairs.

Sharing Science Practicum

These are photos of students learning how to deliver hands-on activities and practicing with museum visitors.  

The mission of the Center for Excitonics is to develop the science and technology of excitons, to reveal the fundamental characteristics of these crucial quasi-particles, and enable new solar cells and lighting technologies.

Our efforts are divided into three major thrusts. Each thrust is comprised of seven to ten faculty devoted to key scientific problems confronting the development of more efficient solar cells and solid state lighting.

When a chlorophyll molecule in the leaf of a plant absorbs a photon of sunlight, the solar energy is converted into an excited state of the molecule known as an exciton. The exciton then transports the energy between molecules in the leaf, and ultimately mediates the conversion of sunlight into electrical energy.

Thus, excitons are packets of energy confined within a material. They are the crucial intermediate for energy transduction in all kinds of low-cost electronic materials. Excitons also dominate the behavior of disordered synthetic nano-materials like polymers and inorganic quantum dots. Consequently, excitons control solar energy conversion in low-cost solar cells, and also light emission in organic and quantum-dot based LEDs.

Participants:
Tom Bischof
Patrick Brown
Carl Brozek
Wendi Chang
Jean Anne Currivan
Eric Hontz
Sarah Luppino
Jill Macko
Farnaz Niroui
Ren-Jye Shuie
Joel Yuen

2014 Project Photos

2014  Nanoday Photos

Video: Han Solar: A Short Film on Thin Film Solar Cells by Joel Jean and Sarah Luppino

Video: Q-Spy: Quantum Computing Film Noir by Jean Anne Currivan and Ren-Jye Shuie

 

Participants:

Gleb Akselrod
Dylan Arias
Jordan Chesin
Daniel Congreve
Dorthe Eisele
Joey Goodknight
Vitor Manfrinato
Phil Reusswig
Geoffrey Supran
Nick Thompson
Stephanie Valleau
Shane Yost

Nano-day Photos

Project Photos

Video: How Solar Panels Work  by Shane Yost and Jordan Chesin

Video: The Exciting World of Excitons  by Stephanie Valleau and Dan Congreve

Video: Electron-Beam Lithography Toward the Atomic Scale by Vitor Manfrinato