Welcome to the Erickson Lab at Cornell University
Our research interests revolve around the study of microfluidics and nanofluidics as applied to optofluidics, biomolecular detection, biologically enabled robotics, nanomedicine, and programmable matter. Our research is inherently multidisciplinary and involves fluid and thermal dynamics, nanophotonics, nanofabrication, chemistry and biology.
Some of our major research thrusts are outlined to the right and detailed information is availiable from the research page.
New Ph.D. Opportunities
We have a number of new positions currently availiable including: 3 Ph.D. students (apply for Fall 2009). Research topics include: Optofluidics, programmable matter and autonomous microsystems. More information is availiable on the positions page.
Optofluidics at CLEO 2010
As a result of the success of the 2009 symposium, starting in 2010 Optofluidics will become part of the regular technical line-up at the Conference on Lasers and Electro-optics. More details will be provided as they become availiable.
NIRT Website
The website for our new Nanoscale Interdisciplinary Research Team grant on Active Nanophotofluidic Systems is now available. The site provides information on the project and participants. Click here to visit it.
Contact
For more information on the group and our research please feel free to contact David Erickson
Professor David Erickson
Director, Integrated Nanofluidic Systems Lab
Assistant Professor
Sibley School of Mechanical and Aerospace Engineering
Cornell University
240 Upson Hall
Ithaca, NY, 14853
de54@cornell.edu
Phone: (607) 255-4861
Fax: (607) 255-1222
Optofluidics
“Optofluidic” systems integrate photonic and fluidic elements and have numerous advantages over traditional...
Microfluidic Devices for Biomolecular Analysis
The emerging threat posed by viruses like influenza necessitates the development of sensor...
Autonomous, Biologically Integrated, Microfluidic Systems
Autonomous microfluidic systems have the potential to...
Directed Assembly and Programmable Matter
Micro-scale modules self-assemble into 3D, reconfigurable structures and materials ...
Nanofluidic Sensors
Nanofluidic sensors enable ultrahigh detection fidelity and high throughput in a compact package...