University of Illinois, Urbana-Champaign
North Carolina A&T State University, Greensboro
University of California - Irvine
Stanford University, Palo Alto
University of Notre Dame
Northwestern University
Research in the Center for Nanoscale Chemical-Electrical-Mechanical Manufacturing Systems (Nano-CEMMS) addresses a
central problem in the development of nanotechnology: how to assemble structures at sizes smaller than can be seen (or
transduced) and manipulated (or transcribed). Making three-dimensional, nanoscale devices and systems from millions to
trillions of different types of molecules is incredibly difficult. The Center’s goal is to develop a reliable, robust
and cost-effective nanomanufacturing system to make nanostructures from multiple materials. This technology will allow
advancements and discoveries in nanoscience to move from the laboratory to production.
The Nano-CEMMS Center is a partnership of the University of Illinois, Stanford University, North Carolina Agricultural
and Technological State University, University of California - Irvine, University of Notre Dame, and Northwestern
University. Each partner offers unique facilities, eminent scholars and financial resources to support the Center's
research.
One of the Center’s core missions is to develop a diverse U.S. workforce of educators, scientists, engineers, and
practitioners to advance nanomanufacturing technology in the U.S. and beyond. Nano-CEMMS provides a wide range
of human resource development activities targeted toward increasing both the diversity of students involved with the
Center and educational opportunities at the K-12 and undergraduate levels, as well as providing graduate students with
teaching experience in an emerging field. In addition, both undergraduate and graduate students have opportunities to
participate in the Center’s work through research assistantships and independent study projects.
Nano-Nugget First Integration of VCSEL Optical Sensing in Optofluidic Microsystem We have achieved the first intimate
integration of vertical-cavity surface-
emitting lasers with a network of
microfluidic channels to form a
compact microfluidic microsystem. The integration
of optics and fluidics opens new
opportunities for the creation of
compact biomedical diagnostic
microsystems. Read More…
