The Center for Nanoscale Materials at Argonne National Laboratory is a joint partnership between the U.S. Department of Energy (DOE) and the State of Illinois, as part of DOE’S Nanoscale Science Research Center program. The CNM will serve as a user-based center, providing tools and infrastructure for nanoscience and nanotechnology research. The CNM's mission includes supporting basic research and the development of advanced instrumentation that will help generate new scientific insights and create new materials with novel properties. The existence of the CNM, with its centralized facilities, controlled environments, technical support, and scientific staff, will enable researchers to excel and significantly extend their reach.
CNM researchers will work at the leading edge of science and technology to develop capabilities and knowledge that complement those of industry. The challenges the CNM faces involve fabricating and exploring novel nanoscale materials and, ultimately, employing unique synthesis and characterization methods to control and tailor nanoscale phenomena. The unique capabilities of Argonne's Advanced Photon Source (APS) play a key role. APS's hard X-rays, harnessed in a nanoprobe beamline, will provide unprecedented capabilities to characterize extremely small structures.
Argonne's long-standing culture of outreach to, and inclusion of, the academic and industrial communities will help support regional and national goals and strategic interests. The CNM welcomes outside users, both as independent investigators and as collaborators, from a wide range of scientific fields. This accessibility ensures a cross-disciplinary approach to nano-related research that will help ideas and activities to cross-pollinate, mature, and evolve over time into the pathways of scientific investigation and discovery that will help shape the future of our society.
New Nanofabrication Technique Opens Door to Future Generations of Solar Cells
Argonne Scientists Recognized by the American Physical Society for Outstanding Contributions
Miniaturized Gas Sensor Using Hybrid Nanostructures Supported on Multiwalled CNTs
Prof. Hongxia Wang
We speak with Professor Hongxia Wang from QUT about a new project that hopes to utilize graphene and other low-cost carbon materials to produce commercially viable, ultra low-cost, flexible perovskite solar cells.
Moti Segev & Vlad Shalaev
In this interview, AzoNano speaks to Professor Moti Segev and Professor Vladimir Shalaev, who made surprising discoveries about photonic time crystals that challenge existing research and theories.
Siyu Chen, Ph.D.
In this interview, we discuss a new approach to surface-enhanced Raman spectroscopy that utilizes nano-pockets to capture target molecules, ensuring a highly sensitive way to detect chemical processes.
This product profile from Merck outlines information about ultrastable fluorescent silica nanobeads.
The ClearView scintillator camera that elevates your everyday transmission electron microscopy (TEM).
Achieve high-throughput co-localized imaging and in-situ nanoindentation with Bruker’s Hysitron PI 89 Auto SEM.