Research in the Nanofabrication Facility

Jeff Bokor, Scientific Director
Stefano Cabrini, Acting Facility Director

Being at the fore of the Molecular Foundry’s Single Digit Nano thrust, the Nanofabrication Facility aims to push ‘top-down’ fabrication from its current 10-15nm limit into the sub-10nm range. The chemistry and physics of lithography, etching and resist technology are studied intensively with this goal in mind.  Further, this facility’s staff is developing techniques for the integration of structures synthesized by ‘bottom-up’ organic, inorganic and bio synthetic methods with those fabricated in ‘top-down’ fashion. This research is a component of the Foundry’s Organic-Inorganic Interface study. A third aspect of this facility’s program is the development of functional lithographic materials—directly patterned materials that then serve as the functional material for an application. Such materials should simplify fabrication, enhance resolution and enable nanostructuring of materials unamenable to plasma etching and other pattern transfer methods.

The Nanofabrication Facility also has an active nanophotonics research program. One goal here, given the unique multidisciplinary environment provided by the Foundry, is to realize 3-D, 2-D and 1D nano-photonic structures of either hard or soft matter with optical responses from the ultraviolet to the infrared. Plasmonic nanophotonics is of particular interest to the facility’s scientific staff, with it numerous applications to imaging, information processing, data storage, and the precise detection, control and manipulation of nanoscale species, with application to both the biomedical and nanofabrication arenas. Within the field of nanoelectronics, the Foundry pursues new technologies that offer a significant reduction in energy consumption per operation. 

Selected Internal and User Research Topics

  1. Nanoscale plasma etching
  2. Calixarene resists for sub-10nm high resolution e-beam patterning and creation of functional materials
  3. Silicon-based resists for high resolution e-beam patterning
  4. Size-reduction lithography
  5. E-beam double-patterning
  6. Approaches to high resolution e-beam lithography
  7. Novel tips for scanning probe microscopy and fabrication
  8. DNA-directed self-assembly
  9. Nanoscale metamaterial metallic split ring resonators
  10. Novel configurations of nanophotonic structures for on-chip interconnections
  11. Iterated spacer lithography
  12. Picosecond dynamics of single nanomagnets
  13. Silicon-based devices for quantum computing
  14. Nanoimprint Damascene Process for Integrated Circuit Interconnects
  15. Lithographically Directed Self-Assembly of Block Copolymer Nanostructures
  16. Direct patterning