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Thin Film Electronics

Summary:

The Thin Film Electronics Project facilitates the commercialization of emerging and future semiconductor electronic device technologies by tailoring existing measurements, establishing new measurements, and designing and building device analogous high quality test structures to provide the measurement science infrastructure necessary for underpinning innovation.

Description:

The Thin Film Electronics Project conducts basic research to develop and advance novel measurements that combine and correlate optical and electrical methods such as internal photoemission, spectroscopic ellipsometry, temperature dependent current-voltage spectroscopy, impedance spectroscopy, and transient photo-current/voltage spectroscopy. Particular emphasis is placed on direct, non-destructive optical-electrical and electrical measurement methods to quantify band structure, charge transport, and density of in-gap electrically active traps for the rational design and advanced manufacturing of emerging and future semiconductor electronics devices.

The Project collaborates within our group, across NIST, and with leaders outside of NIST working in relevant semiconductor device technologies to conduct timely, high-impact research.

Candidate technologies presently investigated include: Homo/heterojunction tunnel FETs, high mobility CMOS, heterojunction solar cells, printable electronic materials and devices such as organic TFTs and solar cells, transparent metal oxide TFTs, and graphene and other layered 2D electronic materials for thin film flexible electronics.

Nhan Nguyen performs optical measurements on a graphene-insulator-semiconductor sample structure.
Nhan Nguyen performs optical measurements.

Major Accomplishments:

  • First direct Band Structure measurements of Graphene FETs by using IPE/SE
  • Established Band Structure studies with Intel for T-FETs
  • Established Direct Correlation of Charge Transport, Thin Film Microstructure, and Composition for Organic Electronic Device

Start Date:

January 1, 2005

End Date:

ongoing

Lead Organizational Unit:

pml

Staff:

David J. Gundlach, Leader
Nhan Van Nguyen


David Gundlach characterizes the electronic properties of single crystal organic field-effect transistors in a vacuum cryogenic probe station

David Gundlach characterizes the electronic properties of single crystal organic field-effect transistors in a vacuum cryogenic probe station.

Contact

David Gundlach
301-975-2048 Telephone

100 Bureau Drive, M/S 8120
Gaithersburg, MD 20899-8120