Students taking classes outside on the Clarkson campus

Center for Quantum Device Technology

The main objective of our program has been the exploration of coherent quantum mechanical processes in novel solid-state semiconductor information processing devices, with components of atomic dimensions: quantum computers, spintronic devices, and nanometer-scale computer logic gates.

The achievements to date include new modeling tools for evaluating initial decoherence and transport associated with quantum measurement, spin polarization control, and quantum computer design, in semiconductor device structures.

Our program has involved an interdisciplinary team, from Physics and Electrical Engineering to Computer Science and Mathematics, with extensive collaborations with leading experimental groups and with Los Alamos National Laboratory.

The educational impact includes training undergraduate students, graduate students, postdoctoral researchers, and the development of three new courses to introduce quantum nanotechnology concepts to undergraduate and graduate students.

Our outreach program has included sponsoring conference events, an international Quantum Device Technology workshop series, and numerous lectures and presentations.

We gratefully acknowledge funding of our programs by the National Science Foundation, under grants DMR-0121146 and ECS-0102500, by the National Security Agency and Advanced Research and Development Activity, under Army Research Office grants DAAD-19-02-1-0035, DAAD-19-99-1-0342, a subcontract of DAAD-19-01-1-0607 from Harvard University, and a conference-funding award W911NF-04-1-0186, by the New York State Office of Science, Technology and Academic Research under NYS Center for Advanced Materials Processing award NYSTAR-21230710, by the US Air Force under contracts F30602-97-2-0089 and F30612-96-1-0276, by the Semiconductor Research Corporation gift SRC-2000-RJ-873G, and by the McNair Scholarships for high-achiever undergraduate students from groups underrepresented in college education.



Control and accumulation of spin coherence in semiconductor nano-devices, at interfaces between differently doped regions.

Design and calculation of the reliability
of nanometer-size computer components utilizing technology based on transport through quantum dots