Nanoelectronics

Nanoelectronics aims to understand and harness the power of materials at the nanometre (one billionth of a metre) scale. This work holds the potential to create computer circuits orders of magnitude smaller than those found on today’s microchips.

Over the past decade, the number of circuits and switches incorporated into each square centimetre of microchip has increased more than 100-fold. Conventional components can only shrink so far, though.
Enter nanoelectronics, a new way of thinking about the physics of computing, and which holds the potential to create circuits thousands of times smaller than those possible with current technology.

Launched in 1999, CIFAR’s Nanoelectronics program focuses both on the fundamental science of how materials behave at the nanometre (one billionth of a metre) scale and on engineering issues such as creating new nanomaterials used for both research and applications.

Working with devices 10,000 times smaller than the width of a human hair, Nanoelectronics members have created photonic crystals that trap and channel light, three-dimensional DNA structures that organize metals and nanoparticles, and nanocrystals that use the spin state of individual electrons to store and transfer information.

In time, these new technologies will likely converge with the existing microchips in ways that will revolutionize the electronics industry.

The program brings together internationally recognized researchers who have made a broad range of contributions to the field of nanoelectronics. Members are drawn from across Canada, the United States, the United Kingdom and Israel. They include chemists, physicists, materials scientists, theorists, and electrical and computer engineers. Read more

  • Peter Grütter
    DIRECTOR

    Peter Grütter

    In December 2000, Dr. Grütter was named one of McGill University’s first William Dawson Scholars, part of a program designed to be a parallel counterpart to the federal Canada Research Chairs program. In 2001, he received a Steacie Fellowship from the Natural Sciences and Engineering Research Council (NSERC).

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  • Controlling current on the nanoscale

    Controlling current on the nanoscale

    Theoretical physicists in CIFAR’s Nanoelectronics Program are striving to increase the speed of information processing. They have shown that this is possible by controlling current through individual molecules.

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Fast Facts

Founded: 1999
Renewal Dates: 2004 2008
Number of Members: 37
Disciplines Represented:
  • Biochemistry
  • physical chemistry
  • Bionanoelectronics
  • Biophysics
  • Condensed matter physics (theoretical and experimental)
  • Theoretical mesoscopic physics Photonics
  • Spintronics
  • Molecular electronics