Institute for Microstructural Sciences: Components

Components

The Components Program performs research into novel device development of interest to the high tech sectors.

IR and THz detectors

There is a wide range of applications where IR and THz detectors emitters can be used, including space applications, search and rescue applications, medical applications as well as traditional military applications.

The goals of the project are:

to investigate new phenomena in the IR and THz region of the spectrum using semiconductor quantum structures,
to explore novel devices,
to demonstrate and prototype devices for practical applications.

Jim Webb and Haipeng Tang

Gallium Nitride electronics

The aim of this project is to develop high power/high frequency microwave GaN-based field-effect transistors (FETs). FETs made from GaN can maintain high gain at high frequencies, enabling these devices to operate at voltages much higher than is possible with GaAs or InP devices and therefore capable of delivering higher output power.

Quantum information

This project explores the application of semiconductor nano-devices for processing of quantum information. To build a knowledge base in this area, research focuses on materials and system aspects of quantum information. The goal is to coherently couple quantum nano-devices, build and manipulate quantum networks, develop the understanding and means of manipulating quantum coherence in nanostructures, and develop a theoretical understanding of quantum networks and their role in quantum computation and cryptography.

Solid State Quantum Information Processing Devices

Organics for light emitting devices

Organic light-emitting Devices (OLEDs) have been the subject of intense research in the last 15 years, and remarkable progress has been reported. These displays have higher power efficiency and better viewing angles than liquid crystal displays yet materials stability, high resolution patterning and passivation issues persist. This project addresses these problems from a materials science and device engineering point of view. Ultimately, the knowledge acquired can be used in the realization of organic-based photonic, or electronic products, but current focus is on devices for displays and lasing applications.

Chemical Sensors

The principal objective of the project is the development of real-time and portable detection devices capable of enhancing the capabilities of first responders or military personnel to ascertain or rule-out the presence of harmful agents. The use of innovative imprinting techniques to create artificial recognition sites on targeted surfaces will provide the users with robust and affordable devices that can be adapted to a variety of detection purposes. This project is part of the CRTI* framework, a government initiative to create a laboratory network to provide new knowledge, technology, and research necessary for CBRN (Chemical, Biological, Radiological and Nuclear) response and preparedness.

*C (Chemical, Biological, Radiological and Nuclear) Research Technology Initiative (CRTI)

Testimonial

"LNL Optenia relies heavily on the close partnership we enjoy with IMS. In fact the technology of LNL Optenia is based on core intellectual property licensed from NRC. The joint development of this technology by staff at LNL Optenia and IMS has resulted in products that are accepted throughout the industry as the most highly developed echelle grating technology available. This development would not be possible with the ongoing support from NRC, and the highly skilled researchers with whom we partner at IMS. LNL Optenia is just one among many small companies in Canada that benefit from the facilities, services and support offered by NRC. It is therefore with pleasure that I give this testimonial to express the gratitude and respect of LNL Optenia."

Dr. Matt Pearson
Director of Technology Development
LNL Optenia

Published: 2005 10 19

Important Notices