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Chemical Biology is at the interface between chemistry, biology, and biochemistry and can be defined as the use of chemistry to advance a molecular understanding of biology and/or the harnessing of biology to advance chemistry.

The development of a molecular understanding of biochemical systems requires molecular tool kits and associated instrumental developments that enable the analysis of complex processes. These challenges bring together researchers from biochemistry, materials science and engineering, and chemistry with a focus on the elucidation of biochemical processes in a quantitative manner. Tailor-made molecules and materials make it possible to study interactions in biological processes, such as cell signalling or protein folding, and provide novel probes for molecular imaging in living cells. Microarray technologies, which enable the analysis of thousands of surface-bound molecules simultaneously, together with new single molecule techniques, have given rise to some key advances that ultimately may have applications in medical diagnostics, drug discovery, and treatment of diseases.

The theme Synthesis, Catalysis, and Molecular Materials is identified as a signature area at °ÄÃÅÁùºÏ²Ê¿ª½±Ô¤²â and includes the research programs of nine faculty members in Chemistry encompassing the main group and d-block elements. These research programs include expertise on the synthesis of natural products and developing new synthetic methods in organic chemistry; the incorporation of heavier main group elements into electronic and polymeric materials; organometallic and supramolecular polymers; functional nanostructured semiconductor materials; molecular machines and anion recognition materials; and finely tuned homogeneous metal catalysts. Students receive advanced instrument training in all of these programs including NMR spectroscopy, mass spectrometry, powder and single-crystal X-ray diffraction, and absorption and emission spectroscopies.

Identified as a signature area at °ÄÃÅÁùºÏ²Ê¿ª½±Ô¤²â,  Materials: Design, Function and Characterization research involves the synthesis and the characterization of materials for energy conversion, storage and catalysis, the fabrication of optical sensors for high sensitivity optical detection, the development of advanced spectroscopic techniques (Synchrotron radiation, spectroscopy under extreme conditions, scanning probe microscopies) with the goal to design, optimize and fabricate functional devices.

The Energy and Mechanism theme affiliates researchers whose interests include chemical kinetics and transport phenomena in chemical, electrochemical, metallurgical, and radiation-induced reactions; environmental studies relevant to industrial processes and nuclear power generation; computer simulations in condensed phase, computational chemistry, and electronic structure theory.

The three computational chemistry groups at °ÄÃÅÁùºÏ²Ê¿ª½±Ô¤²â cover an exceptionally broad range of topics both in method development and applications. The development side encompasses theoretical models and computer codes of quantum chemistry, free-energy techniques, atomistic, multi-scale, continuum and hydrodynamic methods, as well as phase-field modeling of soft and condensed matter. On the application side, problems tackled by computational chemists at °ÄÃÅÁùºÏ²Ê¿ª½±Ô¤²â include spectroscopy, chemical reactivity, atmospheric and electrosprayed aerosols, cluster/droplet chemistry, proteins, lipid bilayers, biopolymers, reaction-diffusion systems, and active matter. All of the groups have tight connections with experimental researchers at °ÄÃÅÁùºÏ²Ê¿ª½±Ô¤²â, elsewhere in Canada, and internationally. Former students and postdocs include several professors, CIHR, NSERC Banting and EU Marie Curie scholars.

Associated Researchers