Nanolithography is a collection of processes used to etch, print, or carve extremely tiny patterns on materials at the nanoscale. Think of it as a super-powered form of engraving, but instead of chiseling marble or wood, scientists use lasers, ion beams, and advanced chemicals to pattern surfaces at the molecular level.
Nanotechnology has evolved from a promising concept to a transformative force, especially in the pharmaceutical industry. By allowing manipulation of matter at the nanoscale, it’s revolutionizing drug discovery and development, making the process faster, cheaper, and more precise.
In the field of mineral research, understanding surface properties is crucial for a wide range of industrial and scientific applications. From catalysis to material processing, the surface interactions of minerals can dictate their functionality, reactivity, and long-term stability.
Battery technology lies at the heart of a cultural transition to sustainable energy and continues to develop at a rapid pace. The quest for ever higher energy densities requires optimization of current and next gen cell designs at the microscopic and macroscopic level.
Cryo-EM’s strength lies in its ability to image macromolecular structures at high resolution. But structural images alone can sometimes be misleading or incomplete. For instance, even though Cryo-EM reveals a protein complex’s shape and arrangement, there might be questions about its composition or if certain subunits are missing. This is where mass measurements become vital. Knowing the mass of a macromolecule adds another layer of validation—one that’s essential for accurate interpretation.
Canada has long been known for its world-class research institutions and a robust commitment to fostering technological advancements. The country is now emerging as a key player in nanotechnology research and development, thanks to collaborative efforts between universities, government bodies, and the private sector.
