The research of the Mirkin Research Group at Northwestern focuses on developing methods for controlling the architecture of molecules and materials on the 1-100 nm length scale, and utilizing such structures in the development of analytical tools that can be used in the areas of chemical and biological sensing, lithography, catalysis, and optics.
The group's vision is to develop innovative technologies that harness biomolecular activity perfected by nature towards applications in cellular interrogation, bio-energetic/functional materials development, and next-generation medicine.
The Nanoscale Science and Engineering Center (NSEC) for Integrated Nanopatterning and Detection Technologies is driven by a vision to develop innovative biological and chemical detection systems capable of revolutionizing a variety of fields.
The group harnesses molecular recognition and self-assembly processes in template-directed protocols for the synthesis of functionalized and mechanized molecules, prior to their being introduced into integrated nanosystems.
The convergence of multiple disciplines creates a synergy capable of overcoming persistent barriers and filling knowledge gaps to allow for transformational, revolutionary, and embryonic opportunities with many technological applications. The Institute's tools and research methodologies include in-depth analysis using convergence of multi/trans-disciplinary S&T fields, focused on nanotechnology, biotechnology, information technology, cognitive sciences, artificial intelligence, robotics, and genetics.
EMNLAB is a group within the physical electronics branch of Electrical Engineering at The Ohio State University. The group focuses on using a wide array of analysis, processing, and growth techniques to investigate the surface, interface, and ultrathin film properties of semiconductors.
A fundamental question to be addressed in the group's research is how we can learn from biological systems in nature, especially at the micro/nano-scale, in order to engineer biocompatible nanomaterials and further develop innovative robotic systems that are capable of interfacing with molecular and cellular systems for advanced therapeutics and tissue engineering applications, and for swimming efficiently in fluidic environment.
The group's research is focused on the computational analysis of the flow, heat and mass transfer in micro and nano fluidic systerms. Current research projects include modeling of an implantable artifical kidney, DNA translocation in nanopores and fundamental issues associated with bio-sensing.