Fall

Graham Lecture | Repurposing the Blue Print of Life for Materials Design

 The materials-by-design approach to the development of functional materials requires new synthetic strategies that allow for material composition and structure to be independently controlled and tuned on demand. Although it is exceedingly difficult to control the complex interactions between atomic and molecular species in such a manner, interactions between nanoscale components can be encoded, independent of the nanoparticle structure and composition, through the ligands attached to their surface. DNA represents a powerful, programmable tool for bottom-up material design.

Lighting up inflammation outside the body using chemistry and microfluidics

Life is sustained through a delicate balancing act of the immune system, a complex network of molecular and cellular interactions from which health or disease can emerge.  Despite a long catalogue of the cells and signaling proteins in this system, traditional experimental approaches have struggled to explain how they are organized in organs such as the lymph node to dynamically protect against infection, cancer, and autoimmunity.  The overarching goal of my laboratory is to develop bioanalytical methods to visualize where, when, and how cells interact during immunity and inflammation, to i

Borane Lewis Acids and B-N Lewis Pairs: From Molecules to Materials

The incorporation of main group elements into conjugated materials is known to result in unusual properties and to enable new functions.[1] In particular, the ability of tricoordinate boron to participate in p-delocalization can have a dramatic effect on the optoelectronic properties of conjugated materials by selectively lowering the LUMO orbital levels. The electron-deficient character of boron also enables the reversible formation of Lewis pairs (LPs) by interaction of Lewis acids with Lewis bases.

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