there is an increasing demand for smaller and smaller electrical materials. In response to this demand, materials scientists are making great efforts to control the shapes of materials on the scale of their molecule building blocks. With this level of shape control, we can imagine electrical wires with diameters 1/100,000th of a piece of hair, circuitry that could fit on the tip of a needle, and a dramatic reduction in the size of modern electronics.
Our research uses theoretical methods to predict how to control the shapes of materials on the molecular scale. We employ techniques from theoretical chemistry (mainly statistical mechanics and quantum chemistry) and applied mathematics (mainly statistics, machine learning, and probability), and develop our own techniques whenever needed. We work in close collaboration with several experimental groups, and aim for tangible realizations of our theoretical predictions.
We belong to the Institute for Integrated Cell-Materials Sciences (iCeMS) and the Institute for Advanced Study (KUIAS) at Kyoto University.
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Paper on surface-assisted molecular self-assembly published in Nature Communications
Daniel Packwood receives the 5th Fujiwara Hiroshi Prize for Mathematical Science.