Computational modelling of interacting electrons in inhomogeneous environments

计算机、手机、医疗设备等现代技术之所以成为可能，是因为数十年来人们一直在努力制造更小、更快的电子设备。随着时间的推移，这种计算能力的指数增长被称为摩尔定律。当我们开始触及摩尔定律的基本极限时，人们对扩展纳米电子设备的能力越来越感兴趣。例如，在过去的十年里，人们对铁电和磁性材料进行了大量的基础研究，这些材料有一天可能会被整合到新的高速存储设备中。为此，研究正从传统的半导体转向新的材料家族。我的工作重点是过渡金属氧化物。

Modern technology---computers, cell phones, medical equipment---is possible because of a decades-long push towards making smaller and faster electronic devices. This exponential growth of computing power over time is known as Moore's law. As we begin to bump up against fundamental limits to Moore's law, interest is growing in broadening the capabilities of nano-electronic devices. For example, the past decade has seen significant amounts of basic research devoted to ferroelectric and magnetic materials that might, one day, be incorporated into new high-speed memory devices. To this end, research is moving away from traditional semiconductors into new families of materials. My work focuses on transition metal oxides.