Prof. Jennifer L M Rupp

Thomas Lord Associate Professor in Materials Science

Primary DLC

Department of Materials Science and Engineering

MIT Room: 8-242

Assistant

Priyanka Chaudhuri
priyac@mit.edu

Research Summary

Professor Rupp's group works on Solid State Materials for Energy and Information Devices. More specifically, her research topics include:
(1) Energy Storage: Solid State Batteries (Safe&Non-Inflammable Solid State Batteries, Fair and Green Solid State Li Battery, Li-Microbatteries for Portable Electronic Chips)
(2) Sensing: Novel CO2 Sensing Devices on Chip
(3) Energy Storage: Solar-generated Synthetic Fuels
(4) Medical Implants, Microfabricated Power Devices: Sugar Fuel Cell Implant
(5) Information Storage, Memories, Computing Devices, Neuromorphic Devices: Memristors

Recent Work

  • Video

    Jennifer Rupp - 2019 Vienna Conference

    April 3, 2019Conference Video Duration: 39:9

    Designing Memristor Materials and Functions for Neuromorphic Computing and Memories

    Memristors are nano-devices that remember information permanently, switch in nanoseconds, are super dense, and power efficient. That makes memresistors potential replacements for good old transistors operated in DRAM, flash, and disk. What material architectures are used for memristor designs? How can we engineer their floor print and energy consumption? What if you can put huge amounts of storage near the processor and have enough bandwidth to exchange huge amounts of data? All at low power? Memristors are not just stuck in the past, they don't just remember, they can perform logic. And, the properties of the memristor apparently mimic neurons and can learn without supervision. The characteristics of memristors are such that you have to rethink the whole compute and storage paradigm.
     
    2019 MIT Europe Conference in Vienna

    Jennifer Rupp - 2018 Japan Conference

    February 2, 2018Conference Video Duration: 31:33

    Engineering Ceramic and Glass-Materials for Energy Storage, Sensing and Computing

    The next generation of energy storage, sensors and neuromorphic computer logics in electronics rely largely on solving fundamental questions of mass and charge transport of ionic carriers and defects in materials and their structures. Here, understanding the defect kinetics in the solid state material building blocks and their interfaces with respect to lattice, charge carrier types and interfacial strains are the prerequisite to design novel energy storage, sensing and computing functions. Through this presentation basic theory and model experiments for solid state oxides their impedances and memristance, electro-chemo-mechanics and lattice strain modulations is being discussed as a new route for engineering material and properties on the examples of solid state batteries, environmental CO2 sensors and memristors for memory and neuromorphic computing chips. Central are the making of new oxide film materials components, and manipulation of the charge carrier transfer and defect chemistry (based on ionic and electronic carriers), which alter directly the device performances and new operation metrics.