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Responsive Metal Organic Framework Thin Films


EMSL Project ID
47590

Abstract

Advances in energy research require novel hybrid materials (materials containing both organic and inorganic components) with synthetic control over physical and chemical properties. Hybrid materials lie at the heart of emerging technologies in fuel cells, solar cells, sensors, and carbon capture and sequestration. Many potential applications (i.e. membranes, sensors, catalytic coatings) that exploit the chemical and physical properties of MOFs will require thin or ordered MOF films. This proposal seeks to combine expertise and unique experimental resources at EMSL (SEM/EDX, SEM/FIB, TOF-SIMS, in situ micro-FTIR) with synchrotron based (APPES, STXM, XRD) experiments, imaging capabilities at the Molecular Foundry (Ellipsometry, AFM), and laboratory based (liquid-phase QCM-D, micro-Raman) to investigate hybrid material thin films produced via liquid layer-by-layer epitaxy. The objective is to enhance our understanding of and expertise in developing thin film hybrid materials for energy applications. The proposed work seeks to develop and characterize MOFs whose chemical and physical properties change with exposure to an external stimulus: i.e. adaptive or responsive MOFs. If the MOF can be designed to undergo a MOF can be designed that undergoes a structural change upon stimulation (i.e. electrical, pressure, temperature, water vapor, gas uptake, light) then this stimulus functions as an ON/OFF switch. Combined these facilities and expertise provide unprecedented capabilities to probe the bonding sites, competition for bonding sites, and structural changes under in situ conditions as a response to an external stimulus. This program builds upon existing collaborations and jointly enhances DOE capabilities in hybrid thin film materials, a scientific area of increasing importance for DOE.

Project Details

Project type
Large-Scale EMSL Research
Start Date
2012-10-01
End Date
2013-09-30
Status
Closed

Team

Principal Investigator

Mary Gilles
Institution
Lawrence Berkeley National Laboratory

Team Members

Nils Lundt
Institution
Lawrence Berkeley National Laboratory

Stephen Kelly
Institution
Lawrence Berkeley National Laboratory

Bingbing Wang
Institution
Xiamen University

Related Publications

Kelly ST, P Nigge, S Prakash, A Laskin, B Wang, T Tyliszczak, SR Leone, and MK Gilles. 2013. "An environmental sample chamber for reliable scanning transmission x-ray microscopy measurements under water vapor." Reviews of Scientific Instruments 84(7):073708. doi:10.1063/1.4816649.