Center for Functional Nanomaterials
An Office of Science User Facility
Interface Science and Catalysis
Contact: Dario Stacchiola
The world is facing unprecedented challenges in satisfying a rapidly growing demand for energy while reducing negative impacts on the global climate system and the environment. Any solution to these issues will necessarily involve the development of renewable energy sources, together with new strategies for efficient energy utilization and sustainable (‘green’) manufacturing processes. Interface science and catalysis already play an important role in all of these areas, but new catalysts providing improved reactivity and selectivity at dramatically reduced cost need to be developed to enable the required transformations of processes and economies on a global scale.
Nanoscience has the potential to fundamentally alter the approach to catalyst design from the traditional empirical methods to a rational design strategy based on a fundamental understanding of the relevant microscopic processes. Interface nanoscience contributes new approaches, tools, and techniques to rational catalyst design. The ability to assemble and characterize model catalysts with atomic-scale precision promises performance gains by discovering and exploiting support interactions, specific active sites, and size-dependent behavior at the nanoscale. Harnessing atomic-scale processes also requires recognition of the fact that key properties, such the active phase of a catalyst may depend on the reaction conditions and may be continuously modified in reactive environments, particularly if the active catalyst has nanometer-scale dimensions.
Our research program on Interface Science and Catalysis aims to discover and quantify nanoscale phenomena that can be exploited to boost the reactivity of future generations of energy-relevant catalysts, to enhance the efficiency of greenhouse gas capture and reforming processes, and for the controlled synthesis of novel high-performance materials. Our approach has two defining characteristics: a strong focus on heterogeneous catalysis-inspired model systems fabricated and characterized with atomic-scale precision; and the interrogation of these systems in situ under realistic reaction conditions. For investigations on functional surface systems in-operando under relevant environmental conditions, we operate a unique suite of instruments that provides imaging with high spatial and temporal resolution and chemically specific spectroscopy from ultrahigh vacuum to high gas pressures. Our further development of such cutting-edge experimental techniques and tools provides far-reaching synergies between our CFN-internal science thrust, our User’s Program, and collaborations with scientists at and outside BNL.
Related Links
- Optimizing the Growth of Coatings on Nanowire Catalysts
- Nanocages Trap & Separate Elusive Noble Gases
- Imaging the Chemical Structure of Individual Molecules, Atom by Atom
- Solving the Riddle of the Crystal Structure of Borophene
- CFN Scientist Spotlight: Ashley Head Brings Surface Studies out of the Realm of Physics into Chemistry
- CFN User Spotlight: Jennifer Carpena-Núñez Studies the Fundamentals of Carbon Nanotube Growth
- Atomically-Precise Assembly of Graphene Nanoribbons
- Atomic Flaws Create Surprising, High-Efficiency UV LED Materials
- Studying Argon Gas Trapped in Two-Dimensional Array of Tiny "Cages
- Scientists Demonstrate New Real-Time Technique for Studying Ionic Liquids at Electrode Interfaces
- Q&A with CFN Scientist Anibal Boscoboinik
- Next-Generation Software Supports Explorations Beyond the Nanoworld into the Intramolecular Picoworld
- Nusnin Akter: A Role Model for Young Women and Underrepresented Minority Engineers
- Brookhaven Lab Facilities Team Up to Offer Beamline for Cutting-Edge Science
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Interface Science and Catalysis Group at Brookhaven's Center for Functional Nanomaterials
Group leader Dario Stacchiola describes how his group captures atomic-scale catalytic processes in real time and under reaction conditions.
Group leader Dario Stacchiola describes how his group captures atomic-scale catalytic processes in real time and under reaction conditions.
