Qingfeng Ge

Decomposition Pathways of Glycerol on Titania-supported Pt and Cu Nanocatalysts

Lead Institution

Baylor University

Principal Investigator

Zhenrong Zhang

Project type

Large-Scale EMSL Research

Understanding the reaction mechanism is a key issue in the development of catalysts that can effectively convert glycerol, a top listed biomass-derived feedstock, to value-added chemicals. The…

In-situ MAS NMR Investigations on Catalytic Conversion of Biogenic Molecules in the Presence and Absence of Water

Lead Institution

Pacific Northwest National Laboratory

Principal Investigator

Jian-zhi Hu

Project type

Large-Scale EMSL Research

The catalyzed conversion of biomass to hydrocarbon energy carriers requires a cascade of reactions that deconstruct and reduce the polymeric, highly oxofunctionalized biomass material. This chemistry…

Computational Design of Catalysts: The Control of Chemical Transformation to Minimize the Environmental Impact of Chemical Processes

Lead Institution

University of Alabama

Principal Investigator

David Dixon

Project type

Capability Research

Catalysis is governed by a delicate balance between a myriad of competing bond making and breaking processes including adsorption, reaction, desorption, and surface diffusion that occur at active…

Fundamental Mechanistic Studies of Catalytic Hydrogen Production and Utilization

Lead Institution

Pacific Northwest National Laboratory

Principal Investigator

Charles Peden

Project type

Large-Scale EMSL Research

This project will apply a unique capability at PNNL for heterogeneous catalysis R&D employing isotopic transient kinetic analysis (ITKA) techniques with mass spectroscopic and in-situ…

Catalytic Studies of Transition Metal Oxide Monolayers Supported on Metal Single Crystal Surfaces

Lead Institution

Southern Illinois University

Principal Investigator

Qingfeng Ge

Project type

Large-Scale EMSL Research

Current commercial heterogeneous catalysts are structurally and chemically complex and measurements on them can seldom be interpreted with atomic-level precision. This is especially true for…

Computational Design of Catalysts: The Control of Chemical Transformation to Minimize the Environmental Impact of Chemical Processes

Lead Institution

University of Alabama

Principal Investigator

David Dixon

Project type

Capability Research

Catalysis is governed by a delicate balance between a myriad of competing bond making and breaking processes including adsorption, reaction, desorption, and surface diffusion that occur at active…

(gc3568)Computational Design of Catalysts: The Control of Chemical Transformation

Lead Institution

University of Alabama

Principal Investigator

David Dixon

Project type

Capability Research

The petroleum and chemical industries contribute ~$500 billion to the GNP of the U.S. These industries rely for their financial well being on their ability to produce new products by using energy…

Atomically Resolved Studies of Catalytic Oxidation of Organics on TiO2(110)

Lead Institution

Baylor University

Principal Investigator

Zhenrong Zhang

Project type

Large-Scale EMSL Research

A fundamental understanding of the structure-related mechanisms and dynamics of catalytic reactions on oxide catalysts is essential for the development of better catalytic systems. Catalytic…

Projects