Research | Catalyst Diagnostics | Project

Support, Alloying and Promoter Effects and Active Sites in CO2 Hydrogenation

During my research I will focus on support, alloying and promoter effects and active sites in CO2 hydrogenation in order to spatially resolve the activity of CO2 hydrogenation over supported Ni catalysts.

Related Projects

Making porous supraparticles for catalysis

Plasmonic, catalytic, and electrolysis bubble nucleation & growth

Making use of diffusiophoresis for enhanced mass transports off spatially inhomogeneous catalysts: experiments

High-throughput synthesis and characterization of catalysts

Alessia Broccoli

A Device for Transient Analysis of Electrochemical products by MS

Ainoa Paradelo Rodriguez

Detailed operando spectroscopy of catalytic reactions

Nanoprobes for high resolution spatial and temporal temperature mapping

Thomas van Swieten

Multiscale Structuring for 2-Step Catalysis & Sensing

Nanosensors for local halide concentrations

Exploring the Complexity of Pore Space of a Catalyst Particle

Rafael Mayorga Gonzalez

Quantitative Determination of Particle-Size Dependent Active Sites in Supported Metal Nanoparticles with SHINERS

Studying the Genesis of Nanobubbles on Zeolite and Metal Organic Framework Thin-Films by Scanning Probe Microscopy

Chemical Imaging of Solid Catalysts with Nano-Infrared Spectroscopy

Christia Jabbour

Nanoparticle interactions and SERS by self-assembly

Maarten Bransen (MSc)

Support, Alloying and Promoter Effects and Active Sites in CO2 Hydrogenation

Quantitative Determination of Particle-Size Dependent Active Sites in Supported Metal Nanoparticles with SHINERS