Engineering Copper surfaces for the electrocatalytic conversion of CO2: Controlling selectivity toward oxygenates and hydrocarbons
In this study we control the surface structure of Cu thin-film catalysts to probe the relationship between active sites and catalytic activity for the electroreduction of CO2 to fuels and chemicals.
Combining Artificial Intelligence with Combinatorial X-ray Diffraction Enables Rapid Phase Mapping of New Materials
JCAP’s high-throughput team has partnered with computer scientists from Cornell University to develop a new method for rapid construction of phase diagrams using data from JCAP’s collaboration with Stanford Synchrotron Radiation Lightsource Laboratory.
New analysis provides insight into factors that govern photoelectrochemical device performance .
Proposed mechanism suggests that single-atom bimetallic alloys behave as a “one-pot” tandem catalysts, reducing CO2 to C1 hydrocarbon products.
JCAP researchers determined CO2RR reaction mechanisms from Quantum Mechanics free energy Calculations with Explicit water
Quantum Mechanics calculations with a realistic description of water were used to determine the mechanisms from free energy barriers of CO2RR providing an opportunity to use such calculations for designing new selective and active CO2RR catalysts.
JCAP Researchers successfully use combinatorial science to accelerate materials development for solar flues applications
JCAP’s high-throughput experimentation team together with scientists from SSRL develop a strategy to enable structure-property mapping of promising light absorbers.
Researchers assembled and characterized a device that under 1 Sun illumination operates in two electrolytes with different pHs and reduces CO2 to formate
Defective TiO2 with high photoconductive gain for efficient and stable planar heterojunction perovskite solar cells
Long-term stability and high efficiency from planar heterojunction halide perovskites is enabled by addressing interfacial degradation and charge transfer resistance limitations.
JCAP researchers produced a review article on modeling and development of integrated solar-driven water-splitting devices
Self-passivation under operational conditions is observed for several copper vanadate photoanodes, demonstrating their viability for durable solar fuels devices.
Density functional theory is used to study the reduction of CO2 and CO to hydrocarbons through a formyl pathway on alloys with an A3B composition
CO2 electrochemical reduction catalyzed by bimetallic materials at low overpotential
Electrocatalytic reduction of CO2 to highly reduced C2 and C1 products was accomplished on three different phases of nickel-gallium films at low overpotentials
Recent advances in understanding of hot carrier dynamics in chemical systems and solids for energy conversion and catalysis applications
Understanding the mechanisms and factors that govern plasmon energy conversion into hot carries is one of the first steps toward design of efficient materials that can harvest solar energy and catalyze CO2 conversion to fuels
Photoanode Development Through Combinatorial Integration of mixed-metal Oxide Catalysts on Bismuth vanadate
High-throughput characterization can enable identification of integrated photoanodes assemblies and demonstrates importance of interface engineering
Assembly and photocarrier dynamics of heterostructured nanocomposite photoanodes from multicomponent colloidal nanocrystals
Finely-tailored complex materials were studied to demonstrate their functionality as promising light absorbers
JCAP scientists are developing novel theoretical methods to predict the effect that solvents have on material properties - and consequently the photoelectrochemical performance - inside solar-fuels generators