Electrochemical CO2 reduction is a key technology in addressing climate change by converting CO2 into valuable products. However, the oxygen evolution reaction (OER) at the anode limits the efficiency of these systems. Traditional catalysts, like iridium and ruthenium, are expensive and scarce, hindering large-scale adoption. To overcome these challenges, the Barecka Lab is developing an innovative catalyst made of iron (Fe) and nickel (Ni) plated onto nickel foam. My project involves using UV Vis spectroscopy to track the plating dynamics of Fe and Ni in solution, providing insights into the catalyst's formation and optimizing its performance for sustainable CO2 reduction.
Feasibility study on electrochemical urea synthesis from CO2 waste streams in ammonia production, analyzing technical, economic, and environmental impacts for a plant in Corpus Christi
Optimizing the efficiency and speed of a Zinc-HCl reaction to power a stacked hydrogen fuel cell powered arduino car. (ChemE Car NU)
Researching the effects of a working fluid's dynamic viscosity on the efficiency of a small scale pumped storage hydropower system.
Exploring the role of lubrication in optimizing gear mechanisms, focusing on how lubricant temperature affects the efficiency and longevity of agricultural machinery
Assisting upperclassmen on phytoremediation of PFAS using Juncus Ephesus plants
Investigating the effects of charge density of a cation in a carbonate on the volume of C02 released for applications in sustainable cement formulation
Determining the biochemical methane potential of a specific organic waste substrate using a respirometer sensor method to assess its potential as feedstock for a biodigester.
Investigating the potential of bioslurry, a product from function biogas systems, to enhance spinahc crop germination and phenology, and soil fertility (NPK concentration)