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Green electrolysis has emerged as a pivotal technology in pursuing sustainable energy solutions. The catalysts that drive reactions are central to this process – particularly in water splitting. Ruthenium-based catalysts are among the many that show great promise, primarily due to their high activity. But, their poor stability limits the practical applicability of ruthenium-based catalysts. […]

Green hydrogen production via electrolysis has emerged as a key technology in the search for sustainable energy solutions. It involves splitting water into its constituents, hydrogen and oxygen. Traditional electrolyzers rely on precious metal catalysts like platinum and iridium. Although both are effective, they are also costly and scarce. The enormous potential of green hydrogen

By producing carbon dioxide (CO2) emissions, ultimately totaling 34-36.8 billion tonnes of CO2 every year, the planet is being endangered. About 45% of this CO2 is from fossil fuels, with estimates being made that fossil fuels have been responsible for at least 67% of the Earth’s rise in temperature.  One solution to reduce emissions is

The amount of carbon dioxide (CO2) within the atmosphere is affecting the planet. It has been estimated that from the year 1751, the amount of CO2 globally produced has been above 1.5 trillion tonnes. Limiting the amount of greenhouse gas that is created, for instance from fossil fuels, must be undertaken to protect the earth.

Biomimicry is a revolutionary concept referring to the imitation of natural processes in artificial settings. It is a hallmark of sustainable research and development (R&D), contributing to circular and regenerative engineering in a host of applications. The concept is simple: We emulate natural processes to resolve critical challenges facing mankind today. Although this approach dovetails

In the ever-evolving landscape of chemical engineering and materials science, the advent of coated nanoparticles as catalysts stands out as a beacon of innovation. This groundbreaking approach has the potential to significantly enhance the rates of catalytic reactions, a development with far-reaching implications in various industrial and scientific domains. This article delves into how coated

Heterogeneous catalysts are revolutionizing how we approach chemical reactions, playing a pivotal role in various industrial processes. At Nikalyte, we recognize their immense importance and strive to advance their development and application. Understanding Heterogeneous Catalysts Heterogeneous catalysis occurs when the phase of catalysts differs from that of reactants or products, typically involving solid-phase catalysts and

Magnetic nanoparticles (MNPs) have become a focal point in nanoparticle engineering. Their unique magnetic properties, combined with their biocompatibility, have positioned them as a promising tool in various scientific and medical domains. As research progresses, the potential applications of these nanoparticles continue to expand, offering solutions to challenges once deemed insurmountable. Magnetic Particle Imaging (MPI)

The transition to sustainable energy sources is a critical objective, and electrolyzer technology is at the forefront of this endeavor. A notable advancement is the utilization of nanoparticle coatings, which have shown substantial promise in elevating electrolysers’ efficiency and operational effectiveness. This article delves into integrating nanoparticle coatings within electrolyzer technology, spotlighting its potential to

Water electrolysis, which splits water into hydrogen and oxygen using electricity, is gaining traction in the scientific community. A key component of this process is the catalyst, which accelerates the reaction. Among the myriad catalysts available, the Fe-Ni catalyst stands out for its exceptional properties and potential. Here, we delve into why Fe-Ni catalysts are