About
us

Elentium Technologies is at the forefront of the global transition to sustainable technologies. We believe that fundamental change begins at the molecular level, so our focus is on innovations rooted in materials science and chemistry, where real and lasting progress is made.

Our goal is making state-of-the-art solutions mainstream while safeguarding against negative environmental effects. We collaborate with scientific groups, research centres and industry partners to bring ideas from the lab to the market.

What we do
01
Identify promising innovations in laboratories and research groups
02
Take them from the prototype stage to pilot installations
03
Provide infrastructure for testing and scaling to bring new products to market
04
Partner with businesses on joint development and investment projects
Our mission

Reinventing chemistry for a sustainable future

The era of conventional energy extraction and production methods is coming to an end. Our shared future depends on how quickly we can transition to sustainable practices.
Elentium Technologies

At Elentium we identify, accelerate and scale early-stage breakthroughs in sustainable technology to drive meaningful global impact. From renewable energy and green chemistry to advanced materials and digital solutions, we’re building pathways that connect scientific findings with real-world applications.

We’re driven by the belief that sustainability and innovation go hand in hand. Our work transforms early advances into practical, scalable solutions that reduce environmental impact, improve efficiency and enhance quality of life.

Elentium is more than a technology company. It’s a platform where scientists, engineers and business experts come together to create the foundations of a cleaner, more resilient energy economy.

New
energy
Energy
efficiency
Green
chemistry
Hydrogen fuel cells
Hydrogen fuel cells are a viable alternative to traditional fuels such as gasoline and diesel. We focus on high-quality, efficient catalysts for these devices.
PEM electrolysers
Electrolysis of water is currently the primary method for producing renewable electricity via green hydrogen, and this is set to continue. Our catalysts aim to reduce iridium consumption and demonstrate low lifetime degradation during long-term testing.
Solar energy
While most solar panels use standard silicon technology, we are leading the way with a powerful new material called perovskite.
Alkaline electrolysers
Alkaline electrolysers are a proven and cost-effective technology for producing green hydrogen by splitting water into hydrogen and oxygen using electricity. Our next-generation catalyst builds on this reliable foundation, aiming to boost efficiency and durability for large-scale, sustainable hydrogen production.
Anodes for water
treatment
Sodium hypochlorite is growing in popularity as a method for water purification. Our goal is to develop anodes for sodium hypochlorite production with substantial improvements in energy efficiency.
Methane steam
reforming catalyst
Methane steam reforming (MSR) is the most popular method for converting natural gas into hydrogen and carbon monoxide. Our catalysts reduce energy consumption while making the equipment simpler and the process more environmentally friendly.
Glycolic acid
Glycolic acid (hydroxyacetic acid) has a high level of solubility and demonstrates good reactivity among the AHA (alpha hydroxycarboxylic acid) class. We are focusing on a catalyst technology for the safe, high-tech synthesis of glycolic acid.
FDCA (2,5-furandicarboxylic acid)
2,5-furandicarboxylic acid (FDCA) is a promising bio-based compound that has been extensively studied as a replacement for terephthalic acid (TA) in polyester production over the past decade. Our catalysts allow for the production of FDCA with the highest efficiency, while minimizing environmental impact.
Hydrogenation
of fats
Reducing trans fat consumption is a key issue on the global policy agenda. Our highly selective catalyst for hydrogenating vegetable oils minimizes trans isomer formation thanks to its high activity levels.