Methane valorisation via plasma technology involves converting methane, a byproduct of the chemical industry, into higher-value chemical products. This process uses plasma to directly convert methane into hydrogen, ethylene and acetylene, all important precursors for fertilisers, plastics and other commodity chemicals. This transformation allows for the utilization of methane, which would otherwise contribute to climate change and supports the transition to a more sustainable energy and chemical sector.

Nitrogen fixation via plasma technology offers a new pathway for the production of fertilisers and other nitrogen compounds, directly from air, using electrical energy. Plasma-driven processes can avoid the greenhouse gas emissions associated with the traditional Haber-Bosch process, operating on-site to meet fertiliser requirements in agriculture.

Plastic recycling through plasma technology offers an advanced solution to the problem of plastic waste. By breaking down complex polymers into simpler molecules or even monomers, plasma processes can potentially enable the recycling of plastics that are currently considered non-recyclable. This technology could revolutionize waste management and contribute to reducing plastic pollution, turning waste back into valuable raw materials for the production of new plastics or other chemicals.

CO₂ valorisation using plasma technology involves converting carbon dioxide into valuable chemicals and fuels, such as methane, methanol, or even longer hydrocarbons, through plasma-induced reactions. These processes aim to use renewable energy sources to power the plasma, turning CO₂ from a greenhouse gas into basic molecules for the production of e-methanol, for example. This not only helps in tackling climate change but also contributes to the circular economy by creating a sustainable source of raw materials.