Solutions based on thermochemical technologies for the production of energy for industry with greater efficiency and bioavailability
We transform products to offer greater energy value to industry
Within the framework of the energy transition and the circular economy, gasification and pyrolysis represent high value-added solutions for transforming organic waste, agro-industrial byproducts, and lignocellulosic materials into reusable energy and chemical vectors. These technologies make it possible to convert fractions traditionally difficult to utilize into intermediate products such as syngas, bio-oil, or biochar, which can be used for energy generation, fuel synthesis, or high-value industrial applications.
These technologies not only improve the overall efficiency of integrated energy systems but also allow for giving a second technical life to waste streams in industrial environments. This line of development consolidates a sustainable, replicable thermochemical valorization model with a real impact on industrial decarbonization.
Gasification offers industry a way to transform organic solid waste into a synthesis gas usable both energetically and chemically. This gas—rich in hydrogen, carbon monoxide, and methane—can be directly utilized to power cogeneration systems, industrial boilers, or turbines, or it can be purified and used as a feedstock for the production of biofuels, fertilizers, or intermediate products in the chemical industry. For sectors with high thermal or electrical demand, this conversion represents a viable alternative to substitute the use of natural gas or fossil fuels, resulting in an immediate reduction of the carbon footprint and greater energy autonomy.
Beyond energy performance, gasification allows for the integration of low-value byproducts within the production scheme itself, closing the loop between waste and resource. This opens the door to more efficient industrial models, particularly in agro-industrial, paper, or agri-food environments. From an operational perspective, it implies not only a reduction in waste treatment and logistics costs, but also an optimization of processes by generating energy or useful inputs directly on-site, adapted to the real needs of each plant.
Pyrolysis, on the other hand, allows for the conversion of biomass or organic byproducts into liquid, gaseous, and solid fractions without the need for oxygen. This controlled decomposition offers a very versatile tool for industry, as it can be oriented according to specific objectives: generating bio-oil as an intermediate liquid fuel, recovering gases for thermal self-consumption, or producing biochar, a carbonaceous solid with multiple applications. Its value lies in transforming difficult-to-manage waste into products with commercial or functional value, adapting to industrial models seeking to diversify their energy sources or incorporate solutions based on biogenic carbon.
In the context of the energy transition, pyrolysis is establishing itself as a key tool for carbon sequestration. The resulting biochar can be used as a permanent CO2 sink, as well as an additive in agricultural soils or construction materials. This allows industries to reduce their environmental impact and incorporate new product lines with strategic and commercial value. Integrating pyrolysis into industrial processes allows for stabilizing waste, generating energy inputs, and creating value from materials that previously represented a cost, contributing to a truly circular and low-carbon economy.
