Technology
High surface area activated carbon
High Surface activated Carbon – a powerful and eco-friendly solution for water, air purification, color removal, harmful materials removal and storage application needs. Derived from sustainable biomass, this remarkable product boasts exceptional adsorption capabilities, effectively removing impurities, odors, and harmful substances.
Biomass based activated carbon is a versatile adsorbent that tackles a wide range of contaminants in both water and air. Its porous structure traps and retains pollutants, ensuring cleaner, safer environments and promoting better health for all. If you're looking for the coconut shell activated carbon price in India, it varies based on quality, quantity, and supplier, making it essential to compare options for the best value.
Biomass based activated carbon stands out for its sustainable sourcing and high-quality manufacturing process. With a commitment to environmental responsibility, we offer a carbon solution that's not only effective but also supports a greener planet.
Hydrogen generation – Pyrolysis process
The process of biomass pyrolysis, which produces a synthesis gas (syngas) rich in hydrogen, entails heating organic materials in an inert atmosphere. Additional processes, including catalytic steam reforming, are frequently needed in the process to improve the yield and purity of hydrogen. The entire process is regarded as a carbon-neutral and sustainable way to produce green hydrogen.
Process 1 Fast Pyrolysis
- Input : Heat the biomass in the absence of oxygen.
- Output: Low % of hydrogen gas generation.
Process 2: Catalytic Steam Reforming
- Input: The pyrolysis gases and bio-oil vapours are fed into a second reactor, where they are reacted with steam at high temperatures in the presence of a catalyst and results hydrogen-rich gas stream is produced
- Output: Yield enhancement thro catalytic steam reforming and results hydrogen-rich gas stream is produced
Nanosol in Concrete
- The properties and processes at the nanoscale define the interactions that occur between particles and phases at the microscale and the effects of working loads and the surrounding environment at the macroscale.
- Processes occurring at the nanoscale ultimately affect the engineering properties and performance of the bulk material.
Geopolymer nanocomposite Concrete
Concrete, as one of the most widely used building materials, is known in civil engineering projects worldwide. Considering the high consumption of concrete and the increasing demand for cement production, attention to the environmental detrimental effects of this substance, including its contribution of about 7% to carbon dioxide emissions in the atmosphere and considerable energy consumption such as electricity and fossil fuels, is inevitable, and offering alternative products in the path of sustainable development is considered essential.
Geopolymer nanocomposite concrete can be a suitable substitute for Portland cement concrete as a scientific and practical solution. Geopolymer cements require less energy for production and reduce carbon dioxide emissions by 22 to 72% compared to Portland cements. Therefore, one of the solutions to produce environmentally-friendly concrete is the use of pozzolanic and supplementary cementitious materials and reducing the consumption of Portland cements
Compressive strength: The compressive strength of geopolymer nanocomposite concrete in the first three days can reach up to 90% with the support of nanocomposite material..
Adhesive strength: The adhesive strength of geopolymer concretes is higher than that of ordinary concrete, which directly relates to their compressive strength.
Durability: Geopolymer concretes have a cohesive and low porosity structure, offering low permeability and good durability.
Acid attack resistance: Due to their composition based on silicate-aluminates, geopolymer concretes have good resistance to corrosion.
Low energy consumption: No energy is required for processing these concretes as they can set at ambient temperature.











