For traditional iron chloride solutions, only about 15% of the content is the active iron that does the work in the treatment plant, with the rest being transport medium like counter ions and water. Our technology produces the necessary coagulants directly on-site, eliminating the need to transport and handle the inactive components. This cuts out around 85% of the traditional supply chain, making the process more efficient and sustainable. For aluminum sulfate, the reduction can be even higher.

We use the Ecoinvent database to calculate our Scope 3 carbon footprint, aiming for maximum transparency. Our calculations are based on the average carbon footprint for iron ore and hydrochloric acid. Since we only use iron, we focus on that component. We also factor in transportation, but its impact is typically negligible.

You may encounter other carbon footprint calculations for iron chloride and other metal salts. We avoid using those because they often involve hypothetical scenarios that lack official certification. Some calculations treat hydrochloric acid or the metal as waste materials with no carbon footprint, which doesn't align with standard reporting practices

Green steel is steel produced using environmentally friendly methods that significantly reduce carbon emissions compared to traditional steel production. Traditional steel manufacturing is a major source of CO2 emissions due to the energy-intensive processes involved in converting iron ore into steel.

Companies like H2 Green Steel, Boston Steel, and Electra are pioneering innovative production methods to create green steel. H2 Green Steel uses hydrogen instead of coal in the steelmaking process, drastically reducing CO2 emissions. Boston Steel is developing a technology that utilizes electricity to produce steel, aiming for zero carbon emissions. Electra is also working on methods to produce green steel by leveraging renewable energy sources and advanced electrochemical processes. These efforts represent a significant step towards sustainable steel production, contributing to the reduction of industrial carbon footprints.

Traditional metal salts, such as iron chloride and aluminum sulfate, are produced through chemical reactions involving metal ores and acids. Iron chloride is typically produced by reacting iron ore or scrap iron with hydrochloric acid. This reaction produces iron chloride and hydrogen gas. The resulting solution is then purified and concentrated to the desired strength.

Aluminum sulfate is made by reacting bauxite, an aluminum ore, with sulfuric acid. This reaction produces aluminum sulfate and water. The solution is then purified and processed into solid or liquid form for use.

These processes are energy-intensive and generate significant carbon emissions, contributing to their high environmental impact

Just like with iron chloride, there could be a presence of heavy metals in our product. Steel can contain trace amounts of heavy metals such as lead, cadmium, and chromium. However, the presence of these heavy metals in our product will be extremely small and will be closely monitored by us. You will have the same exposure, or even less, compared to traditional iron chloride solutions. Our commitment to safety ensures that these levels remain well within regulatory limits, providing a reliable and safe alternative for your water treatment needs.

By cost-neutral, we mean that you will pay a similar price for our product as you currently do for your metal salts, such as iron chloride. Our innovative solution is designed to match the price range of traditional metal salts, ensuring there are no additional costs for switching to our technology.

However, while the cost is neutral, the overall impact is positive. You can save on other chemicals, benefit from improved discharge and reuse possibilities, reduce your carbon footprint, and enhance safety. These additional benefits translate into significant cost savings and operational efficiencies, making our solution not just cost-neutral, but cost-effective.