Bioremediation

Biological air treatment systems utilizing microbial consortia to eliminate VOCs, odors, and industrial airborne pollutants.

Acidophilic bacteria that oxidize sulfide minerals to release trapped copper, gold and rare earths from mine tailings, paired with hyperaccumulator plants that extract residual metals from contaminated soil and concentrate them into combustible 'bio-ore' — turning legacy mining liabilities into recovered metal and remediated land.

Biological treatment of toxic industrial wastewater — heavy metals, azo dyes, phenols and hydrocarbons from oil-and-gas, mining, textiles and microelectronics — using sulfate-reducing metal bio-precipitation, anaerobic membrane bioreactors and engineered degradation enzymes to recover metals and reuse water.

The coordination layer of the circular economy — geographic symbiosis networks, by-product matching platforms, material/digital product passports and circular supply-chain traceability that route one industry's residue to another's input.

Microbes and enzymes that degrade or destroy pollutants — waste plastic, PFAS, industrial effluents and municipal wastewater — a remediation value chain from contaminated streams to clean water, recoverable monomers and inert residue.

Microbes, enzymes and micro-fauna degrading microplastic already dispersed in soil and terrestrial matrices — a remediation value chain from plastisphere colonization to mineralization, distinct from industrial enzymatic plastic recycling.

Biological treatment of municipal sewage — activated sludge, membrane bioreactors, nitrogen/phosphorus nutrient removal, anaerobic digestion of sludge to biogas, and water reuse — a mature, globally deployed remediation value chain distinct from industrial effluent treatment.

Advanced bioremediation targeting per- and polyfluoroalkyl substances (PFAS) using engineered proteins, specialized microbial consortia, and bio-based adsorbents to break down forever chemicals.

Functional proteins, fibres and lipids recovered from food-industry side streams — okara, spent grain, brewer's yeast, coffee grounds — and returned to the human food chain as high-value B2B ingredients.

Conversion of agri-food and industrial biowaste into higher-value non-food products (biochemicals, biomaterials, bioactive extracts, biochar) via enzymatic hydrolysis, supercritical CO2 extraction and mycelial/insect bioconversion, under circular-bioeconomy regulation.

Turning the wastewater treatment plant itself into a multi-product factory — extracting struvite fertilizer, recovered cellulose and PHA bioplastic from sludge before it ever reaches a digester — the urban-siting model that converts a city's own organic waste into fertilizer, biomethane and district heat inside its own ring road, distinct from the AD-to-RNG plant or the reverse-logistics chain that feeds it.