0
%
Elimination rate
Bacteria, viruses, Legionella, microplastics, and emerging contaminants - destroyed at a molecular level in live industrial conditions, not laboratory simulations.*
The science of Branilium™
The mechanism
Conventional treatment methods target contaminants after they have already established themselves in the liquid. Branilium™ works differently. It generates highly reactive oxidative species in plasma phase and injects them directly into the liquid, destroying pathogens, biofilm, and organic contaminants at a molecular level – continuously, not periodically.
Where UV can struggle in turbid and high-COD conditions due to limited light penetration, Branilium™ operates independently of optical clarity. Where ozone can introduce chemical instability or safety handling concerns, Branilium™ produces no NOx formation and requires no special precautions. And where biocides leave toxic residue and risk building microbial resistance over time, Branilium™ creates neither.
The result is a self-stabilizing treatment loop – not a shock treatment that wears off, but a continuous process calibrated to your specific contamination load.
Certified
Performance
Every claim Branilium™ makes is measured, certified, or independently verified.
Bacteria, viruses, Legionella, microplastics, and emerging contaminants - destroyed at a molecular level in live industrial conditions, not laboratory simulations.*
Validated in a major automotive powertrain facility. Fluid change-out cycles extended from monthly to six-monthly, with operating costs falling by 75% as a direct consequence.*
*Results from a validated pilot in a major automotive powertrain production facility. Outcomes depend on system conditions, liquid type, and correct sizing.
Understand how Branilium™ performs in demanding industrial and clean water environments.
Understand what is contamination in process fluids, the impacts and the risks.
Typical risk points include:
Because hidden contamination often starts in places standard fluid management does not address, and can contribute to: