BAE™ Biological Activity Enhancer
BAE™ - Biological Activity Enhancer is a revolutionary proprietary organic formula that enhances biological efficiency by increasing microbial populations and maximizing their activity. It is like a powerful energy drink for the existing microbial population. This powerful liquid is derived from highly humified peat sources and blended using a patented stabilization and extraction process.
Properties
- Physical Form
- Liquid
Product families
Applications
- Water Treatment
Product Families
- Water Treatment Additives
Other characteristics
- Brand
- BAE
- Features
Cost Effective; It is the patented process used to create BAE that makes it so effective and unique.; Reduced polymer use & costs.; Reduced hauling costs.; Improved operational efficiency in the aeration basins.; Enhanced biogas production in anaerobic digesters.; Superior solids handling.; Greater operational stability throughout the plant.; Reduce cost of retreating solids.; BAE™ has been university tested and proven through real world applications. As the green component to the engineered infrastructure, BAE™ offers operators an organic alternative to maximize the efficiency of their operations while complementing their environmental initiatives
- Functions
- BOD Reducer, Microbe, Sludge Reducer
- Applicable Processes
- Gas Production, Water Treatment
- Gas Production
- Water Treatment
- Markets
- Industrial
- Working
It has the unique ability to stimulate the indigenous microbial population of the wastewater treatment plant by permeating cell walls, initiating a chain reaction within the biological environment that accelerates the growth of the microbial population and maximizes biological activity.; University studies have shown that BAE will cause the microbial population to increase 4 to 5 times and double in activity in a relatively short period of time.; BAE also creates a more favorable environment for microbes to grow and thrive by supplementing the treatment plant's biomass with organic nutrients and adsorbing heavy metals and inhibitors.; As a result, microbes are free to reproduce and break down sludge at an accelerated rate.; In addition, this healthier biological population enhances the biomass's ability to respond to changes in the wastewater environment.
- Technology
- Industrial Additives & Materials
- Labeling Claims
- Bio-based
- Non-Toxic
- Certifications and Compliance
- Microbiome-friendly
- Industrial Additives Features
- Cost Effective
- Industrial Additives Functions
- BOD Reducer
- Microbe
- Sludge Reducer
- Anaerobic Digestion & Biogas Production
BAE™ helps operators take full advantage of the energy source right at their finger tips by stimulating the native biology.; Just as with the operational efficiency application, the formula inhibits the negative impact of toxic elements and triggers a metabolic reaction among the existing microbial population.; As a result of this reaction, the natural process of biogas production is enhanced and users benefit from: 30-50% Boost in Biogas Production Increased Volatile Solids Reduction Improved Dewatering of Sludge Decreased Polymer Usage Reduced Sludge Hauling and Disposal Needs Positive Impact on Plant Headworks due to Cleaner Centrate/Filtrate; 30-50% Boost in Biogas Production; Increased Volatile Solids Reduction; Improved Dewatering of Sludge; Decreased Polymer Usage; Reduced Sludge Hauling and Disposal Needs; Positive Impact on Plant Headworks due to Cleaner Centrate/Filtrate
- Humic and Fulvic Acids
BAE is made up of high molecular weight humic and low molecular weight fulvic acids, along with other dissolved or suspended organic matter.; The smaller fulvic acid molecule adds to BAE's ability to manage micronutrient metals and nutrients in the system.; The Company's patented process produces the highest yields of both humic and fulvic acids, which enable BAE to more effectively permeate cell walls for maximum microbial stimulation.; BAE is also partly made up of high levels of aromatic hydrocarbons.; This combination of molecules cannot be broken down by microbial activity any further and has reached its highest organic reactivity potential as a result.
