Drinking water & beverage facilities:
Multi Oxidant is a proven disinfectant for improving the quality and safety of drinking water with significant economic savings.
For providing clean, safe drinking water ranges from local communities to large cities. Also providing clean, safe water at food and beverage facilities.
It’s ideally suited for carbonated soft drinks bottling, Brewing, Dairy Farms, and Dairy and Food Processing applications.
Cleaning in place with onsite-generated electro-chemically activated oxidizing water for water-saving disinfection in breweries.
For most brewers obtaining a product with consistent characteristics is important, but this goal is difficult to be achieved given that effective production is frequently impeded by bacterial contaminants present in breweries.
Biofilm control in brewery manufacturing plants generally involves a process called clean-in-place (CIP), defined as the ‘cleaning of complete items of plant or pipeline circuits without dismantling or opening of the equipment and with little or no manual involvement on the part of the operator.
CIP systems generally involve the sequential use of caustic and acid wash steps and a disinfectant step, which is crucial for removing or killing beer spoilage bacteria.
Most sanitizers which are commonly used in brewery CIP consist of diluted condensed solutions, like for example hydrogen peroxide (H2O2), chlorine dioxide (ClO2) or peracetic acid.
The dilution process can involve risks and can be difficult to manage. In addition, some disinfectants contain additional ingredients such as heavy metals, intended to enhance stability, and which require thorough washing with running water to avoid the release of toxic residues. An alternative disinfectant, which is not produced from the dilution of hazardous condensed solutions, is therefore required for practical use…
The use of the ECA water anolyte solution is a relatively new disinfecting technique for brewery equipment. Experiments showed that a 30% anolyte (a free chlorine concentration of above 17 mg/L) was a sufficient and effective alternative to conventional disinfectants such as peracetic acid (2%). On the basis of the results of industrial-scale clean-in-place tests, an effective anolyte-based clean-in-place procedure, which requires only 10 min of cleaning and does not require final water rinsing after sanitation, was established for the bright beer tank…
Cit. Lu Chen, Rong Chen, Hua Yin, Jianxin Sui and Hong Lin (Copyright ©️ 2013 The Institute of Brewing & Distilling)
ECA stands for electrochemical activation and is a technology that has been employed for more than 100 years, although it was not until the 1970s that the physicochemical properties of ECA were extensively researched at the All-Russian Institute for Medical Engineering.
The transformation of low mineral salt solutions into an activated metastable state, by electrochemical unipolar action, generates two separate and distinct compounds, generically termed anolyte and catholyte which correspond to their derivative electrode chambers:
The use of electrolysis for the production of reductant-oxidant solutions is used in the processes of water purification and decontamination, as well as for transforming water or diluted electrolyte solutions into environmentally friendly anti-microbial, washing, extractive and other functionally useful solutions.
This is largely due to ECA high activity, use of cheap raw materials and ease of production.
The system produces a liquid disinfectant, non-toxic and degradable, capable of destroying bacteria, spores, viruses, moulds, yeasts, fungi, biofilms (biological incrustations) on pipes and removing odours. Its operation requires only water, Sodium or Potassium Chloride (salt) and electricity.
HOW ECA WORKS
ECA works the same way as the human immune system. When the body is under attack from invading bacteria and viruses, the immune system immediately responds by sending neutrophils (white blood cells) to the invasion site.
Neutrophils are one of the body’s main defences against bacteria and, once activated, produce large amounts of a mixed oxidant solution which is effective in eliminating invading microbes and pathogens.
This weak acid, which occurs naturally in the human body, is called hypochlorous acid (HClO) and it is a potent disinfectant. It is non-toxic to humans and is highly effective as an antimicrobial agent with rapid action. Hypochlorous acid is widely recognized as one of the most effective known biocides.
In detail, the system consists of an electrolysis cell containing two electrodes, a cathode and an anode, separated by a diaphragmatic membrane. In the cell is injected an aqueous solution consisting of filtered and softened water and, depending on the application, sodium chloride (NaCl, salt) or potassium chloride (KCl). With the use of electricity with predefined and controlled amperage and voltage values, the cell produces an electrically-activated liquid, Anolyte, with high disinfection power that can be used in a variety of applications.
This unipolar electrochemical activation created by potential gradients of millions of volts per cm2 between the anode and cathode terminals, results in the creation of solutions whose pH, Oxidation Reduction Potentials (ORP) and other physicochemical properties, lie outside of the range which can be achieved by conventional chemical means.
CHARACTERISTIC AND ADVANTAGES OF ELECTRO-ACTIVATED SOLUTIONS
Electro-activated solutions produced by the system are respectively:
|Acid Anolyte||Active Cl |
500 / 700 ppm
|2.5 / 5.0||1200 / 1000 mV|
|Neutral Anolyte||Active Cl |
500 / 700 ppm
|6.0 / 8.0||950 / 850 mV|
|Catolyte||Sodium hydroxide |
|10.0 / 12.0||-800 / -900 mV|
As presented in several scientific publications, multicellular organisms, including humans and hot blood mammals, to defend themselves against pathogens and foreign microorganisms are able to synthesize, through metabolism, complex mixtures of metastable oxidizing compounds.
These compounds possess a wide spectrum of action and are capable of damaging all major systemic groups of pathogenic microorganisms (bacteria, mycobacteria, viruses, moulds, spores, etc.) without damaging multicellular organisms and human tissues.
The oxidizing liquids and their chemical production mechanisms are similar to those generated in our ECA system and are precisely these common characteristics that give Anolyte a high biocompatibility with human tissues and multicellular organisms besides not being toxic to the environment.
Anolyte has the following advantages:
Anolyte and Catholyte also have the following characteristics: