BASU. Healthcare. Knowledge brings the greatest benefit

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BASU Healthcare Knowledge brings the greatest benefit

Knowledge brings the greatest benefit BASU is a privately owned company in Austria. We design and manufacture high quality products using simple reagents. Special knowledge is one of our big advantages. Generating on-site can replace, eliminate or reduce chemicals. We work closely with industry leaders to prove and develop new and exciting applications. We consider water treatment as one of our primary markets. BASOQUELL production units are ideal and potable wastewater disinfection devices. Due to the production technology BASOQUELL kills all potential pathogens in water without negative side effects for humans and environment. BASOQUELL adds no toxic compounds to the water provides lasting residual disinfectant without excess chemicals is safe, easy to use and inexpensive meets current and upcoming regulations

Why BASU products might be used for water purification Potential to improve biocide performance over current methods Improve safety through the elimination of hazardous (real or perceived) chemicals Enhance environmental stewardship by reducing or eliminating objectionable biocides Reduce cost over typical chemicals used Compact system lends itself to mobilization What is BASOQUELL? How does a Environment system work? How might it fit with the water purification? Where is it used now?

BASOQUELL On-Site is generated using Salt, Water, Electricity and Know How Salt + Water + Electric Power = Power Disinfectant Salt is added to water and passed through double chambermembrane electrolytic cell. A highly active biocide - BASOQUELL - is created in form of HCLO BASU delivers products and systems, generating BASOQUELL with following ability Destroys micro-organisms such as Salmonella, e-coli, listeria and anthrax spores Purify water, clean and degrease BASOQUELL fluids are powerful oxidizing solutions with a ph range of 2.0 8.8 and an Oxidation-Reduction Potential (REDOX / ORP) of +500 to +1300 mv. BASOQUELL can potentially be used as a broad-spectrum germicidal agent to kill all types of microorganisms including viruses, fungi and bacteria.

Based on extensive research - BASOQUELL fluids are environmentally friendly are non-toxic to humans and animals do not require special handling are powerful biocides can be safely disposed of in sewage systems are fast-acting can be generated on-site, thus eliminating handling and storage of chemicals can be produced on-site from any source tap water and salt in required quantities and concentrations of active ingredients and ph BASOQUELL has enhanced and stable oxidation power It is already a known fact that hypochlorous acid (HOCl) is a strong oxider, disinfectant, antimicrobial, etc. The technology was originally discovered by Michael Faraday when he developed his Laws of Electrolysis in 1834. Conducting electrical current across two electrodes in a salt brine solution may produce chlorine gas, sodium hypochlorite (bleach or NaOCl), hypochlorous acid, sodium hydroxide, hydrogen gas, ozone, and traces of other nascent oxidants.

Although they are similar, hypochlorous acid and hypochlorite are still very different. It would be like comparing grape juice to wine. Water chemistry dictates the chlorine species present in aqueous solutions. At a ph of between 5,0 6,0 the chlorine species is nearly 100% hypochlorous acid (HOCl). As the ph drops below 5,0 it starts to convert to Cl2 (chlorine gas). Above a ph of 6,0 it starts to convert to the hypochlorite ion (OCl-). A tremendous amount of published data exists to show that hypochlorous acid, not the hypochlorite (bleach) ion, is the efficacious specie of chlorine. Hypochlorous acid is a weak acid (pka of about 7.5), meaning it dissociates slightly into hydrogen and hypochlorite ions: HOCl <=> H+ + OCl-. Between ph 6.5 and 8.5 this dissociation is incomplete and both HOCl and OCl- species are present to some extent. Below ph 6.5 no dissociation of HOCl occurs, while above ph 8.5 complete dissociation to OCl- occurs. As the germicidal effect of HOCl is much higher than that of OCl-, chlorination at a lower ph is preferred. The germicidal efficiency of hypochlorous acid (HOCl) is much higher than that of the hypochlorite ion (OCl-). The distribution of chlorine species between HOCl and OCl- is determined by ph, as indicated above. Because HOCl dominates at low ph, chlorination provides more effective disinfection at low ph. At high ph, OCl- dominates, which causes a decrease in disinfection efficiency. The alkalinity of the sodium hypochlorite solution also causes the precipitation of minerals such as calcium carbonate, so that chlorination is often accompanied by a clogging effect.

The precipitate also preserves bacteria, making this practice somewhat less effective. General layout of On-Site Biocide Generation Sensor controlled BASOQUELL system Tap water

Generic benefits include increased worker safety - only salt and dilute solution is stored reduced environmental impact Transportation reduced less potential for leak hazard solution generated where needed and when needed low cost to generate more stable cost structure than bulk bleach Why our technology is much better than non membrane electrolysis Although seemingly analogous to chlorine, BASOQUELL is unique and clearly superior to sodium hypochlorite in the destruction of spores, bacteria, viruses and other pathogen organisms on an equal residual base. Sodium hypochlorite in concentration of 5% is effective only in disinfection, but not sterilization. Sodium hypochlorite is ineffective against cysts (Guardia, Cryptosporidium).

N o. Place of taking samles Contact time / min. C a.c. immediatel y after dosing (mg/l) Coliform bacteria (CFU in 100 ml) Termotoler ant coliform bacteria (CFU in 100 ml) C a.c. residual after contact time (mg/l) 1 Before tratment 2 After chlorination 3 After dosing BASOQUELL 4 After dosing BASOQUELL - - 3,3x10⁶ 3,0x10⁶ - 30 2,8 3,3x10⁴ 1,8x10⁴ 1,50 12 1,0 2,7x10⁴ 0 0,93 30 2,0 0 0 1,15 5 After dosing BASOQUELL 6 After dosing BASOQUELL 30 3,2 0 0 2,30 30 5,0 0 0 4,40 Elimination of sodium and caustic soda by the use of high rejection membrane technology produces pure hypochlorous acid at a neutral ph and therefore makes disinfection possible in short contact times without the high ph elements associated sodium hypochlorite. Oxidation Reduction Potential (ORP)- expressed in milli-volts - describes the oxidation potential, the level of sanitizing ability, or the killing potential of treated water irrespective of the kind of disinfectant or ph. Any water, for example, treated to have an ORP of greater than 500mV would be assured of being free of E. coli, Listeria, Salmonella and other pathogens. High ORP levels in BASOQUELL are possible due to the elimination of the caustics.

All water disinfection will result in the formation of disinfection by-products. BASOQUELL is no exception, but has the advantage that it does not contain the hydrox ion and will oxidize organic material to form lower levels of chlorates thus reducing halogenated by-products. The inorganic by-products, trihalomethanes (THMs), chlorite, chlorate and chloride ions formed when BASOQUELL is used, are held in balance at much lower levels. Thus, lower disinfection by-products are produced in the process, about 30% - 50% compared with sodium hypochlorite and other oxidants. This is because OCl- is the active reagent for THM formation, and this represents less than 4% of the FAC in BASOQUELL solutions, as 96% of FAC was found to be in the form of HCLO. Most of the pathogens, particularly water born, develop resistance to Sodium hypochlorite over time. BASOQUELL application, as water disinfectant on a daily basis for more than 10 years, demonstrated that microorganisms do not develop resistance against BASOQUELL over time. Sodium hypochlorite loses its activity during long-term storage and poses potential danger of gaseous chlorine emission during storage. ph % as HOCl % as OCL- 08/01/00 22 78 7,8 33 67 7,5 48 52 7,2 66 34 7,0 72 34 6,0 96 4 5,0 100 0

BASOQUELL is minimally corrosive primarily due it s low concentrations and, also due, to the elimination of the caustic element normally found in Sodium and Calcium Hypochlorite. BASOQUELL eliminates existing scale and pathogens harbored in scale and blocks dissolved solids in supplied water from forming new scale. Biofilm is eliminated. Sections of a building are not required to be closed to normal use during treatment. BASOQUELL system does not involve hazardous chemicals or burdensome maintenance. What to look at when comparing BASOQUELL Generated fluids: Properties of the fluids such as FAC, REDOX (ORP) and ph killing efficacy of fluids and particularly their ability to eliminate spores. stability of the fluids characteristics of cells and output capacity of single cell salt and power consumption to generate an effective disinfectant life span of the cells BASU products can be used in many areas