The Basic
Electrolyzed salt water, our disinfectant, is made through a simple chemical reaction (electrolysis) between two common ingredients : salt and water. Salt is made of two elements - Sodium (Na) and Chloride (Cl), and water is also made of two elements - Hydrogen (H) and Oxygen (O). When an electric current is passed through salt water, it breaks down the water and salt molecules to create two supercharged new molecules that can clean and disinfect: sodium hydroxide (NaOH) and hypochlorous acid (HCLO). Hydrogen gas is a harmless byproduct and the reason why you will see gas bubbles coming up from the electrode as the generator is in work!
The Formula
A little Chemistry 101 …..
What Is It
Electrolysis
In chemistry and manufacturing, electrolysis is a commonly used technique that uses an electric current to activate an otherwise non-spontaneous chemical reaction, and produces different combination of molecules or chemicals. Electrolysis technology was first illustrated by Michael Faraday when he developed the Laws of Electrolysis in the 1830s. The key process of electrolysis is the interchange of atoms and ions by the removal or addition of electrons, thru the help of an external electrical current passing thru a pair of electrodes immersed in the electrolyte. Each electrode attracts opposite ions that are respective positively charged ions (cations) and negatively charge ions (anions). Having electrical current across two electrodes in a salt brine solution will produce sodium hypochlorite, hypochlorous acid, sodium hydroxide, hydrogen gas, chlorine gas, and traces of other oxidants. Different concentration of the brine solution, type of electrodes and electrolysis current/time will generate chemicals that serve a wide range of applications. Illume™ Spray is specifically designed to generate optimum effective disinfectant for cleaning and sanitization.
Hypochlorous Acid
Hypochlorous acid is a weak acid (pKa of about 7.5). The pKa is the pH value at which a chemical species will accept or donate a proton. At pKa of 7.5, it dissociates slightly into hydrogen and hypochlorite ions. Between a pH of 6.5 and 8.5 this dissociation is incomplete and both HOCl and OCl- species are present. Below a pH of 6.5, no dissociation of HOCl occurs, while above a pH of 8.5, complete dissociation to OCl- occurs. Both HOCL and OCL- species have the germicidal effects to different extent, and Illume™ Spray has optimized this hypochlorous acid concentration for effective disinfecting purpose.
Hypochlorous acid is found in our white blood cells, which use the same chemical to kill invading viruses, bacteria, and fungi. It is also the main active ingredient in bleach. Our electrolyzed salt water generator creates hypochlorous acid without harmful fumes or other toxic additives, unlike in many of today's bleach brands.
Sodium Hydroxide
Sodium hydroxide is another chemical with a variety of uses. It is used in the food processing industry to sanitize and process food products as well as a common ingredient in drain cleaners. The use of sodium hydroxide depends on its concentration: low concentrations are used in food preparation while higher concentrations are used for drain cleaners and other industrial cleaning agents. We have designed the Illume™ Spray to produce sodium hydroxide in low concentrations so it is safe for a variety of uses while retaining its efficacy.
How Well Does It Work
Electrolyzed salt water has been made for industrial uses for years. It has been used for a wide variety of applications, including but not limited to sanitize hands and feets prior to entering building, to sanitize contact surfaces, equipment, floors, bathrooms, for produce washers, hospital sanitation, food processing, and even wound and eye care. As an electrolyzed salt water maker, Illume™ Spray's electrode and volume markers are tuned to make the optimal concentrations of sodium hydroxide and hypochlorous acid to give you the best effective alternative for non-toxic cleaning and disinfecting. Electrolyzed salt water's effectiveness and safety have been shown in countless scientific papers and publications for a wide variety of uses.
For a quick glimpse into the science, in one study, scientists used electrolyzed water to disinfect beef as it was thawing. They found that electrolyzed water provided thawed beef with higher microbial safety compared with conventional thawing methods. In addition, electrolyzed water has shown great effectiveness particularly against viruses. Nearly every common bacterial pathogen has been studied such as E. coli, Salmonella, Listeria, Vibrio, Staphylococcus, MRSA, spore forming bacteria, and many common viruses (including Norovirus) and fungi. It kills microbial pathogens immediately upon contact by damaging cell walls or in-activate the pathogen by entering and disrupting proteins, lipids, and DNA. In yet another study done in 2016, researchers at the University of Washington School of Public Health found that HOCl was more than 99.99% effective in eliminating coronavirus OC43, which is similar to COVID-19.
More ….
Feel free to roam around the scientific collections, and better yet, google for the latest analysis and research in the effectiveness of this electrolyzed water. Following are some of the quick links to learn about the chemical compounds of electrolyzed water.
https://en.wikipedia.org/wiki/Sodium_hypochlorite
https://pubchem.ncbi.nlm.nih.gov/compound/Sodium-hypochlorite
https://www.hypochlorousacid.com/regulation
Here are some of the scientific journals reporting on this subject:
And lots of scientific papers regarding to the effectiveness of this disinfectant:
Scientific Journals |
Published Papers |
2004 ASAE Annual Meeting. American Society of Agricultural and Biological Engineers, 2004 |
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African Journal of Food Science 4.13 (2010): 778-789 |
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African Journal of Microbiology Research 4.20 (2010): 2174-2180 |
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Analytical Sciences 16.4 (2000): 365-369 |
The efficiency of disinfection of acidic electrolyzed water in the presence of organic materials |
Annals of Clinical Microbiology and Antimicrobials 13.1 (2014): 29 |
In vitro antimicrobial activity of Medilox super-oxidized water |
Applied and Environmental Microbiology 65.9 (1999): 4276-4279 |
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Applied and environmental microbiology 73.14 (2007): 4463-4468 |
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Aquaculture 319.3-4 (2011): 315-318 |
Elimination of Escherichia coli from oysters using electrolyzed seawater |
Archives of biochemistry and biophysics 367.2 (1999): 311-316 |
Reactive oxygen species are partially involved in the bacteriocidal action of hypochlorous acid |
Archives of Virology 159.3 (2014): 405-412 |
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Avian Diseases 59.4 (2015): 486-491 |
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Bulletin of Osaka Medical College 48 (2003): 29-36 |
A novel electrolyzed sodium chloride solution for the disinfection for dried HIV-1 |
Canadian Journal of Microbiology 58.4 (2012): 448-454 |
Efficacy of acidic and basic electrolyzed water in eradicating Staphylococcus aureus biofilm |
Clinical Ophthalmology (Auckland, NZ) 11 (2017): 707 |
Reduction in bacterial using hypochlorous acid hygiene solution on ocular skin |
Crop Protection 22.1 (2003): 73-77 |
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Crop Protection 29.4 (2010): 386-389 |
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Crop protection 30.10 (2011): 1274-1279 |
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Digestive Endoscopy 15.1 (2003): 19-24 |
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Diss. Clemson University, 2015 |
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EcoloxTech Norovirus Research - Study 1 |
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EcoloxTech Norovirus Research - Study 2 |
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Food and bioprocess technology 8.8 (2015): 1762-1770 |
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Food control 17.12 (2006): 987-993 |
Application of electrolyzed oxidizing water on the reduction of bacterial contamination for seafood |
Food Control 18.11 (2007): 1383-1390 |
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Food Control 21.10 (2010): 1383-1387 |
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Food Control 22.2 (2011): 318-322 |
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Food Control 22.3 (2011): 601-607 |
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Food Control 22.3-4 (2011): 452-456 |
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Food Control 22.5 (2011): 792-796 |
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Food Control 23.2 (2012): 320-324 |
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Food Control 23.2 (2012): 515-521 |
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Food Control 24.1 (2012): 116-122 |
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Food Control 24.1-2 (2012): 214-219 |
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Food Control 29.1 (2013): 42-48 |
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Food Control 30.1 (2013): 176-183 |
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Food Control 30.2 (2013): 580-584 |
Resistance of various shiga toxin-producing Escherichia coli to electrolyzed oxidizing water |
Food Control 32.2 (2013): 626-631 |
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Food control 33.1 (2013): 232-238 |
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Food Control 34.2 (2013): 472-477 |
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Food Control 36.1 (2014): 273-279 |
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Food Control 47 (2015): 277-284 |
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Food Control 50 (2015): 699-704 |
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Food Control 53 (2015): 117-123 |
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Food Control 54 (2015): 317-321 |
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Food Control 60 (2016): 401-407 |
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Food Control 60 (2016): 440-446 |
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Food control 60 (2016): 505-510 |
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Food Control 63 (2016): 246-254 |
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Food Control 67 (2016): 177-182 |
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Food Control 69 (2016): 147-152 |
Disinfection effect of slightly acidic electrolyzed water on celery and cilantro |
Food Control 71 (2017): 17-25 |
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Food Control 73 (2017): 889-899 |
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Food Microbiology 21.5 (2004): 559-566 |
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Food Microbiology 25.1 (2008): 36-41 |
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Food Microbiology 26.4 (2009): 386-390 |
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Food microbiology 28.3 (2011): 484-491 |
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Food microbiology 36.1 (2013): 40-45 |
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Food microbiology 46 (2015): 471-478 |
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Food Microbiology 51 (2015): 154-162 |
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Food microbiology 53 (2016): 165-171 |
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Food Research International 47.2 (2012): 331-336 |
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Food Science and Biotechnology 20.4 (2011): 889 |
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Food Science and Biotechnology 20.5 (2011): 1367-1371 |
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Food Science and Biotechnology 21.6 (2012): 1549-1555 |
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Food Science and Biotechnology 22.1 (2013): 131-136 |
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Food Science and Biotechnology 24.3 (2015): 1011-1016 |
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Food Science and Technology Research 11.2 (2005): 135-150 |
Applications of electrolyzed water in agriculture & food industries |
Food Science and Technology Research 20.1 (2014): 93-100 |
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Foods 5.2 (2016): 42 |
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Frontiers in Microbiology 7 (2016): 305 |
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HortScience 36.7 (2001): 1310-1314 |
Fungicidal effectiveness of electrolyzed oxidizing water on postharvest brown rot of peach |
Infection Control & Hospital Epidemiology 35.12 (2014): 1505-1510 |
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International journal of clinical and experimental medicine 8.7 (2015): 11463 |
An nvestigation into the in-vitro effectiveness of electrolyzed water against various microorganisms |
International Journal of Food Microbiology 106.3 (2006): 248-253 |
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International Journal of Food Microbiology 110.2 (2006): 149-154 |
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International Journal of Food Microbiology 123.1 (2008): 151-158 |
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International Journal of Food Microbiology 130.2 (2009): 88-93 |
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International Journal of Food Microbiology 132.2 (2009): 134-140 |
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International journal of food microbiology 136.3 (2010): 255-260 |
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International Journal of Food Microbiology 139.3 (2010): 147-153 |
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International journal of food microbiology 143.1 (2010): 54-60 |
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International Journal of Food Microbiology 155.3 (2012): 99-104 |
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International Journal of Food Microbiology 177 (2014): 1-8 |
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International Journal of Food Microbiology 179 (2014): 50-56 |
Fate of Vibrio parahaemolyticus on shrimp after acidic electrolyzed water treatment |
International journal of food microbiology 231 (2016): 48-53 |
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International Journal of Food Microbiology 61.2 (2000): 199-207 |
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International Journal of Food Microbiology 86.3 (2003): 231-237 |
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International Journal of Food Microbiology 91.1 (2004): 13-18 |
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International Journal of Molecular Sciences 17.7 (2016): 1161 |
Effectiveness of hypochlorous acid to reduce the biofilms on titanium alloy surfaces in vitro |
Intl. J. Food Eng 8.3 (2012): 41 |
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Journal Japanese Society of Food Science and Technology 48.11 (2001): 827-834 |
Sterilization effect and influence on food surface by acidic electrolyzed water treatment |
Journal of agricultural and Food Chemistry 50.1 (2002): 230-234 |
Inactivation of Staphylococcal enterotoxin-A with an electrolyzed anodic solution |
Journal of Agricultural and Food Chemistry 50.3 (2002): 633-641 |
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Journal of Antimicrobial Chemotherapy 46.3 (2000): 363-368 |
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Journal of applied microbiology 115.3 (2013): 703-710 |
Disinfection effectiveness of slightly acidic electrolysed water in swine barns |
Journal of Bioscience and Bioengineering 110.3 (2010): 308-313 |
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Journal of bioscience and bioengineering 112.1 (2011): 86-91 |
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Journal of Faculty Agriculture, Kyushu University, 55 (2), 275 280 (2010) |
Comparison of the Bactericidal Effect of Slightly Acidic Hypochlorous |
Journal of Food Engineering 110.4 (2012): 541-546 |
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Journal of Food Engineering 113.4 (2012): 548-553 |
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Journal of Food Engineering 72.3 (2006): 234-241 |
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Journal of Food Engineering 78.4 (2007): 1326-1332 |
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Journal of Food Engineering 91.4 (2009): 582-586 |
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Journal of Food Process Engineering 34.5 (2011): 1729-1745 |
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Journal of Food Processing and Preservation 25.2 (2001): 91-100 |
Inactivation of Listeria monocytogenes biofilms by electrolyzed oxidizing water |
Journal of Food Protection 62.8 (1999): 857-860 |
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Journal of Food Protection 63.1 (2000): 19-24 |
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Journal of Food Protection 63.11 (2000): 1534-1537 |
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Journal of Food Protection 64.12 (2001): 1935-1942 |
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Journal of food protection 64.9 (2001): 1334-1340 |
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Journal of food protection 65.8 (2002): 1276-1280 |
Effectiveness of electrolyzed water as a sanitizer for treating different surfaces |
Journal of Food Protection 66.11 (2003): 2017-2022 |
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Journal of Food Protection 66.2 (2003): 208-214 |
Efficacy of electrolyzed oxidizing water in inactivating Salmonella on alfalfa seeds and sprouts |
Journal of Food Protection 66.4 (2003): 542-548 |
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Journal of Food Protection 66.8 (2003): 1379-1384 |
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Journal of Food Protection 66.9 (2003): 1540-1540 |
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Journal of food protection 67.11 (2004): 2544-2549 |
Efficacy of Acidic Electrolyzed Water Ice for Pathogen Control on Lettuce |
Journal of food protection 67.6 (2004): 1247-1251 |
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Journal of Food Protection 67.7 (2004): 1377-1383 |
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Journal of Food Protection 68.5 (2005): 986-990 |
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Journal of Food Protection 68.7 (2005): 1375-1380 |
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Journal of Food Protection 69.7 (2006): 1616-1622 |
Electrolyzed oxidizing anode water as a sanitizer for use in abattoirs |
Journal of food protection 69.8 (2006): 1829-1834 |
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Journal of Food Protection 69.8 (2006): 1944-1948 |
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Journal of Food Protection 69.9 (2006): 2143-2150 |
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Journal of Food Protection 70.1 (2007): 102-108 |
Direct measurement of chlorine penetration into biofilms during disinfection |
Journal of Food Protection 71.3 (2008): 625-628 |
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Journal of Food Protection 72.6 (2009): 1315-1320 |
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Journal of food protection 72.9 (2009): 1854-1861 |
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Journal of Food Protection 73.12 (2010): 2211-2216 |
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Journal of Food Protection 74.9 (2011): 1552-1557 |
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Journal of Food Protection 77.1 (2014): 23-31 |
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Journal of food protection 77.12 (2014): 2043-2053 |
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Journal of food protection 77.12 (2014): 2176-2180 |
Efficacy of Neutral Electrolyzed Water for Reducing Pathogenic Bacteria Contaminating Shrimp |
Journal of Food Protection 78.6 (2015): 1147-1153 |
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Journal of food protection 78.7 (2015): 1280-1287 |
Control of Salmonella Cross-Contamination between Green Round Tomatoes in a Model Flume System |
Journal of Food Quality 33.5 (2010): 559-577 |
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Journal of Food Safety 31.1 (2011): 28-34 |
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Journal of Food Science 66.5 (2001): 729-733 |
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Journal of Food Science 66.9 (2001): 1368-1372 |
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Journal of Food Science 66.9: 1368-1372 |
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Journal of Food Science 68.3 (2003): 1013-1017 |
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Journal of Food Science 69.1 (2004): FMS23-FMS27 |
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Journal of Food Science 72.9 (2007): M397-M406 |
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Journal of Food Science 73.6 (2008): M268-M272 |
Effect of Electrolyzed Water for Reduction of Foodborne Pathogens on Lettuce and Spinach |
Journal of Food Science 74.4 (2009): M185-M189 |
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Journal of Food Science 75.2 (2010): M111-M115 |
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Journal of food science 75.4 (2010): M231-M238 |
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Journal of food science 75.5 (2010): M253-M260 |
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Journal of Food Science 76.6 (2011) |
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Journal of Food Science 77.1 (2012) |
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Journal of Food Science 77.4 (2012) |
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Journal of Food Science 80.6 (2015) |
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Journal of Food Science 80.8 (2015) |
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Journal of food science 81.1 (2016) |
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Journal of food science and technology 54.5 (2017): 1321-1332 |
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Journal of Gastroenterology and Hepatology 19.8 (2004): 897-903 |
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Journal of General Plant Pathology 82.4 (2016): 186-189 |
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Journal of the Air & Waste Management Association 64.4 (2014): 494-500 |
Slightly acidic electrolyzed water for reducing airborne microorganisms in a layer breeding house |
Journal of Veterinary Medical Science 77.2 (2015): 211-215 |
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Journal of Veterinary Medical Science 78.7 (2016): 1123-1128 |
Journal of Veterinary Medical Science 78.7 (2016): 1123-1128 |
Journal of Veterinary Medicine, Series B 53.3 (2006): 133-137 |
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Journal of Virological Methods 85.1 (2000): 163-174 |
Disinfection potential of electrolyzed solutions containing sodium chloride at low concentrations |
KASETSART JOURNAL (2006): 716 |
Efficacy of Electrolyzed Oxidizing Water for Inactivating Escherichia coli Inoculated on Holy Basil |
Korean Journal of Food Science and Technology 47.6 (2015): 719-724 |
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Letters in Applied Microbiology 35.4 (2002): 321-325 |
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Letters in Applied Microbiology 37.6 (2003): 482-487 |
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Letters in Applied Microbiology 40.5 (2005): 341-346 |
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Letters in applied microbiology 43.6 (2006): 666-672 |
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LWT-Food Science and Technology 59.2 (2014): 649-655 |
Combined effect of UV-C, ozone and electrolyzed water for keeping overall quality of date palm |
LWT-Food Science and Technology 60.2 (2015): 1195-1199 |
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LWT-Food Science and Technology 73 (2016): 615-621 |
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LWT-Food Science and Technology 79 (2017): 594-600 |
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Meat Science 68.3 (2004): 463-468 |
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Meat Science 71.1 (2005): 79-91 |
Post-harvest interventions to reduce/eliminate pathogens in beef |
Meat Science 71.2 (2005): 327-333 |
Application of electrolyzed oxidizing water to reduce Listeria monocytogenes on ready-to-eat meats |
Plant disease 76.5 (1992): 457-461 |
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Plant Disease 86.3 (2002): 278-281 |
In vitro fungicidal activity of acidic electrolyzed oxidizing water |
PloS one 8.2 (2013): e55118 |
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Polymers 7.12 (2015): 2638-2649 |
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Postharvest Biology and Technology 61.2 (2011): 172-177 |
The use of electrolyzed water as a disinfectant for minimally processed apples |
Poultry Science 81.10 (2002): 1598-1605 |
Comparison of electrolyzed oxidizing water with various antimicrobial interventions to reduce Salmonella species on poultry |
Poultry Science 82.1 (2003): 158-162 |
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Poultry Science 83.12 (2004): 2071-2078 |
Efficacy of electrolyzed oxidizing water for the microbial safety and quality of eggs |
Poultry Science 86.1 (2007): 123-127 |
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Poultry science 86.10 (2007): 2239-2244 |
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Poultry science 92.10 (2013): 2560-2566 |
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Poultry Science 93.9 (2014): 2320-2326 |
Benefits of neutral electrolyzed oxidizing water as a drinking water additive for broiler chickens |
Poultry science 94.11 (2015): 2838-2848 |
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Poultry Science 94.9 (2015): 2059-2065 |
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Proceedings of International Conference on Agricultural and Biosystems Engineering. 2011. |
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Rasmussen, Eric D., and Jeffrey F. Williams. Stabilized hypochlorous acid disinfection for highly vulnerable populations: Brio HOCL wound disinfection and area decontamination. 2017 IEEE Global Humanitarian Technology Conference (GHTC). IEEE, 2017. |
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The University of Georgia Cooperative Extension |
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The Veterinary Journal 197.2 (2013): 297-301 |
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Universitas Scientiarum 10.1 (2005): 97-108 |
Effectiveness of electrolyzed oxidizing water for inactivating Listeria monocytogenes in lettuce |
Wounds 27.10 (2015): 265-273 |