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Showing posts with the label #ChitoArmor

The Science Behind the Chito Armor Solution

 It All Starts With a Harvest… The raw material from which Chitosan is derived is found in the shells of many species, but is in abundance in crustaceans, like shrimp, lobsters and crabs. Until recently, the exoskeletons of these creatures has been generally considered waste product, or perhaps as supplements for soil aeration or fertilization. The meat is extracted from the shells and the shells were thrown away. What Makes for a Defensive Shell… There’s no mistaking that shellfish are known for their tough, glossy, protective armor. What allows these invertebrates to survive and defend themselves so effectively from natural enemies is the balance of: Calcium – 35% (hardness) Chitin – 40% (binding), and Protein – 25% (elasticity for growth). These combine to create an amazing structure, in the same way bricks, mortar and water can be used to build a wall. Byproduct Separation Begins… Once the meat is extracted from the shells, the exoskeleton is thoroughly washed, sanitized and dried

Chito Armor by Beyond Klean

Chito Armor is a revolutionary technology powered by chitosan, a natural substance derived from crab shells, is a groundbreaking solution for achieving antimicrobial protection of textiles, surfaces and hand's. This eco-friendly technology effectively inhibits the growth and odor-causing effects of bacteria, mold, mildew, and fungi, aligning with the EPA's minimum risk pesticide exemption standards outlined in 40 CFR 152.25(f). Chito Armor has demonstrated remarkable efficacy in its ability to suppress bacterial growth, making it a valuable tool for maintaining clean and odor-free environments. Chito Armor harnesses the inherent antimicrobial properties of chitosan, a plentiful and renewable resource, to provide a safe and effective treatment for textiles and surfaces. By interacting with the surface of bacterial cell walls, chitosan forms an impermeable barrier that disrupts the transport of essential ions and molecules, ultimately leading to the destruction of bacteria. Desig