The Power of Tristel Chlorine Dioxide
Our globally trusted chlorine dioxide chemistry:
Fast-acting and effective across diverse healthcare applications.
Our Chemistry
Understanding Chlorine Dioxide
Our proprietary chlorine dioxide (ClO2) chemistry, is generated by reacting sodium chlorite with citric acid. Tristel ClO2 delivers efficient disinfection at the point of care across diverse medical fields.
How Does Chlorine Dioxide Work?
As an oxidiser, ClO2 reacts by taking electrons from microorganisms, ultimately destroying them. This mode of action prevents the development of resistance to ClO2.
Why Choose Chlorine Dioxide in Healthcare Settings?
Superior Performance
Trusted in hospitals and healthcare settings worldwide for its high-level disinfection efficacy, effectively reducing healthcare-associated infections (HAIs).
Medical Devices Compatibility
Approved to be compatible with the instruments of major manufacturers for use on over 2000 medical devices and many more surfaces globally.
Meets International Standards
Our chlorine dioxide formulations comply with global infection control standards, ensuring reliable and effective disinfection practices.
Ease of Use
Delivers consistent results with one contact time and one dilution ratio per product, ensuring reliable disinfection every time.
Point of Care
Our chemistry works with our innovative delivery systems to facilitate simple but effective point of care disinfection, whilst maintaining an extended shelf life.
Fast Action, Minimal Downtime
Speeds up the disinfection process, reducing downtime in busy healthcare environments.
Mode of Action
Chlorine dioxide (ClO2) provides a selective oxidative mode of action, with a higher affinity for organic matter and microorganisms than nonorganic materials.
This selectivity and enhanced oxidative capacity allow chlorine dioxide to provide biocidal efficacy in Tristel products at relatively low active concentrations, enhancing our compatibility with device and surface materials commonly found in healthcare settings.
Exceptional Efficacy
Chlorine dioxide destroys bacteria, fungi and yeast by blocking protein production, damaging proteins, modifying amino acids and disrupting DNA. For spores, ClO2 targets and severely disrupts the inner cell membrane, ensuring effective disinfection.
Our chlorine dioxide chemistry has been proven effective against a broad spectrum of organisms from enveloped viruses to bacterial spores.
Our Product Portfolios
Our product portfolios harness the power of Tristel’s chlorine dioxide chemistry for effective disinfection and decontamination. Designed for healthcare and beyond, they ensure simplicity, while meeting the highest hygiene standards.
Medical Device Decontamination
Tristel Portfolio
Harnessing the power of Tristel’s chlorine dioxide chemistry, our product portfolios offer effective disinfection and decontamination solutions. Designed for healthcare and beyond, they ensure simplicity while meeting the highest hygiene standards.
Surfaces Disinfection
Cache Portfolio
Our Cache Portfolio leverages the proven efficacy of our chlorine dioxide, providing reliable disinfection solutions for both general and medical surfaces in healthcare settings.
Latest News
Chlorine Dioxide Highlights
Comparing Disinfectants: Alcohol, QACs, and Chlorine Dioxide
When selecting a disinfectant for healthcare or industrial settings, it’s crucial to understand the strengths and weaknesses of each option. Below is a comparison of 70% Alcohol, Quaternary Ammonium Compounds […]
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Navigating the Shadows – Understanding Six Uncertainties with UV-C Technologies
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Destroy SARS-CoV-2 in 30 seconds with Tristel Chlorine Dioxide
Why is effective medical device decontamination vital in the fight against SARS-CoV-2? Since the outbreak of SARS-CoV-2 there have been huge advances in our understanding of how the virus is […]
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Chlorine Dioxide Mode of Action on Viruses
Chlorine dioxide (ClO2) is a powerful biocide with proven efficacy against a wide range of microorganisms including viruses. Scientific research has been undertaken to understand the virucidal activity and mode […]
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