At Thermaissance, we believe that the future of textiles lies in the fusion of advanced technology, scientific innovation, and precision engineering. Our Thermaissance technology is grounded in the latest scientific research, including nanotechnology, biodefense technology, and smart textiles, enabling our fabrics to react dynamically to environmental conditions and protect the wearer from environmental stresses, microbes, and physical discomfort.
At the core of Thermaissance fabrics is nanotechnology, which is impregnated into the fibers themselves. This advanced technology allows us to create fabrics that are not only lighter, stronger, and more flexible, but also smarter. By embedding the nanotechnology directly into the fibers, we ensure that the enhanced properties—such as antimicrobial protection, moisture management, and thermoregulation—are long-term and do not wash out over time.
The antimicrobial mechanism is enabled by nanoparticles that are impregnated into the fabric fibers. These nanoparticles are extremely small, allowing them to interact with microorganisms at the microscopic level. Since the nanotechnology is embedded in the fibers, it provides constant antimicrobial protection that doesn’t wear off with use or washing. This makes Thermaissance fabrics more effective and long-lasting than surface-treated textiles.
Here’s how the antimicrobial mechanism works:
The bacteriostatic action in Thermaissance fabrics works by inhibiting the growth of bacteria. The fabric’s surface contains nanoparticles that interfere with the bacteria’s ability to reproduce and spread, effectively preventing an infection from forming. However, if the bacteria continue to come into contact with the fabric, the bactericidal action kicks in, killing the bacteria by disrupting their cell walls and metabolic processes, ensuring that harmful bacteria cannot thrive on the fabric.
In addition to bacteria and fungi, Thermaissance fabrics are designed to protect against viruses. The virustatic action prevents viruses from replicating by binding to viral particles and preventing them from attaching to human cells. Meanwhile, the virucidal action works by directly destroying viral particles, rendering them inactive and incapable of causing an infection.
Similarly, the fungistatic action works by stopping the growth of fungi. This is particularly important for preventing fungal infections in environments where moisture is prevalent, such as military settings, healthcare environments, and tropical regions. The fungicidal properties of Thermaissance fabrics actively destroy fungal pathogens, such as aspergillus, candida, yeasts and molds, by disrupting their cellular structure and metabolism, thus eliminating the risk of fungal infections.
The antimicrobial protection is long-term and does not wash out, ensuring continuous protection against harmful microorganisms over time.
By reducing the presence of bacteria, fungi, and viruses, Thermaissance fabrics promote hygiene and health, making them ideal for high-risk environments like hospitals, military operations, and sports gear.
The antimicrobial properties help in controlling odor caused by bacterial and fungal growth, ensuring that fabrics stay fresh even after long-term wear.
Thermaissance has been scientifically at many third-party labs in USA and India that are ISO 17025 certified and part of ILAC network (Know why ISO 17025 certification is important)
Following is the summary of all the studies conducted where Thermaissance fabrics have shown very strong biodefense:
Bacteria | International Standards |
---|---|
Acinetobacter baumannii | JIS L 1902:2015 |
Klebsiella pneumoniae (Carbapenem Resistant) (CRE) | JIS L 1902:2015 |
Escherichia coli | ASTM E 2149-20 |
Klebsiella pneumoniae | JIS L 1902:2015 |
Methicillin-resistant Staphylococcus aureus (MRSA) | JIS L 1902:2015 |
Mycobacterium Tuberculosis | AATCC 147-2016 |
Staphylococcus aureus | JIS L 1902:2015 |
Vancomycin resistant Enterococci (VRE) | JIS L 1902:2015 |
Fungi | International Standards |
---|---|
Aspergillus niger, Aspergillus flavus, Aspergillus versicolor, Penicillium funiculosum, and Chaetomium globosum | US MIL STD 810G 508.7 |
Aspergillus niger | AATCC 30 (Part III) - 2017 |
Candida albicans | Method based on AATCC 100 |
Mucorracemosus | AATCC 30 (Part III) - 2017 |
Enveloped Viruses | International Standards |
Human Coronavirus 229E | ISO 18184 |