- About us
- Products
Uvisan’s smallest full-power UV-C cabinet, disinfect and charge up to two headsets.
Cleanroom™ Whole-room, safe, programmable disinfection, in just 10 minutes.
- Technology
- Resources
- Blog
- Contact us
Uvisan’s smallest full-power UV-C cabinet, disinfect and charge up to two headsets.
Cleanroom™ Whole-room, safe, programmable disinfection, in just 10 minutes.
Uvisan’s smallest full-power UV-C cabinet, disinfect and charge up to two headsets.
Cleanroom™ Whole-room, safe, programmable disinfection, in just 10 minutes.
If you’ve ever wondered what UV-C disinfection is, here’s the simple version. UV‑C is a short‑wavelength band of ultraviolet light that doesn’t reach us naturally because the ozone layer absorbs it. In a controlled device, we recreate that light and aim it at objects or air to stop microbes from multiplying. No sprays, no residues, just light doing highly targeted work.
That’s why UV‑C fits so neatly alongside everyday cleaning. Wipes lift dirt, UV‑C finishes the job by dealing with what you can’t see. For busy teams handling shared tech, VR headsets, tablets, and handheld scanners, that extra assurance matters. New to the topic? Start with our overview of the technology and safety principles.
Think of the spectrum of light as a ruler. Visible colours sit in the middle. Slide left into shorter wavelengths and you enter ultraviolet. The electromagnetic spectrum UV-C lives between 200–280 nm, with a strong germicidal peak close to 254 nm. Those UV‑C wavelength nanometers carry enough energy to damage the genetic material of microbes.
Here’s the important bit for decision‑makers: genetic material, DNA in bacteria and many viruses, RNA in others, soaks up this light. The energy causes bonding errors (for example, thymine or cytosine dimers), which breaks the organism’s ability to copy itself. No replication, no colony. This is the core science behind UV‑C light.
Dose matters. Peer‑reviewed studies show that relatively modest doses (often in the low tens of mJ/cm²) can inactivate many viruses and bacteria, provided the light reaches them directly. Equally, two environmental factors change performance: distance (intensity drops with the square of the distance) and shadowing (objects block light). Good design tackles both with reflective interiors, consistent lamp output, and validated cycle times.
If you’d like the long‑form evidence base, an independent review in the Journal of Hospital Infection walks through wavelength, dose, and limitations in clinical spaces. We recommend it as a balanced technical read (see the open‑access summary on the National Library of Medicine).
Load the items, close the door, run the cycle. Inside a Uvisan cabinet, calibrated lamps flood the chamber with a controlled dose. That dose is measured in millijoules per square centimetre and is delivered over a short period, typically around two minutes in our cabinets. The result is fast, reproducible microbial reduction without liquids, heat, or abrasion. This is the proven mechanism of UV‑C disinfection.
Because the process is line‑of‑sight, physical cleaning still matters. Dust, fingerprints, or layers of grime can shield microorganisms. The best routine is simple: wipe to remove visible soil, then run UV‑C to finish the job. It’s the same principle hospitals use to combine manual cleaning with automated systems. See how this plays out day to day in our piece on infection control in healthcare settings.
This isn’t a turf war, UV‑C light vs traditional disinfection makes the most sense as a layered approach:
In real deployments (including NHS trusts and simulation centres), adding UV‑C has been linked with measurable reductions in surface contamination on shared devices. For operators, the benefit is simple: a predictable, short cycle you can fit between handovers. Want a plain‑English walkthrough of the benefits? Read our blog, the power of UV‑C.
UV‑C has a range. Here are typical use cases we support across sectors:
So, is UV‑C light effective against bacteria? The short answer is yes, provided dose and exposure are correct. Viruses and yeasts respond at different dose levels, but the principle is the same: block replication, reduce risk.
Two developments are worth watching:
Engineering also matters: dose monitoring, lamp ageing compensation, and reflective geometry all contribute to consistent outcomes, cycle after cycle.
For teams that share devices, the appeal is practical:
Used with routine cleaning, UV‑C delivers the reliability modern environments expect. If you’re building a hygiene standard for classrooms, clinics, studios, or enterprise fleets, this is a proven way to raise the bar, quietly.
Explore the underlying science on our technology page. If you need help scoping capacity (how many headsets per cycle, how many cycles per day), we’re happy to advise.
Uvisan Limited
Kingswood House South Road
Bristol BS15 8JF