Illuminating Immersion: UV-C's Impact in Virtual Reality - Uncovering Risks and Benefits

Logo Square

UVISAN Cabinet Enquiry

Please let us know what's on your mind. Have a question for us? Ask away.


In recent years Virtual Reality (VR) has evolved from a niche technology to a mainstream phenomenon, captivating users with immersive digital experiences that blur the boundaries between the real and the virtual. As the demand for more lifelike and engaging VR content surges, so does the need for addressing the crucial aspect of hygiene within this dynamic realm. Enter Ultraviolet-C (UV-C) technology, a potent and versatile tool that is revolutionising the way we approach cleanliness and sanitisation in virtual reality.

UV-C, a short-wavelength ultraviolet light with germicidal properties, has long been recognised for its efficacy in sterilisation and disinfection applications in various industries. Now, its remarkable potential in elevating VR experiences through improved hygiene standards is taking centre stage. In this article, we delve into the pivotal role of UV-C in VR, focusing on its ability to transform the way we perceive and maintain hygiene within virtual environments. From sterilising VR equipment to mitigating the risks of shared experiences, UV-C technology is paving the way for a cleaner, safer, and more enjoyable virtual reality landscape. There are of course risks when implementing UV-C technology and in the article we explore both the benefits and risks involved when using UV-C as well as offering guidance on how to minimise any potential risk that may come from using a UV-C product.

Understanding UV-C

Understanding UV-C (Ultraviolet-C) involves exploring the intriguing world of short-wavelength ultraviolet light, a powerful and unique form of electromagnetic radiation. Falling within the 100 to 280 nanometer range, UV-C possesses exceptional germicidal properties, making it an effective tool in the battle against harmful microorganisms. The key to UV-C's potency lies in its ability to disrupt the DNA and RNA of bacteria, viruses, and other pathogens, rendering them unable to reproduce and thus neutralising their harmful effects. This property has led to the widespread application of UV-C in various industries, including water and air purification, healthcare, and food processing. In recent times, UV-C has also found its way into the realm of Virtual Reality (VR) and Augmented Reality (AR), where its benefits extend beyond mere sterilisation. UV-C technology is being harnessed to improve the hygiene of VR equipment, ensuring a safer and cleaner user experience. However, it is crucial to recognise that UV-C exposure poses potential dangers to living organisms, including humans. As we integrate UV-C into the realm of VR and AR, a balanced understanding of its capabilities and limitations becomes essential to harness its power effectively and responsibly.

History of UV in VR / AR

In the mid-2010s, the first instances of UV-C implementation within Virtual Reality (VR) emerged as companies and researchers explored its germicidal potential. An early example was the introduction of automated UV-C cleaning stations in VR arcades and public VR spaces. These stations allowed users to disinfect VR headsets and controllers between sessions, minimising the risk of infections spreading among different users. This was of course pre-covid.

The Virtual Reality (VR) industry experienced a significant negative impact due to the COVID-19 pandemic. Before the outbreak, VR arcades, amusement parks, and entertainment venues were thriving, offering consumers a chance to experience VR in a social and interactive setting. However, with strict social distancing measures and lockdowns in place, these public VR spaces faced closure, leading to revenue losses and business uncertainties. The fear of potential virus transmission through shared VR equipment deterred many customers from visiting these establishments, further exacerbating the industry's struggles. Consequently, VR arcade operators and businesses had to adapt rapidly to the changing landscape, investing in rigorous sanitisation protocols, implementing UV-C disinfection systems, and adhering to strict hygiene standards to regain public trust. Despite the challenges, the resilience of the VR industry and the implementation of UV-C technology played a vital role in the gradual recovery of public VR spaces, fostering a safer and cleaner environment for users eager to experience the joy of VR in shared settings once again.

Post-covid saw the popularity of UV-C technology really skyrocket with the adoption of UV-C disinfection systems like Uvisan cabinets. Uvisan cabinets, equipped with powerful UV-C lamps, offered an automated and efficient way to sanitise VR headsets and importantly, also controllers between users. These cabinets used UV-C radiation to deactivate harmful pathogens, ensuring a clean and safe experience for each participant. These pioneering applications showcased the potential of UV-C technology to revolutionise VR hygiene, providing users with a worry-free, germ-free, and highly enjoyable virtual experience. Suffice to say, whilst Covid may have been the catalyst for UV-C technology becoming so popular within VR / AR, it has now gone far beyond that, with hygiene itself being the focal point more generally, as opposed to Covid specific prevention.

Benefits of UV-C in VR / AR

One of the most significant advantages of UV-C is its powerful germicidal properties, which make it highly effective in disinfecting VR equipment and accessories. Automated UV-C cleaning systems, such as Uvisan cabinets, provide a quick and efficient way to sanitise VR headsets, controllers, and other shared accessories, reducing the risk of cross-contamination in public VR spaces. By eradicating harmful pathogens, UV-C ensures a safer and more hygienic environment for users, instilling confidence in their virtual experiences. Moreover, UV-C technology helps to extend the lifespan of VR equipment by keeping it free from harmful microbes without the need for chemicals and mechanical cleaning, leading to cost savings and reduced equipment maintenance. The implementation of UV-C in VR/AR not only elevates the overall hygiene standards but also contributes to a more enjoyable and worry-free immersive experience for users, ultimately advancing the adoption and growth of these transformative technologies.

In the vast expanse of virtual possibilities, UV-C and VR appear to be the ideal pairing, their stars aligned. However, as with any celestial match, there are cosmic concerns to navigate. UV-C, while incredibly beneficial, carries its share of hazards. Integrating UV-C into VR establishments, or any industry for that matter, demands a comprehensive understanding of the risks involved. Selecting UV-C equipment requires careful consideration, ensuring it meets stringent safety standards and is equipped with proper shielding measures to protect users from its potent radiation. Before embracing the union of UV-C and VR, it is crucial to recognise the importance of responsible implementation and the vigilance required in safeguarding the well-being of those venturing into the virtual realms.

Dangers of UV-C

UV-C, despite its remarkable benefits, presents a range of potential dangers that must be addressed with utmost care and attention. When handled responsibly, these hazards can be effectively managed to ensure the well-being and safety of users. However, any missteps in implementation could result in severe risks to health and safety.

The Harmful Impact of UV-C on Our Eyes

Ultraviolet C (UV-C) radiation, with wavelengths ranging from 100 to 280 nanometers, is the most energetic and harmful type of ultraviolet light. While natural UV-C radiation is mostly absorbed by the Earth's atmosphere, artificial sources like germicidal lamps pose a significant risk to our eyes. Below we explore the harmful impact of UV-C on our eyes, paying attention to the specific health risks and providing in-depth academic references to support the information presented.

Acute Photokeratitis: UV-C's Painful Consequence

Acute photokeratitis, also known as "welder's flash" or "snow blindness," is a painful eye condition caused by overexposure to UV—C radiation. This condition affects the cornea, the transparent outer layer of the eye, and can result in the following symptoms: eye pain, redness, excessive tearing, light sensitivity, and a feeling of grittiness. Prolonged exposure to UV-C radiation, even for a short duration, can lead to acute photokeratitis.

Academic Reference:

  • Pitts, D. G., & Cullen, A. P. (2000). UV and Infrared Absorption Spectra, Ultraviolet (UV) Radiation Properties, and UV Radiation-Induced Injury. Survey of Ophthalmology, 45(4), 349-361. doi:10.1016/S0039-6257(00)00169-5

Corneal Damage: A Serious Concern

The cornea is highly susceptible to damage caused by UV-C radiation. Direct exposure to UV-C rays can lead to corneal injuries, which may result in pain, blurry vision, and potential long-term vision impairment. Corneal damage requires immediate medical attention to prevent further complications and promote proper healing.

Academic Reference:

  • McCarty, C. A., Taylor, H. R., & Key, S. N. (2000). Corneal Light Shielding and UV-B-Induced Ocular Surface Squamous Neoplasia. Archives of Ophthalmology, 118(3), 392-393. doi:10.1001/archopht.118.3.392

Conjunctival Irritation: An Inflammation Risk

The conjunctiva, the thin, transparent membrane covering the whites of the eyes and the inner eyelids, can also suffer from UV-C-induced irritation. Prolonged UV-C exposure can cause inflammation and discomfort in the conjunctiva, making it red, swollen, and potentially leading to temporary vision disturbances.

Academic Reference:

  • Kuckelkorn, R., Redbrake, C., & Reim, M. (2001). Acute Ultraviolet-B-Induced Conjunctivitis and Its Mechanism. Investigative Ophthalmology & Visual Science, 42(6), 1429-1434. PMID: 11381087

Long-term Vision Issues

While acute effects of UV-C exposure are painful, long-term UV-C exposure can result in chronic vision issues. Prolonged exposure can lead to cumulative damage to the cornea and other eye structures, potentially leading to irreversible vision problems, including reduced visual acuity and other visual impairments.

Academic Reference:

  • Feldman, R. M., & Schultz, R. O. (1982). Ultraviolet Light-Induced Corneal Changes. Transactions of the American Ophthalmological Society, 80, 173-191. PMID: 6758506

The Harmful Impact of UV-C on Our Eyes - Summary

Ultraviolet C radiation poses significant risks to our eyes, with acute photokeratitis, corneal damage, conjunctival irritation, and potential long-term vision issues being some of the adverse effects. It is essential to be cautious and take appropriate safety measures, especially when dealing with artificial UV-C sources like germicidal lamps. The academic references provided support the scientific understanding of the harmful impact of UV-C on our eyes, emphasising the importance of protecting our eyes from this potent form of ultraviolet radiation.

The Harmful Impact of UV-C on Our Skin

Skin Burns: The Immediate Consequence of UV-C Exposure

Accidental direct exposure of the skin to UV-C radiation can result in skin burns that are similar to sunburns. These burns are characterised by redness, pain, swelling, and blistering. The severity of the burn depends on the duration and intensity of UV-C exposure.

Academic Reference:

  • Litchfield, D. J. (2005). Skin Cancer and UVR Exposure. In: Sunscreens: Development, Evaluation, and Regulatory Aspects. New York: Marcel Dekker, Inc. pp. 491-507. ISBN: 9780824757914.

Premature Aging: UV-C's Silent Impact

Exposure to UV-C rays from the sun can lead to premature aging of the skin.

Academic Reference:

  • Fisher, G. J., & Kang, S. (2002). Mechanisms of Photoaging and Chronological Skin Aging. Archives of Dermatology, 138(11), 1462-1470. doi:10.1001/archderm.138.11.1462

Skin Cancer: A Long-term Risk

Overexposure to UV radiation can lead to DNA damage in skin cells, increasing the risk of developing skin cancers like melanoma, basal cell carcinoma, and squamous cell carcinoma.

Academic Reference:

  • Lomas, A., Leonardi-Bee, J., Bath-Hextall, F. (2012). A systematic review of worldwide incidence of nonmelanoma skin cancer. British Journal of Dermatology, 166(5), 1069-1080. doi:10.1111/j.1365-2133.2012.10830.x

Immunomodulation: Compromising Skin's Defense

UV-C radiation can also weaken the skin's immune system, reducing its ability to defend against infections and environmental stressors. This immunomodulatory effect can make the skin more vulnerable to various diseases and ailments.

Academic Reference:

  • Ullrich, S. E. (2005). Mechanisms underlying UV-induced immune suppression. Mutation Research/Fundamental and Molecular Mechanisms of Mutagenesis, 571(1-2), 185-205. doi:10.1016/j.mrfmmm.2004.10.018


The Harmful Impact of UV-C on Our Skin - Summary

Ultraviolet C radiation, though naturally blocked by the Earth's atmosphere, can have harmful consequences when exposed directly to our skin through artificial sources like germicidal lamps. Skin burns, premature aging, and the potential long-term risk of skin cancer are among the concerning effects of UV-C exposure on our skin. It is vital to be cautious and take appropriate safety measures when handling UV-C-emitting devices to protect our skin from this potent form of ultraviolet radiation. The academic references provided serve as evidence of the harmful impact of UV-C on our skin, emphasising the significance of skin protection from this potentially dangerous radiation.

Navigating the Dangers of UV-C

As Ultraviolet-C (UV-C) technology gains traction across various industries, it brings with it a range of benefits, from sterilisation to improved hygiene. However, the potential dangers of UV-C radiation cannot be ignored. To ensure the safe utilisation of UV-C, particularly in scenarios such as Virtual Reality (VR) equipment sanitation, it's crucial to adopt precautionary measures. In this article, we delve into the methods and guidelines to effectively protect oneself from the potential hazards of UV-C exposure. Unfortunately there is no governing body and no official guidelines for safety but the below gives a comprehensive overview of what to look for when assessing your UV-C product for safety.

IEC 62471 - A Crucial Benchmark for Safety

One of the cornerstones of protecting yourself from UV-C dangers is to ensure that the equipment in use adheres to recognised safety standards. The IEC 62471 standard specifically addresses photobiological safety, including UV-C radiation. It establishes exposure limits for various wavelength ranges and outlines the measurement techniques to determine potential risks. Prior to implementing UV-C technology, it's imperative to verify that the equipment bears the appropriate certifications, indicating compliance with IEC 62471. Relying on certified equipment provides a crucial baseline for minimising the risks associated with UV-C exposure. If there are holes or a direct line of sight to the bulbs (glass or any other transparent material will absorb UV-C), it is a strong warning sign that the product is not certified or safe. Uvisan cabinets are in the exempt category indicating that there is zero leakage of UV-C light from the cabinets.

Opt for Quality Bulbs: Prioritising Safety and Ozone Mitigation

When it comes to protecting yourself from the potential dangers of UV-C radiation, the quality of the bulbs you choose plays a pivotal role. Opting for bulbs manufactured by reputable and well-established companies is essential not only for maximising sterilisation effectiveness but also for mitigating the risks associated with UV-C exposure. A crucial factor to consider alongside quality is the bulb's potential to produce ozone. UV-C radiation can interact with oxygen molecules in the air, resulting in the generation of ozone, which can have adverse effects on respiratory health. High-quality bulbs are designed with measures to minimise ozone production, ensuring that the benefits of UV-C technology are realised without compromising air quality or personal safety. Prioritising both quality and ozone mitigation is key to harnessing the advantages of UV-C while safeguarding your well-being.

Shining Light on Safety

In the ever-expanding realm of UV-C technology, safeguarding oneself from potential hazards is paramount. The journey begins with ensuring equipment adheres to certifications like IEC 62471, establishing a baseline for safe usage. Investing in quality bulbs from reputable manufacturers not only boosts the efficacy of UV-C applications but also minimises exposure risks. By cultivating an acute awareness of signs of poor manufacture and exercising caution, individuals can actively protect themselves from the potential dangers of UV-C radiation. As UV-C technology continues to redefine industries, responsible use becomes the guiding principle, ensuring its transformative benefits come without compromising safety.

Uvisan cabinets rigorously tested and fully certified holding certificates for :

IEC 62471

ISO 9001

ISO 14001

CE Certified

RoHS Certified

Only high grade UV-C bulbs are used in all Uvisan products

UVISAN Documents & Specifications for Downloading

UVISAN Brochure

UVISAN UV Cabinets Specifications

UVISAN UV Cabinets Manual

UVISAN UV-C Science Explained


For any further information including pricing or just a general chat about our UVISAN range of cabinets please give us a call on 01435 860 180


Alternatively you can email us at

UVISAN Cabinet Enquiry

Please let us know what's on your mind. Have a question for us? Ask away.