Touchscreens: The Mosquito of the Digital Age

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Touch Screens

Abstract

The widespread and rapidly growing automation and digitization of our world has led to the installation of billions of touchscreens, both in our personal possession and in public use, such as at hospitals, airports, schools, restaurants, public transit, banks and government offices.

Warm touchscreens contacted by many people, or by individuals who themselves are in contact with potentially infected surfaces, are ideal hosts and transmitters of infectious disease. The touchscreen could be considered the mosquito of the digital age. In addition to being vectors of infectious disease, these tools are expensive devices and vulnerable to damage from cleaning protocols, vandalism and impact.

The use of an antimicrobial protective screen could be the simple, inexpensive solution to the problems faced by touchscreen users.

Main Article

Touchscreens are everywhere: on your phone, tablet and car dashboard; and at the bank, the movie theatre, the airport and your hospital room. The pervasive use of smartphones, tablets and other touchscreen devices, both in healthcare settings and the general public, presents at least three issues:

  1. Disease transmission

Touchscreens are ideal media for pathogens of all kinds to flourish on, due to their regular contamination by unclean human hands and body fluids and their warm operating temperature. Bacteria thrive at 35˚C. Touchscreens in hospitals are well-known potential sources of infection (Shakir, 2015).

A significant infectious disease problem in healthcare today is nosocomial infection, an infection that originates in hospitals. An increasingly prevalent infectious disease problem is arising in schools, restaurants and elsewhere, due to the increasingly diverse sources of pathogens outside of healthcare settings and the increasing public use of touchscreens.

The infectious disease problem is better documented in the healthcare sector than in public areas.  Scientific reports have found that patients admitted to rooms that were previously occupied by patients infected with common multidrug resistant organisms (MDROs) have been found to be at a 1.5 to 2.5 times increased risk for developing the same infection (Stibich, 2016). Since there is no direct contact between the two patients, this risk of infection is almost exclusively associated with the environment. If not properly disinfected, these MDROs can linger on high touch surfaces for weeks to months, serving as a continued transmission risk for many future patients (Otter, 2013).

Studies conducted to determine contamination levels on smartphones have concluded that a smartphone is highly contaminated with the same microbes that are found on the hands of the user (Beckstrom, 2013).

cell phones are excellent transmitters of infectious disease

Several studies have concluded that cell phones are excellent transmitters of infectious disease between individuals commuting between hospital wards, and the community at large (Tatem, 2011). Evidence from the healthcare environment suggests that all touchscreens in public use should be considered potential hotspots for the transmission of infectious diseases. A 2013 project at the University of Surrey tested a large sampling of smartphones and found fecal coliforms, Streptococcus, Staphylococcus aureus and much more (Ulgar, 2009).

  1. Challenges of cleaning

Healthcare environments have implemented aggressive cleaning protocols for high-touch surfaces (Weber, 2005), with the unfortunate side effect of damage to screens from the harsh chemicals. Alcohol, ammonia and bleach can ‘etch’ the surface of a screen and make it appear cloudy. Residue from cleaning products can crystallize and, when touched or rubbed, scratch the touchscreen surface. In non-healthcare settings, fear of damaging the screens means they are rarely cleaned with the vigor needed to remove pathogens.

  1. Implications of impact

Hospital environments are unusually rough on equipment and operating room monitors due to the frequent movement of equipment and the nature of an emergency environment. As a result, many touchscreen devices are physically damaged or destroyed unnecessarily because they have minimal impact resistance. Likewise, touchscreens in public spaces are subject to vandalism and abuse that could damage the screen.

Replacing or repairing touchscreens from damage is expensive, ranging from $100 for a smartphone to thousands of dollars for specialized equipment found in hospitals, airports, schools, restaurants, public transit, banks and government.

Although some newer smartphone screens incorporate an improved level of impact resistance, the bane of smartphone owners has been broken touchscreens. This has driven a massive business for aftermarket screen protectors, which to some degree protect the owner’s significant investment in their smartphone.

Protective Films Provide a Solution

Today, hospitals are facing several threats that are driving their search for touchscreen protectors, which incorporate high quality, long lasting antimicrobial properties, impact resistance, privacy features and resistance to strong chemical sanitization protocols. (University of Surrey, 2013)

The ideal feature-set for such a multi-layered product would be:

  • broadly acceptable antimicrobial technology
  • maintenance of near 100% capacitance for continued functioning of touchscreens
  • proven impact resistance
  • availability of a privacy layer, and
  • resistance to chemical damage

Spyder Digital Research Inc. (SDR) offers a patented antimicrobial screen protector that meets all of these criteria and is FDA listed, EPA registered and REACH compliant. Available in any size, from smartphones to 60″ display screens, the protectors have a multi-year guarantee.

The active ingredient of the antimicrobial additives in the SDR solution is silver, a metal known to have antimicrobial properties (Fong, 2006).  Chemists are able to create glass with a low chemical inertness while still retaining antimicrobial metal ions, such as silver. With the presence of water or moisture, the glass will release these metal ions gradually to function as antimicrobial material.

Silver ions are able to bond strongly to the cellular enzymes of microbes and inhibit enzyme activity of the cell wall, membrane, and nucleic acids. Silver, with its positive charge attracts the negatively-charged microbes, thus disturbing their electric balance. The result is that the microbes burst their cell walls and are extinguished. Otherwise, silver ions are taken into the microbes, where they react and bond to the cellular enzyme microbes, thus inhibiting enzyme activity and multiplication of microbes. (Borrelli, 2015).

Conclusion

Regulators, health care professionals and corporate leaders are just beginning to recognize the increased threat of infectious disease epidemics facilitated by touchscreens, both from a liability perspective and from a social responsibility perspective.  An opportunity exists now to prevent widespread illness and death from infectious disease contracted in public places.

Hospitals currently employ increasingly aggressive sanitizing protocols because of well-defined threats and substantial liabilities (Weber, 2005). In addition to touchscreens being an ideal environment for the spread of infectious diseases, they are also expensive devices that would benefit from protection from damage due to cleaning protocols or impact.

Promoting prophylactic measures for both healthcare and public use touchscreens is a simple, yet effective solution for a problem that promises to grow as touchscreens become used more and more extensively in our everyday lives.

References

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Updated August 11, 2016

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Thomas Rolfe
Mr. Rolfe has worked for over 35 years in 48 countries helping companies large and small to improve their products and businesses. Prior to 1997, Mr. Rolfe’s focus was on large, complex multi-national corporations such as Boeing, United Technologies, Daimler Benz, Rolls Royce, BT, Philips and others. In 1997 he joined the famous McKenna Group as a partner and switched his focus to helping early stage companies stabilize and grow their businesses. Two recent examples are; Synfuels International Inc. which, in partnership with Texas A&M University, developed and commercialized a method to efficiently produce gasoline and jet fuel from natural gas and SKYCIG which became the leading manufacturer and provider of electronic cigarettes into the UK market and which was sold to a large US public corporation. Mr. Rolfe is named on two patents and has guest lectured at UC Berkeley Haas Business School and Oxford University’s Templeton College. Currently Mr. Rolfe is a partner at Spyder Digital Research Inc.
Michael Nitti
The history and birth of Spyder Digital Research Inc. is closely related to Mr. Michael Nitti, MBA. Michael broke into technology innovation over 30 years ago by pioneering sampling technologies for major music acts such as The Rolling Stones, RUSH, Janet Jackson, Van Halen, Bon Jovi, Madonna, Supertramp, Yes and others. The innovation Michael co-developed and brought to the ‘stage’ allowed music acts to bring the full rich sounds of the music studio to live touring. Successive generations of this technology known as MIDI triggers were co-developed and delivered to the stage by Michael. MIDI triggers became the industry standard. A developmental component of this innovative technology was ganging and ruggedizing of hard drives into never before known giga-drives. Michael was also a pioneer in rack mounted data storage and co-designed some of the earliest RAID storage systems in the world. Michael’s success in the consumer segment has been as impressive as his technology innovations. His consumer level external data storage units were the first offered in the market and were broadly successful in the US and EU retail markets. In 1999 Michael launched Acomdata which competed with Maxtor as the #1 supplier of consumer EHDs in North America selling into mass retailers such as; Best Buy, Circuit City, CompUSA, Radio Shack, Fry’s Electronics, Staples and Office Depot. Acomdata led innovation in a number of categories by introducing the world’s first multi-interface consumer hard drives, multi-format card readers and much more while bringing cutting-edge industrial design to a previously uninspired product category. Michael broke out on his own and formed Spyder Digital Research Inc. in 2011. At that time, Michael saw an emerging opportunity in the marketplace for protective, elegant and germ-resistant battery case. He observed that this demand was driven by power hungry apps used by busy professional. Perhaps due to his wife being an Infectious disease specialist medical doctor, Michael also predicted that hospitals, schools and food services would require the anti-microbial feature for moral as well as legal reasons.

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