Maintaining Safety and Network Resiliency During the COVID-19 Pandemic —
We all value and are committed to the health and safety of communications personnel in the field. Personal Protective Equipment (PPE), traditionally consisting of gear such as hardhats, safety glasses, work boots, gloves, and climbing equipment, is provided for protection. Now, with the COVID-19 crisis, we have added disposable gloves, masks, hand sanitizer, and physical distancing guidelines to the list.
Our rapidly changing environment, whether it is related to COVID-19, and possible impacts to our economy, civil unrest, 5G conspiracy theories, or other factors, have forced us to quickly learn and adapt. Staying informed and addressing health and safety issues are now even more critical and complex than ever.
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April 1, 2022Field technicians and network resiliency are experiencing increased threats and risks. These risks are in part a result of theft and vandalism as well as acts of violence against technicians at remote communications sites. This trend not only jeopardizes the lives and safety of technicians but can also result in site outages at a very important time for critical infrastructure stability.
To prevent acts of violence, workers need to remain aware of their surroundings. If they feel anyone is at risk while working, they need to reach out to their manager and make alternative arrangements. Personnel safety is always the priority.
Providing remote access control at sites is also a critical factor in protecting both personnel and critical communication assets. Security technology that is important to consider has the ability to provide keyless entry, remotely grant or revoke site access, provide time slots for access, and easily generate an access report of who, where, why, and when, a site was accessed.
Figure 2. Field tech access from smartphone.
The benefits of site security and remote access control from a smartphone or tablet cannot be understated as it also eliminates unnecessary site visits that, in the past, were required in order to share physical keys with other technicians at a site. With this new security technology, an approved technician’s mobile device can accept an encrypted digital key on demand without requiring physical key exchanges. This technology helps decrease exposure to risks related to violence, theft, and unnecessary physical contact with others. (See Figure 2.)
Furthermore, integrating remote access control with Network Operation Centers (NOC), door intrusion alarm systems, enterprise data, and workflow processes, results in removing unnecessary visits related to false door intrusion alarms.
• It also can enable the early detection and response to active theft and vandalism.
• Lastly, it can allow site tracking in order to provide employees with assistance at the site if needed.
Clearly, these capabilities demonstrate how field technicians can be safer and the network more stable.
According to Philip Ufkes, President of Security Enhancement Systems, "The demand for technicians to remotely manage access to sites has continued to increase as communications providers are experiencing safety issues, theft, and vandalism. They are also realizing the benefits of remote access control solutions as they are improving operational efficiencies and network uptime for their geographically dispersed sites."
Similar security systems can be used to protect various types of communications sites geographically dispersed throughout the world such as cabinets, generators, shrouds, smart poles, shelters, huts, gates, controlled environmental vaults, and other enclosures. (See Figure 1.) The increased physical security gained from robust electronic locking systems can reduce theft and vandalism, ultimately increasing network uptime.
Figure 1. Wireless telecommunications sites.
Remote access control systems must also operate during catastrophic events such as civil unrest and natural disasters when there is no service connectivity and many technicians require access to maintain network functionality. Network resiliency is not only critical for ensuring customer satisfaction, but it is also required by communication providers to comply with the Presidential Policy Directive 21 (PPD-21). This Directive outlines specific steps required for a safe site access control plan, and classifies safety procedures for communication’s critical infrastructure.
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During these challenging times, as well as into the future, new security technology and other best practices help mitigate the risks to field technicians’ safety as well as to improve network resiliency regardless of where the site is located.
About the Author
Ernie Gallo
Principal Outside Plant and Electrical Code Consultant, NEBScore
Background • 44+ years experience in Telecom Industry • 7.5 Years Underwriters Laboratories • 33 Years Bellcore-Telcordia-Ericsson • BSEE Polytechnic University of New York Consulting Focus Areas • Electrical Safety, Electrical Protection • FCC Infrastructure Sharing During Emergencies • Outside Plant Product and Installation Standards and Audit Analytics • Industry Standards and Code Compliance – Regulatory and Safety – construction focused • Fiber to the Home – micro-trench and MDU architecture • Fiber to the Node – VDSL to the home • Wireless Products and Installation Methods • Fiber and 5G Wireless product requirements • Optical Transport Networks –Deployment Designs • Working with local Authorities Having Jurisdiction on Electrical and Fire Codes • Electrical and Fire incidents and evaluations • Expert Witness in the areas of outside plant construction and safety Industry and Project Experience Standards Work National Fire Protection Association (NFPA) • NFPA 1 Fire Code - Committee Member • NFPA 70 National Electrical Code (NEC) - Committee Member CMP1, CMP 16and Correlating Committee Member NFPA 70E -Standard for Electrical Safety in the Workplace - Committee Member • NFPA 780 Standard for the Installation of Lightning Protection - Committee Member • NFPA 855 Standard for the Installation of Energy Storage Systems - Committee Member • NFPA 75, Standard for the Protection of Information Technology Equipment - Committee Member • 2022 Committee Service Award from the Standards Council of the National Fire Protection Association (NFPA) Institute of Electrical and Electronics Engineers (IEEE) • IEEE C2 National Electrical Safety Code - Committee Member, Subcommittees SC2, SC4, SC5, and SC8 • IEEE Wire Line Subcommittee – Vice Chair • IEEE Working Group 3.6.7 Low Voltage Data, Communications and Signaling Circuit Surge Protective Devices – Chair • IEEE Working Group 3.6.10 Surge Protection of Equipment Connected to Both Low Voltage AC Power and Communication Circuits – Vice Chair • IEEE Fiber Optics Subcommittee - Committee Member Association for Telecommunications Industry Solutions (ATIS) • ATIS Board Member • ATIS Protection Engineers Group (PEG) Chair and current Advisory Board Member • ATIS STEP: Sustainability in Telecom: Energy and Protection Committee – Vice Chair • ATIS Network Power Systems (NPS) – Chair • ATIS Network Physical Protection (NPP) - Working Group Member • ATIS Network Electrical Protection (NEP) –Chair Underwriters Laboratories (UL) • Fault Managed Power Working Group UL1400 - Committee Member • Lightning Protection Components UL 96, 96A Lightning Protection Components - Committee Member • UL 497 Standard for Protectors for Communications • UL 1449 Standard for Surge Protective Devices - Committee Member • CAN/US Technical Harmonization Committee UL 62368 Standard
Ernie serves as ATIS PEG Chair. Please see https://peg.atis.org for details.







