Improving field connectivity in rural coverage zones and strengthening field operations during outages and severe weather
Organization: Major Midwestern electric utility
Industry: Electric utility
Region: Midwest, USA
Fleet Size: 200+
Use Case: Field connectivity for outage response and service vehicles
Executive Summary
A major Midwestern electric utility improved field connectivity and operational efficiency across its service fleet using AirgainConnect Fleet (AC-Fleet). Utility crews frequently operated in rural coverage areas and severe weather conditions where unreliable cellular connectivity disrupted GIS mapping, VPN access, telemetry systems, and damage assessment workflows. By equipping more than 200 service vehicles with AC-Fleet, the utility established reliable mobile connectivity hubs that support field crews during outages, storm response, and day-to-day operations. The deployment improved connectivity in low-signal environments, reduced workflow interruptions, accelerated restoration efforts, and enabled in-house installation across the fleet.
Utility service vehicles operate in environments where connectivity is often unreliable, particularly in rural coverage areas and during severe weather events. Field crews rely on cellular connectivity to support critical applications, including GIS mapping, VPN access, telemetry, and damage assessment reporting. When connectivity fails, crews can experience significant operational delays.
The utility encountered several connectivity challenges across its fleet vehicles:
These issues directly impacted outage response and field productivity.
The utility deployed AirgainConnect Fleet (AC-Fleet) across more than 200 service vehicles to create reliable mobile connectivity platforms for field operations.
AC-Fleet combines a high-performance antenna system, modem, router, and Wi-Fi capabilities into a single integrated solution designed specifically for connected vehicle environments.
The deployment enabled utility vehicles to function as mobile communications hubs, providing reliable access to critical applications and extending secure connectivity to personnel working near the vehicle during outage response and field service activities. Because of the simplified architecture, fleet technicians completed installations internally without requiring complex retrofits or extensive vehicle modifications.
Field crews now maintain reliable connectivity in remote areas where the cellular signal was previously inconsistent.
Stable VPN and GIS performance ensure crews can access mapping, telemetry, and operational systems without interruption.
Vehicles equipped with AirgainConnect Fleet act as secure Wi-Fi hubs, enabling nearby crews to connect and collaborate in the field.
Reduced disconnects allow crews to complete workflows more efficiently, helping accelerate outage restoration and reduce repeat service visits.
Fleet technicians were able to complete installations in-house thanks to the simplified single-device architecture.
| Operational Area | Impact |
|---|---|
| Rural connectivity | Improved access in previously inconsistent coverage areas |
| GIS and VPN access | Stable connectivity for critical field applications |
| Damage assessment reporting | More reliable uploads from the field |
| Crew collaboration | Vehicle-based Wi-Fi connectivity for nearby personnel |
| Restoration operations | Faster completion of field workflows |
| Fleet deployment | Simplified in-house installation |
Electric utilities are increasingly dependent on connected field operations to maintain grid reliability, respond to severe weather, and restore service quickly during outages. Reliable connectivity is no longer just a convenience — it is a critical component of modern utility operations.
This deployment demonstrates how fleet-based connectivity solutions can strengthen operational resilience, improve workforce productivity, and support faster outage restoration without requiring complex vehicle modifications or extensive infrastructure investments.
Rural service territories often have coverage gaps, limited network infrastructure, and long travel distances, which make reliable cellular connectivity more difficult to maintain.
