Turn vehicle data into smarter city decisions |
Track Every Vehicle in Real Time Detect Service Disruptions Before Riders are Affected Feed Transit Data Directly Into City Platforms Route vehicle telemetry and passenger data securely to GTFS feeds, traffic management systems, analytics dashboards, or cloud platforms without building custom networking infrastructure. |
Connectivity for Smart Cities: Transportation & Connected Vehicles
Reliable connectivity for connected vehicles and smart urban transit
Cities are deploying connected vehicles, smart transit systems, and shared micromobility fleets faster than traditional networks can support them. Soracom provides the secure, resilient connectivity layer that transit operators, city planners, and mobility platform providers rely on to keep vehicles online, passengers informed, and urban data flowing so cities can move smarter.
Built for the density and diversity of urban mobility
From articulated buses to shared eBikes and autonomous shuttles, urban vehicles operate across dense networks with constantly shifting coverage conditions. Soracom supports multi-carrier cellular connectivity with intelligent failover, giving every vehicle and device – regardless of type or location – a reliable path to the network.
What smart city mobility teams gain with Soracom
Always-on vehicle connectivity
Multi-carrier SIMs and automatic failover keep buses, trains, scooters, and fleet vehicles connected across coverage gaps and high-density urban corridors.
Real-time data from every vehicle and asset
Stream telemetry, passenger counts, location, and operational status from thousands of vehicles and edge devices into your city’s data platform.
Centralized fleet and device management
Provision, monitor, and control connectivity for your entire connected vehicle fleet from a single console without managing carrier relationships individually.
Designed for how urban mobility actually operates
Connectivity across the full spectrum of urban vehicles
Urban fleets are diverse: full-size transit buses, light rail, demand-responsive shuttles, shared eBikes, e-scooters, and EV charging infrastructure. Soracom supports all of them on a single platform with consistent device management, security policies, and data routing regardless of vehicle type or deployment scale.
Secure data handling for passenger and operational data
Transit vehicles collect sensitive data – passenger counts, payment telemetry, camera feeds, and operational logs. Soracom keeps all device traffic off the public internet using private networking, SIM-level authentication, and controlled routing, ensuring data flows only to approved city and operator systems.
Low-power, long-life connectivity for micromobility
Shared eBikes and scooters require connectivity that is always available but never draining the battery. Soracom’s lightweight data handling, compressed payloads, and network-layer security reduce device firmware complexity and extend field life – lowering rebalancing costs and maintenance overhead for micromobility operators.
“Monthly data cost fell by 60–70% with no reduction in performance.”
Industry customer stories
Talk with connectivity experts
Discuss public transit connectivity, connected vehicle telematics, micromobility fleet management, or smart city data integration with a Soracom Solutions Architect.
FAQs
Why use cellular connectivity for connected vehicles in a smart city?
Urban vehicles are constantly mobile and operate across areas where fixed Wi-Fi and wired infrastructure can’t follow. Cellular connectivity provides persistent, location-independent coverage across entire city grids—whether a bus is crossing downtown or a scooter is parked at the edge of a coverage zone. It also supports real-time data transmission without requiring stops or proximity to access points.
Can Soracom support both large transit fleets and small micromobility deployments on the same platform?
Yes. Soracom’s platform scales in both directions – from a single eBike to tens of thousands of buses – on the same console, with consistent SIM management, data routing rules, and security policies. Operators can segment fleets by type, apply different connectivity profiles per device category, and monitor everything in one place.
How does Soracom handle connectivity in high-density urban environments with network congestion?
Soracom SIMs support multi-carrier connectivity, automatically selecting the strongest available signal in a given area. In high-density environments, this means devices aren’t locked to a single congested carrier. Combined with configurable data routing and lightweight payload options, Soracom helps maintain reliable connectivity even in the busiest urban corridors.
Is Soracom suitable for battery-powered micromobility devices like eBikes and scooters?
Yes. Soracom supports low-power, intermittent-transmission use cases well-suited to battery-constrained devices. Features like compressed data payloads, configurable transmission intervals, and network-layer processing reduce the connectivity overhead on device firmware, helping extend battery life and reduce the frequency of field recharging or swaps.
Can Soracom integrate with GTFS feeds and existing transit management systems?
Soracom doesn’t generate GTFS data directly, but it provides the connectivity and data routing infrastructure to move vehicle telemetry from devices to the systems that produce and consume GTFS feeds. Through services like SORACOM Funnel and Beam, data can be routed securely to cloud platforms, transit management systems, or analytics tools that handle GTFS formatting and distribution.
How does Soracom protect passenger data and vehicle telemetry?
Soracom uses SIM-based authentication, private networking (keeping device traffic off the public internet), and configurable data routing to ensure that sensitive data (passenger counts, payment telemetry, camera feeds, and operational logs) flows only to approved systems. This architecture reduces exposure to interception and unauthorized access without requiring complex application-layer security on the device itself.