High Costs of Manual Field Inspections
Technicians drive hundreds of miles each week just to record operating hours and check diesel fuel levels on remote generators.
Maintain total operational visibility over assets in the field. We engineer remote asset monitoring architectures that track the location, fuel levels, operating hours, and health of mobile fleets, remote generators, and field equipment.

Remote Asset Monitoring is the use of wireless sensors, cellular/satellite telemetry, GPS tracking, and cloud analytics to remotely monitor the location, status, operating parameters, and performance of geographically dispersed physical equipment.
Equipment deployed in remote fields, construction sites, and marine environments is expensive to inspect physically. Remote monitoring eliminates unnecessary service trips, prevents equipment theft, and ensures optimal utilization.
Consult our engineering teamReal-world engineering and organizational obstacles addressed by our architecture.
Technicians drive hundreds of miles each week just to record operating hours and check diesel fuel levels on remote generators.
Valuable construction machinery is stolen or used by contractors off-hours without management knowledge.
A backup generator or remote water pump fails quietly, discovered only when a power outage or flood occurs.
Equipment rental companies struggle to bill accurately for true machine operating hours without automated telemetry.
Key technical components engineered and deployed for production stability.
Utilize multi-carrier global SIMs and satellite fallback (Iridium/Swarm) for continuous connectivity in remote areas.
Establish virtual geofences around job sites, triggering automated alerts when equipment leaves authorized perimeters.
Connect to machine J1939 CAN bus and ultrasonic fuel sensors to monitor fuel consumption and prevent fuel theft.
Record precise engine run hours automatically, generating maintenance triggers and equipment rental billing records.
Our phased delivery process establishes clear baselines, deterministic testing, and seamless systems integration:
Built using J1939 CAN bus, GPS, LTE-M/NB-IoT cellular, Iridium satellite, MQTT, and Mapbox geospatial visualizations.
Discuss architecture detailsConcrete operational use cases illustrating measurable outcomes across commercial environments.
Monitoring 200 excavators and bulldozers across multiple construction sites, alerting on unauthorized off-hours engine starts.
Monitoring fuel levels and battery voltages across 150 remote cellular tower diesel generators, scheduling refueling automatically.
Streaming engine RPM, oil pressure, and fuel burn from harbor tugboats over cellular and satellite gateways.
Tangible performance improvements achieved through disciplined engineering and validation.
Substantial reduction in manual technician dispatch and routine inspection travel costs
Near-instant recovery of stolen equipment via real-time GPS tracking and geofencing
Elimination of fuel theft through automated drop alerts and consumption modeling
Accurate, dispute-free equipment billing based on automated engine run hours
Clear answers to help you evaluate feasibility, data requirements, and deployment.
Our telemetry hardware features store-and-forward flash memory. The device stores GPS coordinates and sensor readings locally, uploading the entire historical route once cellular service resumes, or switches to satellite communication if equipped.
A geofence is a virtual geographic boundary drawn on a map around an authorized job site or yard. If an asset crosses the boundary, the telemetry unit immediately triggers an SMS and email alert to security teams.
Yes. We utilize covert, compact hardware with internal antennas and backup batteries that can be installed deep within machine chassis, remaining fully operational even if primary vehicle battery cables are cut.
Speak with our engineering team in Roorkee to review feasibility, architectural options, and implementation timelines.