LoRaWAN for wide, low-power coverage
Cover farms and industrial sites with fewer gateways than cellular towers.
Solution
For distributed assets and sensors, network design matters as much as hardware.
LoRaWAN and gateway-based tracking for low-power IoT deployments
Deploy long-range, low-power tracking and sensor networks where per-device cellular is expensive or impractical.
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Why operators choose us
Numbers that match how fleets actually run
Devices, networks, and people on the ground across India—so go-live isn’t where your project ends.
2-5+
years typical battery life
3-5 km
typical LoRa range
No SIM
per endpoint device
Scalable
IoT architecture
Our clients
Trusted by teams across India
Recommended product
Hardware built for this solution
Start with our flagship device for WiFi-Based Tracking Solutions—full specs and deployment guidance on the product page.
G57 2G Asset GPS Tracker
Compact magnetic 2G GPS asset tracker with 3000mAh battery, real-time tracking, geo-fence alerts, and remote voice monitoring support.
The problem
Cellular-only models become costly and fragile at large IoT scale
- 1 Rural, industrial, and indoor environments often have uneven cellular coverage for dense endpoint deployments.
- 2 High-maintenance power requirements reduce ROI for low-data, long-life sensor applications.
- 3 Operations teams struggle when location and sensor streams are split across multiple disconnected tools.
The solution
Network-efficient tracking for high-volume, low-power field deployments
Use LoRaWAN gateways and long-life endpoints to collect location and telemetry at lower operating cost. This architecture improves coverage control, extends battery life, and keeps data centralized for actionable operations.
- LoRaWAN for wide, low-power coverage — Cover farms and industrial sites with fewer gateways than cellular towers.
- Indoor and outdoor — Track inside warehouses and across open land with the same network philosophy.
- Years on a battery — Ideal for sensors and slow-moving assets that cannot be charged weekly.
What you get
Capabilities that hold up in daily operations
Straightforward feature notes—no jargon wall. If something here matters to your fleet, we’ll show you how it works on a call.
Indoor and outdoor
Track inside warehouses and across open land with the same network philosophy.
Years on a battery
Ideal for sensors and slow-moving assets that cannot be charged weekly.
More than dots on a map
Temperature, humidity, door status—extend with sensors when needed.
Agriculture and estates
Livestock, equipment, and environmental monitoring scaled for large properties.
Use cases
Where teams like yours put this to work
Typical deployments—we’ll map the closest fit to your routes, vehicles, and compliance rules.
01
Cattle & Livestock Tracking
Monitor herds across grazing areas. Geofence straying. Low-cost devices with multi-year battery life.
02
Warehouse & Indoor Assets
Track pallets and equipment without cellular dead zones inside warehouses.
03
Smart Agriculture
Soil and environmental sensors alongside asset tracking for better operations.
04
Industrial IoT & Smart Cities
Parking, waste, and infrastructure monitoring at scale.
Deployment scenarios: yard, depot, farm, and estate
LoRaWAN-style architectures fit when many endpoints share a geography and per-device cellular SIMs are expensive to administer. Common scenarios include livestock on large estates, pallets in warehouses, equipment across construction yards, and environmental sensors on agriculture land.
Connectivity planning is gateway-first: place gateways for backhaul (broadband or 4G), then validate endpoint coverage with a pilot zone before scaling across the full property.
Limitations to plan for
LoRa is optimized for small, periodic packets—not continuous video or second-by-second highway tracking. For mixed estates, use cellular trackers on mobile corridors and LoRa on fixed or slow-moving assets.
Calibration and environmental drift matter for agriculture sensors; combine location with temperature or soil probes only after validation in your crop and season conditions.
Related solutions
See it in action
Gateway coverage, endpoint health, and sensor telemetry
Monitor network reach, battery status, and field conditions from one view for estates, yards, warehouses, and industrial sites.
Industries
Where teams deploy WiFi-Based Tracking Solutions
Agriculture & Livestock
Warehousing
Smart Cities
Industrial IoT
Asset Management
ROI & outcomes
Lower per-endpoint cost with scalable field visibility
Teams adopt LoRaWAN models when they need multi-year device life, lower recurring costs, and reliable monitoring across distributed assets.
Lower recurring connectivity cost for high-volume field endpoints
Longer endpoint battery life for remote and maintenance-sensitive deployments
Improved network control across farms, estates, warehouses, and industrial zones
Unified location and sensor telemetry for operational decision-making
Scalable architecture without managing individual data plans per endpoint
How it works
From install to insight
Hardware on the vehicle, reliable connectivity, and one dashboard your team uses—end to end.
Step 1
Install & connect
Fit the device to the vehicle—wired, OBD, or battery as needed.
Step 2
Sync to the cloud
GPS and events stream securely so nothing depends on manual updates.
Step 3
Use one portal
Maps, reports, and alerts in the same login—web and mobile.
Endpoints transmit data to nearby LoRaWAN gateways, which forward packets to the cloud platform through backhaul connectivity. This removes the need for SIM cards on each endpoint and simplifies device operations at scale. Deployment includes gateway placement planning based on terrain, structures, and required coverage density.
Hardware
Devices that power this solution
Browse device categories that pair with WiFi-Based Tracking Solutions—specs and compatibility on each page.
A low-power, long-range wireless standard for IoT. Devices send small packets over kilometres to gateways—ideal when cellular per device is too costly.
Devices use LoRa to gateways; gateways need internet (often broadband or 4G backhaul). End devices do not need cellular SIMs.
Livestock, equipment, pallets, containers, and sensors for temperature, humidity, or doors.
Roughly 2–5 km radius in open terrain; less in dense urban. We help with site survey.
Some devices use hybrid designs—LoRa for routine uplinks, cellular when needed.
Generally lower TCO than cellular for many IoT deployments because you avoid per-device data plans.
Endpoints communicate via LoRa to gateways; gateways use backhaul (often broadband or 4G). This reduces per-device cellular cost at scale.
Open terrain may reach several kilometres; dense urban or indoor sites need more gateways. Site surveys improve coverage planning.
Yes. Hybrid designs use LoRa for routine uplinks and cellular fallback for critical assets or mobile corridors.
No. Assets use LoRa radios; WiFi or internet is needed at gateways—not on every endpoint.
Temperature, humidity, door, and motion sensors are common extensions beyond location-only endpoints.
Placement considers terrain, structures, required update frequency, and redundancy. Pilot zones validate coverage before full estate rollout.
Implementation readiness
Timeline, SLA, ROI Assumptions, and Integration Playbook
Use these planning anchors for internal approvals and rollout readiness before procurement.
Implementation timeline baseline
Typical flow: discovery and scope lock, pilot deployment, KPI validation window, then phased expansion. Exact timelines vary by fleet distribution and install constraints.
Support SLA assumptions
Incident priorities are triaged by business impact. Critical cases receive accelerated handling; final resolution windows depend on dependency class and on-ground access.
ROI model assumptions
ROI estimates should separate hard savings (fuel, idle, misuse) from risk savings (incident/dispute reduction). Baseline and review periods must be agreed before rollout.
Integration playbook
Integration plans are scoped by data exchange method, event triggers, and reporting ownership. API/webhook requirements are validated during technical discovery.
Solution content standards
Written by
Pictor Telematics Solutions Editorial Team · Fleet Telematics Product Guidance
Reviewed by
Mr. Rajesh Kumar · Founder Director & Chief Executive Officer
Published
Jan 15, 2024
Last reviewed
Apr 10, 2026
Validation approach
Solution pages are reviewed against hardware capabilities, rollout workflows, and KPI assumptions from commercial deployments since 2014.
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Next step
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