Micro-irrigation automation
Volume and time-based scheduling for drip and sprinkler blocks, with fertigation dosing and filter backwash control.
- Wireless valve controllers
- Soil moisture and weather inputs
- Mobile pump starter control
Nebulotix builds automation and telemetry for piped irrigation networks, water supply, sewerage and drainage systems. Field RTUs, LoRa and cellular gateways, and a cloud SCADA platform designed by engineers who plan and build these networks.
Each solution runs on the same field hardware and the same cloud platform, so a single control room can operate an irrigation scheme, a water supply zone and a pumping station side by side.
Volume and time-based scheduling for drip and sprinkler blocks, with fertigation dosing and filter backwash control.
Automated chak-level outlets for large pressurised irrigation projects. Equitable, metered delivery to every farmer on schedule.
Remote start/stop, level-based cycling, dry-run and voltage protection, energy logging for intake, booster and lift stations.
Flow, pressure and reservoir level across district metered areas to cut non-revenue water and run 24×7 supply.
Sewage and drainage pumping stations reporting levels, run hours and alarms, with overflow and flood event logs.
Residual chlorine, turbidity, pH and conductivity at WTP outlets and tail-end nodes, logged against supply hours.
Large piped irrigation projects serve thousands of farmers from one pumping system. The Nebulotix OMS divides the command area into zones and chaks, places a controlled outlet cabinet at each chak, and delivers water in planned rotational shifts with every cubic metre measured.
4 to 12 hydraulically or electrically actuated valves, a water meter and pressure transmitters on a common manifold, housed in a lockable enclosure with strainer and air valve.
Solar-powered controller that opens and closes outlets by volume or time, logs flow and pressure, detects pipe bursts and tampering, and keeps running its schedule if the link drops.
Aggregates RTUs over long-range LoRa radio and backhauls to the cloud over 4G or fibre. Cellular RTUs can connect directly where coverage allows.
GIS map of every outlet, schedule planner, alarms, volumetric reports per farmer and per chak, and integration with pump station SCADA.
Water user associations see their shift, delivered volume and complaints status. Farmers receive SMS before and after each irrigation turn.
In a gravity canal, tail-end farmers get water last and least. A pressurised network fixes the hydraulics, but only if every outlet opens on time and closes once its share is delivered. Manual operation across hundreds of chaks cannot hold that discipline. The OMS does, and it produces the delivery records that funders, departments and auditors ask for.
Our engineers design the hydraulic side too: outlet pressure heads, manifold sizing, valve selection and surge protection are checked against the network model so the automation is not fighting the pipework.
Illustrative schedule. Real quotas come from crop water requirement, CCA of each outlet and pump availability.
Each outlet closes when its allotted volume is delivered, so allocation follows design discharge rather than who opens the valve first.
Plan shifts by zone, chak and outlet. The schedule is pushed to RTUs and runs locally even during communication loss.
Low and high pressure limits trigger valve closure and alarms, protecting laterals and identifying pipe failures by location.
Door switches, unauthorised flow detection and valve position feedback flag interference at the cabinet.
Open outlet count and demand feed back to the pump station so pumps stage up and down with the schedule.
Delivered volume per farmer, per chak and per season, irrigation efficiency, downtime and grievance logs, exportable for departments and lenders.
| Component | Typical configuration | Notes |
|---|---|---|
| Outlets per cabinet | 4 – 12 | Sized to chak layout and hydrant count |
| Control valves | DN 50 – DN 150 | Hydraulic diaphragm with latching solenoid, or motorised |
| Flow measurement | Woltman / electromagnetic | Pulse or Modbus output to RTU |
| Pressure sensing | 0 – 10 bar, 4–20 mA | Upstream and downstream of manifold |
| RTU power | Solar + Li-ion | Autonomy sized for monsoon cloud cover |
| Communication | LoRa · 4G LTE | Gateway backhaul over 4G, fibre or VSAT |
| Enclosure | IP65 or better | Lockable, with door-open sensing |
| Integration | Modbus · MQTT · REST | Connects to existing SCADA and department dashboards |
A cloud SCADA built for distributed water assets. Operators see the whole scheme on a map, drill into any outlet or pump, and act from a browser or phone.
Hydraulic review of the network, outlet and instrument placement, radio coverage study.
Cabinets, RTUs, gateways and sensors installed, commissioned and tagged on GIS.
Remote monitoring, preventive maintenance and operator training through the O&M period.
We work as a technology partner to EPC contractors on government irrigation and water projects, and directly with utilities, urban local bodies, farms and industry.
An OMS is an automated control point at each chak or outlet of a pressurised irrigation network. It combines control valves, a flow meter, pressure sensors and an RTU so water is released to each farm group on schedule and in the planned volume, with every delivery recorded.
Yes. Schedules are stored on the RTU and run locally. Logged data uploads when the link returns.
Yes, over Modbus, MQTT or REST. The OMS can share open-outlet and demand data with the pump station so pumps follow the irrigation schedule.
LoRa radio between field RTUs and gateways, and 4G LTE, fibre or VSAT backhaul. The choice follows a radio coverage survey of the command area.
Yes. We supply and commission the automation package, prepare technical documentation for tender compliance, and support O&M through the defect liability period.
Share the command area, number of outlets or pumping stations, and project stage. An engineer will reply with a scope and the information we need for a proposal.