Unprecedented
Visibility & Control
Irrigation Monitoring And Control That’s Purpose Built for Growers
We completely reconfigured the way growers Monitor and Control Their Irrigations. No more controllers or base stations. No more trenching for wires. No more wondering whether a scheduled irrigation actually happened
All-in-one
Monitoring and Control
How Irrigation
Monitoring And Control Works
- 1. Install Lumo One valves in your irrigation blocks/zones. Done by you or our Field Team.
- 2. Log in to The Ops Center to create or modify your irrigation schedule.
- 3. Lumo automatically runs irrigations and monitors for leaks or abnormalities.
- 4. Audit and optimize your irrigation operations with data and reporting.
Irrigation Monitoring And Control
Benefits
Eliminate Costs
Monitor Your Irrigations
Deliver the Exact Amount of Water
Backed by Your Local Lumo Support Team
DIG DEEPER Into Irrigation Monitoring and Control
Irrigation monitoring and control in agriculture refers to the use of technology and practices to oversee and regulate the delivery of water to crops. This ensures water is applied efficiently, at the right time, and in the right amounts, leading to improved crop yields, water conservation, and reduced operational costs.
1. Irrigation Monitoring
Irrigation monitoring involves collecting real-time data to assess the effectiveness of irrigation practices. Key aspects include:
Components of Monitoring:
Soil Moisture Monitoring:
- Sensors measure the water content in the soil to determine irrigation needs.
- Devices like tensiometers or capacitance probes are commonly used.
Weather Monitoring:
- Weather stations track rainfall, temperature, humidity, and wind to factor into irrigation planning.
Water Flow Monitoring:
- Flow meters measure the volume and rate of water applied to the field, helping detect inefficiencies or leaks.
Crop Health Monitoring:
- Tools like thermal imaging or NDVI (Normalized Difference Vegetation Index) assess plant water stress and health.
Benefits of Monitoring:
- Optimizes water use by providing real-time data.
- Prevents over-irrigation and under-irrigation.
- Reduces costs by detecting inefficiencies early.
- Enhances environmental sustainability by minimizing runoff and waterlogging.
2. Irrigation Control
Irrigation control involves managing the operation of irrigation systems to apply water based on monitored data.
Methods of Control:
Manual Control:
- Farmers manually operate pumps, valves, and sprinklers based on observations and schedules.
Automated Control:
- Systems use pre-programmed schedules or sensor data to activate and deactivate irrigation systems without manual intervention.
Smart Irrigation Control:
- Advanced systems leverage IoT (Internet of Things), AI, and machine learning to make dynamic, real-time adjustments to irrigation based on multiple data inputs.
Types of Control Mechanisms:
- Time-Based Control: Irrigation is scheduled at specific intervals.
- Sensor-Based Control: Sensors trigger irrigation when conditions (e.g., soil moisture, temperature) meet specific thresholds.
- Weather-Based Control: Adjusts irrigation schedules based on weather forecasts and current climatic conditions.
- Remote Control: Systems managed through mobile apps, web dashboards, or other remote technologies.
Technologies Used:
- IoT-Enabled Systems: Devices connected via the internet for real-time monitoring and control.
- Cloud-Based Platforms: Centralized platforms store data and provide actionable insights.
- Smart Valves and Pumps: Enable precise water delivery to different zones.
- Drones and Remote Sensors: Collect field-wide data on soil and crop conditions.
Benefits of Monitoring and Control:
- Water Efficiency: Reduces waste by applying water only when needed.
- Improved Crop Yields: Ensures plants receive optimal water for growth.
- Cost Savings: Lowers labor, water, and energy expenses.
- Sustainability: Prevents overuse of water and minimizes environmental impact.
- Labor Reduction: Automates repetitive tasks, allowing farmers to focus on other priorities.
How It Works:
- Data Collection: Sensors gather information on soil moisture, weather, and crop health.
- Data Analysis: Software or controllers analyze the data to determine irrigation needs.
- System Activation: Pumps, valves, and sprinklers or drip systems are controlled based on analysis.
- Feedback Loop: Monitoring systems provide real-time feedback to adjust irrigation dynamically.
Applications:
- Greenhouses: For precise water and nutrient delivery.
- Field Crops: Large-scale farms use these systems to manage irrigation zones.
- Orchards and Vineyards: Custom systems target individual trees or rows.
- Drought-Prone Areas: Optimize limited water resources to sustain crops.
Irrigation monitoring and control systems are integral to modern precision agriculture, ensuring sustainable water use while maximizing farm productivity.