Unprecedented Control
Precision Irrigation Technology That’s Purpose Built for Growers
We completely redefined precision irrigation. Deliver the exact volume of water you want on your crops with less waste, better distribution uniformity and higher quality yields
All-in-one
Precision Irrigation
Hardware - Lumo One
The only smart irrigation valve with built-in communications and flow monitoring.
Software - The Ops Center
Irrigation management software that provides complete visibility and control over your irrigations.
Service
Support and service comes standard and is available on-site and on-line
How Precision Irrigation
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.
Precision Irrigation
Benefits
Eliminate Costs
by automating up to 90% of your current irrigation labor.
Monitor Your Irrigations
in real-time with Lumo’s irrigation management software.
Deliver the Exact Amount of Water
by specifying a target volume by block or zone.
Backed by Your Local Lumo Support Team
to ensure your irrigations perform flawlessly.
DIG DEEPER Into Precision Irrigation
Precision irrigation is an advanced agricultural practice that uses technology to deliver the exact amount of water required by crops at the right time and place. It ensures efficient water use, enhances crop health, and minimizes waste, making it an essential component of modern precision agriculture.
Key Features of Precision Irrigation
- Site-Specific Watering: Tailors water delivery to specific areas of a field based on soil type, crop needs, and environmental conditions.
- Real-Time Data Integration: Utilizes sensors, weather forecasts, and analytics to inform irrigation decisions dynamically.
- Automation and Control: Leverages smart systems to automate irrigation processes, reducing manual intervention.
- Minimized Waste: Reduces water loss from evaporation, runoff, or overwatering.
Components of Precision Irrigation
1. Data Collection Tools
- Soil Moisture Sensors: Measure water levels in the soil to identify areas needing irrigation.
- Weather Stations: Provide real-time weather data, including rainfall, temperature, and humidity.
- Remote Sensing: Uses drones or satellites to map field conditions and identify stressed areas.
2. Irrigation Systems
- Drip Irrigation: Applies water directly to the root zone with high efficiency.
- Micro-Sprinklers: Deliver precise water amounts to specific areas, ideal for orchards and vineyards.
- Subsurface Irrigation: Underground systems reduce evaporation and optimize water usage.
- Variable Rate Irrigation (VRI): Adjusts water application rates based on field variability.
3. Technology and Software
- IoT Devices: Connect sensors and controllers for real-time monitoring and adjustments.
- AI and Machine Learning: Analyze data to predict crop water needs and optimize schedules.
- Mobile Apps: Enable remote management and tracking of irrigation systems.
- Geographic Information Systems (GIS): Map fields to identify zones with varying water requirements.
Benefits of Precision Irrigation
- Water Conservation: Reduces waste by applying water only where and when it’s needed.
- Improved Crop Yields: Ensures crops receive the optimal amount of water for growth.
- Cost Savings: Lowers water, energy, and labor expenses.
- Environmental Protection: Minimizes runoff and soil erosion, preserving ecosystems.
- Adaptability: Suitable for diverse crop types, field sizes, and climatic conditions.
How Precision Irrigation Works
- Data Collection: Sensors and remote sensing devices gather real-time information about soil, crops, and weather.
- Data Analysis: Software analyzes the data to determine the exact water requirements for each area of the field.
- Irrigation Execution: Automated systems or manual controls apply water according to the recommendations.
- Feedback and Adjustment: Continuous monitoring ensures that the system adapts to changing conditions, such as rainfall or crop growth stages.
Applications of Precision Irrigation
- Field Crops: Optimize water use across large fields with varying soil and crop conditions.
- Greenhouses: Maintain precise control over water delivery in controlled environments.
- Orchards and Vineyards: Tailor irrigation to individual trees or rows for efficient water use.
- Drought-Prone Regions: Maximize limited water resources to sustain crop productivity.
Challenges and Considerations
- Initial Costs: Investment in sensors, systems, and software can be high.
- Technical Expertise: Farmers may require training to use advanced technologies effectively.
- Data Dependency: Accurate and consistent data collection is critical for success.
Future of Precision Irrigation
The integration of AI, IoT, and machine learning will further enhance precision irrigation. Emerging trends include:
- Self-Learning Systems: Use AI to predict water needs based on past data and weather forecasts.
- Integration with Fertigation: Combine water and nutrient delivery for optimal crop health.
- Blockchain for Water Management: Track and verify water use for sustainable farming practices.
Precision irrigation represents a sustainable solution to global water challenges, enabling farmers to improve productivity while conserving resources.
Precision irrigation saves water by optimizing water use. By using sensors that collect data on water usage, farmers can avoid overwatering and underwatering, and apply water only when and where it is needed. This can help reduce water usage by up to 30%, compared to traditional irrigation methods.
Traditionally, the main challenges of implementing precision irrigation systems were the cost of technology and equipment, the need for specialized knowledge and training, and the complexity of managing data and systems, however, Lumo has made this technology affordable and accessible to most growers.
Precision irrigation can benefit a wide range of crops, but it is particularly useful for crops that are sensitive to water stress or that require precise amounts of water and nutrients. Examples include fruits and vegetables, turfgrass, and high-value crops such as grapes and almonds.
Learn more - Book a demo with our team