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Automate irrigation or fertilizer schedules based on data inputs

Purpose

 1.1. Automate precise irrigation and fertilizer schedules based on sensor data, weather inputs, crop lifecycle, remote analytics, and equipment telemetry.
 1.2. Ensure optimal soil moisture and nutrient delivery to crops, minimize resource wastage, increase yield, and reduce manual labor.
 1.3. Maintain compliance with agronomy recommendations and integrate diverse data points, including remote weather forecasts and equipment health indicators.

Trigger Conditions

 2.1. Real-time soil moisture or nutrient readings from field-deployed IoT sensors cross set thresholds.
 2.2. Weather forecast APIs predict rainfall or high-temperature events.
 2.3. Scheduled periodic batch updates from farm management software.
 2.4. Crop lifecycle milestones (e.g., germination, flowering) reached as tracked by farm ERP or sensor analytics.

Platform Variants


 3.1. AWS IoT Core
  • Feature: Device Rule Actions
  • Configure rules to route sensor telemetries to Lambda for processing when thresholds are hit.

 3.2. Microsoft Azure IoT Hub
  • Feature: Message Routing
  • Set conditional queries to push device-to-cloud messages to Logic Apps when soil moisture drops.

 3.3. Google Cloud IoT Core
  • Feature: Pub/Sub Trigger
  • Link device telemetry streams to Cloud Functions; run scheduler tasks on criteria match.

 3.4. IBM Watson IoT Platform
  • Feature: Event Processing Rules
  • Define rules with real-time analytics to trigger workflow on soil analytics/events.

 3.5. Siemens MindSphere
  • Feature: Integrated Data Flow
  • Use Data Flow Creator for automated scheduling using asset conditions.

 3.6. PTC ThingWorx
  • Feature: Event Triggers
  • Set up mashups for soil/environment events to launch irrigation or fertilizer recipes.

 3.7. Schneider EcoStruxure
  • Feature: Smart Farm APIs
  • Use REST endpoints to send actuation commands according to rule-based events.

 3.8. Bosch IoT Suite
  • Feature: Rule Engine
  • Script threshold-driven automations and direct device actuation via the “Command” API.

 3.9. John Deere Operations Center
  • Feature: Agronomic Automations
  • API-triggered prescription uploads when new data matches conditions.

 3.10. Trimble Ag Software
  • Feature: Task Scheduler
  • Configure “Auto Task” creation using field sensor input API.

 3.11. FarmBeats by Microsoft
  • Feature: Data-Driven Rules Engine
  • Configure auto-scheduling via REST API using real-time field telemetry.

 3.12. Climate FieldView
  • Feature: Field Event API
  • Register webhooks for environmental event notifications to trigger automations.

 3.13. CropX
  • Feature: Soil Monitoring API
  • Schedule irrigation automatically using “Create Irrigation Event” endpoint on criteria match.

 3.14. OpenWeatherMap API
  • Feature: Weather Alerts
  • Subscribe to field-specific peril (rain, heat) and use alerts to adjust farming tasks.

 3.15. Netafim Digital Farming
  • Feature: Automatic Irrigation Engine
  • Set up API to launch irrigation cycles based on IoT analytics.

 3.16. Kaa IoT
  • Feature: Rule Engine
  • Define auto-triggered server-side commands using sensor feeds.

 3.17. Losant IoT
  • Feature: Workflow Engine
  • Configure workflows to launch pipeline actions on incoming telemetry.

 3.18. Particle IoT
  • Feature: Device Cloud Webhooks
  • Set up cloud webhook to POST to scheduling API on sensor readings.

 3.19. Telit IoT Platform
  • Feature: Application Enablement
  • Create application rules to fire commands to irrigation controller endpoints.

 3.20. SAP Leonardo IoT
  • Feature: Rule Services
  • Use Smart Rules to link soil/crop data to automated resource allocation.

Benefits

 4.1. Consistent, timely irrigation and fertilization improve crop yields and resource efficiency.
 4.2. Reduces manual oversight, saving time and labor costs for operators.
 4.3. Ensures compliance with agronomic prescriptions and environmental limitations.
 4.4. Minimizes water and fertilizer waste, protecting the environment and lowering costs.
 4.5. Enables scalability by synchronizing all assets and field zones programmatically.

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