Purpose
1. Enable automated, real-time yield estimation for crops by processing historical field data, sensor inputs, and weather records through advanced AI models to deliver precise projections, support planting/harvest planning, drive resource optimization, and facilitate data-driven decisions across crop production cycles.
Trigger Conditions
1. Scheduled interval: e.g., weekly/monthly estimation runs.
2. New batch of sensor/IoT data uploaded (soil, moisture, NDVI).
3. Reception of latest weather forecast or satellite imagery.
4. Manual trigger by agronomist or farm manager.
5. Integration event: new field registered or updated in digital farm management system.
Platform Variants
1. Microsoft Azure Machine Learning
- Feature/Setting: Batch Inference Pipeline — Use REST API endpoint to submit new yield estimation jobs; configure authentication via Service Principal.
2. Google Cloud AI Platform
- Feature/Setting: Online Prediction API — Deploy trained TensorFlow model, send JSON data payloads for real-time yield prediction.
3. AWS SageMaker
- Feature/Setting: InvokeEndpoint API — Call deployed endpoint for batch or real-time crop yield estimation; set IAM roles for access control.
4. IBM Watson Machine Learning
- Feature/Setting: Deploy Model as Web Service — Use Deployments API to invoke model with historical field/sensor data for estimate generation.
5. DataRobot
- Feature/Setting: Predict API — RESTfully send crop data payload for instant AI-based yield predictions.
6. SAP Leonardo ML Foundation
- Feature/Setting: Predictive Analytics Service — Use “predict” function to analyze supplied historical datasets and return yield estimates.
7. Oracle Cloud AI
- Feature/Setting: Model Deployment Endpoint — Use the “Score Data” API to analyze new input from sensors and farm management data.
8. RapidMiner AI Hub
- Feature/Setting: Process Automation Web Service — Trigger REST endpoint to run workflow for yield estimation from new data batch.
9. H2O.ai Driverless AI
- Feature/Setting: MOJO Scoring Pipeline — Expose HTTP Scoring API; send crop, weather, and time-series data for predictions.
10. TensorFlow Serving (Self-Hosted)
- Feature/Setting: REST/GRPC Model API — POST standardized crop and sensor records to deployed model for yield prediction response.
11. Scikit-learn (Flask API Deployment)
- Feature/Setting: Custom Flask Endpoint — Route farm records to HTTP endpoint; receive and parse yield output.
12. OpenAI GPT/Function Calling
- Feature/Setting: Function (plugin) call with crop, weather, and soil history to return summarized yield estimation.
13. Salesforce Einstein Prediction Builder
- Feature/Setting: Bulk Scoring API — Send records from CRM or external sensors for predicted output field values.
14. MATLAB Production Server
- Feature/Setting: Deploy MATLAB Model/API — Expose compiled predictive function to receive farm input and return estimates.
15. Alteryx Server
- Feature/Setting: Gallery API — Call workflow URL with past production data; collect resulting yield analytics.
16. KNIME Server
- Feature/Setting: REST API Workflow Execution — Submit request with structured historical/sensor data for automated run.
17. Qlik Application Automation
- Feature/Setting: Trigger Qlik block chain using connector for pre-built crop model, send required data fields as variables.
18. Power Automate (Microsoft)
- Feature/Setting: HTTP Action — Send POST request to internally deployed model or cloud AI service to trigger estimation.
19. Zapier
- Feature/Setting: Webhooks by Zapier — Configure trigger from farm management app; POST record to prediction model endpoint.
20. Make (Integromat)
- Feature/Setting: HTTP Module to send/receive data, run on new sensor uploads, schedule, or direct input from user.
21. Snowflake Machine Learning
- Feature/Setting: External Functions or Snowpark — Trigger predictive UDF to process historical crop and weather data.
22. MongoDB Atlas Triggers
- Feature/Setting: Trigger on data insert/update, integrate with external ML prediction service to process new agricultural records.
Benefits
1. Removes manual hand-calculation, vastly reducing error and time.
2. Enables continuous, data-driven crop planning and resource allocation.
3. Supports scalable, multi-farm and multi-season projections for large operations.
4. Rapid adaptation to new data types and model improvements.
5. Facilitates compliance/reporting with reliable, consistent documentation.