AgriTech & Data Science

Smart Irrigation Prediction System

Forecasting-Driven Water Management

Planned
AgriTech & Data Science
TBD
Forecast Horizon
TBD
Prediction Error
TBD
Water Savings
TBD
Sensor Channels

Overview

A time-series pipeline that ingests soil-moisture, temperature, and humidity telemetry over MQTT into InfluxDB, then trains Prophet and LSTM models to forecast soil-moisture trajectories and upcoming irrigation demand. Predicted deficits drive an automated irrigation schedule, shifting from reactive watering to proactive, weather-aware management.

The Problem

Reactive irrigation either over-waters (wasting water and leaching nutrients) or under-waters (stressing crops), because it responds to current readings rather than anticipating need. Growers need a forecast of soil-moisture decline that accounts for weather.

The Approach

Sensor telemetry streams over MQTT into InfluxDB. Prophet captures seasonality and trend while an LSTM models short-horizon non-linear dynamics; an ensemble forecasts soil-moisture trajectories and flags upcoming deficits. Predictions feed an automated scheduler that waters just before stress thresholds are crossed.

Results

Planned — to be measured: forecast error against held-out sensor data, achievable water savings versus a fixed-schedule baseline, and crop-stress avoidance.

Process & Timeline

  1. Phase 1

    Telemetry pipeline

    Stream soil and atmospheric sensors over MQTT into InfluxDB with a clean, queryable schema.

  2. Phase 2

    Forecast models

    Train and compare Prophet and LSTM models on historical soil-moisture series.

  3. Phase 3

    Scheduling

    Convert deficit forecasts into an automated, weather-aware irrigation schedule.

  4. Phase 4

    Evaluation

    Benchmark water savings and forecast accuracy against a fixed-schedule baseline.

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