AgriTech

FurrowIQ

Field-by-field decisions, made from soil, sky and data.

Client
Valecrest Farms
Year
2022
Duration
8 months
Team size
5 engineers
FurrowIQ

Interactive Demo

A hands-on mock of the product we built — click around.

9:41
FurrowIQ
Valecrest Farms · 3,000 ha
Offline-ready
17°CBright intervals
64%Humidity
11km/h wind
3.1ET₀ mm/d
NDVI · Sentinel-2 pass 2 days ago LIVE PROBES
Church Field0.82Long Acre0.74Bottom Meadow0.58Hilltop0.69River Strip0.77
Poor
Excellent
Alerts & tasks
Rust risk — Bottom MeadowHumid spell + susceptible variety. Fungicide window opens Thursday; prescription map ready.
Dry corner — Hilltop NWMoisture 19.6% and falling; ET₀ 3.1 mm/d. Irrigate 18 mm tonight to stay ahead of stress.
NDVI pass completeSentinel-2 revisit processed — River Strip up 0.03 since last pass. Prescriptions refreshed.

Demo interface shown in English.

01

The challenge

Valecrest farmed 3,000 hectares the way it always had: blanket fertiliser and spray rates set by the weakest field, irrigation run on calendar rather than need, and scouting notes kept in a pickup-truck notebook. Input costs had jumped 40% in eighteen months, and the estate’s water abstraction licence faced tightening limits under the local catchment plan. Agronomists visited fortnightly, so problems — a rust outbreak, a dry corner — were typically a week old before anyone acted. Coverage made everything harder: half the fields had no mobile signal, so any tool that needed connectivity to function was dead on arrival. The estate needed decisions made per field, sometimes per hectare, from data it already had but never used.

02

Our solution

We built FurrowIQ around three data planes: Sentinel-2 NDVI imagery processed on a five-day revisit, LoRaWAN soil-moisture probes reporting hourly, and machinery telemetry ingested over ISOBUS where available. A Python and PostGIS backend turns these into per-hectare prescription maps for variable-rate spraying and irrigation scheduling, pushed to a React Native field app that works fully offline and syncs when the tractor reaches the farmyard’s Wi-Fi. Agronomist findings, photos and treatment records attach to GPS points, building a season-by-season history per field. The whole estate runs on a single Kubernetes cluster at the farm office, with a cloud replica for satellite processing.

03

Results

-23%
Irrigation water use
-18%
Fertiliser and spray spend
+9%
Average yield across the estate
48 h
From satellite pass to field action

Technology stack

React NativePythonPostGISLoRaWANSentinel-2Kubernetes

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