AI-Driven Geo Exploration

Detect Crop StressBefore It's Visible

Early visibility into crop health and emerging stress across region and fields.

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THE CHALLENGE

Why Traditional Monitoring Falls Short

Early intervention is key to minimizing crop loss, but traditional methods cannot deliver it at scale.

Late Detection

Visible symptoms appear 2-3 weeks after stress begins. By then, yield loss has already occurred

Manual Scouting

Field scouting is slow, subjective, labor-intensive, and impossible at scale

Fragmented Coverage

Large or scattered landholdings cannot be monitored consistently or comprehensively

Wasteful Inputs

Blanket application of fertilizer, water, and pesticides wastes resources and reduces margins

Up to 90%

Field-level precision

2-3 Weeks

Early Stress Detection

15+

Data Formats Supported

100%

Explainable AI Results

One Unified Workspace for Crop Health Analysis

One Unified Workspace for Crop Health Analysis

Satellite imagery

Weather data


Soil and field boundaries

Historical crop performance

All aligned in a shared environment to analyze crop health and stress patterns over time

GeoVista enables:

  • Integrated analysis at field and sub-field scale
  • AI workflows applied across time-series imagery and indices
  • Clear, visual outputs that support agronomic interpretation

Automate, Analyze, Alert

GeoVista AI automates acquisition and analysis of imagery, classifies stress at field and sub-field scale, and delivers custom alerts pointing to emerging issues days or weeks ahead of visible symptoms.

1
Observation

Weekly imagery from satellites and on-demand drone flights covering your fields

2
Processing

NDVI and similar indices computed with atmospheric correction for accurate vigor and stress mapping

3
Modeling

ML models map stress zones based on yield history, weather, and field context with trend flagging

4
Interpretation

Zone maps generated for targeted field visits, input optimization, or yield prediction

Why GeoVista AI

Scalability

Monitor thousands of fields with different crop types simultaneously

Precision

Drill down to the resolution of available imagery

Proactive

Alerts for input managers to act before damage spreads

Use cases

From field-level monitoring to regional assessment

Crop Health Monitoring

Continuous visibility into crop conditions across fields and seasons

Early Stress Detection

Identify emerging stress before visible symptoms appear

Input Optimization

Target water, fertilizer, and treatments where they are most needed

Yield Variability Analysis

Understand spatial and temporal differences in crop performance

Multi-Farm Monitoring

Track crop health consistently across large and distributed operations

Regional Crop Assessment

Analyze crop conditions at the farm, district, or regional scale

Clear, Actionable Outputs

Everything you need to move from monitoring to action

  • Version-controlled models
  • Full audit trails
  • Access-governed outputs
  • Field validation support
Temporal Comparisons

Season-over-season crop health analysis

Priority Action Areas

Zones ranked for targeted field activity

Defensible Reports

Data-backed insights for agronomic and operational decisions

Wimmera, South Victoria — Yield Impact Analysis

Correlating vegetation indices with precipitation data to explain year-over-year yield variation

Wimmera, South Victoria — Yield Impact Analysis

Vegetation Index Analysis

NDVI imagery across three phenological phases — Sowing (April), Growth (July), and Harvesting (August) — for 2023 and 2024. Although similar amounts of crops were planted during sowing, the growth and harvesting phases in 2023 show significantly higher vegetation activity and crop yield compared to 2024.

Precipitation Correlation

Hourly accumulated precipitation from ERA5 data reveals the cause: during the critical growth phase, 2023 received 0.004m of rainfall compared to just 0.0015m in 2024. This water deficit directly correlates with the observed crop stress and reduced yield in 2024 — insights only visible through integrated spatial-temporal analysis.

“GeoVista AI's integrated analysis identified the rainfall deficit as the primary yield limiter — enabling proactive irrigation planning for future seasons.”

How GeoVista is Different

Built for large-scale crop monitoring

Interpretable Stress Signals

Stress insights agronomists can review and trust

Cross-Source Field Context

Imagery, weather, and field data analyzed together

Season-Over-Season Tracking

Track persistent issues across multiple seasons

Sub-Field Resolution

Granular visibility into variability within individual fields.

Operational Scale

Consistent monitoring across thousands of fields and crop types.

Production-Ready Platform

Access-controlled outputs designed for enterprise agricultural workflows.

Agriculture Professionals

GeoVista AI adapts across crop types, regions, and climatic zones

Large Producers

Multi-farm operations seeking scalable monitoring

Input Suppliers

Enable precision input advice for clients

Agri Consultants

Enhance advisory with spatial intelligence

Cooperatives

Coordinate across member farms

Government Agencies

Regional crop and food security assessment

Insurance

Data-driven underwriting and claims

Choose Your Deployment Option

On-premises Deployment

Total control. No data leaves your network

Cloud Deployment

Geographic distribution for global operations

Built on Trust. Backed by Global Standards.

iso-27001-2022

Certified for top-tier information security management.

soc2-type2

Certified for rigorous data security and operational integrity across systems.

cmmi-level-3

Process maturity certified for dependable delivery.

Global standard for consistent quality and reliability.

Find What Matters, Faster

GeoVista AI helps teams monitor crop health, detect stress sooner, and support data-backed decisions across agricultural operations.

Frequently Asked Questions

This product is co-engineer & powered by Kalpa and HestaBit.

GeoVista detects crop health by processing satellite imagery and generating NDVI layers that visually represent vegetation condition across agricultural areas.

Crop health detection in GeoVista requires a defined area of interest and satellite datasets for the selected time period. No field sensors or manual inputs are required.

Yes. GeoVista allows users to compare NDVI layers from different dates or seasons to evaluate changes in crop-related vegetation over time.

No. GeoVista does not assign health labels or scores. It provides visual NDVI outputs that users interpret based on vegetation intensity and spatial patterns.

Yes. GeoVista supports multi-site analysis, enabling users to run the same crop health detection workflow across multiple agricultural areas.

Yes. GeoVista is designed to scale from individual fields to regional agricultural monitoring, using consistent satellite-based workflows.

See what your data can show you with GeoVista

Load your datasets, run your first workflow, and get prospectivity results you can review today.

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