FeraSky badge, tagline CROP HEALTH FROM THE SKY
FeraSky badge, tagline CROP HEALTH FROM THE SKY
Artificial Intelligence for Agriculture and the Environment

AI Agricultural Intelligence Platform

Transforming agricultural and environmental data into intelligent decisions using Artificial Intelligence, Computer Vision, Digital Twins, GIS, and autonomous systems.

The intelligence platform is the product. Hardware is one future data source.

UAE National Food Security Strategy 2051Saudi Vision 2030 AgricultureQatar National Vision 2030UAE Net Zero 2050Onboard AI. No cloud dependency.
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Built with
PythonNVIDIA NIMOpenCVPyTorchYOLONext.jsDockerGitHubGISDigital TwinsAI AgentsPythonNVIDIA NIMOpenCVPyTorchYOLONext.jsDockerGitHubGISDigital TwinsAI Agents
The Challenge

The Gulf feeds itself against every constraint.

Climate, pests, and water scarcity converge faster than traditional monitoring can respond.

90%

of GCC food is currently imported

This is the strategic vulnerability the National Food Security Strategy 2051 targets.

1985

The red palm weevil arrived in the region

Larvae feed inside the trunk before any surface symptom is visible.

NDVI

Every liter of irrigation carries a desalination cost

Per tree precision turns water from a ceiling into a lever.

Our Solution

An AI that flies.

FeraSky is not a camera drone that sends data to a server. The Jetson Orin Nano Super runs the full detection model in flight, so diagnosis happens above the tree at the moment of capture. Every generic agricultural drone flies a route and drops raw imagery for later review. FeraSky delivers the finished diagnosis while still in the air.

Sees

RGB, NIR, and UV inspection light.

Thinks

A trained detection model runs on the Jetson Orin Nano Super at 67 TOPS, in flight, with no cloud.

Decides

Every canopy receives a labeled diagnosis, a confidence score, and a treatment recommendation, geotagged and streamed live.

Value Proposition

Why FeraSky is different

Four design choices that separate an intelligence platform from a camera on wings.

No cloud round trip

Zero second latency because the model runs onboard.

Per tree precision

Precision applied per tree, not per field.

Sovereign deployment ready

A Jetson local fallback keeps data in country when the Ministry requires it.

Crop agnostic

Date palm, citrus, mango, olive, stone fruit, apple, pomegranate, avocado, and banana.

The Platform

A unified intelligence stack

Nine interconnected systems, engineered to work as one platform rather than nine separate tools.

AI Platform

The core reasoning layer that orchestrates models, data, and decisions across the system.

Computer Vision

Detection, segmentation, and classification models trained on agricultural and environmental imagery.

AI Agent

Autonomous reasoning agents that plan, monitor, and recommend without constant human input.

Digital Twin

A continuously updated virtual replica of fields, terrain, and infrastructure.

GIS Engine

Geospatial infrastructure that anchors every insight to real world coordinates.

Mission Planning

Automated planning for data collection missions across land and airspace.

Analytics

Dashboards and reporting that translate raw signals into operational metrics.

Telemetry

Live data streams from sensors and future autonomous assets in the field.

Future Robotics

An extensible foundation for ground and aerial robotics as hardware integration matures.

How It Works

From raw data to real decisions

A six stage intelligence cycle designed to run continuously across a growing season.

01

Collect

Ingest imagery, sensor readings, and geospatial data from multiple sources.

02

Analyze

Apply computer vision and AI models to detect patterns and anomalies.

03

Understand

Fuse findings into the digital twin for full contextual understanding.

04

Predict

Forecast trends in crop health, water stress, and environmental risk.

05

Recommend

Generate clear, prioritized recommendations for the people on the ground.

06

Act

Deliver intelligence into workflows where decisions are made and executed.

Platform Capabilities

Intelligence across the entire landscape

A single platform designed to extend across crops, terrain, water, and infrastructure.

Crop Monitoring

Continuous visibility into crop health and growth stages.

Disease Detection

Early identification of disease signatures in plant canopy.

Pest Detection

Pattern recognition for early pest pressure indicators.

Water Stress

Identification of irrigation gaps before yield is affected.

Tree Counting

Automated counting and health scoring across orchards.

Yield Analytics

Data driven modeling to support yield estimation.

Environmental Monitoring

Tracking environmental indicators across a monitored region.

Infrastructure Inspection

Visual inspection support for irrigation and rural assets.

Land Mapping

High resolution mapping of terrain and land use.

Decision Support

Prioritized guidance generated from fused intelligence.

Geospatial Analytics

Spatial analysis layered across every field and region.

Simulation

Digital twin simulation used to test scenarios before deployment.

Business Model

How FeraSky earns

Three revenue streams, each designed around a different stage of the platform.

SaaS dashboard

Per hectare, per month

The primary recurring revenue stream, a live intelligence layer delivered as software.

Hardware sale

Per drone unit, from the hardware rollout stage onward

An extension of the software, not the primary product.

Service contracts

Per mission and per season

Structured engagements for government and enterprise pilots.

Competition

How FeraSky stands apart

Positioned against the agricultural drone platforms most commonly deployed in the region today.

Onboard AI in flightRGB, NIR, and UVSovereign deploymentCrop agnosticLive geotagged uplinkSoftware first platform
FeraSkyIncludedIncludedIncludedIncludedIncludedIncluded
DJI AgrasNot applicableNot applicableNot applicableNot applicableNot applicableNot applicable
XAGNot applicableNot applicableNot applicableNot applicableNot applicableNot applicable
JOUAVNot applicableNot applicableNot applicableNot applicableNot applicableNot applicable
Market

The addressable market

Sizing that has been designed, not claimed.

TAM

GCC precision agriculture

The addressable market across the UAE, Saudi Arabia, Qatar, Bahrain, Kuwait, and Oman.

SAM

UAE, Saudi Arabia, and Qatar orchards

Orchard hectares reachable within the pilot geography.

SOM

GCC date palm and citrus orchards

The first pilot geography, determined jointly with the host country's ministry of agriculture.

Sizing methodology available on request. No revenue is claimed.

Software Status

Built first in software, validated by simulation

FeraSky is engineered as a software first platform, with hardware treated as an extension of that intelligence.

Software Platform

Substantially complete

The core AI, computer vision, GIS, and digital twin platform has been designed and developed.

Simulation Environment

Completed

A simulation first approach was used to develop and test the platform before hardware integration.

Detection Pipeline

Operational

The crop disease detection pipeline runs from image capture through to a labeled diagnosis.

Hardware Integration

In preparation

The platform is being prepared to integrate with drones and future robotic hardware.

Field Validation

Awaiting funding

Funding will accelerate the transition from simulation to real world field validation.

All figures on this page describe current development status. No performance results, pilots, or commercial deployments are claimed until validated in the field.

Traction

What is built and verifiable today.

A working inventory of the platform as it stands, not a forecast.

Core software platform substantially complete.
Complete

Detection pipeline operational

The crop disease detection pipeline runs end to end today.

Complete

Live testing panel available

Available at ferasky.com/dashboard/demo.

No customers, revenue, or paid pilots are claimed. All items marked complete are verifiable in the public repository.

Technology

The stack powering the platform

A modern, production grade technology foundation chosen for rigor and scale.

Python

The core language across the AI and platform codebase.

Named systems, not generic claims

Vision model
MobileNetV2 fine tuned on PlantVillage, 38 classes
Agronomist LLM
Llama 3.1 8B Instruct served through NVIDIA NIM, with a Jetson local Gemma 2B fallback
Onboard compute
NVIDIA Jetson Orin Nano Super, 67 TOPS
Twin spectrum vision
RGB and NIR, producing NDVI
UV inspection light
Canopy fluorescence, detecting fungal signatures before RGB symptoms appear
Live uplink
4G LTE and MQTT, geotagged
Autonomous flight
PX4 with GPS waypoints
Roadmap

The path from software to a global platform

A deliberate, staged path from a complete software foundation to global deployment.

Software Platform

Core AI, vision, GIS, and digital twin platform designed and built.

Complete

Funding

Securing grants, investment, and strategic partners to accelerate the roadmap.

Current

Hardware and Flight Validation

Integrating drones and sensing hardware, then moving validation from simulation into controlled real world flight.

Upcoming

Pilot Projects

Structured pilots designed with partners and research collaborators.

Upcoming

Commercial and Regional Deployment

Preparing the platform for its first commercial deployments, then extending validated deployments across additional regions.

Upcoming
Future Vision

One intelligence layer across every source

The long term architecture connects every signal, from orbit to the ground, into a single decision layer.

Satellite
Drone
Robot
Sensors
Cloud
AI
Farmer
Government
Enterprise

Hardware is one input among many. The platform is designed so that new data sources extend the same intelligence core rather than replace it.

Founder and Team

The team

Mohamad Omar

Founder of USTech AI

A US educated engineer, University of Minnesota.

A decade across artificial intelligence, computer vision, autonomous drone systems, and national scale network infrastructure.

Founder of USTech AI, building sovereign AI platforms for the region.

Credentials
AI Systems EngineeringApplied Computer VisionAutonomous Aerial SystemsSovereign Network InfrastructureLTE and 5G Core DevelopmentLinux Kernel and Systems ProgrammingEdge Compute OptimizationMLOps and Model DeploymentFull Stack AI Product Development
moe.omar@ustechai.com

Committed to relocating long term and building the team out of the GCC.

About FeraSky

Intelligence is the product

Mission

To give every farmer, every ministry, and every food security council an intelligent layer that turns agricultural data into decisions.

Vision

The operating system for intelligent agriculture across the Gulf and beyond.

Core Philosophy

The intelligence platform is the product. Hardware is one future data source, an extension of the software, never the other way around.

FeraSky is an intelligence platform. Drones and future robotics are extensions of that platform, not the platform itself.

FeraSky is bootstrapped to date by USTech AI. No external capital has been raised.

Plans for the GCC

Building FeraSky across the region

The commitments that anchor this platform to the region, not just to a market.

Regional Presence

Founder committed to building the team out of the GCC, with the specific host city determined by the granting authority.

Pilot Orchards

Initial deployments across GCC orchards, in coordination with the ministry or authority of the host country.

Ecosystem Alignment

Direct engagement with national food security councils, investment offices, and innovation funds across the UAE, Saudi Arabia, and Qatar.

National Contribution

FeraSky provides the ground truth geospatial data layer that a national food security dashboard can be built from, aligned with UAE Strategy 2051, Saudi Vision 2030, Qatar National Vision 2030, and UAE Net Zero 2050.

Contact

Let us build the future of agricultural intelligence together

We welcome conversations with government programs, investors, accelerators, and research partners.