Open-Source · Apache 2.0

See it from space.
Confirm it from the sky.
Respond before it's too late.

An AI-driven platform combining satellite screening, autonomous drone verification, and precision response — for disease control, fire control, animal surveillance, flood monitoring, and emergency delivery.

5
Response domains
72h
Flag to response
80%
Less resource waste
Scopes

One platform. Five missions.

Same satellite-to-drone architecture — screen, verify, respond — applied wherever climate and emergency response need eyes in the sky.

🔬Active

Disease Control

Satellite screens for standing water, drones confirm breeding sites, precision spray response.

🔥Vision

Fire Control

Satellite thermal anomalies flag ignition risk, drones verify spread, retardant response.

🐾Vision

Animal Surveillance

Satellite habitat change detection, drones track and count wildlife, anti-poaching response.

🌊Vision

Flood Monitoring

Satellite water-level trends flag rising risk, drones verify inundation, evacuation alerts.

📦Vision

Emergency Delivery

Satellite routing around hazards, drones verify landing zones, autonomous supply drop.

The Problem

Climate change and emergencies are outpacing manual response.

Warming temperatures, shifting weather patterns, and growing climate volatility are creating new risks — disease outbreaks, wildfires, floods, wildlife loss — faster than manual, ground-based response can keep up.

10×
Climate-driven risk
Disease, fire, and flood risk have multiplied across vulnerable regions in the past decade.
2–4 wk
Detection lag
Paper-based and manual surveillance means emergencies are found weeks too late.
~30%
Manual response accuracy
Ground teams reach only a fraction of at-risk zones with blanket, unguided response.
Current approach
  • Paper-based surveillance, 2–4 week lag
  • Field teams patrol at-risk zones — find ~30% of targets
  • Blanket response regardless of confirmation
  • No early warning — reactive, not predictive
With Drishti
  • Satellite screens 100% of district area weekly, free
  • Drone validates only flagged zones — 70–80% fewer flights
  • Precision response at confirmed sites only
  • 4–6 week risk prediction from fused data
The Solution

Three tiers. One mission. Faster response.

Each stage costs less and moves faster than the one before. Satellite screens everything. Drone validates what matters. Intervention targets only what is confirmed — with a full georeferenced audit trail from pixel to response.

🛰️01
Satellite

Wide-area screening

Sentinel-2 imagery scans entire districts weekly at 10m resolution. NDWI water index + change detection flags target signatures automatically. Zero marginal cost. 100% district coverage.

70–80% fewer drone flights vs. blanket survey
🚁02
Autonomous UAV

Drone verification

Autonomous drones target only satellite-flagged zones, capturing sub-10cm imagery. AI detects the target signature for the active mission — standing water, thermal anomaly, wildlife presence, flood extent, or drop zone. Close-range descent confirms when needed.

48-hour verification · survey + nano-shot confirmation
💧03
Payload swap

Precision intervention

Confirmed targets trigger a response mission. Same drone airframe — payload swapped for the mission (larvicide tank, retardant canister, tracking tag, supply pod) in under 5 minutes. Precision delivery at exact confirmed coordinates only.

60–80% less response material vs. blanket application

End-to-end cycle: Instant vs. 2–4 weeks manually·Same drone, swappable payload, three stages — across five missions.

How It Works

Detect → Verify → Respond → Predict. One shared pipeline, five missions.

The same satellite-to-drone architecture powers every scope. Here's the pipeline in action for Disease Control — our most mature, furthest-along implementation.

Worked example: Disease Control
🌍01

Sentinel-2 acquisition

ESA Copernicus satellite passes over target districts weekly. Cloud-masked Sentinel-2 L2A tiles are ingested automatically via Google Earth Engine at zero cost.

📡02

NDWI water detection

Normalized Difference Water Index isolates standing water. Week-over-week change detection flags new or growing water bodies. Permanent rivers and reservoirs are excluded via historical mask.

🗺️03

Mission planning

Flagged candidate zones are ranked by area, proximity to settlements, and historical case burden. Top N zones are queued for drone validation. Operator approves the mission in ~15 minutes.

🚁04

Survey drone flight

Autonomous drone flies only to flagged zones at 30m altitude, capturing 5–10cm GSD imagery. YOLOv8 detects standing water, containers, blocked drains, and tire piles across the full zone.

🔬05

Nano-shot confirmation

For each high-confidence water surface, the drone descends to 2–5m. EfficientNet-B0 classifier analyzes macro close-ups for larval signatures — turbidity, organic film, container type, visible larvae.

💧06

Intervention dispatch

larvae_confirmed detections trigger an intervention mission. Drone returns to base — camera payload swapped for larvicide tank in <5 minutes. Precision spray applied at exact confirmed coordinates.

📊07

Risk prediction

XGBoost model fuses satellite trends, confirmed habitat density, IoT sensor readings, and historical case data to generate ward-level outbreak risk scores 4–6 weeks ahead.

08

Closed-loop audit

Every intervention traces back through detection → flight → mission → satellite pixel. Full georeferenced audit trail with timestamp. FCHVs receive alerts in Nepali. Risk scores updated.

VERIFY
Steps 1–3 · Satellite
VALIDATE
Steps 4–5 · Drone
EXECUTE
Steps 6–8 · Intervention + Predict
Objectives & Impact

Numbers that matter.

Drishti is designed for measurable outcomes across every mission. These figures reflect our Disease Control pilot — the first scope in active development.

~300,000
Children under 15 — Year 1 protection target
2 districts
Nepal pilot geography (Chitwan + 1 mid-hill)
Instant
End-to-end cycle vs. 2–4 weeks manually
70–80%
Reduction in drone flight hours vs. blanket survey
60–80%
Less larvicide use vs. blanket spraying
4–6 weeks
Outbreak prediction horizon
Theory of Change
Satellite data (free)→ Candidate zones ranked→ Drone validates→ Target confirmed→ Precision response→ Reduced impact→ Lives and resources protected
The Team

Built by drone engineers and public health experts.

A cross-disciplinary team combining deep software engineering, epidemiology expertise, and operational drone experience in Nepal.

BBinaya Tripathi
BuildersAcademy.ai
Binaya Tripathi
Founder
Vision · Strategy · Partnerships
Founded BuildersAcademy.ai and set the vision for Drishti — turning satellite and drone data into actionable public health intervention.
DDipak Sharma
BuildersAcademy.ai
Dipak Sharma
Project Lead
Backend · ML · Infrastructure · Drone Systems
Building the full satellite-to-drone-to-prediction pipeline. Leads technical architecture, model development, and platform infrastructure at BuildersAcademy.ai.
RRishav Subedi
BuildersAcademy.ai
Rishav Subedi
Drone Developer
UAV Hardware · Flight Firmware · Autonomous Systems
Designs and builds the drone hardware and flight firmware powering low-altitude verification and intervention missions at BuildersAcademy.ai.
FField Partner
Nepal MoHP
Field Partner
Public Health Advisor
Epidemiology · VBD Surveillance · Bagmati Province
Domain expertise on dengue surveillance protocols, EDCD reporting systems, and community health worker networks across Nepal's mid-hill districts.
BuildersAcademy.ai
Platform engineering and AI research lead behind Drishti
buildersacademy.ai →
Roadmap

Foundation → Pilot → Scale.

A disciplined 12-month path to measurable impact, starting with Disease Control in Nepal — designed to expand across five response domains and to any country facing these hazards.

Active
Q2 2026
Foundation
  • ·Open-source codebase — Apache 2.0, all code on GitHub
  • ·Satellite NDWI pipeline — Chitwan demo data
  • ·YOLOv8 survey + EfficientNet nano-shot models trained
  • ·FastAPI backend with XGBoost prediction engine
  • ·MapLibre dashboard + landing page
Planned
Q3 2026
Nepal Pilot
  • ·Live Sentinel-2 acquisition (weekly automated)
  • ·First drone survey flights in Chitwan district
  • ·Real annotated dataset → model retrain
  • ·Nepal MoHP / EDCD dashboard onboarding
  • ·First complete verify→validate→execute cycle
Planned
Q4 2026
Scale
  • ·3 additional Nepal districts
  • ·Malaria + Japanese Encephalitis models
  • ·Offline-first PWA for field workers
  • ·Peer-reviewed impact metrics published
Future
2027+
Expansion
  • ·India and Bangladesh pilots
  • ·Multi-country adaptation guide
  • ·Aquaculture monitoring vertical
  • ·Open-source community in 5+ countries
  • ·Fire Control and Flood Monitoring pilot programs
Get Involved

Partner with us. Build with us.

Are you a public health authority, emergency response agency, NGO, research institution, or developer working on climate-response challenges? We want to hear from you — especially if you operate in a region facing disease, wildfire, flooding, wildlife, or emergency-logistics challenges.

Health authorities: Pilot with us in your district
Developers: Contribute on GitHub — Apache 2.0
Researchers: Access anonymized datasets for study
Funders: Support open-source public health infrastructure