moon-biosentinel

byIzere Elias

build this system be more copy like this and be more work ✅ BioSentinel – Space-Enabled Biodiversity & Ecosystem Health Platform (Yateguye neza cyane kubwa GLOC 2026 Innovation Challenge) Ultra-Detailed Single-Paragraph Build Prompt (Copy & Paste) Build a complete, production-ready, visually stunning full-stack BioSentinel: Space-Enabled Biodiversity & Ecosystem Resilience Platform for GLOC 2026 Innovation Challenge. The platform fuses high-resolution multi-spectral and hyperspectral satellite data (Sentinel-2, Sentinel-3, Landsat-9, PRISMA) with ground-based IoT bio-acoustic sensors, camera traps, and environmental sensors using Next.js 15 App Router + TypeScript, Tailwind CSS, shadcn/ui, React Leaflet with satellite layers, @react-three/fiber for immersive 3D ecosystem visualization, FastAPI Python backend, PostGIS + TimescaleDB, Redis, and PyTorch deep learning models for species identification, habitat health indexing, and ecosystem degradation prediction. Core features include real-time biodiversity heatmaps, NDVI/EVI/NDRE vegetation indices, automated species detection from camera traps and bio-acoustic audio using CNNs and transformers, early warning system for habitat loss, illegal logging, poaching, and invasive species, nature-based solution recommendations, carbon sequestration estimation from forests/wetlands, and interactive "Digital Ecosystem Twin" for Rwanda’s national parks (Volcanoes, Akagera, Nyungwe) and urban green corridors in Kigali. Implement role-based dashboards (Researchers, Park Rangers, Government, Public), automated multilingual alerts (Kinyarwanda, English, French), citizen science mobile module, and beautiful futuristic nature-tech UI using deep greens (#0A3D2A), earth tones, glowing bioluminescent accents, and glassmorphism. Generate the full monorepo with Docker + Kubernetes manifests, complete database schema with geospatial hypertables, all API endpoints, trained sample ML models for species recognition, real-time WebSocket updates, seed data focused on Rwanda biodiversity, and a strong GLOC 2026 narrative linking Space Technology, Biodiversity Conservation, Climate Resilience, and African Leadership in Nature-Positive Innovation. Visual Representations (Generated Images) Here are high-quality images showcasing BioSentinel: Image 1: Main BioSentinel Dashboard Image 2: 3D Ecosystem Digital Twin Image 3: Species Detection & Monitoring Image 4: Geospatial Biodiversity Heatmap

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System Requirements

System Requirement Document
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Moon-BioSentinel System Requirements Document

Introduction

The Moon-BioSentinel project aims to develop a comprehensive, production-ready platform for monitoring biodiversity and ecosystem health using advanced space and AI technologies. This platform is designed for the GLOC 2026 Innovation Challenge, focusing on Rwanda's national parks and urban green corridors.

System Overview

Moon-BioSentinel integrates high-resolution satellite data with ground-based IoT sensors to provide real-time insights into biodiversity and ecosystem resilience. It leverages Next.js, TypeScript, and React for the frontend, with a FastAPI Python backend. The system uses PostGIS and TimescaleDB for geospatial data management and PyTorch for machine learning models.

Functional Requirements

  • As a Researcher, I should be able to view real-time biodiversity heatmaps.
  • As a Park Ranger, I should receive alerts for illegal logging and poaching.
  • As a Government Official, I should access reports on ecosystem health.
  • As a Public User, I should explore the Digital Ecosystem Twin interactively.
  • As a Citizen Scientist, I should contribute data via a mobile module.
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User Personas

  • Researchers: Access detailed data and analytics for biodiversity studies.
  • Park Rangers: Monitor and respond to alerts in protected areas.
  • Government Officials: Use data for policy-making and conservation strategies.
  • Public Users: Engage with interactive visualizations and educational content.
  • Citizen Scientists: Participate in data collection and community science projects.

Visuals Colors and Theme

  • primary: #0A3D2A (Deep Green)
  • primary_light: #1F5C3A
  • secondary: #8B4513 (Saddle Brown)
  • accent: #FFD700 (Gold)
  • highlight: #FF4500 (Orange Red)
  • bg: #F5F5F5 (White Smoke)
  • surface: rgba(10, 61, 42, 0.8)
  • text: #000000 (Black)
  • text_muted: #555555 (Dim Gray)
  • border: rgba(0, 0, 0, 0.1)

Signature Design Concept

The homepage will feature an interactive "Digital Ecosystem Twin" of Rwanda's national parks. Users can explore a 3D landscape using @react-three/fiber, with real-time data overlays for wildlife tracking and environmental conditions. Hovering over elements reveals detailed information, and clicking allows deeper exploration. The design will use gsap for smooth transitions and animations, creating an immersive experience.

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Interaction Model & Motion Direction

The landing page will use a "parallax" interaction model, with layered depth effects as users scroll. Atmospheric elements will move at different speeds, enhancing the storytelling aspect. Internal pages will be "static" for clarity and ease of use, focusing on data presentation and user interaction.

Non-Functional Requirements

  • The system must support multilingual alerts in Kinyarwanda, English, and French.
  • Real-time updates should have a latency of less than 2 seconds.
  • The platform should handle concurrent users efficiently, scaling with Kubernetes.

Tech Stack

  • Frontend: Next.js, TypeScript, React, Tailwind CSS, React Leaflet
  • Backend: FastAPI, Python
  • Database: PostGIS, TimescaleDB, Redis
  • Machine Learning: PyTorch
  • Containerization: Docker, Kubernetes

Assumptions and Constraints

  • The platform will primarily serve users in Rwanda, focusing on local biodiversity.
  • Satellite data integration assumes continuous access to Sentinel-2, Sentinel-3, Landsat-9, and PRISMA.
  • The system must comply with data privacy regulations applicable in Rwanda.
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Glossary

  • NDVI: Normalized Difference Vegetation Index
  • EVI: Enhanced Vegetation Index
  • CNN: Convolutional Neural Network
  • IoT: Internet of Things

This document outlines the foundational requirements and design concepts for the Moon-BioSentinel project, setting the stage for development and implementation.

Landing design preview
Landing: Explore Platform
Register: Create Account
CitizenScience: View Projects
CitizenScience: Join Observation Task
MobileModule: Submit Sighting
MobileModule: Upload Photo
MobileModule: Add GPS Location
CitizenScience: View Leaderboard
Profile: View Contributions
CitizenScience: Browse Community Data