TILT Initiative Project

EcoCatch

Advanced Marine Pollution Monitoring & Analysis

An AI-powered environmental monitoring system that detects harmful algal blooms and microplastic pollution using satellite data and machine learning.

EcoCatch Platform Visualization

Project Overview

Revolutionizing marine ecosystem monitoring through advanced remote sensing and AI technologies

EcoCatch is an advanced environmental monitoring system designed to analyze and mitigate marine pollution through the integration of remote sensing, artificial intelligence, and ecological modeling. By combining data from multiple satellite sources and ground validation, EcoCatch provides unprecedented insights into marine ecosystem health.

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Multi-Source Satellite Data

Integrates Sentinel-2 MSI, Sentinel-3 OLCI, MODIS-Aqua, and EMODnet datasets

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AI-Powered Analysis

Machine learning models for pollution detection and prediction

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Marine Ecosystem Focus

Specialized in harmful algal blooms and microplastic pollution tracking

89%
Accuracy in Microplastic Detection
24K+
Data Points Analyzed
1,842
High-Risk Zones Identified

Technology Stack

Cutting-edge tools and platforms powering EcoCatch's environmental intelligence

Data Sources

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Sentinel-2 MSI
High-resolution multispectral imaging
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Sentinel-3 OLCI
Ocean and land color instrument
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MODIS-Aqua
Moderate resolution imaging spectroradiometer
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EMODnet
Biology and chemistry datasets

Processing & Analysis

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Google Earth Engine
Large-scale geospatial analysis
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Machine Learning
AI models for pollution prediction
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Data Visualization
Interactive maps and heatmaps

Scientific Methodology

Validated approaches for marine pollution detection and analysis

EcoCatch employs a scientifically rigorous methodology that combines satellite remote sensing with in-situ validation data to monitor and predict marine pollution patterns.

1

Data Acquisition

Collection of multi-spectral satellite imagery from Sentinel and MODIS platforms, combined with EMODnet ground truth data.

2

Preprocessing

Atmospheric correction, cloud masking, and geometric calibration to ensure data quality and consistency.

3

Feature Extraction

Identification of spectral signatures for chlorophyll-a concentrations and algal bloom detection.

4

AI Analysis

Machine learning algorithms correlate spectral data with microplastic concentrations (R²=0.89 validation).

5

Visualization & Reporting

Generation of interactive maps, heatmaps, and predictive models for stakeholders and policymakers.

Scientific Validation

R² = 0.89
HAB-Microplastic Correlation
12,000+
EMODnet Validation Points
92%
Sentinel-3 Accuracy

Key Features

Comprehensive capabilities for marine environmental monitoring

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Global Microplastic Distribution Mapping

Visualize microplastic concentrations derived from algae bloom data using validated correlation models with R²=0.89 correlation with EMODnet validation data.

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Harmful Algal Bloom Detection

Monitor and track harmful algal blooms (HABs) using chlorophyll-a concentration data from Sentinel-3 OLCI imaging with 92% accuracy.

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Pollution Trend Analysis

Identify and analyze microplastic pollution trends through advanced correlation algorithms and historical data comparison.

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Predictive Modeling

Forecast pollution spread and impact on marine biodiversity using machine learning models trained on extensive datasets.

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Environmental Factor Integration

Incorporate sea surface temperature, ocean currents, and regional coefficients into microplastic concentration calculations.

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Interactive Data Visualization

Access user-friendly interactive maps, heatmaps, and data exploration tools for comprehensive environmental analysis.

Implementation & Results

Real-world application and measurable impact of EcoCatch technology

Project Impact

Since its implementation, EcoCatch has provided critical insights into marine pollution patterns, enabling more effective conservation strategies and policy decisions.

15-40%
Microplastic increase in algal bloom regions
25%
Higher binding efficiency in warmer waters
3.2×
Higher accumulation in gyre centers

Case Studies

Mediterranean Sea Monitoring

EcoCatch identified 342 high-risk microplastic accumulation zones in the Mediterranean, leading to targeted clean-up initiatives and policy recommendations.

North Atlantic Gyre Analysis

Detailed tracking of plastic pollution patterns in the North Atlantic Gyre revealed seasonal variations and accumulation hotspots.

EcoCatch Implementation Map Visualization

Future Roadmap

Strategic development plan for EcoCatch over the next five years

2025

Phase 1: Platform Enhancement

  • Integration of real-time data from Copernicus Marine Service
  • Refinement of microplastic classification algorithms
  • Expansion of API access for research institutions
  • Mobile application development
2026

Phase 2: Global Expansion

  • Extension to additional marine regions and coastal areas
  • Partnerships with 10+ international research organizations
  • Implementation of predictive modeling for fishery impacts
  • Development of educational modules for universities
2027

Phase 3: Advanced Analytics

  • Integration of additional satellite data sources
  • Development of climate change impact models
  • AI-powered recommendation system for policymakers
  • Real-time alert system for environmental agencies
2028

Phase 4: Ecosystem Integration

  • Development of comprehensive marine health index
  • Integration with global conservation initiatives
  • Expansion to freshwater system monitoring
  • Implementation of blockchain for data transparency
2029

Phase 5: Global Impact

  • Establishment as global standard for marine pollution monitoring
  • Partnership with UN Environmental Programme
  • Development of automated policy recommendation engine
  • Expansion to atmospheric plastic pollution tracking

Team & Collaboration

The minds behind EcoCatch and our network of partners

EcoCatch is developed by a multidisciplinary team of environmental scientists, data analysts, and software engineers committed to advancing marine conservation through technology.

Team Member Photo

Elizya Sandıkçı

Project Lead & Environmental Data Scientist

Specializes in remote sensing applications for marine ecosystem monitoring and AI-driven environmental analysis.

Team Member Photo

Research Team

Data Scientists & Marine Biologists

Multidisciplinary team with expertise in satellite data processing, machine learning, and marine ecology.

Collaborations & Partnerships

Publications & Resources

Scientific research and resources supporting EcoCatch methodology

Spatial and temporal distributions of microplastics and their macroscopic relationship with algal blooms in Chaohu Lake, China

Huatai Liu, Kangxi Sun, Xiaoya Liu, Rui Yao, Wenzhi Cao, Liu Zhang, Xinhong Wang
Journal of Contaminant Hydrology (2022)
View on PubMed →

The interaction between plastics and microalgae affects community assembly and nutrient availability

Gilberto Binda, Stefano Carnati, Margarida Costa, Vladyslava Hostyeva, Eva Leu, Birger Skjelbred, Davide Spanu, Luka Šupraha, Sara Trotta, Christian Vogelsang & Luca Nizzetto
Communications Earth & Environment (2024)
View Publication →

Coexistence of cyanobacteria and microplastics in eutrophic lake ecosystems: Interactions and combined effects

Yuewei Wang, Hongwei Yu, Xiaofeng Cao, Weixiao Qi, Jianfeng Peng, Huijuan Liu
Critical Reviews in Environmental Science and Technology (2025)
View Publication →

Data Resources

EMODnet API

Access microplastic concentration data from European marine waters

Access API

Sentinel-3 API

Real-time chlorophyll-a data from Sentinel-3 OLCI instrument

API Docs

EMODnet Map Viewer

Interactive map of EMODnet microplastics data

View Map

Join Our Mission

Help us expand EcoCatch's impact on global marine conservation efforts

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