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Research and Data Analysis
Earth Observation Data Analysis for SDGs Training Course
Introduction
In an increasingly data-driven world, Earth Observation (EO) data is transforming how we understand and solve global challenges. Earth Observation Data Analysis for SDGs Training Course empowers professionals, researchers, and decision-makers with practical skills to harness satellite imagery, geospatial analytics, and remote sensing technologies for sustainable impact. With the accelerating demand for data-informed policy and evidence-based decision-making, EO data has become crucial in addressing issues such as climate change, food security, disaster response, urban development, and environmental conservation.
This course is designed to bridge the gap between raw EO data and actionable insights aligned with the United Nations Sustainable Development Goals. Participants will gain hands-on experience in using platforms like Google Earth Engine, QGIS, and Python, integrating EO data into national reporting systems and monitoring frameworks. Whether you are working in government, academia, private sector, or non-profit sectors, this course will equip you to apply EO data analytics effectively to drive measurable progress toward the SDGs.
Programme Curriculum
Earth Observation Data Analysis for SDGs Training Course
Introduction
In an increasingly data-driven world, Earth Observation (EO) data is transforming how we understand and solve global challenges. Earth Observation Data Analysis for SDGs Training Course empowers professionals, researchers, and decision-makers with practical skills to harness satellite imagery, geospatial analytics, and remote sensing technologies for sustainable impact. With the accelerating demand for data-informed policy and evidence-based decision-making, EO data has become crucial in addressing issues such as climate change, food security, disaster response, urban development, and environmental conservation.
This course is designed to bridge the gap between raw EO data and actionable insights aligned with the United Nations Sustainable Development Goals. Participants will gain hands-on experience in using platforms like Google Earth Engine, QGIS, and Python, integrating EO data into national reporting systems and monitoring frameworks. Whether you are working in government, academia, private sector, or non-profit sectors, this course will equip you to apply EO data analytics effectively to drive measurable progress toward the SDGs.
Course Objectives
Understand the fundamentals of remote sensing and EO data sources.
Analyze satellite imagery for environmental monitoring.
Apply geospatial tools in SDG-related decision-making.
Integrate EO data into national SDG reporting frameworks.
Utilize Google Earth Engine for EO data analysis.
Process and interpret multi-temporal EO datasets.
Apply machine learning for land use/land cover classification.
Leverage EO data for climate change impact analysis.
Conduct spatial-temporal analysis for disaster risk reduction.
Use EO tools in urban development and planning.
Map agricultural productivity and food security indicators.
Develop data dashboards and visualizations using EO outputs.
Promote data-driven policy formulation through EO insights.
Target Audiences
Environmental scientists and researchers
Government SDG officers and policy advisors
GIS and EO specialists
Data analysts and machine learning professionals
Urban planners and local authorities
Disaster management practitioners
NGOs and development organizations
Graduate students and educators
Course Duration: 10 days
Course Modules
Module 1: Introduction to EO and SDGs
Overview of Earth Observation and SDG frameworks
Key EO platforms and sensors
EO data types and access
Relevance of EO to Agenda 2030
Global initiatives using EO for SDGs
Case Study: EO4SD initiative by ESA
Module 2: Remote Sensing Basics
Electromagnetic spectrum and sensors
Image acquisition and resolution
Data formats and metadata
Pre-processing techniques
Tools for viewing EO data
Case Study: Landsat for water monitoring in Kenya
Module 3: Google Earth Engine for SDGs
Introduction to GEE interface
GEE JavaScript & Python APIs
Loading and filtering datasets
Running spatial analysis
Visualizing and exporting results
Case Study: NDVI monitoring for agricultural SDGs
Module 4: QGIS for Geospatial Analysis
Basics of QGIS interface
Vector and raster data handling
Geoprocessing tools
Layer styling and symbology
Exporting maps and reports
Case Study: Urban expansion in Lagos using QGIS
Module 5: Data Integration and Interoperability
Combining EO data with census/GIS data
Using APIs and cloud storage
Open data platforms (e.g., Copernicus, NASA)
Metadata standards (e.g., ISO, INSPIRE)
Interpreting multi-source datasets
Case Study: Integrating EO & socio-economic data for SDG 11
Module 6: Land Use and Land Cover (LULC) Mapping
Classification algorithms overview
Supervised vs unsupervised classification
Accuracy assessment
LULC change detection
Mapping ecosystem services
Case Study: Forest loss mapping in the Amazon Basin
Module 7: EO for Climate Action (SDG 13)
Monitoring climate variables via EO
Climate model calibration with EO data
Detecting anomalies and trends
Early warning systems
Linking EO to carbon accounting
Case Study: Drought monitoring in the Horn of Africa
Module 8: EO in Agriculture and Food Security (SDG 2)
Crop classification with EO
Seasonal productivity estimation
Water stress detection
Pest/disease monitoring
Yield prediction models
Case Study: EO for food security in India
Module 9: EO in Urban Planning (SDG 11)
Urban sprawl detection
Green space monitoring
Heat island mapping
Infrastructure planning using EO
Smart city planning with EO tools
Case Study: EO-driven urban analysis in Cairo
Module 10: EO for Water and Sanitation (SDG 6)
Monitoring water quality and extent
EO for watershed management
Identifying informal settlements
Mapping sanitation service coverage
Linking EO with hydrological models
Case Study: EO for clean water tracking in Rwanda
Module 11: EO for Disaster Risk Reduction (SDG 13)
Flood mapping and alerts
Landslide susceptibility analysis
EO in humanitarian response
Multi-hazard risk assessment
Satellite imagery for rapid assessment
Case Study: Cyclone damage mapping in Southeast Asia
Module 12: Machine Learning in EO Data
Introduction to ML models for EO
Training datasets and feature selection
Deep learning for image segmentation
Model validation techniques
ML integration with GEE
Case Study: AI-based land cover classification in Ethiopia
Module 13: EO Data Visualization and Dashboards
Tools for interactive dashboards (Power BI, Tableau)
Time-series charting
Map visualizations and infographics
Story maps and narrative building
Embedding EO analytics in reports
Case Study: SDG dashboard for small island states
Module 14: EO for Environmental Monitoring
Tracking biodiversity and ecosystems
EO for pollution detection
Monitoring protected areas
Illegal activity detection (logging, fishing)
Reporting progress on SDG 15
Case Study: EO in deforestation alert systems
Module 15: Policy, Ethics, and SDG Reporting
Linking EO data with policy frameworks
Data governance and privacy
Ethical use of satellite imagery
Communicating EO insights to policymakers
Integrating EO in Voluntary National Reviews (VNRs)
Case Study: EO-supported SDG reporting in Ghana
Training Methodology
Hands-on practical sessions with real EO datasets
Step-by-step exercises on Google Earth Engine and QGIS
Expert-led video tutorials and live webinars
Peer-reviewed assignments and group collaboration
Case-based learning to connect theory with real-world impact
Ongoing access to curated EO datasets and tools
Bottom of Form
Register as a group from 3 participants for a Discount
Upon successful completion of this training, participants will be issued with a globally- recognized certificate.
Tailor-Made Course
We also offer tailor-made courses based on your needs.
Key Notes
a. The participant must be conversant with English.
b. Upon completion of training the participant will be issued with an Authorized Training Certificate
c. Course duration is flexible and the contents can be modified to fit any number of days.
d. The course fee includes facilitation training materials, 2 coffee breaks, buffet lunch and A Certificate upon successful completion of Training.
e. One-year post-training support Consultation and Coaching provided after the course.
f. Payment should be done at least a week before commence of the training, to FINESKILL TRAINING CENTER account, as indicated in the invoice so as to enable us prepare better for you.