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Harnessing AI and Machine Learning for Geospatial Analysis
Rating: 3.9 out of 5(183 ratings)
27,366 students

Harnessing AI and Machine Learning for Geospatial Analysis

Python and R for satellite data - machine learning, deep learning, Google Earth Engine and real case studies
Last updated 9/2026
English
English [Auto],

What you'll learn

  • Work with geospatial data in both Python and R - importing, manipulating, visualising and exporting spatial datasets
  • Calculate remote sensing indices and run zonal statistics on satellite imagery in Python
  • Build and evaluate machine learning models for geospatial problems such as crop health and land classification
  • Train deep learning models: neural networks in R and a convolutional neural network for image classification in PyTorch
  • Use Google Earth Engine to improve crop classification accuracy on large satellite datasets
  • Detect and count plants automatically using computer vision techniques
  • Complete an air quality monitoring case study end to end, from raw data to predictive model and interpretation

Course content

8 sections • 44 lectures • 5h 18m total length
  • Welcome and Course Overview2:03

    Explore applying AI, machine learning, and deep learning to geospatial data while mastering geospatial fundamentals, Python and R basics, and hands-on projects with Google Earth Engine.

  • Introduction to Geospatial Analysis7:10

    Master geospatial analysis by visualizing and interpreting data with GIS and remote sensing, using QGIS and ArcGIS to perform buffering, overlay, and change detection for urban planning and environmental monitoring.

  • Introduction to Artificial Intelligence4:19

    Explore artificial intelligence, a branch of computer science enabling machines to learn, reason, and solve geospatial analysis problems, like machine learning, deep learning, computer vision, natural language processing, and robotics.

  • Introduction to Machine Learning6:13

    Explore how artificial intelligence and machine learning analyze geospatial data by training on data, identifying patterns, and making predictions using algorithms like SVMs, random forests, CNNs, and KNN with scikit-learn.

Requirements

  • Some prior programming in Python or R - the course moves quickly through the language basics
  • A computer with internet access (Windows, macOS or Linux)
  • A free Google account for Google Colab and Google Earth Engine
  • Basic familiarity with GIS or remote sensing concepts is helpful but not essential
  • No prior machine learning experience needed - the AI and ML concepts are introduced from the ground up

Description

Satellite data is everywhere. Most of it is still being looked at by eye.

Every week another dataset lands - imagery, sensor readings, crop surveys - and the analysis stops at a map you inspect manually. This course is about the other option: training models that classify, predict and count for you, across both Python and R.

It is a broad course, deliberately. You will work in R and Python side by side, because real geospatial teams use both, and you will see where each one is the better tool. On the Python side: Pandas for spatial tables, remote sensing indices, zonal statistics, and three lectures on visualisation. On the R side: data structures, import and export, manipulation, packages and multiple linear regression.

Then the machine learning proper - a five-part hands-on project taking raw geospatial data through to a trained model, followed by a crop health classifier. Deep learning comes next: neural networks in R, then a convolutional neural network built in PyTorch for image classification.

The advanced work

  • Setting up GPU acceleration for training

  • Improving crop classification accuracy with Google Earth Engine

  • Advanced techniques for classifying complex geospatial data

  • Detecting and counting individual plants with computer vision

  • A four-part air quality monitoring case study using real data from India

What you get

  • Over five hours of hands-on work across 44 lectures

  • Five quizzes covering R, Python, machine learning, deep learning and applications

  • Real case studies, not synthetic datasets

  • Bonus resources for continuing after the course

Before you enrol - please read

This is an intermediate course and it covers a lot of ground. You should already have written some code in Python or R; the language sections are a refresher and a bridge between the two, not a beginner's introduction to programming. You do not need any machine learning background - that is taught from the ground up. You will want a free Google account for Colab and Earth Engine.

Taught by Dr. Azad Rasul, a geospatial data scientist and Assistant Professor, with over 150,000 students enrolled across his Udemy courses.

Enrol now and start getting answers out of your spatial data instead of just pictures.

Who this course is for:

  • Researchers in environmental science, geography and agriculture who want AI in their analysis toolkit
  • Data scientists and analysts moving into geospatial and remote sensing work
  • GIS specialists who want to add machine learning and deep learning to their existing skills
  • Postgraduate students and PhD researchers who need these methods for a thesis or paper
  • Anyone working with satellite imagery who wants to classify and predict rather than inspect by eye
  • Practitioners who already code a little in Python or R and want a structured geospatial AI path