Geodesy and coordinate systems form the basis of precise positioning and spatial analysis. In this course, you’ll learn how to convert coordinates, calculate distances, and work with geographic reference systems in Python. You’ll be introduced to geodetic calculations, 3D coordinates, satellite orbits, and positioning models. This will help you develop practical skills for applications in GIS, surveying, navigation, and geoinformation.
Geodesy forms the basis of virtually all geoinformation. Whether it involves GPS, surveying, navigation, GIS, or satellite data, accurate position and coordinate calculations are essential for reliable spatial analyses.
In this blended learning course, you’ll learn how to perform geodetic calculations and work with different coordinate systems in Python. You’ll discover how geographic locations are recorded, how coordinates can be converted, and how position data is applied in geospatial projects.
The course is suitable for GIS professionals, surveyors, data analysts, and anyone who wants to gain a deeper understanding of coordinate systems and positioning. Thanks to the hands-on approach, you’ll not only learn the theory but also apply geodetic techniques directly to real-world problems.
In this blended learning course, you’ll learn the fundamentals of geodesy and coordinate systems using Python. You’ll start with the basic principles of geographic reference systems and learn how locations are recorded on Earth.
Among other things, you’ll learn to work with GeographicLib, PyGeodesy, and PyMap3D to perform distance calculations, coordinate transformations, and spatial positioning. You’ll then explore how different reference systems are used in GIS, navigation, and surveying applications.
In addition, you’ll work with NavPy, Skyfield, and SGP4 for advanced positioning and satellite calculations. You’ll learn how satellite orbits are calculated, how position data is interpreted, and how different coordinate systems can be linked together. You’ll also gain insight into the practical applications of geodesy within geoinformation projects.
In short: this course is ideal for anyone who wants to learn how coordinate systems, positioning, and geodetic calculations are applied within GIS, navigation, and spatial analysis.
Blended learning combines independent online learning with hands-on guidance. You’ll have access to online course materials that allow you to learn at your own pace how to work with coordinate systems, geodetic calculations, and positioning techniques. The theory is supported by practical assignments, allowing you to immediately practice with realistic datasets and calculations.
During the guided sessions, you can ask questions, get additional explanations, and work on assignments that relate to applications in GIS, surveying, navigation, and satellite positioning. You’ll learn how to convert coordinates, calculate distances, and assess spatial accuracy.
Upon completion of this course, you will have a solid foundation in geodesy and coordinate systems using Python. You will be able to independently perform geodetic calculations, transform coordinates, and apply positioning data within a variety of geospatial projects.
You’ll receive 1-on-1 guidance. After signing up, our course coordinator will contact you to schedule your first session.
Do you have questions about the course content? Or are you unsure whether the course aligns with your learning goals or preferences? Would you prefer an in-house or private course? We’d be happy to help.
Virtually all geographic data is based on coordinate systems and geodetic reference models. Whether you work with satellite data, maps, navigation systems, drones, or GIS software, geodesy forms the foundation of the entire geodetic supply chain. This course will help you understand how location data is accurately recorded, exchanged, and applied worldwide.
Yes, you’ll learn to work with globally used reference systems such as WGS84 and gain insight into how various national and international coordinate systems relate to one another. You’ll also learn how coordinate transformations play a crucial role in the international exchange of geodata.
Satellites are an essential part of modern positioning and geodata collection. During the course, you will learn how GNSS systems, satellite orbits, and positioning models contribute to accurate location determinations used in GIS, surveying, navigation, infrastructure, and Earth observation.
The course is relevant for professionals working in GIS, surveying, infrastructure, water management, defense, telecommunications, logistics, aerospace, and Earth observation. The techniques covered are an important part of the international geodetic supply chain required for reliable geospatial data and location-based applications.
