The Specialization A, Applied Geoinformatics in Anthropogeography & Spatial Planning, includes subjects such as basic and advanced anthropogeographical concepts, spatial planning concepts, application of geoinformatics methods for investigating anthropogeographical phenomena and processes (e.g., movements, inequalities, health, protection of natural and cultural heritage, sustainable urban and regional development, tourism development, spatial planning at national and regional levels, landscape management, rural development, geoeconomics, geopolitical relations, and crisis management). It also involves the application of geographic research and education methods using Information and Communication Technologies (ICT).
Graduates gain the ability to:

• Think spatially and in anthropogeographical terms, developing profound knowledge and understanding of basic and advanced anthropogeographical concepts and spatial planning concepts.

• Apply geoinformatics methods to investigate anthropogeographical issues/phenomena and processes.

• Represent anthropogeographical phenomena on maps, analyze them, and draw conclusions.

• Communicate research results using combinations of methods (e.g., written, oral, graphical, and cartographic) depending on the anthropogeographical theme, purpose, and audience.

• Relate and connect concepts and theories with empirical practice, emphasizing geoinformatics applications.

• Acquire experience in using geoinformatics methods and processes, valuable for the job market and future employment.

• Be capable, critical, and creative users of anthropogeographical research methods to stay informed, responsible, and active citizens and contribute to the development of an environmentally, economically, and socially sustainable world.

The Specialization B, Applied Geoinformatics in Natural Environment Management & Hazards, includes subjects such as basic and advanced environmental concepts and processes, concepts and processes related to risk management and disaster response, the use of geoinformatics applications for solving problems related to the protection of the natural and cultural environment, climate change, integrated water resource management, management of protected areas and biodiversity, and changes in land use and land cover. It also involves the application of research and education methods in physical geography using geoinformatics.
Graduates gain the ability to:

• Think spatially, integrate physical geography phenomena and elements into space, and identify spatial patterns and models.

• Define basic and advanced physical geography concepts as well as those related to the management of natural hazards and disasters and use the theoretical framework to solve problems.

• Apply all means and methods of geoinformatics to investigate and analyze physical geography phenomena and risk management processes and propose solutions.

• Communicate research results using combinations of methods (e.g., written, oral, graphical, and cartographic) depending on their physical geography/environmental theme, purpose, and audience.

• Relate concepts and theories of geography to empirical practice with a critical spirit, emphasizing geoinformatics applications.

• Represent physical geography phenomena on maps, analyze them, and draw conclusions.

• Acquire experience in using geoinformatics methods and processes, valuable for the job market and future employment.

• Be capable, critical, and creative users of physical geography research methods to stay informed, responsible, and active citizens, contributing to the development of an environmentally, economically, and socially sustainable world.

The Specialization C, Geoinformatics, includes subjects covering basic and advanced concepts, methods, and techniques of spatial analysis, visualization, simulation, and management of geographic data, as well as the utilization of modern technologies such as Automated Cartography, Remote Sensing, and Geographic Information Systems (GIS). Additionally, it involves the application of research and education methods using geoinformatics.
Graduates gain the ability to:

• Define basic and advanced concepts of management, analysis, and visualization of geographic data and use the theoretical framework to solve problems.

• Apply modern geoinformatics methods to investigate, analyze, and visualize geographic phenomena, and propose solutions.

• Relate concepts and theories of geography to empirical practice with a critical spirit, emphasizing geoinformatics applications.

• Acquire experience in using geoinformatics methods and processes, valuable for the job market and future employment.

• Think spatially, communicate research results using combinations of methods (e.g., written, oral, graphical, and cartographic) depending on their theme, purpose, and audience.

• Be capable, critical, and creative users of geoinformatics research methods to stay informed, responsible, and active citizens, contributing to the development of an environmentally, economically, and socially sustainable world.