1) GIS in the context of Earth Sciences and GIS as a tool in technical fields. Definition and history of GIS, application areas.
2) Investigation and presentation of real-world objects, phenomena, events and processes.
3) Feature, thematic, temporal, relational and functional component of the feature description.
4) Data, spatial data, geodata, metadata, information, spatial information.
5) Data modelling of real-world objects, phenomena and processes. Raster, vector and hybrid data model.
6) Space and concepts of space perception. Euclidean space. Positioning in space.
7) Spatial data acquisition methods.
8) Spatial data analysis in GIS.
9) Spatial data presentation using GIS.
10) GIS application structure. Planning and implementation of GIS.
11) Spatial data publishing in the Internet environment, Geoweb.
12) Geoinformation technology - photogrammetry, remote sensing.
13) Application of GIS in the field of fire protection and industrial security.
2) Investigation and presentation of real-world objects, phenomena, events and processes.
3) Feature, thematic, temporal, relational and functional component of the feature description.
4) Data, spatial data, geodata, metadata, information, spatial information.
5) Data modelling of real-world objects, phenomena and processes. Raster, vector and hybrid data model.
6) Space and concepts of space perception. Euclidean space. Positioning in space.
7) Spatial data acquisition methods.
8) Spatial data analysis in GIS.
9) Spatial data presentation using GIS.
10) GIS application structure. Planning and implementation of GIS.
11) Spatial data publishing in the Internet environment, Geoweb.
12) Geoinformation technology - photogrammetry, remote sensing.
13) Application of GIS in the field of fire protection and industrial security.