1) GIS in the context of Earth Sciences and as a tool in technical fields. Definition and history of GIS, areas of use.
2) Research and presentation of objects, phenomena and processes of the real world.
3) Geo-element, thematic, temporal, relational and functional component of the description of the geo-element.
4) Data, spatial data, geodata, metadata, information, spatial information.
5) Data modeling of objects, phenomena and processes of the real world. 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) Presentation of spatial data using GIS.
10) Structure of the GIS application. GIS planning and implementation.
11) Publishing spatial data in the Internet environment, Geoweb.
12) Geoinformation technology - photogrammetry, remote sensing, global navigation and positioning systems, mobile geoinformation technology.
13) Application of GIS in the field of fire protection and industrial safety.
2) Research and presentation of objects, phenomena and processes of the real world.
3) Geo-element, thematic, temporal, relational and functional component of the description of the geo-element.
4) Data, spatial data, geodata, metadata, information, spatial information.
5) Data modeling of objects, phenomena and processes of the real world. 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) Presentation of spatial data using GIS.
10) Structure of the GIS application. GIS planning and implementation.
11) Publishing spatial data in the Internet environment, Geoweb.
12) Geoinformation technology - photogrammetry, remote sensing, global navigation and positioning systems, mobile geoinformation technology.
13) Application of GIS in the field of fire protection and industrial safety.