Semester: | 3. |
Credits: | 6 CP |
Duration: | 1 Semester |
Module Supervisor: | Dr. Valerie Graw |
Contact hours: | 3 SWS |
Selfstudy: | 150 h |
Group size: | je 15 |
The extraction of geoinformation is based on geodata acquired with sensors, mobile GIS or earth observation systems. After successful participation, the students have in-depth knowledge of mobile GIS and/or the principles of optical or radar-based earth observation as well as basic methodological skills for extracting thematic information from remote sensing products. The evaluation of remote sensing data to obtain up-to-date geoinformation is carried out using image-based classification approaches, photogrammetric 2D/3D evaluations or GIS-based analysis methods. In addition, the participants learn about the possibilities and limitations of methodological approaches in current and cloud-based software.Mandatory module within the M.Sc. program in Geography, specialization in Geomatics; Elective module within the other M.Sc. specializations.
This compulsory elective module teaches the basics of the targeted extraction of current geoinformation from earth observation data and with mobile GIS. Depending on their interests, students can choose between different courses. Special attention is paid in all courses to the evaluation of data and result quality.
Seminar
The teaching of methodological skills through practical exercises (partly using special software) as well as through the joint elaboration of theory-based findings in scientific discourse require the regular participation of the students in the seminar sessions (with a maximum of 2 absences).
project-oriented term paper
Conditions for granting credit points
successful completion of the examination task
Usage of the module
Compulsory module in the Master's degree programme Geography, specialisation Geomatics; elective module within the other M.Sc. specialisations.
Stellenwert der Note für die Endnote
The module grade is CP-weighted (6/120) and is included in the final M.Sc. grade.
Literature will be announced in the course
Lecturers: | Inga Lammers |
Course type: | Seminar |
Registration: | Registration using forms in Geomatics (via Edler) |
Examination components: | Project work |
Target audience: | Master students |
Requirements: | The basics of optical remote sensing and initial experience in processing optical data are required. |
The seminar teaches the basics of radar remote sensing. Specific examples are used to familiarize participants with the advantages and challenges of radar remote sensing compared to optical data.
ContentOptical remote sensing already offers a wealth of possibilities for observing and detecting changes in the landscape. However, sometimes we can't get any further with this data. For example, if we are in tropical regions or want to detect flooding or landslides, but can't see anything apart from dense cloud cover and also need information about the soil composition and structure, radar data offers a solution. In particular through the Copernicus program and the provision of Sentinel-1 data, the analysis of radar data is playing an increasingly important role. In the seminar, participants will learn the basics of radar remote sensing and then apply them to specific case studies.
OrganizationThe seminar is divided into two parts: In the first part, the basics of radar remote sensing are taught and practiced with initial examples. In the second part, the knowledge acquired is then transferred to case studies from applied radar remote sensing in small groups.
Block seminar: 03.02.-07.02.2025, 9 am - 5 pm, IA 6/163
Lecturers: | Valerie Graw |
Course type: | Block seminar |
Registration: | Registration by email via Edler (round mail will be sent) |
Examination components: | Storymap |
Target audience: | Students of the Master specialization Geomatics |
Requirements: | All successfully passed modules of the 1st semester of the Master specialization Geomatics |
Confident with the basic functions in Google Earth Engine and the contextual integration into new and existing project structures.
ContentGoogle Earth Engine (GEE) is a cloud-based analysis platform for spatial data that enables its users to observe changes in the land and sea surface across scales, accessing several petabytes of freely available sensor data and processing it in the backend to save resources. The diverse fields of application include environmental changes such as the decrease in biomass or temperature changes, but also the general changes in urban and rural areas. The seminar introduces the basic application possibilities of the modern platform and trains the creation of first simple, coherent codes for data query and processing within the web interface. In the block seminar, time series analyses with remote sensing data from active and passive sensor systems are carried out and their implementation with JavaScript is deepened. During the seminar, the seminar participants have the task of dealing more intensively with a research question in GEE, applying what they have learned and integrating this into a coherent project report, in the form of a story map, on current topics in the field of modern remote sensing.
OrganizationAfter a general introduction to the handling of the platform, many practical examples are used to introduce the GEE-internal code landscape in order to analyze landscape changes with multi-sensor and multi-scale approaches using selected thematic approaches. The course teaches two core contextual skills: The practiced use of the GEE as well as the preparation and modification of scripts in the first part, followed by the second part in which the new methods are applied within small groups to selected remote sensing topics and thereby embedded in a classical scientific research work. The new technical approaches are thus immediately transferred into a practical application and the efficient preparation of structured research work in a team is practiced.
LiteratureHelpful literature recommendations will be given in the course of the block seminar.
Block seminar 23.09.-27.09.2024
Lecturers: | Andreas Redecker |
Course type: | Block seminar |
Registration: | Registration by email via Edler (circular email will be sent) |
Examination components: | Thesis and exercise work |
Requirements: | Confident handling of ESRI ArcGIS. |
Acquisition of qualitative and quantitative data from digital aerial photographs by means of digital photogrammetry
ContentPhotogrammetric remote sensing products
Fundamentals of (digital) photogrammetry
Leica Photogrammetry Suite
Stereoscopic vision on screen
3D digitisation of objects
Generation of terrain models
ESRI ArcScene
Visualisation of three-dimensional data in GIS
Literaturewill be announced in the courses