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Syllabus 2019-20 - 78613006 - Geomorphometry: DTM and DSM Data Processing (Geomorfometría: tratamiento de MDT y MDS)
- Level 1: Tutorial support sessions, materials and exams in this language
- Level 2: Tutorial support sessions, materials, exams and seminars in this language
- Level 3: Tutorial support sessions, materials, exams, seminars and regular lectures in this language
DEGREE: | Máster Univ. en Ingeniería geomática y geoinformación |
FACULTY: | Centro de Estudios de Postgrado |
ACADEMIC YEAR: | 2019-20 |
COURSE: | Geomorphometry: DTM and DSM Data Processing |
NAME: Geomorphometry: DTM and DSM Data Processing | |||||
CODE: 78613006 | ACADEMIC YEAR: 2019-20 | ||||
LANGUAGE: English | LEVEL: 1 | ||||
ECTS CREDITS: 4.0 | YEAR: 1 | SEMESTER: SC |
NAME: DELGADO GARCÍA, JORGE | ||
DEPARTMENT: U119 - INGENIERÍA CARTOGR. GEODESICA Y FOTOGRAM | ||
FIELD OF STUDY: 505 - INGENIERÍA CARTOGRÁFICA, GEODÉSICA Y FOTOGRAMETRÍA | ||
OFFICE NO.: A3 - 320 | E-MAIL: jdelgado@ujaen.es | P: 953-212468 |
WEBSITE: http://coello.ujaen.es/perfil.php?option=9 | ||
ORCID: https://orcid.org/0000-0001-9988-988X | ||
LANGUAGE: - | LEVEL: 1 |
Topic
1. General Concepts on Modeling.
1.1
Models in Science and Engineering. Geomorphometry.
1.2 Digital Terrain
Models.
Digital Elevation
Models.
Digital
Building Models and other derived models.
Terminology
and characteristics.
1.3
Stages of generation of a digital model of elevations.
1.4
Data Storage structures.
Topic
2. Methods of capturing data.
2.1
Indirect and direct methods.
2.2
Photogrammetric methods for MDE generation.
2.3
Methods based on the use of LiDAR systems.
2.4
Methods based on the use of satellite images and RADAR.
Topic 3.
Modeling.
Geostatistics
concepts.
3.1
Introduction to Geostatistics.
3.2
Basic methods of interpolation.
3.3
Variographic analysis.
3.4
Estimation and Geostatistical Simulation.
Topic 4. Derived models.
4.1 MDE Application
and uses.
4.1.1
Description and characterization of the relief.
4.1.2
Basic statistics based on linear variables.
4.1.3
Basic statistics based on circular variables.
4.1.4
Global and local statistical descriptors.
4.2
Derived topographic models.
4.2.1 Gradient.
Pending.
Orientation.
Curvature.
Rugosity.
4.2.2
Morphometric classification of the land.
4.2.3
Other descriptors: entropy, correlation coefficient, variogram,
fractal dimensions.
4.3
Process simulation: hydrological and visual basins.
4.3.1
Topographic profiles.
4.3.2
Intervisibility between 2 points.
4.3.3 Climate
models.
4.3.4 Relief
visualization.
4.3.5 Reflectance.
Potential insolation
4.3.6
Topographic concealment.
4.3.7
Exposure indices.
4.3.8 Irradiance
Topic
5. Methods of obtaining DTM from DSM
5.1 Introduction.
5.2 Filtering
methods.
5.2.1
Morphological filtering.
5.2.2
Filtering based on surfaces.
5.2.3
Filtering based on segmentation.
5.2.4
Other types of filtering (FDP-TS, Filtering based on
full-waveform).
5.3
Comparison between filtering methods.
Topic 6. Quality in the
MDT
6.1 Introduction.
Basic concepts.
6.2
Quality of the input information.
6.2.1 Density maps.
Density histogram.
Distance maps.
6.2.2 Map of qualities.
6.2.3 Accuracy and
Consistency.
6.3 Quality of the model
6.3.1 Internal quality.
Propagation of the
error.
Outliers analysis.
6.3.2 External
quality.
The teaching methodology will consist, on the one hand, in
theoretical classes in which the participation of the student is
encouraged. On the other hand, in practical classes based on the
presentation of different examples of projects in which the
generation of DSM and DTM has been carried out through the use of
geomatic techniques, in each case, the type of information that has
been analyzed will be analyzed.willing, the type of treatment
applied and the results obtained.
The learning scheme will be completed with the development of
a practical exercise of application of DTM and DSM (and derivated
models) treatment by the students.
Students with special educational needs should contact the Student Attention Service (Servicio de Atención y Ayudas al Estudiante) in order to receive the appropriate academic support
The evaluation of the subject will have three basic components:
1) Preparation of a practical case related to the contents
of the subject that will be evaluated by the teachers responsible
for it.
2) Written test of theoretical knowledge related to the
subject.
3) Assistance and participation in classes and seminars.
The corresponding weights are indicated in the section
corresponding to the Evaluation System.
- An intensive comparison of Triangulated Irregular Networks (TINs) and Digital Elevation Models (DEMs). Edition: -. Author: Kumler, Mark P.. Publisher: Calgary: University, 1994 (Library)
- Extracción semiautomática de edificios mediante tratamiento de información LiDAR. Edition: -. Author: Pérez García, José Luis. Publisher: [S.l. : s.n.], 2011 (Library)
- Three-dimensional reconstruction framework for high resolution airborne lidar point cloud data. Edition: -. Author: Wang, Lu. Publisher: Ann Arbor: Umi Dissertation Publishing, 2011 (Library)
- Digital elevation model technologies and applications: the DEM users manual. Edition: 2nd ed.. Author: -. Publisher: Maryland: ASPRS, cop. 2007 (Library)
- Key concepts & techniques in GIS [Recurso electrónico]. Edition: -. Author: Albrecht, Jochen, author. Publisher: - (Library)
- Building model reconstruction from LIDAR data and aerial photographs. Edition: -. Author: Ma, Ruijin. Publisher: Ann Arbox, Michigan: ProQuest, 2006 (Library)
- Three-dimensional reconstruction framework for high resolution airborne lidar point cloud data . Edition: -. Author: Wang, Lu. Publisher: Ann Arbor: Umi Dissertation Publishing, 2011 (Library)