| Code: | MSIGOT031 | Acronym: | AE |
| Active? | Yes |
| Responsible unit: | Department of Geography |
| Course/CS Responsible: | Masters in Geographical Information Systems and Spatial Planning |
| Acronym | No. of Students | Study Plan | Curricular Years | Credits UCN | Credits ECTS | Contact hours | Total Time |
|---|---|---|---|---|---|---|---|
| MSIGOT | 28 | MSIGOT - Study Plan | 1 | - | 6 | - |
- Understand the definitions and concepts of spatial analysis; - Consolidate and deepen knowledge and handling practices with vector and raster GIS data; - Knowing and exercising spatial analysis operations with models of vector and raster data, - Being able to solve problems of multicriteria spatial analysis; - Initiation to the concepts of spatial modeling.
Consolidate and deepen knowledge and handling practices with vector and raster GIS data; - Knowing and exercising spatial analysis operations with models of vector and raster data, - Being able to solve problems of multicriteria spatial analysis
INTRODUCTION
1.Spatial analysis: introduction, definitions and concepts.
1.1.Processos and operations;
1.2.Spatial analysis types;
1.3.Aplications;
1.4.Notation.
2.Models of vector and raster data. Key features and distinctions.
ANALYSIS AND SPACE FUNCTIONS WITH VECTOR DATA MODEL
1.Select vector and tabular data.
1.1.Select by attributes;
1.2.Selectby location (spatial relationships).
2. Tabular Junctions.
2.1.Based in geocodes;
2.2.Based in spatial relationships.
3.Geometric operations in vector models
3.1.overlap;
3.2.aggregation;
3.3.generalization;
3.4.proximity;
3.5.extraction.
4. Batch processing.
5. Centrographics statistics.
6.Attributes transferencies between different geometries, concepts and simple techniques.
7. Indexes form.
8. Spatial autocorrelation.
8.1. First law of geography.
8.2. Measures of spatial autocorrelation: Moran coefficient.
ANALYSIS AND FUNCTION SPACE MODEL WITH DATA MATRIX
1.Concepts of resolution, mask and extent GIS matrix.
1.1. Conversions raster-vector and vector-raster.
1.2. Inquiries to raster data.
1.3. Inquiries to a raster images and more.
1.4. Space operations in matrix models.
1.4.1. Local functions;
-Functions overlap;
-Functions of reclassification;
-Statistical functions.
1.4.2. Functions of focal or neighborhood;
-Slopes, orientations, shading;
-Density Analysis (simple and kernel);
-Filters.
1.4.3.Funções zonal;
1.4.4. Global functions;
-Euclidean distances;
-Distances surfaces-cost;
-Buffer areas;
-Minimum-paths;
-Thiessen-Polygons;
-Watershed-vision.
2.Spatial interpolations.
2.1. Deterministic methods.
2.2. Inverse Distance Weighted.
3. Multicriteria analysis of raster models.
3.1. Basic concepts.
3.2. Boolean overlay.
3.3. Compensatory (weighted linear combination) and not compensatory analysis.
3.4. Distance to spot.
4. Hydrologic analysis in raster models.
4.1. Production of correct digital terrain models hydrologically.
4.2. Flow directions.
4.3. Flow accumulation and hydrographic network identification.
4.4. Hierarchy of the hydrographic network.
4.5. Identification of watersheds.
INTRODUCTION TO MODELING SPATIAL
1. Spatial modeling;
1.1. Concepts, definitions and applications;
1.2.Types of models;
1.3. Characteristics of good models;
1.4. The Model Builder ArcGIS.
Theory component: explanation of material followed by discussion; Practical component: production of individual work under lecturer supervision.
| Designation | Weight (%) |
|---|---|
| Participação presencial | 0,00 |
| Teste | 75,00 |
| Trabalho escrito | 25,00 |
| Total: | 100,00 |
Mandatory attendance of 75% of classes.
Paper review about spatial analysis (25%); Mini theoretical and practical test (25%), Theorical-pratical test or individual practical work (50%).
Acoording to FLUP rules.