LTEF10152U Geographical Information Systems (GIS)
Volume 2013/2014
Education
Bacheloruddannelsen i
naturressourcer
MSc Programme in Agriculture
MSc Programme in Agriculture
Content
The course comprises:
The course comprises:
- Cartography (both in relation to paper and digital maps respectively)
- Map Comprehension and Appreciation
- Map Types (topographic, thematic, legal, historic, etc.)
- Geodata Resources (at the servers of the Institute and on the Internet)
- Digital Data Types: the vector data model (points, lines and polygons) and the raster data model (images and thematic rasters)
- Data Capture (GPS, digitizing and image georectification)
- Geodatabase build-up and editing
- Assessment of Accuracy and Quality
- Data Transformation (incl. overlay and proximity analyses)
- Recent developments within the field of
GIS
- Internet-based GIS
- Map Layout and Digital Cartography
- GIS in Landscape and Urban Planning
Learning Outcome
The student will learn the basic concepts
being used when acquiring, storing, handling, and presenting
geographical information – including digital maps. The course will
introduce the basic analytical capabilities of vector/feature-based
GIS. Further, focus will be put on basic cartography and
map-reading. In this way the student will obtain the needed
theoretic as well as practical skills and competences required to
work with maps – both in paper and digital form. She/he will learn
to use the achieved theoretic knowledge when evaluating the quality
of available data and produced results. The student will practice
communication with other professionals of the geodata and GIS
community.
Knowledge
• Understanding of the basics of cartography (incl. datum, coordinate system, projection and scale).
• Comprehension of various map types (e.g. topographic, thematic) and vector data types (point, line and polygon).
• Appreciation of how to use colour, size and symbols in a map layout, and the essential ingredients of a map (e.g. scale bar, north arrow, legend).
• Knowledge in methods to generate digital geodata from analogue sources, incl. GPS and georeferencing.
• Comprehension of the geographical database, the relational database model, and the rationale behind attribute handling.
• Knowledge of various geodata transformation methods (e.g. clip, proximity and overlay analyses).
• Understanding of geodata accuracy and quality, along with the concept of metadata.
• Knowledge of the applications of GIS in various scientific fields and occupations (e.g. urban and landscape planning).
Skills
• Understand and appreciate the theoretic and methodological background of maps.
• Discriminate between map types, and to justify the use of various thematic and topographic datasets for given purposes.
• Search, identify and retrieve digital geographic data from various sources, incl. knowledge of key owners/distributors of national and local geodata.
• Select data required for a given task, and to argue for the choices made.
• Decide which type of geographical data (point, line, polygon) to apply in a given context, to a given phenomenon.
• Produce digital geodata ‘from scratch’ using analogue maps or aerial photos (incl. georectification, georeferencing and digitizing).
• Find and select methods of data analysis required for a given task, and to argue for the choices made.
• Produce composite maps from multiple sets of digital map sources.
• Using Internet-based GIS resources of geodata and tools.
Competences
• To possess a comprehensive insight into maps in general and GIS in specific – from map reading to creating/collecting, storing, transforming, and presenting digital spatial data.
• To apply maps and spatial analytical results to articles, theses, project reports etc, produced after attending the course.
Knowledge
• Understanding of the basics of cartography (incl. datum, coordinate system, projection and scale).
• Comprehension of various map types (e.g. topographic, thematic) and vector data types (point, line and polygon).
• Appreciation of how to use colour, size and symbols in a map layout, and the essential ingredients of a map (e.g. scale bar, north arrow, legend).
• Knowledge in methods to generate digital geodata from analogue sources, incl. GPS and georeferencing.
• Comprehension of the geographical database, the relational database model, and the rationale behind attribute handling.
• Knowledge of various geodata transformation methods (e.g. clip, proximity and overlay analyses).
• Understanding of geodata accuracy and quality, along with the concept of metadata.
• Knowledge of the applications of GIS in various scientific fields and occupations (e.g. urban and landscape planning).
Skills
• Understand and appreciate the theoretic and methodological background of maps.
• Discriminate between map types, and to justify the use of various thematic and topographic datasets for given purposes.
• Search, identify and retrieve digital geographic data from various sources, incl. knowledge of key owners/distributors of national and local geodata.
• Select data required for a given task, and to argue for the choices made.
• Decide which type of geographical data (point, line, polygon) to apply in a given context, to a given phenomenon.
• Produce digital geodata ‘from scratch’ using analogue maps or aerial photos (incl. georectification, georeferencing and digitizing).
• Find and select methods of data analysis required for a given task, and to argue for the choices made.
• Produce composite maps from multiple sets of digital map sources.
• Using Internet-based GIS resources of geodata and tools.
Competences
• To possess a comprehensive insight into maps in general and GIS in specific – from map reading to creating/collecting, storing, transforming, and presenting digital spatial data.
• To apply maps and spatial analytical results to articles, theses, project reports etc, produced after attending the course.
Literature
Compulsory reading:
1. Heywood, Cornelius and Carver. 2011. An introduction to Geographical information systems (Fourth edition). Pearson/Prentice Hall. ISBN: 978-0-273-72259-5. Can be purchased from the LIFE book store.
2. All exercise notes.
Supplementary reading/resources:
3. Balstrøm, Jacobi og Bodum. 2006. Bogen om GIS og Geodata. Forlaget GIS & Geodata (www.gis-geodata.dk). ISBN: 87-991446-0-3.
4. ESRI. What is ArcGIS? On-line documentation.
5. Danish metadata on-line: http://www.geodata-info.dk/
Compulsory reading:
1. Heywood, Cornelius and Carver. 2011. An introduction to Geographical information systems (Fourth edition). Pearson/Prentice Hall. ISBN: 978-0-273-72259-5. Can be purchased from the LIFE book store.
2. All exercise notes.
Supplementary reading/resources:
3. Balstrøm, Jacobi og Bodum. 2006. Bogen om GIS og Geodata. Forlaget GIS & Geodata (www.gis-geodata.dk). ISBN: 87-991446-0-3.
4. ESRI. What is ArcGIS? On-line documentation.
5. Danish metadata on-line: http://www.geodata-info.dk/
Academic qualifications
Comprehensive knowledge of
IT including good practical skills.
Teaching and learning methods
The course is constituted of
lectures, exercises and a project work. It is recommended – but not
prerequested – that the projects are conjoined with activities
related to other courses and project works.
Workload
- Category
- Hours
- Excursions
- 2
- Lectures
- 28
- Practical exercises
- 56
- Preparation
- 48
- Project work
- 72
- Total
- 206
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Exam
- Credit
- 7,5 ECTS
- Type of assessment
- Written examination, 2 hours under invigilationFinal Examination
Written Exam in Lecture hall
Description of Examination: A two-hour examination consisting of written responses to short, factual questions referring to the text of all exercises and the
obligatory course texts.
Weight: 100% on the written exam - Exam registration requirements
- Assignments have to be handed in and accepted.
The DIGIT test forms connected to the exercises (provided by the Absalon) has to be filled out and handed in.
Further, the project work has to be displayed as a public poster and accepted. - Aid
- Only certain aids allowed
All aids allowed, except electronic communication equipment (e.g. computers, mobile telephones, PDAs).
- Marking scale
- 7-point grading scale
- Censorship form
- No external censorship
Flere interne bedømmere
Criteria for exam assesment
Written exam:
* Accepted - 50%
* Grade 12 - 90%
* Accepted - 50%
* Grade 12 - 90%
Course information
- Language
- English
- Course code
- LTEF10152U
- Credit
- 7,5 ECTS
- Level
- BachelorFull Degree Master
- Duration
- 1 block
- Placement
- Block 3
- Schedule
- C
- Course capacity
- 100
- Continuing and further education
- Study board
- Study Board of Natural Resources and Environment
Contracting department
- Department of Geoscience and Natural Resource Management
Course responsibles
- Patrik Karlsson Nyed (Pakn@ign.ku.dk)
GIS consulent and Geodata administrator
(PhD)
Dept. of Geosciences and Natural Resource Management
University of Copenhagen
Tel: + 45 3533 1832
E-mail: pakn@life.ku.dk
Dept. of Geosciences and Natural Resource Management
University of Copenhagen
Tel: + 45 3533 1832
E-mail: pakn@life.ku.dk
Lecturers
Hans Skov-Petersen
Senior Researcher
Dept. of Geosciences and Natural Resource Management
University of Copenhagen
Tel: + 45 3533 1816
E-mail: hsp@life.ku.dk
Ole Hjort Caspersen
Senior Researcher
Dept. of Geosciences and Natural Resource Management
University of Copenhagen
Tel: + 45 3533 1835
E-mail: ohc@life.ku.dk
Lene Fischer
Senior lecturer
Dept. of Geosciences and Natural Resource Management
University of Copenhagen
Tel: + 45 4011 5084
E-mail: lfi@life.ku.dk
Saved on the
30-04-2013