gpsi_2011
TRANSCRIPT
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Geo Data
ProcessinG
& sPatial
information
(GPSI)2011-2012
faculty of Geo-information science
anD earth observation
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The Geo Data Processing & Spatial Information
(GPSI) minor introduces students to geographic
information systems (GIS), remote sensing (RS)
and digital image processing, global positioning
systems (GPS), visualisation and cartography
and their use in governance and the information
society.
Geo Data ProcessinG
& sPatial information
(GPSI), the mInor of ItC
target group
With effect from 1 January 2010
the International Institute for Geo-
Information Science and Earth
Observation (ITC) has been embedded
as the sixth faculty in the University of
Twente (UT). The GPSI minor is meant
for students from all other UT facultieswith an interest in geo-data process-
ing and its potential in supporting
decision-making. The GPSI minor is
designed to meet the needs of stu-
dents from the technical and the social
sciences. The minor is hosted by and
given at the Faculty of Geo-Information
Science and Earth Observation (ITC),
Hengelosestraat 99, near the railway
station of Enschede.
BaCkgroundAs the World moves further into the
information age, the availability of reli-
able and up to date data has become
an increasingly important requirement
for informed decision making. In many
cases, the data required to support
decision making are geographical in
nature.
Geographic information systems
(GIS) is the science, engineering and
technology associated with answer-ing geographical questions. GIS is a
generic term for the use of computers
to study and visualise geographical
patterns and processes (natural and
manmade) that occur on the surface of
What is a minor?A minor is a balanced, coherent, well-structured and self-containedset of (at least) 20 EC of various courses at a third-years academiclevel.
The main intention of a minor is to offer the participating students aplatform for the (further) development of their academic competen-cies. You will be introduced to a specic subject outside your owndiscipline in a theme minor or get acquainted with a bachelor studyother than your own in a programme minor.
Within broad boundary conditions, students are free to take theminor of their own personal preference. The few exceptions to
this rule are determined by each of the bachelor studies. In somecombinations between your own study and minor, problems in yourtime-table will be inevitable.
In special cases, you can compose an individual minor. Please referto the Major-minor website for more details(www.utwente.nl/majorminor/en/).
http://www.utwente.nl/majorminor/en/http://www.utwente.nl/majorminor/en/ -
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the Earth. There are many uses for GIS
in different scientic and operational
domains. Common application areas
are urban planning, public administra-
tion, environmental monitoring, utilities,
telecommunications, transport, hazard
analysis, topographic mapping, and
the management of agriculture, forest
and water resources. In the past few
decades, GIS has developed into a
major area of application and research
and into an important global business.Today, GIS is an active and rapidly ex-
panding eld, which generates consid-
erable public and private interest.
Remote sensing (RS) is a powerful
technology, which is mainly concerned
with data capture. Broadly speaking, RS
encompasses sensors, platforms and
data processing techniques that are
used to derive information about physi-
cal, chemical and biological properties
of the Earths surface without direct
physical contact. Sensors are mostlymounted on Earth orbiting satellites or
aircraft and measure electro-energetic
emissions from objects and material
on the earths surface. Data processing
techniques subsequently transform raw
digital imagery into meaningful infor-
mation sources for a large variety of
applications. Processed RS data are an
important data source for GIS.
Global positioning systems (GPS) allow
positioning, navigation and measure-
ments in a reliable and cost effective
manner. GPS in itself does not provide
any functionality beyond being able to
receive satellite signals and calculate
position information. Depending on theequipment, GPS is capable of record-
ing position to a high level of accuracy.
GPS technology is frequently applied in
navigation systems, tracking devices,
and for GPS surveying and mapping.
GPS have developed strongly over the
past decade; nowadays increasing use
is made of handheld GIS/GPS devices.
Spatial data quality has emerged as an
important area of research over the last
15 years. This is a broad subject areathat encompasses aspects of social
science (e.g., analysis of user attitudes
to data quality), database design (e.g.,
reporting and storage of metadata)
and quantitative statistical analysis.
A sensors view of the Earths surface
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Quantitative analysis applies both to the data
itself and to any processing or modelling chains
employed. This course is divided into three com-
ponents. We begin with an overview of spatial
data quality and then use examples from remote
sensing and GIS to address specic elements of
spatial data quality.
Visualisation and cartography represent technol-
ogy and methodology to visualise geographical
data and reveal spatial patterns and relations.
Good visualisation improves our understanding of
the temporal as well as the spatial dimensions of
the studied phenomena.
Governance and the information society are socio-
logical and political concepts in which information
provision and its use in an open and transparent
policy environment play a big role. E-governance
is a development within the public sector thatfrequently uses spatial data. Land policy links the
physical environment and the natural resources
to society and the economy whereby aspects of
sustainability play an important role.
Relation to regular study programmes
The minor is by nature complementary to the
regular study programmes. The niche of the GPSI
minor is that it explicitly addresses the spatial
dimension of information handling.
programme overvieWThe GPSI minor consists of six subjects (some of
these are offered in parallel):
Remote sensing theory and practice
GIS theory and practice
GPS theory and practice
Spatial data quality
Cartography and visualisation
Applications of GI technology in the Netherlands
Research assignment (individual or group)
During the rst ve subjects emphasis is on
establishing a rm theoretical and practical
background in geo data processing and spatial
information handling. Educational activities con-
sist of a theoretical component that focuses on
concepts and a practical component that aims at
developing hands-on software skills. The theoreti-
cal component is addressed via literature study
and supporting lectures; the practical componenttakes the form of a series of computer practicals.
A short case study assignment in which course
participants apply GI tools to analyse a typical ap-
plication problem and present their nding is also
part of the programme. Short presentations that
illustrate how GI technology is conceptualised and
used in various academic disciplines (e.g. utility
management, transportation planning, hazard
response) are scheduled on a regular basis.
The sixth module is about exposure to practice.
During this part of the course, a series of (guest)lectures and -if time permits- an excursion is or-
ganised so that course participants obtain insight
in the use and added value of GI technology in
various organisational settings. Examples range
from local (municipal) information systems up to
national level systems.
During the nal subject course participants carry
out an individual (or group) research assignment.
Participants can select a topic of personal inter-
est provided that it has clear link with previous
modules. If needed, ITC can make study materialsavailable.The research assignment is documented
in a report and presented to fellow course partici-
pants.
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suBjeCt 1: remote sensing theory andpraCtiCe
main oBjeCtive
To learn how to generate information about the
Earth from remote sensing data. This subject
introduces the principal concepts and techniques
of remote sensing.
The module covers the following topics:
The electromagnetic spectrum
Sensors and platforms
Multi-spectral, hyperspectral and thermal sen-
sors
Aerial photography
Radar and lidar sensors
Radiometric aspects of remotely sensed data
Geometric aspects of remotely sensed data
Image enhancement and visualisation
Image interpretation and classication
study forms
Lectures 40%
Literature study, exercises
and practicals 60%
suBjeCt 2: gis theory and praCtiCe
main oBjeCtive
To learn how to generate information about the
Earth from data stored in geographic information
systems (GIS). This module introduces the main
concepts and techniques of GIS. At the end ofthis module participants are able to explain the
principles and use the vocabulary of GIS, carry out
basic GIS operations and apply appropriate GIS
methods for problem solving.
The module covers the following topics:
Geographic phenomena and their representation
Geographic information and spatial data types
Data processing systems
Spatial data entry and preparation
Spatial data analysis and visualisation
Quality assessment of spatial data
study forms
Lectures and literature study 40%
Exercises and practicals 60%
suBjeCt 3: gloBal positioning systems (gps)
main oBjeCtive
Become familiar with the principles and uses
of global positioning systems, spatial reference
systems and coordinate transformation. This
module is about global positioning systems (GPS)
techniques for location nding, measurement
and navigation. Attention is given to coordinate
systems, GPS and GIS data sets and how these
data are integrated in a GIS environment.
The module covers the following topics:
GPS, theory, platforms and techniques
GPS and coordinate systems
Exercises with GPS, differential GPS measure-
ments
GPS and GIS
study forms
Lectures and literature study 50%Exercises and practicals 50%
suBjeCt 4: spatial data quality (sdq)
main oBjeCtive
The aim of this subject is to provide an overview
of key issues in spatial data quality and to equip
students with the basic intellectual and practical
skills necessary to evaluate the quality of a spatial
dataset. The subject is split into three compo-
nents. The rst gives a broad overview of the
topic and then focuses on key elements of spatialdata quality. It is taught through lectures and
designated reading. The second two components
develop key elements in the context of (i) GIS and
(ii) remote sensing. These components are taught
through a mixture of lectures, practical classes
and assigned reading.
The approximate division of study forms is as
follows:
Lectures 20%
Literature assignments and
private study 40%Practical assignments 40%
Assessment is done through a closed-book
examination.
module Content
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suBjeCt 5: visualisation and Cartography
main oBjeCtive
Learn to apply visual approaches for the explora-
tion, analysis, synthesis and presentation of spatial
data. The course starts with visualisation tech-
niques and the use of cartography and explores
recent developments such as internet GIS and
e-governance.
The module covers the following topics:
Visualisation of geospatial data
Design aspects
Visual exploration
Multi-scale and geometric aspects of mapping in
a GIS context (scale, cartographic generalisation,
map projections)
Dissemination and use of (visualised) spatial data
Data products, use and users of products
Dissemination methods and environments, with
emphasis on the World Wide Web
study forms
Lectures 40%
Literature study, exercises
and practicals 40%
Assignments and other 20%
suBjeCt 6:praCtiCal appliCations of gi teChnology in
the netherlands
main oBjeCtive
Obtain insight in the practical application and
added value of GI technology in organisational
settings. During this module, a number of exam-
ples of organisations that deal with spatial data
are presented and analysed. Issues addressed are
(i) the added value of GI technology, (ii) problems
associated with the introduction and effective
use of GIT and (iii) aspects of spatial information
system development. Examples range from local
(municipal) information systems up to national
level systems.
study forms
Guest lectures 35%
Excursion 15%
Land cover information from a multi-
spectral image
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suBjeCt 7: individual (or group) researChassignment
main oBjeCtive
Conduct a research assignment. Participants can
develop a case study of personal interest in which
elements of the modules can be applied. Course
participants are invited to bring their own cases
and data and work on them. If needed, study ma-
terials (mostly from developing countries) can be
made available by ITC. The research assignment
is documented in a report and presented to fellow
course participants.
Examples of topics that can be taken
Urban planning and management
Urban poverty assessment and alleviation
Sustainable natural resource management
Hazard analysis and mapping
Environmental monitoring
Image processingWeb based GIS and Cartography
study forms
Research assignment 75%
Presentation 25%
assessment
Each course subject is assessed by means of a
written examination, presentation and/or assign-
ment. In some instances - e.g. subject six - the as-sessment is based on participation. The individual
module assessments together result in a single
overall mark for the GPSI minor as a whole. In all
cases the ITC assessment regulations apply.
history
With effect from 1 January 2010 the International
Institute for Geo-Information Science and Earth
Observation (ITC) was embedded as the sixth fac-
ulty in the University of Twente (UT). Both parties
see great advantages at national and international
levels in the integration. Through the integration,ITC will be more rmly embedded in the Dutch
academic education system, while the UT expects
to be able to prot from ITCs international net-
work.
The International Training Centre was established
in 1950 by Willem Schermerhorn, a civil engi-
neer and the rst post-war prime minister of the
Netherlands. The UN was not entirely satised
with the aerial mapping of third-world countries
and colonies so it asked whether a training insti-
tute could be set up in the Netherlands.
ITC is an institute for international higher educa-
tion, dedicated to training of professionals from
abroad. ITC offers a Graduate, Master of Science
(MSc) and Master degree programme in Geo-
information Science and Earth Observation. These
programmes are offered in the Netherlands and
abroad by ITC itself or by ITC in collaboration with
partners in the Netherlands and in- and outside
Europe.
Beside the courses in the degree programmes ITC
offers a large variety of (Postgraduate) diplomaand certicate (distance education and short)
courses in the eld of geo-information science
and earth observation
ITC specialises on the capture and processing of
earth data. Spatial information management is
what links all the different disciplines and depart-
ments at ITC together. The Geo Data Processing
& Spatial Information (GPSI) minor is open to stu-
dents from all UT faculties and introduces partici-
pants in concepts, tools, techniques and applica-
tion of spatial data. GIS (geographic information
systems) and remote sensing (aerial photographyand satellite images) play an important role in this
minor.
registration
Register according to the procedure on: www.
utwente.nl/majorminor/inschrijven/index.html
BroChureDownload the GPSI brochure. You need Acrobat
Reader to view and/or print.
More information: www.itc.nl/gpsi
http://www.utwente.nl/majorminor/inschrijven/index.htmlhttp://www.utwente.nl/majorminor/inschrijven/index.htmlhttp://www.itc.nl/gpsihttp://www.itc.nl/gpsihttp://www.utwente.nl/majorminor/inschrijven/index.htmlhttp://www.utwente.nl/majorminor/inschrijven/index.html -
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ContaCt
For further information please contact:
Faculty of Geo-Information Science
and Earth Observation (ITC)
Hengelosestraat 99
P.O. Box 217
7500 AE Enschede
The Netherlands
Dr. Ir. S.J. (Sander) Oude Elberink,
Department Earth Observation Science
T: 053-4874350
F: 053-4874335
Room: 2-033
Prof. Dr. Ir. A. (Alfred) Stein,
Department Earth Observation Science
T: 053-4874552
F: 053-4874335
Room: 2-048
mailto:[email protected]:[email protected]:[email protected]:[email protected]