Advanced
applications in Geographic Information Systems (GIS) with an emphasis on
problem-solving, advanced GIS analysis techniques and a survey of raster and
vector based GIS software and databases.
GEO
303 Required; MAT 120 Recommended
Instructor: Dagmar Budikova
Class
Time: T 2:00-4:50 in FHS 202/214
Office
Hours: MW 1:00-2:50 pm or by appointment
Office: Femley Hall Annex 439
Phone: 438-7643
e-mail: dbudiko@ilstu.edu
Course
website: http://www.geo.ilstu.edu/geography/Courses/304_GIS/Spring_05.shtml
This class continues building on concepts
introduced in GEO 303 (Introductory GIS) through advanced topics in theory and
applications relevant to GIS and its applications. Issues concerning data
structures, advanced concepts of spatial analysis, GIS and cartographic
modeling, fuzzy logic, error and its propagation, and other topics will be
addressed.
The practical component of the course will
include a project that each student will undertake. This process will
provide a valuable experience in GIS modeling design and implementation. First,
each student will select a topic of spatial interest, where the use of GIS
technology is critical in solving research question (s) posed. In executing
their projects, students will become exposed to 1) the process of
identification and collection of necessary datasets useful for GIS analyses; 2)
the necessary steps within and outside of the GIS environment needed to execute
the project; and 3) proper presentation of research results in a) a written
format through a formal scientific report, and b) through an oral presentation
to their classmates through the use of one of Power Point, web design or
poster. (When communicating results
through the use of maps, students will apply sound cartographic skills during
the map design process.) This
component of the course is so important, that it is necessary to pass it, in
order to obtain credit for the entire course.
ESRI’s ArcGIS 8.2, and its extensions (Spatial
Analyst, 3-D Analyst and Geostatistical Analyst) will be the principal software
package that students will be expected to use to complete their assignments and
the class project.
Required texts and other material:
1.
DeMers, M. N. 2000. Fundamentals
of Geographic Information Systems.
Third Edition. John Wiley &
Sons.
2.
Purchase module Learning ArcGIS 8 Spatial
Analyst from ESRI Virtual Training Website – consult instructor for details.
(Expected price - $50)
Recommended text:
1.
Burrough, P. A., and McDonnell, R.
A. 1998.
Principles of Geographical Information Systems. Spatial Information Systems and Geostatistics.
Other suggested readings:
A list of references has been provided at the
end of this handout. It includes the
required and recommended texts, but it also lists a series of other sources
that can help provide additional insight into both the topics that will be covered
during lectures, as well as help formulate ideas for individual projects.
The
grading scale for exams and assignments is:
A =
³ 90%
B = ³ 80%
C = ³ 70%; D =
³ 60%; F =
<60% unless otherwise
specified
Grading
specifics:
The
total grade of 100% will be portioned in the following manner:
*Lab Exam refers to a practical examination
based on 6 modules completed through ESRI Virtual Campus course Learning ArcGIS 8 Spatial Analyst.
Exams will be based on the theoretical aspects
of GIS presented during lectures. The
mid-term test will be in-class and the final exam will be scheduled by the
registrar’s office.
Late penalties:
20% per day unless a valid reason is provided.
Class Project:
You will be required to design, execute and
present in writing and orally an applied GIS project of your own choosing. For detailed instructions, consult “Project
Procedures” and “Report Expectations” posted on the course website. In working towards that goal, you will
need to demonstrate effort, interest and steady progress. I will monitor this throughout the
semester at times specially allotted to the project (typically Fridays), and it
will be counted toward the ‘progress’ portion of your report grade. Other formal grades are allotted for the
project proposal, oral presentation and the written report. The written report
is a standard formal scientific manuscript, its specific components listed in
“report expectations”. As you are
writing your report, if you are not sure about how you should proceed, consult
sources available in the library on writing formal scientific reports, and/or
seek help from the instructor. The
instructor as well as other classmates will grade the oral presentation, which
as stated earlier can be executed with the help of a power point presentation,
web page, or a poster.
There will be 1 test during the semester
that will assess your knowledge of the theoretical concepts introduced during
lectures and through assigned readings.
It will not be used to evaluate your knowledge of the software. The test will consist of a combination of
true/false, multiple choice, short-answer, essay and problem-solving questions.
COURSE OUTLINE
|
Date |
Topic
|
|
Deadlines |
|
Jan 18th |
GIS
applications – examples and project expectations, introduction to
cartographic modeling, flowcharting; GIS output |
D-13;
D-14 |
|
|
Jan 25th |
Cartographic
modeling continued |
D-5,
D-6, D-15, B-4 |
Purchase Spatial Analyst
from ESRI |
|
Feb 1st
|
Descriptive
and prescriptive modeling; inductive and deductive modeling |
D-5,
D-6, B-4, D-13, D-15 |
SA – Module 1 |
|
Feb 8th |
Spatial
data modeling; database modeling; data types; data sources; formats; GIS
modeling; binary models; index models; regression modeling; process modeling;
concepts of forecasting |
D-13 |
Proposal
|
|
Feb 15th |
Sources
of error and data quality control issues in GIS; Attribute data problems;
locational data problems; Vector-raster conversion considerations |
B-9 |
Binary
and Index raster model exercise |
|
Feb 22nd |
Error propagation;
|
B-10 |
SA
– Module 3 |
|
Mar 1st |
Modeling
transition areas: Fuzzy sets and
boundaries; Boolean sets |
B-11 |
Binary
and Index vector model exercise |
|
Mar 8th |
TEST #1 |
|
|
|
Mar 15th |
Spring Break |
|
|
|
Mar 22nd |
Continuous
versus discrete surfaces; concepts of spatial interpolation
|
D-10,
D-11, B-5 |
SA
– Module 4 |
|
Mar 29th |
DEMs,
TINs, Point-pattern
analysis; nearest neighbor analysis; autocorrelation
|
B-12;
D-10, D-11, B-5 |
SA
– Module 2 |
|
Apr 5th
|
No
lectures
|
B-12;
D-10, D-11, B-5 |
|
|
Apr 12th |
Methods
of spatial interpolation – Trend surface analysis, inverse distance, kriging,
spline |
B-12;
D-10, D-11, B-5 |
SA
– Module 5 |
|
Apr 19th |
Spatial
interpolation continued |
B-12;
D-10, D-11, B-5 |
SA
– Module 6 |
|
Apr 26th |
Multidimensional
GIS; temporal GIS; static mapping, dynamic mapping; space-time composite
mapping |
D-14,
Monmonier
(1996) MacEachren
(1992) Raper
(2000) Turner
(1997) Tomlin
(1990) |
SA
- Exam |
|
May 3nd |
Project presentations |
|
Project
Report |