Forest Resources 3262 / 5262
Remote Sensing of Natural Resources and Environment
Spring
Semester 2008
Course Description: The
course is designed to provide students with a working knowledge of the
principles and applications of remote sensing. It provides a survey of the
concepts and techniques of remote sensing and image analysis for mapping and
monitoring natural resources, environment and land use. Both photographic and
digital sensing approaches are considered. The laboratory provides hands-on
experience, including a practical / team project, in interpretation of aerial
photographs and an introduction to digital image analysis techniques.
Lecture: 9:35-10:25
MWF, 110 Green Hall
Lab Sections: (1)
8:30-10:25 Tuesday, (2) 10:40-12:35 Tuesday, 203 Green Hall
Instructor: Dr.
Marvin Bauer
Department
of Forest Resources, 220-B Green Hall
Phone:
612-624-3703
E-mail: mbauer@umn.edu
Office hours: 10:30
- noon, Monday or by appointment
Teaching Jay
Whitmore
Assistant: Department
of Forest Resources, 209-C Green Hall
Phone: 612-625-5765
E-mail:
whitm075@umn.edu
Text: "Introduction
to Remote Sensing," Campbell (4th Edition, 2007)
Supplemental Text "Remote
Sensing and Image Interpretation," Lillesand, Kiefer & Chipman (6th
Edition, 2008)
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3262
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5262
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Grading:
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Exam
1
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15
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15
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Exam
2
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15
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15
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plus and minus
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Final
Exam
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30
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30
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grades are given
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Lab
work and quizzes
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20
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20
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Special
lab project
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20
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20
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5262
project
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--
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10
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Exam Format: Multiple
choice questions (example / study questions will be on the web)
Lecture Notes: Copies
of lecture notes, with diagrams and figures, will be available in advance of
class at: http://rsclass.gis.umn.edu/. It is recommended
that you print a copy and bring it to lecture. They are provided to assist
you in taking notes; they are NOT a substitute for skipping lectures.
Course
Goals: Understand...
o Concepts and
principles of remote sensing
o Advantages and
limitations of remote sensing
o Methods and
techniques of remote sensing
o Applications of
remote sensing to resource inventory, monitoring and analysis
o Potential of
contemporary image processing and analysis systems
o Choices of remote
sensing data, analysis approaches and their relationship to applications
o Interface between
remote sensing and other geospatial technologies
o How to plan and
implement a remote sensing project
o Prospects for future
sensing systems and applications
Reading
Assignments
The
reading assignments in the class schedule include material in the texts by Campbell
and Lillesand, Kiefer & Chipman. The text by Lillesand, Kiefer & Chipman
while considered supplemental, is also excellent and is recommended for
additional insights into the material.
You
may also find it useful to read related chapters/sections in one or more of the
other supplemental books that are on reserve in the Forestry Library. The
perspective of a different author will often complement that of the first and
add to or reinforce your understanding. Although specific readings in Jensen
or Avery and Berlin are not listed, the various topics can be easily found -- if
you want to look at additional texts.
The
materials listed in italics in the lecture schedule are on reserve in the
Forestry Library.
It is highly recommended that you read the assigned material prior
to the lecture. Key concepts and points will be emphasized in lecture.
Material in lectures will supplement that in the reading assignments; you will
be responsible for both on exams.
Books
on reserve that
could be useful additional references include:
Introduction
to Remote Sensing, Campbell (2007)
Remote Sensing and Image Interpretation, Lillesand, Kiefer & Chipman (2008)
Remote Sensing for GIS Managers, Aronoff (2005)
Remote Sensing of the Environment: An Earth Resource
Perspective, Jensen (2006)
Fundamentals of Remote Sensing and Image
Interpretation,
Avery and Berlin (1992)
Aerial Photography and Image Interpretation, Paine & Kiser
(2003)
Our Changing Planet: The View from Space, King
et al., eds. (2007)
Looking at Earth, Strain & Engle
(1992)
Satellite Atlas of the World, National
Geographic (1998)
Earth from Above, Parkinson (1997)
Manual of Photographic Interpretation, ASPRS (1997)
Elements of Photogrammetry, Wolf (1983)
Other
Reference Materials
There
will be several notebooks on reserve with collections of materials not
completely covered in any of the texts or other books. Topics include:
Math Review (especially helpful for photo
geometry problems)
Annotated examples of color infrared aerial
photography
Applications of Landsat and SPOT data
AVHRR data and its applications
Geographic information systems
Global Positioning System
Applications of Landsat data to monitoring
land and water resources in Minnesota
Applications of remote sensing to ecology
and global change
Future satellite remote sensing systems
GRADES,
ACADEMIC DISHONESTY, AND WORKLOAD EXPECTATIONS
Grades:
A
-- achievement that is outstanding relative to the level necessary to meet
course requirements.
B
-- achievement that is significantly above the level necessary to meet course
requirements.
C
-- achievement that meets the course requirements in every respect.
D
-- achievement that is worthy of credit even though it fails to meet fully the
course requirements.
S
-- achievement that is satisfactory, which is equivalent to a C- or better.
F
(or N) -- Represents failure (or no credit) and signifies that the work was
either (1) completed but at a level of achievement that is not worthy of credit
or (2) was not completed and there was no agreement between the instructor and
the student that the student would be awarded an Incomplete.
I
-- (Incomplete) Assigned at the discretion of the instructor when, due to
extraordinary circumstances, e.g., hospitalization, a student is prevented from
completing the work of the course on time. Requires a written agreement between
instructor and student.
Plus
and minus grades will be given.
Academic
dishonesty
in any portion of the academic work of the course shall be grounds for awarding
a grade of F or N for the entire course.
Workload:
It
is expected that in addition to the three hours in lecture and two hours of
lab, students will need to spend an additional three to four hours a week on
outside study and project work, or a total of eight to nine hours per week, to
achieve an average or satisfactory grade in the course. While grades tend to
be correlated with amount of time devoted to study and work, they are based on
the quality of the work, not the hours of effort.