Recent recorded grades — Spring 2024: 3.95 GPA, 100.0% A/AB (n=11 letter grades); Spring 2025: 4.00 GPA, 100.0% A/AB (n=12 letter grades); Spring 2026: 4.00 GPA, 100.0% A/AB (n=15 letter grades).
Advanced Environmental Remote Sensing
Advanced Environmental Remote Sensing covers fundamental physical principles of terrestrial remote sensing and advanced topics in earth observation and digital image processing.
Summary
Recent recorded grades — Spring 2024: 3.95 GPA, 100.0% A/AB (n=11 letter grades); Spring 2025: 4.00 GPA, 100.0% A/AB (n=12 letter grades); Spring 2026: 4.00 GPA, 100.0% A/AB (n=15 letter grades).
What you’ll be able to do
Demonstrate understanding of major theories, approaches, concepts, and methods in remote sensing science.
Apply knowledge of the nature and properties of electromagnetic radiation and how it is affected by interactions with the atmosphere and the Earth’s surface, including transmission, absorption, reflectance, refraction, and scatter.
Outline several historical models used to explain the nature of light (e.g. wave, particle), describe phenomena associated with each model, and discuss the principle of complementarity.
Recall the basic physical principles of radiation laws derived from Planck, Wien, and Stefan-Boltzmann, and describe how these principles make remote sensing possible.
Differentiate the effects of atmospheric scatter (Rayleigh, Mie, and non-selective scatter) on Earth observation imagery, and determine how to remove atmospheric effects (or differences) across images.
Understand the fundamental laws of radiative transfer, such as heating and cooling of the surface and atmospheric layers, and its effects in both clear and cloudy conditions.
Illustrate the inverse methodologies used to derive geophysical parameters from remote measurements.
Use this knowledge to interpret complex multispectral radiance data sets to derive geophysical information for environmental applications.
Describe the differences between heat, thermal energy, and emissivity, distinguish how the amount of energy stored determines the temperature, and determine how these properties affect thermal remote sensing image analysis.
Summarize how the earth's surface scatters incident radiation anisotropically at different wavelengths, and describe how this wavelength dependence can be characterized by the Bidirectional Reflectance Distribution Function (BRDF).
Understand the role of vegetation in terrestrial ecosystem processes, describe the propagation of radiative transfer in vegetation, and how vegetation biophysical variables can be derived and modeled using remote sensing data and mathematical solutions.
Propose and carry out an original research project using remote sensing data, including outlining a plan, assembling necessary data, executing the analysis, and synthesizing the results.
Communicate effectively through discussion, oral presentations, and written reports.
Source: UW Guide
Grade history
↗All recorded terms · compare terms & instructors
Prerequisites
Course mapLAND ARC/ENVIR ST/G L E/GEOG/GEOSCI 371 and graduate/professional standing (or FW ECOL 371 prior to Summer 2026)
- ENVIRST/GEOG/GEOSCI/GLE/LANDARC 371
- FW ECOL 371 prior to Summer 2026
- graduate/professional standing
This is a best-effort interpretation; check the catalog requirements above.
Prerequisite text tree
- All of
- Any of
- ENVIRST/GEOG/GEOSCI/GLE/LANDARC 371
- FW ECOL 371 prior to Summer 2026
- graduate/professional standing
- Any of
Professors
Spring 2027Historical instructors & teaching patterns
MUTLU OZDOGAN is recorded teaching in Spring 2020, Spring 2022, Spring 2023, Spring 2024, Spring 2025, Spring 2026. Recorded history may be incomplete and does not establish a future schedule.
Recorded history may be incomplete and does not establish a future schedule.
Calendar & sections
Spring 2027Schedule loads here as you scroll.
| Section | Mode | Enrolled / capacity | Waitlist |
|---|---|---|---|
| LEC 001 | Classroom Instruction | 0 / 30 | 0 |
Times are Central. Select a meeting for details; export includes recorded dates for the selected sections. Enrollment reflects scan time.
Meeting source records
Student experience
the class
Recent recorded grades — Spring 2024: 3.95 GPA, 100.0% A/AB (n=11 letter grades); Spring 2025: 4.00 GPA, 100.0% A/AB (n=12 letter grades); Spring 2026: 4.00 GPA, 100.0% A/AB (n=15 letter grades).
difficulty & workload
No workload feedback recorded.
Topics
- Radiation interaction with atmosphere/surface and radiative transfer theory
- Land surface characteristics, energy balance, and thermal sensing
- Optical, RADAR, LiDAR, and hyperspectral data types
- Object-based versus per-pixel pattern recognition approaches
Skills
- Hands-on digital image processing using open source software
- Atmospheric and radiometric correction of image data, including automated cloud detection
- Biophysical remote sensing, 3D vegetation canopy modeling, time series analysis, and data fusion
- Planning and executing original remote sensing research projects
Grades
Latest available · Spring 2026— not enough history to project Spring 2027.
Grade distribution · % of letter grades
Grades over time
Through Spring 2026
More grade details Grade mix, volume & source data
Not enough comparable courses for Spring 2027 in UW–Madison.
Sources & history
Catalog & offerings
Descriptions, prerequisites, and recorded course offerings.
Catalog observation history
Observations at scan time; dates do not imply when a catalog change took effect.
Selected offering source records
Advanced Environmental Remote Sensing
Recorded 2026-10-14Raw records
[
{
"run_id": "20261014T203208-0851c9a1",
"semester": "1274",
"observed_at": "2026-10-14 17:50:09.728220+00:00",
"offering_id": "1274:360:025417",
"course_id": "ENVIRST 956",
"course_uid": "course_cefa5e4934c622d29e565450",
"term_id": "1274",
"source_course_id": "025417",
"source_subject_id": "360",
"title": "Advanced Environmental Remote Sensing",
"credits_min": 3,
"credits_max": 3,
"typically_offered": "Not Applicable"
}
]Student reviews
Original comments behind the course and instructor summaries.
Read original reviews
No records available.
Grade history
Recorded grade distributions by term, section, and instructor.
Explore recorded gradesRecorded 2026-10-14
Model outputs & technical records
LLM outputs across runs
Full model traces
Recorded model configuration, reasoning, and tool conversations.
Model & dataset provenance
{
"model": "Qwen/Qwen3.8-27B",
"model_revision": "1d4bf0f2ff6012fd82039f2fa52739d0dd7c60c0",
"task_version": "17",
"output_id": "51281d839b51f5992bb48335b576e28af85c1ece11df23f3bc005ecf91852ed9",
"requirements_status": "needs_review",
"dataset_revision": "fc1811fa52e581ea57a35c0cf3343f8740a8ffbf",
"observed_at": "2026-10-14 17:50:09.728220+00:00"
}