Habitable Planet

Last Updated: Mon, 01/12/2026
Course prefix:
EAS
Course number:
1601
Semester:
Spring
Academic year:
2026
Course description:

   We live in an exciting and challenging time—the human species is dramatically reshaping the Earth system, while the search for life beyond Earth is advancing at incredible speed. This course will explore the history of the solar system and Earth as the one currently known example of a habitable planet—one that can support living organisms. We will consider how stars, elements, and planets form, the important planetary processes that brought about the Earth as it was when life arose and have shaped its evolution as an inhabited planet over billions of years, and the science of searching for life beyond Earth. We will also explore the factors that shape the Earth today, and some of the physical and societal drivers that will potentially govern its future. This course is geared toward undergraduate students and is meant to be challenging and broadly accessible. The course will draw upon lectures and readings, as well as laboratory exercises to enrich those lessons.    

Course learning outcomes:

Upon completion of this course, students should be able to:

  • Apply a scientific framework to analyze or justify a scientific position.
  • Use basic science tools and concepts to outline the timeline, characteristics, and implications of the formation and evolution of both the universe and Earth.
  • Analyze the basic properties of stars and planetary systems to identify and justify which are most likely to host potentially habitable worlds.
  • Describe the processes, features, and characteristics of a planet's structure, atmosphere, and climate, along with how those affect habitability and methods used to determine basic properties.
  • Outline the major thresholds in the rise of life, the co-evolution of life and climate, and the role of humans in recent times.
Required course materials:

OLI Torus (Online Adaptive Platform) for online HabWorlds content

Grading policy:

The course grading breakdown is as follows:
   Participation                                                5%
   Homework Assignments (OLI Torus)      40%
   Final Project                                                15%  
   Final Exam                                                   15
   Labs                                                              25

  • Labs can be further broken down into the weekly lab assignments (80%) and the mission proposal project (20%), which is not the same as lecture final project

Final letter grades will be assigned according to the following scale:

  • A  >= 90.0%,    Achieved high performance level in course assessment goals, demonstrating content and skill mastery
  • B  >= 80.0% and < 90.0%,   Achieved good performance level in course assessment goals,  demonstrating content and skill fluency
  • C  >= 70.0% and < 80.0%,   Achieved reasonable performance level in course assessment goals,  demonstrating content and skill familiarity
  • D  >= 65.0% and < 70.0%,   Achieved limited and partial performance level in course assessment goals,  demonstrating only basic content and skill understanding
  • F  < 65.0%,   Did not meet the minimum required performance level in course assessments

Note 1:  Passing is considered a "C" or higher, although individual major requirements may require or accept different thresholds.  
Note 2:  If taking this course as pass/fail, a “passing” grade requires achieving a C or higher.

Final Grade Rounding: Any final course grade rounding will only be for up to 0.4 percentage points (e.g. a grade of "B" at an 89.6 could round up to a 90.0 for a grade of "A" given good course involvement, but not a "B" at 89.2 which cannot round to a 90.0) and will only be evaluated based on having attended and scored well on participation prompts and polls, indicating involvement and thoughtful analysis throughout the class. This applies only to the final course grade and NOT to individual assignments.

Extra Credit: There is no extra credit planned.

Grade Curve: Curving is highly unlikely but may be applied to exams to reflect a reasonable distribution of the scale described above (up to the instructor’s discretion). 

Attendance policy:

LECTURE PARTICIPATION: Not required, but is a graded component of the final course grade (5%)

  • During each lecture, there will be several zoom polls. Participation points are based on lecture on-the-spot quizzes / knowledge checks, covering either student impressions or recently covered content. You must be logged into the zoom session with your gatech email and first/last name for us to correctly award points. Points are divided up as follows:

    • 75% for submitting an answer (being present and trying)
    • 25% for correct answers - this should motivate students to try and determine the correct answer without overly penalizing for struggling with content

    Please note, there are two (2) dropped lecture participation day grades, which can be used freely, ranging from unexcused absences, technology problems, etc. with no questions asked. 

LABORATORY PARTICIPATION: REQUIRED synchronous

Academic honesty/integrity statement:

Georgia Tech aims to cultivate a community based on mutual trust, academic integrity, and honor. As such, all instructors and students are expected to act according to the highest ethical standards, and are bound by the Georgia Tech Honor Code. For more information on Georgia Tech's Academic Honor Code, please visit: https://catalog.gatech.edu/policies/honor-code/Links to an external site. and https://policylibrary.gatech.edu/student-affairs/academic-honor-code

"Academic misconduct is any act that does or could improperly distort Student grades or other Student academic records. Such acts include but need not be limited to the following:

  • Unauthorized Access: Possessing, using, or exchanging improperly acquired written or verbal information in the preparation of a problem set, laboratory report, essay, examination, or other academic assignment.
  • Unauthorized Collaboration: Unauthorized interaction with another Student or Students in the fulfillment of academic requirements.
  • Plagiarism: Submission of material that is wholly or substantially identical to that created or published by another person or persons, without adequate credit notations indicating the authorship.
  • False Claims of Performance: False claims for work that has been submitted by a Student.
  • Grade Alteration: Alteration of any academic grade or rating so as to obtain unearned academic credit.
  • Deliberate Falsification: Deliberate falsification of a written or verbal statement of fact to a Faculty member and/or Institute Official, so as to obtain unearned academic credit.
  • Forgery: Forgery, alteration, or misuse of any Institute document relating to the academic status of the Student.
  • Distortion: Any act that distorts or could distort grades or other academic records.

While these acts constitute assured instances of academic misconduct, other acts of academic misconduct may be defined by the professor. The Honor Agreement may reappear on exams and other assignments to remind Students of their responsibilities under the Georgia Institute of Technology Academic Honor Code."

COURSE-SPECIFIC POLICIES AND EXAMPLES:

We are navigating an interesting time with the increased access of both authorized and unauthorized tools as well as the advent of large language models (LLMs) and generative AI such as ChatGPT, Gemini, and others. We will try to balance some of the usefulness of these tools with addressing the pitfalls and problems that can come up; however, such materials and tools are not a replacement for student's own understanding or work.

In addition to the general GATech list above, academic honesty violations in this course also include, but are not limited to...

  • For any graded material
    • Students giving/receiving answers to/from other students,
    • Students reporting content from other sources that are not their own without attribution,
    • Students providing answers that are not significantly original to themselves (e.g. cannot paste lecture content, even if cited, as the entirety of their graded response)
  • Exam-specific
    • Students giving/receiving any input or answers to/from other students or persons, aside from authorized clarification from the instructor or TA
    • Students archiving specific exam question information that lends an unfair advantage to any student
    • Utilization of any materials not provided by this semester's course, including online content outside of course materials, large language models (e.g. ChatGPT, etc.)

Assignments and exams are assessments of a student’s own understanding and capabilities related to the content covered during class. As such, each student is required to submit work according to their own knowledge, comprehension, and effort. The exams are open notes, where allowed material for each individual student includes 1) notes and submissions they created themselves in association with content covered during lecture, lab, and class assignments, or 2) content directly provided from this semester’s class; However, the use of unauthorized materials, including but not limited to LLMs (such as ChatGPT or similar), any external sources, or other people, is strictly prohibited.

Any violation of this policy is considered academic dishonesty and will result in an incident referral of the student(s) to the Office of Student Integrity (OSI). Suspected violations will result in OSI being contacted for advice and may result in either a formal submission to OSI or a student-optional Faculty Conference for which the resolution will still be submitted to OSI and attached to the student's record. The Office of Student Integrity will investigate the incident and identify the appropriate penalty for violations (which may include failure in one or more classes, and/or suspension from Georgia Tech)

 

Tips to avoid violations:

  1. Be sure to READ and UNDERSTAND any class rules and policies documents, as we have had situation in the past where students are called up on integrity violations and didn't realize it was in the document they signed in lab. If you have any questions or concerns, just reach out and ask.
  2. Your agreement and signature are important, and just because you didn't read or forgot something you signed doesn't mean you won't bear the consequences for what it says...(being an adult isn't always fun, but ALWAYS read these sorts of documents, whether for class, work, buying a house, anything financial or legal, etc.)
  3. It can be hard in a moment of panic to think of the larger picture, but when faced with a situation, try and walk through if and how an action could be seen as a violation (think from the perspective of an instructor or administrator).
  4. This is NOT one of those situations that it is better to ask for forgiveness than permission - you risk your class grade, academic probably, or even expulsion and your academic career with these actions. Further, it degrades the quality of everyone's degree, and unfairly treats students who have properly adhered to the rules, skewing grades against their honest work.


While we encourage students to help each other learn course material, each student must complete their own work without engaging in plagiarism or other false claims of performance. In addition, course materials, including assignments and notes, are not to be archived anywhere online, distributed, or provided to persons outside of this class. Materials are presented for your benefit and evaluation. Any student who breaches this policy and violates the Academic Honor Code will be reported to the Office of Student Integrity, who will investigate the incident and identify the appropriate penalty for violations (which may include suspension from Georgia Tech). 
 

Core IMPACTS statement(s) (if applicable):

This is a Core IMPACTS course that is part of the Technology, Mathematics & Sciences area.

Core IMPACTS refers to the core curriculum, which provides students with essential knowledge in foundational academic areas. This course will help master course content, and support students’ broad academic and career goals.

This course should direct students toward a broad Orienting Question:

  • How do I ask scientific questions or use data, mathematics or technology to understand the universe?

Completion of this course should enable students to meet the following Learning Outcome:

  • Students will use the scientific method and laboratory procedures or mathematical and computational methods to analyze data, solve problems and explain natural phenomena.

Course content, activities and exercises in this course should help students develop the following Career-Ready Competencies:

  • Inquiry and Analysis
  • Problem-Solving
  • Teamwork
Instructor First Name:
Heather
Instructor Last Name:
Chilton
Section:
B
CRN (you may add up to five):
35454
Department (you may add up to three):

Introduction to Environmental Sciences

Last Updated: Thu, 01/08/2026
Course prefix:
EAS
Course number:
1600
Semester:
Spring
Academic year:
2026
Course description:

Introduction to how the Earth functions as an integrated system through exploration of the atmosphere, hydrosphere, lithosphere, and the biosphere. Laboratory exercises will supplement the lecture material.

Course learning outcomes:

Completion of this course should enable students to meet the following 

Learning Outcome:

  • Students will use the scientific method and laboratory procedures or mathematical and computational methods to analyze data, solve problems, and explain natural phenomena.   
Required course materials:

None.

Grading policy:

Your grade in this course will be based on your performance within the following categories:

  • Attendance (20%): Grading is based on presence and active engagement (polls, discussions, questions). Professional conduct and consideration for classmates are expected.
  • Quizzes (30%):  Closed-note, timed quizzes administered via Canvas. These test previously discussed topics. Check the schedule for dates.
  • Labs (25%): See the separate Laboratory Syllabus for grading details.
  • Final Exam (25%): Cumulative exam covering all lectures. Note: Your final quiz average can replace your Final Exam score.
Attendance policy:

Attendance will be taken in class and is worth 20% of your course grade.  We will discuss how to report your attendance when you arrive to the classroom

Academic honesty/integrity statement:

Students are expected to maintain the highest standards of academic integrity. All work submitted must be original and properly cited. Plagiarism, cheating, or any form of academic dishonesty will result in immediate consequences as outlined in the university's academic integrity policy.

 

Core IMPACTS statement(s) (if applicable):

This is a Core IMPACTS course that is part of the STEM area.


Core IMPACTS refers to the core curriculum, which provides students with essential knowledge in foundational academic areas. This course will help students master course content, and support students’ broad academic and career goals.   


This course should direct students toward a broad Orienting Question: 

  • How do I ask scientific questions or use data, mathematics, or technology to understand the universe?  

Completion of this course should enable students to meet the following Learning Outcome:  

  • Students will use the scientific method and laboratory procedures or mathematical and computational methods to analyze data, solve problems, and explain natural phenomena.   

Course content, activities and exercises in this course should help students develop the following Career-Ready Competencies: 

  • Inquiry and Analysis    
  • Problem-Solving
  • Teamwork
Instructor First Name:
Wing
Instructor Last Name:
Chu
Section:
A
CRN (you may add up to five):
20821
Department (you may add up to three):

Habitable Planet

Last Updated: Mon, 01/05/2026
Course prefix:
EAS
Course number:
1601
Semester:
Spring
Academic year:
2026
Course description:

This is an introductory Astrobiology course. We will explore the history of the solar system and the Earth as the one currently known example of a habitable planet - one that can support living organisms. We will consider how stars, elements, and planets form, the important planetary processes that brought about the Earth as it was when life arose and have shaped its evolution as an inhabited planet over billions of years, and the science of searching for life beyond Earth. We will also explore the factors that shape the planet we live on today, and some of the drivers that will potentially govern its future. This course is geared toward undergraduate students and is meant to be both challenging and broadly accessible. The course will draw upon lectures and laboratory exercises to enrich those lessons learned in class.   

 

Course learning outcomes:
  • Understand the basics for how stars, elements, and planets form.
  • Summarize the history of Earth and our solar system.
  • Describe the main factors that affect a planetary body's potential for long term habitability.
  • Understand the basics of life as we know it on Earth.
  • Outline how we are searching for life beyond Earth.

     
Required course materials:

You should bring a scientific calculator and an electronic device (laptop or tablets only) to access Canvas to complete course polls and assessments. No textbook is required, although we recommend the textbook How to Build a Habitable Planet (2nd Ed.)  by Charles Langmuir and Wallace Broecker. 

Grading policy:

Grading Breakdown: The students will be evaluated on in class participation (10%), assignments (25%), labs (25%), five assessments (40%), and an optional cumulative final exam which can substitute the two lowest assessment scores. 

Grading scale: 90.00-100%=A; 80.00-89.99%=B; 70.00-79.99%=C; 60.00-69.99%=D; <60.00%=F. Grades in this course are not curved.

Late Policy: For a late or missing Assignment, 5% of your total score will be deducted per day. You will have up to 1 week (7 days) from the original due date of an assignment to communicate with us to discuss possible accommodations for university approved absences. For missed Assessments, due to an university approved absence only (requires documentation), contact the instructor and Lecture TA ASAP to schedule a time for your Make-Up Assessment. All other reasons for missing an Assessment will result in a zero and the final exam can be taken to replace this score.

 

Attendance policy:

Students will have the opportunity to interact with the instructor and other students during lecture taking review polls on Canvas and asking questions directly. Students will have to participate in these polls in at least 15 lectures to receive full credit for course participation. There are currently 23 lectures scheduled (not including assessment days), and flexibility for student absences has already been factored into this minimum requirement. It is strongly recommended that students attend all lectures. 

Academic honesty/integrity statement:

Students are expected to maintain the highest standards of academic integrity. All work submitted must be original and properly cited. Plagiarism, cheating, or any form of academic dishonesty will result in immediate consequences as outlined in the university's academic integrity policy.

Core IMPACTS statement(s) (if applicable):

This is a Core IMPACTS course that is part of the Technology, Mathematics & Sciences area. Core IMPACTS refers to the core curriculum, which provides students with essential knowledge in foundational academic areas. This course will help master course content, and support students’ broad academic and career goals.

This course should direct students toward a broad Orienting Question:

  • How do I ask scientific questions or use data, mathematics or technology to understand the universe?

Completion of this course should enable students to meet the following Learning Outcome:

  • Students will use the scientific method and laboratory procedures or mathematical and computational methods to analyze data, solve problems and explain natural phenomena.

Course content, activities and exercises in this course should help students develop the following Career-Ready Competencies:

  • Inquiry and Analysis
  • Problem-Solving
  • Teamwork

     

Instructor First Name:
Frances
Instructor Last Name:
Rivera-Hernández
Section:
A
CRN (you may add up to five):
20341
Department (you may add up to three):

Earth Processes

Last Updated: Tue, 12/30/2025
Course prefix:
EAS
Course number:
2600
Semester:
Spring
Academic year:
2026
Course description:

This course introduces students to the fundamental principles of Earth science and examines how these principles apply to a wide range of practical and societal issues that affect daily life. Course topics emphasize the interrelationships among plate tectonics, Earth surface processes, geologic structures, natural resources, and natural hazards. Upon successful completion of the course, students will be able to interpret and analyze the geologic processes that shape the landscapes encountered in everyday environments.

Course learning outcomes:
  • Develop a qualitative understanding of plate tectonics and its driving forces
  • Describe Earth's minerals and rocks, how they are formed, and their physical properties
  • Distinguish Earth's internal structure based on physical and chemical properties
  • Describe the chemical and physical mechanisms that alter and deform rocks
  • Define and apply stratigraphic principles to reconstruct geologic history
  • Determine the forces responsible for shaping Earth's landscapes
Required course materials:

Canvas & Laptop

Recommended (not required) Text: Grotzinger, J.P., and Jordan, T.H., Understanding Earth, ISBN: 1-4641-3874-5. There is a newer edition with similar content, but any page recommendations are based on the 7th edition.

Grading policy:

Grading: You can check your current grades at any time on Canvas > Grades. The breakdown of grading is below.

Exams 40%

Average of exam scores (3 lecture exams and 1 cumulative final)

Class Participation 35%

Assignments will be announced during lectures & on Canvas

Labs 25%

Average of lab scores

Course total 100%

 

Exams: Lecture exams will test previously discussed topics. There will be three lecture exams. Please check schedule for exam dates (exam dates are subject to change). Exams will be timed and closed notes. This means no internet tabs, no phone, no notes, no textbook, no friends, and pretty much no to everything except for your knowledge. The cumulative final will cover all lectures (~lecture 1-25). Any cheating will receive a 0 for that exam and a report will be sent to The Office of Student Integrity for Academic Misconduct. 

 

Class Participation: We will have a variety of in class participation activities and online “homework” type of activities that we will assign throughout the course.  Length and time allotted to complete such assignments will vary and be more specifically discussed within the course lecture and announced on Canvas. One in-class participation activity will dropped (this does not include HW assignments).

 

Labs: No lab manual purchase is required. There is a separate Canvas site for your lab materials. All handouts, quizzes, grading policies, grades, TA contact information and

time slots are posted there. Lab material is posted on Canvas. See separate lab syllabus for more information about how your laboratory grade will be determined.

 

Grading Scale: For P/F grading, passing is a 70.0 or higher. For a letter grade please see scale below.

Grade Percentage

A 90.0 – 100

B 80.0 – 89.9

C 70.0 – 79.9

D 65.0 – 69.9

F<65.0

                        

Re-grades: Any assignment may be submitted for re- grading because of an error up to one weekafter the assignment grade is released. Although I am always happy to discuss your work with you at anytime, once that initial week has passed, there will be no changes made in grades.

 

Grade Curve: Depending on the distribution of student scores at the end of the course, the scores may be curved to reflect the scale described above (up to the instructor’s discretion). 

 

Extra Credit: To be fair to all students, no extra credit will be offered.

Attendance policy:

It is strongly recommended that you attend all lectures. If you must miss a lecture, it is your responsibility to complete any assignments and learn the material you missed by carefully reviewing the lectures and emailing the instructor and/or lecture TA. 

Academic honesty/integrity statement:

Students are expected to maintain the highest standards of academic integrity. All work submitted must be original and properly cited. Plagiarism, cheating, or any form of academic dishonesty will result in immediate consequences as outlined in the university's academic integrity policy.

Core IMPACTS statement(s) (if applicable):

 

Core IMPACTS refers to the core curriculum, which provides students with essential knowledge in foundational academic areas. This course will help students master course content, and support students’ broad academic and career goals.   

 

This course should direct students toward a broad Orienting Question: 

 

  • How do I ask scientific questions or use data, mathematics, or technology to understand the universe?   

 

Completion of this course should enable students to meet the following Learning Outcome: 

 

  • Students will use the scientific method and laboratory procedures or mathematical and computational methods to analyze data, solve problems, and explain natural phenomena.   

 

Course content, activities and exercises in this course should help students develop the following Career-Ready Competencies: 

 

  • Inquiry and Analysis   
  • Problem-Solving   
  • Teamwork
Instructor First Name:
Samantha
Instructor Last Name:
Wilson
Section:
A
CRN (you may add up to five):
21255
35406
Department (you may add up to three):

Earth Processes

Last Updated: Tue, 12/16/2025
Course prefix:
EAS
Course number:
2600
Semester:
Spring
Academic year:
2026
Course description:

I am super excited to have the opportunity to teach this class and meet all of you.  New Zealand is paradise of fantastic geology.   You don't need to take my word for it, even the United Nations has designated an area north of Dunedin as the Waitaki Whitestone UNESCO Global Geopark.  In addition to covering the basics of Earth Science, a goal of this class is to increase your interest and awareness of the geology as you explore New Zealand.

Course learning outcomes:

This class will familiarize students with fundamental principles of earth science and will show how these principles relate to practical issues encountered in your life and future possible careers.  The interrelationships between plate tectonics, rock and mineral types, geologic structures and hazards, and natural resources such as ground and surface water are emphasized.    The following specific topics will be explored.

Plate tectonics (Chapter 2)

Glaciers – (Chapter 15)

Minerals (Chapter 3)

Igneous Rocks (Chapter 4)

Volcanoes (Chapter 5)

Sedimentary Rocks (Chapter 6)

Metamorphic Rocks (Chapter 7)

Deformation (Chapter 8)

Clocks in Rocks Geologic History (Chapter 9)

Earthquakes (Chapter 10)

Earth's Interior (Chapter 11)

Climate Systems – (Chapter 12)

Weathering and Mass Wasting – Surface Processes (Chapter 16)

Groundwater – Hydrologic Cycle (Chapter 17)

Surface Water- Stream Transport (Chapter 18)

Deserts and Coastlines and Oceans (Chapter 19)

Required course materials:

Text:                   Understanding Earth by Grotzinger and Jordan (8th Edition)

(ISBN 978-1319055325). If you enjoy having a book to read as your favorite way to learn, you can find ebook version of this text on web.   I am guessing you do not want to buy and carry around a heavy book on this adventure.   I try to cover all the information I find interesting and important in my lectures.  The powerpoint slides of my lectures will be available on Canvas.  And I am fine if you want to use your laptop or tablet for note taking in class.  

Canvas: Lecture slides will be posted on Canvas. I typically show a number of geologically oriented videos, which I cannot post on Canvas due to copyright restrictions. Many slides are just pictures of various earth features that are only fully explained in lecture. Thus, the posted materials (although super useful) are not a substitute for attending class. 

Old exams will be posted on Canvas.  In recent years I have given exams through Canvas and I have not figured out a way to post them.  However, questions on older exams are largely the same as those I have used on Canvas.  I will likely orient a few questions toward New Zealand for obvious reasons.   I may also add a few short answer or essay questions for this small class.  

Grading policy:

Grading:                   Lecture                       75%

                                  Laboratory                 25%

For the lecture part of the class, there will be 3 exams.   Each exam will count 30% toward the grade in the lecture part of the class.  The remaining 10% will be based on class attendance.   The class will meet 23 times.   To get a perfect attendance score I expect your participation in 20 class sessions.   This leaves 3 flexible sessions for illness or other issues.    The exams will likely be a mix of multiple choice, short answer and matching questions. Depending on computer access and speed I hope to give the exams through the quiz function in Canvas, so you will need your laptop on exam days and you will always need your laptop for the lab.

Grades will be calculated using the following ranges:

90-100%                   A

80-89.9%                  B

70-79.9%                  C

60-69.9%                  D

less than 59.9%        F

As a 2000 level class mid-term grades of satisfactory or unsatisfactory must be reported.  An exam average score below 69.9 will receive a mid-term grade of unsatisfactory.  Given the compressed schedule of this class I am guessing we will get through two (and maybe all three) exams before the reporting deadline.  

Likely Exam Days:     January 15

                                    January 29

                                    February 11

Attendance policy:

The class will meet 23 times.   To get a perfect attendance score I expect your participation in 20 class sessions.   This leaves 3 flexible sessions for illness or other issues.  

Academic honesty/integrity statement:

Students are expected to maintain the highest standards of academic integrity. All work submitted must be original and properly cited. Plagiarism, cheating, or any form of academic dishonesty will result in immediate consequences as outlined in the university's academic integrity policy.

Core IMPACTS statement(s) (if applicable):

This is a Core IMPACTS course that is part of the STEM area.

Core IMPACTS refers to the core curriculum, which provides students with essential knowledge in foundational academic areas. This course will help students master course content, and support students’ broad academic and career goals.

This course should direct students toward a broad Orienting Question:

  • How do I ask scientific questions or use data, mathematics, or technology to understand the universe?

Completion of this course should enable students to meet the following Learning Outcome:

  • Students will use the scientific method and laboratory procedures or mathematical and computational methods to analyze data, solve problems, and explain natural phenomena.

Course content, activities and exercises in this course should help students develop the following Career-Ready Competencies:

  • Inquiry and Analysis
  • Problem-Solving
  • Teamwork
Instructor First Name:
Ellery
Instructor Last Name:
Ingall
Section:
NZ
CRN (you may add up to five):
33342
Department (you may add up to three):

Introduction to Environmental Sciences for Majors

Last Updated: Tue, 11/18/2025
Course prefix:
EAS
Course number:
1600
Semester:
Spring
Academic year:
2026
Course description:

We will begin by considering external influences on Earth’s environment and reviewing the systems approach for studying interrelated phenomena, as well as the basic physics needed for such studies. We will explore how each component interacts with the others and how these processes control Earth’s climate. We will use parameters from potentially habitable exoplanets for examples of how to perform fundamental planetary calculations. We will finish with a discussion of modern anthropogenic climate change. This class is in a “flipped course” format with recorded lectures, quizzes, and two course projects including presentations. Weekly small group discussions of articles and current topics in environmental science apply the course material to “real-world” problems like the Flint water crisis, hurricane storm surges, drinking water quality, Mars geology mapping, environmental policy, and environmental justice. Through the laboratory sessions, students develop an understanding of the scientific method and scientific research. In the exoplanets project, students apply planetary energy balance equations to assess the habitability of an exoplanet. In the Wikipedia editing project, students gain experience in scientific writing on notable topics in environmental sciences of high interest to the public and will gain experience in identifying an audience, citing literature, peer review, and revisions.

Course learning outcomes:

(1) understand how the whole Earth functions as a system;

(2) understand how physical planetary properties determine habitability;

(3) understand feedbacks between the atmosphere, oceans, solid Earth, and biosphere;

(4) gain an appreciation of deep geologic time;

(5) critically evaluate natural and anthropogenic influences on the environment.

Required course materials:

You should bring a scientific calculator, your personal computer (laptop or tablet), and headphones for your personal computer (if you will be attending in person) to every course meeting. The computer and headphones are used for in-class online activities. 

Grading policy:

Grading scale: 90.00-100%=A; 80.00-89.99%=B; 70.00-79.99%=C; 60.00-69.99%=D; <60.00%=FThe scale may be adjusted upward if the median test scores are much below 80%, but it is highly unlikely that the curve will be more than 5% points lower than listed above.

Grades: You can check your current grades at any time on Canvas > Grades. Grades are posted within one week of assignment deadline. Requests to adjust grades must be submitted to Prof. Glass in writing by email within 14 days of quiz or assignment deadline, or to the lab coordinator or the TA for that lab section within 14 days of the lab.

Percentage Weight of Different Assignments: 

Labs: Weighted average of lab scores: 30%

Wikipedia Project Grading rubrics posted on Canvas: 25% 

Exoplanet Calculations Series of assignments working through Earth system calculations on recently discovered exoplanets: 20%

Quizzes Quizzes covering lecture and discussion material: 20%

Participation Lecture attendance and participation: 5%

Attendance policy:

Participation: 5% of your final course grade is based on your lecture attendance and participation in course activities during the lecture period, starting the second week of course. You may miss up to three lectures without it affecting your grade and additional in case of illness (please do not come to class sick!) or academic/athletics excused absences. Attendance is not required (but is highly encouraged) for work sessions. Please email Prof. Glass if you are ill or other excused absences. More than three absences will result in “0” grade for participation for each missed class.

Academic honesty/integrity statement:

Students are expected to maintain the highest standards of academic integrity. All work submitted must be original and properly cited. Plagiarism, cheating, or any form of academic dishonesty will result in immediate consequences as outlined in the university's academic integrity policy.

Instructor First Name:
Jennifer
Instructor Last Name:
Glass
Section:
Majors
CRN (you may add up to five):
33230
Department (you may add up to three):