Inquiry-based learning
Many faculty seminar leaders enjoyed the freedom to use a more inquiry based learning model while giving students the opportunity to choose papers to review and take leadership for helping facilitate discussions.
92% of Students Responded
the seminar helped develop critical thinking skills
99% of Students Reported
being able to interact comfortably with the instructor
Small groups explore a topic in biology while learning to think like a scientist
Are you interested in catching the excitement of biology by talking with a faculty member and other inquisitive students? If you answered yes, then consider enrolling in a BIOG 1250 Seminar that is facilitated by enthusiastic faculty members who love teaching.
Fall 2026
Second 7 Week (7W2) BIOG 1250 Seminars
- 1 cr., S/U, Oct 14 - Dec 7, Friday, 10:10 am - 12:05 pm
- Instructor: ecm253 [at] cornell.edu (Eirene Markenscoff-Papadimitriou)
How do genes shape the developing brain? How do neurons maintain their function for a lifetime? This seminar explores how genes have evolved to support brain development and long-term neuronal stability. Through research papers and discussion, we’ll examine how changes in developmental programs can shape brain function and contribute to neurodiversity. No prior experience required—just curiosity.
- 1 cr., S/U, Oct 14 - Dec 7, Monday, 7:30 pm - 9:25 pm
- Instructor: cc3224 [at] cornell.edu (Clarissa Casper)
This seven-week course will introduce students to the basics of science journalism and help them learn how to turn biological scientific research into clear, engaging stories for the public. From the start of the course, each student will choose one science story idea (from disciplines like ecology, behavior, evolution, conservation) to develop. Through short, step-by-step assignments, students will learn how to pitch their idea, report on it, and draft a 500-1,000-word news article, with the option to expand if they wish. The course will help students learn how to find newsworthy science stories, conduct effective interviews, and read scientific studies critically. Students will also have the chance to pitch their work to the Cornell Lab of Ornithology's Living Bird magazine and hear from guest speakers at the Lab. The class is co-taught by Clarissa Casper, the Rachel Carson Science Journalism Fellow at the Lab of Ornithology, and Professor Irby Lovette, Director of the Fuller Evolutionary Biology Program. Casper mentors the Lab's undergraduate science communication interns and previously worked as a print and radio reporter for The Salt Lake Tribune and Utah Public Radio. This course is made possible through the generous support of Jay Branegan '72 and Stefania Pittaluga.
- 1 cr., S/U, Oct 14 - Dec 7, Friday, 2:30 pm - 4:25 pm
- Instructor: az568 [at] cornell.edu (Austin Zuckerman)
Biology educators are increasingly expected to teach in ways backed by evidence, but what does that mean for you as a student? This seminar explores biology education research and what it tells us about how students learn. We'll draw on current literature and ongoing research to build metacognitive habits you can use across your courses. Topics include active learning, collaborative learning, self-regulated learning, and career thinking. Weekly discussions are interactive and designed to help you get more out of your time at Cornell.
Examples of Previous BIOG 1250's
Anxiety. Burnout. Stress. These are common feelings experienced among students in college. When we worry or experience stress, our body turns on our fight or flight response, the same physiological response that animals experience in the wild. In this course, we will explore the stress response in humans and wild animals. We will discuss the biological mechanisms that orchestrate the response, when the stress response goes from good to bad, and strategies for coping with stress in college.
For millennia, viral pathogens have been infiltrating the human population causing widespread disease and from their history we can better understand the outbreaks that currently burden mankind. This course takes a case-study approach to introduce students to the world of infectious disease by investigating outbreaks that have occurred throughout the globe during the 20th and 21st centuries. During this course, students will explore basic microbiology principles from the unique perspective of global health and epidemiology. Key topics cover the emergence, pathogenesis, control, and socioeconomic effects of viral pandemics, including Ebola, HIV, influenza, and SARS-CoV-2.
The molecular machines of our cells comprise the enzymes, receptor molecules and ion channels which use chemical energy to generate motion. These tiny machines silently work away to keep you breathing, your blood circulating and cells dividing to help you grow. These are essential for your survival yet you do not need conscious efforts to keep them going when you are awake or when you are asleep. In this course we will learn how do these molecular machines keep going and what happens if they pause. Finally we will look into pharmacological strategies that can target these molecular machines to make sure you keep going even when you are asleep.
Unsubstantiated claims about COVID-19 and vaccines circulate as rapidly as the SARS-CoV-2 virus, and they can be just as serious. How can you distinguish pseudoscience from real science? How can you make well-informed decisions about your health if you don’t know immunology? The answer is that you become science literate … capable of asking questions, finding scientifically reputable sources, determining answers, and engaging in productive social conversations based on your informed views. This course will teach students how to evaluate scientific claims and make science-informed views. It will provide a foundation of basic understanding of the immunology of vaccines and the COVID-19 pandemic. Students will apply science literacy skills by exploring a sociocultural issue of the pandemic, such as vaccine hesitancy, and communicating their informed views.
From the current COVID-19 pandemic to Romaine lettuce recalls, pathogens make the news when there are outbreaks, but researchers are always studying these disease-causing microorganisms and rely upon a variety of cell-based and animal models to do so. In this course, students will explore the basics of bacterial pathogenesis, the models that scientists use to learn about pathogens, and the benefits, limitations, and ethics associated with these models. As students explore these topics week by week, they will also learn to read and understand primary literature as we work through relevant sections of a representative primary research article in class. By the end of the course, students will be equipped to present a primary research article of their choice, addressing the topics covered in the course.
Student Feedback
Random responses from students who were asked if they would recommend the seminar to other students:
- "I definitely would. It piqued my interest in marine life. The lecturer was instrumental in doing that."
- "Yes, it’s a great foundation-builder in biological research skills!"
- "Yes. This course helped me feel less intimidated by scientific papers, introduced me to a variety of topics, and helped me understand the general format of scientific papers required by different journals."
- "Yes I would recommend the course, it was very informative and would especially benefit anyone with an interest in botany or pharmaceuticals."
"I would definitely recommend this course to others. Not only did it help me understand some medical issues seniors have to face, it also helped me understand the economics of the US healthcare system. This class also exposed me to concepts I have never touched upon and it was interesting."
- "It was good to study a variety of topics chosen by students who had an interest in them. An awesome idea for a course – combining both discussion of papers and practical laboratory skills."
- "Yes, but only to those people who are serious about majoring in science and who want to improve their communication skills (i.e., as they present)."
- "Yes. It’s a great experience in a wide range of areas/skills. I definitely would, it is a great way to learn a bit about microbiology. I really was not thinking about taking microbio but I think I will now."
Goals
- Increase the opportunity for students to have a meaningful interaction with a biologist
- Perpetuate excitement in studying biology
- Develop critical thinking skills by exploring topics in the biological sciences (review at least one scientific paper)
- Increase sense of community by expanding social and academic networks
- Learn the value of collaborative learning
- Discuss ethical issues in science