It is perhaps impossible to experience a day without plants. From the air we breathe, the bed we sleep in, the soap we wash with and clothes we put on, to the foods we consume and the medicines we take, we are very much dependent upon plants and their products. Through a combination of lecture, discussion, and observation, we will explore how, why, and when plants became vital to people and their societies. Several economically important plant groups will be studied, including those that provide food and beverages, medicines and narcotics, spices, perfumes, fuels, and fiber. What are the characteristics of these groups enabling their exploitation, and what is the history of these associations? How and when were plants domesticated and what are the consequences of large-scale agriculture? What impacts do human population growth and habitat destruction have on the ways that people interact with plants now and in the future? Finally, we will explore the role of technology in efforts to both improve and synthesize plant products. Three classroom hours per week. Two local field trips.
Limited to 26 students. This course is for non-majors. Students majoring in Biology will be admitted only with permission from the instructor. Fall semester. Lecturer Levin.
2023-24: Not offeredInfection by contagious microorganisms remains a leading cause of death in many parts of the world. This course will explore the biological mechanisms of infectious diseases, as well as the challenges associated with fighting their emergence and spread. We will focus on diseases of global health importance, such as HIV/AIDS, cholera, and tuberculosis, to discuss the strategies pathogens have evolved that ensure their successful transmission. In light of their ability to effectively outwit our own immune systems, we must devise new means to overcome these disease-causing microbes. Here, the challenges are legion. We will see that the answer lies not only with an understanding of biology to formulate treatments and prevention measures, but this knowledge must be integrated with awareness of complex societal issues to inform and implement solutions. Discussions will focus upon the many perspectives from which infectious diseases are encountered, drawing on resources from the literature on microbiology, ethics, and policy, as well as personal accounts and current news stories. Three hours of lecture and discussion per week. This course is for non-science majors and will not count toward the Biology major.
Limited to 40 students. Spring semester. Professor Purdy.
2023-24: Not offered(Offered as BIOL 251 and BCBP 281) A study of the molecular mechanisms underlying the transmission and expression of genes. DNA replication and recombination, RNA synthesis and processing, and protein synthesis and modification will be examined. Both prokaryotic and eukaryotic systems will be analyzed, with an emphasis upon the regulation of gene expression. Application of modern molecular methods to biomedical and agricultural problems will also be considered. The laboratory component will focus upon recombinant DNA methodology. Four classroom hours and four hours of laboratory per week.
Requisite: BIOL 191 or equivalent. Limited to 30 students. Not open to first-year students. Fall semester. Professor Qi.
2023-24: Not offeredMicrobes inhabit the world's oceans, deserts, lakes, soils, and atmosphere, and play a vital role in the Earth's biogeochemical cycles. As humans, we harbor a diverse microbial flora estimated to outnumber our own human cells. During this course, we will explore this microbial world by investigating the structure, physiology, genetics, and evolution of microorganisms with a focus on bacteria, but including discussions of archaea, viruses, and microbial eukaryotes. The goal of the course is to gain an understanding of the unique properties of microbes that enable their persistence and diversification. We will also pay special attention to microbial interactions with eukaryotic organisms, by studying both host and microbe contributions to virulence, mutualism, and symbiotic relationships. Laboratory exercises will include explorations of microbial functions and diversity in a variety of contexts using both classical and molecular approaches. Three hours of lecture, three hours of laboratory and one hour of discussion per week.
Requisite: BIOL 181 and 191. Limited to 28 students. Not open to first-year students. Fall semester. Professor Purdy.
2023-24: Not offeredMost biodiversity on our planet can be found in tropical latitudes. Tropical rainforests, for example, which account for less than 10% of the Earth’s surface, may contain 50-75% of all plant and animal species. This course will examine some of the myriad biotic interactions that occur in the tropics using an ecological, evolutionary, and behavioral approach. The course will also touch on important applied issues such as reforestation, sustainable agriculture, and ecotourism. In order to provide students with greater first-hand knowledge, the course will begin with a 2-3 week field trip to Costa Rica (at an additional cost to students; financial aid available; all interested students should contact Professor Clotfelter regardless of financial circumstances) during the January Interterm. The field component will focus on three habitat types: lowland tropical forests, montane cloud forests, and tropical dry forests. While in Costa Rica, we will utilize the expertise of local specialists to learn more about taxonomic groups that are particularly significant in the tropics, such as bats, ants, and epiphytic plants. Students will conduct independent research projects during the field component of the course, as well as a written and oral project during the seminar component of the course. Three hours per week.
Requisite: Two or more of the following courses: Biology 181, 230, 281 or 320/321. Not open to first-year students. Limited to 12 students. Spring semester. Professor Clotfelter.
Perhaps no subject in biology is as troublesome (or as fraught with contradictions) as sex. Why should organisms devote so much of their time and energy to attracting mates, when they can reproduce much more efficiently by cloning themselves? Similarly, why not pass on all your genes, rather than just half? Darwin was among the first to realize that competition for mates is sometimes as important as competition for survival. Sex is an exceedingly powerful ecological and evolutionary force, responsible for generating a tremendous diversity of morphologies and behaviors. In this course, we will draw upon examples from microbes to mosses to mammals in order to address these most basic biological questions: Why did sex evolve and what are its consequences? Three hours of lecture and one hour of discussion per week.
Limited to 30 students. This course is for non-majors. Students majoring in Biology, Chemistry, or Psychology will be admitted only with permission from the instructor. Omitted 2013-14. Professor Miller.
2023-24: Not offeredAn introduction to the evolution, ecology, and behavior of organisms and how these relate to the diversity of life. Following a discussion of the core components of evolutionary theory, we'll examine how evolutionary processes have shaped morphological, anatomical, physiological, and behavioral adaptations in organisms that solve many of life's problems, ranging from how to find or acquire food and avoid being eaten, to how to attract and locate mates, and how to optimize reproduction throughout a lifetime. We'll relate and compare characteristics of animals, plants, fungi, protists, and bacteria, examining how and why these organisms have arrived at various solutions to life's problems. Laboratory exercises will complement lectures and will involve field experiments on natural selection and laboratory studies of vertebrates, invertebrates and plants. Four classroom hours and three laboratory hours per week.
Spring semester. Professors Clotfelter, Miller, and Levin, and Lab Coordinator Emerson.
Other years: Offered in Spring 2012, Spring 2013, Spring 2014, Spring 2015, Spring 2016, Spring 2017, Spring 2018, Fall 2018, Fall 2021, Fall 2022, Fall 2023, Fall 2024An introduction to the molecular and cellular processes common to life with an emphasis on control of energy and information flow. Central themes include metabolism, macromolecular function, and the genetic basis of cellular function. We examine how membranes work to establish the internal composition of cells, how the structure of proteins including enzymes affects protein function, how energy is captured, stored and utilized by cells, and how cells communicate, move and divide. We explore inheritance patterns and underlying molecular mechanisms of genetics, the central dogma of information transfer from DNA replication to protein synthesis, and recombinant DNA methods and medical applications. Laboratories include genetic analyses, enzyme reaction kinetics, membrane transport, and genomic analysis. Four classroom hours and three laboratory hours per week.
Requisite: Prior completion of, or concurrent registration in, CHEM 161. Fall semester. Professors Goutte and Poccia and Lab Coordinator Emerson.
Other years: Offered in Fall 2011, Fall 2012, Fall 2013, Fall 2014, Fall 2015, Fall 2016, Fall 2017, Fall 2018, Spring 2019, Fall 2022, Spring 2023, Fall 2023, Fall 2024, Spring 2025In their diverse forms, plants play the role of sustaining life on Earth. Plants are also tractable research models, which have facilitated many scientific discoveries and illustrate different approaches to studying organismal biology. This course will strongly integrate lecture, laboratory and field-based material to address plant biology as a foundational discipline in the life sciences. We will include studies on the structures and adaptations that reflect diverse life histories and ecologies, with experimental exercises and work in natural populations. The course will have two three-hour meetings per week with lectures followed by laboratory or field work.
Requisite: BIOL 181. Limited to 16 students. Fall semester. Professor Hood.
2023-24: Not offeredHow can a single cell, the fertilized egg give rise to all the specialized cells of an adult? What gives rise to biological form? What is the molecular logic of the pathways that progressively refine cellular identities? How do cells "talk" to one another so as to coordinate their behaviors as embryos develop form and function? How can parts of an organism be regenerated with only the appropriate regions remade, structured identically to the missing ones? How does a stem cell differ from a non-stem cell? How can genetically identical organisms be cloned? An integrative study of the development of animals, leading to the formulation of the principles of development, including an introduction to experimental embryology and developmental physiology, anatomy, genetics and "evo-devo." Laboratory work explores embryonic development and regeneration in amphibians, sea urchins, nematodes, flatworms, fruit flies, fish, and chickens. Four classroom hours and three hours of laboratory per week.
Requisite: BIOL 191. Omitted 2013-14. Professor Poccia.
2023-24: Not offered(Offered as BIOL 230 and ENST 210.) A study of the relationships of plants and animals (including humans) to each other and to their environment. We'll start by considering the decisions an individual makes in its daily life concerning its use of resources, such as what to eat and where to live, and whether to defend such resources. We'll then move on to populations of individuals, and investigate species population growth, limits to population growth, and why some species are so successful as to become pests whereas others are on the road to extinction. The next level will address communities, and how interactions among populations, such as competition, predation, parasitism, and mutualism, affect the organization and diversity of species within communities. The final stage of the course will focus on ecosystems, and the effects of humans and other organisms on population, community, and global stability. Three hours of lecture per week.
Requisite: BIOL 181 or ENST 120 or equivalent. Not open to first-year students. Limited to 65 students. Fall semester. Professor Temeles.
Other years: Offered in Spring 2012, Fall 2012, Fall 2013, Fall 2014, Fall 2015, Fall 2016, Fall 2017, Fall 2018, Spring 2019, Spring 2020, Fall 2020, Fall 2021, Spring 2023, Fall 2024This course will explore the application of genetic analysis toward understanding complex biological systems. Scientists often turn to the study of genes and mutations when trying to decipher the mechanisms underlying such diverse processes as the making of an embryo, the response of cells to their environment, or the defect in a heritable disease. By reading papers from the research literature, we will study in detail some of the genetic approaches that have been taken to analyze certain molecular systems. We will learn from these examples how to use genetic analysis to formulate models that explain the molecular function of a gene product. The laboratory portion of this course will include discussions of the experimental approaches presented in the literature. Students will apply these approaches to their own laboratory projects. Three hours of lecture and four hours of laboratory per week; the laboratory projects will require additional time outside of class hours.
Requisite: BIOL 191. Limited to 24 students. Not open to first-year students. Spring semester. Professor Goutte.
2023-24: Not offeredThis course will examine the function of tissues, organs, and organ systems, with an emphasis on the relationship between structure and function. Building outward from the level of the cell, we will study bodily processes including respiration, circulation, digestion and excretion. In addition, the course will address how different organisms regulate these complex processes and how ion and fluid balance is maintained. We will also study the nervous system in the context of sensory systems, focusing on how external stimuli are transformed into meaningful neuronal signals and processed by the brain. Weekly discussions will include readings from primary literature. Four classroom hours per week.
Requisite: BIOL 191 and either BIOL 181 or NEUR 226. Omitted 2013-14. Professor Trapani.
Other years: Offered in Fall 2011, Spring 2013, Spring 2017, Spring 2021, Fall 2021, Spring 2025Shaped by millions of years of natural and sexual selection, animals have evolved myriad abilities to respond to their biotic and abiotic environment. This course examines animal behavior from both a mechanistic and a functional perspective. Drawing upon examples from a diverse range of taxa, we will discuss topics such as sensory ecology, behavioral genetics, behavioral endocrinology, behavioral ecology and sociobiology. Three classroom hours and four laboratory hours per week; the laboratory projects will require additional time outside of class hours.
Requisite: BIOL 181. Limited to 24 students. Not open to first-year students. Fall semester. Professor Clotfelter.
Other years: Offered in Fall 2011, Fall 2013, Fall 2022, Fall 2023(Offered as BIOL 291 and BCBP 291) An analysis of the structure and function of cells in plants, animals, and bacteria. Topics to be discussed include the cell surface and membranes, cytoskeletal elements and motility, cytoplasmic organelles and bioenergetics, the interphase nucleus and chromosomes, mitosis, meiosis, and cell cycle regulation. Four classroom hours and three hours of laboratory per week.
Requisite: BIOL 191 and completion of, or concurrent registration in, CHEM 161. Limited to 24 students. Spring semester. Professor Poccia.
Other years: Offered in Spring 2012, Spring 2013, Spring 2014, Spring 2015, Spring 2016, Spring 2017, Spring 2018, Spring 2019, Spring 2023, Fall 2023, Fall 2024(Offered as BIOL 301 and NEUR 301.) An analysis of the molecules and molecular mechanisms underlying nervous system function, development, and disease. We will explore the proteins that contribute to the unique structure and function of neurons, including an in-depth analysis of synaptic communication and the molecular processes that modify synapses. We will also study the molecular mechanisms that control brain development, from neurogenesis, neurite growth and synaptogenesis to cell death and degeneration. In addition to analyzing neural function, throughout the course we will also study nervous system dysfunction resulting when such molecular mechanisms fail, leading to neurodevelopmental and neurodegenerative disease. Readings from primary literature will emphasize current molecular techniques utilized in the study of the nervous system. Three classroom hours and three hours of laboratory per week.
Requisite: BIOL 191 and CHEM 161. Limited to 24 students. Omitted 2013-14. Professor Graf.
Other years: Offered in Fall 2011, Fall 2014, Fall 2015, Fall 2016, Spring 2020, Spring 2021, Spring 2022, Fall 2023, Fall 2024(Offered as BIOL 310 and BCBP 310.) This course will concentrate on the structure of proteins at the atomic level. It will include an introduction to methods of structure determination, to databases of structural information, and to publicly available visualization software. These tools will be used to study some class of specific structures, (such as membrane, nucleic acid binding, regulatory, structural, or metabolic proteins). These proteins will provide the framework for discussion of such concepts as domains, motifs, molecular motion, structural homology, etc., as well as addressing how specific biological problems are solved at the atomic level. Four classroom hours per week plus one hour discussion .
Requisite: BIOL 191 and CHEM 161; CHEM 221 would be helpful but is not required. Limited to 20 students. Omitted 2013-14. Professor Williamson.
2023-24: Not offeredRequisite: BIOL 181; BIOL 191 recommended. Limited to 14 students. Not open to first-year students. Fall semester. Professor Miller.
Evolution is a powerful and central theme that unifies the life sciences. In this course, emphasis is placed on microevolutionary mechanisms of change, and their connection to large-scale macroevolutionary patterns and diversity. Through lectures and readings from the primary literature, we will study genetic drift and gene flow, natural selection and adaptation, molecular evolution, speciation, the evolution of sex and sexual selection, life history evolution, and inference and interpretation of evolutionary relationships. The laboratory investigates evolutionary processes using computer simulations, artificial selection experiments, and a semester-long project that characterizes phenotypic breeding relationships among individuals and integrates these results with analyses of molecular sequence variation for genes contributing to mating recognition. Three hours of lecture, one hour of discussion and four hours of laboratory work each week.
Requisite: BIOL 181; BIOL 191 recommended. Limited to 16 students. Not open to first-year students. Omitted 2013-14. Professor Miller.
Other years: Offered in Fall 2011, Fall 2012, Spring 2016, Spring 2017, Spring 2019(Offered as BIOL 331, BCBP 331, and CHEM 331.) Structure and function of biologically important molecules and their role(s) in life processes. Protein conformation, enzymatic mechanisms and selected metabolic pathways will be analyzed. Additional topics may include: nucleic acid conformation, DNA/protein interactions, signal transduction and transport phenomena. Four classroom hours and four hours of laboratory work per week. Offered jointly by the Departments of Biology and Chemistry. A student may not receive credit for both BCBP/BIOL/CHEM 331 and CHEM 330.
Requisite: CHEM 221 and BIOL 191; or consent of the instructor. CHEM 231 is a co-requisite. Spring semester. Limited to 45 students. Professor Bishop (Chemistry) and Professor Qi (Biology).
Other years: Offered in Spring 2012, Spring 2013, Spring 2014, Spring 2015, Spring 2016, Spring 2017, Spring 2018, Spring 2019, Fall 2019, Fall 2020, Fall 2021, Fall 2022, Fall 2023, Fall 2024(Offered as BIOL 351 and NEUR 351.) This course will provide a deeper understanding of the physiological properties of the nervous system. We will address the mechanisms underlying electrical activity in neurons, as well as examine the physiology of synapses; the transduction and integration of sensory information; the function of nerve circuits; the trophic and plastic properties of neurons; and the relationship between neuronal activity and behavior. Laboratories will apply electrophysiological methods to examine neuronal activity and will include experimental design as well as analysis and presentation of collected data. Throughout the course, we will focus on past and current neurophysiology research and how it contributes to the field of neuroscience. Three classroom hours and three hours of laboratory work per week.
Requisites: BIOL 191 and CHEM 151; PHYS 117 or 124 is recommended. Limited to 24 students. Open to juniors and seniors. Fall semester. Professor Trapani.
2023-24: Not offeredThe immune response is a consequence of the developmentally programmed or antigen-triggered interaction of a complex network of interacting cell types. These interactions are controlled by regulatory molecules and often result in the production of highly specific cellular or molecular effectors. This course will present the principles underlying the immune response and describe the methods employed in immunology research. In addition to lectures, a program of seminars will provide an introduction to the research literature of immunology. Three classroom hours per week.
Requisite: BIOL 191, 251, 291, 331 or permission from the instructor. Limited to 25 students. Spring semester. Professor Goldsby.
2023-24: Not offeredA study of the architecture and interactions of genetic systems. Advances in genomics are providing insights into a variety of important issues, from the structural limits of DNA-based inheritance to the discovery of novel infectious and genetic diseases. We will address how heritable information is organized in different groups of organisms. We will also cover a major challenge of this emerging field--the application of vast amounts of genetic data to understanding genomic integrity and regulation. We will critically assess the genome as a "cooperative assemblage of genetic elements" and conclude by discussing the consequences of genomic structure for shaping species traits and long-term evolutionary potential. Three hours of lecture per week.
Requisite: BIOL 181 and 191. This course is designed as an overflow class for those who cannot take BIOL 381 and the combined enrollment for these courses will be 30 students. Spring semester. Professor Hood.
Other years: Offered in Spring 2012, Spring 2013, Spring 2014, Spring 2017, Spring 2018, Spring 2020, Spring 2021, Spring 2022, Spring 2025A study of the architecture and interactions of genetic systems. Advances in genomics are providing insights into a variety of important issues, from the structural limits of DNA-based inheritance to the discovery of novel infectious and genetic diseases. We will address how heritable information is organized in different groups of organisms. We will also cover a major challenge of this emerging field--the application of vast amounts of genetic data to understanding genomic integrity and regulation. We will critically assess the genome as a "cooperative assemblage of genetic elements" and conclude by discussing the consequences of genomic structure for shaping species traits and long-term evolutionary potential. Three hours of lecture, and three hours of laboratory per week. Lab activities will require work outside of the scheduled meeting times.
Requisite: BIOL 181 and 191. Limited to 18 students. Spring semester. Professor Hood.
2023-24: Not offeredThe majority of organisms on earth cause disease or are parasitic, and it could be said that a thorough understanding of biology should necessarily involve the study of infectious disease. Yet only within the past two decades has there been a realization that diseases may regulate populations, stabilize ecosystems, and be responsible for major biological features such as reproductive systems or genomic structures. Disease is of course responsible for large amounts of human misery and death, and it is all the more remarkable that our understanding of disease as an ecological and evolutionary force is in its infancy. In this course we will discuss our historical and current understandings of infectious disease biology. We will include studies of human, animal, and plant diseases, as well as their impacts on wild and domestic populations. Three classroom hours per week.
Requisite: BIOL 230 or 321 or permission from the instructor. Limited to 15 students. Omitted 2013-14. Professor Hood.
2023-24: Not offeredIn this seminar, we will examine the molecular mechanisms that underlie a broad range of interactions between diverse bacterial species and their multicellular hosts. We will begin the course by exploring the complex molecular "conversations" that help establish mutually beneficial symbiotic relationships. These often involve exchange of metabolites, small molecules, and other cellular components that lead to drastic changes in the physiology, development, and gene expression of both the host and microbial partners. While many examples of such positive interactions exist in nature, as humans, we are perhaps most aware of the bacterial world as a source of disease-causing pathogens. In this context, we will then explore mechanisms of bacterial pathogenesis and draw parallels with mutualistic interactions discussed earlier. We will focus on bacterial pathogens of humans, particularly as they must survive in the presence of sophisticated innate and adaptive immune responses. This course will rely extensively on readings from the primary literature and will involve a research project and oral presentations. Three hours per week.
Requisite: BIOL191 and either BIOL 271 or permission of the instructor. Limited to 15 students. Spring semester. Professor Purdy.
2023-24: Not offeredThis course will explore the relationship between an animal's behavior and its social and ecological context. The topic for this semester will be the evolution of sexual dimorphism in animals. Sexual dimorphism is widespread in animals, yet its causes remain controversial and have generated much debate. In this seminar, we will examine a variety of sexual dimorphisms in different groups of animals and consider hypotheses for how these sexual dimorphisms may have evolved. We will then consider how such hypotheses are tested in an attempt to identify the best approaches to studying the evolution of sexual dimorphisms. Then we will look at evidence that either supports or refutes various hypothesized mechanisms for the evolution of sexual dimorphisms in different animal groups. Finally, we will consider whether some mechanisms for the evolution of sexual dimorphism are more common among certain kinds of organisms (predators) than others (herbivores). Three hours per week.
Requisite: One or more of BIOL 181, 230, 281, 321 or consent of the instructor. Not open to first-year students. Limited to 14 students. Fall semester. Professor Temeles.
2023-24: Not offeredThe topic is the ecology and evolution of plant-animal interactions. Most animals on Earth obtain their energy from green plants, and thus it is not surprising that interactions between plants and animals have played a prominent role in our current understanding of how ecological processes such as predation, parasitism, and mutualism shape evolutionary patterns in plants and animals. In this course we will start our analysis with a consideration of how plant-animal relationships evolve by studying examples from both extant systems and the fossil record. Next we will examine the different kinds of plant-animal interactions (pollination, seed dispersal, seed predation, and herbivory, to mention a few) that have evolved on our planet, and the ecological processes promoting reciprocal evolution of defenses and counter-defenses, attraction, and deceit. Finally, we will turn our attention to global change and the implications of human alteration of the environment for the future of plant-animal relationships, such as pollination, which are of vital importance to life on Earth. Three classroom hours per week.
Requisite: BIOL 230 or 321 or permission from the instructor. Limited to 14 students. Not open to first-year students. Omitted 2013-14. Professor Temeles.
2023-24: Not offeredConservation biology is a highly interdisciplinary field, requiring careful consideration of biological, economic, and sociological issues. Solutions to biodiversity conservation and environmental challenges are even more complex. Yet, conservation is a topic of timely importance in order to safeguard biological diversity. Utilizing articles from the primary literature, course topics will include invasive species, restoration, climate change, and biodiversity banking, as well as how to determine appropriate conservation priorities. Three classroom hours per week.
Requisite: BIOL 230 or permission of the instructor. Not open to first-year students. Limited to 14 students. Fall semester. Lecturer Levin.
2023-24: Not offered(Offered as BIOL 450 and NEUR 450.) Concentrating on reading and interpreting primary research, this course will focus on classic and soon-to-be classic neurophysiology papers. We will discuss the seminal experiments performed in the 1950s that led to our understanding of action potentials; experiments in the 1960s and 1970s that unlocked how synapses function; and more recent research that combines electrophysiology with optical methods and genetic techniques to investigate the role of many of the molecular components predicted by the work from the earlier decades. Assignments will include written reviews of literature as well as oral presentations.
Requisite: PHYS 117 or PHYS 124 and one of NEUR 226, BIOL 260, BIOL 351, or consent of the instructor. Limited to 15 students. Not open to first-year students. Omitted 2013-14. Professor Trapani.
2023-24: Not offeredWith the completion of the sequencing of the human genome, where does science go now? Many scientists have chosen to investigate our genome at the level "above genetics," or Epigenetics. Epigenetic changes are not coded in the DNA sequence, yet they are heritable through mitotic or meiotic cell divisions. Epigenetics is an exciting field of science that is beginning to explain the unexpected. Why are identical twins not perfect "clones" of each other? Why are even cloned animals not perfect "clones"? Why does a deletion on chromosome 15 cause Prader-Willi syndrome when the deletion occurs on the paternally inherited chromosome, but the entirely different Angelman syndrome when the deletion occurs on the maternally inherited chromosome? Epigenetic phenomena have been noted for decades, and seemingly disparate observations are only now coalescing into a field of Biology. Your textbook "Epigenetics" is the first of its kind, and is written by over 40 leaders in the fields of gene expression, chromosome structure, and chromatin dynamics. This seminar style junior/senior level course will allow students to present research articles, discuss the literature, write a grant application, and review their peers’ grant applications in a mock study section. Three hours per week.
Requisite: BIOL-241, BIOL-251, BIOL-380, BIOL-381 or permission of the instructor. Limited to 15 students. Spring semester. Professor Drewell.
2023-24: Not offeredHonors students take three courses of thesis research, usually, but not always, with the double course load in the spring. The work consists of seminar programs, individual research projects, and preparation of a thesis on the research project.
Open to seniors. Spring semester. The Department.
Other years: Offered in Spring 2012, Spring 2013, Spring 2014, Spring 2015, Spring 2016, Spring 2017, Spring 2018, Spring 2019, Spring 2020, Spring 2021, Spring 2022, Spring 2023, Spring 2025Independent reading or research courses. Half course as arranged. Does not normally count toward the major.
Fall and spring semesters.
Other years: Offered in Fall 2022, Fall 2023, Fall 2024, Spring 2025