Course:
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BIO 102 Food
Microbiology |
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Professor:
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Gabriel Perron |
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CRN: |
15320 |
Schedule/Location: |
Fri 12:30 PM
– 4:30 PM Reem Kayden Center 111/112 |
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Distributional Area: |
LS Laboratory Science |
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Credits: 4 |
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Class cap: 16 |
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In this course designed for non-majors, we will study the
microorganisms that inhabit, create, or contaminate food. The first half of the
course will introduce students to topics in food safety such as food spoilage, food
borne infections, and antibiotic resistance. In the second half of the course,
students will learn how to harness the capabilities of the many microbes
present in our environment to turn rotting vegetables or spoiling milk into
delicious food. Students will also learn how next-generation technologies are
revealing the important ecological dynamics shaping microbial communities in
transforming food with possible beneficial effects on human health. Throughout
the course, students will learn how to design, conduct, and analyze simple
experiments while working with microbiology techniques, including DNA
sequencing. No prerequisite.
Course:
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BIO 115 Genetics
and Identity |
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Professor:
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Michael Tibbetts |
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CRN: |
15317 |
Schedule/Location: |
Tue 9:10 AM
– 11:30 AM Reem Kayden Center 111/112 Thurs 8:30 AM
– 11:30 AM Reem Kayden Center 111/112 |
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Distributional Area: |
LS Laboratory Science D+J Difference and Justice |
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Credits: 4 |
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Class cap: 16 |
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This course will explore the biological bases of three
aspects of the human condition, which are to varying degrees, also social
constructs: race, gender and sexuality. In particular, we will explore human
evolution and our current understanding of how genetics and the environment
interact to generate the variation we observe in these human characteristics.
Readings and discussions will be used to explore the relationships among the
biological concepts, how we self-identify and how others categorize us. In the
laboratory we will explore the way science examines and measures the variation
we see in these ‘traits’. Prerequisite: High School level biology.
Course:
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BIO 136 Natural
History of the Hudson Valley |
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Professor:
|
Patricia Kaishian |
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CRN: |
15318 |
Schedule/Location: |
Tue Fri 1:30 PM
– 2:50 PM Reem Kayden Center 103 Wed 3:30 PM – 6:30
PM Reem Kayden Center 114/115 |
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Distributional Area: |
LS Laboratory Science |
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Credits: 4 |
|
Class cap: 16 |
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This course is appropriate for non-majors and interested
biology majors, but does not fulfill 100-level curricular requirements for
majors. It is designed to train students in the field, lab and museum skills of
natural historians and to teach them how to identify plants and animals of the
Hudson Valley, both in the wild and in the lab. The lecture portion of the
class will introduce students to concepts in systematics and taxonomy, the
history of natural history, the value of natural history to science, and how
citizen science is exploiting crowdsourcing of natural history data. The laboratory portion of the course will
focus on teaching students how to identify plants, birds, amphibians, aquatic
and terrestrial insects, and fish. Students will learn how to use binoculars,
dissecting scopes, traps, nets and other tools to visualize or capture
specimens, and use field guides, phone apps, dichotomous keys and other
resources to identify them. Field trips will take place on campus, in the
Tivoli Bays Wildlife Management Area, and at several off campus locations
throughout the Hudson Valley where students will practice their identification
skills, collect specimens, and interact with naturalists from outside the Bard
community. Students will build and
curate their own insect and plant collections that will be added to Bard’s
existing collections, use natural history information to answer some basic
questions about the distribution and abundance of a species they choose, and as
a final project they will create a natural history guide for a focal taxonomic
group of their choice.
Course:
|
BIO 170 Course-Based
Research: Disease Ecology |
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Professor:
|
Cathy Collins |
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CRN: |
15319 |
Schedule/Location: |
Tue Thurs 1:30 PM
– 4:30 PM Reem Kayden Center 111/112 |
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Distributional Area: |
LS Laboratory Science |
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Credits: 4 |
|
Class cap: 16 |
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This is a Course-based Research Experience (CRE), in which
students participate in the primary research program of a Bard biology
professor. As participants in an immersive research experience, students will
ask and address questions to which the answers are unknown. The process of
discovery involves delving into the biological premise of the research
question, designing a study to address the question, then collecting and
interpreting data. Working collaboratively across a semester allows students
the time for the trial-and-error inherent to the scientific process. In this CRE, students will explore the
concept of pathogen niche breadth. Many pathogens specialize on a single
species of plant or animal. However, some pathogens that live in the soil
appear to be capable of killing multiple species of plant seeds. Knowing more
about these pathogens can help us understand the role disease plays in
maintaining (or degrading) plant biodiversity. Furthermore, because humans
alter landscapes in ways that impact the identity and abundance of soil
pathogens, human disturbance and disease may interact to negatively affect the
biodiversity of plant communities. Student groups will focus on a unique fungal
taxon collected from a disturbed landscape, conduct experiments to determine
whether that fungus is a pathogen, and characterize it as a host-generalist or
a host-specialist. Assessments will include assignments aimed to hone research
skills such as interpreting the primary literature, conducting experiments,
interpreting data, and communicating novel results. This course is appropriate
for students intending to major in biology and interested in gaining research
experience.
Course:
|
BIO 171 Tree of
Life |
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Professor:
|
Patricia Kaishian |
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CRN: |
15330 |
Schedule/Location: |
Mon Wed 10:10 AM
– 11:30 AM Reem Kayden Center 103 Mon 2:00 PM – 5:00 PM Reem Kayden Center 114/115 |
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Distributional Area: |
LS Laboratory Science |
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Credits: 4 |
|
Class cap: 16 |
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Starting from the adage, “nothing in biology makes sense except
in light of evolution” (Theodosius Dobzhansky), this course will focus on
taxonomy and systematics and the embedded evolutionary concepts therein. What
is a species? How are they named? Who gets to decide? This course will explore
how species emerge and how scientists name, classify, and organize species.
From the molecular level to the global scale, we will explore the
methodological and theoretical underpinnings of taxonomy/systematics, all of
which will be rooted in the fundamentals of evolutionary biology. Taxonomy is
foundational not only to organismal biology, but fields ranging from medicine
to conservation biology, and more. Our labs will involve empirical work
studying a new and undescribed species, exposure to molecular techniques, and
using data sets to build phylogenetic trees. This course will be appropriate
for students pursuing a major in Biology.
Course:
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BIO 201 Genetics
and Evolution |
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Professor:
|
Brooke Jude |
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CRN: |
15321 |
Schedule/Location: |
Mon Wed 8:30 AM – 11:30
AM Reem Kayden Center 111/112 |
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Distributional Area: |
LS Laboratory Science |
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Credits: 4 |
|
Class cap: 16 |
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Crosslists: Global Public Health; Mind, Brain, Behavior |
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This course is an introduction to the mechanisms of
inheritance and the generation of diversity in eukaryotic and prokaryotic
organisms. This course takes a modern
approach to the study of genetics in which classical ideas about genotype,
phenotype and inheritance are integrated into the modern molecular and genomic
understanding of the processes involved in the generation of diversity. In addition to discussions of the molecular
mechanisms involved in DNA replication,
recombination, the generation and repair of mutations, and the
relationship between genotype and phenotype, special consideration is given to
our understanding of the processes involved in generating population-level
variation in complex traits and how this understanding can help us identify the
myriad genetic and non-genetic factors influencing these traits. The laboratory consists of several projects
focused on genetics of distinct model systems to address one or more topics in
the course. Prerequisite: One biology
course at the 140 level or higher.
Course:
|
BIO 202 Ecology and
Evolution |
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Professor:
|
Felicia Keesing |
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CRN: |
15322 |
Schedule/Location: |
Wed Fri 8:30 AM
– 11:30 AM Reem Kayden Center 114/115 |
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Distributional Area: |
LS Laboratory Science |
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Credits: 4 |
|
Class cap: 16 |
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Crosslists: Environmental & Urban Studies |
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This core course for biology majors is an introduction to the
general principles of ecology and evolution that, with genetics, form the core of
biological understanding. In addition to studying foundational ideas in both
ecology and evolution, we will explore modern topics at the boundary between
these two areas. We will consider, for example, how genetic variation among
individual organisms can influence ecological interactions, and how these
interactions can influence fitness. We will focus on a mechanistic
understanding of processes, using model-building to inform that
understanding. Prerequisite: Successful
completion of a course in biology numbered 140 or above.
Course:
|
BIO 208 Biology
Seminar |
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Professor:
|
Cathy Collins |
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CRN: |
15323 |
Schedule/Location: |
Thurs 12:00 PM
– 1:00 PM Reem Kayden Center 103 |
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Distributional Area: |
|
|||||
Credits: 1 |
|
Class cap: 55 |
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This course will provide students with broad exposure to
biology through the biology visiting speaker seminar series. Students will hear
about the wide-ranging research interests of invited biologists and have opportunities
to interact informally with them. The course is graded Pass/Fail and students
are responsible for short follow-up assignments for at least 80% of the talks.
Recommended for all biology majors and other interested students.
Course:
|
BIO 244 Biostatistics |
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Professor:
|
Kathryn Anderson |
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CRN: |
15324 |
Schedule/Location: |
Tue Thurs 1:30 PM
– 4:30 PM Reem Kayden Center 115 |
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Distributional Area: |
MC Mathematics and Computing |
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Credits: 4 |
|
Class cap: 16 |
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Crosslists: Environmental & Urban Studies; Global Public Health; Mathematics |
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This course introduces students to the statistical methods
biologists use to describe and compare data. Students will learn methods that
are appropriate for different types of data. Topics covered include elementary
probability and statistics, characteristics of frequency distributions,
hypothesis testing, contingency tests, correlation and regression analysis,
different ways to compare means, nonparametric tests, and an introduction to
multivariate tests. This course is intended for sophomore and junior biology
majors, although it is open to students of all years. One objective of the course is to provide
biology majors the statistical background they need to analyze data for their
own senior research; biology students should take this course before their
senior year, if possible. Notice, though, that the topics in this course are
applicable to many advanced courses. Prerequisite: passing score on part I of
the Mathematics Placement and at least one introductory biology course.
Course:
|
BIO 302 Molecular
Biology |
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Professor:
|
Michael Tibbetts |
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CRN: |
15325 |
Schedule/Location: |
Tue Thurs 3:30 PM
– 4:50 PM Reem Kayden Center 102 Wed 3:30 PM
– 5:55 PM Reem Kayden Center 111/112 |
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Distributional Area: |
LS Laboratory Science |
|||||
Credits: 4 |
|
Class cap: 16 |
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This course explores molecular aspects of gene expression in both
prokaryotic and eukaryotic systems. Topics include DNA structure, replication,
and repair; DNA transcription; RNA structure and processing; and polypeptide
synthesis. The course also covers various mechanisms involved in the regulation
of gene expression. Emphasis is placed on a review of the current literature
and the experimental approaches used in modern molecular biological research.
The laboratory provides practical experience in such current techniques used in
molecular biology as molecular cloning, restriction enzyme mapping, DNA
sequencing, and nucleic acid hybridization. Prerequisites: Biology 201,
Chemistry 201 202.
Course:
|
BIO 316 Field Work
in Animal Behavior |
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Professor:
|
Bruce Robertson |
|||||
CRN: |
15326 |
Schedule/Location: |
Mon Wed 10:10 AM
– 11:30 AM Reem Kayden Center 102 Fri 8:30 AM – 11:30
AM Reem Kayden Center 111/112 |
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Distributional Area: |
LS Laboratory Science |
|||||
Credits: 4 |
|
Class cap: 16 |
||||
Crosslists: Mind, Brain, Behavior |
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Have you ever asked yourself, “Why did that animal do that?”
There are many levels at which we could seek answers, running from proximal
mechanisms (firing neurons and hormonal stimuli) through ultimate mechanisms
(the evolutionary selective pressures which produce adaptive behaviors through
natural selection). This course is primarily about the latter. In it, we seek
answers to why organisms evolve various mating strategies, what accounts for
differences in sexual characteristics and mate choice, how organisms use
signals, the information they contain, whether they signal honest information
or whether we expect to see cheaters within populations, conflicts of interest
between siblings, parents and offspring, and so on. We explore these questions
through lab and field experiments and using evolutionary game theory, which
provides the underlying framework for understanding the evolution of animal
behaviors. The lab portion of the class will allow you to learn new methods and
technologies (e.g. bioacoustic recording and analysis, avian point counts and
transects) useful in studying animal behavior, work individually and in groups
to design experiments and models to test your own hypotheses. Research will
focus on captive animals in Bard’s laboratories, wild animals on Bard’s campus
and within the surrounding natural landscape, and on captive animals housed in
a local zoo. As a capstone achievement, you will identify an important basic or
applied question in animal behavior and write a professional National Science
Foundation-style proposal advocating for the funding of a research project of
your own design. Prerequisite: moderated biology student or permission of
instructor.
Course:
|
BIO 441 Marine
Algal Biology |
|||||
Professor:
|
Kathryn Anderson |
|||||
CRN: |
15327 |
Schedule/Location: |
Mon 1:30 PM
– 4:30 PM Reem Kayden Center 200 |
|||
Distributional Area: |
|
|||||
Credits: 4 |
|
Class cap: 12 |
||||
The algae are a diverse group of organisms encompassing many
evolutionary lineages and body plans found in many of the most extreme
environments on earth. The first
evidence of life on earth comes from a unicellular prokaryotic alga. By
contrast, the secondary endosymbiosis event that led to the evolution of the
forest forming kelps didn’t occur until after there were already dinosaurs
roaming the terrestrial environment. In this weekly seminar, appropriate for
upper-level biology students, we will explore the ecology, evolution, and
modern application of this weird group through the primary literature. Topics
will include: the evolution of multicellularity, triphasic lifecycles, parallel
evolution, algal biomechanics, algae as an important food source, algae as a
tool for bioremediation, modern technical applications beyond biofuels, climate
change impacts on algal communities and many more. Weekly in-depth paper
discussions will be student-led. Through a series of writing assignments,
students will be challenged to distill complex ideas from primary literature
into pieces for the general public, as well as synthesize literature in an
original project proposal to a federal funding agency. Students must be
moderated into Biology or EUS to enroll in this course.