Biology (BIO)

An introduction to basic concepts in ecology and population dynamics, their relationships to resources, and pollution. This course is designed for non-science majors. Three lecture hours per week.

This course surveys the major challenges and advancements in biology and medicine in America and the impacts of these advancements on American society. This course is designed for non-science majors. Three lecture hours per week.

Introduces the student to the organization and function of the human body from cells to systems. Included are selected topics in the contemporary study of the human organism. This course is designed for non-science majors and fulfills one of the science prerequisites in the Childhood Education curriculum. Three lecture hours per week.

Cross-listed with: BIO-4000, BIO-5401 and PSY-4014. This course satisfies non-major, honors non-majors and major requirements. It involves classroom as well as a week field experience that includes snorkeling in the Caribbean, additional charges will apply. The ecology of marine ecosystems (estuarine, temperature and tropical coral reef) will be explored. Honors and Bio majors have extra assignments. Students may take only one of the courses.[New Course]

This integrated lecture and laboratory course will focus on the controversies surrounding modern biotechnology. Topics include reproductive technology, genetic engineering and stem cell research. Students will explore the techniques of modern biology through hands on experimentation in the laboratory. This course is designed for non-science majors. Lab fee.

Fundamental life processes as exemplified in the functioning of the human organism. Integration of structure and function in the light of homeostasis is emphasized. A systems approach is utilized with the focus on normal physiology and an introduction to pathology. Systems addressed in the first semester include cells, tissues, integument, skeletal, muscle, and nervous systems. Laboratory experiments and dissections are designed to achieve this objective. This course is designed to fulfill program requirements for non-majors, health promotion and the physical education major. Three lectures and three lab hours per week. Lab fee.

A continuation of BIO 1107 with an emphasis on cardiovascular, respiratory, digestive, urinary, endocrine, and reproductive systems. Three lectures and three lab hours per week.

Introduction to biology issues in modern society. Studies of genetic issues, pollution and energy problems, ecology, effective drugs on the individual, and contemporary issues facing today's individual.

This course is for Nursing, Occupational Therapy, Physical Therapy, and physician assistant majors. Lecture topics include animal cell structure and function, tissues, and a survey of human physiological systems. Course emphasizes cells, tissues, genetics, integument, and the musculo-skeletal and nervous systems.

This course is a corequisite laboratory experience to BIO-1140. Students will conduct experiments and examine samples to learn fundamental principles of Human Anatomy and Physiology. Topics include animal cell structure and function, tissues, and a survey of human physiological systems. Course emphasizes cells, tissues, genetics, integument, and the musculoskeletal and nervous systems. This a 3-hour lab.

Continuation of BIO 1140. Intended for Nursing, Occupational Therapy, Physical Therapy, and physician assistant majors. Topics include: cardiovascular physiology, respiratory system, lymphatic system, respiratory physiology, and the digestive, urinary, endocrine, and reproductive systems.

This course is a corequisite laboratory experience to BIO-1141. Students will conduct experiments and examine samples to learn fundamental principles of Human Anatomy and Physiology. Topics include: cardiovascular physiology, respiratory system, lymphatic system, respiratory physiology, and the digestive, urinary, endocrine, and reproductive systems. This is a 3-hour lab.

This lecture/laboratory is open to all students, but especially geared to criminal justice majors. This course will focus on the biological evidence and techniques used in forensic science. Topics include the study of evidence found at crime scenes such as blood, hair, DNA, and debris such as soil and sand, microbes, plants, insects, and other cells and tissues. Students learn about the knowledge gained from performing an autopsy with a focus on change in tissues following trauma and the sequential changes that occur in a body after death. Integrated lecture and lab for three hours each week. Biology majors may not use this course toward their major.

An introduction to biological principles, emphasizing the chemical, biological, and evolutionary underpinnings of life. Topics introduced may include macromolecules, cell structure and function, mitosis and meiosis, the chromosomal basis of inheritance, natural selection, and evolution. There is a co-requisite laboratory (BIO-1201L) which reinforces these lecture concepts via interpretation of experimental results. CHE-1201 and MAT-1105 are recommended prerequisites.

This laboratory course will emphasize and reinforce concepts discussed in the co-requisite lecture (BIO-1201). Concepts covered will emphasize the scientific method, interpretation of data from experimental outcomes, teamwork and communication, and written and oral communication skills. This laboratory will develop skills and biological knowledge needed for future biology classes at St. Francis College. This is a 4-hour lab.

This course overviews the biodiversity of life, from protists to people. Topics covered may include a march through the biodiversity of life on Earth, an introduction to the fundamentals of how bodies work, and basic tenants of ecology. A co-requisite laboratory (BIO-1202L) emphasizes these class concepts in several ways, including via a series of dissections.

This laboratory course will emphasize and reinforce concepts discussed in the co-requisite lecture (BIO-1202). Phylogenetic patterns of organismal anatomy and basics of body systems will be emphasized in a series of dissections. Teamwork, and written and oral communication skills are emphasized. This laboratory will develop skills and biological knowledge needed for future biology classes at St. Francis College. This is a 4-hour lab.

This course will focus on integrating visual art practice and scientific methods as a means of observing, understanding, interpreting and creatively responding to human driven disturbances and the restoration of nature, focusing on the urban environment and ecologies of New York City. Students will study modern and contemporary works of art responding to ecologies of undisturbed and urban environments. Readings, discussion and lab work will complement visiting speakers, and field trips. We will also consider artistic and scientific mapping of alternate ecologies such as institutional power structures. Students will be visualize their scientific observations and creative responses through drawing, graphing, 2D mixed media, mapping modelling and sculpture. Previous art experience not required.

A comparative lecture and laboratory study of the macroscopic anatomy of typical representatives of the classes of vertebrates. Three lectures and three lab hours per week.

Major invertebrate phyla with emphasis on taxonomy, structure, physiology, and ecology; field trips to selected local areas for the collection and study of representative invertebrate forms. Laboratory dissection of representative types. Three lectures and three lab hours per week.

An introduction to how organisms, communities and populations interact with each other and the non-living world around them. Topics covered may include adaptations to life in different environments, population dynamics, behavioral ecology, organismal interactions, flow of material and energy through ecosystems, and conservation. There is a co-requisite Ecology laboratory (BIO-2204L) which relates to lecture concepts while emphasizing statistical and writing skills.

Each laboratory activity will consist of an exercise designed to develop important concepts and skills related to being a practicing ecologist, and more generally, a biologist. These activities may involve multi-week investigations of various ecological problems, for which you will have input into the design of experiments and studies. Statistical and writing skills will be emphasized. This is a co-requisite to Ecology lecture (BIO-2204). This is a 3-hour lab.

A study of the light and electron microscopic anatomy of the vertebrate animal. General study of cell morphology and basic tissues is followed by a systematic examination of the body's organs. Three lectures and three lab hours per week.

A study of the process of development at the cellular molecular level as a description of the stages through which an organism attains increasing complexity. In addition to lecture, students become actively involved through discussion of primary literature and laboratory. The laboratory features vertebrate and invertebrate examples of developmental processes. Three lectures and three lab hours per week.

To introduce the basic structure and function of the cell and its organelles and how components of the cell integrate to perform complex functions such as cell communication and growth.

This is the lab component of BIO-2250 Cell Biology. The course will allow students to develop techniques such as protein assays, chromatography, and electrophoresis. This is a 3-hour lab.

Why can't whales breath underwater? Well, they evolved from land mammals, which (unlike fish) must get their oxygen from air. The fact that whale bodies look a bit like a fish has to do with natural selection for the same environmental conditions. This course will serve as an introduction to the principles of evolution, whether through natural selection or other mechanisms that relate to random chance, such as genetic drift. We will examine the basic variation needed for evolution and how it is generated through mutations. Then we will use real-world examples to examine the complexities of this topic.

This course is a corequisite laboratory experience to BIO-2280. Students will conduct research and/or experiments that investigate evolutionary principals using real data. This is a 3-hour lab.

A survey of the principal groups of microorganisms (bacteria, fungi, algae, protozoa, viruses, and rickettsiae) with emphasis on taxonomy, morphology, physiology, and their industrial and medical applications. Includes and intensive study of bacterial, rickettsial, chlamydial, algae, fungal, viral, and protozoan organisms of significance in the propagation of diseases.

This course is a corequisite laboratory experience to BIO-3300. The course provides students with practical knowledge of the fundamental principles and applications of microbiology. Students will conduct experiments that investigate the structure and function of the principal groups of microorganisms (bacteria, fungi, algae, protozoa, viruses, and rickettsiae). This is a 3-hour lab.

A survey of the principal groups of plants from the standpoint of their structure and development with intensive studies on the morphology and physiology of the angiospermae. Three lectures and three lab hours per week.

This course introduces fundamental concepts in classical and modern genetics. Topics covered in this course provide a broad overview of the field, and includes such topics as Mendelian Inheritance, viral and bacterial genetics, gene structures, gene regulation including epigenetics, cancer genetics, and introductory population and quantitative genetics.

This is the lab component of BIO-3303 Genetics. The course will supplement some of the important concepts learned through the lecture portion: Classic genetics established by Mendel and Morgan, probability calculations, gene expression, biotechnological techniques and bioinformatics. The course's practical activities aims to deepen your conceptual understanding in Genetics. This is a 3-hour lab.

Biochemical and morphological evidence underlying current models of cell structure and function. Roles of membranes in cell compartmentation, organelle structure and biogenesis, vesicle transport, secretion, cytoskeleton, motility, signaling, mitosis, and cell cycle regulation. Distinctive characteristics of differentiated mammalian cells. Laboratory experiences introduce classical and contemporary methods of cell study. Three lectures and three lab hours per week.

This is the lab component to accompany BIO-3310 Advanced Cell Biology. The course will provide practical application of the important concepts in Advanced Cell Biology. This is a 3-hour lab.

Since the discovery of DNA structure, the field of Molecular Biology has grown rapidly. Molecular Biology and related technologies have had a tremendous impact on the progress of other areas in biology in the past half century. In this course, we will learn the basic principles behind the central dogma; DNA to RNA to protein. We will also learn about the tools and technologies used in molecular biological approaches. The course is build on the board exam material to learn the clinical significance of each chapter. This course also aims to develop critical thinking skills through student-led discussions about real-life issues related to Molecular Biology.

This is the lab portion of BIO-3320 Molecular Biology. The lab component of this course consists of several hands-on activities that require sophisticated molecular and genetic approaches. Students will conduct experiments ranging from DNA-to-protein synthesis to gene knockdown. This is a 3-hour lab.

A study of the functions of vertebrate organs and organ systems, and the homeostatic mechanisms that underlie them. Included are discussions of the cellular and physiochemical bases of homeostasis. Three lectures and three lab hours per week.

Pathophysiology is the study of the human body's reaction to adverse conditions. This course will elucidate the basic changes that occur in disease states such as cellular injury, inflammation and hemodynamic changes as well as the underlying mechanisms of genetic disease, environmental disease and cancer. Disease symptoms, treatment and diagnosis will also be introduced. Students will develop critical thinking skills through engagement in problem-based learning through the use of case studies.

Cross-listed with: BIO-1102, BIO-5401 and PSY-4014. Discussion and analysis of problems in biology that are not covered in regular course work. The specific content of the course will remain flexible in response to student and departmental interest.

Marine Biology in Honduras. Course requires travel to Honduras.. Please contact Dr. Nolan, at KNolan@stfranciscollege.edu or (718) 489-5439 for additional information.

Course will include topics such as Genomics, Proteomics, and Systems Biology.

This 3 credit course will focus on the ecology, sustainability, and history of national and local parks in the NYC area. These parks include the Fire Island National Seashore, Jamaica Bay Wildlife Refuge, Ellis Island, the Tenement Museum, and the new Brooklyn Bridge Park. We will also go on a Oyster Schooner in LI. There is a fee of $550 that will cover camping in Fire Island, ferries, LIRR, and admissions to such locales as the Tenement Museum and the Oyster Schooner. It will also cover food and dorm (including camping on June 5) from June 3-10. You will read and write a book report about diseases in early NYC immigrants and keep a journal. You must register for this course by filling out a sheet signed by Dr. Nolan. Please e-mail her if interested: knolan@sfc.edu

This course is designed with two main components: A lecture component on campus at SFC and an experiential learning component that includes travel to Santa Cruz California. The course revolves around marine mammal cognition but general aspects of cognitive psychology. Topics covered will include basic experimental design, sensation/perception, intelligence and consciousness, logic, concept formation, language studies with marine mammal species, and ethics. Students will learn about and observe data collection sessions with captive, trained seals, sea lions, sea otters and dolphins. The ecology of sea lion habitat as well as marine mammal physiology will also be explored.

Parasitology is the study of how organisms can take over and harm another organism. Sometimes it can be lethal. We will study examples of protozoa, worms, and insects that parasitize both plants and animals. Lecture will focus on the mechanisms of how parasites infect hosts, and life cycles of these parasites. If there are treatments or drugs available we will learn how these work. Lab will focus on parasites of plants and animals, especially live parasites of dead fish. We will also study preserved slides and dissect whole preserved specimens, as well as conduct local field trips to a vet's office and research labs.

A survey of the cells and organs of internal secretion and their products. The endocrine secretions and their interactions will be considered as will mechanism of target signaling. Three lecture hours per week.

This course is a study of the cell biology, biochemistry, molecular biology, and histology of the human and mouse immune systems.

This course is a corequisite laboratory experience to BIO-4405. Students will conduct experiments that explore a variety of immunoassays. This is a 3-hour lab.

A study of nervous system organization, function, and development. Major concepts in neurobiology including impulse conduction, synaptic transmissions, sensory processing, motor function, and memory. Three lectures and three lab hours per week.

This course provides an introduction to bacterial, animal and plant virology. Students will learn general methodologies in virus research. Topics include virus structure, the biochemistry of viral replication, and general features of virus-host cell interaction.

This course is a corequisite laboratory experience to BIO-4420. Students will conduct experiments that explore the detection and analysis of various viruses. This is a 3-hour lab.

A study of drugs and drug actions, including pharmacokinetics and pharmacodynamics. This course reviews the mechanism of action of various classes of drugs. Three lectures per week.

An introduction to the theory, strategies, and practice of data management and analysis in molecular biology. including DNA and protein sequence analysis, biological databases, genomic mapping, analysis of gene expression. Three lectures and three lab hours per week.

Internship in Biological sciences based on student/mentor agreement. Internships must be approved by the department Chairperson.

Independent study under the direction of a faculty member. For Biology majors only.

Discussion of topics reflecting research and current problems in the biological sciences in a seminar format. Specific areas of discussion vary from semester to semester. Topics are announced in advance. A written paper and oral presentation are required. For Biology majors with senior standing only.

This course surveys the major challenges and advancements in biology and medicine in America from the early 17th century to present day and the impact of these advancements on American society. The roles of race, religion, socioeconomic class, gender and sexual orientation in determining access to health care and treatment protocols will be explored and analyzed.

Cross-listed with: SOC-5402. The Human Genome was sequenced completely in 2002. This is a database that includes all of our genetic code. Not only did this research revolutionize science, it also inevitably impacted numerous spheres of our social life and continues to do so. In this course, we will learn about the human genome and the possibilities this knowledge generates for social consideration and social change. We will answer the following questions. Why do we want to study our genes? Who should have access to my genome? Who owns the genome? Should we be changing our genes? The areas of concern are: fairness in the use of genetic information; privacy and confidentiality; social consequences and stigmatization; reproductive issues; clinical issues uncertainties; ethical and legal concerns; conceptual and philosophical implications; health and environmental issues and the commercialization of gene products.

Cross-listed with: BIO-1102, BIO-4000 and PSY-4014. Discussion and analysis of problems in biology that are not covered in regular course work. The specific content of the course will remain flexible in response to student and departmental interest. Course requires travel. Contact Dr. Nolan, Chairperson-BIO at knolan@sfc.edu

Marine Biology in Honduras. Course requires travel to Honduras.. Please contact Dr. Nolan, at KNolan@stfranciscollege.edu or (718) 489-5439 for additional information.

This course will focus on the ecology, sustainability, and history of national and local parks in the NYC area. Parks are at the core of what makes our area unique and exciting, providing natural oases as well as critical reflections on our past. This course will be hands-on and exploratory: We will visit parks and experience them for ourselves, while also digging into their deeper role in shaping our city and culture. The parks we visit and learn about may include Jamaica Bay Wildlife Refuge, Ellis Island, the American Museum of Natural History, the Tenement Museum, and Brooklyn Bridge Park, among others.

Approximately 1 billion people around the world go hungry every day, with roughly an equal number of people lacking sufficient access to potable water. However, the problem is not insufficient world resources; the amount of food refuse produced yearly is roughly equivalent to the amount of food required to feed the hungry for one year. Called the world's greatest solvable problem, there are many potential solutions to hunger such as advancements in agricultural biotechnology as well as increased efforts towards the development of sustainable communities and environmental conservation. Each solution comes with its own benefits and limitations. This course will explore hunger both worldwide and within the US and includes a service learning as well as an immersion experience on a sustainable working farm to fortify concepts and build global citizenship.

Everyday objects are designed for human use, yet many contribute to chemical and plastic pollution, carry a high carbon footprint, and may live in landfills for centuries after their use is completed. What if we could grow a house, or replace toxic processes with harmless ones? In considering how to minimize our impact on the planet, and what a grown future might look like, we will speculate, learn, and critique through the interdisciplinary practices of Biodesign. In this seminar, participants will take part in the Biodesign Challenge, which links students with a team of expert consultants, access to extensive resources, and participation in the biodesign community through webinars and other events throughout the semester. Through speculative and creative thinking, research and innovation, teams of students will envision, develop, and prototype a biodesign project addressing a real problem with an achievable design Together the honors class will analyze each team's proposal select one to represent SFC at the Biodesign Challenge summit in June 2022.

New York City is an eater's paradise. Food lovers travel far and wide for a birria taco truck in Queens, dim sum treats and dumplings in Manhattan, or the many delights of Brooklyn's Smorgasbord. This robust food culture arises largely from the outstanding diversity of human culture that underpins NYC's identity, and the large diversity of plants, animals, and other organisms that people import from around the world. In this course we will take both a cultural and scientific approach to explore the connection between our diets, our city, and the biodiversity that makes it possible. We will explore how foods have shifted over the city's history, and how this reflects global changes, human migration, local ecological shifts, outside influences, and sustainability. This course will involve eating a variety of foods and a lot of travel throughout NYC. Accordingly, students must be up for trying new foods and be able to walk for two or more miles.