Bachelor of Science in Liberal Studies

at State University of New York College at Brockport USA

Chemistry is used in fields as varied as medical and criminal investigations, pollution remediation or conservation, and preserving cultural treasures including rare books and documents and fine art.

Our chemistry degree will give you a foundation in organic, inorganic, analytical, and physical chemistry to prepare you for a wide range of careers. With electives, you can build on these bases and tailor your education to your goals.

African and African-American Studies offers students a broader and deeper understanding of our world. We promote global and inclusive perspectives—drawing from history, literature, the arts and the social sciences—to explore the realities and life experiences of Africans and African Americans. For students of any ethnic background, a major in AAS offers a uniquely rounded liberal arts education that can lead to a wide variety of career options or further studies.

Student Learning Outcomes

Upon completion of the program, students will be able to:

• Articulate the purpose and history of the field of African and African-African American Studies, and its proclivity to offer a corrective to mainstream representations of Africa and Africans.
• Interpret the Africana experience by applying methodologies and perspectives in African and African American studies.
• Identify key themes on how race, ethnicity, class and gender impact issues in African and African American Studies from a variety of disciplinary approaches.
• Analyze the historical experiences of African people on the continent of Africa and in the Diaspora, underscoring crucial themes relevant to their experiences.
• Analyze the literary expressions and contributions of African people on the continent of Africa or in the Diaspora, including analysis of seminal literary treatises from ancient times to the present.
• Analyze the experience of African people on the continent of Africa or in the Diaspora from the perspective of the social sciences.
• Apply the skills and knowledge acquired in their studies to practical use, such as going on for further study or serving as agents of change in their own settings and communities.

Our biochemistry degree opens doors to cutting edge knowledge — molecular biology, chemical biology, neuroscience, pharmaceuticals, and more. Our electives build on these foundations so you can tailor your education to your goals.

Physics is the study of the physical properties of the universe and of the fundamental properties and interactions of matter and energy. Physicists work to understand why and how things work, addressing questions ranging from how the efficiency of a solar panel can be improved to why the expansion of the universe is accelerating. Physics underlies and has applications in the pure sciences – astronomy, chemistry, biology, earth science – and applied sciences, such as engineering, optics, and materials science.

Physics majors take a wide variety of courses that develop technical and essential skills, including problem-solving, instrumentation, data analysis, teamwork and communicating results. Graduates who enter the job market immediately find their knowledge and skills, particularly any specialized training gained through research experiences, are strong selling points. A physics degree is also excellent preparation for graduate or professional school, and recent graduates have pursued advanced degrees in physics, astronomy, applied math, engineering, and medicine.

Student Learning Outcomes

Upon completion of the program, students will be able to:

• Apply the principles of Classical Mechanics in the analysis of physical problems.
• Apply the principles of Classical Electrodynamics in the analysis of physical problems.
• Apply the principles of Quantum Mechanics in the analysis of physical problems.
• Use scientific instruments to gather, analyze, and display data with the intention of identifying patterns.
• Communicate scientific concepts and the results of scientific research both orally and in writing.
• Apply conservation principles appropriately in the investigation of physical problems.

Environmental problems are among the most urgent issues facing our civilization. In order to manage Earth's environment well, we must understand the processes that shape its surface; control the chemistry of its air, water and soil; and produce and maintain biological and other resources upon which humans depend. We must also understand the ecological interactions of animals, plants and other living organisms with their physical and chemical environments.

Through a curriculum with a common core in biology, ecology, chemistry and geology, and a track with a more specialized focus, Environmental Science majors develop the conceptual knowledge and technical skills necessary to address environmental problems.

Six tracks are offered in the Environmental Science major: aquatic ecology/biology, terrestrial ecology/biology, combined aquatic and terrestrial ecology/biology, wetland ecology, environmental chemical analysis, and earth science.

Student Learning Outcomes:

Upon completion of the program, students will be able to:

• Explain basic environmental science topics and policies, biological processes, and ecological principles.
• Design scientific studies and quantify and characterize natural phenomena using laboratory and field equipment.
• Summarize, analyze, and interpret scientific data, using relevant quantitative skills and applying major environmental concepts.
• Summarize, organize, and communicate scientific data and analyses in oral/or written formats.
• Employ decision-making and problem-solving skills, such as evaluating competing explanations or applying scientific knowledge to environmental problems.
• Develop professional skills necessary to succeed in the environmental science and ecology fields.

The 30-credit Master of Arts in Mathematics provides students with a solid foundation in the major areas of mathematics, an appreciation for the structures and theories of advanced mathematics, and a deeper understanding of the role of mathematics in applications. The department strives to produce graduates who exhibit knowledge, comprehension and creativity in the practice of mathematics as they pursue their careers in college/high school teaching, business or government, or as they pursue doctoral studies. Please note that the information in this document is subject to change. For the latest information on our courses, please contact the department.

Student Learning Outcomes

Upon completion of the program, students will be able to:

• Apply the methods of three major areas of mathematics to rigorously solve problems and carry out proofs that are typical to each of these areas.
• Carry out the creative and explorative processes of mathematics, including conjecture, generalization, and the construction of mathematically rigorous proofs.
• Use mathematics to model and analyze real world problems, and utilize technology as appropriate to help solve mathematical problems and judge the reasonableness of results.
• Communicate mathematics effectively.
• Actively engage with mathematics beyond the classroom.

The Master of Science in Biology provides students with a solid and comprehensive background in the field of biological sciences, including molecular biology, cell biology, physiology, genetics, microbiology, human biology and developmental biology. Upon completion of the program, students are prepared to enter a PhD program, medical or dental schools; work in academic, industrial or government research laboratories; or teach biologically related courses at the community college level or at the K-12 grade level (providing the student holds the appropriate New York state teaching certificate). Small class sizes and close working relationships with the advisor and advisory committee are ideal for students seeking a rigorous graduate education in a small-college atmosphere. A limited number of graduate teaching and research assistantships are available.

Student Learning Outcomes

Upon completion of the program, students will be able to:

• Use appropriate biological terminology to clearly communicate scientific results in oral presentations and written reports targeting for a variety of audiences.
• Develop a testable hypothesis and design appropriate experiments to solve biological problems.
• Critically evaluate and interpret experimental results.
• Solve quantitative problems that are routinely encountered in research laboratories using basic mathematical and statistical skills.
• Competently employ common laboratory equipment and develop an understanding of relevant theory, strengths and limitations for techniques.
• Integrate concepts in cellular and molecular biology to explain higher level biological systems.

Physics is the study of the physical properties of the universe and of the fundamental properties and interactions of matter and energy. Physicists work to understand why and how things work, addressing questions ranging from how the efficiency of a solar panel can be improved to why the expansion of the universe is accelerating. Physics underlies and has applications in the pure sciences – astronomy, chemistry, biology, earth science – and applied sciences, such as engineering, optics, and materials science.

Physics majors take a wide variety of courses that develop technical and essential skills, including problem-solving, instrumentation, data analysis, teamwork and communicating results. Graduates who enter the job market immediately find their knowledge and skills, particularly any specialized training gained through research experiences, are strong selling points. A physics degree is also excellent preparation for graduate or professional school, and recent graduates have pursued advanced degrees in physics, astronomy, applied math, engineering, and medicine.

Student Learning Outcomes

Upon completion of the program, students will be able to:

• Apply the principles of Classical Mechanics in the analysis of physical problems.
• Apply the principles of Classical Electrodynamics in the analysis of physical problems.
• Apply the principles of Quantum Mechanics in the analysis of physical problems.
• Use scientific instruments to gather, analyze, and display data with the intention of identifying patterns.
• Communicate scientific concepts and the results of scientific research both orally and in writing.
• Apply conservation principles appropriately in the investigation of physical problems.

Neuroscience is a growing interdisciplinary field that draws upon the knowledge-base from biology, chemistry, and psychology. You will learn how to effectively communicate and work with experts across all three fields as well as how to apply their varied approaches to problem-solving. Select from many upper-division courses to deepen your knowledge in what interests you the most about neuroscience.

SUNY Brockport is one of the first SUNY institutions to offer an undergraduate degree in neuroscience.

You will have the opportunity for hands-on instruction through lab and field courses as well as high-impact experiences through undergraduate research and internships.

What You’ll Learn

You will receive a solid foundation in biology, chemistry, and psychology in order to communicate and work with experts to uncover the how our brain and nervous system work.

With a strong focus in one studio area and opportunities to take courses in many others, students learn to expand their knowledge of what art can be, leading to highly personal and unique senior work. Along the way, students and faculty meet each semester for engaging activities such as group critiques, workshops, field trips, and exhibition opportunities.

The BFA degree allows students to take up to 78 credits in Art, Design, and Art History courses (the more liberal-arts focused BA/BS degree is a 42 credit major)

Student Learning Outcomes

Upon completion of the program, students will be able to:

• Apply technical skills, elements of art and principles of design to achieve basic visual communication and expression in one or more media.
• Identify and holistically discuss major works of art through formal and conceptual analysis, socio-historical contextualization, and interpretation.
• Identify and demonstrate ways to utilize and apply their skills and abilities to postgraduate professional practices.
• Make viable connections between concept and form/media.
• Create works of art and/or design that respond to contemporary, relevant issues inside and/or outside of the discipline.
• Employ professional competence in the major area of specialization, including significant technical mastery; produce work and solve problems independently; and develop a coherent body of work.