Bachelor of Science in Public Health

at State University of New York College at Brockport USA

Water resources majors must earn a minimum of 42 credits in required core courses. Additional requirements are two semesters each of calculus, college chemistry with lab, and college physics with lab. This major prepares students for careers in hydrology, resource management, and pollution control; the course of study includes courses recommended for federal employment as a hydrologist. The major is offered to meet the growing demand for hydrologists and other water resources professionals by federal, state and local government agencies; private sector environmental and consulting firms; and industrial and educational institutions.

Student Learning Outcomes

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

• Explain the manner with which variables and data, relevant for water resources, are properly collected using discipline appropriate methodology (fieldwork, instrumentation, remote sensing, or derived products from models).
• Properly interpret water resources data using discipline-accepted qualitative analysis.
• Properly interpret water resources data using discipline-accepted quantitative analysis.
• Define a scientific question and develop a methodology for answering it.
• Locate, evaluate and interpret primary source scientific literature.
• Effectively express water resources concepts and research results following the accepted written format for the discipline
• Explain water resources concepts and communicate research results following the accepted oral format for the discipline.

Our degree Chemistry Adolescence Inclusive Education includes the same core content as our major in chemistry, leaving students with a well-established knowledge and confidence in their field. This is paired with an education curriculum that focuses on lesson plans that are student-centered and connected to the current national content standards.

You’ll also have opportunities to pursue research, and work with mentors that will help you grow and find your footing in the field of education.

The Chemistry Adolescence Education Major leads to preparation for initial single certification to teach Chemistry in grades 5-12.

Student Learning Outcomes
Chemistry Student Learning Outcomes
Students will be able to demonstrate understanding and apply the principles of:

• Chemical nomenclature.
• Atomic structure and quantum theory.
• Molecular structure and reactivity.
• Stoichiometric calculations based upon chemical formulae and balanced chemical equations including oxidation-reduction reactions.
• Chemical energetics and thermodynamics including chemical equilibrium.
• Reaction dynamics (kinetics and mechanisms).
• Descriptive chemistry of the elements, compounds, and trends in the periodic table.

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.

Geology majors must earn a minimum of 42 credits in required core courses and complete two semesters each of physics, calculus and chemistry. This major offers sound training in the study of the earth and its resources, and equips the student for pursuit of careers in geology leading to professional licensure, and for graduate studies in geochemistry, petroleum exploration, paleontology, hydrogeology, ground water, environmental geology, or sedimentology/stratigraphy.

Student Learning Outcomes

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

• Explain the manner with which variables and data, relevant for geology, are properly collected using discipline appropriate methodology (fieldwork, instrumentation, remote sensing, or derived products from models).
• Properly interpret geology data using discipline-accepted qualitative analysis.
• Properly interpret geology data using discipline-accepted quantitative analysis.
• Define a scientific question and develop a methodology for answering it.
• Locate, evaluate and interpret primary source scientific literature.
• Effectively express geology concepts and research results following the accepted written format for the discipline.
• Explain geology concepts and communicate research results following the accepted oral format for the discipline.

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.

Computer Information Systems is the study of the use of computers for systematic organization of data that supports efficient and accurate collection, processing, analysis, and retrieval of information. An information system specialist applies existing technology to solve real-world problems. At SUNY Brockport, the Computer Information Systems (CIS) major trains students in state-of-the-art computing technology, applications, and business practices, with appropriate exposure to underlying fundamentals. The emphasis is on the use of computers in an organization to increase effectiveness and efficiency.

The Computer Information Systems major is accredited by the Computing Accreditation Commission of ABET. This major is recommended for students with a strong interest in business applications of computing.

Useful information for students, such as career guidance, advisement, sample plans of study, student awards, and scholarships can be found at the department website.

Student Learning Outcomes:

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

• Analyze a complex computing problem and to apply principles of computing and other relevant disciplines to identify solutions.
• Design, implement, and evaluate a computing-based solution to meet a given set of computing requirements in the context of the program's discipline.
• Communicate effectively in a variety of professional contexts.
• Recognize professional responsibilities and make informed judgments in computing practice based on legal and ethical principles.
• Function effectively as a member or leader of a team engaged in activities appropriate to the program's discipline.
• Support the delivery, use, and management of information systems within an information systems environment.

SUNY Brockport has a long history of social work education in the Greater Rochester Metropolitan area and beyond.

The mission of the Master of Social Work Program at SUNY Brockport, State University of New York, is committed to the promotion of human rights, social, economic, and environmental justice, and the elimination of poverty and oppression. Through teaching, service, and scholarship, we strive to prepare competent, self-aware, ethical, and culturally humble integrated practice social workers, with diverse populations, advocating for the well-being of all people in our shared global community.

As a reflection of its mission, the overall goals of the Master of Social Work Program are to:

• Provide advanced social work education incorporating theoretical knowledge and critical thinking within an advanced integrated practice framework; emphasizing an ecological, strength-based, community collaborative, empowerment model of practice to promote social and economic justice.
• Educate social work practitioners who are ethical, critical thinkers engaged in ongoing inquiry and life-long learning.
• Develop practitioners who provide autonomous social work practice and leadership in health, human service, and other community organizations in diverse communities to assist high need or at-risk populations.
• Infuse a critical understanding of cultural humility and gender sensitive advanced practice in working with diverse groups, and to adapt social work knowledge and skills to meet the needs of disenfranchised and historically oppressed groups.
• Educate social work practitioners to use evidence and knowledge to improve the effectiveness of social work practice, policies, and programs.
• Promote the health and well-being of individuals, families, groups, organizations, and communities by advancing social justice in a changing environment and in a global society.

The program is fully accredited by the Council on Social Work Education (CSWE) and is registered with the New York State Education Department.

Curriculum

• The Advanced Standing, 36-credit program is offered to students who earned a Bachelor of Social Work within the past eight years from a CSWE accredited program.  This program can be completed full-time in three semesters or part-time in five semesters.
• The 60-credit program is offered to students who earned a bachelor's degree in a discipline outside of Social Work. The 60-credit program can be completed full-time in two years or part-time in three years.

Student Learning Outcomes

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

• Demonstrate Ethical and Professional Behavior
• Engage Diversity and Difference in Practice
• Advance Human Rights and Social, Economic and Environmental Justice
• Engage in Practice-Informed Research and Research-Informed Practice
• Engage in Policy Practice
• Engage with Individuals, Families, Groups, Organizations and Communities
• Assess Individuals, Families, Groups, Organizations and Communities
• Intervene with Individuals, Families, Groups, Organizations and Communities
• Evaluate Practice with Individuals, Families, Groups, Organizations and Communities

An in-depth understanding of mathematics is of great importance to many careers in our technologically complex society. Moreover, the study of mathematics promotes analytical and critical thinking skills, and therefore is a valuable part of any program of study. The major in mathematics is designed to provide the knowledge and skills necessary to pursue graduate study or to support career goals in a range of professions. Recent graduates who have majored in mathematics have found rewarding careers in business, teaching, computing, government, law, engineering, actuarial science and medicine. A study of mathematics is a natural complement to the study of physics, chemistry, biochemistry, biology, earth science, business, economics, computer science, philosophy, and the social sciences. Mathematics is also a fitting major for pre-law and pre-med students.

To complete a major in mathematics, students take 10 required courses that provide a thorough foundation in several central areas of mathematics, a computer science course that emphasizes the design of algorithms, and a minimum of three advanced courses chosen to give special depth in at least one area.

More details concerning the mathematics major, including sample programs of study and information on advisement for majors, student awards, computing facilities, library holdings, and the Mathematics Club, can be found in the department website.

Student Learning Outcomes

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

• Discuss and utilize mathematics as an intellectual discipline, including its problems, algorithms, and applications.
• 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.

Anthropologists study human behavior and thought in both the past and the present with the goal of improving our world. We holistically draw on sociocultural, archaeological, and biological approaches to engage with humanity’s current challenges: the outcomes of the humanity-environment relationship; human rights abuses and the need for social justice; and the complexities of human heritage and identities. Whether through ethnographic fieldwork, archaeological excavation, biological lab work, or visual and material cultural analysis, our students and faculty collaborate closely to learn and improve our knowledge of human variation. This is an invaluable resource for our students as they prepare for a more complex future.

The Anthropology Major consists of 24 required course credits plus 12 elective credits that allow students to augment their education with a dual major or minor in another field applicable to their goals and needs.

Student Learning Outcomes

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

• Knowledge base. Students gain an understanding of the broad knowledge base of human biocultural diversity through time and across cultures, as provided through archaeology, biological and cultural anthropology.
• Methods. Students gain knowledge and skills in the different anthropological research methods used in the sub-fields of archaeology, biological or cultural anthropology.
• Theory. Students learn to define and describe anthropological theory as used in current and past practice by anthropologists, in archaeology, biological and/or cultural anthropology.
• Critical Thinking. Students develop the ability to question, reflect and critique the data and arguments upon which evaluations of human diversity, behavior and change are made.
• Analysis. Students learn to apply theories and methods to explain or interpret anthropological problems, including cross-cultural patterns of social behavior, human evolution, and social change over time and space.
• Ethics. Students learn the appropriate procedures and protocols for obtaining informed consent or access permissions, in order to avoid harm or wrong to one’s human or non-human subjects and descendants.

The study of philosophy is excellent preparation for a career in any field that requires clear, analytical thinking, writing, and speaking, including law, government, teaching and education, the ministry, business and management, publishing, and many other fields. Philosophy is traditionally considered the premier major for those planning to apply to law school. Philosophy majors score on average significantly higher on the Law School Admissions Test (LSAT) than do the majors in any of the humanities or social sciences, including political science, history, and English; and philosophy majors on average are accepted to law school at higher rates than are students majoring in many other popular pre-law fields. Philosophy is also an excellent double major.

The Department of Philosophy sponsors the College's chapter of Phi Sigma Tau, the International Honors Philosophy Society, which recognizes student academic excellence. The Department also operates the Center for Philosophic Exchange, which sponsors free public guest lectures on campus by distinguished philosophers and publishes the on-line journal, Philosophic Exchange.

Student Learning Outcomes:

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

• Present a philosophical problem, by (1) concisely and precisely stating a philosophical problem to be resolved by an argument or essay, (2) explaining why the problem is significant, (3) explaining the scope of the problem, (4) defining any terms necessary for understanding the problem.
• Explicate the meaning of a philosophical theory by (1) correctly deducing the logical implications of that theory, (2) describing those implications in terms of specific examples, (3) recognizing when another statement or theory contradicts the relevant theory explicitly, (4) recognizing when another statement or theory contradicts the relevant theory implicitly.
• Demonstrate understanding of evidence by (1) correctly stating what counts as relevant evidence for a philosophical position, (2) correctly stating what counts as relevant evidence against the argument for a philosophical position and recognizing that evidence as such, (3) explaining why any cited evidence is relevant or irrelevant to a philosophical position, (4) distinguishing evidentiary claims about a philosophical position from rhetorically persuasive but specious claims about a philosophical position.
• Demonstrate knowledge of logic, by (1) recognizing arguments, (2) constructing good arguments, (3) evaluating arguments, (4) avoiding fallacies (e.g. begging the question).
• Demonstrate knowledge of dialectical method in philosophy, by (1) formulating possible objections to the thesis of an essay, (2) formulating possible objections to the argument for the essay's thesis, (3) responding to possible objections to the essay's thesis by showing that they are mistaken, (4) responding to possible objections to the argument for the essay's thesis by showing that they are mistaken.