Bachelor of Science in Physiology and Neurobiology (STEM)

at Kaplan Group - University of Connecticut - Storrs Campus USA

The Bachelor of Science in Engineering (BSE) curriculum is designed to give sound knowledge of basic principles in mathematics, physics, and chemistry; to provide education in the theory, principles, and practices of engineering; and to present the opportunity to obtain additional instruction and experience in one of the major engineering disciplines. Students gain hands-on experience in the laboratory courses that accompany classroom work, and develop design skills in course work beginning in the first two years. Design experience continues in junior and senior years in both the thermal-fluids and mechanical systems stems of the program, culminating in the two semester Senior Design Project courses.

What is a Mechanical Engineer?

Mechanical engineers use skills in mathematics and science to develop, design, and manufacture tools, engines, machines, and many other mechanical devices that improve our standard of living. Mechanical engineering is one of the most diverse disciplines within the engineering profession; mechanical engineers collaborate with doctors to design better medical equipment, research and build renewable energy technologies, and create robots that replicate human movement. Mechanical engineers design things we use everyday, and lead innovation in state-of-the-art technologies like nanotechnology , an emerging field in which functional systems are engineered at the molecular level.

Art History at UCONN focuses on art’s transformative capacity to change the way we see and understand the world. Art History emphasizes not only the aesthetic and historical meanings of art, visual culture, and objects, but also their ability to address issues of social justice and social significance in our increasingly visual world. Art History endows core skills—critical observing, thinking, and writing—for seeing a better world. There is no field, no career, no area of work that is not enhanced by a degree in Art History. Skills honed by study in Art History are skills needed in all walks of life. Graduates succeed in arts professions such as curatorships, art conservation, gallery and museum directorships and management, arts administration, art critics, and non-profit work. Yet most take the skills gained through their study of Art History to pursue careers in areas such as law, healthcare, business, international relations, publishing, politics, and marketing.

The Department of Literatures, Cultures, and Languages offers courses in Arabic, Chinese, French, German, Hebrew, Italian, Spanish, Classical Languages (Ancient Greek, Latin, and Biblical Hebrew) and selected critical languages. Students may major in Chinese Studies, Classics and Ancient Mediterranean Studies, French and Francophone Studies, German Studies, Italian Literary and Cultural Studies, Judaic Studies, and Spanish Studies. A student may double major in two of the above majors. Students will gain knowledge of the Literature, Culture, and applied Language skills that are required for teaching, business, diplomatic or governmental work, and research in graduate or undergraduate study of the culture and literature that is associated with these languages.

Education Abroad is required (or strongly encouraged, please see descriptions) for the majors in modern languages for at least one semester or approved equivalents. The department sponsors University of Connecticut programs in France; Italy; Spain; Germany; and Tianjin, China. Many other programs are available in Africa, Asia, Latin America, and Europe through Education Abroad. Such coursework is normally most valuable during the junior year, but qualified sophomores and seniors are also eligible Students interested in Education Abroad should consult with their advisors.

The Bachelor of Arts (BA) program in Art provides you with the best of two worlds: the intimacy of a small and vibrant art school, situated within an intellectually engaging major research university. Here it is possible to follow your passions for studio art in its many forms, art history, design, or visual storytelling (in still and moving images), while also exploring literature, history, sciences, and so much more. Students have access to a wide array of art-making and exhibition spaces, as well as emergent and convergent methods and technologies.

For the Linguistics and Psychology joint major, specifically required linguistics courses are: LING 2010Q and 3000 or 3110, and at least two out of the other 2000 level or above linguistics courses; and specifically required psychology courses are: PSYC 2100Q or 2100WQ and 3500, and at least two out of PSYC 2400, 2500, 2501, 3501, 3550W, and 3552. All students in the Linguistics/Psychology Major are strongly encouraged to take LING 5010/PSYC 5500 in their senior year. A minimum of four courses (12 credits) at the 2000 level or above from each department is required. For this joint major, exit requirements for information literacy will be satisfied by passing LING 3000 or 3110. The exit requirement for writing in the major will be satisfied by passing any W course in LING or PSYC at the 2000-level or above that has been approved by the student’s advisor for inclusion in the plan of study.

The Mission of the Chemical Engineering undergraduate program at the University of Connecticut is to prepare students for productive careers in our versatile, dynamic, and evolving discipline. We seek to foster a sense of responsibility and community, create a desire for life long contribution and learning, and nurture an appreciation for scholarship and creativity. Upon graduation, our students will have learned skills in critical thinking, problem solving, and communication necessary for success as practicing chemical engineers and for continued studies in graduate school.

The Management & Engineering for Manufacturing (MEM) major is an unique academic program that belongs to both the School of Engineering and the School of Business, who jointly award a BS degree.

UConn’s Management and Engineering for Manufacturing (MEM) Program is built upon a simple philosophy: to be effective, technological innovations in manufacturing must be applied to a streamlined and simplified operating environment. Through their studies and internships in the MEM Program, students develop a thorough understanding of the interrelationships among the different areas of a manufacturing enterprise. An integrated education provides a competitive advantage in the manufacturing arena, in which applications of subject matter from business and engineering are equally important.

A student majoring in economics should acquire a thorough grounding in basic principles and methods of analysis, plus a working competence in several of the specialized and applied fields. Examples of such fields are industrial organization, law and economics, money and banking, international trade and finance, public finance, labor economics, health economics, urban and regional economics, and economic development. The major in economics can lead to either a Bachelor of Arts or a Bachelor of Science degree.

Course work in economics serves a wide variety of vocational objectives. An economics major (supplemented by a rigorous calculus and statistics course sequence) is excellent preparation for graduate work in economics, which qualifies a person for academic, business, or government employment. Majors and others with strong economics training are attractive prospects for business firms and government agencies, and for professional graduate study in business or public policy. An economics background is especially desirable for the study and practice of law. The economics B.S. is recommended for students interested in professions that call for quantitative skills. The B.S. is especially recommended for Honors students and students considering graduate school in economics or other quantitative areas.

Physics, a fundamental and quantitative science, involves the study of matter and energy, and interactions between them. The subject is generally divided into mechanics, electricity and magnetism, statistical and thermal physics, and quantum physics. These form the foundation for present-day research areas, which include astrophysics, atomic, molecular and optical physics, condensed matter physics, nuclear physics, and the physics of particles and fields. In addition to a knowledge of physics, students gain a rigorous training in logical thinking and quantitative problem solving. An education in physics can also provide an entry into many other fields such as biophysics, geophysics, medical physics, and engineering, as well as into less technical fields such as secondary education, technical sales, and science writing. Many students have also found that physics is an excellent preparation for the study of medicine, dentistry, or law.

The undergraduate program of study is designed with sufficient breadth and depth to enable our graduates to work successfully in industry or government, or to continue studies in graduate school.

The electrical engineering curriculum provides a firm foundation in fundamentals, while also giving students exposure to current technologies for design and implementation. It strives for a balance between theory, laboratory and design experience. In the first two years of study, students are given a broad foundation in mathematics, physics, chemistry, computer programming, applied mechanics, communication skills and humanities. Introductory courses in computer science and electric circuit analysis are also taken in the sophomore year. In the final two years, students build upon their earlier course work, taking a set of required EE courses intended to provide the core knowledge expected of every electrical engineer.

A student in consultation with his or her advisor chooses a number of electrical engineering professional elective courses, and various elective courses in the humanities and social sciences. The professional elective courses taken give the student expertise in an area of specialization in electrical engineering, or allow him or her to explore topics of individual interest. Areas of specialization in electrical engineering include: biomedical engineering, electronic circuits and instrumentation, microelectronics, systems, and telecommunications. Suggestions on the choice of professional electives appropriate for each area of specialization are found in the Electrical & Systems Engineering Department Guide to Course Selection.