Bachelor of Arts in Theatre Studies

at Kaplan Group - University of Connecticut - Storrs Campus USA

The Management major is focused on the development of the necessary skills to lead others, work well in teams, think entrepreneurially, and develop a strategic vision. Most of the complex problems we face in the business world today, whether they impact business or society at large, require the coordination of individuals, teams, and organizations to arrive at a solution. In management we strive to have our students ready to solve today’s and tomorrow’s complex business problems.

The Department of Management offers two core courses; managerial and interpersonal behaviors (MGMT 3101) and strategic management (MGMT 4900) along with elective courses in international business, entrepreneurship, management consulting, venture consulting, negotiations, managing a diverse workforce, and managing human capital. Students may follow the entrepreneurship concentration curriculum, or choose to pursue an area of emphasis in managing consulting, human capital management, or international business.

The Department offers both Bachelor of Science and a Bachelor of Arts degrees in Mathematics, Applied Mathematical Sciences, Mathematics-Statistics, and Mathematics-Actuarial Science, and Mathematics-Actuarial Science-Finance, and a Bachelor of Science in Mathematics-Physics. The Bachelor of Science program provides in-depth training in Mathematics as preparation for graduate study or for participation in scientific and engineering teams in government, industry, or research laboratories. The Bachelor of Arts degree is designed to provide training in contemporary mathematics without the depth and concentrated specialization required for the Bachelor of Science program. To satisfy the writing in the major and information literacy competencies in the Bachelor of Arts in Mathematics, the Bachelor of Science in Mathematics,

Biomedical engineers apply engineering methods, science and technology to problems in medicine and biology. Biomedical Engineering is a growing field that will continue to have a significant impact on health care. In fact, many feel that biomedical engineering will be the technological area with the most impact on people’s lives in the 21st century. A minor in Biomedical engineering is offered for students at the University of Connecticut who wish to expand their knowledge in the field. Biomedical engineering involves learning about biology in new ways and developing new tools to diagnose and treat disease and to repair or replace diseased organs.

Many students select biomedical engineering to be of service to people and for the excitement of working in a health field. Additionally, biomedical engineering provides excellent preparation for entrance into medical school. Biomedical engineering is interdisciplinary; that is, biomedical engineers often work with other medical health care professionals as members of a team. Exciting advances in medicine, such as the artificial hearts, pacemakers, medical imaging techniques, lasers, prosthetic implants, life support systems, and devices that help the paralyzed walk, have been the result of team efforts by biomedical engineers and other professionals. In addition, bioengineers have developed new processes for manufacturing products for the pharmaceutical and biotechnology industries, an example being humulin, or human insulin, the first product based on recombinant DNA technology

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.

Geoscience emerged from the historic core discipline of geology, which focused on the rocks, fossils, and mineral resources of the solid earth, and of the past.  Within the last half-century, extraordinary technological advances have shifted the spatial scale to the whole of the planet, and the time scale to include the present Anthropocene Epoch and future we must prepare for.

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.

This program produces graduates with a broad understanding of both computing principles and computing practice. The program emphasizes the fundamental computing models through the design and analysis of algorithms and software. Included in the program is coursework in a computing application area outside of the School of Engineering such as business or bioinformatics. The program is supported by study in mathematics, science, and engineering. Students gain hands-on experience in the laboratory courses accompanying classroom work, and develop design skills in course work beginning in the first two years. Design experience continues in junior and senior years in the areas of software engineering and in applications areas of the student’s choosing, culminating in the one semester Senior Design Project course.

Geographic Information Science (GIScience) is the scientific discipline that conducts spatial analysis to examine economic, environmental, physical, and social phenomena. The study of spatial data structures and computational techniques to capture, represent, process, and analyze geographic information are essential to GIScience. GIScience overlaps with and draws from many research fields such as computer science, statistics, mathematics, and psychology, and contributes to progress in those fields. GIScience also supports research in many academic disciplines such as natural resource management, environmental science and engineering, geosciences, agriculture, marine sciences, sociology, history, public health, business, and anthropology.

Courses in GIScience enable students to develop capability in spatial thinking and gather in-depth knowledge in geospatial technology. Geospatial technology is a term used to describe the range of modern tools contributing to the geographic mapping and analysis of the Earth and human societies, e.g. geographic information systems (GISystems), remote sensing, the global positioning system (GPS), spatial statistics, web mapping and navigation technologies.

According to the U.S. Department of Labor, graduates with skills in geospatial technology are in extremely high demand and are one of the highest growth areas in the federal government. Students have employment opportunities in many corporate and government entities. Students with an undergraduate degree in GIScience are also prepared to move on to graduate school to pursue M.A, M.S., and Ph.D. degrees in many fields that enable them to pursue academic jobs or to secure higher ranking positions in the public and private sectors.

Students majoring in Ecology and Evolutionary Biology may opt for either a Bachelor of Arts degree or Bachelor of Science degree. Both B.A. and B.S. degree candidates must complete the following courses in addition to the general CLAS requirements for these degrees: BIOL 1107 and BIOL 1108 or 1110; and CHEM 1127Q and 1128Q; or CHEM 1124Q, 1125Q, and 1126Q.

Robotics is a multidisciplinary field that draws on aspects from electrical engineering, mechanical engineering, and computer engineering. The proposed curriculum is built around fundamental core courses in each of these areas that are then brought together with specific robotics engineering courses. The Robotics Engineering program educational objectives are that our alumni/ae:

• make technical contributions to design, development, and manufacturing in their practice of robotics engineering.
• advance in their professional career.
• engage in professional development or post-graduate education to pursue flexible career paths amid future technological changes.