Bachelor of Science Engineering in Biomedical Engineering (STEM)

at Kaplan Group - University of Connecticut - Storrs Campus USA

Ecology, people, place and community are just a few of the words landscape architects use everyday as they strive to solve the complex problems of planning vibrant communities and designing places of value while protecting and restoring our natural resources.

150 years ago Connecticut’s own Frederick Law Olmsted called for the conservation of the Yosemite Valley, designed Central Park, solved the flooding of Boston’s Back Bay Fens, planned campuses across the United States and introduced the world to landscape architecture.

Today landscape architects are creating the High Line Trail, restoring landscape systems in the Lower Don Lands of Toronto, designing the 9/11 Memorial, planning Olympic villages and remaking campuses and communities around the world.

Click here to visit the American Society of Landscape Architects' design page.

If you are interested in protecting nature; if you love to see happy people; if you think about how to make better cities; if you like to build things; if there are outside places that have touched your soul; if you want to make a better world you should come join us.

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, the Bachelor of Arts in Applied Mathematical Sciences, and the Bachelor of Science in Applied Mathematical Sciences, all students must pass one of the following courses: MATH 2705W, 2710W, 2720W, 2794W, 3670W, 3710W, or 3796W.

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 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,

The undergraduate major in Urban and Community Studies is an interdisciplinary program in the College of Liberal Arts and Sciences with a focus on educating citizens on the multiple dimensions of urban and community life and preparing students for careers in public and community service as well as graduate study in social work, public administration, law, planning, public health, or other related areas.

The major has three parts. First, students receive a broad education in the study of cities, suburbs, neighborhoods and communities through core courses in three fields drawn from Economics, Geography, History, Political Science, Public Policy, Sociology, and Urban and Community Studies. Second, students acquire a solid foundation in analytical techniques such as statistical analysis, survey research, geographic information systems, qualitative methods, or archival research. Finally, students take additional electives in order to broaden their academic training or to develop a deeper specialization in selected areas.

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

Music theory is concerned with how music works, and uses analysis to identify musical relationships, structures, and the procedures composers follow in the process of creating music. In seeking a deeper understanding of music, theorists employ analytic methods and modes of inquiry similar to those used in other disciplines, such as language study, literary criticism, mathematics, and psychology.

Whereas some study of music theory is required for all music majors, those with an emphasis in theory at the undergraduate level combine studies in performance, history, and other subjects with upper-level courses in music analysis and related topics. Advanced study in theory is useful for performers, conductors, composers, and other musicians who seek to elevate the level of their artistry.

The study of history aims at the understanding and disciplined reconstruction of past human activities, institutions, ideas, and aspirations in the light of present knowledge and in the hope of usefulness for the future. History belongs both to the humanities and to the social sciences. It is studied both for its own sake and for the light it throws on the present problems and future prospects of particular societies and of humankind in general.

A major in history in combination with work in foreign languages, philosophy, literature, and the social sciences provides a broad foundation for informed citizenship. History majors find employment in many fields of human endeavor from arts and business to public service and education. Specialization in history is especially valuable as pre-professional training for law, government, diplomacy, and journalism and for library, archival, and museum administration.

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.

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.