Bachelor of Arts, Major in Digital Media (STEM)

at University of Massachusetts Lowell USA

With a B.S. in Nutritional Science, you’ll be prepared for a career in fields such as dietetics, nutrition and wellness, food science and nutrition research.

Nutrition and Wellness Option
This degree option combines nutrition, public health and business coursework. Students are prepared for positions related to disease prevention and health promotion in the community.

Students can take courses in the history of philosophy and philosophical movements; political, mathematical and scientific philosophies; metaphysics; linguistics and aesthetics. Students will learn how to analyze, reason, deduct and apply persuasive arguments in a disciplined and systematic way while developing their oral and written communication skills.

The department does not specify particular course work for the major, but recommends that the sequence of courses be designed in close consultation with the student’s faculty advisor. Students who plan to go to graduate school are strongly encouraged to take at least two courses from the History of Philosophy series. They should also consider a second major in a cognate field, e.g., American studies, English, French, history, mathematics, or political science.

Communications and Critical Thinking -  Concentration
Effective communication is an essential tool for those seeking careers in journalism, advertising, commerce, law, public relations, education or related fields.

The Communications and Critical Thinking (C&CT) track in philosophy serves students preparing for these careers with a unique interdisciplinary course of study that puts them on the fast track for any of those professional choices. It provides training in the latest media technologies and in timeless communication skills such as presenting good arguments, critical reasoning and logical evaluation of competing opinions.

Students specialize by selecting a specific set of courses from the wide variety offered for the major, and by adding minors in other related areas such as computer science, English, music, art, economics, psychology, sociology or political science.

The B.F.A. degree prepares students for careers in studio arts and graphic design. Within these disciplines, students may choose to focus on photography, sculpture, painting, ceramics, animation, 3D modeling, drawing, printmaking or interactive digital media.

The art major is designed to develop a rigorous art practice. Students gain a deep knowledge of the technical and conceptual abilities needed to succeed in the professional world. The Art & Design Department offers the professional degree of Bachelor of Fine Arts (B.F.A.).

Through a broad, competence-building sequence of core courses, students are introduced to the language of several disciplines, various materials and techniques. They study the fundamentals of studio art along with a wide variety of skills including visual communication, critical thinking, problem-solving, oral communication and project development. In addition, they learn how to constantly adapt to new technology.

Assignments focus on self-expression, material/technical competencies, building a personal language and life practice. In addition to core studio courses, students can take advantage of courses in web design, motion graphics, interactive design, typography, art history, art theory, video, and the huge array of science and humanities courses available at the university.

High quality professors, rigorous and relevant curriculum and state-of-the art facilities create an environment that produces excellent student achievement.

The Studio Art concentration prepares artists for careers in animation, digital imaging, drawing, interactive-media, painting, photography, and sculpture. Graduates have built successful careers in photography, teaching, animation, gallery management and studio arts. The Studio Art concentration at UMass Lowell provides students with the tools necessary to reach their highest potential as creative practitioners.

The Master of Science in Plastics Engineering program offers professional training at the master's level designed to provide the opportunity for the study of more advanced theory and practice in plastics materials, design, and manufacturing. There also are concentrations in elastomer technology, medical plastics, and sustainability. This graduate program also is designed to broaden the background of experienced professionals to help them keep up with the latest fundamental developments in the field.

A computer engineer must understand the fundamentals of general engineering and hardware design as well as essential low and high level programming. A computer engineer must have a fundamental understanding of digital signal processing VLSI filters, electronics, digital/advanced digital computer logic and architecture (at the hardware level) as well as the associated software. This defines the differences between a computer engineer, an electrical engineer, and a computer scientist. An electrical engineer will study math, physical science, and some hardware, while a computer engineer will focus more on hardware and software along with physical science and math, especially discrete math. The computer scientist concentrates more on software and discrete math than the computer engineer and less time to hardware and physical science. For example, both electrical and computer engineers require at least 20 credits of circuits and electronics (theory and laboratories). Computer engineers use their knowledge to create new devices and systems that satisfy perceived societal needs, including health and welfare, safety, environmental control, knowledge enhancement, etc.

The Music Studies and Education programs at UMass Lowell are exciting, highly creative learning environments designed to help our students realize their full potential as teachers and leaders in their communities.

One of our primary objectives is to provide our music education students with the musical and pedagogical foundation and tools to create rich learning opportunities for their students to develop their creative potential and experience the world from multiple perspectives. Teachers must utilize all means necessary to create the kinds of learning environments that encourage students to take risks, be adventurous in their thinking and problem-solving, and unleash the imaginations they come into the world with.

We strive to create a learning environment in our programs that encourages active learning and engagement, one that models real-world activities. Since the application of knowledge involves ‘doing,’ our courses have been designed to maximize hands-on experiences, through problem solving activities, critical, creative and reflective thinking, in order to create a classroom environment supportive of the construction of knowledge, collaboration, and risk-taking. Our students work on a variety of projects both independently and collaboratively, involving research, creating, composing, improvising, and teaching mini-lessons. Since we feel it’s important to provide as many opportunities as possible for the students to interact with each other, as well as with the teacher, many of the projects and class activities are collaborative in nature, may involve technology and will support the active construction of knowledge. In many of these activities our students are asked to put themselves in the role of student creators allowing them to understand the teaching process from the learner’s perspective.

The first year of undergraduate study is devoted to developing writing skills and subjects in mathematics and science that serve as a foundation for upper level professional studies.

During the second year of study, students learn additional engineering mathematics, basic engineering mechanics and biology for engineers. Course work that addresses environmental engineering with an associated laboratory, and environmental engineering chemistry are introduced in the second-half of the sophomore year.

Junior year courses address topics such as: energy and sustainability, groundwater hydrogeology and remediation, and biological processes in environmental engineering.

The senior year focuses on: chemical fate and transport in the environment, air quality and solid waste engineering. Advanced elective courses are available during the senior year. In the final semester students participate in an in-depth comprehensive capstone design project for the solution of an environmental problem.

The Master of Science program in Security Studies prepares students for careers in the rapid expanding field of cyber security, as well as weapons of mass destruction (CBRNE) and how to address threats to our critical infrastructure.

Industrial and Economic Security - Concentration
Students pursuing this area of concentration will focus their studies and research on topics related to the private sector, including energy security, computer network and facility security, and the defense industry. Courses will also examine global trafficking, economic crime, and the policies and legal frameworks for combating these threats.

The BS in EE track provides a thorough grounding in the fundamentals of electrical engineering that would allow a graduate to function effectively in industry or continue on to graduate school. Students seeking admission into the BS Eng in EE program should be familiar with the admission and retention requirements of the College of Engineering – refer to the Office of Admissions.

Students gain education and training in radiation sciences, radiation protection, medical applications of radiation, and dosimetry, which includes laboratory work and clinical internship. The MS program duration is designed to be two years plus one summer semester, although the typical academic plan may be different due to elective courses and the length of thesis research. The duration of the Ph.D. program depends on the student’s academic progress, and it is usually between four and six years. Both the M.S. thesis and Ph.D. dissertation must be based on hypothesis- or development-driven research, and the student is expected to submit the results to a peer-reviewed journal.

The MS Degree in Medical Physics qualifies students for all medical physics specialties and prepares them for residency programs, junior medical physicist positions, and future ABR exams. The clinical component provides the students with training dominantly in radiation therapy, but diagnostic imaging traineeships are also available.

Upon graduation, medical physics students are prepared to receive advanced clinical training through working under the direction of a board-certified medical physicist or entering a medical physics residency program. The students will be prepared for a career as:

• A professional clinical medical physicist.
• A medical physicist in a research laboratory.
• A medical physicist in industry.
• For Ph.D. students, career as a medical physicist in an academic environment.
• For MS students, further research training in a Ph.D. medical physics program.