Bachelor of Music

at Enrollment Advisory Group - University of Bridgeport USA

Recognized as a leader in innovation and research, the University of Bridgeport is true to its mission as a career-oriented institution that prepares students for the careers of tomorrow — where job titles are still yet to be written. The AI field is a growing niche area and is now the centerpiece of technology innovation in advanced robotics, autonomous vehicles, knowledge automation, and computer vision.

UB is pleased to launch the first and only Master of Science program, MS in Artificial Intelligence in the state of Connecticut. Instruction is exclusively face-to-face and includes web-assisted courses. Graduates will be prepared for in-demand commercial or research positions in industry (including tech giants) and academia.

Artificial intelligence is one of four main drivers set to dominate 2018-20 that will positively affect business growth per the World Economic Forum (WEC) 2018 report. Machines and algorithms in the workplace are set to create 133 million new roles (WEC).

Jobs in emerging professions are set to increase its share of employment from 16% to 27% of the total employee base. Information cited from WEC's The Future of Jobs Report, 2018.

The average salary for AI is $121k annually per Payscale. A machine learning engineer’s salary is $142,855, per the job listing site Indeed.com.

AI Concentrations

• Robotics and Automation
• Deep Learning and Computer Vision
• Data Sciences and Data Analytics
• Cybersecurity

The four-year Bachelor in Fine Arts in Graphic Design, BFA degree program consists of an integrated, inter-disciplinary sequence that is designed to strengthen communication skills, promote teamwork and individuality, stimulate creativity, and provide both traditional and technological skills for the career-oriented student.

Graphic Design students learn techniques and processes to build their portfolios with works prepared for both traditional print and new media including typography, branding and identity, promotional campaigns, publications, motion, and interactive. Typefaces, logos, and websites, drawing, painting, and video: all part of the SASD Graphic Design Program. The program emphasizes process, real-world community projects, and skill-building toward a final self-directed project in the senior year. SASD is an accredited member of the National Association of Schools of Art and Design (NASAD), the governing body of undergraduate and graduate art and design schools.

Graphic Design Learning Outcomes

• Demonstrate ability to identify, analyze, and solve graphic design problems. Assessment: Portfolio projects appropriately respond to project briefs, and are clear, focused, expressive, and communicative solutions to the stated problems.
• Demonstrate mastery of design tools, techniques, and concepts in graphic design. Assessment: Projects and portfolios that evidence craftsmanship, adherence to project parameters, and appropriate selection of typefaces, images, composition, and implementation.
• Demonstrate an understanding of the aesthetics of form development and of the history and current state of design.
• Demonstrate proficiency in selection and use of relevant technologies in design. Abilities to use available technical and industrial processes to produce a design product, and to design and implement such a process. Assessment: Project and portfolio materials are made with the appropriate technology or software for the final application. Projects are planned to be feasibly reproducible by industrial/commercial means rather than by one-off or by hand.
• Demonstrate an understanding of the cultural and societal connections linking graphic design trends and processes as well as a knowledge of business practices and of the market place. Assessment: Projects and portfolio solutions that are culturally- and audience-appropriate for the problem as posed by the brief for the project
• Demonstrate proficiency in presenting their own work as well as discussing and constructively critiquing the work of others. Assessment: Active participation in class critiques; clear, thoughtful presentation of students’ own projects, ability to give, accept, and incorporate feedback.

The Master's in Science Chinese Herbology (MS-CH) program joins the MS-Ac degree program and the MS-TCM degree program within the Acupuncture Institute and is a part of the Health Sciences Division which also includes physician assistant, nutrition, naturopathic medicine, chiropractic, and dental hygiene.

The MS-CH program will be primarily residential with students completing 50% of their course work and 100% of their clinical rotations in residence. The Asian/Chinese Herbology (ACH) courses will be offered in the blended format with 50% of the didactic program offered online and 50% during 4 weekends each semester, and an additional 3 weekends each summer for a total of 11 weekends a year. Students will participate in an online environment to complete their Asian/Chinese Herbology studies.

The MS-CH is limited to those who currently hold licensure or registration as healthcare professionals. The MS-CH program will not expand graduates’ scope of practice. There is no independent licensing for Chinese herbal practitioners in the US. Please consult your state’s licensing authority regarding state-specific scope of practice for licensed health practitioners in the area of herbal prescribing.

The MS-CH degree can be used as preparation for the national board exams in Chinese herbology only by those who have accredited acupuncture degrees. Only upon passing the requisite NCCAOM exams in Chinese Herbology, practitioners may use the title “Diplomate in Chinese Herbology.

Learning Outcomes

Upon successful completion of the Chinese Herbology M.S. program, the graduate will have the ability to:

• Demonstrate competency in utilizing the four examinations to identify Chinese Herbology diagnoses
• Formulate and skillfully implement the safe and effective clinical application of Chinese medicine modalities based upon a total assessment of the patient
• For the Chinese Herbology M.S. : Formulate and skillfully implement safe and effective acupuncture, moxibustion, Chinese herbal medicine, qi cultivation, tui na, and other adjunctive techniques
• Adapt diagnosis and treatment strategies as needed for diverse patient populations
• Evaluate patient care from biomedical, pharmacological, and Asian perspectives in order to understand the medical context in which patients present, make appropriate treatment and consultation decisions in various healthcare settings as part of a collaborative health care team, and make timely referrals when appropriate
• Value patients’ dignity and confidentiality
• Apply knowledge and skills necessary to provide patient-centered care in a variety of settings in order to optimize patient health and coordinate care with other healthcare practitioners

The University of Bridgeport four-year, Bachelor in Science,  BS Industrial Design program emphasizes conceptualization, design, and production of products for personal, home, industrial, and commercial use, ranging from domestic and consumer products to medical, entertainment, and more.
Students learn to design and develop product concepts, visualize them using the latest computer technology, and build models in a well-equipped model shop or computer lab. Students learn presentation skills to demonstrate their creative and unique solutions. Advanced industrial design topics include ergonomics, materials and manufacturing, and marketing.

Cellphones, HDTV and computer monitors, lighting, furniture, home appliances, exhibition spaces, computer-aided design, hand-modeling: all part of the SASD Industrial Design Program. SASD is an accredited member of the National Association of Schools of Art and Design (NASAD), the governing body of undergraduate and graduate art and design schools.

Learning Outcomes and Careers

• Demonstrate ability to identify, analyze, and solve industrial design problems. Assessment: Portfolio projects appropriately respond to project briefs, and are clear, focused, expressive, and communicative solutions to the stated problems
• Demonstrate mastery of design tools, techniques, and concepts in industrial design. Assessment: Projects and portfolios that evidence craftsmanship, adherence to project parameters, and appropriate selection of materials, manufacturing techniques, and implementation
• Demonstrate an understanding of the aesthetics of form development and of the history and current state of design. Assessment: Projects, papers, and presentations for art and design history courses; in studio courses, projects that appropriately reference historical precedents and stylistic movements in industrial design
• Demonstrate proficiency in selection and use of relevant technologies in design. Abilities to use available technical and industrial processes to produce a design product, and to design and implement such a process. Assessment: Project and portfolio solutions are made with the appropriate technology or software for the final application. Projects are planned to be feasibly reproducible by industrial/commercial means rather than by one-off or by hand
• Demonstrate an understanding of the cultural and societal connections linking industrial design trends and processes as well as a knowledge of business practices and of the market place. Assessment: Projects and portfolio solutions that are culturally- and audience-appropriate for the problem as posed by the brief for the project
• Demonstrate proficiency in presenting their own work as well as discussing and constructively critiquing the work of others. Assessment: Active participation in class critiques; clear, thoughtful presentation of students’ own projects, ability to give, accept, and incorporate feedback

The UB four-year, Bachelor of Science, BS in Interior Design Degree Program prepares graduates with the required experience for the N.C.I.D.Q. examination and state registration. In the course of their studies, Interior Design students learn about gathering design information and problem-solving in a range of actual projects, from residential to commercial design.

Students further develop technical skills for expressing design solutions, using traditional sketching methods,computer aided design (Auto CAD) and 3D simulation computer programs.

Residential, hospitality, corporate offices, retail spaces and health care: all part of the SASD Interior Design Program. Most of these projects are done in collaboration with outside design firms, which gives an added real-life experience to the students and allows them to make professional connections. SASD is an accredited member of the National Association of Schools of Art and Design (NASAD),the governing body of undergraduate and graduate art and design schools.

Learning Outcomes and Careers

• Demonstrate ability to identify, analyze, conceptualize and solve interior design problems. Assessment: Studio portfolio projects appropriately respond to project criteria, and have clear, focused, expressive and communicative solutions to the stated problems. Apply learned design principles to solve the problem. Communicate solutions through 2D and 3D drawings, color theory and proper specifications of materials
• Demonstrate mastery of design techniques and concepts in interior design. Assessment: Projects within portfolios that show evidence of attention to detail, adherence to project-initial concepts throughout the process, and close attention that the initially presented concept matches the outcome. Projects show appropriate selection and implementation of materials, finishes, furniture, and fabrics
• Demonstrate an understanding of aesthetics and scale related to interior space, and of the history and current state of design in the world. Assessment: Projects, papers and presentations for art and history course work. In studio courses, projects that appropriately reference historical precedents and stylistic movements in interior design, bringing forward current thoughts in interior design with reference to the past. Through portfolio projects show working knowledge of scale though appropriate furniture and lighting specifications
• Demonstrate proficiency in selection and use of relevant technologies in design and in using available technologies to produce a design presentation. Assessment: Drawings, including floor plans, elevations, sections, rendered perspectives, and models made with the appropriate technology or software for the final presentation
• Demonstrate an understanding of the cultural and societal connections linking interior design trends and processes as well as a knowledge of business practices and of the market place. Assessment: Project solutions that are culturally and audience appropriate for the problem as posed by the criteria for the project. Awareness of the current marketplace based on materials and mechanicals specified for studio projects, projects for Business practices course work
• Demonstrate proficiency in presenting their own work as well as discussing and constructively critiquing the work of others. Assessment: Presenting ones work with confidence and a working knowledge of the criteria and materials presented, active participant in class critiques; clear, thoughtful and honest ability to give, accept and incorporate feedback

The UB Bachelor of Science in Computer Engineering Technology, BS degree program is designed to address the need for graduates with skills in computer programming, computer hardware and computer networks. The Computer Engineering Technology program provides students with the opportunity to focus on applications and implementations more than theory and conceptual design. This program is open for new enrollment and for transfer students from community colleges.

The Computer Engineering Technology program at the University of Bridgeport will prepare graduates with the skills necessary to enter careers in the design, application, installation, programming, networking, and operation of computer systems. Graduate students are well prepared for development and implementation of computer systems and networks.

Engineering programs often focus on theory and conceptual design, while engineering technology programs usually focus on application and implementation. Engineering programs typically require additional, higher-level mathematics, including multiple semesters of calculus and calculus-based theoretical science courses, while engineering technology programs typically focus on algebra, trigonometry, applied calculus, and other courses that are more practical than theoretical in nature.

Learning Outcomes
Graduates of the CET bachelor's degree program are expected to be able to demonstrate:

• An ability to select and apply the knowledge, techniques, skills, and modern tools of the discipline to broadly-defined engineering technology activities
• An ability to select and apply a knowledge of mathematics, science, engineering, and technology to engineering technology problems that require the application of principles and applied procedures or methodologies
• An ability to conduct standard tests and measurements; to conduct, analyze, and interpret experiments; and to apply experimental results to improve processes
• An ability to design systems, components, or processes for broadly-defined engineering technology problems appropriate to program educational objectives
• An ability to function effectively as a member or leader on a technical team
• An ability to identify, analyze, and solve broadly-defined engineering technology problems
• An ability to apply written, oral, and graphical communication in both technical and non-technical environments; and an ability to identify and use appropriate technical literature
• An understanding of the need for and an ability to engage in self-directed continuing professional development
• An understanding of and a commitment to address professional and ethical responsibilities including a respect for diversity.

The Master of Science in Mechanical Engineering, MS degree program prepares the student for a successful professional career through advanced study in design, development, analysis, manufacturing, and maintenance of mechanical systems for a wide range of industries, including transportation, automation, medical, energy generation, electronic, sports and aerospace.

The program combines core mechanical engineering courses with technical electives that enable the student to increase his/her knowledge and competence in essential skills for Mechanical Engineering while affording sufficient freedom to provide in-depth study in both traditional and contemporary curriculum tracks and explore emerging interdisciplinary areas.

The technical areas supported by the department include General Mechanical Engineering, Design Engineering, Manufacturing Engineering and Management, Mechanics and Materials, Thermal Fluid Systems and Sustainable Energy, Biomechanical Engineering, Mechatronics and Automation, and Sports and Aeronautical Engineering.  The student is required to design an individualized program of study with the help and approval of his/her faculty advisor to meet his/her academic and career goals.

Customized study plans also allow receiving the Mechanical Engineering M.S. degree while pursuing another M.S. degree in Computer Science, Computer Engineering, Electrical Engineering, Technology Management, and MBA.  Two degree students in these two programs should consult their respective advisors to work on their individualized plans.

The department is the home of the CNC Mini Milling Machine Laboratory, Computer Aided Engineering and Rapid Prototyping Laboratory, the Applied Computational Fluid Dynamics Laboratory, and the Electronics Thermal Management Laboratory. Students can also access the other laboratories in the School of Engineering. Some classes are taught by adjunct faculty from local industries and faculty from other engineering departments at UB.

Learning Outcomes
Students in the M.S. Mechanical Engineering Program will be able to:

• demonstrate the ability to design or analyze a system, component or process to meet desired needs within realistic, contemporary constraints such as health and safety, ethics, performance, sustainability, and economics
• develop specialized advanced skills in mechanical engineering fields including fluid mechanics, heat transfer, material science, dynamics, vibrations, numerical methods, design, and manufacturing
• demonstrate the ability to use techniques, skills and modern engineering tools necessary for engineering practice
• demonstrate the ability to create, adapt, transfer and integrate existing and emerging technologies into new products, processes, and services
• develop decision making, risk assessment and problem-solving skills considering both economic and other constraints
• develop both technical and management oral presentation and written communication skills

The University of Bridgeport Bachelor in Human Services, BS Degree Program provides students with academic and practical experiences necessary to enter the field of human services. The University’s learning context ensures that program graduates are fully acquainted with diversity, and the program’s curriculum ensures that they possess a ‘tool kit’ to face complex dilemmas that arise in the field of human service.

Coursework and theory are applied in supervised fieldwork to ensure that students are ready for employment in a wide range of human service agencies and community organizations. Our graduates have achieved high levels of success in the field. Students have the option of enhancing their programs with minors in such fields as Education, Business and Social Sciences. A significant number minor or double major in Psychology. Stimulating courses are taught by experienced faculty who are current practitioners as well as active researchers.

Learning Outcomes
By completing the BS in Human Services, students will:

• Be knowledgeable of the history and systems of the Human Services field.
• Be skillful at program assessment, planning, and development.
• Be able to find, use, manage, and protect information effectively.
• Be competent in the core interventions of their profession.
• Be effective at oral and written communication.
• Be adept at program administration and leadership.
• Be committed to ethical practices.
• Be respectful of client values and attitudes.
• Be mindful of their own personal development.

The Technology Management Master’s Program is designed to develop leaders adept at managing technological change, and skilled in establishing and maintaining superior competitive advantage for their respective enterprises or for new ventures. For an enterprise, continuing advancement of technology provides both opportunities and threats.

Skills & Competencies
It is essential that an enterprise continually develops, sources and/or applies, the latest relevant technology in products, services, and systems in support of the key business functions and processes such as R&D, marketing, sales, customer service engineering, manufacturing, operations, finance, accounting, distribution, information technology, business analytics and others.

The UB Technology Managem ent Program is specifically designed to develop skills and competencies such as:

• Identifying and evaluating the impact of rapidly changing technology and managing those changes.
• Designing programs to identify, develop and implement innovative technological based solutions for enterprises.
• Managing the effective planning and execution of those technology based initiatives and the integration of their results into the mainstream of an enterprises’ strategy, processes and operations.
• The application of technology to create wealth by developing new products and launching new businesses.
• Leadership, the creation and sustenance of high-performance global teams and enabling innovation.

Concentration Areas

The Department offers, as an integral part of the Technology Management Master’s Degree, the opportunity to specialize in a number of concentrations, which are interdisciplinary and available through various departments to provide more educational and career choices and flexibility for the students:

• Global Program and Project Management
• Manufacturing Management
• Supply Chain, Logistics and Service Management
• Quality Control and Continuous Improvement
• Biotechnology Management
• Information Technology and Big Data
• Information and Cyber Security Management
• Innovation in Technology Management and Engineering

Learning Outcomes

The UB Technology Management Program is specifically designed to develop skills and competencies such as:

• Identifying and evaluating the impact of relevant changing technology and managing those changes
• Designing programs to identify, develop and implement innovative technological based solutions
• Managing the effective planning and execution of those technology-based initiatives and the integration of their results into the mainstream of an enterprises’ strategy, processes, and operations
• The application of technology to create wealth
• Leadership, the creation, and sustenance of high-performance global teams and enabling innovation

A Master of Science Degree in Electrical Engineering (MSEE) will provide the student with the knowledge and skills needed to pursue many new and different careers in modern society, including careers that have yet to be invented.

Electronics Design and Nanotechnology

The EE department has an electronics design program that is state-of-the-art, with emphasis on very large scale integrated circuits design (VLSI) on a microscopic scale and with a new emphasis of VLSI design on a nanometer-scale as well. A series of VLSI courses (i) design (Analog and Digital VLSI, radio frequency VLSI, low power VLSI), (ii) fabrication (microelectronic fabrication and nanotechnology), and (iii) testing (VLSI testing) are available. A closely related field is mirco- and nano-technology MEMS (microelectromechanical systems). Micro-MEMS designs systems of electronics and motion the size of microns. The smaller nano-MEMS builds systems the size of individual molecules. Nano-MEMS is used to create the next generation of VLSI components, including single-electron-transistors, nano-wires, and quantum computers.

Our department has a strong concentration in signal analysis, including the analysis of human speech vs. noise and the transmission of signals via satellite or cable or cell tower.

The EE department has a large PLC lab. Programmable Logic Control consists of 2 parts. You build an assembly line to move products and to do things to these products; for example, a robot arm will sort products or load them on to a platform. To control this assembly line, you need to implement the necessary computer code.

Students in the M.S. Electrical Engineering Program will be able to:

• Demonstrate the ability to use techniques, skills and modern engineering tools necessary for engineering practice
• Demonstrate the ability to plan and conduct laboratory experiments and interpret and report results
• Demonstrate the ability to identify and apply concepts of engineering economics and project planning
• Demonstrate knowledge of contemporary global and societal issues and their relationship and exercise strong oral and written communication skills including those needed for technical writing