Bachelor of Arts in Mathematics

at Enrollment Advisory Group - University of Bridgeport USA

The accounting curriculum provides an opportunity for students with varied interests to obtain a broad-based understanding of the role of accounting in the measurement and communication of financial and economic data. In the Bachelor's Degree in Accounting - BS program, a number of interdisciplinary courses have been designed for those students wishing a maximum overview of multinational issues in accounting and taxation as well as for those students who intend to pursue more advanced studies in accounting. Accounting students who expect to take the Certified Public Accountant professional examinations should select elective courses with the approval of and in consultation with the Chair of the Accounting Department.

Learning Outcomes

• Students acquire the knowledge necessary for the understanding of business data and will master accounting concepts, principles, and theories.
• Students will develop technical skills necessary to measure, analyze, and interpret economic data.
• Students will understand internal accounting systems, controls, reports for decision making and will learn how to effectively communicate economic data.
• Students will study professional and regulatory requirements. Additionally students will acquire the accounting foundation that enables them to pursue advanced study required for the successful completion of the CPA exam.
• Students will pursue internships.
• Students will have the opportunity to apply to the Volunteer Income Tax Assistance (VITA) program where they will gain hands-on, real world experience.

The Master’s Degree in Computer Science degree program is intended to prepare individuals with a strong mathematical, scientific, or technical background for entry into the computer science field at an advanced level and for further study leading to the doctorate.

Learning Outcomes
Our Computer Science Students will:

• Demonstrate an in-depth and comprehensive understanding of Computer Science
• Have an enhanced ability to learn, on their own, technical details for which they are responsible
• Have an enhanced ability to apply the knowledge learned to solve technical problems that arise in research they conduct or supervise
• Have an enhanced ability to study an issue, identify and evaluate alternative actions, propose an optimal course of action
• Have an enhanced ability to prepare technical point papers, brief their seniors, and defend their conclusions

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

UB’s Master of Arts and Master of Science in Biology degree programs offer a contemporary curriculum that emphasizes the principles and experimental approaches of modern biology. They are designed to address the diverse needs of each type of graduate-level biology student. Both programs cover a wide-range of biological sub-disciplines, such as toxicology, ecology, and genetics, to prepare you for greater opportunities both professionally and academically.

Benefits to our program include:

• Small student-to-faculty ratio, which allows you to work closely with elite faculty who are active in and recognized for research in the field
• Opportunity to learn from and connect with featured guest speakers
• Close proximity to leading biotech and pharmaceutical companies for internship and future employment opportunities
• State-of-the-art laboratory facilities at out seaside campus

The Medical Laboratory Science program prepares students for an exciting career, for which employment prospects are significant. The UB Medical Laboratory Science program has achieved national accreditation through the National Accrediting Agency for Clinical Laboratory Sciences.

What is Medical Laboratory Science?

The U.S. Bureau of Labor Statistics defines Medical Laboratory Science as follows: Clinical laboratory testing plays a crucial role in the detection, diagnosis, and treatment of disease. Clinical laboratory technologists, also referred to as clinical laboratory scientists or medical technologists, and clinical laboratory technicians, also known as medical technicians or medical laboratory technicians, perform most of these tests.

Develop the technical skills required for specialist and management roles in financial enterprise by completing our Master of Science in Finance degree program at UB’s Ernest C. Trefz School of Business. This highly specialized degree will focus exclusively on issues related to finance, economics, and money markets. We will introduce you to modern concepts, such as financial regulation and behavioral finance, that play a critical role in today’s marketplace.

At UB, you will gain the decision-making, problem-solving, and analytical capabilities to solve financial problems, including how to:

• Evaluate and price a financial opportunity
• Gauge the appropriate level of risk to discount future projections
• Compare across investment opportunities at a given time and how to allocate among them in an optimal way
• Create useful tools for answering financial questions so that reports can be generated automatically and progress can be tracked
• Assess and manage risk

Learning Outcomes
Students will integrate the knowledge and skills they have gained throughout the Master of Science in Finance degree program to develop and evaluate financial and risk management strategies by:

Technical

• Demonstrating an understanding of concepts learned throughout their graduate program
• Testing a hypothesis or market strategy through robust historical evaluation
• Using research methods and instruments to price assets, evaluate risk, and manage portfolios
• Explain and differentiate standard financial models and their assumptions

The Masters in Computer Engineering MS Degree Program is a course of study intended to prepare individuals whose undergraduate background is in computer or electrical engineering for advanced professional work in the field and for further study leading to the doctorate.

Emphasis is placed on current state-of-the-art applications including parallel computing, image processing, VLSI design, sensing, robotics, mobile computing, automation and the like.

Learning Outcomes

Our Computer Engineering Students will:

• Demonstrate an in depth and comprehensive understanding of Computer Engineering
• Have an enhanced ability to learn, on their own, technical details for which they are responsible
• Have an enhanced ability to apply the knowledge learned to solve technical problems that arise in research they
• conduct or supervise
• Have an enhanced ability to study an issue, identify and evaluate alternative actions, propose an optimal course of action
• Have an enhanced ability to prepare technical point papers, brief their seniors, and defend their conclusions

The UB Associate in Dental Hygiene AS degree program combines general education courses with courses from the Fones School of Dental Hygiene to offer a broad educational preparation. In addition to basic and dental science theory, the two-year curriculum provides education in prevention service and dental health education.

Dental Hygiene instruments and supplies are issued through the Fones School. These items are distributed throughout the clinical phase of the curriculum, the costs of which are included in tuition. During the second year, students receive clinical training not only at the Fones Dental Health Center on campus but also through assignments at clinical and educational facilities of school dental health programs, hospitals, and community agencies. These assignments are directly supervised by Fones faculty. Students may be responsible for their own transportation to community agencies. All courses listed for the Associate and/or Bachelor of Science degree are required for graduation. Dental Hygiene students must earn a grade of “C” in all major courses. Any student who receives a grade of “C-” or below in a course in the major field must obtain a written statement from the Fones School Director specifying the procedure necessary to remedy the deficiency and remain in the major.

Enrollment in the second year is contingent on successfully completing all first year requirements with a cumulative QPR of 2.5. Dental Hygiene clinical courses begin in the fall term. The Associate in Science degree curriculum is open only to full-time Dental Hygiene students. Clinical students are required to submit a physical, dental, and visual acuity report, provide proof of required immunizations and Tuberculin/PPD record, and must maintain certification in cardiopulmonary resuscitation for the Health Care Provider.

All admitted students are subject to a background check conducted by an outside agency. All information is maintained confidentially.

Learning Outcomes and Careers
Through completion of the entry-level dental hygiene curriculum, students will achieve the following outcomes

• Characterize professionalism and responsibility in all health promotion and disease prevention activities
• Apply a professional code of ethics while adhering to appropriate legal and regulatory measures when providing oral health services
• Utilize critical thinking, problem solving, and evidence-based decision making in the dental hygiene process of care
• Provide the dental hygiene process of care (assessment, dental hygiene diagnosis, planning, implementation, evaluation, documentation) for patients/clients in all settings
• Communicate effectively with and deliver culturally competent, inter-professional health care to individuals and groups from diverse populations
• Demonstrate the knowledge necessary to assess, plan, implement, and evaluate community-based oral health programs
• Continually perform self-assessment to maintain professional standards and encourage life-long learning
• Value the need for personal and professional growth through participation in professional activities and associations
• Understand and master the competencies of Dental Hygiene Professional Practice

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 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.