Bachelor of Science in Computer Science (STEM)

at Wright State University USA

Businesses, nonprofits, and government agencies are increasingly relying on data to drive decision-making, increase productivity and profitability. Every action we take, from donating blood to buying groceries, is recorded and analyzed to better serve you. Graduates who can make sound decisions when choosing, implementing, and using these systems are in high demand locally, nationally, and globally.

Our program was the first business school program in Ohio accredited by the Computer Accreditation Commission of Accreditation Board for Engineering and Technology (ABET) and one of the first twenty programs nationally to achieve this accreditation. If you are curious, passionate about innovation, and like solving problems, a degree in management information systems will prepare you to excel in a wide variety of career paths and industrie

Program Outcomes
In this program, you will get a broad education in core business skills such as accounting, finance, marketing, management, and operations management along with emphasizing business and organizational studies and information systems technology. You will study business systems analysis, business system design, and computer programming. You will also focus on developing, implementing, and maintaining information systems in a variety of organizational environments. Coursework includes information system design, development methodologies, database management systems, electronic business, and data communications.

The Department of Earth and Environmental Sciences offers two master’s degree programs-the Master of Science and Master of Science in Teaching (Earth Science). The Master of Science program prepares students for careers as professional earth scientists in industry, government, or education, or for continued graduate study. Current research focus areas of the department include Aquatic Biogeochemistry, Hydrogeology, Geophysics, Geospatial Analysis and Remote Sensing, Complex Earth Processes, Paleoecology and Sedimentary Environments, and Earth Science Education. The department is widely recognized for its applied and multidisciplinary programs and maintains a strong emphasis on practical field applications.

Biomedical engineers make some of the most important medical breakthroughs. Become a part of exciting new advances in engineering and medicine.

Biomedical engineering (BME) is a dynamic field and combines traditional engineering approaches with other crucial sciences to advance technology and improve quality of life—you could be working to solve problems in biology, chemistry, or medicine. Specialized areas of BME include bioinstrumentation, biomaterials, biomechanics, medical imaging, orthopedic engineering, and systems physiology.

For students interested in a career in medicine or other post-baccalaureate health professions, biomedical engineering can prepare students with related technical skills and practical applications necessary for success.

Program Outcomes
The following student outcomes of the biomedical engineering program will prepare graduates to attain the program educational objectives:

• An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
• An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
• An ability to communicate effectively with a range of audiences
• An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which most consider the impact of engineering solutions in global, economic, environmental, and societal contexts
• An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
• An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgement to draw conclusions
• An ability to acquire and apply new knowledge as needed, using appropriate learning strategies

The Organizational Leadership major and minor are multidisciplinary, focused on the people side of organizations and managing others. An education in organizational leadership can provide you with a broad perspective to prepare for complex social, cultural, and professional issues that are sure to be encountered.

Organizations have an increasing demand for those who have mastery in:

• Interpersonal communication
• Problem-solving
• Building effective teams
• Critical thinking
• Decision-making
• Coaching and training
• Conflict management

Economics is a social science that studies how people manage resources and how they can make the best use of available resources.  Economics majors learn to make decisions that are vital to the success of government agencies, businesses, and nonprofits.

An economics degree is widely regarded as one of the most versatile of all collegiate majors.  Economics students are well prepared for a wide array of occupations, giving them many career options and tremendous flexibility on the job market.  This versatility is especially valuable in a constantly changing world and is demonstrated by our graduates’ ability to be placed and pursue careers in many occupational fields including economics, government, financial services and banking, marketing and demand forecasting, management, analytics, and supply chain management.  Some graduates pursue graduate studies in economics, business, law, or public administration.

Economics students learn a logical and ordered way of looking at problems faced by individuals, private organizations, government, and society.  The field of economics teaches students critical and analytical skills that are valued by most professions.  Studying economics also exposes students to a broad spectrum of economic and social issues, providing a valuable perspective to their professional and personal lives.

Economics graduates are able to make or help make most of the key administrative decisions that are faced by modern government and business organizations.  Examples include: leading a cultural nonprofit to maximize its community impact; balancing resources for a county’s poverty programs; improving the production efficiency of a small business; or initiate a large company’s effort to identify new markets for its products.

The Bachelor of Science in Neuroscience was developed by an interdisciplinary team of Wright State University faculty, and emphasizes how physics, biology, chemistry, psychology, and mathematics are integrated to become the field of neuroscience. Courses are designed so that the majority of the time, students are doing rather than listening. The program’s coursework focuses on the cell biology and physiology of neurons and neuronal circuits. It includes training in research techniques, and opportunities to assist faculty with their research. Students will be competitively prepared for health-related preprofessional programs, scientific research, and other career paths.

Program Learning Goals and Skills

The Bachelor of Science in Neuroscience program is focused on in-depth neuroscience content knowledge centered around four main learning goals:

    Organization – There is an expansive, yet repetitive, organization to the nervous system, that matches structure with function.
    Cellular Neurophysiology – Neurons are cells with dynamic and excitable membranes. Specialized receptors and channels underlie all chemical and electrical signals in the nervous system.
    Information Processing – The effectiveness of communication between neurons is highly modifiable and is critical for regulating the flow of information within neural networks. Information is also encoded in the timing of signals.
    Neural Networks and Behavior – The average adult brain contains approximately 100 billion neurons with 100 trillion connections, that make a multitude of connections with each other in an organized fashion. This connectivity serves as the link between structure and function, dictating our behavioral responses to various innocuous and traumatic stimuli.

The Department of Mechanical and Materials Engineering offers a graduate program leading to a Master of Science in Aerospace Systems Engineering (MSE). The graduate program is non-traditional by requiring an interdisciplinary minor in an aerospace relevant area.

The Master of Science in Aerospace Systems Engineering (M.S.A.S.E.) program is designed to provide graduate study opportunities focused on theoretical study and practical experience in aerospace systems engineering that will effectively prepare them for the job markets or further doctoral study. The M.S.A.S.E. program differs from traditional Aerospace Engineering programs in that it requires breadth via requirement of cross disciplinary study modeled after our highly ranked PhD program and thus forms both the strongly needed systems understanding required in modern aerospace programs as well as a natural stepping stone for a PhD  program.

Program Learning Outcomes

• Demonstrate a knowledge of fluid or structural systems related to the aerospace field.
• Demonstrate competency in a type of numerical methods related to the aerospace field.
• Demonstrate engineering competency in one of the following sub?specialties:  Industrial and Human Systems, Sensors and Signals, Materials and Nanotechnology, Controls and Robotics, Computer Science, or Medical/Biological Systems
• Recognize the need for life?long learning.
• Demonstrate their ability to communicate engineering ideas and techniques.
• Demonstrate a mathematical competency above that of an undergraduate engineering student.

The aerospace medicine Master of Science degree program is conducted by the Boonshoft School of Medicine’s Department of Community Health, Division of Aerospace Medicine. The program is the preventive medicine specialty that  promotes the health and functional well-being of pilots, astronauts and other flight crew members as well as all other people traveling in air or space. Our physician trainees endeavor to discover, prevent and manage various adverse  physiological responses of the normal healthy individual to the hostile aerospace environment, and learn to manage common medical problems associated with aerospace flights. Operationally related training includes life-support systems, aircraft and spacecraft accident investigation and aerospace human factors. Aerospace medical certification of pilots, astronauts and other flight crew members is also an important part of this training.

Program Learning Outcomes
The learning outcomes are centered on graduate pass rate for the American Board of Preventive Medicine - Aerospace Medicine certification exam.

If you want to pursue social justice and the well-being of families and are looking for an academic environment in which you are safe to take risks, consider the Bachelor of Arts in Social Work program at Wright State.

You will prepare to become an ethical and competent practitioner who operates from an empowerment and strengths perspective as you work with individuals, families, groups and communities for social and economic justice. You can also look forward to being a life-long learner who continues to make contributions to the profession.

The Council on Social Work Education has accredited this program since 1974, assuring you that the curriculum and faculty meet established national standards. Qualified graduates of the bachelor's program are eligible for examinations to achieve advanced standing in master's degree programs. Those who qualify for dual-credit consideration could complete their master's degree in as little as one academic year.

Materials engineers are on the cutting-edge of technology in virtually every field. Materials science and engineering students learn how to turn raw materials into useful products and technology.

Materials science engineers (MSE) design everything from fuel cells, superconductors, titanium turbine blades, and nanomaterials to graphite fiber tennis rackets, skis, synthetic heart valves, and lithium-ion batteries.

Materials engineers are constantly developing and improving materials for new uses and emerging technologies. These include many diverse areas such as improved metals to make safer and more fuel-efficient cars, high-temperature superconductors, new coatings to make fabric waterproof, new ceramic and metallic materials for medical implants, advanced composites for lighter, stronger equipment, and higher frequency lasers for improved fiber optic communication systems.

New technology is creating a need for new materials, which is driving the demand for engineers in the basic materials and advanced research areas of the profession.