Master of Science in Counseling

at Wright State University USA

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.

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.

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.

Industrial and Human Factors Engineering (IHE), a highly customizable degree in the College of Engineering and Computer Science, prepares working professionals towards effective design and operation of a variety of systems in healthcare, manufacturing, aerospace, distribution, retail, and many others. While industrial engineers utilize the tools of simulation, optimization, computing, and statistics to design and improve modern technology-laden systems, human factors engineers design systems that effectively integrate human abilities/limitations and machines/tools.

Continue your education with a Master of Science degree with a focus on computer science. You can explore the subject by choosing our thesis or non-thesis options.

Areas of study include

• Data science and big data
• Machine learning and artificial intelligence
• Visualization and analytics
• Databases and data mining

We have a mixture of courses that can be taken during the day, evening, or online, giving working professionals a pathway to an advanced degree. When you graduate, you will be able to use current computer science techniques to solve a broad range of problems.

Program strengths include

• Faculty expertise
• Well-equipped laboratory facilities
• A curriculum that combines theory, software, and hardware
• Opportunities to work with faculty members on research projects

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

Electrical engineers make big dreams into reality—in the areas of alternative energy, wireless communications, electronic surveillance, computing technology, and semiconductor devices. Electrical engineers are at the forefront of technological advances. Imagine being part of a team that uses a CCD array to create an artificial retina, or a non-tethered pacemaker the size of a vitamin pill. How about developing an alternative-energy system to give a rural homestead power and wireless access, or designing the next generation of autonomous vehicles that conserve energy, plan routes and eliminate collisions? Closer to home, you can imagine a system that monitors your grandmother’s health, automatically administers her medication, and communicates remotely with care providers to allow her to live safely and with confidence in her own home.

African and African American Studies (AAFS) is an innovative interdisciplinary program in the College of Liberal Arts that offers you the opportunity to explore the experiences of people in Africa and the African Diaspora (the spread of people of African descent throughout the world), including the United States, Latin America, the Caribbean, and Asia. The mission of the AAFS program is to provide you with a rigorous education that will enable you to become a productive citizen committed to using your learning to better understand the world you live in and also find ways to improve it.

You will investigate the culture and contributions of Africans and African Americans to world civilizations and cultures. You will also be able to develop a global view, essential for living in an increasingly diverse society.

The urban affairs major is right for you if you want to make communities better places to live, if you want to fix problems such as vacant housing, decaying infrastructure, access to healthy food, ensuring safe neighborhoods, reducing homelessness, city planning, economic development, and equal education and job opportunities for future generations.

The Urban Affairs program provides students with an appreciation of the urban environment as a complex system and teaches them to approach urban processes from multiple perspectives. The Bachelor of Arts degree places emphasis on the qualitative aspects of public service management. In contrast, the Bachelor of Science degree emphasizes quantitative data analysis.

The Master of Music in Music Education degree is a professionally oriented program. It is designed to serve music educators from primary to postsecondary levels. Though all courses are pertinent to terminal degree programs, they are equally valuable for students who plan to study at the doctoral level. A variety of program options allows students to design programs that suit their professional goals and take into account their backgrounds and experience.

Program Outcomes

• Be able to perform with a high degree of musicianship, technical security, and artistry.
• Be familiar with a wide range of repertoire appropriate for their instrument or voice.
• Be able to perform in both solo and ensemble settings and be familiar with successful rehearsal techniques appropriate to each setting.
• Be aware of appropriate pedagogical strategies and techniques to enable them to function as studio teachers.
• Acquire a proficiency in current research methods and trends including all forms and technologies available for the study of music.
• Develop the ability to sight-read music of diverse styles and genres, as well as to learn appropriate use of improvisation within historical context.
• Enhance collaborative skills through performance with chamber music (duets, trios, duo-piano, etc.
• Demonstrate (where degree appropriate) ability and proficiency in operatic singing.