Bachelor of Arts in Sociology

at Wright State University USA

Wright State has partnered with Miami University to bring our students the Greater Miami Valley Joint MASW program since 2012. Due to the success of this joint program, which is fully accredited by the Council on Social Work Education (CSWE), both schools are forming their own, independent MASW programs. We expect both independent programs to be accredited by CSWE and fully operational when the joint program ends in May 2021. At that time, Wright State students who were admitted and are enrolled in good standing in the joint program will automatically be admitted and transitioned to the independent Wright State MASW program. Beginning in the 2020 Summer Semester, all MASW classes for Wright State students will be held on the Dayton campus.

The M.A.S.W. program at Wright State University prepares students to be advanced generalist competent and ethical social workers to engage and intervene with diverse populations. Full-time (2 years), part-time (3-4 years), or advanced standing (3 semesters) programs are offered to admitted graduate students.

The thesis option is for students who need or desire the full range of professional experience, including intensive research and writing. This option assures training in research techniques and in the preparation of scholarly papers. It culminates in the preparation and defense of a thesis based on original research. The student's program of study is an initiation into methods of focused study and research in a selected area of physiology or neuroscience.

The course option allows the student to plan a program of study that, along with the degree requirements, satisfies his or her educational needs and career objectives. This might be to extend knowledge for a current position, or as preparation for one of many health professions. The student's program of study typically culminates with two scientific writing courses broadly in the areas of Physiology and/or Neuroscience.

The objectives of the Public Health degree center around programmatic learning goals and core skills that not only provide an in-depth science education but aid students in developing skills necessary for future careers. These include:

• Students will be able to differentiate and define of structures and objectives of public health, including the history and philosophy of public health, key achievements, and explain the organization of the U.S. public health system and across the globe.
• Students will demonstrate comprehension of a foundational science education including epidemiology, health and disease, social and behavioral sciences, biological and life sciences, anatomy and physiology, chemistry, statistics, and scientific writing.
•  Students will demonstrate comprehension of community health, humanities, ethics, leadership, and effective health communication.
• Students will apply leadership, communication skills, and community and public health knowledge through experiential learning activities including internships, service-learning projects, capstone senior seminars, research papers, honors theses, or other scholarly, cumulative, and integrative applied experiences to support academic and career goals.
• Students will design an academic plan for graduation and identify, write, and describe a plan for professional success in their career path.
• Students will demonstrate effective oral and written communication skills and relate public health information to diverse audiences.
• Students will apply critical thinking through independent learning and collaborations with colleagues, peers, and community members and identify, evaluate, and synthesize public health information.

To study religion is to understand ourselves. We learn how different peoples have imagined their world, their place in it, and the ideal ways of living in it. We explore how religion unifies and divides human communities; shapes political views and gender roles; produces great intellectual achievements and horrific acts of violence. We study how religion has influenced our history, culture, values, and beliefs, and read the great texts that define different faith communities.

Why Choose Comparative Religion?

• To learn more about the history of your own religious tradition.
• To learn about the religious beliefs and practices of diverse traditions.
• To study how religion shapes human society and culture.
• To study how religion informs human values.
• To study how religion shapes American politics and foreign policy.
• To understand the global community in which we live.
• To develop the skills of critical thinking and effective writing employers demand.
• To develop the cultural awareness necessary to succeed in a global economy.
• To prepare for graduate school in religion at a university or seminary.

The Bachelor of Science degree from the Department of Biochemistry and Molecular Biology focuses on preparing students for careers in fields including, but not limited to, medicine and health, drug manufacturing and design, agriculture, forensic science (crime lab science), academic/industrial research and development, and scientific writing.

The teaching and research programs of the department are conducted in modern, well-equipped classrooms and laboratories. Our curriculum fosters the development of active learning, teamwork, critical thinking, scientific reasoning and communication skills, as well as, relevant content knowledge in both biochemistry and molecular biology. Within the curriculum there are many opportunities for students to be associated with cutting-edge research through independent studies and undergraduate research projects.

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

People are the most important resource of an organization. Human resource management is about people. Human resource management focuses on the people and the activities of organizations that affect the behaviors of its employees. Managers and employees knowledgeable in human resource topics are critical to ensuring organizations and businesses attract, motivate, and retain a qualified, effective workforce.

The human resource management major provides advanced training if you are seeking upper-level human resources positions. Advanced human resource professionals are detail-oriented, have excellent people skills, and strong social and emotional awareness. As a professional, you create an environment that is inviting and empowering while ensuring your employer meets all legal and compliance procedures. Many of our human resource management students also double major in management, acquiring additional skills in leadership, team, and organization development.

The Department of Biological Sciences is home to 22 active research faculty and approximately 50 graduate students. Our faculty are currently funded by EPA, NIH, NSF, USDA, a variety of state and local agencies, and private foundations. Many faculty members have leadership roles in local, state, national and international organizations, including the American Physiological Society, American Society for Testing of Materials, International Standards Organization, the Nature Conservancy, the Ohio Plant Biotechnology Consortium and the Society for Environmental Toxicology and Chemistry. They also served on EPA, NIH, and NSF study sections and review panels and are otherwise recognized as experts in their field.

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