Bachelor of Arts in Crime and Justice Studies

at Wright State University USA

The Bachelor of Science curriculum offers a broad, integrated, and in-depth approach to the life sciences. Departmental requirements consist of a balanced core of courses selected from several subject areas, combined with elective courses from the Department of Biological Sciences and other life science departments such as Neuroscience, Cell Biology and Physiology, and Biochemistry and Molecular Biology. This degree program can accommodate students with such differing interests and objectives as graduate work in molecular biology, laboratory work in microbiology, or field work in ecology. The B.S. degree also can serve as preprofessional preparation for programs such as medical, dental, or veterinary sciences, or for education licensure.

Biological Sciences Program Learning Objectives

• Students completing a Bachelor of Science in Biological Sciences will be able to:
• Demonstrate proficiency in the knowledge of essential concepts of biology at molecular, organismal, and ecosystem scales.
• Demonstrate proficiency in the knowledge of concepts in chemistry and physics necessary to understand the foundations of biology.
• Utilize mathematics and statistics to apply quantitative reasoning to biological concepts.
• Evaluate data using quantitative analysis and graphical representation.
• Apply observational strategies, formulate testable hypotheses, and design experiments with appropriate controls and variables.
• Exhibit problem solving skills and trouble-shoot procedures.
• Effectively communicate biological concepts and interpretations to varied audiences orally and in writing.
• Discuss the ethical implications of biological understanding and discoveries.

The Master of  Organizational Studies comprises the core courses for the current Organizational Studies Educational Doctorate (Ed.D.) program. Students who are admitted into the Organizational Studies Ed.D. program will receive the M.S. in Organizational Studies once they have satisfactorily completed the Ed.D. program core courses, which includes the internship. The M.S. degree will permit all students to receive the master’s degree. The core courses provide an interdisciplinary approach to the study of topics, theories, and research critical to the success of leaders in a variety of organizational settings. These courses reflect a scholar-practitioner oriented program for working professionals, grounded in systems theory, adaptive leadership change, decision making, structure, personnel roles and functions, external relations, planning, program evaluation, and organization theory. The program is for those working in community, government, public service, business, non-profit, and education organizations.

Program Outcomes
The focus of the master’s program is to develop scholar-practitioners committed to exploring and expanding research related to the practice and processes in organizations. Graduates will deepen their understandings related to leadership and change within organizations. The participants will gain the knowledge and skills to conduct robust research, to strengthen practices in organizations, and to establish networks for education, psychology, urban affairs, and health and human services, to name a few. The following six principles (Fullan, 2005) form the conceptual framework of the proposed program:

• Commitment to changing contexts at all levels
• Lateral capacity building through networks
• Intelligent accountability and vertical relationships encompassing both capacity building and accountability
• Deep learning at all levels of the system through collaboration
• Dual commitment to short and long-term results
• Leadership that produces leaders.

The program in selected studies allows students to pursue a self-designed course of study. It is intended for students with a definite educational objective that is not met by the majors presently offered by the College of Liberal Arts. While the program is free from several traditional requirements, students must meet other requirements and procedures to obtain the degree.

Students are eligible for the program after they complete 33 credit hours. With the help of program sponsors, students formulate a contract outlining their study goals and reserving at least 32 credit hours for courses that help accomplish those goals. The contract is evaluated and approved by the program committee.

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.

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.

During your study of how cultural, historical, political, and economic forces affect international relations, you will gain a greater understanding of yourself and others. The major fosters civic engagement and social responsibility and promotes learning and scholarship while serving the community at the local, state, national, and international levels by preparing you to be an informed global citizen.

A degree in international studies has helped our graduates land jobs with the U.S. government, with international organizations such as the United Nations, and with nongovernmental organizations like Doctors Without Borders, just to name a few

Students graduating with the B.A. in international studies will be able to:

• Demonstrate an understanding of the value of diversity and multicultural competence in today's global environment.
• Communicate effectively in writing.
• Speak and write proficiently in a foreign language.

Exit interviews with graduating seniors and alumni surveys indicate very high levels of satisfaction with the major. Most of the courses for the IS major are small (between 15 and 30 students) and many are taught seminar style, featuring discussion, collaboration, and research papers. Respondents say they appreciated the diversity of courses to choose from and gave high scores to their professors’ teaching. In a recent survey, every respondent agreed the coursework they took for their IS degree not only provided them with marketable, transferable skills, it enhanced their ability to understand world affairs and their understanding of other cultures. In exit interviews, 100 percent expressed satisfaction with the program overall and 100 percent reported that they felt prepared to obtain acceptance to a graduate or professional school.

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 Master of Science degree program in applied mathematics gives you a thorough introduction to application-oriented mathematics. The objectives of the program are:

• Develop your ability to analyze and solve a variety of real-world problems
• Increase your understanding of specific problems encountered in other fields

You may tailor your program to emphasize discrete or continuous mathematics, or probability and statistics. Coursework in an area of application, such as computer science, engineering, or physics is also encouraged. You may choose to complete a modeling project as part of your program.

The applied mathematics degree requires 30 semester credits of course work. The program is designed primarily to prepare you for a career in business, industry, or government, but can be tailored to provide a solid foundation for doctoral studies in mathematics. The department makes provision for part-time degree candidates by offering all required courses in the late afternoon or evening.

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

Computer engineers’ research, design, create, manufacture, test, and improve computer systems. The focus of this major is on hardware and the integration of hardware and software.

Program Outcomes
Students who complete the Bachelor of Science in computer engineering will have:

• 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 must 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 judgment to draw conclusions
• An ability to acquire and apply new knowledge as needed, using appropriate learning strategies.