Bachelor of Arts in English

at Wright State University USA

Apply your knowledge of software and programming to your passion.

Our Bachelor of Arts in Computer Science degree gives you the flexibility to incorporate a wide range of interests. You will still focus on software and software systems and also learn how to apply that knowledge.

Program Outcomes
Students who complete the Bachelor of Arts in Computer Science will have an ability to:

• Analyze a complex computing problem and to apply principles of computing and other relevant disciplines to identify solutions.
• Design, implement, and evaluate a computing-based solution to meet a given set of computing requirements in the context of the program’s discipline.
• Communicate effectively in a variety of professional contexts.
• Recognize professional responsibilities and make informed judgments in computing practice based on legal and ethical principles.
• Function effectively as a member or leader of a team engaged in activities appropriate to the program’s discipline.
• Apply computer science theory and software development fundamentals to produce computing-based solutions

The Bachelor of Arts in physics degree is designed for students who wish to couple a solid foundation in physics to a non-technical and creative arts field, such as writing, philosophy, political science, or other College of Liberal Arts majors. Likewise, students can obtain technical background in physics along with obtaining a background in business for those interested in business development opportunities.

The Department of Physics offers programs leading either to a Bachelor of Science degree or a Bachelor of Arts degree in physics. Students in secondary education may earn the Bachelor of Arts degree in physics and enter the Professional Year Experience program of the College of Education and Human Services for licensure in physics.

The Department of Human Services in the College of Education and Human Services offers a Bachelor of Science completion degree in sign language interpreting (SLI) designed for students who have previously completed an associate degree in sign language interpreting.  

To enter the program, you must: 

Today's interpreters work with a variety of deaf consumers – those who acquired American Sign Language (ASL) as their first language, those who communicate through a form of visual English, and those who use a contact variety of English and ASL. Hard of hearing, deaf, and blind consumers are also specialty populations you will encounter in your work placements. You may also work with a variety of hearing consumers, some of whom are familiar with American deaf culture and the process of interpreting, and some who are communicating with a deaf person for the first time. 

SLI courses cover a variety of topics and are designed to enhance your current knowledge and skills, building on the foundation formed during your associate-level programs. 

The Value of a Bachelor’s Degree in Sign Language Interpreting 

• Continue your personal and professional growth as an interpreter for the deaf 
• Discover individual idiosyncrasies and methods of work 
• Take the opportunity to network with other working interpreters 
• Discuss language issues and the profession 
• Consider working world situations and dilemmas 
• Receive immediate feedback from peers and instructors on interpreting work and discussion topics.

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.

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 B.S. in physics degree is designed for students who wish to gain a strong foundation in experimental and theoretical physics along with a solid background in mathematics that wish to pursue graduate school in physics or a related field, such as engineering, or directly enter the workforce and a career in a STEM (Science, Technology, Engineering, Mathematics) related field.

The Applied Behavioral Science Program currently offers Master of Arts degree in Criminal Justice and Social Problems.

The Criminal Justice and Social Problems track emphasizes methodology and theoretical courses and topics-focused workshops aimed at improving the research and intellectual foundations for employment and professional advancement in the criminal justice fields. Students in the program typically work for, or plan to work for, the courts, probation offices, police agencies, prison administrations, or private and public programs for juvenile offenders.

The training received in basic social science skills and knowledge is also a useful foundation for those who wish to proceed to doctoral-level study in a number of fields. An optional practicum provides field experience for those without prior experience in a criminal justice field. The program culminates in an applied research effort that, at the student’s option, takes the form of either a journal article project or a traditional thesis. Courses are offered primarily in the evenings and workshops primarily on the weekends to accommodate employed students.

Program Outcomes

• Students will master graduate level knowledge concerning computer based  research skills.
• Students will master graduate level quantitative and qualitative skills as appropriate to the study of criminal justice. 
• Students will master formal graduate writing skills appropriate for the creation  of graduate theses/projects and research articles. 
• Students will master the skills of reviewing applied programs (e.g., a program for felons whose crimes are tied to alcohol abuse) in terms of the extant literature, logical cohesion and current empirical knowledge.
• Students will be able to use their skills in the creation and administration of applied programs in both public and private agencies.

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.

Mechanical engineers focus on the analysis, design, automation, fabrication, testing, evaluation, and optimization of mechanical systems. Mechanical engineers are designers and problem solvers who are involved, in some way, with practically everything around us.

Historically, mechanical engineering (ME) includes two branches of study. The first deals with heat, fluids, and energy, such as combustion in a rocket engine, the wind and water flow past a racing yacht, or the design of a solar panel for a space station. The second area concerns force and motion in mechanical systems such as determining robot trajectories, analyzing automotive vibration and noise, and computing stress levels in the wings of a new aircraft.

Industrial and systems engineers work in one of the broadest fields of engineering. Industrial engineers are sometimes called “productivity people” and “efficiency experts”—when it comes to quality control, you are the pro.

Industrial and systems engineering (ISE) focuses on doing more with less—doing things better, cheaper, faster, more safely, and with less waste. Instead of designing bridges, machines, or circuits, industrial engineers will engineer all parts of a process—people, machines, materials, information, and energy—to make a product or provide a service.

Program Outcomes

The following student outcomes of the industrial and systems 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