Bachelor of Science in Aeronautical Systems Engineering Technology

at Kent State University USA

The Bachelor of Science degree in Advertising gives students the chance to connect with people through different media forms, by selecting the right audience, uncovering consumer insights and developing strategic and creative messaging, all with a digital-first mindset. Curriculum focuses on the advertising industry and the social responsibilities associated with this exciting form of persuasive media.

Coursework is supplemented with an internship. Other opportunities for experience include news, production, management, sales, performance and advertising positions with Kent State’s award-winning student media. Positions may also be available with IdeaBase, a student-run, full-service integrated marketing communications firm just down the hall from classrooms. Students teams also have the chance to participate in national competitions and make professional connections in the Franklin Advertising student group.

Students graduate ready for a career planning, buying and creating materials for digital and traditional outlets.

Program Learning Outcomes

Graduates of this program will be able to:

• Demonstrate critical thinking, grounded in a legal and ethical framework.
• Gather information, analyze it, and make informed judgments using methods and tools appropriate to their professions.
• Demonstrate the ability to apply theory and research appropriate to their professions, including quantitative and qualitative methods.
• Demonstrate the ability to apply basic ethical principles to their professional work.
• Demonstrate the ability to apply laws and regulations applicable to their professional work.
• Write correctly and clearly in forms and styles appropriate for the communications professions, audiences and purposes they serve.
• Demonstrate understanding of how media and their professions evolved historically, their role in societal development and their global interaction today with institutions and individuals.
• Demonstrate appreciation for diverse cultures and individual differences, and reflect that appreciation in their work.

The Master of Arts degree in Applied Mathematics is emphasizes areas relevant to mathematical applications in the sciences, including engineering, biological, financial and physical sciences. There is no thesis requirement or option. Students in the Ph.D. degree in Applied Mathematics can apply for this M.A. degree after completing the requisite number of credit hours.

Program Learning Outcomes

Graduates of this program will be able to:

• Engage effectively in problem solving, including exploring examples, devising and testing conjectures and assessing the correctness of solutions.
• Reason in mathematical arguments at a level appropriate to the discipline, including posing problems precisely, articulating assumptions and reasoning logically to conclusions.
• Approach mathematical problems creatively, including trying multiple approaches and modifying problems when necessary to make them more tractable.
• Communicate mathematics clearly both orally and in writing.
• Teach university-level mathematics effectively.
• Obtain depth in some subdiscipline of applied mathematics.

The Master of Science degree in Data Science provides a focus on developing scientists who will understand the theories, methods and tools of data science and apply data science to solving research and workplace questions in the natural, health and social sciences for businesses and industries.

Data science is an emerging STEM discipline founded on the principles of mathematics and the sciences and developed through a synthesis of mathematics and computer science. One may think of data science as a blending together of methods and ideas from analysis, statistics, databases, big data, artificial intelligence, numerical analysis, graph theory and visualization for the purposes of finding information in data and applying that information to solving real-world problems.

Program Learning Outcomes
Graduates of this program will be able to:

• Ask the questions so that problems in a particular business or industrial situation become clear.
• Determine if the problem may be addressed with data science methods and tools, and if yes, propose potential methods for solving the problems.
• Make suggestions for how data science may be used to enhance the quality and value of currently existing products (whether the products are physical or methods) and how data science may be used in the development of new products.

The Master of Education degree in Special Education provides students with advanced understanding of contemporary research and practice issues in special education. Students in the program are typically interested in pursuing enhanced professional competence, career advancement, leadership roles, advocacy and systems change; or they may be wanting to prepare for doctoral-level study. Students do not need to have an undergraduate degree in special education (or in education) to be successful in the master's degree; however, should be motivated to develop a deeper understanding of the field of special education.

The M.Ed. degree program does not prepare students for teacher licensure; however, some of the coursework required for the degree may count toward licensure. Students interested in both licensure and a M.Ed. degree will need to apply and be fully admitted into both the master's degree and the non-degree graduate licensure preparation program.

The Special Education major comprises the following concentrations:

• The Mild/Moderate Educational Needs concentration focuses on needs of students with mild to moderate educational needs who most often participate in the general education academic curriculum with special education supports.

The Bachelor of Science degree in Mechatronics Engineering integrates mechanical, electrical, computer and controls engineering to understand automated machinery, specifically, how to design it and how to make it work. Mechatronics engineering revolves around the design, construction and operation of automated systems, robots and intelligent products, which result from the integration of software and hardware.

Using automated systems is becoming more popular for operating equipment or machinery on manufacturing lines, boilers and aircraft to reduce labor costs, increase precision and accuracy and provide quality and safety for workers. Mechatronic devices can be found in agriculture, hospitals, buildings, homes, automobiles, manufacturing plants, the toy and entertainment industry and in aids for the elderly and disabled.

Program Learning Outcomes

Graduates of this program will be able to:

• Apply knowledge of mathematics, science and engineering
• Design a system, component or process to meet desired needs within realistic constraints, such as economic, environmental, social, political, ethical, health and safety, manufacturing and sustainability
• Use the techniques, skills and modern engineering tools necessary for engineering practice.

The Master of Arts degree in German provides advanced education in German with emphasis on language, linguistics, literature and cultures and the latest methodologies in the teaching of German.

The German major comprises the following concentrations:

• The Applied Linguistics and Pedagogy concentration is intended primarily for those who are currently teaching in (or wish to teach in) elementary and secondary schools, and for those who wish to increase their effectiveness as teachers.

The Bachelor of Arts degree in Theatre Studies gives students an opportunity for study in all aspects of theatre and its relationship to other liberal arts studies. This program serves students who seek a wider range of possibilities to fulfill individual creative goals, whether as theatre artists, scholars, educators and/or contributors in related fields. Students receive thorough grounding in theatre history and theory and learn imaginative and critical thinking, the process of making theatre, and leadership skills.

The Theatre Studies major comprises the following concentrations:

• Performance
• Production
• Theatre Management
• Theatre and Society

Program Learning Outcomes

Graduates of this program will be able to:

• Understand procedures and approaches for realizing a variety of theatrical styles and techniques.
• Understand the playwriting and production processes, aesthetic properties of style, and the way these shape and are shaped by artistic and cultural forces.
• Develop intermediate to advanced competence in one or more theatre specializations in creation, performance or scholarship.
• Become acquainted with a diverse selection of theatre repertory, including the principal eras, genres and cultural sources.
• Understand the basic process involved in mounting a theatre production through both verbal and written articulation of ideas and vocabulary, as well as in actual practice.
• Form and defend value judgments about theatre.
• Know common theatrical elements and the interaction of those elements through both written and practicum work.
• Think conceptually and critically about text, performance and production.

The Master of Education degree in Early Childhood Education prepares critically reflective teachers with advanced knowledge in pre-school through primary multi-disciplinary curriculum. Students are prepared to be democratically accountable leaders, co-decision makers, pedagogical experts and committed professionals in various early childhood realms. The program emphasizes commitment to equitable and caring learning communities.

Ohio endorsements for pre-school and literacy endorsement or generalist (grades four and five) may be embedded in the program. In addition, students have the opportunity to receive an International Baccalaureate (IB) recognition award in the M.Ed. degree.

The Early Childhood Education major includes the following optional concentration:

• The Science, Technology, Engineering and Mathematics concentration provides students the opportunity to engage children in interdisciplinary instruction; gain experience working with and integrating technology; and integrate STEM to break down traditional boundaries.

The Master of Science degree in Artificial Intelligence prepares students with a focused educational and research environment to develop career paths through necessary learning and training with emerging artificial intelligence technologies and applications to intelligent analytics, smart homes and communities and robotics and automation. Graduates have technical knowledge and research and development skills necessary for applying artificial intelligence to industry, community and military. These areas include sectors requiring intelligent pattern-analysis of big data such as retail, healthcare, biology, psychology and intelligent human-machine interactions and interfaces.

Program Learning Outcomes
Graduates of this program will be able to:

• Combine intelligent analytics and automation, human-computer interaction and robotics techniques to optimize and automate, transportation, industrial process and/or healthcare processes.
• Apply machine learning techniques on big data to predict, classify, data mine and explore patterns.
• Apply intelligent visualization and Internet-based techniques for smart homes and communities.
• Perform research, discovery and integration by applying knowledge of artificial intelligence theory and techniques.

The Bachelor of Arts degree in Physics prepares students for such varied fields as secondary education, patent law, science journalism or interdisciplinary science careers. The core requirements permit a large number of elective courses, which allow students to complete a minor or second major in preparation for an interdisciplinary career. This program is well suited for those with a strong interest not only in science but also in a non-science field. Students completing the program may choose to continue their physics studies on a graduate level.

Program Learning Outcomes

Graduates of this program will be able to:

• Demonstrate the technical and cognitive skills important in a good physicist, including the following:
  • Think critically and analytically.
  • Define a problem and how to solve problems.
  • Understand advanced mathematics (e.g., calculus and differential equations) and computer skills.
  • Use, design and even build lab equipment.
• Demonstrate the traits important in a good scientist, namely, hard working, creative, meticulous, persistence, tenacious and self confidence.
• Communicate results of their work to peers, to their instructors or supervisors, to various target groups within the physics community and to people outside the discipline.