Master of Science in Engineering(STEM)

at Arkansas State University USA

Health Promotion is the process of enabling people to increase control over, and to improve, their health. Students completing this degree program will have the skills and competencies necessary to assess, plan, implement, and evaluate effective health-related programs. Graduates often find employment in public health agencies, clinical facilities (hospitals and medical clinics), worksite wellness departments, or voluntary agencies.

The Bachelor of Science in Health Studies degree serves a three-fold purpose for students that are:

• Planning to seek employment in a health or health related area upon graduation;
• Desiring a bachelor’s degree following an associate’s degree in health disciplines and
• Planning a health career that requires a post-baccalaureate plan of study.

This degree does not lead to a professional credential or state licensure. It does prepare students for roles in community health, support services, health care navigation, claims services, medical sales and patient services. Online certification is available in some areas such as compliance officer, health advocate and coding specialist.

Prerequisites

• Professional Track - The Professional Track requires students to have an Associate of Applied Science (AAS) degree in an allied health related field (e.g., Physical Therapist Assistant, Clinical Laboratory, Nursing).
• Non-Professional Track - The Non-Professional Track does not require students to hold an AAS degree

The Electrical Engineering Programs at Arkansas State University are accredited by the Engineering Accreditation Commission of ABET

The A-State EE program is a strong and growing component of the College of Engineering and Computer Science, and has made major strides in development since its inception in 1982. The program offers a full and diverse undergraduate curriculum in both lecture and well-equipped laboratory courses, and is heavily committed to the total education, scholarship, and success of all of its students, and service to other constituents.

Faculty and Student Interaction

• The EE Program consists of four Ph.D. professors and approximately 50-75 students, both domestic and international, who work together in a cordial atmosphere conducive to excellence in education and scholarship. Class enrollments are usually in the range of 10-25 students, with laboratory course enrollments usually less than 20. These small classes promote frequent, direct interaction between professors and students, greatly enhancing the learning process.
• Laboratory courses in several electrical engineering areas provide intensive experience in experiment/data design, methodology, measurement, analysis, and communication. Students receive design experience not only through EE courses, but also through multidisciplinary Senior Design I and II courses required for all engineering majors.
• The EE program and college are also committed to preparing students for eventual licensing as Professional Engineers, and require students to take the Fundamentals of Engineering Examination during their senior year as the first step in the process. Most of the engineering faculty are themselves licensed Professional Engineers.

As does the entire College of Engineering, the Electrical Engineering Program has a mechanism in place to periodically assess its effectiveness in meeting its educational objectives and student learning outcomes (see below). This assessment process results in periodic modification to specific courses and the overall degree plan so as to better promote the achievement of the objectives and outcomes, themselves periodically formulated and revised, with the assistance of the Electrical Engineering Advisory Council, in relation to the evolving mission and resource base of the Program. This occurs within the context of the evolving needs of the region and nation, and the current state-of-the profession.

The specific educational objectives of the BSEE degree program are:

• Graduates have successfully advanced in electrical/computer engineering or related relevant practice as evidenced by contributions to their employers and the greater professional community.
• Graduates have pursued graduate degrees or completed professional development activities in continuing to advance their knowledge base in electrical engineering or related professional fields.
• Graduates have made a broader contribution by providing an engineering or otherwise technical or objective perspective to the challenges and opportunities of society.

The Electrical Engineering Program’s outcomes define the knowledge, skills, attitudes, and behaviors that program graduates are expected to have by the time of graduation from the Program.

The Master of Engineering Management (MEM) program, a one-year master’s degree plan consisting of 30 semester credit hours, is designed for all engineers on management career paths as well as for those charged with managing technology in engineering, manufacturing, and other high-tech organizations. The MEM degree program will also benefit engineers pursuing licensure in states where candidates for professional licensure are required to have an additional 30 semester credit hours of coursework beyond the bachelor’s degree or a master’s degree in engineering. The curriculum consists of courses offered by the A-State College of Engineering and Computer Science.

The curriculum consists of courses offered by the A-State College of Engineering and Computer Science. Courses are offered on-line or in-class. Due to the flexible scheduling of our courses, the program accommodates working professionals seeking career advancement and/or career changes as well as recent graduates desiring to move into positions with management responsibility.

Program Outcomes
Program graduates will have:

• Graduates of the Master of Engineering Management program will be able to identify critical issues, formulate realistic solutions, evaluate alternatives, and solve technical problems.
• Graduates of the Master of Engineering Management program will be able to interpret statistical or deterministic models and concepts as well as apply them to technical problems.
• Graduates of the Master of Engineering Management program will be able to communicate effectively, both orally and in writing, to express alternatives and solutions dealing with technical problems.
• Graduates of the Master of Engineering Management program will be able to function effectively as a member or leader on a technical team.

The major in history with the Bachelor of Arts degree is recommended for those seeking a liberal education and aspiring to careers in history, law, theology, journalism, and library work; in local, state, and national public service; in business where a knowledge of domestic and foreign affairs is desirable; and in every area which requires an understanding of human activity.

The Department of Biological Sciences serves students desiring to gain a broad background in biology, botany, environmental biology, zoology, or wildlife ecology and management. This preparation qualifies students for professional work in health professions, teaching, research, industry, or for graduate study.

Emphasis Areas:

• Biology
• Botany
• Pre-professional Studies
• Zoology

The courses in chemistry and physics are designed to prepare individuals for a variety of post-baccalaureate options. The Bachelor of Science degree is for individuals who are seeking employment as chemical or physical professionals, or who wish to continue studies toward a Masters or Ph.D. Students who are looking to pursue a further degree in law, medicine, dentistry, or pharmaceuticals will find either the B.S. degrees in chemistry or physics or the Bachelor of Arts in Chemistry as an option for entry into the appropriate post-baccalaureate program. The Bachelor of Science in Forensic Science degree will prepare students for a career in forensic science, while the Bachelor of Science Education degrees will lead to a rewarding career in secondary science education. In all of these programs, there are sufficient elective hours to allow students to customize their degrees for careers as diverse as technical librarians, salesman, writers, or translators.

The Civil Engineering Programs at Arkansas State University are accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org.  Civil engineering is the application of math, science, and engineering fundamentals for the benefit of society and the supporting infrastructure systems.

Civil engineers are involved in the following areas:

• Environmental Engineering (pollution control including the design of water and waste water facilities)
• Water Resources (study of the flow of water over land, under ground and storage)
• Transportation Engineering (design of highways and studies of traffic flow)
• Structural Engineering (design of building, bridges and other related structures)
• Geotechnical Engineering (study of soil behaviors, land slides and other topics)

Civil Engineering at A-State
The civil engineering program of ASU offers courses in all areas of civil engineering with a strong general education component. The faculty is involved in research, solving engineering problems in the community, consulting work. These experiences are brought into the classroom so students receive a well-rounded educational experience. This includes learning the engineering theory as well as the practical application of the theory to real world problems.

Program Educational Objectives

The program educational objectives for the civil engineering program, which pertain to program graduates 3 to 5 years after completing the program, are:

• Graduates have successfully advanced in civil engineering practice as evidenced by their achievements and contributions to their employers and the greater engineering community.
• Graduates have pursued graduate degrees, obtained professional licensure, and/or completed professional development activities in continuing to advance their knowledge base in civil engineering or related professional fields.
• Graduates are actively working to improve their community and society in general by utilizing and sharing their engineering expertise.

Student Outcomes
The Student Outcomes for each of the undergraduate engineering programs are:

• 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; and
• An ability to acquire and apply new knowledge as needed, using appropriate learning strategies.

The primary focus of the Master of Arts in Communication Studies program is to provide the fundamentals of communication theories and enable students to acquire the ability to understand and use basic methods of communication research.
The curriculum focuses on personal relationships, the small group, our society, dynamics of interpersonal communication, persuasion, health communication, intercultural communication, organizational authority and efficiency, the impact of social movements, the history of rhetoric, and family communications.

The Bachelors of Science degree in Computer Science focuses on the basics of computer problem solving applicable to the science disciplines.  The program builds a strong foundation in programming, software development, algorithms, computer organization, operating systems, networking, and database systems.  

In addition, a broad exposure to mathematics and the sciences provide an understanding of problem solving using the scientific method.  Students will gain skills in several programming environments and software applications through laboratories and classroom assignments.  Electives are part of the program and allow students to explore various topics in artificial intelligence, distributed systems, graphics, compilers, and advanced programming.