Master of Science in Mechanical Engineering

at South Dakota State University USA

The M.S. in Human Biology provides graduate-level preparation for students for successful admission to professional schools, including those not admitted directly to professional school from an undergraduate program. The program is designed to provide graduate-level preparation for students who desire admission to professional schools in human healthcare. This includes but is not limited to programs such as: Allopathic Medical Doctor (M.D.), Doctor of Osteopathic Medicine (D.O.), Doctor of Optometry (O.D.), Doctor of Chiropractic (D.C.), Doctor of Dental Surgery (D.D.S), and Master of Science – Physician Assistant Studies (M.S. – PAS). The M.S. program allows for additional opportunities to demonstrate their academic excellence and polish their professional skills. This program directly strengthens the academic capacity of the student with special attention to advanced content knowledge and case based application, professional development and professional skills needed by the healthcare provider.

Student Learning Outcomes

• Integrate the biological, biochemical, physiological and structural aspects of the human body.
• Demonstrate quantitative literacy and evaluate quantitative reasoning.
• Communicate effectively (written and oral).
• Demonstrate leadership and adhere to the ethical standards of the field.

The Master of Architecture (M.Arch.) program prepares professional leaders with specialized knowledge and skills to meet the nation’s needs in design, build, and education.  The aim of the program is to prepare architecture majors to practice in a full range of contexts and settings.

The Master of Architecture degree is comprised of a 48 credit hour, four semester graduate curriculum which rounds out the department’s seven semester NAAB accreditation candidate professional program. (See department website (www.sdstate.edu/arch/) for NAAB Professional Program details.)

Student Learning Outcomes

• Research: Understand the theoretical and applied research methodologies and practices used during the design process.
• Project Implementation: Demonstrate the skills associated with making integrated decisions across multiple systems and variables in the completion of a design project. This demonstration includes problem identification, setting evaluative criteria, analyzing solutions, and predicting the effectiveness of implementation.
• Integrative Decision-Making: Be able to make design decisions within a complex architectural project while demonstrating broad integration and consideration of environmental stewardship, technical documentation, accessibility, site conditions, life safety, environmental systems, structural systems, and building envelope systems and assemblies.
• Mediated Practices: Use a diverse range of mediated practices to think about and convey architectural ideas, including writing, investigating, speaking, drawing, and modeling.  
• Ethics: Understand the ethical issues involved in the exercise of professional judgment in architectural design and practice and understanding the role of the NCARB Rules of Conduct and the AIA Code of Ethics in defining professional conduct.Team Building: Understand the methods for selecting consultants and assembling teams; identifying work plans, project schedules, and time requirements; and recommending project delivery methods.

The Department’s chemistry faculty research programs fall into the thematic focus areas of environmental chemistry and green chemistry, chemical sensor development, organic synthesis, materials chemistry, natural products chemistry, and chemical education. Within these multidisciplinary and interdisciplinary focus areas, students can select research projects that involve the traditional subdisciplines of chemistry – analytical, biochemistry, inorganic, organic and physical. Currently active research projects in the Department focus on various aspects of analytical chemistry, drug discover and delivery, synthesis or photoactive materials including polymers, materials chemistry and self assembly, chromatography, the chemistry of cell membranes, cancer biology, environmental and green chemistry, chemistry of climate change, photo-physical chemistry, natural products synthesis, biophysical chemistry, computational chemistry, and solid-state NMR. For additional information about these options review the descriptions of current faculty research interests on the Department.

In addition to a traditional thesis-based (Option A) M.S. degree, the Department also offers a predominantly online Chemistry M.S. with chemical education specialization. This is a non-thesis (Option B) degree that focuses on the content necessary for practicing high school teachers to achieve highly qualified status. Admission in this program is limited to practicing high school science teachers. Students interested in thesis-based M.S. degree in the sub-disciplinary area of chemical education should select the Chemistry (M.S.) program in their application for admission.

Student Learning Outcomes

• Comprehensive knowledge: Graduate degree recipients will possess comprehensive disciplinary knowledge with high competence.
  • M.S. degree recipients will be able to demonstrate chemistry knowledge and advanced technical skills.
  • Graduate degree recipients will be prepared to demonstrate knowledge and technical skills in a large variety of professional fields, careers and endeavors.
  • Graduate degree recipients will communicate effectively in an oral, written and visual manner to technical audiences and stakeholders.
  • Graduate degree recipients will possess and practice high standards of scientific integrity and professional ethics.
• Trans-disciplinary professional skills: Graduate degree recipients will possess trans-disciplinary professional skills.
  • Graduate degree recipients will apply creativity to innovation.
  • Graduate degree recipients will recognize the importance of workplace diversity in culture, gender, perspective, and experience.
  • Graduate degree recipients will work effectively with peers and develop mentoring skills.
  • Graduate degree recipients will develop an understanding of the intellectual property process and the business needs of their workplace.
• Students will be familiar with the research literature of their chemistry subdiscipline and have the ability to keep abreast of major developments to acquire a working background in any area.
• Students will be able to demonstrate skill in the recognition of meaningful problems and questions for research.
• Students will possess technical skill in laboratory manipulation.
• Students will be able to demonstrate skill in designing experimental protocols and in conducting productive self-directed research.

Dairy Science is an application of the sciences, engineering and technology, and business toward the study of milk production and processing. The degree is designed to prepare students for a wide range of outstanding, challenging and rewarding career opportunities ranging from industry to private enterprise, government, research and higher education. The Dairy Manufacturing Major - Microbiology Specialization provides a strong biology, chemistry and microbiology focused curriculum for students with a strong interest in pursuing Microbiology related careers within the dairy industry. Students will develop a knowledge base related to the basic physical, biological, microbiological, chemical and engineering sciences, with special emphasis on microbiology, as they are applied to dairy foods.  These sciences are utilized to study the nature and development of dairy products; the unit operations involved in processing and production of quality dairy foods; the causes of deterioration and spoilage, and principles of dairy food preservation.  Students will also be exposed to business operations management as it relates specifically to a dairy processing facility. These skill sets are also utilized by scientists to develop and create approaches for the generation of new dairy food products to assist in feeding the world through provision of products that provide proper nutrition with acceptable taste and texture while maintaining affordability.  Graduates with a degree in Dairy Manufacturing-Microbiology Specialization are well prepared for professional positions within the dairy processing industry or for further graduate study in Dairy Science.

Student Learning Outcomes
Upon completion of the Dairy Manufacturing - Microbiology Specialization curriculum a graduate should be able to demonstrate the following:

• Understanding of the chemistry underlying the properties and reactions of the various components within a dairy food as they are influenced by processing conditions. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Problem Solving; Integrative Learning)
• Practical proficiency in laboratory techniques associated with the determination of qualitative and quantitative analytical data related to physical, chemical, biological and microbiological aspects of dairy foods and dairy-based ingredients. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Teamwork; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Understanding of microbial growth and survival as it impacts the safety, preservation and spoilage of dairy food systems. (Cross-curricular Skill: Critical and Creative Thinking; Information Literacy; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Understanding of unit operations, process control and sanitation protocols as they relate to the production and preservation of dairy-based foods. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Understanding of cleaning and sanitation processes and protocols as they impact the control and assurance of quality in the finished dairy food. (Cross-curricular Skill: Critical and Creative Thinking; Teamwork; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Practical proficiency in application of Good Manufacturing Principles (GMP’s), Standard Operating Procedures (SOP’s), and Sanitation Standard Operating Procedures (SSOP’s) as a direct result of exposure to these items in an applied manufacturing environment. (Cross-curricular Skill: Teamwork; Problem Solving; Ethical Reasoning; Foundational Lifelong Learning Skills; Integrative Learning; Diversity, Inclusion and Equity)
• Understanding of the laws and regulations governing the manufacture and sale of dairy-based food products. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Problem Solving; Civic Knowledge and Engagement; Intercultural Knowledge; Ethical Reasoning; Foundational Lifelong Learning Skills; Integrative Learning; Diversity, Inclusion and Equity)
• General understanding of business operations including finance, human resources, inventory management, infrastructure requirements, loss control and purchasing. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Teamwork; Problem Solving; Civic Knowledge and Engagement; Intercultural Knowledge; Ethical Reasoning; Foundational Lifelong Learning Skills; Integrative Learning; Diversity, Inclusion and Equity)
• Ability to utilize verbal and written communication skills effectively in a group environment. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Teamwork; Problem Solving; Civic Knowledge and Engagement; Intercultural Knowledge; Ethical Reasoning; Foundational Lifelong Learning Skills; Integrative Learning; Diversity, Inclusion and Equity)
• Ability to apply critical thinking and reasoning skills while ethically applying scientific principles to resolving issues associated with dairy food products and processing systems. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Teamwork; Problem Solving; Civic Knowledge and Engagement; Ethical Reasoning; Foundational Lifelong Learning Skills; Integrative Learning; Diversity, Inclusion and Equity)

Civil Engineering includes design, construction, and operation and maintenance of highways, airports, buildings, bridges, dams, water supply and distribution systems, waste water collection systems and treatment plants, irrigation and drainage systems, river and harbor improvements and many other infrastructure facilities essential in modern life. Civil Engineers are custodians of the built environment and are responsible for all aspects of the world’s infrastructure.

To prepare students for these responsibilities, the program provides opportunities for them to solve engineering problems, promote original thought, illustrate the work expected of engineers and stimulate interest and enthusiasm for design. Seniors design teams work on comprehensive, open-ended projects involving scope and definition, evaluation of alternatives on the basis of economic, social, environmental, and other factors, concluding with the preparation of a functional design, plans, specifications and final cost estimates.

Program Educational Objectives

The civil engineering program at South Dakota State University is committed to preparing students to achieve the following educational objectives within five years beyond the baccalaureate degree.

• Graduates will have obtained professional licensure or specialized certification.
• Graduates will have engaged in professional development and life-long learning through earning advanced degrees, attending continuing education forums, or active participation in professional organizations.
• Graduates will have become actively involved in their profession, communities, and global society with a trajectory towards leadership positions.

Student Learning Outcomes

The program’s mission and educational objectives are accomplished by providing undergraduate students with an educational program that will result in the following outcomes by the time of graduation:

• 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

Computer Scientists play key roles in many walks of life in today’s society. Graduates of the program work in many different areas such as; application programmer, network designer, database administrator, information technologist, game development, and many others. CS related jobs are among the ten fastest growing careers that show a lot of promise and opportunity for growth.

Majors complete a core of basic computer science courses that includes the study of programming and algorithms, data structures, database concepts, computer architecture and organization, programming languages, compilers, operating systems, and software engineering. Important courses in closely related fields, e.g., discrete mathematics, digital logic design, scientific computation, and probability and statistics are also taken. Computer Science students are required to study all aspects of computing, including hardware, software, and theory.

The program begins the first year developing a strong foundation in programming, mathematics, and communication. Following this is another year of study in data structures and object oriented programming along with hardware-based courses that provides the student with a firm grasp of the interaction between hardware and software. The junior and senior years include courses that cover the breadth and depth of the field. Students will select a specialization and take technical electives in their chosen area. The capstone of the program is Senior Design I and II, a two-semester sequence taken in the senior year that places every student on a team that designs, builds, tests, and demonstrates a significant computer science/software engineering project. The projects are developed in collaboration with SDSU researchers or industry and provide students’ valuable “real world” team design experience.

Program Educational Objectives
The undergraduate CS program educational objectives are to equip individuals, who after graduation and initial work experience, to

• Provide innovative and state-of-the-art approaches to solving complex technical problems through application of sound computer science principles and make high quality technical decisions based on accumulated knowledge, experience, wisdom and common sense.
• Create positive organizational impact through individual contribution and teamwork with a commitment to working with others of diverse culture and interdisciplinary backgrounds.
• Demonstrate professional stewardship and ethical responsibility and exemplify a productive member of society by serving their communities and society.
• Illustrate initiative and successful career growth through measurable and impactful contributions that strongly support the organization’s core high-level goals, accompanied by lifelong learning through graduate work, professional development, and self-study, leading to increases in organizational responsibility.

Student Outcomes
The program will enable students to attain, by the time of graduation:

• 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 major in Graphic Design provides a comprehensive visual communication experience, including mobile technology, interface design, user experience design, animation and motion graphics, product/package design, brand identity design, data visualization design, and entrepreneurship. Graduates of the Graphic Design program will create professional portfolios, engage in real experiences working in industry, and have the opportunity to build strong connections with professionals nationally and internationally. South Dakota State University graduates are prepared to work in almost any field imaginable. A 12-credit visual arts core taken in conjunction with the graphic design sequence supports the degree and creates a foundation for success. Through taking the core and taking 6 additional ART, ARTH or ARTE courses, majors qualify for the Studio Arts Minor adding breadth and depth to the degree.

Student Learning Outcomes

• Acquire core knowledge of graphic design practice.
• Demonstrate fluency in the visual vocabulary and technical skills relevant to Graphic Design – Typography, Grid systems across analog and digital media, visual narratives (photography, illustration, and type-as-image), and conceptualization of the work based on research. (Cross-curricular Skill: Critical and Creative Thinking; Problem Solving; Intercultural Knowledge)
• Imagine and articulate research, conceptualization, and varied solutions (generate effective ideas) to any problem. (Cross-curricular Skill: Critical and Creative Thinking)
• Display innovative synergies of media types across print, screen, packaging and emerging media and excel in one or several of the following Areas of Emphasis: Print, Packaging & Environmental, Interaction Design, Media Fluency, Motion.
• Demonstrate the ability to function as an effective member of a team. (Cross-curricular Skill: Teamwork)
• Demonstrate the professional awareness and physical preparation necessary to enter the design workspace. (Cross-curricular Skill: Critical and Creative Thinking; Information Literacy; Problem Solving; Intercultural Knowledge; Integrative Learning)

Students in this major are exposed and participate in all aspects of theatre, through a broad-based education. Students will gain practical experience with the newest techniques and technology of theatre. In this major, the hands-on education involves participation in State University Theatre and Prairie Repertory Theatre.

Student Learning Outcomes
In the Theatre major, students will be able to:

• Think conceptually and critically about text, performance, and production. (Cross-curricular Skill: Inquiry and Analysis; Integrative Learning)
• Demonstrate an understanding of playwriting and production processes, aesthetic properties of style, and the way these shape and are shaped by artistic and cultural forces. (Cross-curricular Skill: Inquiry and Analysis)
• Be acquainted with a wide selection of theatre repertory including the principal eras, genres, and cultural sources. (Cross-curricular Skill: Diversity, Inclusion and Equity)
• Develop and defend informed judgments about theatre. (Cross-curricular Skill: Inquiry and Analysis)
• Demonstrate ability in areas of performance, production, or playwriting appropriate to their individual needs and interests and consistent with the goals and objectives of the program. (Cross-curricular Skill: Problem Solving)
• Understand procedures and approaches for realizing a variety of theatrical styles. (Cross-curricular Skill: Critical and Creative Thinking; Problem Solving)

If applicable, students will be prepared to gain entry level positions:

• In the profession in the areas of design, technology, or stage management, or gain entrance to graduate programs for additional training prior to entering the profession.
• As performers or gain acceptance to graduate programs for additional training or to enter the profession.
• In theatre management, promotions/business or gain acceptance to graduate programs for additional training or to enter the profession.

The Medical Laboratory Science (MLS) program prepares its graduates for employment in hospital or medical laboratories. The curriculum emphasizes basic science, medical laboratory science, critical thinking and communication skills, including structured learning in the laboratories of clinical affiliated laboratories. During the first two years, students complete basic science courses necessary for entrance into the professional clinical program. Upon completion of pre-MLS requirements, students apply for entrance into the professional component of the major. The professional program consists of on-campus medical laboratory science courses and an off-campus clinical experience. The program provides the scientific background in hematology, immunohematology, urinalysis, phlebotomy, microbiology, immunology, molecular biology, clinical chemistry, and management necessary for a laboratory career.

Program Goals

• Provide an educational program within the framework of the University setting in accordance with the Standards of Accredited Programs for the Medical Laboratory Scientist as established by the National Accrediting Agency for Clinical Laboratory Science (NAACLS).
• Provide adequate numbers of entry-level medical laboratory scientists to meet the workforce needs of the state of South Dakota and surrounding areas.
• Provide the health care community with quality individuals who are competent to conduct laboratory procedures in large medical facilities and small rural laboratories and who demonstrate positive professional attitudes, ethics and practices.

Enabling Objectives

• Provide a curriculum that includes a general or liberal education, content specific theory and applications, technical knowledge, professionalism and clinical competence to successfully complete a national certification exam.
• Assist students in career placement by providing academic and occupational advisement.
• Instill in students a sense of professionalism, commitment to lifelong learning and academic excellence.
• Prepare students to successfully enter the health care field as competent entry-level professionals that communicate well, appreciate social diversity and possess a genuine compassion and concern for others.

Student Learning Outcomes

In the Medical Laboratory Science major, students will:

• Apply principles of management that include administrative methodologies and assessment to clinical laboratory practice.
• Apply principles of educational methodologies including objectives and learning outcomes, domains, and Bloom’s taxonomy to curriculum design, evaluation, and assessment in clinical laboratory practice and continuing professional development. (Cross-curricular Skill: Foundational Lifelong Learning Skills)
• Exercise independent judgement and critical thinking to correlate and recognize discrepancies associated with normal and abnormal test results using patient history, characteristics, and demographics. (Cross-curricular Skill: Inquiry and Analysis)
• Evaluate, demonstrate and perform best laboratory practices as outlined in the standard operating procedures to correctly and independently follow procedures and policies to perform laboratory test procedures. (Cross-curricular Skill: Problem Solving)
• Demonstrate effective oral or written communication with other students, faculty, patients, professional colleagues, physicians, other members of the health care team, and the public to effectively and efficiently transmit test results and instructions.
• Proficiently construct and devise written documents in accordance with quality management and quality assurance.
• Demonstrate and value professional conduct that includes compassion, concern, integrity and respect when dealing with patients, colleagues, faculty, students, physicians, other members of the health care team, and the public independent of race, sex, religion, ethnicity or diversity. (Cross-curricular Skill: Diversity, Inclusion and Equity)
• Practice and demonstrate the use of appropriate ethical standards in all matters related to medical information and patient care including strict adherence to patient confidentiality rights as mandated by the Health Insurance Portability and Accountability Act (HIPAA). (Cross-curricular Skill: Ethical Reasoning)

Chemistry is often referred to as the central science because of its strong connections to the other natural sciences and mathematics. Chemistry is therefore an area of study that allows students vast opportunity to explore the unknown and to address some of human society’s most pressing scientific problems. The Chemistry Education program will prepare students for careers in high-quality teaching of chemistry at the secondary/high school level. The curriculum consists of a set of core requirements for students to acquire fundamental chemistry content knowledge and skills shared by all high-quality chemistry teachers, requirements for cognate knowledge development and skills acquisition (e.g., mathematics and other sciences), while meeting the state licensure requirements to teach high school. The core requirements provide foundational understanding in all five sub-disciplines of chemistry (analytical, biochemistry, inorganic, organic, and physical), representing breadth of content knowledge.  The curriculum also allows for exploration into the depth of chemistry content by including elective coursework in chemistry, environmental chemistry, and a capstone research course.

Student Learning Outcomes

Upon completing a major in Chemistry Education, graduates will:

• Understand the basic concepts fundamental to chemistry.
• Be properly prepared for laboratory investigations.
• Develop in-depth knowledge of at least four of the five subdisciplines of chemistry (analytical, biochemistry, inorganic, organic, and physical).
• Demonstrate knowledge of modern chemistry topics, which could include catalysis, environmental chemistry, green/sustainable chemistry, materials science, and toxicology.
• Be able to design and execute experiments, analyze data, and use the chemical literature. (Cross-curricular Skill: Inquiry and Analysis)
• Be able to synthesize the curricular knowledge and skills in a capstone (research) experience. (Cross-curricular Skill: Inquiry and Analysis; Information Literacy)
• Understand the scientific process and develop problem-solving skills. (Cross-curricular Skill: Problem Solving)
• Retrieve information effectively. (Cross-curricular Skill: Information Literacy)
• Develop chemical safety skills.
• Be able to rely on collaboration, effective teamwork, safety, and ethical practices. (Cross-curricular Skill: Teamwork; Diversity, Inclusion and Equity)
• Learn professional ethics. (Cross-curricular Skill: Ethical Reasoning)
• Have proficiency in essential green chemistry competencies.
• Be able to assess, comprehend, and communicate science. (Cross-curricular Skill: Inquiry and Analysis)
• Demonstrate teaching effectiveness. (Cross-curricular Skill: Diversity, Inclusion and Equity)
• Illustrate learner development.
• Recognize learning differences and learning environments. (Cross-curricular Skill: Diversity, Inclusion and Equity)
• Formulate content knowledge.
• Implement uses of multiple methods of assessment to engage learners in their own growth, to monitor learner progress, and to guide the teacher’s and learner’s decision making.
• Create plans of instruction that supports every student in meeting rigorous learning goals by drawing upon knowledge of content areas, curriculum, cross-disciplinary skills, and pedagogy, as well as knowledge of learners and the community context.
• Use a variety of instructional strategies to encourage learners to develop deep understanding of content areas and their connections, and to build skills to apply knowledge in meaningful ways.
• Engage in ongoing professional learning and use evidence to continually evaluate his/her practice, particularly the effects of his/her choices and actions on others (learners, families, other professionals, and the community), and adapt practice to meet the needs of each learner.
• Seek appropriate leadership roles and opportunities to take responsibility for student learning, to collaborate with learners, families, colleagues, other school professionals, and community members to ensure learner growth, and to advance the profession.