Bachelor of Science, Major in Medical Laboratory Science

at South Dakota State University USA

The Department of Pharmaceutical Sciences offers courses and research opportunities in pharmaceutical and biomedical sciences leading to the M.S. degree in Pharmaceutical Sciences. The didactic courses, along with the research concentration in a specific area of pharmaceutical sciences, provide a strong foundation for academic, industry and other research careers. The program places a strong emphasis on comprehensive and high quality graduate education and research experiences for the students. The M.S. degree is offered as thesis (Option A) and non-thesis (Option B) options.

Student Learning Outcomes

Graduates of the M.S. in Pharmaceutical Sciences will:

• Demonstrate knowledge of key fundamental concepts in the pharmaceutical and biomedical sciences.
• Apply pharmaceutical and biomedical science knowledge and research techniques to drug discovery and development.
• Retrieve and critically evaluate the scientific literature.
• Utilize effective written and oral communication skills.
• Demonstrate professionalism and ethical conduct.

Dietetics prepares Registered Dietitian Nutritionists to practice dietetics at an advanced level and/or pursue doctoral study.  The program seeks to develop research skills, stimulate independent thought, and provide up-to-date knowledge in foods, nutrition, and food service/business management. This program prepares individuals to integrate and apply the principles ranging from the biomedical sciences, human behavior, and management to design, and to lead effective food, nutrition, health and wellness programs in a variety of settings. This online program will be a degree tailored for credentialed, practicing dietetics professionals who seek to enhance their knowledge in a specific area of dietetics practice or to retool for new career opportunities in dietetics practice. The student must already have the RDN credential or have a Verification Statement from an ACEND accredited Didactic Program in Dietetics. This degree does not prepare one to become a credentialed RDN.

Student Learning Outcomes

• Foundational knowledge: Apply foundational knowledge and skills in the theory and application of nutrition and dietetics sciences to professional practice, education, and research.
• Communication skills: Develop effective written and oral communication skills.
• Critical thinking: Critically analyze and synthesize scientific evidence to defend a position.
• Career preparedness: Demonstrate effective career preparedness.

The Mechanical Engineering Department offers courses for the degree Master of Science in Mechanical Engineering. Also, course offerings can be used in co-major or minor programs for students of other departments. The graduate program in mechanical engineering concentrates on advanced study, including design and research, in such areas as thermofluid science, solid mechanics and dynamics, and industrial and quality control engineering. Students are encouraged to broaden their education by participating in supporting programs in established departments such as mathematics, computer science and other fields of engineering.

Student Learning Outcomes

• Articulate a solid understanding of the fundamental principles in the general areas of the mechanical engineering discipline and supporting areas.
• Demonstrate an ability to communicate, written and verbal, technical information in an effective manner.
• Conduct research and/or design projects that demonstrate ability to model, analyze and design mechanical engineering processes and systems.
• Demonstrate the transferable skills necessary for a career as a researcher and/or for employment in a senior and leading capacity in a relevant area of professional practice or industry, through career preparedness training, such as writing cover letters and resumes.

Landscape Architecture is the art of design, planning, and management of outdoor spaces for human use and habitation. Cultural and scientific knowledge are applied to the use and arrangement of natural and man-made elements with concern for resource conservation, stewardship, and the environment. Graduates work in a wide variety of areas in the landscape industry, as designers and planners in public and private practice, and as environmental designers and managers.

Student Learning Outcomes
Students in the Landscape Architecture program will be able to:

• Collect and analyze site-related data and attributes. (Cross-curricular Skill: Inquiry and Analysis)
• Synthesize findings and analysis into design program and decisions. (Cross-curricular Skill: Inquiry and Analysis)
• Develop and analyze different design concepts and points of view. (Cross-curricular Skill: Critical and Creative Thinking)
• Apply knowledge and skills to address a design problem and provide appropriate solutions. (Cross-curricular Skill: Problem Solving)
• Develop and lead community engagement/improvement projects. (Cross-curricular Skill: Civic Knowledge and Engagement)
• Consider diverse perspectives and user groups when making design decisions. (Cross-curricular Skill: Diversity, Inclusion and Equity)
• Address issues of diversity and equity through the design process. (Cross-curricular Skill: Diversity, Inclusion and Equity)

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 society’s most pressing scientific problems. Professional chemists are employed in a number of diverse fields: governmental policymakers, pharmaceutical and industrial chemists, intellectual property attorneys, high school teachers, and physicians. The curriculum reaches both the breadth and depth of the discipline. Students take a foundational course in each of the five subdisciplines (analytical, biochemistry, inorganic, organic, and physical chemistry) and advanced courses in these subdisciplines based on the student’s individual interests and career goals. Undergraduate training in chemistry at SDSU provides students with enhanced critical-thinking skills and problem-solving abilities, attributes that are highly desired in the modern workforce. The chemistry major is also excellent preparation for professional study in medicine, dentistry, business, and law. The American Chemical Society (ACS), in recognition of the quality and rigor of the curriculum, certifies the B.S. degree in chemistry offered by the Department. In addition to completing the degree requirements listed below, students engage in independent research projects in collaboration with departmental faculty; this capstone experience affords students a means to apply the knowledge of the discipline to questions for which the answers are unknown.

Student Learning Outcomes
Upon completing a B.S. in Chemistry, 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)

Dairy Science is an application of the sciences, engineering and technology, and business toward the study of milk production and processing. The Dairy Production major focuses on the study of milk production, dairy farm operation management, nutrition and feeding, genetics and breeding, herd health and business management. 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.  Students will develop a knowledge base related to the basic biological, physical, microbiological, and chemical sciences.  These sciences are utilized to study the animal health, genetics, physiology, and nutritional requirements of lactating animals. Students will also be exposed to business operations management as it relates specifically to a dairy farm operations. Graduates with a degree in Dairy Production are well prepared for professional positions within the dairy industry or for further graduate study in Dairy Science.

Student Learning Outcomes
Upon completion of the Dairy Production curriculum a graduate should be able to demonstrate the following:

• Understanding of the chemistry and physiology underlying the nutritional requirements of lactating animals, specifically dairy cattle. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Functional and practical approach to maintaining herd health based on a thorough understanding of animal diseases and their causes. (Cross-curricular Skill: Inquiry and Analysis; Information Literacy; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Functional and practical approach to breeding dairy cattle and confirming pregnancy to enable initiation of milk production.(Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Problem Solving; Ethical Reasoning; Integrative Learning)
• Applied genetics related to breeding and herd management. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Problem Solving; Ethical Reasoning; Foundational Lifelong Learning Skills)
• Microbial growth and survival as it impacts the safety and spoilage of milk. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Development of the ruminal microbial environment and impacts on nutrient requirements, milk composition and milk quality. (Cross-curricular Skill: Inquiry and Analysis; Critical and Creative Thinking; Information Literacy; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Understanding of cleaning and sanitation processes and protocols impacting milk quality. (Cross-curricular Skill: Critical and Creative Thinking; Information Literacy; Problem Solving; Foundational Lifelong Learning Skills; Integrative Learning)
• Understanding of dairy farm management and operations principles including finance, human resources, environmental controls, nutrient management, business costs and profitability. (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 or individual 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 utilize critical thinking and reasoning skills while ethically applying scientific principles toward resolving issues associated with the growth, care and feeding, and harvesting of milk from lactating animals. (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)

Mechanical engineers design devices and systems that efficiently employ the materials and forces of nature for the benefit of society. Mechanical Engineering is an applied science profession based on mathematics, physics and chemistry. Expertise and sound judgment in application of the sciences are gained through a combination of study and practice.

Mechanical engineers have a remarkable range of career options from which to choose. Work is found in design and development of a wide range of machines and systems, in manufacturing and automation, in energy and power production, and in various related fields of research, management or business.

Program Educational Objectives
The Mechanical Engineering program provides a learning environment that prepares graduates to achieve the following career and professional accomplishments:

• Achieve positions of increasing responsibility or leadership with employers, professional organizations, or civic organizations in recognition of professional competence and the ability to function in team environments.
• Complete licensure, certification, short courses, workshops or advanced degrees in technical or professional subject areas as they adapt to contemporary engineering practice and the global business environment.

Student Learning Outcomes
Upon completing the Mechanical Engineering program, the student outcomes are:

• An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
• The 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 social 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.

Graduate work in the Department of Agricultural and Biosystems Engineering leads to Master of Science in Agricultural and Biosystems Engineering, Doctor of Philosophy in Agricultural and Biosystems Engineering, and Doctor of Philosophy in Biological Sciences degrees.

Students who undertake graduate studies in Agricultural and Biosystems Engineering normally have as their goal a better understanding of the current theories, principles, issues, and problems in agricultural, environmental and biological systems. Graduate studies improve the student’s ability to think critically and creatively, and to synthesize, analyze, and integrate ideas for decision-making and problem solving.

The department offers students an opportunity to undertake research and advanced study in specialization areas such as food and biomaterial processing, physical properties of biological materials, natural resource engineering, precision agriculture, structures, indoor environment, waste management and machine design.

Student Learning Outcomes

• Conduct Research or Design: Conduct research and/or design projects that demonstrate an ability to model, analyze, and design agricultural and biosystems engineering processes and systems.
• Understand the principles of agricultural and biosystems engineering: The student will articulate a solid understanding of fate fundamental principles of agricultural and biosystems engineering, including the area of specialization and supporting areas.
• Communicate effectively: The student will demonstrate an ability to communicate, both orally and in writing, technical information in an effective manner.

The Master’s degree in Agricultural Education is designed to meet the needs of individuals who work (or plan to work) in agricultural education, non-profit organizations, post-secondary education or in agriculture leadership. The School of Education, Counseling and Human Development provides professional preparation for those who want to expand their knowledge and advance themselves professionally in the agricultural industry.

Students are able to choose from either a program in which only coursework is required or a program in which they must complete a research project or creative component. If a student elects to complete a thesis (Plan A) the program will include 30 credit hours. If a student elects to complete a creative component (Plan B), the student must complete a minimum of 32 credit hours in order to graduate. If a full coursework option is selected (Plan C), the student must complete a minimum of 36 credit hours.

Student Learning Outcomes

• Knowledge of current issues: The graduate of the curriculum and instruction program displays knowledge of current practices, research, theories, and issues in education.
• Knowledge of learning: The graduate of the curriculum and instruction program demonstrates knowledge of how students learn and is able to effectively apply that knowledge within a variety of educational roles.
• Curricular processes: The graduate of the curriculum and instruction program effectively participates in curricular processes.
• Communication skills: The graduate of the curriculum and instruction program effectively communicates.
• Foundational lifetime learning skills: The graduate of the curriculum and instruction program displays commitment to professional involvement and growth through continual learning, reflective practice, and collaboration.
• Technology: The graduate of the curriculum and instruction program makes appropriate use of educational technology.

The Master of Engineering program is a professional degree designed to grow your capacity to manage and lead in complex technical organizations. The program is 50% advanced engineering courses, 50% management and leadership courses, and can be completed on-campus or on-line.

The Master of Engineering (M.Eng.) is a terminal or professional degree as it is coursework only – no thesis. This graduate program is tailored to meet the needs of working professionals at their own pace or for senior-level engineering students who want to earn a graduate degree while still at SDSU. Core classes include project management, operations, and management and leadership, culminating in an applied industry-based project.  Advanced engineering courses come from civil, electrical, mechanical, or agricultural engineering disciplines.

The M.Eng. program has a dedicated industrial advisory board to provide input and guidance on expected student competencies and program outcomes.

Student Learning Outcomes

At the time of graduation from the Master of Engineering program, students will have:

• in-depth technical knowledge in engineering;
• knowledge of contemporary leadership and management in professional practice;
• a demonstrated ability to apply engineering, management and leadership concepts; and,
• a demonstrated ability to effectively communicate verbally, graphically and in writing.

The Capstone course (GE 750) is used to determine whether students have met expected program outcomes. In the Capstone course, students are expected to manage and execute an industry-based project or similar complex application of technical knowledge and management analysis skills.