A course designed to acquaint students with the common experimental methods used in agricultural biotechnology. Students will be presented with several case studies which demonstrate basic scientific reasoning and experimental strategies. The students will then use their understanding of basic scientific methods and agricultural systems to critically evaluate work from the current scientific literature. Each student will be required to provide a written and oral evaluation of a research project in some aspect of agricultural biotechnology.

The goals of this course are to expose students to current scientific literature in the life sciences, develop skills for the evaluation of primary research literature and presentations, prepare students to write an independent research proposal, and develop oral communication skills. Student participation is a key component of activities, and students are required to provide both oral and written evaluations of research publications, presentations, and proposals.

The goals of this course are to expose students to current scientific literature in the life sciences, develop skills for the evaluation of primary research literature and presentations, prepare students to write an independent research proposal, and develop oral communication skills. Student participation is a key component of activities, and students are required to provide both oral and written evaluations of research publications, presentations, and proposals.

The goals of this course are to expose students to current scientific literature in the life sciences, develop skills for the evaluation of primary research literature and presentations, prepare students to write an independent research proposal, and develop oral communication skills. Student participation is a key component of activities, and students are required to provide both oral and written evaluations of research publications, presentations, and proposals.

This course will explore the historical perspectives, current applications, and future directions of biotechnology. The course will consist of informal lectures and interactive discussions led by Agricultural and Medical Biotechnology faculty and visiting professionals. The course will also orient students to the educational/career opportunities in Biotechnology and assist them in developing a focus for their degree programs.

The basic principles of heredity as currently understood from evidence accumulated in classical, cytogenetic, molecular, and squantitative genetic experiments. Emphasis is placed on a thorough understanding of genetic principles and the relationship of genetics to all biological disciplines.

An experiential education internship focusing on introducing students to the culture and activities of a science lab without the pressure or expectation of research productivity. Students will gain experience and confidence with important laboratory activities such as (but not limited to) maintaining clean equipment, media preparation, biological organism maintenance, and data organization and analysis.

ABT 395 INDEPENDENT STUDY IN BIOTECHNOLOGY (1-4 credit hours). Independent study in biotechnology under the supervision of a faculty member. May be repeated for a maximum of six credits. Prereq: Agrciultural Biotechnology major and consent of appropriate instructor before registration. Will allow multiple registrations during the same semester.

ABT 396: Research in biotechnology under the supervision of a faculty member. One to four credit hours/semester. The course may be repeated for a maximum of six credits, but the student must meet the requirements each semester to allow enrollment. This course should further the students' experience with science, enhance their appreciation for the scientific process, and what it means to conduct scientific research.

Molecular genetics is the study of the biochemical basis of heredity and focuses on the structure and expression of DNA at the molecular and cellular level. The course will provide a detailed understanding of the biochemical events involved in genome replication, prokaryotic and eukaryotic transcription, and translation of DNA, as well as RNA processing, recombination and the theoretical underpinnings of genetic engineering.