BiochemistryMichael Kanost, Head
Professors Davis, Kanost, Muthukrishnan, Reeck, Roche, D. Takemoto, Tomich, and X. Wang; Associate Professors Krishnamoorthi, Prakash, A. Zolkiewska, and M. Zolkiewski; Assistant Professor Wei; Research Assistant Professor Iwamoto; Emeriti: Professors Burkhard, Koeppe, Kramer, Mitchell, Nordin, Parrish, and Ruliffson; Associate Professor Mueller.
Biochemistry seeks to understand the molecular events of life processes. It applies chemical and physical techniques to elucidate the structure and organization of molecules, particularly macromolecules that are responsible for the structural organization as well as operation and control of all cellular processes. The emerging knowledge has broad importance and consequences for all areas of the life sciences.
The Department of Biochemistry offers work leading to bachelor of arts and bachelor of science degrees with majors in biochemistry. The B.A. degree provides a liberal education with sufficient emphasis on science for students who wish to prepare for certain professional schools. The B.S. degree prepares students for professional careers in biochemistry or entry into graduate biochemistry training programs.
To graduate, a student must have a grade of C or better in all science and mathematics courses required for the degree, including transfer courses, as specified below. In addition, to graduate a student must have a 2.2 GPA in required science and mathematics courses taken at K-State.
Bachelor of arts
Bachelor of science
These courses in this list satisfy the natural science and quantitative reasoning requirements shown in the general requirements for the B.S. degree.
Community college students who plan to transfer into either of the biochemistry curricula at the junior level should take the following science courses during their first two years of college:
A year of freshman chemistrylecture and laboratory A semester of analytical chemistrylecture and laboratory A year of organic chemistrylecture and laboratory A year of analytic geometry and calculus A year of biologylecture and laboratory
Completion of these science courses should allow students to go directly into biochemistry and advanced biology courses upon entry into a biochemistry curriculum.
Concurrent B.S./M.S. program
For details of application procedures and the program of study toward the M.S. degree, see the online graduate catalog at www.ksu.edu/grad. Admission and retention in the program requires a 3.0 GPA. Students may apply after they have accumulated 45- 90 hours towards the B.S. degree. Students in the B.S./M.S. program are excused from BIOCH 590 because the M.S. program requires that they take the comparable graduate course BIOCH 790.
BIOCH 101. Biochemistry Colloquium. (2) I, II. Offered by TELENET. Topics in biochemistry chosen to illustrate current research of scientists and methods chosen to study biological problems from a biochemical point of view. At each offering of this course a syllabus will be available giving the topics to be studied and the details of administration of the course. May be repeated once. Not open to biochemistry majors.
BIOCH 110. Biochemistry and Society. (3) I, II. Biochemically oriented topics and news items related to environmental and medical aspects of daily living. Covers selected basic biochemical concepts with applications to humans: proteins as enzymes, energy from foods, biochemical communications and drug interactions, genes and heredity. Intended for nonscience majors.
BIOCH 265. Introductory Organic and Biochemistry. (5) I, II. For students in human ecology, nursing, and other areas desiring an integrated organic and biochemistry course to provide an understanding of carbohydrates, proteins, lipids, and digestive and metabolic systems. Three hours lec. and six hours lab a week. Pr.: CHM 110.
BIOCH 399. Honors Seminar in Biochemistry. (3) II. Lecture, guided reading, and discussion of topics of general interest in biochemistry. Topics will vary depending on the interests and backgrounds of students enrolled. Pr.: Freshman Honors Seminar.
BIOCH 499. Senior Honors Thesis. (2) I, II, S. Open only to seniors in the arts and sciences honors program. May be used by honors students to satisfy B.S. requirement for BIOCH 799. Pr.: BIOCH 755 or conc. enrollment.
BIOCH 522. General Biochemistry Laboratory. (2) I, II, S. A one-semester laboratory course with experiments relating to carbohydrates, lipids, proteins, nucleic acids, and enzymes. Six hours lab a week. Pr.: CHM 351 and BIOCH 521 or conc. enrollment, or BIOCH 755 or conc. enrollment.
BIOCH 590. Physical Studies of Biomacromolecules. (3) II. An overview of concepts and techniques of physical science used in studying the structure and function of biomacromolecules such as proteins and DNA. Applications include classical equilibrium thermodynamics and spectroscopic methods including mass spectrometry, circular dichroism (CD), and nuclear magnetic resonance (NMR). Pr.: CHM 500, MATH 221, and PHYS 114.
BIOCH 599. Research Training in Biochemistry. (1-3) I, II, S. Provides laboratory experience for majors and nonmajors in research techniques contributing to ongoing biochemical research. May be repeated up to 8 hours. Pr.: *Background adequate for relevant techniques.
Undergraduate and graduate credit
BIOCH 756. Biochemistry I Laboratory. (2) I. An intensive laboratory course to accompany BIOCH 755. BIOCH 756 and 766 are sequential courses for students interested in a two-semester comprehensive coverage of experiments in biochemistry. For a one-semester laboratory course, enroll in BIOCH 522. Six hours lab a week. Pr.: *BIOCH 755 or conc. enrollment.
BIOCH 757. NMR Laboratory. (1) II. Basic methods and strategies of nuclear magnetic resonance used in the study of biological molecules. Principles and applications of simple one-dimensional and two-dimensional NMR experiments. Two three-hour laboratories per week. Meets second half of semester. Pr.: BIOCH 755.
BIOCH 758. Protein Structure Laboratory. (1) II. Principles and uses of computational and experimental approaches for studying peptide and protein structure and dynamics: computer modeling and simulation techniques, fluorescence and circular dichroism spectroscopies, microcalorimetry, and analytical ultracentrifugation. Two three-hour laboratories per week. Meets first half of semester. Pr.: BIOCH 755.
BIOCH 765. Biochemistry II. (3) II. Continuation of BIOCH 755; lipid chemistry and metabolism, amino acid metabolism, nutrition, nucleic acid chemistry and metabolism, integration of biochemical pathways and metabolic control mechanisms. Pr.: *BIOCH 755.
BIOCH 766. Recombinant DNA Laboratory I. (1) II. Biochemical manipulation of nucleic acids. Isolation and restriction enzyme characterization of plasmid DNA, ligation of DNA fragments to vector DNA, polymerase chain reaction, Southern blot analysis, DNA sequencing and analysis. Two three-hour labs per week. Meets first half of semester. Pr.: BIOCH 522.
BIOCH 767. Recombinant DNA Laboratory II. (1) II. Approaches to study RNA and proteins using recombinant DNA techniques. RNA extraction and affinity isolation of mRNA, Northern blot analysis, cDNA library construction and screening, bacterial or eukaryotic expression systems, purification and characterization of recombinant proteins, site-directed mutagenesis. Two three-hour labs per week. Meets second half of semester. Pr.: BIOCH 522.
BIOCH 790. Physical Biochemistry. (3) I. A survey of biophysical methods most frequently encountered in biochemistry and related disciplines. Emphasizes principles underlying methods used in determining the molecular weight and shape of biopolymers and techniques used in detecting conformational changes in nucleic acids, proteins, and polysaccharides. Pr.: MATH 221 and BIOCH 765.
BIOCH 799. Problems in Biochemistry. (Var.) I, II, S. Problem may include laboratory or library work in various phases of biochemistry, agricultural chemistry, or nutrition. Pr.: *Background adequate for problem undertaken.
*Nonmajors lacking these prerequisites should obtain consent of instructor before enrollment.