Professor: Department: :
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Professor: Department: :
Class Syllabus Fall 2014 CHE 452-001 Comprehensive Biochemistry I Professor: Dr. ‘Tayo Odunuga Department: Chemistry and Biochemistry Email: odunugaoo@sfasu.edu Phone: (936) 468-6468 Office: 122 Math Building Office Hours: MWF: 8:30 – 9:30 a.m., TR: 10 a.m. – 12 p.m., F: 11 a.m. – 12 p.m. Class meeting time and place: TR, 8 – 9:15 a. m. Room 106 Chem Bldg Recommended Text and other materials: (1) Reginald H. Garrett and Charles M. Grisham, Biochemistry, 5th ed., Brooks/Cole, Cengage Learning, 2013 ISBN-13: 978-1-133-10629-6, ISBN-10: 1-133-10629-3 (2) A non-programmable scientific calculator. (3) An active email address. (4) Enroll in Sampling Learning Online Homework at https://www.saplinglearning.com/ Course timetable Class Date Tentative Topic Pages in # textbook 1 Aug 26 Introducing syllabus and review of chapter 1 of textbook 1 - 29 2 Aug 28 Acid-base chemistry: water, ions, buffers and the cytoplasm, pH & 30 - 50 Henderson Hasselbach equation. 3 Sept 2 Acid-base chemistry: water, ions, buffers and the cytoplasm, pH & 30 - 50 Henderson Hasselbach equation. 4 Sept 4 Thermodynamics of Biological Systems 51 - 76 5 Sept 9 Amino acids and the peptide bond 77 - 100 6 Sept 11 Proteins: Primary structure and biological functions 101 – 140 7 Sept 16 Proteins: Secondary, tertiary and quaternary structure 141 - 190 8 Sept 18 Proteins cont’d 9 Sept 23 Enzymes: Kinetics and specificity 407 - 444 10 Sept 25 Mechanisms of Enzyme action 447 - 479 11 Sept 30 Enzyme Regulation 481 - 512 12 Oct 2 Carbohydrates 193 - 232 13 Oct 7 Carbohydrates cont’d 193 - 232 14 Oct 9 Nucleotides and Nucleic acids 309 - 335 15 Oct 14 Structure of Nucleic acids 336 - 377 16 Oct 16 Recombinant DNA technologies 378 - 406 17 Oct 21 Recombinant DNA technologies cont’d 18 Oct 23 Lipids 233 - 259 19 Oct 28 Membrane and membrane transport 260 - 307 20 Oct 30 Membrane and membrane transport 260 - 307 21 Nov 4 Overview of metabolism 551 - 576 22 Nov 6 Glucose utilization, Glycolysis and its regulation 577 - 607 23 Nov 11 The TCA cycle: regulation and the glyoxylate cycle 609 - 640 24 Nov 13 The TCA cycle: regulation and the glyoxylate cycle 609 - 640 25 26 27 Nov 18 Nov 20 Nov 25 28 Dec 2 29 Dec 4 Gluconeogenesis, glycogen metabolism and The pentose phosphate pathway Electron transport, oxidative phosphorylation and compared with photosynthesis Electron transport, oxidative phosphorylation and compared with photosynthesis Fatty acid metabolism: mobilization of fats and β-oxidation 643 - 716 643 - 716 719 - 757 761 - 788 Method of Evaluation: The point total for this course is 600 (350 points from tests, 100 points from final exam, and 150 points from online assignment). Grades are based on the total number of points earned out of 600. Test quantity Exam 1 Exam 2 Exam 3 Exam 4 Exam 5 Exam 6 Exam 7 Final exam Online & other assignments Total points Date Monday, Sept 8 at 5:30 p.m. Monday, Sept 22 at 5:30 p.m. Monday, Oct 6 at 5:30 p.m. Monday, Oct 20 at 5:30 p.m. Monday, Nov 3 at 5:30 p.m. Monday, Nov 17 at 5:30 p.m. Friday, Dec 5 at 12 noon. Thursday, Dec 11 at 8:00 a.m. Points 50 50 50 50 50 50 50 100 150 600 [A≥ 540; B≥480; C≥420, D≥360, F<360] There will be a total of seven (7) tests given on the dates indicated in the table above. Each test will be worth 50 points. All tests will be based on topics taught since the last test only. The tests may consist of any type of format. Students have two days from the day any graded item is returned to notify professor of grading error or ask questions about the grade of the item. After two days no points will be returned. In addition, at his own discretion, the professor may re-grade the entire item. Make-up Policy: For a PROVEN, EXCUSED absence, a missed test may be given at the professor’s discretion. Attendance Policy: Attendance in class is mandatory. Roll call will be taken in every lecture. Four (4) or more absences will result in an ‘F’ for the course. Academic Honesty Policy: Cheating in any form will result in an ‘F’ in the course and further action by the University. Academic Disabilities Policy: If you have a certified disability and need accommodations for this course, it is your responsibility to notify me by the third class day. If you have questions concerning the academic disabilities, contact the Office of Disability Services at 468-3004. Acceptable Student Behavior: Classroom behavior should not interfere with the instructor’s ability to conduct the class or the ability of other students to learn from the instructional program (see the Student Conduct Code, policy D 34.1). Unacceptable or disruptive behavior will not be tolerated. Students who disrupt the learning environment may be asked to leave class and may be subject to judicial, academic or other penalties. This prohibition applies to all instructional forums, including electronic, classroom, labs, discussion groups, field trips, etc. The instructor shall have full discretion over what behavior is appropriate/inappropriate in the classroom. Students who do not attend class regularly or who perform poorly on class projects/exams may be referred to the Early Alert Program. This program provides students with recommendations for resources or other assistance that is available to help SFA students succeed. Note: This syllabus is subject to change at the Professor’s discretion. Dr. ‘Tayo Odunuga August 22, 2014 Course Syllabus Chemistry 452-001 Comprehensive Biochemistry I Course Description: Structure, function, and chemical aspects of proteins, nucleic acids, and carbohydrates; enzyme kinetics; mechanism/regulation of enzymes; introduction to metabolism; carbohydrate metabolism. Number of Credit Hours: 3 semester hours - 3 hours lecture Course Prerequisites and Corequisites: Prerequisite: CHE 330 or CHE 331. Program Learning Outcomes: 1. The student will demonstrate knowledge of fundamental content in the basic areas of chemistry: Analytical, Biochemistry, Inorganic, Organic, and Physical. 2. The student will integrate knowledge with critical thinking to solve problems. 5. The student will articulate scientific information through written communication. General Education Core Curriculum Objectives: There are no specific general education core curriculum objectives in this course. This course is not a general education core curriculum course. Course Objective: To gain competency in the major areas of biochemistry which include protein structure/function, protein techniques, nucleic acid structure/function, nucleic acid techniques, enzymes, enzyme kinetics, enzyme mechanisms, membranes, carbohydrate, metabolism. Student Learning Outcomes: The student is expected to demonstrate and apply the following concepts to biochemistry. Recognize vocabulary used in biochemistry especially in relation to proteins, DNA, enzymes, other biological molecules, and metabolism. (PLO 1) Applying vocabulary and basic concepts to solving more advance problems in biochemistry. (PLO 1, 2) Applying mathematical knowledge in the field of biochemistry which includes buffers, kinetics, energy as well as theoretical background of centrifugation and electrophoresis. (PLO 1, 2) Be able to integrate knowledge of other scientific disciplines with the field of biochemistry and be able to communicate this knowledge. (PLO 5) Outline of Topics (approximate course time): Introduction (5-15%) Biomolecules (5-15%) Amino Acids, Peptides, and Proteins (5-15%) Protein Architecture and Biological Function (5-15%) Enzyme Reactions (5-15%) Kinetics (5-15%) Coenzymes (5-15%) Enzymes Regulation/Mechanism (5-15%) Abzymes and Ribozymes (5-15%) Carbohydrates (5-15%) Lipids (5-15%) DNA and RNA (5-15%) Cellular Metabolism (5-15%) Metabolism of Carbohydrates (5-15%) Citric Cycle (5-15%) Phosphogluconate Pathway (5-15%) ATP (5-15%)