CHEM 464 Biochemistry I (3 Credits), Spring 2015 Department of Chemistry and Biochemistry, South Dakota State University Instructor: Surtaj H. Iram, PhD E-mail: surtaj.iram@sdstate.edu Office Hours: M, F: 3:00 - 4:00 pm Office: SAV 369 Texts: Required: “Principles of Biochemistry” Lehninger, Nelson, Cox (Sixth Edition). Course Website: CHEM 464 on D2L Prerequisite: CHEM 326, CHEM 328 (or equivalent) Lectures: 9:00-9:50 am, MWF, Avera Health & Science Center, Room SAV-382 Description: Introduction to Biochemistry. Biochemistry can be organized in four parts: • Structural Biochemistry. Structure and properties of biomacromolecules. • Function and Regulation. Protein function, enzyme kinetics, biosignaling. • Metabolism. Energetics, redox chemistry. • Gene expression. Replication, transcription, translation, post-translational modifications. This class will cover three (3) of the four topic areas---structural biochemisty, function and regulation, and gene expression---in this order. Biochemistry II (CHEM 465) will cover metabolism and regulation in greater depth. Attendance: Attendance is strongly encouraged. You should focus your learning on the topics and material that I cover in class. Use the book to review those topics. Sometimes I will give examples that you will not find in the text book, therefore if you miss class, I suggest that you find a friend who takes good notes. If you miss class, you are probably putting yourself at a disadvantage. Honesty: Work submitted is to be the effort of the individual, unless otherwise advised. No aids may be used during the examinations unless approved by the instructor. Anyone participating in an act of dishonesty will receive a failing grade for the course and may be referred through appropriate university procedures for further disciplinary action. Make-up Policy: All exams must be taken as scheduled. If you have a legitimate reason for missing the exam you must notify the instructor within 24 hrs and the make-up will be scheduled at the earliest convenience. There is no makeup for the final exam. Classroom Etiquette: No use of cell phones, PDAs, or similar devices - any student using such a device will be asked to leave the classroom for the remainder of the lecture. No computer or internet usage - lecture slides may be available on D2L after the lecture Students are expected to attend each lecture, lectures are not repeated Grading: Two exams, a midterm and final each worth 100 pts will be given. Midterm exam counts for 40% and final exam counts for 45% of your grade. The final exam is not comprehensive. Each student will be asked to choose a recently published scientific journal in biochemistry and give a 35 min. class presentation. You have to get this paper approved by the instructor at least 3 weeks before your presentation date. You will be assigned to a small group to discuss the paper and prepare for your presentation. This project will count 15% of your grade (5%, peer review by your group members based on the engagement and contribution in the group activity and 10% by the instructor based on quality and effort of your presentation). Curve will be applied if necessary. A 90% > B 80 > C 70 > D 60 >F Course Learning Goals and Objectives: This course addresses the student learning outcomes as set forth in System General Education (SGE) Goal #6 by the South Dakota Board of Regents: “Students will understand the fundamental principles of the natural sciences and apply scientific methods of inquiry to investigate the natural world.” Gain factual knowledge ( terminology, classifications, methods, trends). Learn fundamental principles, generalizations, or theories Develop specific skills, competencies, and points of view needed by professionals in the field most closely related to this course Student Learning Outcomes: As a result of successfully completing CHEM 464, students will: Know the structures and properties of biomacromolecules, including DNA, RNA, proteins, carbohydrates and lipids. Understand the molecular details of the central dogma of molecular biology (DNA RNA protein) Understand the protein folding, assembly and post-translational protein modifications. Understand the molecular signaling mechanisms that living organisms use to regulate DNA, RNA, and proteins. Understand and apply core concepts in structural biochemistry, enzyme kinetics, and molecular genetics. Student Learning outcomes will be assessed through two exams and student presentations. Instructional Methods: Class lectures, Power Point presentations, class discussion, student group discussions and presentations. Freedom in learning: Under Board of Regents and University policy student academic performance may be evaluated solely on an academic basis, not on opinions or conduct in matters unrelated to academic standards. Students should be free to take reasoned exception to the data or views offered in any course of study and to reserve judgment about matters of opinion, but they are responsible for learning the content of any course of study for which they are enrolled. Student who believe that an academic evaluation reflects prejudiced or capricious consideration of student opinions or conduct unrelated to academic standards should first contact the instructor of the course to initiate a review of the evaluation. If the student remains unsatisfied, the student may contact the department head and/ or dean of the college that offers the class to initiate a review of the evaluation. Accommodations: SDSU is committed to providing reasonable accommodations to students who have a documented disability (e.g., physical, learning, psychiatric, vision, hearing, or systemic) that may affect their ability to participate in course activities or to meet course requirements. Students are encouraged to contact Nancy Hartenhoff-Crooks, Coordinator of Disability Services for a confidential discussion of their individual needs for academic accommodations. The Office of Disability Services is located in 125 Wintrode. Staff can be reached by calling 605.688.4504 or emailing Nancy.Crooks@sdstate.edu. Course Evaluation: The Department of Chemistry and Biochemistry uses the e-IDEA survey to collect student opinion about a course, including content and instruction. You are strongly encouraged to participate in this survey. Also, I would like 2 students to volunteer to meet with me monthly about how they feel the class is going. The job of these 2 students is to meet with the other students in the class and give me collective feedback. Late to Class statement: All members of the class should make every effort to arrive on time. In the event that I am going to be late, due to circumstances beyond my control, I will, if possible, notify the department and request that someone be sent to apprise you of the situation. If such notification is not possible, please remain in the class for 15 minutes beyond the scheduled start time. If I have not yet arrived, and if no emissary of the department has informed you otherwise, class will be cancelled and you will be free to leave. However you are encouraged to work on the assignments or utilize the web resources covered in the lectures. Use of D2L: Students are strongly encouraged to be familiar accessing and utilizing D2L (desire to learn). The instructor, for announcements, may use D2L email occasionally, however D2L email should not be used to reach the instructor. He is accessible with the above contact e-mail. Course Schedule Week Lecture Date Topic 1 1 1/12 (Mon) Introduction 1 2 1/14 (Wed) Amino acids and Peptides 3 1 3 1/16 (Fri) Structure of Proteins 4 1/19 (Mon) No Class- Martin Luther King Jr. Day Holiday 2 Chapter 2 4 1/21 (Wed) Structure of Proteins 4 2 5 1/23 (Fri) Protein Purification 3 3 6 1/26 (Mon) Protein Sequencing 3 3 7 1/28 (Wed) Protein Structure Determination 4 3 8 1/30 (Fri) Protein Function 5 4 9 2/2 (Mon) Review 4 10 2/4 (Wed) Enzymes 6 4 11 2/6 (Fri) Biological Membranes 11 5 12 2/9 (Mon) Biological Membranes 11 5 13 2/11 (Wed) Biosignaling 12 5 14 2/13 (Fri) Biosignaling 12 2/16 (Mon) No Class- President’s Day Holiday 6 6 15 2/18 (Wed) Nucleotides and Nucleic Acids 8 6 16 2/20 (Fri) DNA-Based Information Technology 9 Week Lecture Date Topic Chapter 7 17 2/23 (Mon) Genes and Chromosomes 24 7 18 2/25 (Wed) Review 2/27 (Fri) Midterm Exam 7 8 19 3/2 (Mon) DNA Replication 25 8 20 3/4 (Wed) Transcription 26 8 21 3/6 (Fri) Translation 27 9 3/9 (Mon) Spring Break 9 3/11 (Wed) Spring Break 9 3/13 (Fri) Spring Break 10 22 3/16 (Mon) Regulation of Gene Expression 28 10 23 3/18 (Wed) Regulation of Gene Expression 28 10 24 3/20 (Fri) Regulation of Gene Expression 28 11 25 3/23 (Mon) Regulation of Gene Expression 28 11 26 3/25 (Wed) Methods in Biochemistry 11 27 3/27 (Fri) Methods in Biochemistry 12 28 3/30 (Mon) Review 12 29 4/1 (Wed) Student Presentation 4/3 (Fri) No Class- Easter Recess 12 13 30 4/6 (Mon) Student Presentation 13 31 4/8 (Wed) Student Presentation 13 32 4/10 (Fri) Student Presentation Week Lecture Date 14 33 4/13 (Mon) Student Presentation 14 34 4/15 (Wed) Student Presentation 14 35 4/17 (Fri) Student Presentation 15 36 4/20 (Mon) Student Presentation 15 37 4/22 (Wed) Student Presentation 15 38 4/24 (Fri) Student Presentation 16 39 4/27 (Mon) Student Presentation 16 40 4/29 (Wed) Student Presentation 16 41 5/1 (Fri) 5/6 (Wed) Topic Chapter Review Final Exam