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BIOL 202: Molecular Biology & Genetics Dr. Kelly Hogan Fall 2016 T/Th 12:30-1:45 Section 006 GSB 200 Prerequisites BIOL 101 and CHEM 101 (or 102), with a grade of C or better Dr. Kelly Hogan Office location: Wilson Hall room 104B Web page: http://bio.unc.edu/people/faculty/hogan/ Email: [email protected] Office hours: Check “sign-up” on Sakai to reserve a slot (and for any last minute additions/deletions to my hours for each week). My hours for each week will generally be: Mondays 3:00-5:00 Thursdays 2:15-3:15 pm (I may add/delete hours some weeks to fit my schedule or see individuals outside of these hours if necessary. Please use Piazza if you have questions that a TA or peer can answer.) Your Graduate TAs Katie Bollin: [email protected] Chris Holmquist: [email protected] and Kaitlin Curry: [email protected] --TA’s can be contacted by email to set up appointments. Recitations led by Graduate TAs 601 Th 3:30 (Chris) 602 Th 4:30 (Katy C.) 605 Fr 11:15 (Katie B.) 606 12:20 (Katie B.) 603 Th 5:30 (Katy C.) 607 Fr 1:25 (Katie B.) 604 Fri 10:10 (Chris) 608 Fr 2:30 (Katie B.) In this highly structured, active learning course, we have evidence that every student can achieve if they are motivated to be an active learner! We have three main additional resources: 1. Supplemental Instruction (known as “S.I”)* Danielle Spitzer [email protected] and Megan Sefler [email protected] *Times subject to change but likely will be: M & W 6-7 and Tues & Thur 5-6 (See sakai for details) 2. Peer mentors: Nick McKenzie, Brooks Knighton, Kasey Norton, Boateng Kubi, Brittany Cooper, Ranjitha Ananthan, Brandon Feaster, Annaleigh Powell 3. Learning Center: http://learningcenter.unc.edu/ Need biology specific help? Make a tutoring appointment. Want to talk about study strategies/time management or testing? Make an appointment with an academic coach. Main Goals of the course 1. This course should prepare you to succeed in future science courses. You should learn how to be an active learner in the lecture hall and you should learn how to actively study. Educational research has shown that students in this course who do reading/ homeworks before class, actively participate in class, and review notes regularly can and will succeed. Feeling underprepared because of your background? The course is designed to equalize your readiness before class—while you may take several hours reading and preparing, another student may need less time. Yet when you get to class, your effort will pay off as we practice these concepts together and you gain confidence in your ability! How do you know you are learning? When you make mistakes and identify what you don’t know. Making mistakes is KEY to learning. It makes more sense to make mistakes on homeworks and in-class when the stakes are very low, rather than on an exam, right? 2. This course should provide you with the basic language and common themes within the field of genetics and molecular biology. For those of you continuing in biology, this is just the tip of the iceberg. Thoroughly learning the principles is about making connections between material learned at the beginning, middle, and end of the semester! Practice is key to building a foundation of knowledge (and that is why you do Guided Reading notes, Mastering Biology, in-class activities, quizzes, SI, etc.) To the left you see the major theme of the course is “Information”. We’re explore how genetic information is stored, transmitted, and how information flows from DNA to RNA and proteins. 3. This course should provide you with introductory skills necessary to become a scientist, including testing hypotheses, designing experiments, interpreting results, considering the impact of the science on society, and collaborating with peers. We’ll practice these skills both inside and outside the classroom/recitation sections. Copyright Information: Allmaterialsused inthiscourse includingnotes,tests and assignments arecoveredby copyrightswhichforbid youfromsharingclass materialswith any group. TheUniversity’s CopyrightPolicy, whichcan befoundat http://www.unc.edu/campus/policies/copyright%20policy%2000008319.pdf indicates "STUDENT WORKS THATCONSTITUTENOTESOFCLASSROOMAND LABORATORY LECTURESANDEXERCISESSHALLNOTBEUSEDFORCOMMERCIALPURPOSESBYTHE STUDENTGENERATINGSUCHNOTES." Whatthis means is that youarein violationofthe law(and thehonorcode) if youpost/text/share anycoursematerialsforusebyothers. Expectations The course is composed of three class meetings and one recitation session each week. This is NOT a class for passive learners. You are expected to be actively engaged in this course through class discussions, class activities and pre- as well as post-lecture assignments and readings. It is expected that you will spend several hours reading/working problems associated with each class. If you stay on top of your reading and homework, there will be no need to cram for an exam. Practice, practice, and practice more. Use the internet or other textbooks in the library to find more problems if you run out from your textbook. You are expected to stay on top of reviewing weekly. Successful students review routinely. Really. Don’t wait. Attend SI sessions to review material with your SI leaders, do one-on-one meetings with peer mentors from class or visit the Learning center learning specialists. Successful students ask questions and get help, ROUTINELY! COURSE WEBSITE: www.SAKAI.unc.edu This site will have postings from our lectures such as outlines, power point slides, supplemental material that we mention in lecture. We will also post announcements on this site. It is your responsibility to check it regularly and receive email announcements. Course Materials to be Purchased Klug et al.: Essentials of Genetics 8th edition (ebook with Modified Mastering and Learning Catalytics access) The textbook is available in the bookstore in different formats. You need only the Modified Mastering access code that includes the ebook and Learning Catalytics). Please be sure to have the exact right code that is “Modified” Mastering Genetics or else your purchase won’t work with our class. See UNC bookstore to purchase the correct material or Sakai for more information. Should you also purchase a physical textbook? That is entirely up to you. There are different packages that make it cheaper if you want both the ebook and physical book. Why the ebook? This ebook comes with a web-based software package called Modified Mastering Genetics that will be the medium through which you will be quizzed and receive short pre-lecture and post-lecture assignments. We’ll also be able to use Learning Catalytics, which is classroom response software to interact with me and your peers during class. See Sakai for your course code to register at www.pearsonmylabandmastering.com ADDITIONAL REQUIREMENTS: A laptop or smart phone (wi-fi enabled device) to answer in-class questions. You must connect to UNC WiFi (Eduroam). http://help.unc.edu/help/connecting-to-the-unc-network-getting-started/ 4 X 6 notecards (any style) Recitations (10%) During recitations, TAs will lead you through activities or problem solving practices. This course is a 4 credit hour course, and the recitations are not simply “going over the material that was learned in class”, but rather a core component of the course. Some of the material covered in recitations will be supplemental to the one discussed in class. There will be no make-up opportunities for inclass assignments if you do not attend a recitation in a given week. If you are unable to attend the recitation for which you are registered one week, you may attend another section with prior permission of the TAs if there is room in another section. There is a maximum capacity for each section so please do not assume that you can attend another section if you miss a recitation. Supplemental Instruction We will offer supplemental instruction (SI) sessions led by two undergraduate students who excelled in this class in a previous semester. The SI sessions will allow you to process and actively practice material that was taught in the previous week. Students referred to the SI sessions in the past as one of the most significant tools that improved their learning. A great review, but one-on-one may be better for you if you are struggling and need more than a group review. Peer Mentors (One-on-one help with content and strategies) Some of our best students who excelled in this class will be happy to assist you both in the classroom during activities and outside the classroom. Come with your textbook and your specific questions. Each mentor will hold one hour a week, please check Sakai for this schedule. Come with your textbook, your specific questions, and a friend if you need one for moral support! Learning Center: Still feel like you’re not reaching your goals? We suggest seeing a biology specialist at the STEM Hub or an academic coach. Successful students seek help early and often! Assignments During the semester you will have pre-class, in-class, and post-class assignments. The pre-class assignments will be based on assigned readings from the textbook. The assignments will be given via the MasteringGenetics system (see above). In-class assignments will include Leaning Catalytics and other activities. Post-class assignments will include timed MasteringGenetics Quizzes (MG Quiz) and occasionally Peerwise assignments and Open ended (OE) Homework Assignments (see below). All assignments due dates appear on the detailed schedule. Updates will be announced on Sakai. You are responsible for submitting the assignments on time. There will be no “second chances” in this case. Mastering Genetics homework + Quizzes (8%) Homeworks done through Modified Mastering Genetics will be due by 11AM on the day of class. (That is, they are done BEFORE class starts.) Mastering Genetics is where all homework assignments/due dates can be found. Late homeworks will receive a zero. This is a tool for you to gauge what you are learning from the reading and what you do and don’t know. Dishonesty on this work only hurts you later on exams. It’s okay if you find these questions challenging at times, the idea is to figure out what you need more practice with. See Mastering Genetics for when specific assignments are due. Occasionally, there will not be a homework due before class. See Sakai for the course code and to register. Mastering Genetics Quizzes: There will be a few quizzes over the semester through Mastering Genetics. The goal of these, like the open-ended homework is to prepare for exams. These will be timed, and you will not be able to go backwards on these questions or try each question again. Learning Catalytics (10%) In this class you will use Learning Catalytics to answer questions that we pose during class. You can submit your responses using a laptop or other mobile device with a UNC WiFi connection, such as a smart phone or tablet. You must be on the Wi-Fi network and NOT on your cellular service (which is spotty and unreliable in our classroom). You can log in through Mastering or go directly to learningcatalytics.com with your Mastering username and password. Some of the questions will be for participation, many will be graded for correctness. it behooves you to come prepared to class and to work collaboratively with peers in class when told to do so! Note - missing just a couple of classes can quickly affect your participation grade! Each student will get some freebie points to account for sickness, varsity travel, technology glitches, etc. Please do not email me with all of your excuses. If you have extended absence or excused travel, please have a note and let me know AFTER grades are calculated. We’ll correct the grade after they are tabulated and you have your excuses in hand. **Learning Catalytics is to be done with students who are in the classroom participating. If you are found answering and you are not in the classroom, you may receive a zero for your grade for the semester. PeerWise (part of Learning Catalytics grade) One of your assignments during the semester will be to create multiple choice questions that address the material we learn. Asking questions and evaluate your peers’ questions has been shown to be an invaluable tool in developing deep learning. Posting and reviewing questions will be done through an interactive system called PeerWise. Instructions on how to register and how to use PeerWise will be given during the semester. You will post 2 questions and answer 3 prior to exams 2, 3, and the last day of class. Open-ended Homework Assignments (part of recitation grade) Problem sets will be posted on Sakai. Written answers are to be handed in at your recitation section the week the assignment is due. Solutions to the problem sets will be posted the subsequent weekend. TAs will grade a selected problem on the homework, and performance on the problem sets will contribute to your recitation grade. EXAMS (18% each) Students missing an exam are expected to have an excused absence note and notify the instructor prior to missing an exam. A make-up exam must be taken within one week of the exam, otherwise the final exam score will count for that portion of the grade missed. If, for some reason, you feel an error has been made in determining an exam score, you may submit the exam for a re‐grade within 3 school days after the exam has been returned to the class. You must submit in writing your reasons for requesting a re‐grade. Staple the request to your exam, and give it to the appropriate instructor or TA. Legitimate reasons for a re‐grade request include, for example, incorrect summation of scores and bona fide errors in grading a particular problem; this does not include student judgments about the amount of partial credit deserved for incorrect answers. Written responses to student requests will be returned in class. If you are a student who has accommodations give with ARS, you SHOULD use them for testing in this class and you should discuss with Dr. Hogan ahead of time. (Procedure: Dr. Hogan will upload the exam to the ARS Dropbox, ARS students will return to her office.) PIAZZA Sign up: piazza.com/unc/fall2016/biol202hogan One more way to get everyone involved and getting personalized attention! Interesting research about a “confidence gap” and how this kind of technology ensures women and underrepresented minorities feel more comfortable asking and answering course-related questions. For example, men answer 37% more questions than women in STEM classes, but being able to answer anonymously, may close this gap. http://blog.piazza.com/stem-confidence-gap/ So what are you waiting for? Get on Piazza and start asking and answering questions! Grading The material taught in class meetings and recitation will be combined for the final course grade. Your grade for this course will be determined as follows: 3 midterm exams = (18% each) 1 cumulative final exam (18 %) MasteringGenetics assignments/quizzes (8%) Recitations (10%) Peerwise and Learning Catalytics (10%) Grades will not be assigned for individual exams, only points. Final grades will be assigned on the total number of points for the entire semester: A 93-100; A- 90-92; B+ 87-89; B 83-86; B80-82; C+ 77-79; C 73-76; C- 70-72; D+ 66-69; D 60-65; F <60 A curve will be used ONLY if the class grade average is <75. Exam questions will be taken from class meetings and assigned readings. Exams must be taken on the dates indicated; no makeup exams except in special circumstances, i.e. medical or family emergency documented in writing. HONOR CODE: All work done in this class must be carried out within the letter and spirit of the UNC Honor Code. You must sign a pledge on all graded work certifying that no unauthorized assistance has been given or received. You are expected to maintain the confidentiality of examinations by divulging no information about any examination to a student who has not yet taken that exam. You are also responsible for consulting with your professors if you are unclear about the meaning of plagiarism or about whether any particular act on your part constitutes plagiarism. Please talk with the professor if you have any questions about how the Honor Code pertains to this course. THE PROFESSORS RESERVE THE RIGHT TO MAKE CHANGES TO THE SYLLABUS, INCLUDING HOMEWORK DUE DATES. THESE CHANGES WILL BE ANNOUNCED AS EARLY AS POSSIBLE. TEST DATES will NOT change unless there is a university closing/emergency coinciding with the scheduled exam). Schedule and assignments: Date Do BEFORE class (Exact readings are listed on the GRQs document; GRQs are generally NOT turned in but you may be asked to present them during class) Tues Aug 23 Guided Reading Questions (GRQs) #1 Mastering Assignments (MA) #1 #and “Introduction to Biol 202” Class Topic (See powerpoints for specific objectives) (Bring class outline, printed, that corresponds to each lesson.) Welcome and survey 1. Introduction to themes of genetic information and the process of science Thur Aug 25 GRQs #2, MA #2 2. How genetic information is organized in the genome Recitation #1 No pre-assignment Welcome. Make sure you have been assigned to your “role” for recitation #2 or how to access the assigned roles on sakai. Tues Aug 30 GRQs #3, MA #3 and GRQs #4, MA #4 3. How genetic information flows from DNA to RNA to protein 4. Variation in genetic information- from genotype to phenotype Thur Sep 1 GRQs #5, MA #5 and GRQs #6, MA #6 5. Process of Science: Discovery of the structure and function of DNA 6. Process of science: Discovery of how DNA replicates Recitation #2 Pre assignment: Research your “role” and bring print out A right to her genes: BRCA case study Tues Sep 6 Open Ended (OE) HW #1; and do GRQs #7, MA #7 7. How genetic information is copied in vivo and in vitro Thur Sep 8 GRQs #8, MA #8 8. How genetic variation arises by gene mutation (mutagens and mitosis) Recitation #3 Pre-assignment: do short worksheet on STRs Turn in OE HW #1; PCR and DNA fingerprinting Tue Sep 13 MG Quiz 1 + GRQs #9, MA #9 9. How genetic variation arises by recombination during meiosis Thur Sep 15 GRQs #10, MA #10 10. How errors in meiosis lead to genetic variation reading about DS “Almost Perfect genetic world” Recitation #4 No pre-assignment; print and cut out chromosomes before attending. Finish previous week activities and Meiosis Tues Sep 20 GRQs #11, MA #11 11. Balancing unequal amounts of information between males and females: Dosage Compensation Thur Sep 22 Recitation #5 EXAM 1 (Lessons 1-11) Pre-assignment Meet in MakerSpace (see Sakai for details) Tues Sep 27 GRQs# 12, MA#12 12. The flow of genetic information from DNA to RNA Thurs Sep 29 GRQs #13; MA #13 13. The flow of genetic information from RNA to proteins I Recitation #6 Pre-assignment Northern Blotting Tues Oct 4 GRQs #14; MA #14 14. The flow of genetic information from RNA to proteins II Thurs Oct 6 MG Quiz #2 + GRQs #15; MA #15 15. Revisiting the molecular basis of alleles and mutations Recitation #7 Pre-assignment + BRING charged LAPTOP to recitation APC gene expression case study Tues Oct 11 GRQs #16; MA #16 16. Regulating the flow of information in prokaryotes I and the microbiome Thurs Oct 13 GRQs #17; MA #17 17. Regulating the flow of information in prokaryotes II Recitation #7 No pre-assignment Turn in OE HW #2; Practice: Regulation of gene expression in prokaryotes Tues Oct 18 GRQs #18; MA# 18 and MA “More lac operon practice” 18. Regulating the flow of information in eukaryotes Thurs Oct 20 No Class- FALL BREAK FALL BREAK No recitation this week FALL BREAK Tues Oct 25 Review your GRQs #18 19. Regulating the flow of information in eukaryotes Thurs Oct 27 No assignment 20. Epigenome: Ghost in our Genes Recitation #8 Review Tues Nov 1 EXAM 2 (Be sure you have posted 2 Peerwise Qs and answered 3 before this exam) Thur Nov 3 GRQs #23, MA #Recombinant DNA Technology 23. Transmission of information from one species to another: Recombinant DNA Technology I Recitation #8 Pre-assignment Epigenetics Tues Nov 8 GRQs #24, MA #24 24. Recombinant DNA Technology II Thurs Nov 10 GRQs #25, MA #25 25. Transmission of independently assorting traits Recitation #9 Pre-assignment Tues Nov 15 GRQs #26, MA #26 26. Pedigrees and human disease Thurs Nov 17 GRQs #27, MA #27 27. Modifications of Mendelian ratios: single gene traits Recitation #10 No pre-assignment Turn in OE HW # 4; Review: Pedigrees Tues Nov 22 GRQs #28, MA #28 28. Gene interactions and Complementation Turn in OE HW # 3; GMOs Thurs Nov 24 No Class- THANKSGIVING No Recitations this week Tues Nov 29 MG Quiz #3; GRQs #29, MA#29 Thurs Dec 1 29. Transmission of linked traits Exam 3 (Be sure you have posted 2 Peerwise Qs and answered 3 before this exam) Recitation #11 No Recitations this week No Recitations this week Tues Dec 6 Review before class (And, be sure you have posted 2 Peerwise Qs and answered 3 before today) Practice final exam questions alone and with peers Friday, Dec 9 at 12 noon CUMULATIVE FINAL EXAM Course Learning Outcomes Upon completion of the 202 course in Biology, a student should be able to: (Skills): • Build hypotheses to answer a specific scientific question, design an experiment using an appropriate technique/assay to answer the question, and predict results of their experiment. • Give examples of how advances in genetics and molecular biology, from the discovery of DNA's structure to sequencing individual genomes, have changed the world (examples include recombinant insulin, personalized medicine, transgenic crops) • • • • • • • • • • • • • • • (Concepts): Explain the term “allele” for a single gene at a population, organismal, cellular, and molecular level; explain how dominance and recessiveness are expressed at these levels. Explain how genetic variation comes from in a population (e.g. from meiosis, mutation, and epigenetic changes). Predict genotypic and phenotypic ratios of offspring in defined genetic crosses and work these problems in reverse (when given data about offspring, determine the genotypes and phenotypes of the parents). Deduce modes of inheritance (example: autosomal dominance, x-linked recessive) from genetic pedigrees and explain how incomplete penetrance and variable expressivity complicate these analyses. Distinguish single gene traits from polygenic traits and the influence of the environment on traits. Explain how DNA is replicated normally and abnormally and how these concepts are utilized in the polymerase chain reaction (PCR). Compare and contrast the consequences of germline errors during meiosis (such as non-disjunction, and translocations) and somatic errors during abnormal mitosis (such as non-disjunction and cancer) Explain the flow of genetic information, based on the central dogma- from DNA to proteins and how mutations are carried through this flow of information. Describe the nature of the genetic code Describe the general organization of prokaryotic and eukaryotic genomes, including the identification and significance of the different parts of a gene (e.g. regulatory/non-regulatory, exons/introns; transcription start site; translation start site; UTRs) Explain how a gene can be regulated transcriptionally and post-transcriptionally and how this leads to limited expression under different conditions (such as in different environments, during the course of development, or disease conditions) Predict the outcome of experimental manipulations in genes (e.g. GFP-tagging to investigate gene expression) Describe the basic steps in gene cloning (restriction, ligation, etc.) Design a transgenic animal/bacteria, where a protein of interest is specifically produced Explain the significance of research in genetic model organisms to understand fundamental biological phenomena. TIPS FOR SUCCESS: The textbook is your source of content to be used before class and to fill in Guided Reading Questions. Your Guided Reading Questions (GRQs) should be all you need once you fill them in thoroughly (that is, you probably won’t need to re-read the chapter or take any additional notes.) Invest time reviewing what we did in class—what problems did we cover? Did you get Learning Catalytics questions correct? (Check your account regularly to review and check that you technology is working.) Recognize that your attendance at the lectures is the only way to clearly grasp what we stress, because we may also present topics and material that are not necessarily in the book. Take notes in class; reinforce what you learned. Handwriting and solving problems with a pen is what most successful students still do. Research tells us this is the better way to learn too. Learning is an active process. If you get confused during a lecture, mark in your notes the point during the lecture where you became confused. Then go back to the assigned reading and seek clarification, use a classmate, S.I., tutor, office hours, Piazza, etc. Immediate reinforcement is most effective directly after hearing the lecture. So, instead of leaving the lecture hall and immediately checking your cell phone for messages, think calmly to yourself as you walk to your next class “What are the main take home messages from today’s lecture?” Cramming is unlikely to be successful. Trust us and your peers from previous semesters! Ask questions and participate in recitations and supplemental instruction! Raise your hand, be engaged! Ask for clarifications from the lecture material; come to instructor and TA office hours, study with other students. Discussions help reinforce the material we learn. Do the homework on your own. A portion of the exam questions will be similar to the homework questions. Thus, homework is like a practice exam! So make sure you understand the answers. Do extra problems. More practice thinking in this way will make a difference. Use the end-of-chapter questions and the additional S.I. problems as more practice besides assigned Mastering Genetics problems.