Biology of Infectious Disease

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Biology of Infectious Disease From Molecules to Ecosystems Course description In this course we will examine and discuss current concepts and trends in infectious disease biology, assessing our basic understanding of human, animal, and plant diseases and their impacts on one another. The nature of disease, the causal agents, host defense, mechanisms of transmission and strategies for management are remarkably similar among humans, animals, and plants. These basic principles that underpin all of disease biology are rarely integrated into a formal undergraduate or graduate course. You will think about and discuss infectious diseases in ways you have likely not thought about before and will hopefully come to appreciate the importance of a pathogen-centric view of disease in understanding human and environmental health. In recent years there has been an unprecedented rise in the global incidence and severity of infectious diseases in human, animal, and plant populations across nearly all of the world s terrestrial, aquatic, and marine ecosystems. At the same time, the ways in which we approach the prevention and management of diseases have changed little in the past 50-100 years. It is becoming increasingly clear that the intensification of diseases around the world is, in part, due to human activities, which have brought about habitat transformation, biological invasions, environmental contamination, climate change, and ensuing losses of biodiversity. Although disease outbreaks have historically been studied in relative isolation, the ecological complexities of disease development and spread have been clearly illustrated by such famous examples as the plague, smallpox and flu epidemics, the Irish potato famine, and more Human activities are increasingly altering ecosystems in ways that influence disease dynamics in wildlife, plants, and ultimately humans whether it is through deforestation, environmental pollution, or invasive species. recently, the swine flu pandemic, amphibian declines, white nose disease of bats, colony collapse disease, various forest declines, SARS, Lyme disease, and West Nile virus. The interconnectedness among human, animal, and plant diseases and the infectious agents that cause them make it more important than ever to better understand these linkages, examine the basic principles that drive disease emergence and development, and critically reappraise contemporary approaches to disease mitigation and management. Course goals The typical preparation for medical and veterinary students does not include the broad treatment of disease processes that we'll cover in this course. Therefore, a basic goal of this course is to provide students with a comprehensive understanding of infectious disease biology, and to provide that understanding within the context of a sciencebased learning format that will hopefully foster scientific curiosity, critical thinking, and an appreciation of scientific inquiry. We will critically examine the commonalities and differences in infectious diseases of humans, animals, and plants and explore the linkages among the three. In the end, we want you to leave the course thinking like a scientist and thinking about infectious diseases as a broadly trained scientist would. We are assuming that every student in the course has some understanding of basic biology (either from an AP high school course, through the introductory biology curriculum at Cornell, or the equivalent either here or elsewhere) and has a curiosity to learn more about infectious diseases. A key element of the success in this course will be your active engagement in each and every class as well as your commitment to and active involvement in your own learning. You will be expected to offer your thoughts, perceptions, and opinions about what you already know and believe, along with what you are learning and hope to learn. Most importantly, you will be Graphical Representations of a Generic Influenza Virus (from CDC) expected to actively explore your curiosity about disease biology. This course will require that you read a fair number of primary research papers and review articles as well as popular magazine, newspaper, and web articles covering many aspects of infectious diseases of humans, animals, and plants. Don't worry if you feel like you don't know much about plant diseases. By Syllabus contents Course description and goals... 1 Specific course requirements... 2 How to approach this course... 2 Grading... 2 Accommodating students with disabilities... 3 Course schedule... 4 Academic Integrity... 5 Course Details Meeting Times: MWF, 11:15-12:05, 135B Plant Science Building Instructors: Eric B. Nelson 323 Plant Science Building, ebn1@cornell.edu 255-7841 Michael Milgroom 222 Plant Science Building, mgm5@cornell.edu 255-7872 Graduate TA: Katie Wilkins 335 Plant Science Building, kew226@cornell.edu, 255-5652 Office Hours: Grading: Course website: No set office hours. Contact us anytime to set up a mutually convenient time to meet Letter only (3 credits) http://www.blackboard.cornell.edu Page 1

How to approach this course Newbies Accomplished Novices Experts It s not your course grade that reflects your success this course but rather what long-term understanding and insight you take away from it and how you ultimately want to use it. This is a function of how deeply you immerse yourself in the subject. Each of you is undoubtedly taking this course for different reasons. And, because this course is not required of any program, each of you is motivated to get different things out of it. You should focus on why you've decided that learning this material might be essential to your college experience, and what that means for you personally. It is entirely possible to do well in the class without being transformed by your newfound knowledge and understanding of infectious diseases, but it would be a shame if that didn't happen. This course can be different things for different people and you'll have the opportunity to dig as deeply into the subject as you wish, whether you are new to infectious diseases or whether you view yourself as expert. Newbies need the basic foundations of disease biology, who the players are and how they behave, and how we might manage diseases, you want the surface-level knowledge. You may be considering a career in public health and are more focused on the social side of infectious diseases and less on the biology. There s nothing wrong with just wanting the surface-level knowledge; this approach is appropriate if this is likely to be the only infectious disease course you are likely to take, or if you ve never taken one before & it s all new. You will have new insights and understandings that you'll take away from the course. Newbies are often concerned mainly with the facts and figures: WHAT are diseases are most important and what are their distinguishing features. You tend to think less in mechanisms and syntheses. Newbies tend not to probe as deeply into the subject as accomplished novices and experts. Accomplished novices have a grasp of the basics and are ready to think more deeply about health and disease, you want to know more about diseases as a biological phenomenon and want to know more details of their basic biology, ecology, and epidemiology. Perhaps you ve taken a course in biology, public health, or infectious diseases before, and are a pre-med or pre-vet student. You already know a fair amount about human diseases but have never really thought about diseases of all life forms, you are looking for patterns that characterize disease and how we might better humanity by understanding disease more deeply. Accomplished novices notice inconsistencies and respectfully challenge assumptions through lively debate. You are interested in HOW & WHY things happen and what this means for how we approach and manage diseases. You tend to see a bigger picture and can connect detailed knowledge with larger concepts. Experts want to go deeper into the basic behavior and impact of infectious diseases, using the skills of scientists to ask critical questions and to think deeply about infectious diseases across all life forms and the importance of diseases to life on Earth. You are well aware of advances in infectious diseases and where some of the knowledge gaps exist. You actively seek the latest research findings and look for ways of synthesizing this knowledge into our current ways of thinking about disease. You look for alternative viewpoints, explanations, and applications. Experts don t take any of the course s structure or content as comprehensive or the end-all. They recognize the course s gaps. They are curious, passionate, and concerned with WHY the study of infectious diseases across all life forms, and not just humans, is important for understanding human and environmental health. the end of the course, you'll have a new appreciation for them. This course will also require that you come to class each and every day, prepared to discuss your thoughts and opinions of the papers you read and actively express your ideas during class discussions. Learning is an active process, not a passive one, so the interactive nature of this class requires your commitment and continued participation. Below are more specific guidelines for some of the course requirements: Specific course requirements Readings and Reading Groups. There is no required or suggested textbook for this course. All of the course readings will come from primary research papers and review articles, as well as articles from the popular press. These readings will be available as PDF files on the class website. Students will be required to read numerous research papers throughout the semester. These papers will be used to illustrate important concepts and to underscore how science is conducted and communicated. In-class discussions will center on interpreting data presented in research papers and how we might incorporate research results into new models of disease development. Course assessments contributing to your final grade Grades will NOT be based on any kind of curve or forced distribution. However, your instructors are very understanding guys and will do everything to be fair. The final letter grade will be assigned based on the following mean numerical score from all the combined metrics: Reading group prep & participation 400 pts (30%) (10@40 pts ea.) Disease management plan 400 pts (30%) Weekly Quizzes (13 @ 30 pts ea.) 390 pts (29%) Journals (14@10 pts ea.) 140 pts (11%) Total 1330 pts (100%) Grade + 0 - A 98 92-97 88-91 B 85-87 82-84 79-81 C 76-78 73-75 70-72 D 67-69 64-66 60-63 F <60 You will be able to follow your grades on the class website so you can always know how you re doing in the class. Page 2

Accommodation of Students with Disabilities In compliance with the Cornell University policy and equal access laws, we are available to discuss appropriate academic accommodations that may be required for student with disabilities. Except for unusual circumstances, requests for academic accommodations are to be made during the first three weeks of the semester so we can make mutually-agreeable arrangements. Students are encouraged to register with Student Disability Services to verify their eligibility for appropriate accommodations. To better facilitate the discussion and understanding of primary research papers, we will break up into small, structured reading groups. Students will be assigned to groups of six students. Each student within the group will be assigned a specific discussion role each week; these roles will be described in detaill in a handout later. Each student will be required to read the paper thoroughly prior to class, taking notes where appropriate, and perhaps doing some research to prepare with the necessary background and important details related to your specific role. You will write a prep sheet demonstrating your preparation for your assigned role; prep sheets will be turned in before class and will be used for evaluating your performance in this exercise. On reading group days, students will meet in small groups for approximately 25-30 minutes. This will be followed by a whole-class discussion for about 20 minutes. Roles will rotate each week so that everyone will have a chance to experience each role a couple of times throughout the course of the semester. Journals You will be required to write about your thoughts and reflections of the week s major ideas, activities, discussions, and remaining questions or controversies that came up either in or outside of class. These journals are mainly for you to review and reinforce what you learned each week. They have the added benefit of providing feedback to the instructors about the effectiveness of the classroom activities and readings for teaching you about Electron micrograph of E. coli cells on contaminated food infectious diseases. Concepts identified in journals as causing confusion will be discussed further in subsequent classes. There are two main purposes of these journals: 1) to ensure that you understand the main points covered that week, and 2) to help you establish and work through some of your learning ideas without worrying about a grade. You can write as much or as little as you choose each week in your journal. However, we would like you at least to address the following questions in your journals: 1) What was the most important new understanding for you personally this week?, 2) What question(s) do you most wish had been answered this week?, and 3) What was the least clear about material and experiences in class this week? You are encouraged to offer any other thoughts or ideas that you have each week. You should submit journal entries through the journals link on the class website no later than 9:00 pm on Saturday of each week. We will not grade journals on content and quality but by whether you turned them in or not (10 points each). We will read journals to get a sense of what and how students in the class are thinking and understanding, and comment about them in class the following Monday. You should know that we're always excited to hear what you have to say and look forward to reading your journals every week. Weekly Quizzes There will be no traditional exams or final exam in this course. Weekly quizzes will consist of online responses to questions that come from concepts discussed that week. The purpose of these quizzes will be to assess your abilities to apply critical thinking and reasoning skills in which you utilize your current understanding of disease biology concepts to apply them to new and potentially unfamiliar aspects of infectious diseases. Once started, you will have 1 hr to complete each quiz. There will be a total of 13 quizzes with each comprise of 30 points, so any one quiz will not make or break your grade. Instead of a final exam, the disease management plan (see below) will serve as your final assessment. Disease Management Plan The disease management plan is an opportunity for you to integrate much of the knowledge you gain about infectious disease biology this semester in the context of disease management. This assignment will allow you to dig deeply into the biology of a disease system in which YOU are especially interested and to use that biology to formulate a plan to manage your disease of choice. Your choice of disease system may involve humans, domestic or wild animals, domestic or wild plants, or combinations of these and other hosts. You may also choose to focus on a group of PlPa 2950, Fall 2014 pathogens that have a multitude of diverse hosts. In the end, we want you to choose a disease system that you are especially interested in. Students will be required to meet individually with either Eric or Michael by early October to choose a disease system. The disease management plan should consist of three parts: the first in which the biology of the pathogen and its interactions with its host(s) is extensively reviewed and disparate findings are synthesized into a coherent body of current understanding for that disease system. In the second part, you will describe and justify a plan for managing your particular disease. The management plan should be based explicitly on the biology of the system and not simply on the utilization of drugs or vaccines. Finally, in the third part you will summarize and synthesize the salient points in your plan and critically evaluate its potential for success. This assignment will be due on November 25. A preliminary grade will be given on this version, but students will have the opportunity to revise their plans and resubmit for a final grade during final exam week. The two grades will be averaged for a final grade. Additional details about the structure and format of the plan, a suggested schedule and grading system will be provided at a later date. A general note on class attendance and participation This class relies heavily on in-class activities and discussions, requiring you to attend class and participate in reading group discussions and whole-class discussions. You ll be expected to attend every class unless you ve made prior arrangements with the instructor. You ve paid for it so you should get your money s worth! You will also be expected to arrive at class on time and be prepared for active engagement in class activities. This necessitates doing all of the assigned homework and readings BEFORE coming to class. We will do our best to start and end every class on time. Remember this course is for YOU and you need to get out of it what you came here for. We realize that some students are more introverted than others and consequently do not participate much in class even though they are prepared. It would be unfair for us to penalize you for this and we never want to favor only the more extroverted students. However, even though you may be introverted, we and others would certainly appreciate your ideas, insights, and opinions. We would hope that this class will be comfortable enough for everyone to freely express their opinions and ask questions. Your ideas will always be treated with respect and we will do everything possible to create a class environment in which you will feel comfortable participating in discussions. Page 3

Course schedule (this will be updated throughout the semester) PlPa 2950, Fall 2014 Week Concept(s) Class Session Date Topic Menu Week 1 Week 2 Week 3 Week 4 Week 5 Week 6 Week 7 Week 8 Week 9 Week 10 Week 11 Overview of infectious diseases, Ebola virus case study Nature of pathogens and hosts, Diseasecausing agents, Concept of pathogenicity and virulence Host defenses and immune responses, vaccines Disease cycles, pathogen transmission, viral pathogens, influenza Disease triangle, Pathogen dispersal, bacterial pathogens, Cholera Horizontal gene transfer, pangenomes, antibiotic resistance Antigenic variation, malaria Fungal and oomycete diseases; environmental impacts on disease Host microbiomes Host microbiomes and their interactions with immune systems Disease ecology, reservoirs and reservoir competence, silent carriers 01 8-27 Introductions, teaching philosophies; Discussion of the ongoing Ebola outbreak in West Africa 02 8-29 Continue Ebola discussion: What questions emerge? Labor Day Holiday No Class 03 9-3 Changing views of health and disease: from germ theory to the present day Overview of infectious agents, pathogens of 04 9-5 humans, animals, and plants; What is a pathogen?; Damage-response framework Introduction to reading groups; Overview of 05 9-8 host defense responses; innate and adaptive immunity 06 9-10 Demonstration of reading group method; Vaccines 07 9-12 Reading group 1 08 9-15 Cyclic nature of disease, virus transmission 09 9-17 Antigenic shift in influenza, host specificity, species jumps; concept of zoonosis 10 9-19 Reading group 2 11 9-22 The nature of cholera and Vibrio species as pathogens, environment and disease, disease triangle 12 9-24 Case study: Haitian cholera epidemic 13 9-26 Reading group 3 14 9-29 Bacterial pangenome concept, horizontal gene transfer and bacterial evolution 15 10-1 Antibiotics and antibiotic resistance 16 10-3 Reading group 4 17 10-6 Introduction to malaria 18 10-8 Plasdmodium biology; antigenic variation 19 10-10 Reading group 5 Fall Break No Class 20 10-15 The nature of fungal and oomycete diseases; chytridiomycosis and white nose syndrome 21 10-17 Reading group 6 22 10-20 Introduction to host microbiomes and disease 23 10-22 Gut microbiota in health and disease; sepsis 24 10-24 Reading group 7 25 10-27 Host defense responses; innate and adaptive immunity revisited 26 10-29 Cells and molecules in host immune responses 27 10-31 Reading group 8 Variation in defense responses among 28 11-3 individuals and populations, concept of a reservoir 29 11-5 Reservoir competence, Typhoid Mary, transmission networks 30 11-7 Reading group 9 Week 12 Epidemiological modeling, SIR models, spillover, Hendra virus 31 11-10 Introduction to epidemiological modeling 32 11-12 SIR models, threshold populations, R 0, Hendra virus Page 4

33 11-14 Reading group 10 34 11-17 Emergence of pathogens, causal inference, return to antibiotic resistance Week 13 Disease emergence, SEIR models, Nipah virus 35 11-19 Emergence drivers, concepts of scale, Nipah virus 36 11-21 Reading group 11 Week 14 Review 37 11-24 38 11-26 Continue discussion of emerging diseases; Revisiting influenza and disease management Continue discussion of influenza and disease management Thanksgiving Holiday No Class Week 15 Communicating science, course wrapup 39 12-1 The nature of science, science communication 40 12-3 Prominent people in infectious disease history 41 12-5 What did we learn this semester? Academic integrity Each student in this course is expected to abide by the Cornell University Code of Academic Integrity. Any work submitted by a student in this course for academic credit will be the student's own work. For this course, collaboration is allowed and encouraged for group projects, group discussions, take-home exams, brainstorming sessions, and exam preparation. You are encouraged to study together and to discuss information and concepts covered in class sessions with other students. You can provide "consulting" help to or receive "consulting" help from other classmates. However, this permissible cooperation should never involve one student having possession of a copy of all or part of work done by someone else, in the form of any electronic or print media. Should copying occur, both the student who copied work from another student and the student who gave material to be copied will both automatically receive a zero for the assignment. Penalty for violation of this Code can also be extended to include failure of the course and University disciplinary action. During examinations, you must do your own work. Talking or discussion is not permitted during the examinations. You may not compare papers, copy from others, or collaborate in any way during in-class examination periods. Any collaborative behavior (unless explicitly permitted by the instructor) during the examinations will result in failure of the exam, and may lead to failure of the course and University disciplinary action. Page 5