Course manual 2017/2018

Course content

Biodiversity contributes to the proper functioning of ecosystems and is essential for a sustainable future of our earth. It also contributes to food production, biotechnology, and medicine, and is therefore of fundamental importance for our human well-being. However, biodiversity has changed dramatically, both in the geological past as well as more recently due to the impacts of modern humans. The resulting environmental changes (both natural and human-driven) take place at different spatial and temporal scales, but the mechanisms and processes driving biodiversity change are often poorly understood. For instance, species and ecosystems respond to changing environmental factors such as climate, soil, and land use, resulting in a complexity of biotic and abiotic interactions. This makes an understanding and the prediction of future biodiversity changes extremely challenging. To understand the effects of future global change on biodiversity, insights from past and currently observed changes, experiments, biological theory and modelling are used to predict how and why the biosphere changes. This encompasses many different disciplines, including paleoecology, climate change biology, biogeography, molecular ecology, and climatology. The course concentrates on patterns and processes of biological diversity at species, population and ecosystem levels, and is thematically sub-divided into three parts (‘Biodiversity & recent global change’, ‘Past global change’, and ‘The future of biodiversity’). Course material will be covered by lectures, readings, and discussions of scientific articles. In addition, the management of data and visualization of biodiversity in space and time is performed with Geographic Information Systems (GIS). The course therefore allows students to get up-to-date with knowledge and skills in biodiversity and global change research of the twenty-first century.

Study materials

Literature

  • Biogeography (4th edition), Lomolino, M.V., Riddle, B.R., Whittaker, R.J. & Brown, J.H. (2010), Sinauer Associates, Sunderland, USA.
  • Life – the science of biology (9th edition), Sadava, D., Hillis, D.M., Heller, H.C. & Berenbaum, M.R. (2011), Sinauer Associates, Sunderland, USA.
  • Essentials of conservation biology (6th edition), Primack, R.B. (2014), Sinauer Associates, Sunderland, USA.

Other

  • Powerpoint presentations and other materials will be provided via blackboard.

Objectives

Students will obtain a basic knowledge of what biodiversity is and how it is distributed in space and time. Moreover, they will apply their knowledge to ask research questions which can then be addressed with data and GIS visualization. Students will also learn to comprehend, present and critically assess scientific literature and to present research projects to the class. At the end of the course, students are expected to be able to (1) describe and summarize patterns of biodiversity and environmental change, (2) compare and discuss hypotheses regarding underlying natural and human-made drivers of biodiversity, (3) handle, visualize and present spatial biodiversity data, and (4) present, critically evaluate, discuss and put into perspective the evidence of biodiversity and global change from the primary scientific literature. More specifically, students will be able:

Part I: Biodiversity & recent global change

  • to explain what biodiversity and global change is
  • to provide examples of how global species richness can be estimated
  • to name examples of key physical factors that influence the distribution of life on Earth, and how these factors are related to major vegetation types
  • to explain what geographic ranges are, why they are dynamic, and which factors are determining their limits
  • to name and provide examples of recent changes in biodiversity, e.g. in relation to habitat loss and fragmentation, biological invasions, and climate change
  • to explain how biodiversity changes can be monitored

Part II: Past global change

  • to explain the functioning of the climate system and how climates have changed over geological time
  • to name and explain biodiversity changes in the deep past, incl. shifts in species distributions and vegetation belts, changes in taxonomic diversity, functional shifts, ecosystem changes, speciation and diversification, and global and regional extinctions  
  • to describe how present-day biodiversity can be explained by historical events such as geological processes (e.g. plate tectonics, mountain uplift) and deep-time climate change (e.g. Quaternary climate oscillations, changes in tropical rainforest distribution, aridification and cooling etc.)

Part III: The future of biodiversity

  • to summarize future global change scenarios and their implications for biodiversity, science, conservation management, and policy
  • to distinguish different types of models and how they allow to quantify species and ecosystem responses to future climate change

Computer practicum

  • to handle biodiversity data in relational databases
  • to visualize data on the spatial and temporal distribution of biodiversity using Geographic Information Systems (GIS)
  • to present the results from a project in a poster presentation

Paper discussions

  • to summarize, present and critically evaluate primary scientific literature in relation to research purposes, key questions, conclusions, concepts, assumptions and implications
  • to discuss up-to-date papers in biodiversity and global change research

Teaching methods

  • Hoorcollege
  • Werkcollege
  • (Computer)practicum
  • Presentatie/symposium
  • Zelfstudie
Lectures & werkcolleges 40%
Practical 25%
   
Self study (incl. literature reading, presentation and exam preparation) 35%

 

Learning activities

Activity

Number of hours

Computerpracticum

28

Hoorcollege

40

Tentamen

4

Vragenuur

2

Werkcollege

24

Zelfstudie

58

Zelfstudie

12

Attendance

Programme's requirements concerning attendance (OER-B):

  • Participation in all practical (computer) sessions, field work and seminars in the curriculum is obligatory.

Additional requirements for this course:

Attendance at lectures is highly recommended because the material from the lectures will form the basis for the final exam. Knowing the material from the lectures is imperative to pass the course, but additional readings are required to perform excellent. Seminar-like lectures and active work parts (‘werkcolleges’) will be spread in between the lectures, and all of those are mandatory. Attendance and participation during practical components (computer practicum and paper discussions) is also mandatory (from Teaching and Examination Regulations).

Assessment

Item and weight Details Remarks

Final grade

60%

Final Exam

The final exam will be the key form to assess the knowledge and comprehension level that students have obtained during the course. This assessment will be based on the materials provided in the lectures, and on the knowledge and comprehension of the literature and course book materials that students should read during the self-study parts of the course. The students will receive 10-12 main questions (usually with 1-3 sub-questions) in the exam to which they have to provide a written answer. There are no multiple-choice questions.

30%

Computer practicum

The computer practicum: Two assessments will be performed for the computer practicum, one based on daily exercises (40%) and the other one based on a poster presentation at the end (60%). First, students are assessed by exercises on each course day. The exercises are assessed based on the results the students return at the end of each day. Second, at the end of the computer practicum the students have to present the results of their small research project in form of a poster. The poster itself will be graded (on a scale of 1 to 10) in terms of content, context, layout, technical skills and independence/initiative. The oral presentation of the poster will be graded (using the same scale) based on discussion and clarity of presentation. In addition, a general grade will be given for the working attitude. At the end of the computer practicum both assessments will be combined to derive the total assessment (final grade) of the performance in the computer practicum for each student.

10%

Paper discussions

Given the educational level (3rd year BSc students), the assessment of the knowledge, comprehension and presentation level will be given slightly more weight (3/5) than the assessment of the evaluation and discussion stimulation level (2/5). The assessment of the paper discussions will be achieved with an assessment form that allows to rate several aspects of the paper presentations and discussion (e.g. poor, below average, average, above average, outstanding), incl. information content, clarity of presentation, understanding of the presented material, stimulation of discussion, and critical evaluation of the content. All participants of the course (except the presenters themselves) will be asked to fill out an assessment form. The final assessment (10% of the whole course) will be based on the assessment form of the course organizer (50%) and the assessment forms of all other course participants (50%, averaged across participants).

Inspection of assessed work

For at least twenty working days after the announcement of the results of a written examination, the student can, on request, inspect his/her assessed work, the questions and assignments set, as well as the standards applied for marking. The place and time will be announced via Blackboard (from Teaching and Examination Regulations).

Assignments

Computer practicum

  • The computer practicum will be used to assess the application and comprehension level of students, especially in terms of handling and visualizing biodiversity data as well as presenting and summarizing the results of a project. Two assessments will be performed for the computer practicum, one based on daily exercises and the other one based on a poster presentation at the end.

Paper discussions

  • The paper discussions will serve to assess the presentation, comprehension, discussion stimulation and evaluation level of the students, especially in regard to present and critically evaluate primary scientific literature in biodiversity and global change research.

    In general, 10 scientific papers are selected by the course organizer and handed out to the students at the beginning of the course. Students are assigned to groups (3-4 students in each group, 10 groups in total) and each group has to read, comprehend and critically evaluate one original scientific paper. Students are also expected to read the other papers, to get an idea of the key content and to prepare for the course group paper discussions. The preparation of the presentations will be done as group work (2 hours in the course). Each group has to prepare two presentations: (1) a presentation on the content (topic, questions, hypotheses, methods, results) of the scientific paper, and (2) a presentation of a critically evaluation of the scientific paper (related to purpose, question, information, concepts, assumptions, inferences, and point of view in the paper). And additional aim of the presentations is to stimulate a discussion about the paper among all course participants. The presentations should cover a total 20-25 min for one paper. This includes the presentation of the content (5-10 min) and the presentation of the critically evaluation (5-10 min), as well as the course group discussion (maximum of 5-10 min). A total of 5 hours (with 2 paper discussions each, i.e. a total of 10 paper discussions) will be allocated for the paper discussions during the course.

Fraud and plagiarism

The 'Regulations governing fraud and plagiarism for UvA students' applies to this course. This will be monitored carefully. Upon suspicion of fraud or plagiarism the Examinations Board of the programme will be informed. For the 'Regulations governing fraud and plagiarism for UvA students' see: www.uva.nl/plagiarism

Course structure

Weeknummer Onderwerpen Studiestof
1
2
3
4
5
6
7
8

Timetable

Het rooster van dit vak is in te zien op DataNose.

Additional information

Maximum of 40 students. The lectures, presentations and written assignments in this course will be in English. The teaching is also in English.

Contact information

Coordinator

  • W.D. Kissling