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INSTRUCTOR: Dr. Lyn Branch

Office: 312 Newins-Ziegler Hall CONSERVATION BIOLOGY -- WIS 4554, Fall 1999

Phone: 846-0564

Office Hours: Monday, 2:00-2:45 PM; Wednesday, 2:00-2:40 PM.

Also, I will be available to meet with students after class on Wednesday

afternoons (see me before or after class to schedule) and at other times

by appointment.

TEACHING ASSISTANT: Susan Walker(Office hours - Monday and Wednesday, 10-12, 421 Carr Hall).

I'm usually at 421 Carr Hall, so if you need to arrange another time, send me an email

and we'll try to find a time that is good for you to come by.

LECTURE: Monday and Wednesday, 6th period (12:50-1:40), CSE E222

DISCUSSION SECTIONS: Wednesday, periods 8-9 (3:00-4:55), FAB 103

COURSE TEXT: Meffee, G. K. and C. R. Carroll. 1997. Principles of Conservation Biology.

Second Edition. Sinauer Press.

COURSE OBJECTIVES:

-- Provide students with an overview of 1) major problems in conservation of biological

diversity and 2) applications of biological principals (derived from a variety

of disciplines, such as population genetics, biogeography, and community ecology) to

preservation of this diversity.

-- Give students 1) an introduction to some research and management tools used in

Conservation Biology and 2) an appreciation of the linkages of conservation problems

across biological scales (genes to ecosystems) and geographical scales (local to global).

-- The course should be FUN!

_______________________________________________________________

GRADING: A (90% or greater), B+ (85%-89%), B (80%-84%), C+ (75%-79%), C (70%-74%)

Date Points

Sept. 22 AM Journal articles 50

Oct. 6 PM First mid-term exam 200

Nov. 10 PM Second mid-term exam 200

Nov. 22 AM Summary of current affairs 50

Dec. 1 PM Term paper (optional) (200)

Dec. 15 Final exam (5:30-7:30 PM) 250

Optional term paper: 200 points

If you do the optional term paper, your grade will be averaged over 950 points. If you

omit the term paper, your grade will be averaged over 750 points. See attached handout for

description of paper. Term papers are due no later than the Wednesday, Dec. 1 afternoon class.

Exams: total 650 points

Midterm exams will be designed to be completed in approximately one hour. However,

these exams will be given during the Wednesday afternoon class (8-9 periods in FAB 103), so

that almost 2 hours are available. The final exam is scheduled for December 15

(5:30-7:30 PM). This exam will emphasize material after the second midterm, but also will

include broad concepts from previous sections.

Journal articles: 50 points

Conservation Biology is one of the most rapidly growing fields of science.

In this field, as in other disciplines, one of the best ways to keep informed of new ideas,

development of new tools, etc. is to read scientific journals. The Marston Science Library has

numerous journals that are related to conservation biology. Two of the most important

are Conservation Biology (the journal of the Society of Conservation Biology)

and Biological Conservation. These journals are also a great place to get ideas

for the types of programs in which you would like to participate once you leave UF.

For this exercise, examine 3 issues (or more if you are motivated!)

of these two journals and read the most interesting article that you find in each

issue (You may choose any 3 issues of Conservation Biology and Biological Conservation;

however, include at least one issue of each journal in the 3 issues.). On 1-2 pages

(total for 3 articles), report the following information for each of the 3 issues:

1) the title of the article that you found most interesting, 2) the authors

of this article, 3) the institution with which the authors are associated (e.g.,

University of Montana, the Environmental Protection Agency, etc.), 4) the journal title,

volume, and page numbers, and 5) 2-3 sentences about why you found this article

particularly interesting. The list of journal articles will be turned in during

class on the morning of September 22. NOTE: Please do not wait until just before

the deadline to look at the journals or you could have competition with 50 other students!

Current affairs: 50 points

Each student is expected to collect 5 newspaper clippings during the course of the

semester that illustrate "real-life" examples of points covered in class. For each clipping you will

prepare 1) a one-paragraph (typed) description explaining the relevance of the article to principles

of conservation biology, and 2) a short evaluation (one paragraph) of whether the public was

appropriately informed by this article (e.g., Was accurate information provided? Did the

article present a fair assessment of the issues, or was it strongly biased?). These will be

turned in during class on November 22.

Extra credit:

The University of Florida is one of the most outstanding centers in the USA for the

discipline of conservation biology. Faculty and students from many departments are conducting

research on "cutting-edge" conservation issues and participating in the development of

conservation strategies at the local, national, and international levels. There are many

opportunities for you to learn about conservation biology outside of class. One important

resource is seminars given in a variety of departments (e.g., Wildlife Ecology and Conservation,

Zoology, Botany, Center of Latin American Studies, etc.). Up to 15 points extra credit will

be given for attendance at these seminars, 5 points per seminar. These points will be added

to your total points for the course. Numerous seminars will be announced in class. To receive credit for

attending a seminar, you must prepare a one page summary (typed) with the following

information: 1) subject of the seminar, 2) name of the speaker, 3) date and location of the

seminar, 4) a summary of key research questions (or hypotheses), methods, and conclusions, and

5) a summary of how this seminar topic relates to conservation biology. All summaries of

seminars must be given to the instructor at the beginning of a class period no later than

December 6.

____________________________________________________________

C

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THE FOLLOWING ARE OPTIONAL READINGS

You can find the journals and books for these articles in the Marston Science Library by looking up

the call numbers in LUIS.

Topic: WHY PRESERVE BIOLOGICAL DIVERSITY?

Gibbons, A. 1993. Where are 'new' diseases born? Science 261:680-681.

Quotes from article: "They may come out of the forest when the forest is cleared for economic development." "environmental changes probably account for most emerging diseases".

This is a very interesting article!

Textbook: Chapter 2. Conservation values and ethics.

Topic: EXTINCTION PROCESSES

Shaffer, M.L. 1991. Population viability analysis. pp. 107-118 in Decker, D.J., M.E. Kransy, G.R. Goff, C.R. Smith, and D.W. Gross (eds.) Challenges in the Conservation of Biological Resources. A Practitioner's Guide. Westview Special Studies in Natural Resources and Energy Management.

Topic: VULNERABILITY TO EXTINCTION

Burke, R.L. and S.R. Humphrey. 1987. Rarity as a criterion for endangerment of Florida's fauna. Oryx 21:97-102.

Topic -- GENETIC DIVERSITY and DRIFT

Vrijenhoek, R.C. 1989. Population genetics and conservation. Pp. 89-98 in Western and Pearl (eds.). Conservation for the 21st Century.

Lacy, R.C. 1987. Loss of genetic diversity from managed populations: Interacting effects of drift, mutation, immigration, selection, and population subdivision. Conservation Biology 1(2):143-158. (One of the best articles on interactions of drift, immigration, population subdivision, and other aspects of genetics of interest in conservation)

Theberge, J.B. 1981. Considerations in wolf management related to genetic variability and adaptive change. Pp. 86-89 in Carbyn, L. N. (ed.). Wolves in Canada and Alaska. Canadian Wildlife Service Report Series 45.

Shields, W.M. 1981. Genetic considerations in the management of the wolf and other large vertebrates: an alternative view. Pp. 90-92 in Carbyn, L. N. (ed.). Wolves in Canada and Alaska. Canadian Wildlife Service Report Series 45.

Topic -- INBREEDING/OUTBREEDING

Packer, C., A.E. Pusey, H. Rowley, D.A. Gilbert, J. Martenson, S.J. O'Brien. 1991. Case study of a population bottleneck: Lions of Ngorongoro Crater. Conservation Biology 5(2):219-230. (Interesting case study. Cited in your text.)

Templeton, A.R. 1986. Coadaptation and outbreeding depression. Chapt. 6. In Soule, M. (ed.). Conservation Biology. The science of scarcity, Sinauer Associates, Sunderland, Mass. (The other side of the coin....can outbreeding be a problem?)

Topic -- EFFECTIVE POPULATION SIZE

Reed, J.M, P.D. Doerr, and J.R. Walters. 1988. Minimum viable population of the red-cockaded woodpecker. Journal of Wildlife Management 52(3):385-391.

Topic-- CONSERVATION GENETICS (summary)

Nunney, L. and K.A. Campbell. 1993. Assessing minimum viable population size: demography meets population genetics. Trends in Ecology and Evolution 8(7): 234-239.

Haig, S.M., J.R. Belthoff, and D.H. Allen. 1993. Population viability analysis for a small population of red-cockaded woodpeckers and an evaluation of enhancement strategies. Conservation Biology 7(2):289-301. (a genetically based PVA)

------------------------------------------------------------------

THE FOLLOWING ARE OPTIONAL READINGS

You can find the journals and books for these articles in the Marston Science Library by looking

up the call numbers in LUIS.

Topic: WHY PRESERVE BIOLOGICAL DIVERSITY?

Gibbons, A. 1993. Where are 'new' diseases born? Science 261:680-681.

Quotes from article: "They may come out of the forest when the forest is cleared

for economic development." "environmental changes probably account for most emerging diseases".

This is a very interesting article!

Textbook: Chapter 2. Conservation values and ethics.

Topic: EXTINCTION PROCESSES

Shaffer, M.L. 1991. Population viability analysis. pp. 107-118 in Decker, D.J., M.E. Kransy,

G.R. Goff, C.R. Smith, and D.W. Gross (eds.) Challenges in the Conservation of Biological Resources.

A Practitioner's Guide. Westview Special Studies in Natural Resources and Energy Management.

Topic: VULNERABILITY TO EXTINCTION

Burke, R.L. and S.R. Humphrey. 1987. Rarity as a criterion for endangerment of Florida's fauna.

Oryx 21:97-102.

Topic -- GENETIC DIVERSITY and DRIFT

Vrijenhoek, R.C. 1989. Population genetics and conservation. Pp. 89-98 in Western

and Pearl (eds.). Conservation for the 21st Century.

Lacy, R.C. 1987. Loss of genetic

diversity from managed populations: Interacting effects of drift, mutation, immigration,

selection, and population subdivision. Conservation Biology 1(2):143-158. (One of the best

articles on interactions of drift, immigration, population subdivision, and other aspects of

genetics of interest in conservation)

Theberge, J.B. 1981. Considerations in wolf management related to genetic variability and

adaptive change. Pp. 86-89 in Carbyn, L. N. (ed.). Wolves in Canada and Alaska. Canadian Wildlife

Service Report Series 45.

Shields, W.M. 1981. Genetic considerations in the management of the wolf and other large vertebrates:

an alternative view. Pp. 90-92 in Carbyn, L. N. (ed.). Wolves in Canada and Alaska. Canadian

Wildlife Service Report Series 45.

Topic -- INBREEDING/OUTBREEDING

Packer, C., A.E. Pusey, H. Rowley, D.A. Gilbert, J. Martenson, S.J. O'Brien. 1991. Case

study of a population bottleneck: Lions of Ngorongoro Crater. Conservation Biology 5(2):

219-230. (Interesting case study. Cited in your text.)

Templeton, A.R. 1986. Coadaptation and outbreeding depression. Chapt. 6. In Soule, M.

(ed.). Conservation Biology. The science of scarcity, Sinauer Associates, Sunderland, Mass.

(The other side of the coin....can outbreeding be a problem?)

Topic -- EFFECTIVE POPULATION SIZE

Reed, J.M, P.D. Doerr, and J.R. Walters. 1988. Minimum viable population of the red-cockaded

woodpecker. Journal of Wildlife Management 52(3):385-391.

Topic-- CONSERVATION GENETICS (summary)

Nunney, L. and K.A. Campbell. 1993. Assessing minimum viable population size: demography meets

population genetics. Trends in Ecology and Evolution 8(7): 234-239.

Haig, S.M., J.R. Belthoff, and D.H. Allen. 1993. Population viability analysis for a small

population of red-cockaded woodpeckers and an evaluation of enhancement strategies. Conservation

Biology 7(2):289-301. (a genetically based PVA)

________________________________________________________________

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University Policy Statement -- A Pledge for Students:

"I understand that the University of Florida expects its students to be honest in all of

their academic work. I agree to adhere to this commitment to academic honesty and understand

that my failure to comply with this commitment may result in disciplinary action, up to and

including expulsion from the University."