Bulletin top banner
Mt. St. Helens        Volume 86, Number 2, April 2005

Cover Photo: The mosquito Wyeomyia smithii completes its pre-adult development only in the water-filled leaves of the carnivorous purple pitcher plant, Sarracenia purpurea. The range of the mosquito follows its host plant from the Gulf of Mexico to northern Canada. Mosquito populations from 30° to 50° N subjected to heat or cold stress suffer >40% mortality but no decrease in fitness (R 0). Mortality observed as a direct consequence of environmental stress may therefore have little impact on the individuals actually destined to make the greatest contribution to the next generation. This photograph and others in the Photo Gallery were taken by W. E. Bradshaw during research for the article by P. A. Zani, S. E. T. Swanson, D. Corbin, L. W. Cohnstaedt, M. D. Agotsch, W. E. Bradshaw, and C. M. Holzapfel, "Geographic variation in tolerance of transient thermal stress in the mosquito Wyeomyia smithii," to be published in Ecology Vol. 86 (5):1206-1211, May 2005.


Back to Main Bulletin Page


Table of Contents
(click on a title to view that section)

Governing Board


ANNOUNCEMENTS
Society Notices

New ESA Officers and Board Members 2005
Candidates for ESA Offices (2006)

Request for Student Award Judges
International Collaborations: Robert H. Whittaker Fellowship
Desert Ecology: Forrest Shreve Student Research Award

SOCIETY ACTIONS
Minutes of the 25–26 October 2004 Governing Board Meeting

PHOTO GALLERY
An Unusual Nest William Bradshaw
Cue the Ravens Crow White
Flood Cycles Marian Smith
Complex Dynamics Kailen Mooney

CONTRIBUTIONS
Commentary

An Introduction to Ecological Archives. J. Bain
A History of the Ecological Sciences, Part 16: Robert Hooke and the Royal Society of London. F. N. Egerton

DEPARTMENTS
Emerging Technologies
Erratum: Improving the Presentation of Results of Logistic Regression with R.
Ecological Education: K–12
Motivating Students to Ask Scientifically Productive Questions. R. E Bohanan, J. Niemi, and L. Wachtel

Society Section and Chapter News
Applied Ecology Section Newsletter
Southeastern Chapter Newsletter

MEETINGS
Calendar

DoD Technical Symposium and Workshop: Threatened, Endangered, and At-Risk Species on DoD and Adjacent Lands
11th Symposium on the Natural History of the Bahamas
Fourth International Symposium on Frugivores and Seed Dispersal
Meeting Review
Enhancing Educational Opportunities at Biological Field Stations and Marine Laboratories  J. Hodder

Instructions for Contributors


The BULLETIN OF THE ECOLOGICAL SOCIETY OF AMERICA (ISSN 0012-9623)
is published quarterly by the
Ecological Society of America, 1707 H Street, NW, Suite 400, Washington, DC 20006.
It is available online only, free of charge, at
http://www.esapubs.org/bulletin/current/current.htm›.
Issues published prior to January 2004 are available through
http://www.esapubs.org/esapubs/journals/bulletin_main.htm


Bulletin Editor-in-Chief E. A. Johnson

Bulletin of the Ecological Society of America, 1707 H Street, NW, Washington DC 20006
Phone (403) 220-7635, Fax (403) 289-9311,
E-mail: bulletin@esa.org

Associate Editor
David A. Gooding

ESA Publications Office,
127 W. State Street, Suite 301,
Ithaca, NY 14850-5427
E-mail: dag25@cornell.edu




Production Editor
Regina Przygocki
ESA Publications Office,
127 W. State Street, Suite 301,
Ithaca, NY 14850-5427
E-mail: esa_journals@cornell.edu


Section Editor, Ecology 101
H. Ornes
College of Sciences, SB310A, Southern Utah University
Cedar City, UT 84720 E-mail: ornes@ssu.edu



Section Editor, Public Affairs Perspective
N. Lymn
Director for Public Affairs, ESA Headquarters,
1707 H Street, NW, Suite 400,
Washington, DC 20036 E-mail: nadine@esa.org

Section Editors,
Emerging Technologies
D. W. Inouye
Department of Biology,
University of Maryland
College Park, MD 20742
E-mail: inouye@.umd.edu
and S. Scheiner
Div. of Environmental Biology
Natl. Science Foundation
4201 Wilson Blvd.
Arlington, VA 22230
E-mail: sscheine@nsf.gov

Section Editors,
Ecological Education: K–12

S. Barker

Dept. of Secondary Education
350 Education South,
University of Alberta
Edmonton, Alberta
T6G 2G5 Canada
E-mail: susan.barker@ualberta.ca
and C. W. Anderson
319A Erickson Hall, Michigan State University
East Lansing, MI 48824 USA.
E-mail: andya@msu.edu






The Ecological Society of America
GOVERNING BOARD FOR 2004–2005

President: Jerry M. Melillo, Marine Biological Laboratory, Woods Hole, MA 02543
President-Elect:
Nancy B. Grimm, School of Life Sciences, Arizona State University, Tempe, AZ 85287-4501
Past-President:
William H. Schlesinger, School of the Environment and Earth Sciences, Duke University, Durham, NC 27708
Vice President for Science:
Gus R. Shaver, The Ecosystems Center, Marine Biological Laboratory, Woods Hole, MA 02543
Vice President for Finance:
Norman L. Christensen, School of the Environment and Earth Sciences, Duke University, Durham, NC 27708
Vice President for Public Affairs:
Alison G. Power, Department of Ecology and Evolutionary Biology, Cornell University, Ithaca, NY 14853-2701
Vice President for Education and Human Resources:
Carol A. Brewer, Division of Biological Sciences, University of Montana, Missoula, MT 59812-0001
Secretary:
David W. Inouye, Department of Biology, University of Maryland, College Park, MD 20742-4415
Member-at-Large:
Dee Boersma, Department of Zoology, University of Washington, Seattle, WA 98195-1800
Member-at-Large:
Shahid Naeem, Department of Biology, Columbia University, New York, NY 10027
Member-at-Large:
Margaret A. Palmer, Department of Entomology, University of Maryland, College Park, MD 20742-0001

AIMS

The Ecological Society of America was founded in 1915 for the purpose of unifying the sciences of ecology, stimulating research in all aspects of the discipline, encouraging communication among ecologists, and promoting the responsible application of ecological data and principles to the solution of environmental problems. Ecology is the scientific discipline that is concerned with the relationships between organisms and their past, present, and future environments. These relationships include physiological responses of individuals, structure and dynamics of populations, interactions among species, organization of biological communities, and processing of energy and matter in ecosystems.

MEMBERSHIP
Membership is open to persons who are interested in the advancement of ecology or its applications, and to those who are engaged in any aspect of the study of organisms in relation to environment. The classes of membership and their annual dues for 2005 are as follows:
Regular member: Income level Dues
  <$40,000 $50.00
  $40,000—60,000 $75.00
  >$60,000 $95.00
Student member:
  $25.00
Emeritus member:   Free
Life member:
Contact Member and Subscriber Services (see below)  


Subscriptions to the journals are not included in the dues.
Special membership rates are available for individuals in developing countries. Contact Member and Subscriber services (address below) for details.

PUBLICATIONS
The Society publishes a bulletin, three print journals, and an electronic data archive. The Bulletin of the Ecological Society of America, issued quarterly, contains announcements of meetings of the Society and related organizations, programs, awards, articles, and items of current interest to members. The journal Ecology, issued monthly, publishes essays and articles that report and interpret the results of original scientific research in basic and applied ecology. Ecological Monographs is a quarterly journal for longer ecological research articles. Ecological Applications, published six times per year, contains ecological research and discussion papers that have specific relevance to environmental management and policy. Frontiers in Ecology and the Environment, with 10 issues each year, focuses on current ecological issues and environmental challenges: it is international in scope and interdisciplinary in approach. Ecological Archives is published on the Internet at ‹http://esapubs.org/Archive› and contains supplemental material to ESA journal articles and data papers.
No responsibility for the views expressed by the authors in ESA publications is assumed by the editors or the publisher, the Ecological Society of America.
Subscriptions for 2005 are available to ESA members as follows:
Regular Student
Ecology $65.00 $50.00
B
ulletin of the Ecological Society of America Free to members
E
cological Monographs $30.00 $25.00

Ecological Applications $50.00 $40.00
Frontiers in Ecology Free to members
Ecological Archives
Free


Application blanks for membership may be obtained from the Ecological Society of America, Member and Subscriber Services, 1707 H Street, NW, Suite 400, Washington, DC 20006, to which all correspondence concerning membership should be addressed. Checks accompanying membership applications should be made payable to the Ecological Society of America.
For additional information on the Society and its publications, visit ESA's home page on the World Wide Web http://esa.org›.



Back to Table of Contents



ANNOUNCEMENTS


Society Notices

 

ESA 2005 Election Results   Nominations for Fall 2005 ESA Elections
The following ESA members have been elected to serve as Society officers, Governing Board members, and committee members.

President ( President-Elect August 2005–August 2006, President August 2006–August 2007, Past-President August 2007–August 2008)
Alan Covich

Vice President for Public Affairs (August 2005–August 2008)
Rich Pouyat

Vice President for Finance (August 2005–August 2008)
William Parton

Member-at Large (August 2005– August 2007)
Dennis Ojima

Board of Professional Certification (January 2005–December 2007)
William Michener
Rebecca Sharitz

  The following individuals have agreed to appear on the 2005 ballot for a vote in the fall of 2005. Those elected will take office in 2006.

President:

Norm Christensen
Chris Field

Vice President for Education:

Meg Lowman
Michael Mappin

Member-at-Large:

Jayne Belnap
Robert Twilley

Member-at-Large:

Juan J Armesto
Godfrey Uzochukwu

Members of the Board of Professional Certification (vote for two):

Carolyn Hunsaker
Reed Noss
Wayne Polley
Garth Redfield


Back to Table of Contents


 

REQUEST FOR STUDENT AWARD JUDGES

Murray F. Buell Award
E. Lucy Braun Award

Judges are needed to evaluate candidates for the Murray F. Buell Award for the outstanding oral presentation by a student and the E. Lucy Braun Award for the outstanding poster presentation by a student at the Annual ESA Meeting at Montreal, Canada in 2005. We need to provide each candidate with at least four judges competent in the specific subject of the presentation. Each judge is asked to evaluate 3–5 papers and/or posters. Current graduate students are not eligible to judge. This is a great way to become involved in an important ESA activity. We desperately need your help!

Please complete and send this form by mail, fax, or e-mail to the Chair of the Student Awards Subcommittee: Christopher F. Sacchi, Department of Biology, Kutztown University, Kutztown, PA 19530 USA. Call (610) 683-4314; FAX: (610) 683-4854 or e-mail: sacchi@kutztown.edu

If you have judged in the past several years, this information is on file. If you do not have to update your information, simply send me an e-mail message, “Yes, I can judge this year.”

Name ______________________________________________________________________________________________
Current mailing address _______________________________________________________________________________
June/July mailing address _____________________________________________________________________________
Current telephone Summer telephone ____________________________________________________________________
E-mail Fax __________________________________________________________________________________________
Year M.S. received Year Ph.D received ______________________________________

Areas of expertise (check all that apply):

Discipline Research approach (please rank) Organisms
— Botany
— Zoology
— Microbiology
— Applied ecology
—Population ecology
—Community ecology
—Ecosystem ecology
—Vertebrates
Types: ________________________________
—Invertebrates
Types: ________________________________

Habitat

— Soil
— Terrestrial
— Freshwater
— Marine


—Physiological ecology
—Behavioral ecology
—Paleoecology
—Theoretical ecology
—Evolutionary ecology

—Plants
Types:_________________________________

—Fungi
— Microbes
Types:_________________________________

Provide a few key words or phrases that describe your interests and expertise: _____________________________________________
_____________________________________________________________________________________________



Back to Table of Contents


International Collaborations: Robert Whittaker Travel Fellowship   Desert Ecology: Forrest Shreve Student Research Award

One to two awards annually of $1000–1500 are available to promote active collaboration and exchange of ideas between foreign and U.S.A. ecologists. Awards are given to foreign scientists to help defray the cost of travel to the United States for research collaboration with colleagues.

Requirements: The foreign ecologist must possess an earned doctorate, reside in a foreign country, and not be a U.S. citizen. Application for the fellowship may be made directly by the foreign ecologist or by a U.S. scientist on behalf of a foreign scientist. Either the foreign scientist or the U.S. ecologist must belong to the ESA. Applicants should submit a proposal describing the purpose of the travel, the nature of the research, travel itinerary, and costs. Proposals should not exceed four double-spaced pages for these materials. The foreign ecologist’s CV and a one-page letter of support from the U.S.A. collaborator should be appended; these items are not included in the page limit.

Please submit all materials in a single electronic document (either RTF or MS Word format) to wanderso@drury.edu no later than 30 April 2005.

  One to two awards annually of $1000–2000 are available to support research in the hot deserts of North America: Sonora, Mohave, Chihuahua, and Vizcaino. Projects should be clearly ecological and should increase our understanding of the patterns and processes of deserts and/or desert organisms. Proposals should not exceed five double-spaced pages for all material and should include objectives, importance, background, methods, literature cited, and justified budget. Proposals will be ranked based on the importance of the project to understanding desert ecology, feasibility, experimental design, and innovation.

Please submit all materials for either award in a single electronic document (either RTF or MS Word format) to wanderso@drury.edu no later than 30 April 2005. Contact:

Dr. Wendy B. Anderson
Department of Biology, Drury University
900 N. Benton
Springfield, MO 65802
(417) 873-7445
Fax: (417) 873-7278
E-mail: wanderso@drury.edu

 

Back to Table of Contents


SOCIETY ACTIONS


Minutes of the ESA Governing Board
25–26 October 2004
Washington, DC

 

Members present:
Jerry Melillo (President), Bill Schlesinger (Past-President), Nancy Grimm (President-elect), Gus Shaver (Vice President for Science), Norm Christensen (Vice President for Finance), Alison Power (Vice President for Public Affairs), Carol Brewer (Vice President for Education and Human Resources), Shahid Naeem and Margaret Palmer (Members-at-Large).

Staff present:
Katherine McCarter (Executive Director), Cliff Duke (Director of Science), Nadine Lymn (Director of Public Affairs), David Baldwin (Managing Editor), Elizabeth Biggs (Director of Finance), Jason Taylor (Director of Education), Sue Silver (Editor)

I. ROLL CALL

A) The GB unanimously adopted the proposed agenda.

B) There were no votes to ratify.

  • Brief discussion of what the last fiscal year’s profit (approximately $9000) represents, where it should be invested (Christensen suggested the rainy day fund, which currently has about $200,000), and how to respond to questions from ESA members about it.
  • Margaret Palmer reminded the Board that strenuous efforts were made in 2004 by the nominating committee, chaired by Ann Bartuska, to find women to run, but they were unsuccessful. Bill Schlesinger, chair of the 2005 nominating committee, reported that the nomination process is well along and the slate is likely to include women.

C) The minutes from 31 July, 1 August, and 6 August 2004 were unanimously adopted.

II. REPORTS

A) Report of President Melillo

  • Melillo has focused on two tasks since the August meeting—establishing rapid assessment teams in cooperation with Nadine Lymn, and developing a review of the Science Office in cooperation with Gus Shaver and Cliff Duke
  • Rapid Assessment teams—41 of 58 people invited to join the rapid response teams have now responded, so there are three people on all but one of them now. Eighteen have been Leopold Fellows.
  • Review of Science Office—focus will be on future activities of the Science Office and how they relate to ESA’s strategic plan; history and current activities will also be covered.

B) Report of Executive Director McCarter and the Office Staff

  • David Baldwin reported that all publications are on track for publication timetables, and that starting in 2005 all authors will be getting proofs as PDF files. All ESA publications back to 1997 (the first year when publications were produced with SGML tagging) will soon have DOI tags and be in the CrossRef database. You will soon be able to do forward linking too (looking for papers that cited a particular paper). A new set of tools will soon be instituted for copy editors, which will speed up their work (and reduce its cost). Google will now start sending their web crawlers through ESA journals about every 6 weeks, which should generate a large number of hits from searches of our journals in the future.
  • Sue Silver reported that, since Frontiers’ inception, authors have received PDF files of their proofs. Frontiers will have a booth at two scientific conferences in November, and the Special Libraries Association Conference (4–7 June, Toronto). The Visions articles will likely appear in the March issue.
  • Jason Taylor reported that there is a November deadline for the third volume of TIEE. SEEDS will have a field trip to Louisiana soon, and will send a representative to three conferences this winter (American Indian Association of Science and Engineering (AISES), in Anchorage; Society for the Advancement of Chicanos and Native Americans in Science (SACNAS), in Austin, Texas; North American Association of Environmental Education (NAAEE), in Biloxi, Mississippi). A new employee will join the educational program in January.
  • Liz Biggs: ESA had 8718 members at the end of the fiscal year (a big jump up—about 900 in 2 years). Participation in Chapters and Sections has also increased in most cases. The e-version of the iMIS database is being rolled out this week, for real-time updating by members of their membership information. The biggest issue relates to the future of journal subscriptions, especially institutional subscriptions. Member subscriptions have been declining over the past several years. (ESA’s budget anticipates a 4%/yr decline in personal subscriptions.)
  • Nadine Lymn reported that the position of policy analyst has now been filled. A new initiative is to build a database of universities and other institutions with researchers who publish regularly in ESA journals, to create a news service for Public Information Officers that alerts them when someone from their institution publishes in a Society journal.
  • Cliff Duke reported that there were about 50 applications for three positions in the National Parks Ecological Research fellowship program. Norm Christensen reported that the Mellon Foundation is likely to withdraw support for this program in about 2 years unless other major partners are found as donors. The fundraising is NPS’ responsibility and and they have not yet begun to seek the needed resources.

C) Report of Vice President for Finance Christensen

1) First Quarter Financials look healthy, according to Katherine. The Annual Meeting did very well (might be the top meeting for income to date). This is due in part to a trial policy whereby the abstract submission fee was not refunded or credited toward the cost of registration (generating about $90,000). Next year, credit card numbers will be taken, but no charge will be made unless the submitter withdraws.

2) Norm Christensen reports that the Society investments are mostly flat.

3) The staff and VP for Finance recommend pursuing the idea of hiring a development professional to work with ESA. This idea will be pursued with the goal of making a presentation to the Board at the spring meeting. There is general support for the idea of a professional fund-raiser.

III. DISCUSSION/ACTION ITEMS

A) Publications issues

1) Data sharing

a) Data sharing statement (Baldwin/Duke)

The meeting of 12 scientific societies hosted by ESA went very well and included representatives from Chile and England. Bill Michener and David Baldwin were ESA representatives. Clarification of terms was an important achievement (e.g., What is a data set? Are herbarium sheets and soil samples data? What is a data registry?—like a phone book. What is a data center?—a place where metadata and data are stored). A near-term strategy will be to establish an editorial policy for scientific journals. The meeting attendees proposed a statement to be considered by each group’s governing body: “It is the expectation of the editors and publisher of this journal that authors will make the data underlying published articles available. Any impediments to data sharing should be brought to the attention of the editors at the time of submission.” The ESA Governing Board developed a revision of this statement that will be reviewed by the Publications Committee before being placed in ESA journals. “The editors and publisher of this journal expect authors to make the data underlying published articles available.”

NSF may be the driving force behind this, at least for grantees, but editors could also carry a big stick by eventually enforcing a data-sharing policy for authors. National Biological Information Infrastructure (NBII; a broad, collaborative program to provide increased access to data and information on the nation’s biological resources) might be interested in helping with development of a registry and repository. Perhaps ESA could help to effect a cultural change in ideas about the importance and value of data archiving by publishing a paper with examples of how historical data have facilitated newer studies, or how the lack of such data has removed opportunities for potentially valuable follow-up studies.

b) Data registry proposal

Jim Reichman asked the Board to begin discussion about creating a data registry for ESA members and for contributors to ESA journals, using technology currently being developed. The Board, after extensive discussion of Reichman’s proposal, concluded that they were not yet ready to endorse a specific proposal for a data registry. Several groups are pursuing related initiatives and ESA sees the need to bring these groups together to discuss strategy and ensure that any ESA effort is inclusive. Nancy Grimm, David Inouye, and Margaret Palmer, working with David Baldwin and Cliff Duke, will form an ad hoc committee to coordinate ESA activities related to the data sharing. Jim Reichman will be invited to join that group.

2) Publications task force

Jim Reichman has contacted the Board already about issues related to online publications and the impact of open access, and recommends that a group be named to provide background material for the Board. He has asked the Board for some funding to facilitate this, and the Board approves unanimously the idea of using the contingency funding from the budget for this purpose. President Melillo will work with Jim to appoint the task force.

3) Frontiers program review

  • Katherine reported on the history (dating from 1998) of the Publications Visions Committee (which presented a report to the Board in January 1999). That “Brown Report” was discussed at each Board meeting for the next few years, evolving into something more compatible with the Board’s goals of increasing membership and reaching out to audiences that might not be attracted by current publications.
  • Sue Silver reported on current status and management of Frontiers. It has met the original criteria of being international, interdisciplinary, and accessible. It has almost certainly played a role in the significant increase in membership over the past two years. (Frontiers comes free of charge to ESA members.) Frontiers faces two major challenges in the near term: (1) attracting new readers from government and business; and (2) becoming self-supporting.
  • Liz Biggs reported on finances. After 2 years of publication, and 3 years of funding, we are in good shape. The Publications Fund balance was ahead of budget by about $117,000 and will be close to $1,200,000 at the end of December, with a new Mellon Foundation grant of $750,000 just received. The business plan for Frontiers requires that an additional $750,000 be raised for the fund in support of Frontiers to cover costs until the journal becomes self-supporting through a mix of library subscriptions and advertising. Currently we have a $250,000 grant request before the Packard Foundation and we are beginning the planning to raise an additional $500,000). Based on our current business plan for Frontiers, the projection is that Frontiers will be self-supporting in 2011, or 10 years into its life. Norm Christensen reported that Packard might be willing to make a long-term low-interest loan if we have difficulty in raising the $500,000. The marketing goals seem to be on track for advertising and classified ads. Library subscriptions (70 so far) continue to be the biggest challenge. ESA is currently putting $50,000/yr into the Publications Fund that supports the project.

4) Journal mission statements

The Editors-in-Chief were asked by the Board to provide mission statements that might be a first step toward the upcoming review of publications. The Publications Committee has reviewed them and suggests that a uniform format would be useful. The Board agrees, and will ask (via a memo to be drafted by Jerry Melillo) that the EICs revise their statements for the next Board meeting. One alternative is that there be an overall umbrella statement about the Society’s suite of journals, followed by more detailed information about individual publications.

5) Pease letter response

Jerry has drafted a response to the letter sent to Board members by Dr. Craig Pease concerning editorial practices and policies of Frontiers. Sue will contact Mr. Rohrman asking him to remain as a columnist, but to resign as a member of the advisory board in order to remove any perception of a conflict of interest.

B) Visions priorities

1) Public information campaign

The ESA staff had a meeting on this topic. Nadine Lymn reported on some specific actions the Society might take, how to assess those efforts, and suggestions for people the Society might ask to become involved. The goal (#2) that seems to best match the Board’s intentions is (slightly modified): “Increase within 5 years public understanding of the essential role of ecological systems to the well-being of all people.” The Board will seek advice from some organizations that have run public information campaigns related to the environment; candidate organizations include Environmental Defense, WWF, SeaWeb, NASA, British Petroleum, Toyota, Weyerhauser, and UCS. Staff and a subset of Board members will organize a half-day meeting in late February with about five of these organizations to learn from their experiences. Questions to ask these organizations might include the following:

How to identify a target audience? What is the best topic area to begin with? What are the elements of a campaign? What are creative ideas for addressing the audience? Are there examples of successful campaigns such as this? What advertising firms would you use? What would it cost and how might we raise the resources needed for the campaign? How do you measure success?

2) Rapid response teams

Nadine Lymn reported on the roster of ESA members who have been invited (most of whom have accepted). Roll-out will be early in the spring, with two Congressional luncheon meetings.

3) International actions

Our next annual meeting in Montreal will be international in perspective, as will our special meeting in Merida, Mexico in January of 2006. The theme of the Mexico meeting is “Ecology in an Era of Globalization: Challenges and Opportunities for Environmental Scientists in the Americas,” and the planning committee is being led by Dr. Jose Sarukhan and Dr. Jeff Herrick. Cliff and Ellen will go to Merida this winter to look at hotels and venues for the meeting. Possible funding sources for meeting support are being contacted. Some SEEDS students would be a logical addition to that meeting. Osvaldo is working with Katherine to pursue support for ESA of a Federation of the Americas group of ecological societies. The Federation should play an important role in the Mexico meeting. Katherine met in August with the Vice President of the Ecological Society of Australia to explore possible cooperation in the future.

C. Education issues

1) Leveraging SEEDS

There are 4 more years of Mellon funding remaining, and efforts are needed to start planning for how to replace it (currently $500,000/yr). Ideas were discussed for how to find additional opportunities for SEEDS students and for the program. This seems like a logical program for work by an ESA development officer. SEEDS may play a (no-cost) role in a future IGERT program with the University of Maryland, which would fund three workshops for SEEDS students.

2) Women and Minorities in Ecology (WAMIE) update

Carol Brewer reports that the final report is on schedule for November. A survey will occur next year to generate a new Profiles of Society members (following up on the 1992 publication).

D. Issues for future annual meetings; 2006 Annual Meeting theme

The proposal, “Icons and Upstarts: Maintaining an Ecological Balance,” is innovative. The Board suggests dropping or replacing the part of the title after the colon. The Program Chair and Meetings Committee will be asked to consider these comments and bring back a final recommendation.

E. NEON update

Carol Brewer reported on progress, which includes AIBS having received funding from NSF to serve in an organizational role.

F. Science Program review (Shaver/Duke)

1) Vice-President for Science Gus Shaver presented an outline of his vision for the Science Office during his tenure, and questions for the Governing Board to consider in its review.

  • Science Office mission and niche within ESA
    – Are they well-defined?
    – Are they appropriate?
  • How well do activities reflect the mission and niche, as well as the environment in which it must work?
  • Interactions with Policy and Education
  • Committees: Merge Research and SBI ?
  • 3-year goals for Science Office:
    – Support Visions initiatives
    – Maintain responsiveness to the ecological science community
    – Develop a new sustainability science agenda.

2) Cliff Duke presented information on the history of the office (initiated in 1992 in the form of the SBI Project Office, then became the Science Programs Office in 1997). The existing structure and goals are outlined in the Bylaws; in short, the Office promotes the integration of ecological science into management and decision-making by government agencies and the private sector at all levels. Although the Science Office produces educational publications (e.g., Issues in Ecology, the regional climate change reports) it does not engage with students and educators in the way Education does. Nor does it engage with legislators and Congressional staff in the way that Public Affairs does. Current projects include:

  • i) providing support for ESA activities (e.g., Annual Meetings, the Ecological Information Network, publications);
  • ii) planning and organizing scientific conferences (e.g., the invasive plants conference, the Mexico meeting);
  • iii) providing support to science, policy, and management (e.g., peer reviews, the conference on data sharing, JSTOR, Sustainable Water Resources Roundtable, National Parks Ecological Research Fellowship program);
  • iv) generating publications (e.g., Issues in Ecology, the regional climate change reports with UCS).

Projects in development include:

  • i) an Agricultural Air Quality workshop;
  • ii) a cooperative agreement with NBII;
  • iii) workshops for the Army Corps of Engineers;
  • iv) potential collaboration with UNEP and UNESCO;
  • v) developing communication training programs for federal scientists;
  • vi) a follow-up proposal to NSF for a joint working group on Data Sharing and Archiving.

As noted previously, the proposed new agenda for the Science Office has three components:

  1. Support Visions initiatives
  2. Maintain responsiveness to the ecological science community
  3. Develop a new Sustainability Science Agenda

A high-priority item for action on this agenda is combining and reforming the SBI and Research committees into a single Science Committee to advise and support Science Office projects. Others include leading international outreach activities, and developing activities to examine and articulate the intellectual foundations for a new sustainability science.

Based on the discussions, Gus and Cliff will complete the following tasks before the next Board meeting:

1) Draft a new Bylaw statement about the Science Office, and prepare a proposal to delete the existing SBI office Bylaw, to be voted on at the Council meeting next summer.

2) Write a Bylaw about the new Science committee that reflects the merging of the Research and SBI committees, also for presentation at the Council meeting in Montreal, and discussion at the May Governing Board meeting.

3) Go through the list of people on the two current committees (Research and SBI), write to the individuals to see who is willing to stay on, and identify a few new members who will be useful in implementing the new SO agenda.

4) Prepare a Supplementary Session proposal on sustainability science for the Montreal meeting by 1 Dec.

5) Prepare proposals to NBII and NSF, as described previously, and move forward on planning and implementation of support for Visions initiatives and international outreach efforts.

IV. NEW BUSINESS

1) Nominations for ESA awards are due soon and suggestions should be sent to the Awards Committee.

2) Bill Schlesinger provided an update on nominations for Board members, officers, and committees for fall 2005.

Respectfully submitted
David Inouye


Back to Table of Contents

 

 


Photo Gallery


An Unusual Nest
Photographs by William Bradshaw

 


(all rights reserved, used by permission)

click on a photo below for a larger image

The mosquito Wyeomyia smithii within a water-filled leaf of the carnivorous purple pitcher plant, Sarracenia purpurea. For popuations of this mosquito, latitude of origin had a greater effect on cold than on heat tolerance as measured by survivorship.
The purple pitcher plant, Sarracenia purpurea, has a range that extends in wetlands from the United States Gulf Coast to Canada.
Look for the article by Peter A. Zani, Sarah E. T. Swanson, Drew Corbin, Lee W. Cohnstaedt, Marci D. Agotsch, William E. Bradshaw, and Christina M. Holzapfel, “Geographic variation in tolerance of transient thermal stress in the mosquito Wyeomyia smithii” in the May 2005 issue of Ecology 86(5).

Back to Table of Contents


Cue the Ravens
Photographs submitted by Crow White

An experiment testing if ravens cue to rifle fire.
Telemetry tracking ravens in Grand Teton National Park.
Raven caching hunter-killed elk gutpile meat in Grand Teton National Park.
In a study of the flexibility and creativity of corvid behavior, carried out at Jackson Hole, Wyoming, Common Ravens were found to fly toward the sound of gunshots, presumably in order to locate an important food source, the gut piles left behind by successful hunters. The ravens responded to the shots only when guns were fired within forested habitat. Raven behaviors suggest that the birds may be using gunshots as a substitute for other sounds already used to locate food in the wild.

Click on photos for a larger image.


Flood Cycles
Photograph by Marian Smith

Human alteration of natural flood cycles is an important perturbation to floodplain plants. We report a demographic analysis of Boltonia decurrens, an endangered plant in the floodplains of the Illinois River. Navigation dams and levees have drastically altered the timing and severity of flooding over the past century. These changes reduce the population growth rate (deterministic and stochastic) of Boltonia and change the life history pathways responsible for its population growth.

This photo shows U.S. 67 west of Alton, Illinois, in July 1993 during a flood that affected a third of the United States and caused $18 billion in damages. Historical data shows that the stochastic growth rate of Boltonia has declined in the last 100 years because the regulation of the river has increased the frequency of these late-receding floods. The photograph, by Nancy Parker, is associated with the article by M. Smith, H. Caswell, and P. Mettler-Cherry, “Stochastic flood and precipitation regimes and the population dynamics of a threatened floodplain plant,” to be published in Ecological Applications 15(3), June 2005.


Look for the article by Marian Smith, Hal Caswell, and Paige Mettler-Cherry, “Stochastic flood and precipitation regimes and the population dynamics of a threatened floodplain plant,” in the June 2005 issue of Ecological Applications 15(3).

Click on photo for a larger image.

Back to Table of Contents


Complex Dynamics
Photographs by Kailen Mooney

The ant Formica podzolica tending the aphid Cinara schwarzii on ponderosa pine (Pinus ponderosa) in Colorado, USA. Ants receive carbohydrate-rich honeydew from aphids in exchange for providing protection to the aphids from arthropod predators.
The ant Formica podzolica descending the trunk of a ponderosa pine (Pinus ponderosa) in Colorado, USA. This ground-nesting ant principally forages in pine canopies at this field site. The individual shown here has captured a lepidopteran larva and is returning to the mound.
An adult aphid (Cinara schwarzii) moving across a ponderosa (Pinus ponderosa) branch.

Many ants are effective predators of herbivores, but ants also frequently protect homopteran herbivores from their arthropod predators in return for carbohydrate-rich exudates. Ants thus can simultaneously exhibit multiple trophic roles as primary predators (via feeding upon herbivores), secondary predators (via feeding on predatory arthropods), and as facilitators of mutualist herbivores. We examined the spatial and temporal dynamics of pine (Pinus ponderosa) food webs that included the omnivorous ant Formica podzolica, using direct observation and stable isotopes. Formica podzolica is a predator of herbivorous and predatory arthropods, and a mutualist with the aphid Cinara schwarzii. Over the course of a single season, ant diet, and thus trophic position, shifted from being midway between that of a primary and secondary predator in early summer, to that of a primary predator by late summer. There was also significant spatial variation among trees in ant trophic position. Our results thus document that this ant fed at, or slightly above, the trophic position of primary predator, but that this trophic positioning varied both temporally and spatially. to the extent the spatial and temporal variation in F. prodzolica diet is similar to other ants or generalist predators, future food web models must accomodate these complex dynamics.


Look for the article by Kailen A. Mooney and Chadwick V. Tillberg, “Temporal and spatial variation to ant omnivory in pine forests,” in the May 2005 issue of Ecology 86(5).

Click on photos for a larger image.

Back to Table of Contents

 


Contributions



Commentary

An Introduction to Ecological Archives

Progress in the ecological sciences results when researchers build on well-documented data, and with relatively recent advances in technology it is now possible to preserve and make available a wide range of data, metadata, and other supplemental materials associated with research in ecology. In 1997, acting on recommendations of the Special Committee on Data Archiving and Sharing, the Ecological Society of America (ESA) established a fully electronic data archive, Ecological Archives, as a means for contributing and exchanging data as well as for data preservation. Shortly thereafter the online publishing of appendices, supplements, and data papers associated with ESA journals began. By January 2005, well over 600 published articles in Ecology, Ecological Monographs, or Ecological Applications included digital archives. In 2004 alone, among the three journals a total of 382 appendices and 24 supplements were posted.

The archives currently reside on a server in ESA’s Publications Office in Ithaca, New York. Detailed instructions for creating and submitting the files as well as citation and usage information may be found at ‹esapubs.org/archive›. The archives are indexed by first-author name and by the journal issue where the “parent” paper was published (Fig. 1). Each appendix, supplement, and data paper has a unique accession number by which the associated print article or abstract in the journals is linked to the archive materials (see Fig. 2). Thus, one click of the mouse can take you from the online versions of the journal articles directly to the associated archives. Or, one can access the archives directly with a web browser at ‹http://esapubs.org/archive› and use the accession number at the end of the articles in the print journals to find particular files.

Ecological Archives offer several benefits to our readership and to authors:
1) They can enrich the published papers with supporting data or details;
2) They can facilitate the sharing of data;
3) They enable ESA to publish more concise papers in journals, thereby allowing more papers to be published within the annual budget;
4) They can save on page charges for authors;
5) They preserve the data under the ESA imprimatur; and
6) They can take advantage of multimedia technology to enhance data display and the sharing and development of software.


Fig. 1. An index page by journal issue in Ecological Archives.

Appendices

To date, the most frequently published archive files are appendices. These are similar in content to those that have appeared in the print journals, but are self-contained and directly viewable with a standard web browser. If an appendix includes sound or video, then those files are directly executable. The appendices can comprise tables, figures, and photographs, as well as descriptions of statistical analyses. Examples of appendices include ANOVA tables and details of sampling methodology and model development. See Fig. 3 for a sample appendix page or browse the Ecological Archives web pages. We require that the bulk of appendices be in HTML in order to guarantee universal availability. Templates in HTML are available for downloading to assist authors with appendix preparation. Judicious use of digital appendices helps authors meet the requirement for concise papers (see ‹http://esapubs.org/esapubs/EICNote1.htm›).

Fig. 2. An example of accession number links in the print journals.


Supplements

Supplements are distinguished from appendices in that these are more likely to be downloaded and used rather than viewed. Supplements cover a range of file types, including original raw data, derived data sets, model source code, and statistical software. By submitting supplements to Ecological Archives, authors facilitate new analyses of their data, data validation, and development of critical software. Appropriate metadata (information about the data) are required in order to understand and re-use the data correctly and must be provided in a standard format. Data files should be submitted as delimited ASCII files and software must include the source code. Templates are available to help authors in submitting supplements ‹http://www.esapubs.org/archive/
archive_templates.htm
›. The file list section on supplement pages provides direct links to the various data or software files for downloading. Fig. 4 shows an example of a supplement page.

Fig. 3 Example of a single appendix posted in Ecological Archives.

Data papers

Data papers constitute a third category of archives. These are compilations and syntheses of data sets and associated metadata that are peer-reviewed and considered valuable to the scientific community. For example, the Data Paper by Smith et al. (2003) is a compilation of body mass data for mammals worldwide for the purpose of investigating patterns of body mass across geographic and taxonomic space and evolutionary time. After passing peer review, data papers are announced in abstract form in Ecology. The accession number printed with the abstract is directly linked to the data paper in Ecological Archives.

Fig. 4. Example of a single supplement page posted in Ecological Archives.

The data for data papers should be logically and consistently formatted. Fixed-format, tab-delimited, comma-delimited, or space-delimited ASCII is the preferred format for tabular data. Rasterized digital geospatial data should be submitted in IDRISI- or ERDAS-compatible formats; vectorized geospatial data should be submitted in ARC/INFO export format. For other types of data, consult the Ecological Archives Data Editor›. Multiple files should be compressed and submitted together as self-extracting .ZIP or .TAR files. Synthetic data (e.g., figures) are allowed but may not substitute for raw data in data papers; such synthetic results normally should be placed within the accompanying metadata text.

The metadata for data papers fully describe the content, context, quality, and structure of the data. The metadata ideally should be submitted in a single HTML file, and the content should adhere strictly to the Ecological Archives metadata content standards derived from Michener et al. (1997). Although formal metadata content standards for Ecological Archives will continue to evolve, useful examples are available at ‹http://esapubs.org/archive›. Text portions of the metadata should generally adhere to ESA print journal guidelines.

Data papers are peer-reviewed and are evaluated with respect to their contribution to ecological science, originality, quality of the metadata, soundness of the database, consistency, and completeness. It is especially important that the metadata be clear and comprehensive, enabling those that did not create the database to understand, interpret, and re-use the data. See ‹http://www.esapubs.org/archive/archive_D.htm› for examples.

Conclusion
With mechanisms for electronic data storage and dissemination advancing, and with the call from funding agencies for making research data widely available, it makes sense to take advantage of digital archives. I encourage readers to browse the Ecological Archives web pages at ‹http://esapubs.org/archive/default.htm› to see the possibilities these three digital publication categories offer to authors and readers alike. Questions about preparation of files not covered in the instructions can be directed to me at jlb40@cornell.edu, and suggestions are welcome. The Data Editor, William Michener, can answer questions about data paper submissions.

Literature cited
Michener, W. K., J. W. Brunt, J. J. Helly, T. B. Kirchner, and S. G. Stafford. 1997. Nongeospatial metadata for the ecological sciences. Ecological Applications 7:330–342.
Smith, F. A., S. K. Lyons, S. K. Morgan Ernest, K. E. Jones, D. M. Kaufman, T. Dayan, P. A. Marquet, J. H. Brown, and J. P. Haskell. 2003. Body mass of late Quaternary mammals. Ecology 84:3403.

Acknowledgments
Constructive comments were provided by William Michener and J. David Baldwin and are greatly appreciated.

Jane L. Bain
Data Archives Manager
Ecological Society of America Publications Office
127 W. State Street, Suite 301
Ithaca, New York 14850-5427
(607) 273-3816 Ext. 313
E-mail: jlb40@cornell.edu


A History of the Ecological Sciences, Part 16: Robert Hooke and the Royal Society of London

Although the versatile Robert Hooke (1635–1703) was not an “early ecologist,” he made enough innovations and discoveries essential for the prehistory of ecology to merit our consideration. For too long, he was overshadowed by his formidable rival, Isaac Newton, but now there are four excellent biographies of Hooke: ‘Espinasse (1956) provides a brief overview, Drake (1996) provides a geological perspective on his life and career, and Inwood (2002) and Jardine (2004) provide detailed account of all aspects of his life. Another volume written by Bennett, Cooper, Hunter, and Jardine (2003) celebrates Hooke’s life and work on the 300th anniversary of his death. Finally, Nichols’ is a pleasant, brief study of Hooke’s relations with the Royal Society (1999), but it lacks the sophistication of Pumfrey’s article on the subject (1991). All of these books are well illustrated. A useful biographical article provides additional references (Pugliese 2004).

Hooke was born on the scenic Isle of Wight, two miles south of England’s mainland, and as a child he was fascinated by both its geological formations and its fossil shells. His preacher father died when he was 13, and he was apprenticed to a London artist. He had the talent to become an artist, but paint fumes affected him adversely, and so he was sent to Westminster School, where the headmaster, Dr. Richard Busby, recognized his genius and provided him not only with a solid academic education, but also had him trained as an instrument maker (Jardine 2004:63).

In 1653 Hooke entered Oxford University and soon became Robert Boyle’s laboratory assistant. He built an air pump for Boyle, and Hooke used it himself to demonstrate the hypothesis that became known as Boyle’s Law (1662). The Royal Society of London for Promoting Natural Knowledge was founded in 1660 and received a royal charter (but no money) from Charles II. The Society soon had 115 members (Stimson 1948:51), although only about 20 were active (Inwood 2002). It was inspired by and organized with the writings of Sir Francis Bacon in mind (Purver 1967:235–236). In 1662 Hooke became its curator, responsible for three or four experiments or demonstrations at each weekly meeting. This was an unrealistic expectation, but he came closer than anyone else could have done. By 1664 the Royal Society decided to pay him a modest annual stipend. In 1665 he became Professor of Geometry at Gresham College, and the Royal Society met often in his rooms there.

His book, Micrographia: or Some Physiological Descriptions of Minute Bodies made by Magnifying Glasses (1665) contains 9 months of his experiments and demonstrations. He used a commercial microscope, probably from instrument-maker Richard Reeve (Simpson 1989:37–41). His most famous observations and illustrations in it are of plant cells, which he discovered and named (Hooke 1961:112–116).

Fig. 1. Hooke’s compound microscope.
Micrographia (Hooke 1961: facing p.1).

He illustrated cells in cork and charcoal and said he had also seen them in at least eight other kinds of plants, possibly including moss, since his illustration of it shows cells in the leaves (Hooke 1961:facing p.131, Richards 1981:141, Harris 1999:4–7). Equally important, if less well known, was his discovery of microorganisms (Bardell 1988). He put some grains of sand under his microscope and discovered that one of them resembled a minute water snail shell, and he concluded it was a fossil shell (Hooke 1961:80–81, illustration facing p.44). He did not name what are now called foraminifera. Hooke intentionally investigated two familiar substances that turned out to be plant growths (at a time when fungi were considered plants). For several summers he had observed that the green leaves of damask roses became “all bespecked with yellow stains, and the undersides…have small black spots in the midst of these yellow ones, which to the naked eye, appear’d no bigger than the point of a Pin.” (Hooke 1961:121).
He examined them under his microscope and saw “several small yellow knobs…out of which I perceiv’d there sprung multitudes of little cases or black bodies like Seed-cods [pods],” though he was unable to see any “seeds.” He had discovered, but did not name, the rose rust (Phragmidium mucronatum) (Ainsworth 1976:59). He suspected, despite his speculation about seeds, that these were simple moss or mold “which is set a moving by the putrifactive and fermentative heat, joyn’d with that of the ambient aerial” and so grows by the “same Principle, I imagine the Misleto of Oaks, Thorns, Appletrees, and other Trees, to have its original . . . seldom or never growing on any of these Trees, till they begin to wax decrepid . . . .”

Next, he investigated mold from a leather book cover and saw what seemed to be minute mushrooms. His illustration shows what are now called sporangiphores with sporangia. He speculated the latter might be seed cases, though he had never found seeds in mushrooms, “which seem to depend upon a convenient constitution of the matter out of which they are made, and a concurrence of either natural or artificial heat.” (Hooke 1961:127). He smelled and tasted the mold and found it disagreeable. The microscope enabled him to raise the question of whether microscopic plants reproduce by “seeds,” but he did not pursue this investigation long enough to find out—so many other experiments to perform.

Fig. 2. Top: Mucor. Bottom: Phragmidium mucronatum (Hooke 1961: facing p.125).

He then studied moss, which is visible to the naked eye, though its fine structures are best studied under a microscope. He easily identified its seed case, which was solid before it ripened, but after it grew bigger a hole appeared, out of which seeds probably fell, since later the seed cases were hollow. Although he failed to find any moss seeds, he assumed they existed, but even so, he remained uncertain about whether moss could also arise “out of corruption, without any disseminated seed . . . .” (Hooke 1961:131–132). The four specimens on his plate XIII are well drawn, though they inadvertently came from two or three different species, and there is some mismatch between the letters on the drawings and the discussion in his text. Despite these minor confusions, Hooke gave “an excellent account of the structure of the moss, with a surprising amount of detail.” (Richards 1981:142).

When he turned to insects, he commented that a large fly (such as the blue fly, Calliphora erythrocephala, he illustrated) at one time lays 400–500 eggs, and their numbers would increase prodigiously “were they not prey’d on by multitudes of Birds, and destroy’d by Frosts and Rains,” which led him to conclude that the absence of climatic checks causes the tropics to be “infested with such multitudes of Locusts, and such other Vermine.” (Hooke 1961:182). He concluded from watching blue flies that they were stimulated by putrefying meat to lay their eggs on it.

Fig. 3. Mosquito larva and pupa (Hooke
1961: facing p.186).

His most detailed insect study was on mosquitoes, which he called water-insects or gnats. The name “mosquito” was in use by 1665, but it was borrowed from Spanish to refer to small American flies. Our distinction between biting mosquitoes and nonbiting gnats only gained common usage about 1900 (Christophers 1960:1–2). Hooke observed them in the aquatic stage, which he though was generated in rainwater (presumably by spontaneous generation). He was fascinated by their shape and motion, and perhaps because of this fascination, he discovered after two or three weeks that they metamorphosed into gnats, “leaving their husks behind them in the water floating under the surface. . . .” (Hooke 1961:187). He described the process in detail because he had “not found that any Author has observ’d the like; and because the thing it self is so strange. . . .” He described two adults, guessing correctly their sex, though his larval stage (Fig. 3) is Culex and his adults (Hooke 1961:facing pages 193 and 195) are Chironomus (Bodenheimer 1928–1929, II:368; Christophers 1960:4). In the interest of science, he let a mosquito bite his hand and watched it suck his blood and “fill its belly as full as it could hold, making it appear very red and transparent…” (Hooke 1961:195).

Power (1945) argues that some of Hooke’s most striking illustrations were made by his lifelong friend and colleague, Sir Christopher Wren (1632–1723). Architect–scientist Wren had developed the techniques of drawing microscopic subjects, and the Royal Society had asked him to make insect drawings for Charles II. It was only because Wren had more compelling demands on his time that Hooke took up the project. In the preface to Micrographia Hooke praised Wren without specifically attributing any of the drawings to him. Power suspects that plates illustrating the head of a “drone fly,” a flea, and a louse (plates XXIV, XXXIV, and XXXV) are Wren’s, and possibly also plate XXXVI on two mites. Drawings of the fly head, flea, and louse are all gigantic; the flea, at 16.5 inches (43.5 cm) long, is surely the largest insect drawing in the scientific literature. It is ironic that Hooke published a large illustration of a flea in the very year that a plague epidemic struck London, killing almost 100,000. The Royal Society was alerted to the epidemic’s seriousness from the published bills of mortality and suspended its meetings in late June. Charles II also fled the city for safer climes (Gregg 1978:9–11). No one, of course, made the connection between the rat flea (Nosophyllus fasciatus) and the plague.

Fig. 4. Flea (now called the dog flea, Pulex irritans)
(Hooke 1961: facing p. 210).

Hooke observed a louse sucking blood after fasting for two days; presumably it was his blood, as it had been with the mosquito he observed. He found that the louse was “so greedy, that though it could not contain more, yet it continued sucking as fast as ever, and as fast emptying it self behind…” (Hooke 1961:213).

Since Hooke was uncertain about the possibility of spontaneous generation in small organisms, it is interesting that he discovered the eggs of mites. The mites themselves were barely visible to the naked eye, yet he undoubtedly found their eggs. He estimated that a mite is only one-hundredth of an inch thick, which means that there would be a million in a cubic inch, yet their eggs are only a 400th or 500th the size of the adult. “Notwithstanding which minuteness a good Microscope discovers those small moveable specks to be very prettily shap’d Insects, each of them furnish’d with eight well shap’d and proportion’d legs…” (Hooke 1961:213–214). He believed that a mite

     is very much diversify’d in shape, colour, and divers other properties, according to the nature of the substance out of which it seems to be ingendred and nourished, being in one substance more long, in another more round, in some more hairy, in others more smooth, in this nimble, in that slow, here pale and whiter, there browner, blacker, more transparent, &c. I have observed it to be resident almost on all kinds of substances that are mouldy, or putrifying, and have seen it very nimbly meshing through the thicket of mould, and sometimes to lye dormant underneath them; and ‘tis not unlikely, but that it may feed on that vegetating substance, spontaneous Vegetables seeming a food proper enough for spontaneous Animals.

But then again, he says, maybe they all come from eggs!

The illustrations in Micrographia inspired the Dutchman Antoni van Leeuwenhoek (1632–1723) to begin sending his own findings to the Royal Society in 1673. Leeuwenhoek could not read the English text, but may have had help from someone who could (Jardine 1993:314). Hooke often repeated Leeuwenhoek’s investigations for the Society and sometimes added his own comments (Hooke 1968, Inwood 2002, Jardine 2004). In 1692 Hooke expressed regret that, although there had been other microscopists in the 1660s to 1680s, Leeuwenhoek was the only one still publishing scientific observations. He could not return to the subject himself because of declining eyesight (Hooke 1967:262, Wilson 1995:226).


Hooke’s, and the Royal Society’s, interests were quite broad, and he easily wandered into other fields. In an effort to show the practical importance of science, both he and the Royal Society investigated various aspects of seafaring and navigation. Little was know about the oceans, and he thought sea captains might be willing to undertake some investigations if provided with equipment and a program. He invented a depth sounder and water sampler (described 30 September 1663) that might provide useful data. The former determined depths deeper than was possible by dropping a weighted line. It consisted of a larger hollow ball linked to a smaller solid metal ball by a clasp that opened when the solid ball struck the bottom, allowing the hollow ball to rise to the surface. One estimated depth by the time lapsed between dropping both balls into the water and the reappearance of the hollow ball. It was never widely used because it was an inconvenient device and because sailors were uninterested in great depths. However, his water sampler was commonly used by oceanographers in the 1700s and 1800s. It was “a square bucket with upper and lower hinged lids which opened upwards as it was lowered through the water on a weighted bracket” (Wolf 1950:117–119, Bennett et al. 2003:76–77). As one pulled the sampler back up, the lids closed automatically, enclosing the water sample.

Hooke, at the suggestion of the Royal Society in September 1663, began to keep daily weather records, and thereby founded the regular investigation of weather which he hoped would lead to weather prediction (Inwood 2002:43, Bennett et al. 2003:77–80). The subject stimulated his inventive genius, leading him to invent or improve all five basic meteorological instruments: barometer, thermometer, hygroscope, rain gauge, and wind gauge (‘Espinasse 1956:50).

But making one of each was not enough for Hooke; he was always thinking up better versions of his instruments, which explains why the indexes of Middleton’s histories of the barometer, thermometer, and weather instruments (1964, 1966, 1969), have longer entries under “Hooke” than for any other investigator-inventor.
The same is true for Bud and Warner’s encyclopedia of scientific instruments (1998).

Not only did he invent the instruments, he also developed and printed a meteorological form on which to record the data (Hooke 1958, Wolf 1950:308–313).

From the start, he and the Royal Society realized that any scientific study of weather required both a uniform set of records and a standard set of instruments (Patterson 1953). However, science was not yet well enough organized for these insights to be widely implemented. That would take another two centuries.

Fig. 5. Wheel-barometer, hygrometer, and wind gauge
(Hooke 1958: facing p.173).

Fig. 6. Hooke's rain-gauge
(Wolf 1950: 310).

Fig. 7. Hooke's self-recording weather
clock (Wolf 1950: 311).

The kind of seaman-investigator whom the Royal Society longed for eventually appeared—the remarkable William Dampier (1652–1715). It seems unlikely that the Royal Society influenced him before his first voyage around the world (early 1679–September 1691), during which he collected valuable information on geography, ocean currents, prevailing winds, people, animals, and plants. After he returned, however, he discussed his findings with Hooke and the Royal Society (Preston and Preston 2004:230–235), and those discussions undoubtedly increased his sophistication when he was writing A New Voyage Round the World (Hooke 1697). It was the most important travel book since Marco Polo’s Travels (which appeared about 1300). After it appeared, Hooke (1697) summarized it for the Royal Society.

Robert Hooke, son of a clergyman, was a pious Christian as well as a brilliant scientist, yet he thought many students of Earth history exaggerated the importance of Noah’s flood to account for geological strata. From a modern perspective, we could say that he, in turn, exaggerated the importance of earthquakes to account for the same strata. But that was a small mistake when compared with his sophisticated approach to geology and Earth history. He studied and theorized on the shape of the earth, the wandering of the poles, cyclic terrestrial processes, fossil formation, and subterraneous eruptions and earthquakes causing changes from land to sea (Hooke 1996:96). He was one of the earliest defenders of the idea that fossils represent the remains of once living beings. His reason was simple: there is no other adequate explanation. Nevertheless, he had to argue the point with colleagues in the Royal Society who defended the idea of a “plastic virtue” in the earth that could produce fossils (Rudwick 1985:53–56, Rapport 1997:106). His claims about fossils were based on observations going back to his boyhood on the fossil-rich Isle of Wight. He was especially fascinated by what he called “snail-stones” or “snake-stones,” now called ammonites.

These were much larger than any known living species, though he compared them with the chambered nautilus, which he illustrated as cut in half along the spiral axis (Hooke 1971:281–285, Drake 1996:161–167, Jardine 2004:37–42). The only way he could account for fossils that do not resemble living species was to assume that species must change over time (Drake 1996:97–103). If species change, then fossils might indicate the chronology of the world (Rossi 1984:12–17, Drake 1996:233, 304). When he was informed that the Danish physician Niels (or Nicolaus) Stensen (or Steno) shared his perspectives, instead of welcoming the support, he wondered if someone had secretly sent his own ideas to Stensen (Cutler 2003:130–138). Hooke’s thoughts on fossils were published posthumously.

Fig. 8. Form for a weather report (Hooke 1958: 179).

Robert Hooke was active in the Royal Society for 40 years, during its golden age. His own most important contributions came in his earlier years in the Society, when the standards and traditions of modern science were developing. After his death, Sir Isaac Newton became president of the Royal Society, yet in the 1700s the Society mostly continued along the paths blazed in the later 1600s. The loss of Hooke’s portrait contributed to his being overshadowed by Newton. Some historians have wondered if Newton permitted it to disappear when the Royal Society moved from Gresham College after Hooke’s death. Lisa Jardine has a different answer to the mystery: a picture clearly mislabeled “John Ray” is the long-lost portrait of Hooke (Jardine 2004:17).

Literature cited
     Ainsworth, G. C. 1976. Introduction to the history of mycology. Cambridge University Press, Cambridge, UK.
     Bardell, D. 1988. The discovery of microorganisms by Robert Hooke. American Society for Microbiology News 54:182–185.
     Bennett, J., M. Cooper, M. Hunter, and L. Jardine. 2003. London’s Leonardo—the life and work of Robert Hooke. Oxford University Press, Oxford, UK.
     Bodenheimer, F. S. 1928–1929. Materialien zur geschichte der entomology bis Linné. Two volumes. W. Junk, Berlin, Germany.
     Bud, R., and D. J. Warner, 1998. Instruments of science: an historical encyclopedia. Garland, New York, New York, USA.
     Christophers, S. R. 1960. Aëdes aegypti (L.), the yellow fever mosquito: its life history, bionomics and structure. Cambridge University Press, Cambridge, UK.
     Cutler, A. 2003. The seashell on the mountaintop: a story of science, sainthood, and the humble genius who discovered a new history of the earth. Dutton, New York, New York, USA.
     Drake, E. T. 1996. Restless genius: Robert Hooke and his earthly thoughts. Oxford University Press, Oxford, UK.
     ‘Espinasse, M. 1956. Robert Hooke. William Heinemann, London, UK.
     Gregg, C. T. 1978. Plague! The shocking story of a dread disease in America today. Charles Scribner’s Sons, New York, New York, USA.
     Harris, H. 1999. The birth of the cell. Yale University Press, New Haven, Connecticut, USA.
     Hooke, R. 1697. An account of a new voyage round the world, by William Dampier. Royal Society Philosophical Transactions 19:426–433.
     Hooke, R. 1958. Method for making a history of the weather. Pages 173–179 in T. Sprat, editor. The history of the Royal-Society of London, for the improving of natural knowledge. Reprinted from the 1667 edition with notes by J. I. Cope and H. W. Jones. Routledge and Kegan Paul, London, UK.
     Hooke, R. 1961. Micrographia: or some physiological descriptions of minute bodies made by magnifying glasses, with observations and inquiries thereupon. Reprinted from the 1665 edition. Dover, New York, New York, USA.
     Hooke, R. 1967. Philosophical experiments and observations. W. Derham, editor. Reprinted from the 1726 edition. Frank Cass, London, UK.
     Hooke, R. 1968. The diary of Robert Hooke, M.A., M.D., F.R.S., 1672–1680. H. W. Robinson and W. Adams, editors. Reprinted from the 1935 edition. Wykeham, London, UK.
     Hooke, R. 1971. The posthumous works. Reprinted from the 1705 edition with introduction by T. M. Brown. Frank Cass, London, UK.
     Hooke, R. 1996. Hooke’s discourse of earthquakes and subterraneous eruptions (1667–1694). Pages 159–365 in E. T. Drake, editor. Restless genius: Robert Hooke and his earthly thoughts. Oxford University Press, Oxford, UK.
     Inwood, S. 2002. The man who knew too much: the strange and inventive life of Robert Hooke, 1635–1703. Macmillan, London, UK.
     Jardine, L. 1999. Ingenious pursuits: building the scientific revolution. Talese/Doubleday, New York, New York, USA.
     Jardine, L. 2004. The curious life of Robert Hooke: the man who measured London. HarperCollins, New York, New York, USA.
     Keynes, G. 1960. A bibliography of Dr. Robert Hooke. Clarendon Press, Oxford, UK.
     Middleton, W. E. K. 1964. The history of the barometer. Johns Hopkins Press, Baltimore, Maryland, USA.
     Middleton, W. E. K. 1966. A history of the thermometer and its use in meteorology. Johns Hopkins Press, Baltimore, Maryland, USA.
     Middleton, W. E. K. 1969. Invention of the meteorological instruments. Johns Hopkins Press, Baltimore, Maryland, USA.
     Nichols, R. 1999. Robert Hooke and the Royal Society. Book Guild, Sussex, UK.
     Patterson, L. D. 1953. The Royal Society’s standard thermometer, 1663–1709. Isis 44:51–64.
     Power, M. E. 1945. Sir Christopher Wren and the Micrographia. Connecticut Academy of Arts and Sciences, Transactions 36:37–44.
     Preston, D., and M. Preston. 2004. A pirate of exquisite mind: explorer, naturalist, and buccanee’r; the life of William Dampier. Walker, New York, New York, USA.
     Pugliese, P. J. 2004. Robert Hooke (1635–1703), natural philosopher. Oxford Dictionary Of National Biography. Oxford University Press, Oxford, UK.
     Purver, M. 1967. The Royal Society: concept and creation. M.I.T. Press, Cambridge, Massachusetts, USA.
     Rapport, R. 1997. When geologists were historians, 1665–1750. Cornell University Press, Ithaca, New York, USA.
     Richards, P. W. 1981. Robert Hooke on mosses. Farlow Herbarium Occasional Papers 18:137–146.
     Rossi, P. 1984. The dark abyss of time: the history of the earth and the history of nations from Hooke to Vico. Translated by Lydia G. Cochrane. University of Chicago Press, Chicago, Illinois, USA.
     Rudwick, M. J. S. 1985. The meaning of fossils: episodes in the history of Palaeontology. Second edition. University of Chicago Press, Chicago, Illinois, USA.
     Simpson, A. D. C. 1989. Robert Hooke and practical optics: technical support at a scientific frontier. Pages 33–61 in M. Hunter and S. Schaffer, editors. Robert Hooke: new studies. Boydell Press, Woodbridge, UK.
     Stimson, D. 1948. Scientists and amateurs: a history of the Royal Society. Henry Schuman, New York, New York, USA.
     Wilson, C. 1995. The invisible world: early modern philosophy and the invention of the microscope. Princeton University Press, Princeton, New Jersey, USA.
     Wolf, A. 1950. A history of science, technology and philosophy in the 16th and 17th centuries. Second edition. Macmillan, New York, New York, USA.

Acknowledgments
For their assistance, I thank Anne-Marie Drouin-Hans, Université de Bourgogne, and Jean-Marc Drouin, Muséum National d’Histoire Naturelle, Paris, France.

Frank N. Egerton
Department of History
University of Wisconsin-Parkside
Kenosha WI 53141
E-mail: frank.egerton@uwp.edu

Back to Table of Contents



DEPARTMENTS


Emerging Technologies


Erratum: Improving the Presentation of Results of Logistic Regression
with R

In the Emerging Technologies section of the January 2005 issue, ESA Bulletin (Volume 85, No. 1, p. 42), the article, “Improving the presentation of the results of logistic regression with R,”  contained an incorrect version of Fig. 3, “Fitted logistic Gaussian regression curve . . . .” The correct version appears below.

Fig. 3. Fitted logistic Gaussian regression curve with dit plots and box plots
of dependent variable catagories.

Back to Table of Contents

 


Ecological Education: K–12

Welcome to our new column, which is specifically targeted at ecological education in schools. We are starting this column for several reasons. First and foremost, ecological education at all levels is a key mission of the ESA, and while we already have some key initiatives in education, we want to provide a forum that stimulates and shares good practice in schools. Engaging young people in the wonders of ecological science in school can be life changing for them, and can often stimulate interest in further study in ecology. Talented teachers need support and a forum for disseminating activities that work, and beginning teachers need access to this material. There are also many ecological educators working with schools who are not in the school system. We envisage this column as accepting a wide and diverse range of submissions—from a diverse population—we are open to suggestions! However, we would like to encourage material which is critical, science of ecology driven, and related to Junior and Senior High School science curriculum. Because this is an electronic medium, we have huge potential; let’s use it!

We would like to include:

• ideas and lesson plans for science of ecology;
• practical activities for the classroom or field;
• resources to liven up classroom teaching or home study, e.g., downloadable movies, photos, graphs, animations;
• concept introductions for different grade levels;
• teaching evaluation of student learning;
• developments in science education and education research of interest to
• teachers;
• other web material.

It would be very useful if submissions could include web links and a few key references, as well as addressing standard criteria for good practice in teaching, i.e., it should be safe, ethically acceptable, environmentally responsible, and copyright free.

Any queries, suggestions or submissions please contact:

 

 

Our first contribution to this column is about “Motivating students to ask scientifically productive questions,” and is presented by Robert E. Bohanan, Kevin J. Niemi, and Lisa Wachtel of the University of Wisconsin, and the Madison Metropolitan School District.

This contribution is particularly welcome, because encouraging students to construct appropriate questions from their observations of the natural world can often be hard work for the teacher! It thus meets entirely the purpose of this column—sharing good practice to help improve ecological education in schools. So please keep contributions coming; if you have any questions, thoughts, or contributions please contact:

Susan Barker
Department of Secondary Education
350 Education South,
University of Alberta
Edmonton, Alberta T6G 2G5 Canada
E-mail: susan.barker@ualberta.ca
(780) 492 5415 Fax: (780) 492 9402
Charles W. (Andy) Anderson
319A Erickson Hall
Michigan State University
East Lansing, MI 48824 USA
E-mail: andya@msu.edu
(517) 432-4648 Fax: (517) 432-5092

Motivating Students to Ask Scientifically Productive Questions

We describe a framework for supporting student inquiry in K–16 science classes in the context of student investigation of ecologically or environmentally related problems and issues. The framework was developed based on research from a case study in a 6th grade classroom on how to motivate and support student thinking about questions and evidence. We discuss how we have applied this framework in professional development for K–12 science teachers and for K–16 instructional materials for students. We describe how this framework can facilitate the collaboration of K–12 teachers with scientists, science educators, and learning scientists.

Background

Most teachers use some form of inquiry in their classrooms. Our work with teachers and their students, in part, has emphasized inquiry that involves students asking and investigating their own questions about phenomena or observations that they experience, and results in students developing arguments and or explanations that include evidence from data. We show this as a graphic representation of an example inquiry from a Bottle Biology Activity on Decomposition. See ‹http://www.bottlebiology.org/investigations/decomp_main.html

Application (Using scientific patterns and theories to describe, explain, predict, design, and make personal and social decisions). Adapted from C. W. (Andy) Anderson, National Association of Research in Science Teaching Presidential Address (2003).

 Development of questions is initially grounded in observations or discussion of phenomena. Observations may be in the laboratory or out of doors. Examples of discussion of phenomena may include exploring and analyzing published data (e.g., change in ice cover on lakes related to changes in climate).
Classroom discussion is used to develop questions and to develop criteria for what makes a good questions.
 Classroom discussion of evidence is used to refine questions to make questions scientifically productive for inquiry.
 Classroom discussion is used to develop criteria for evidence.
 Students construct evidence-based models, arguments, or explanations based on observation and discussions.

Our case study (Lucas et al. 2005) was part of a district-wide middle school science professional development project, SchoolYard Science, in Madison, Wisconsin, to improve inquiry-based teaching and learning using habitats at or near schools (see ‹http://www.wisc.edu/cbe/cbe_pubs/schoolyardsciencemodel.ppt› for background). The case study was on a year-long field and classroom investigation of aquatic systems in a 6th grade classroom. The teacher (Lucas) was a former elementary school teacher who had recently moved to a middle school and was teaching science for the first time in her career. Her goal was to have her students engaged in small groups in scientifically productive (e.g., scientifically testable) investigations of their own questions.

Scientists, science educators, and learning scientists collaborated with the teacher to create an overarching context for research under which students then developed their own related small-group inquiry projects. The overarching context was investigation of aquatic systems. In this particular classroom, the specific context was a study of aquatic systems that combined field observations (a pond near their school) and laboratory investigations (gallon jar microcosms).

Scientists provided relevant research vignettes, access to existing data, and other types of background on aquatic systems to add science content for the teacher and students, and they advised on the research design of student inquiry projects. Science educators worked with the teacher to develop classroom practices (e.g., integration of model-based reasoning by students) and instructional materials (e.g., problem-based materials) to support student investigations. Learning scientists helped to design assessment instruments (e.g., rubrics for analyzing student work) and approaches (e.g., observations and interviews) to study change in student learning.

At the beginning of the case study, we quickly learned that it was very challenging for students to ask scientifically productive questions. After an initial observation of a pair of small urban sediment detention ponds within walking distance of the school, students individually generated a list of 10 questions of interest. We list several examples of these questions below in Table 1.

*Table 1. Questions posed by sixth-grade students after initial pond observations.

 How much blood can a leech suck in an hour?
 Are there more fish in our pond?
 Where does the water come from?
 What happens to the animals in the winter?
 How does the water in the pond get polluted?
 Is the animal life in pond 2 more diverse than pond 1?

As you can see, most of these, as written, were not scientifically testable. To facilitate the refinement of their questions, we asked students to develop criteria for what they thought made one question a better scientific question than another. The initial criteria to evaluate their questions are listed in Table 2.

*Table 2. Initial criteria developed by students for what makes a good scientific question.

 Easy to answer
Meaningful/valuable
 Genuine
 Researchable
 Cannot be answered yes or no

To expand on their initial notions of what made one question a better scientific question than another, we asked students to identify the sources and types of evidence that they would need to provide at the end of their investigation in order to present a convincing argument or explanation. The result of this discussion was a group revision of criteria that they accepted as a class for what made a good scientific question. These are summarized in Table 3 below.

*Table 3. Revised criteria developed by students for what makes a good scientific question after connecting questions and evidence.

 Investigator has an expected outcome
 Methods are clear from the wording
 Connected to other questions
 Revision of initial question
 Genuine: don’t already know the answer
 Research is doable given tools, knowledge, and supplies
 Research is sensible or meaningful and adds knowledge

Through a combination of analysis of student work, transcripts of group discussion, and interviews with individual students, we found that the trajectory of evidence-based reasoning in arguments and explanations generally began with personal beliefs, and by the end of the school year, included careful documentation of empirical results. Transcripts of classroom discussions, analysis of student work, and individual interviews with students that reflect changes in their thinking about evidence are summarized in Table 4. Conclusions from the case study are summarized in Table 5.

*Table 4. Change in student thinking about evidence.

 Because I said so