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Skyline Park Teacher's Guide Glossary
Skyline Park Teacher’s Guide Cfwep.Org • Clark Fork Watershed Education Program Skyline Park • Butte, Montana Skyline Park Teacher’s Guide Table of Contents Chapter I. Introduction and Welcome 1. Overview of Skyline Park 2. Map of Skyline Park 3. How to use this Guide and the Activities II. About the NGSS and Guide Alignment 1. Background of NGSS and the K-12 Framework 2. Skyline Park Guide and the Montana Content Standards for Science Instruction III. Building Your Content Knowledge 1. Site History 2. Habitat Types of Skyline Park 3. Pond Life 4. Water Quality 5. Stormwater 6. Seed Pod Islands and Pollinators 7. Geology and Soils 8. Restoration IV. Activities 1. Science Note Booking 1.1: Science Note Booking About Skyline Park 2. History 2.1: Write Your Own History for this Site 2.2: Create a Timeline for this Area 3. Mapping the Skyline Park Site 3.1: Where is That?: Mapping the Skyline Park Site 4. Pond Life – Microbes 4.1: Wanderers, Drifters and Floaters, Oh My! 5. Pond Life – Aquatic Macroinvertebrates 2 Skyline Park Teacher’s Guide 5.1-Part 1: What’s That Squirming and Swimming in the Water? Collection and Identification of Pond Macroinvertebrates 5.1-Part 2: What are Those Macroinvertebrates Telling Us? Aquatic Macros as Biological Indicators 5.2: Who's My Mommy? Matching Aquatic Insect Young with their Adult Form 6. Pond Life – Terrestrial Animals 6.1: Crunch Game! The Aquatic Food Chain Game 7. Water Quality 7.1, Option 1: What Life Can This Water Support? Water Quality - WWMD Kits and Data Upload 7.1, Option 2: Water Quality – Vernier Lab Quest Units and Probes 8. -
Insect Diapause: a Review
Journal of Agricultural Science and Technology A 7 (2017) 456-475 doi: 10.17265/2161-6256/2017.07.002 D DAVID PUBLISHING Insect Diapause: A Review Harsimran Kaur Gill1, Gaurav Goyal2 and Gurminder Chahil3 1. Department of Entomology, University of Florida, Gainesville, FL 32611, USA 2. Technical Agronomist, Monsanto, St. Louis, MO 63167, USA 3. Agriculture Extension Coordinator, Manitoba Agriculture, Swan River, MB R0L 0Z0, Canada Abstract: Diapause is defined as a period of suspended development in insects and other invertebrates during unfavorable environmental conditions. Diapause is commonly confused with term “quiescence” as both are dormant development stages. Here this paper aimed to review the research work done on different aspects of diapause. Attempt was made to explain definitions of diapause, incidence, stages and termination of diapause, genetic control, factors affecting diapauses, including temperature, photoperiod, moisture and food, etc.. Key words: Diapause, quiescence, diapauses theory, stages of diapauses, genetic control, biotic and abiotic factors, insects. 1. Introduction embryonic, larval, pupal or adult stages. For example, silkworm moth (Bombyx mori) overwinters in embryo Diapause is an important adaptation in many insect stage, just before segmentation. The gypsy moth species enabling them to sustain in regions which (Lymantia dispar) enters diapause as a fully formed would otherwise be unfavorable for permanent larva with hatching occurring immediately after habitation, and to maintain high numbers in an diapause ends. Obligate diapause is often universal, environment which might otherwise support only a resulting in strictly univoltine life cycle with every low population [1]. The term “diapause” was applied individual in every generation experiencing diapause, by Wheeler [2] to egg stage of grasshopper, irrespective of any possible environmental variations. -
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THE HERPETOLOGICAL BULLETIN The Herpetological Bulletin is produced quarterly and publishes, in English, a range of articles concerned with herpetology. These include full-length papers, new methodologies, short communications, natural history notes and book reviews. Emphasis is placed on field studies, conservation, veterinary and behavioural aspects. Authors should read and adhere to the British Ecological Society’s Ethical Policy and Guidelines, a full version of which can be found at https://www.thebhs.org/info-advice/134-bhs-ethics-policy or The Herpetological Bulletin (2017), 141: 46- 18. All submissions are liable to assessment by the editorial board for ethical considerations, and publication may be refused on the recommendation of this committee. Contributors may therefore need to justify killing or the use of other animal procedures, if these have been involved in the execution of the work. Likewise, work that has involved the collection of endangered species or disturbance to their habitat(s) will require full justification. Articles reporting the results of experimental research, descriptions of new taxa, or taxonomic revisions should be submitted to The Herpetological Journal (see inside back cover for Editor’s address). Guidelines for Contributing Authors: 1. See the BHS website for a free download of the Bulletin showing Bulletin style. A template is available from the BHS website www.thebhs.org or on request from the Editor. 2. Contributions should be submitted by email to [email protected]. 3. Articles should be arranged in the following general order: Title Name(s) of authors(s) Address(es) of author(s) (please indicate corresponding author) Abstract (required for all full research articles - should not exceed 10% of total word length) Text acknowledgements References Appendices Footnotes should not be included. -
Final Risk Assessments for Diquat Dibromide
Appendix A: Final Risk Assessment For Diquat Bromide The Water Quality Program NOVEMBER 2002 Publication Number 02-10-046 Appendix A: Final Risk Assessment For Diquat Bromide Prepared by: Kathleen Emmett Washington State Department of Ecology The Water Quality Program NOVEMBER 2002 Publication Number 02-10-046 For additional copies of this document contact: Department of Ecology Publications Distribution Center P.O. Box 47600 Olympia, WA 98504-7600 Telephone: (360) 407-7472 The Department of Ecology is an equal opportunity agency and does not discriminate on the basis of race, creed, color, disability, age, religion, national origin, sex, marital status, disabled veteran's status, Vietnam Era veteran's status, or sexual orientation. If you have special accommodation needs or require this document in an alternative format, please call the secretary of the Watershed Management Section at 360-407-6404. The TTY number is 711 or 1-800-833-6388 TABLE OF CONTENTS Section: Label Description & History 1 Section 2: Chemical Characteristics 35 Section 3: Environmental Fate 47 Section 4: Environmental Effects 129 Section 5: Human Health Effects 355 Diquat Volume 4, Section 1 LABEL DESCRIPTION & HISTORY 29 PAGES SEIS Risk Assessments of Aquatic Herbicides: Study No. 00713 Diquat - LABEL DESCRIPTION & HISTORY Vol. 4, Sec. 1 – Page 1 SEIS Risk Assessments of Aquatic Herbicides: Study No. 00713 Vol. 4, Sec. 1 – Page 2 Diquat - LABEL DESCRIPTION & HISTORY TABLE OF CONTENTS TABLE OF CONTENTS ............................................................................................................... -
GLASSWORMS: a LIVE OR FROZEN TREAT for EVEN the MOST FINICKY FISH Konrad Schmidt
B 31 American Currents Vol. 40, No. 1 GLASSWORMS: A LIVE OR FROZEN TREAT FOR EVEN THE MOST FINICKY FISH Konrad Schmidt My first encounter with Glassworms aka Phantom Midge I was on one attempt to collect these Glassworms using a Larvae (Chaoborous spp.) was in the 1970s working in a trawl. On the old paper graph depth finder just after sunset, tropical fish store (Schmidt 1984). These bizarre one-half- the black bottom turned a gray and appeared to rise. Just inch insects are plankton and completely transparent. Un- before the reaching the surface at what we assumed was the der a microscope, fore and aft air bladders are visible and lower end of the thermocline, the band narrowed and turned serve dual roles: maintaining equilibrium and neutral buoy- black again. We deployed the trawl, but constantly and hap- ancy to suspend larvae throughout the water column. In the hazardly zigzagged up and down through the narrow layer. tail region, there is a structure that looks very much like a Around midnight, we did get “pulled over” by sheriff depu- fin (with rays) and functions as a rudder. The head contains ties with the Washington County Water Patrol. We thought large, conspicuous eyes and massive mouth parts which are we had “some explaining” to do, but all they were interested used to catch and eat their common prey Daphnia. Glass- in was our life jackets. After a few hours of effort we had a worms move erratically through the water by contorting couple of gallons of Glassworms. Most of these were frozen, and flexing their bodies and can for short periods evade fish but I brought some home alive. -
Harvey Solberg Et Al 2016 BMC EB BU Repository
Plasticity in growth of farmed and wild Atlantic salmon: is the increased ANGOR UNIVERSITY growth rate of farmed salmon caused by evolutionary adaptations to the commercial diet? Harvey, Alison; Solberg, M.F.; Troianou, Eva; Carvalho, Gary; Taylor, Martin Ian; Creer, Simon; Dyrhovden, L; Matre, I.H.; Glover, K.A. BMC Evolutionary Biology DOI: 10.5061/dryad.n82sv PRIFYSGOL BANGOR / B Published: 01/12/2016 Peer reviewed version Cyswllt i'r cyhoeddiad / Link to publication Dyfyniad o'r fersiwn a gyhoeddwyd / Citation for published version (APA): Harvey, A., Solberg, M. F., Troianou, E., Carvalho, G., Taylor, M. I., Creer, S., Dyrhovden, L., Matre, I. H., & Glover, K. A. (2016). Plasticity in growth of farmed and wild Atlantic salmon: is the increased growth rate of farmed salmon caused by evolutionary adaptations to the commercial diet? BMC Evolutionary Biology, 2016(16), [264]. https://doi.org/10.5061/dryad.n82sv Hawliau Cyffredinol / General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. • Users may download and print one copy of any publication from the public portal for the purpose of private study or research. • You may not further distribute the material or use it for any profit-making activity or commercial gain • You may freely distribute the URL identifying the publication in the public portal ? Take down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. -
Mic-UK [Site A] a Simple Guide to Small and Microscopic Pond Life
Mic-UK [site A]: A simple guide to small and microscopic pond life - main page, major freshwater groups 1/27/10 5:57 AM ~ Pond Life Identification Kit ~ A simple guide to small and microscopic pond life with links to Micscape resources One of the most rewarding subjects for study with a microscope are freshwater organisms. Simple collecting methods include squeezing water plants into a jar and for free swimming species, a fine- meshed plankton net is recommended. For simple tips see how to collect microscopic pond life. The table and linked pages are a guide to some common groups of smaller freshwater organisms (microscopic to a few millimetres in size). If not familiar with an organism, see what drawing and features it most closely resembles in the table and then follow the links. The beginner may also like to explore the virtual pond dip; click on the creatures in the jar to learn about some of the commoner freshwater organisms. Group Key features Micscape links single celled, dots or strands, just visible with strongest Bacteria Introduction to bacteria magnification, cyanobacteria are Spirochaetes larger single celled, with tiny hairs or Protozoa pseudopodia Go to protozoa overview: e.g. ciliates, amoeba, heliozoa, euglenoids single celled, mostly green, Algae sometimes yellow-brown Go to algae overview: eg. flagellates, diatoms, desmids, filamentous algae wheel-like, hairy appendages, 'Smallest page on the web' - transparent, free swimming or Rotifers rotifers attached 0.2 - 1 mm two tails, hairy, round mouth No Micscape resources. (Articles welcomed!) Gastrotrichs opening 0.1 - 0.5 mm long thin body, many non Worms related forms Go to worms overview: e.g. -
Gymnocephalus Cernua) Empire in Lake Superior
The rise and fall of the Ruffe (Gymnocephalus cernua) empire in Lake Superior A DISSERTATION SUBMITTED TO THE FACULTY OF UNIVERSITY OF MINNESOTA BY Michelle Kathleen Gutsch IN PARTIAL FULFILLMENT OF THE REQUIREMENTS OF THE DEGREE OF DOCTOR OF PHILOSOPHY Dr. Joel C. Hoffman, Advisor December 2017 ©Michelle Gutsch 2017 Acknowledgements Thank you to all of the people that compiled and shared data with me— Henry Quinlan and Jared Myers (US Fish and Wildlife Service), Andrew Edwards (1854 Treaty Authority), Deserae Hendrickson (MN Department of Natural Resources), Bradley Ray (WI Department of Natural Resources), Mark Vinson and Lori Evrard (US Geological Survey), and Derek Ogle, Randy Lehr, and Matt Hudson (Northland College). Thank you to Greg Peterson, Chelsea Hatzenbuhler, Leah Mohn, Rob Skalitsky, and Will Bartsch for field and lab assistance. Thank you to Anne Cotter for stable isotope processing. Thank you to Cindy Hagley and local and regional educators associated with MN Sea Grant programming for help collecting and processing samples. Thank you to Will Bartsch and Matt Etterson for R and stats help and support. Thank you to Nate Nibbelink and Matt Etterson for Maxent help and support. A special thank you to Jonathan Launspach for amazing GIS work on multiple chapters of the dissertation. Thank you to Lyle Shannon and Paul Bates for teaching support and mentoring. Thank you to the Integrated Biosciences and Biology Departments for financial and educational support. Thank you to my committee—Matthew Etterson, Thomas Hrabik, Donn Branstrator—and to my academic advisor, Joel Hoffman. I would also like to thank my office mates for scientific and emotional support— Jill Scharold, Chelsea Hatzenbuhler, Julie Lietz, and Christy Meredith. -
The Effect of Pond Dyes on Mosquitoes and Other Freshwater Invertebrates
The effect of pond dyes on mosquitoes and other freshwater invertebrates A thesis submitted for the degree of Doctor of Philosophy School of Biological Sciences Natali Ortiz Perea January 2018 Declaration I confirm that this is my own work and the use of all material from other sources has been properly and fully acknowledged. Natali Ortiz Perea ii ABSTRACT Freshwater habitats are important because they represent two percent of Earth’s water resources, are highly diverse in aquatic organisms and are the most productive and threatened ecosystem worldwide. Pollution, urbanization and climatic changes are responsible for drastic changes in these ecosystems. The creation of new ponds offers an opportunity to increase biodiversity, landscape connectivity and provide new habitat for organisms. However, new ponds might be a good habitat for mosquitoes to lay eggs. Mosquitoes have worldwide distribution and are responsible for most of the vector-borne diseases, affecting thousands of people and causing millions of deaths. British mosquitoes currently do not carry human diseases, but they are a biting nuisance. Their distribution, abundance, species composition and potential for mosquito disease transmission are intimately linked to the physical environment. Culex pipiens is commonly found in UK gardens and is a potential vector of viruses including the West Nile Virus. However, any environmental factors that significantly change the distribution and population of Cx. pipiens could impact future risks of disease transmission. Pond dyes are a cosmetic product for garden ponds and lakes; they inhibit algal growth and improve the overall appearance of the water body reflecting surrounding planting. The dyes block red light from entering the water, interrupting the process of photosynthesis and therefore inhibiting the growth of certain aquatic plants such as algae. -
Identifying and Documenting Vernal Pools in New Hampshire 1 ACKNOWLEDGMENTS
IDENTIFYING AND DOCUMENTING VERNAL POOLS _ in New Hampshire THIRD EDITION EDITED BY MICHAEL MARCHAND Published by New Hampshire Fish and Game Department l Nongame and Endangered Wildlife Program IDENTIFYING AND DOCUMENTING VERNAL POOLS _ in New Hampshire THIRD EDITION EDITED BY MICHAEL MARCHAND Published by New Hampshire Fish and Game Department Nongame and Endangered Wildlife Program Identifying and Documenting Vernal Pools in New Hampshire 1 ACKNOWLEDGMENTS This is the third edition of the The Identification and Documentation of Vernal Pools in New Hampshire, and many people have assisted in the development and improvement of this publication over the years. All editions have been published by the New Hampshire Fish and Game Department's Nongame and Endangered Wildlife Program, in conjunction with the Public Affairs Division. Funds for the development of the third edition came from the Nongame and Endangered Wildlife Program, N.H. Fish and Game Department, including Conservation License Plate (Moose Plate) funds and a grant from the U.S. Environmental Protection Agency. The third edition was edited by Michael Marchand, wildlife biologist for the N.H. Fish and Game Department's Nongame Program. The following individuals provided text, thoughtful comments, and edits to the manual: Loren Valliere, N.H. Fish and Game Department, Nongame and Endangered Wildlife Program; Sandy Crystal, Sandi Mattfeldt and Mary Ann Tilton, N.H. Department of Environ- mental Services, Wetlands Bureau; and Brett Thelen, Harris Center for Conservation Education. Pamela Riel, N.H. Fish and Game Publications Manager (Public Affairs Divi- sion), did the layout. Graphic Designer Victor Young, also of Fish and Game's Public Affairs Division, formatted images for publication, provided artwork and designed the cover. -
Park Interpreter Reference Pond Organisms
PARK INTERPRETER REFERENCE POND ORGANISMS ANIMALS Daphnia Daphnia are found by the thousands near the Crustacean - Filter water surface and form the base of the pond food Feeder chain. They look like tiny bits of dirt that move on their own, propelled by their antennae. Daphnia follow a daily migration route: at the surface of the water at dusk and to the lower level during night, rising and dawn and down again during the day. Copepod These tiny crustaceans are also called “Cyclops” Crustacean - Filter because they have one eye between their Feeder antennae. They are hard to see since they are so small. They use their antennae and hind legs to swim. Females carry two egg sacs during the breeding season that look make them look a bit like Mickey mouse. Diet: organic debris (part of the decomposition chain) Predators: minor food source for aquatic insects, fish, carnivorous zooplankton Sideswimmer Also called scuds or amphipods, they swim on Crustacean - Scavenger their sides using their many legs. They have two kinds of legs (amphi means both kinds and pod means foot): long walking legs on the first half of their body and shorter, simpler swimming legs on the rear half. Related to shrimp, they breathe through gills and are bottom dwellers, hiding under whatever they can find. Because so many animals feed on sideswimmers, females will lay up to 50 eggs every 10 days. Diet: decaying plant and animal matter Predators: larger insects, fish, birds, amphibians Three-spined This small fish has three spines on its back which Stickleback can be raised for protection. -
Stormwater Ponds in Coastal South Carolina
STORMWATER PONDS IN COASTAL SOUTH CAROLINA 2019 State of Knowledge Full Report Stormwater Ponds in Coastal South Carolina: 2019 State of Knowledge Report 1 STORMWATER PONDS IN COASTAL SOUTH CAROLINA 2019 State of Knowledge Full Report A report sponsored by the South Carolina Sea Grant Consortium and the State of South Carolina pursuant to National Oceanic and Atmospheric Administration Award No. NA10OAR4170073. Suggested citation: Cotti-Rausch, B.E., Majidzadeh, H., and DeVoe, M.R., eds., Stormwater Ponds in Coastal South Carolina: 2019 State of Knowledge Full Report. S.C. Sea Grant Consortium, Charleston, S.C. Cover photo by Grace Beahm Alford. SCSGC-T-20-02 Table of Contents Acknowledgements ...................................................................................................................iv Preface ........................................................................................................................................v Chapter 1 – A Pond Inventory for the Eight Coastal Counties of South Carolina .....................1 Chapter 2 – Environmental Factors and Design Features that Control Stormwater Transport and Contaminant Fate in Ponds ...............................................................................15 Chapter 3 – An Assessment of Nonpoint Source Pollution in Stormwater Pond Systems in Coastal South Carolina ..........................................................................................................41 Chapter 4 – The Ecological Function of South Carolina Stormwater Ponds within