Tide Pool Transect
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Revised Essd-2020-161 (20 September 2020)
1 1 Half-hourly changes in intertidal temperature at nine wave-exposed 2 locations along the Atlantic Canadian coast: a 5.5-year study 3 Ricardo A. Scrosati, Julius A. Ellrich, Matthew J. Freeman 4 Department of Biology, St. Francis Xavier University, Antigonish, Nova Scotia B2G 2W5, Canada 5 Correspondence to: Ricardo A. Scrosati ([email protected]) 6 Abstract. Intertidal habitats are unique because they spend alternating periods of 7 submergence (at high tide) and emergence (at low tide) every day. Thus, intertidal temperature 8 is mainly driven by sea surface temperature (SST) during high tides and by air temperature 9 during low tides. Because of that, the switch from high to low tides and viceversa can determine 10 rapid changes in intertidal thermal conditions. On cold-temperate shores, which are 11 characterized by cold winters and warm summers, intertidal thermal conditions can also change 12 considerably with seasons. Despite this uniqueness, knowledge on intertidal temperature 13 dynamics is more limited than for open seas. This is especially true for wave-exposed intertidal 14 habitats, which, in addition to the unique properties described above, are also characterized by 15 wave splash being able to moderate intertidal thermal extremes during low tides. To address this 16 knowledge gap, we measured temperature every half hour during a period of 5.5 years (2014- 17 2019) at nine wave-exposed rocky intertidal locations along the Atlantic coast of Nova Scotia, 18 Canada. This data set is freely available from the figshare online repository (Scrosati and 19 Ellrich, 2020a; https://doi.org/10.6084/m9.figshare.12462065.v1). -
PROTISTS Shore and the Waves Are Large, Often the Largest of a Storm Event, and with a Long Period
(seas), and these waves can mobilize boulders. During this phase of the storm the rapid changes in current direction caused by these large, short-period waves generate high accelerative forces, and it is these forces that ultimately can move even large boulders. Traditionally, most rocky-intertidal ecological stud- ies have been conducted on rocky platforms where the substrate is composed of stable basement rock. Projec- tiles tend to be uncommon in these types of habitats, and damage from projectiles is usually light. Perhaps for this reason the role of projectiles in intertidal ecology has received little attention. Boulder-fi eld intertidal zones are as common as, if not more common than, rock plat- forms. In boulder fi elds, projectiles are abundant, and the evidence of damage due to projectiles is obvious. Here projectiles may be one of the most important defi ning physical forces in the habitat. SEE ALSO THE FOLLOWING ARTICLES Geology, Coastal / Habitat Alteration / Hydrodynamic Forces / Wave Exposure FURTHER READING Carstens. T. 1968. Wave forces on boundaries and submerged bodies. Sarsia FIGURE 6 The intertidal zone on the north side of Cape Blanco, 34: 37–60. Oregon. The large, smooth boulders are made of serpentine, while Dayton, P. K. 1971. Competition, disturbance, and community organi- the surrounding rock from which the intertidal platform is formed zation: the provision and subsequent utilization of space in a rocky is sandstone. The smooth boulders are from a source outside the intertidal community. Ecological Monographs 45: 137–159. intertidal zone and were carried into the intertidal zone by waves. Levin, S. A., and R. -
Climate Change Report for Gulf of the Farallones and Cordell
Chapter 6 Responses in Marine Habitats Sea Level Rise: Intertidal organisms will respond to sea level rise by shifting their distributions to keep pace with rising sea level. It has been suggested that all but the slowest growing organisms will be able to keep pace with rising sea level (Harley et al. 2006) but few studies have thoroughly examined this phenomenon. As in soft sediment systems, the ability of intertidal organisms to migrate will depend on available upland habitat. If these communities are adjacent to steep coastal bluffs it is unclear if they will be able to colonize this habitat. Further, increased erosion and sedimentation may impede their ability to move. Waves: Greater wave activity (see 3.3.2 Waves) suggests that intertidal and subtidal organisms may experience greater physical forces. A number of studies indicate that the strength of organisms does not always scale with their size (Denny et al. 1985; Carrington 1990; Gaylord et al. 1994; Denny and Kitzes 2005; Gaylord et al. 2008), which can lead to selective removal of larger organisms, influencing size structure and species interactions that depend on size. However, the relationship between offshore significant wave height and hydrodynamic force is not simple. Although local wave height inside the surf zone is a good predictor of wave velocity and force (Gaylord 1999, 2000), the relationship between offshore Hs and intertidal force cannot be expressed via a simple linear relationship (Helmuth and Denny 2003). In many cases (89% of sites examined), elevated offshore wave activity increased force up to a point (Hs > 2-2.5 m), after which force did not increase with wave height. -
Can't Catch My Breath! a Study of Metabolism in Fish. Subjects
W&M ScholarWorks Reports 2017 Can’t Catch My Breath! A Study of Metabolism in Fish. Subjects: Environmental Science, Marine/Ocean Science, Life Science/ Biology Grades: 6-8 Gail Schweiterman Follow this and additional works at: https://scholarworks.wm.edu/reports Part of the Marine Biology Commons, and the Science and Mathematics Education Commons Recommended Citation Schweiterman, G. (2017) Can’t Catch My Breath! A Study of Metabolism in Fish. Subjects: Environmental Science, Marine/Ocean Science, Life Science/Biology Grades: 6-8. VA SEA 2017 Lesson Plans. Virginia Institute of Marine Science, College of William and Mary. https://doi.org/10.21220/V5414G This Report is brought to you for free and open access by W&M ScholarWorks. It has been accepted for inclusion in Reports by an authorized administrator of W&M ScholarWorks. For more information, please contact [email protected]. Can’t catch my breath! A study of metabolism in fish Gail Schwieterman Virginia Institute of Marine Science Grade Level High School Subject area Biology, Environmental, or Marine Science This work is sponsored by the National Estuarine Research Reserve System Science Collaborative, which supports collaborative research that addresses coastal management problems important to the reserves. The Science Collaborative is funded by the National Oceanic and Atmospheric Administration and managed by the University of Michigan Water Center. 1. Activity Title: Can’t Catch My Breath! A study of metabolism in fish 2. Focus: Metabolism (Ecological drivers); The Scientific Method (Formulating Hypothesis) 3. Grade Levels/ Subject: HS Biology, HS Marine Biology 4. VA Science Standard(s) addressed: BIO.1. The student will demonstrate an understanding of scientific reasoning, logic, and the nature of science by planning and conducting investigations (including most Essential Understandings and nearly all Essential Knowledge and Skills) BIO.4a. -
Harmful Algal Blooms (Habs) and Desalination: a Guide to Impacts, Monitoring, and Management
Manuals and Guides 78 Harmful Algal Blooms (HABs) and Desalination: A Guide to Impacts, Monitoring, and Management Edited by: Donald M. Anderson, Siobhan F.E. Boerlage, Mike B. Dixon UNESCO Manuals and Guides 78 Intergovernmental Oceanographic Commission Harmful Algal Blooms (HABs) and Desalination: A Guide to Impacts, Monitoring and Management Edited by: Donald M. Anderson* Biology Department, Woods Hole Oceanographic Institution Woods Hole, MA 02543 USA Siobhan F. E. Boerlage Boerlage Consulting Gold Coast, Queensland, Australia Mike B. Dixon MDD Consulting, Kensington Calgary, Alberta, Canada *Corresponding Author’s email: [email protected] UNESCO 2017 Bloom prevention and control 7 BLOOM PREVENTION AND CONTROL Clarissa R. Anderson1, Kevin G. Sellner2, and Donald M. Anderson3 1University of California, Santa Cruz, Santa Cruz, CA USA 2Chesapeake Research Consortium, Edgewater MD USA 3Woods Hole Oceanographic Institution, Woods Hole MA USA 7.1 Introduction ........................................................................................................................................... 205 7.2 Bloom prevention .................................................................................................................................. 207 7.2.1 Nutrient load reduction .................................................................................................................. 207 7.2.2 Nutrient load ................................................................................................................................. -
Marine Plants in Coral Reef Ecosystems of Southeast Asia by E
Global Journal of Science Frontier Research: C Biological Science Volume 18 Issue 1 Version 1.0 Year 2018 Type: Double Blind Peer Reviewed International Research Journal Publisher: Global Journals Online ISSN: 2249-4626 & Print ISSN: 0975-5896 Marine Plants in Coral Reef Ecosystems of Southeast Asia By E. A. Titlyanov, T. V. Titlyanova & M. Tokeshi Zhirmunsky Institute of Marine Biology Corel Reef Ecosystems- The coral reef ecosystem is a collection of diverse species that interact with each other and with the physical environment. The latitudinal distribution of coral reef ecosystems in the oceans (geographical distribution) is determined by the seawater temperature, which influences the reproduction and growth of hermatypic corals − the main component of the ecosystem. As so, coral reefs only occupy the tropical and subtropical zones. The vertical distribution (into depth) is limited by light. Sun light is the main energy source for this ecosystem, which is produced through photosynthesis of symbiotic microalgae − zooxanthellae living in corals, macroalgae, seagrasses and phytoplankton. GJSFR-C Classification: FOR Code: 060701 MarinePlantsinCoralReefEcosystemsofSoutheastAsia Strictly as per the compliance and regulations of : © 2018. E. A. Titlyanov, T. V. Titlyanova & M. Tokeshi. This is a research/review paper, distributed under the terms of the Creative Commons Attribution-Noncommercial 3.0 Unported License http://creativecommons.org/licenses/by-nc/3.0/), permitting all non commercial use, distribution, and reproduction in any medium, provided the original work is properly cited. Marine Plants in Coral Reef Ecosystems of Southeast Asia E. A. Titlyanov α, T. V. Titlyanova σ & M. Tokeshi ρ I. Coral Reef Ecosystems factors for the organisms’ abundance and diversity on a reef. -
HARMFUL ALGAL BLOOMS in COASTAL WATERS: Options for Prevention, Control and Mitigation
Science for Solutions A A Special Joint Report with the Decision Analysis Series No. 10 National Fish and Wildlife Foundation onald F. Boesch, Anderson, Rita A dra %: Shumway, . Tesf er, Terry E. February 1997 U.S. DEPARTMENT OF COMMERCE U.S. DEPARTMENT OF THE INTERIOR William M. Daley, Secretary Bruce Babbitt, Secretary The Decision Analysis Series has been established by NOAA's Coastal Ocean Program (COP) to present documents for coastal resource decision makers which contain analytical treatments of major issues or topics. The issues, topics, and principal investigators have been selected through an extensive peer review process. To learn more about the COP or the Decision Analysis Series, please write: NOAA Coastal Ocean Office 1315 East West Highway Silver Spring, MD 209 10 phone: 301-71 3-3338 fax: 30 1-7 13-4044 Cover photo: The upper portion of photo depicts a brown tide event in an inlet along the eastern end of Long Island, New York, during Summer 7986. The blue water is Block lsland Sound. Photo courtesy of L. Cosper. Science for Solutions NOAA COASTAL OCEAN PROGRAM Special Joint Report with the Decision Analysis Series No. 10 National Fish and WildlifeFoundation HARMFUL ALGAL BLOOMS IN COASTAL WATERS: Options for Prevention, Control and Mitigation Donald F. Boesch, Donald M. Anderson, Rita A. Horner Sandra E. Shumway, Patricia A. Tester, Terry E. Whitledge February 1997 National Oceanic and Atmospheric Administration National Fish and Wildlife Foundation D. James Baker, Under Secretary Amos S. Eno, Executive Director Coastal Ocean Office Donald Scavia, Director This ~ublicationshould be cited as: Boesch, Donald F. -
Teacher Notes
TEACHER RESOURCE CSIRO_Oceans-12jm.indd 1 2/12/17 9:57 am TEACHER RESOURCE CSIRO_Oceans-12jm.indd 1 2/12/17 9:57 am CSIRO_Oceans-12jm.indd 2 2/12/17 9:57 am ABOUT Introduction to the guide This Student Learning Resource is designed to assist secondary school teachers to engage students in Years 7 to 10 in the study of marine environment and the direct influence oceans have on weather, climate and marine ecosystems. It is supported by the use of the CSIRO text Oceans: Science and Solutions for Australia, edited by Bruce Mapstone, and links to the Australian Curriculum with a flexible matrix of activities based on the ‘Five Es’ model. The resource explores elements of Years 7 to 10 science and geography curricula, covering the cross-curriculum priorities of Sustainability and Aboriginal and Torres Strait Islander Histories and Cultures. For science, it more specifically covers the areas of: Science Understanding; Science as a Human Endeavour, and Science Inquiry Skills. For geography, it covers the area of geographical knowledge and understanding, and geographical inquiry and skills. The main concepts covered are: • The seven main challenges we face when managing our marine estate. • Aspects of our marine estate, such as currents, marine organisms, geology, climate, recreation, the economy and governance. • Uses of the ocean, such as coastal development, security, search and rescue, pollution, research tools and technology, managing multiple uses of the oceans. • The future of science and technology. How to use the guide The notes in this study guide offer both variety and flexibility of use for the differentiated classroom. -
OCEAN SUBDUCTION Show That Hardly Any Commercial Enhancement Finney B, Gregory-Eaves I, Sweetman J, Douglas MSV Program Can Be Regarded As Clearly Successful
1982 OCEAN SUBDUCTION show that hardly any commercial enhancement Finney B, Gregory-Eaves I, Sweetman J, Douglas MSV program can be regarded as clearly successful. and Smol JP (2000) Impacts of climatic change and Model simulations suggest, however, that stock- Rshing on PaciRc salmon over the past 300 years. enhancement may be possible if releases can be Science 290: 795}799. made that match closely the current ecological Giske J and Salvanes AGV (1999) A model for enhance- and environmental conditions. However, this ment potentials in open ecosystems. In: Howell BR, Moksness E and Svasand T (eds) Stock Enhancement requires improvements of assessment methods of and Sea Ranching. Blackwell Fishing, News Books. these factors beyond present knowledge. Marine Howell BR, Moksness E and Svasand T (1999) Stock systems tend to have strong nonlinear dynamics, Enhancement and Sea Ranching. Blackwell Fishing, and unless one is able to predict these dynamics News Books. over a relevant time horizon, release efforts are Kareiva P, Marvier M and McClure M (2000) Recovery not likely to increase the abundance of the target and management options for spring/summer chinnook population. salmon in the Columbia River basin. Science 290: 977}979. Mills D (1989) Ecology and Management of Atlantic See also Salmon. London: Chapman & Hall. Ricker WE (1981) Changes in the average size and Mariculture, Environmental, Economic and Social average age of PaciRc salmon. Canadian Journal of Impacts of. Salmonid Farming. Salmon Fisheries: Fisheries and Aquatic Science 38: 1636}1656. Atlantic; Paci\c. Salmonids. Salvanes AGV, Aksnes DL, FossaJH and Giske J (1995) Simulated carrying capacities of Rsh in Norwegian Further Reading fjords. -
Using Local Ecological Knowledge to Identify Shark River Habitats in Fiji
CORE Metadata, citation and similar papers at core.ac.uk Provided by RERO DOC Digital Library Environmental Conservation 37 (1): 90–97 © Foundation for Environmental Conservation 2010 doi:10.1017/S0376892910000317 Using local ecological knowledge to identify shark river THEMATIC SECTION Community-based natural habitats in Fiji (South Pacific) resource management (CBNRM): designing the 1 2 ERONI RASALATO , VICTOR MAGINNITY next generation (Part 1) AND JUERG M. BRUNNSCHWEILER3 ∗ 1University of the South Pacific, Faculty of Science, Technology and Environment, Marine Campus, Suva, Fiji, 2Bay of Plenty Polytechnic, Marine Studies Department, Tauranga, New Zealand, and 3ETH Zurich, Raemistrasse 101, CH-8092 Zurich, Switzerland Date submitted: 23 August 2009; Date accepted: 3 February 2010; First published online: 13 May 2010 SUMMARY 2004a; Aswani 2005; Aswani et al. 2007; Christie & White 2007; Brunnschweiler 2010). Together with traditional marine Local ecological knowledge (LEK) and traditional tenure, traditional knowledge and customary law form the ecological knowledge (TEK) have the potential to three pillars of what is referred to as traditional resource improve community-based coastal resource manage- management, which is increasingly recognized as a key tool for ment (CBCRM) by providing information about the sustainable management of natural resources in certain areas presence, behaviour and ecology of species. This paper such as parts of the South Pacific (Caillaud et al. 2004; Cinner explores the potential of LEK and TEK to identify shark & Aswani 2007). river habitats in Fiji, learn how locals regard and use Traditional ecological knowledge (TEK) is the cumulative sharks, and capture ancestral legends and myths that body of knowledge, practice and belief that pertains to the shed light on relationships between these animals and relationship of living beings with one another and with their local people. -
EVOLUTION and ECOLOGY of REEFS 85092 OCG 6668 (614) - 3 Credits Tuesdays 4-7 Pm Location: KRC 3120 Instructor : Dr
UNIVERSITY OF SOUTH FLORIDA -- COLLEGE OF MARINE SCIENCE FALL SEMESTER 2009 Syllabus Version 1 (August 25) EVOLUTION AND ECOLOGY OF REEFS 85092 OCG 6668 (614) - 3 credits Tuesdays 4-7 pm Location: KRC 3120 Instructor : Dr. Pamela Hallock Muller Office : MSL 203 Phone : 727-553-1567 e-mail : [email protected] Office hours : by appointment Date Topic Reading Assignment Disc. Leaders Aug. 25 Introduction to course & to coral reefs Veron (2000) p. 19-31; Wells (1957) PHM Sept 1. Physical controls on reef growth & Hubbard (pdf); Hallock (pdf) PHM reefs through time Veron (2000), p 33-43 Sept. 8 Coral biology Weis et al. (2008) 1. Houlbrèque & Ferrier-Pagès (2009) 2. Coral –algal aymbiosis Stat et al. (2006) 3. Calcification (see note below) Allemand et al. (2004) 4. Sept. 15 Microbes and coral reefs Rosenberg et al. (2007) JG Guest lecture: Julie Galkiewicz Ritchie (2006) JG. Thurber et al. (2009) 1. Bourne et al. (2008) 2. Sept. 22 Coral classification Veron (2000) p. 47-57; VanWoesik (web) 1. What are species; species evolution Veron (2000) p. 424-433, 437-443 2. Coral reproduction Veron 416-421; Guest et al. (2005) 3. Sept. 29 Diversity and biogeography of reefs Veron (2000), p. 411-416/Fukami et al (2004) 1. Karlson (1999) p. 29-50 2. Hybridization in coral evolution Willis et al. (2006) 3. Abstracts/Preproposals Due Oct 6 Algae and primary production Payre (website) 1. Littler et al. (2006) 2. Dubinsky and Berman-Frank (2001) 3. Wooldridge (2009a) 4. Oct. 13 Coral predators, competitors, bioeroders Rotjan & Lewis (2008) 1. -
MARINE SCIENCE Program
MARINE SCIENCE Program AR Enabled 1. Download HP Reveal App 2. Open and point phone at image 3. Watch program video stockton.edu/nams Marine Science Program | MARS ABOUT THE PROGRAM Stockton University is located adjacent to the Jacques Cousteau National Estuarine Research Reserve (Mullica River-Great Bay estuary) and is one of only a few undergraduate institutions in the U.S. that offers a degree program in Marine Science alongside a dedicated, easily accessible field facility (Stockton Marine Field Station) www.stockton.edu/marine. With direct access to the Field Station only 10 minutes away, the program is well situated to provide superior field, teaching, and undergraduate research opportunities that form the backbone of the curriculum. Stockton’s Marine Science (MARS) program encompasses two general areas of study: Marine Biology and Oceanography. A number of field and laboratory courses, seminars, independent studies, internships, and research team opportunities are offered, with a strong emphasis on gaining experience in the field. The program is interdisciplinary and requires student competence in several areas of science. Upper-level students have the opportunity to design and implement their own independent study projects and are strongly encouraged to present results at the NAMS Undergraduate Research Symposium and regional conferences. Teacher (K-12) and GIS certifications are available through affiliated Stockton programs. The Marine Sciences tracks of study: Marine Biology, BA and BS, Oceanography, BA and BS Program Highlights • Small course sections taught primarily by full-time faculty (not by graduate assistants). • Every student is assigned a faculty member as their academic adviser (preceptor) • Faculty encourage and supervise internships and research projects.