Lab Program Curriculum Grades 1-3
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Coastal Flood Defences - Groynes
Coastal Flood Defences - Groynes Coastal flood defences are key to protecting our coasts against flooding, which is when normally dry, low lying flat land is inundated by sea water. Hard engineering methods are forms of coastal flood defences which mitigate the risk of flooding and coastal erosion and the consequential effects. Hard Engineering Hard engineering methods are often used as a temporary measure to protect against coastal flooding as they are costly and only last for a relatively short amount of time before they require maintenance. However, they are very effective at protecting the coastline in the short-term as they are immediately effective as opposed to some longer term soft engineering methods. But they are often intrusive and can cause issues elsewhere at other areas along the coastline. Groynes are low lying wood or concrete structures which are situated out to sea from the shore. They are designed to trap sediment, dissipate wave energy and restrict the transfer of sediment away from the beach through long shore drift. Longshore drift is caused when prevailing winds blow waves across the shore at an angle which carries sediment along the beach.Groynes prevent this process and therefore, slow the process of erosion at the shore. They can also be permeable or impermeable, permeable groynes allow some sediment to pass through and some longshore drift to take place. However, impermeable groynes are solid and prevent the transfer of any sediment. Advantages and Disadvantages +Groynes are easy to construct. +They have long term durability and are low maintenance. +They reduce the need for the beach to be maintained through beach nourishment and the recycling of sand. -
Sculpt a Sea Urchin
Copyright © 2017 Dick Blick Art Materials All rights reserved 800-447-8192 DickBlick.com Sculpt a Sea Urchin Upcycled containers are used as molds in this easy and visually striking sea urchin sculpture (art + science) The shells of sea urchins are beautiful natural sculptures with incredible detail and symmetry. In times past, sea urchins were also called sea hedgehogs due to the spines of the animal that protrude through the outer shell or “test” of the creature. Sea urchins are globular animals that belong to the class Echinoidea, just like their cousins, the sand dollar. Around 950 species of echinoids live in the world’s oceans. The shell of the animal is often colored olive green, brown, purple, blue, and red, and usually measures 1–4” in diameter. Like other echinoderms, when sea urchins are babies, they illustrate bilateral symmetry, which means they have two identical halves. As they grow, however, they develop five-fold symmetry. The outer shells are mostly spherical, with five equally sized divisions that radiate out from the center. Some sea urchins, including sand dollars, can be more oval in shape, and usually, the upper portion of the shell is domed while the underside is flat. The “test” of the urchin protects its internal organs. It’s very rigid and made of fused plates of Materials calcium carbonate covered (required) Princeton Hake Brush, by thin dermis and epidermis Blick Pottery Plaster No.1, Size 1” (05415-1001); — just like our skin! Each of 8 lb (33536-1008); share share five across class to one bag across class apply watercolors the five areas consists of rows Plastic of plates that are covered in Blick Liquid Watercolors, Squeeze Bottles, round “tubercles.” These round 118 ml (00369-); share at Optional Materials 4 oz (04916-1003) areas are where the spine of least three colors across Utrecht Plastic Buckets class Paint Pipettes, package the animal is attached while it's with Lids, 128 oz (03332- of 25 (06972-1025) 1009) alive. -
Table 21FBPUB - Poundage and Value of Landings by Port, FORT BRAGG Area During 2018 Date: 07/19/2019
California Department of Fish and Wildlife Page: 1 Table 21FBPUB - Poundage And Value Of Landings By Port, FORT BRAGG Area During 2018 Date: 07/19/2019 Species Pounds Value FORT BRAGG Crab, Dungeness 1,455,938 $4,742,921 Sablefish 845,431 $1,292,065 Salmon, Chinook 121,637 $840,292 Sea urchin, red 199,598 $220,701 Sole, petrale 172,841 $209,635 Hagfish, unspecified 229,441 $193,768 Sole, Dover 370,978 $174,598 Rockfish, chilipepper 322,517 $149,747 Lingcod 103,654 $135,968 Thornyhead, shortspine 71,931 $125,290 Rockfish, bocaccio 210,762 $106,549 Tuna, albacore 22,837 $46,554 Rockfish, blackgill 68,405 $34,831 Thornyhead, longspine 124,275 $33,204 Rockfish, copper 6,935 $27,169 Rockfish, bank 44,549 $22,275 Cabezon 3,625 $16,629 Rockfish, group slope 27,550 $16,335 Rockfish, quillback 2,339 $13,460 Rockfish, darkblotched 26,721 $13,416 Prawn, spot 639 $10,856 Rockfish, canary 7,450 $10,498 Rockfish, vermilion 4,303 $9,291 Hagfish, Pacific 28,628 $8,588 Rockfish, yellowtail 4,325 $8,209 Rockfish, gopher 946 $7,052 Rockfish, China 930 $6,921 Sole, rex 20,676 $6,585 Rockfish, black-and-yellow 852 $6,515 Skate, longnose 26,252 $6,278 California Department of Fish and Wildlife Page: 2 Table 21FBPUB - Poundage And Value Of Landings By Port, FORT BRAGG Area During 2018 Date: 07/19/2019 Species Pounds Value FORT BRAGG Sea urchin, purple 2,550 $3,431 Sea cucumber, giant red 2,848 $2,848 Sole, English 10,470 $2,577 Greenling, kelp 365 $2,090 Halibut, California 264 $1,794 Crab, rock unspecified 299 $1,536 Rockfish, group shelf 1,148 $1,368 Rockfish, -
Starfish Adaptations: Peer-Taught
Starfish Adaptations: Peer-Taught Subject (Focus/Topic): Life Science: Animal adaptations, structure and function, habitat, natural selection. Grade Level: Second Grade; taught by high school biology students. Average Learning Time: This lesson will take approximately two 45-minute periods. Lesson Summary (Overview/Purpose): Students will observe, explore, dissect and compare members of the animal phylum Image credit: Divegallery.com Echinodermata to understand what particular traits make them successful in their environment. Second grade students work with peer (high school student) teachers. Overall Concept (Big Idea/Essential Question): Students explore an unknown organism to understand that every living creature has traits that impact their use of habitat. The structure and function of traits are important in an individual’s survival and the survival of populations. Specific Concepts (Key Concepts): Students will understand three key features of starfish systems: water vascular, digestive and integument (skin). They will compare these systems to human and describe ways that the starfish systems are beneficial to them in their environment. Students will relate the success of starfish to their adaptations. Focus Questions (Specific Questions): Where do starfish live? What is their habitat? If you lived in the ocean, what would you need to survive? What do you notice about the starfish’s skin? How might the starfish skin help it in its habitat? What do starfish use to move? How do they do this? Do starfish need oxygen like humans do? How do they get their oxygen? How do starfish get food? What do they use to get food? How do starfish see? Where do you think their eyes are located? Objectives/Learning Goals: Students will be able to describe three structures of starfish anatomy and relate the structure to function with 80% accuracy. -
Lobster Review
Seafood Watch Seafood Report American lobster Homarus americanus (Image © Monterey Bay Aquarium) Northeast Region Final Report February 2, 2006 Matthew Elliott Independent Consultant Monterey Bay Aquarium American Lobster About Seafood Watch® and the Seafood Reports Monterey Bay Aquarium’s Seafood Watch® program evaluates the ecological sustainability of wild-caught and farmed seafood commonly found in the United States marketplace. Seafood Watch® defines sustainable seafood as originating from sources, whether wild-caught or farmed, which can maintain or increase production in the long-term without jeopardizing the structure or function of affected ecosystems. Seafood Watch® makes its science-based recommendations available to the public in the form of regional pocket guides that can be downloaded from the Internet (seafoodwatch.org) or obtained from the Seafood Watch® program by emailing [email protected]. The program’s goals are to raise awareness of important ocean conservation issues and empower seafood consumers and businesses to make choices for healthy oceans. Each sustainability recommendation on the regional pocket guides is supported by a Seafood Report. Each report synthesizes and analyzes the most current ecological, fisheries and ecosystem science on a species, then evaluates this information against the program’s conservation ethic to arrive at a recommendation of “Best Choices,” “Good Alternatives,” or “Avoid.” The detailed evaluation methodology is available upon request. In producing the Seafood Reports, Seafood Watch® seeks out research published in academic, peer-reviewed journals whenever possible. Other sources of information include government technical publications, fishery management plans and supporting documents, and other scientific reviews of ecological sustainability. Seafood Watch® Fisheries Research Analysts also communicate regularly with ecologists, fisheries and aquaculture scientists, and members of industry and conservation organizations when evaluating fisheries and aquaculture practices. -
1 the Influence of Groyne Fields and Other Hard Defences on the Shoreline Configuration
1 The Influence of Groyne Fields and Other Hard Defences on the Shoreline Configuration 2 of Soft Cliff Coastlines 3 4 Sally Brown1*, Max Barton1, Robert J Nicholls1 5 6 1. Faculty of Engineering and the Environment, University of Southampton, 7 University Road, Highfield, Southampton, UK. S017 1BJ. 8 9 * Sally Brown ([email protected], Telephone: +44(0)2380 594796). 10 11 Abstract: Building defences, such as groynes, on eroding soft cliff coastlines alters the 12 sediment budget, changing the shoreline configuration adjacent to defences. On the 13 down-drift side, the coastline is set-back. This is often believed to be caused by increased 14 erosion via the ‘terminal groyne effect’, resulting in rapid land loss. This paper examines 15 whether the terminal groyne effect always occurs down-drift post defence construction 16 (i.e. whether or not the retreat rate increases down-drift) through case study analysis. 17 18 Nine cases were analysed at Holderness and Christchurch Bay, England. Seven out of 19 nine sites experienced an increase in down-drift retreat rates. For the two remaining sites, 20 retreat rates remained constant after construction, probably as a sediment deficit already 21 existed prior to construction or as sediment movement was restricted further down-drift. 22 For these two sites, a set-back still evolved, leading to the erroneous perception that a 23 terminal groyne effect had developed. Additionally, seven of the nine sites developed a 24 set back up-drift of the initial groyne, leading to the defended sections of coast acting as 1 25 a hard headland, inhabiting long-shore drift. -
Biomimicry Learning Activity
Biomimicry Learning Activity Grade Level: 5th grade and up. (Activity should be facilitated by an adult.) NGSS Cross-Cutting Concepts: Structure and Function; Patterns. NGSS Practices: Designing Solutions, Communicating Information Goal: Participants become comfortable with the concept of biomimicry by better understanding the relationship between structure and function, both in nature and in the designed world. Resources: - Poster or large sheets of paper. - Markers/Pens/Pencils - Nature’s Secrets Cards (provided with the activity). - Whale and Dolphin Conservation Biomimicry video Vocabulary: Adaptation: a displayed behavior or structure of an organism that helps it become better suited to survive. Biomimicry: A designed product or system that was inspired by the structure and function of a particular organism’s adaptation. Function: the purpose or effect of something (in this case the structure). How or what it is used for. Structure: the physical make-up of something. The way it looks, feels, or is arranged; its observable features. Biomimicry Activity Section One: Watch WDC Biomimicry Video The participants and facilitator should watch the video for an introduction to the concept and key terms. Feel free to stop the video when necessary if participants have questions or need clarification. After the video and before moving to the next section, make sure participants feel more comfortable with the concept of Biomimicry. The facilitator can ask one or all of the following questions: 1. What did you feel was the most interesting example of biomimicry in the video? 2. In your own words, can you explain why companies are looking at humpback whales’ pectoral fins in the field of biomimicry? 3. -
Dam Effects on Low-Tide Channel Pools and Fish Use of Estuarine Habitat
Beaver in Tidal Marshes: Dam Effects on Low-Tide Channel Pools and Fish Use of Estuarine Habitat W. Gregory Hood Wetlands Official Scholarly Journal of the Society of Wetland Scientists ISSN 0277-5212 Wetlands DOI 10.1007/s13157-012-0294-8 1 23 Your article is protected by copyright and all rights are held exclusively by Society of Wetland Scientists. This e-offprint is for personal use only and shall not be self- archived in electronic repositories. If you wish to self-archive your work, please use the accepted author’s version for posting to your own website or your institution’s repository. You may further deposit the accepted author’s version on a funder’s repository at a funder’s request, provided it is not made publicly available until 12 months after publication. 1 23 Author's personal copy Wetlands DOI 10.1007/s13157-012-0294-8 ARTICLE Beaver in Tidal Marshes: Dam Effects on Low-Tide Channel Pools and Fish Use of Estuarine Habitat W. Gregory Hood Received: 31 August 2011 /Accepted: 16 February 2012 # Society of Wetland Scientists 2012 Abstract Beaver (Castor spp.) are considered a riverine or can have multi-decadal or longer effects on river channel form, lacustrine animal, but surveys of tidal channels in the Skagit riverine and floodplain wetlands, riparian vegetation, nutrient Delta (Washington, USA) found beaver dams and lodges in the spiraling, benthic community structure, and the abundance and tidal shrub zone at densities equal or greater than in non-tidal productivity of fish and wildlife (Jenkins and Busher 1979; rivers. Dams were typically flooded by a meter or more during Naiman et al. -
Some Creatures of Clayoquot and Barkley Sounds: a Life History Manual
Some Creatures of Clayoquot and Barkley Sounds: A Life History Manual By Stefan Linquist & Jim Shinkewski Photos Danny Kent Sponsored by the Ucluelet Aquarium Society the Clayoquot Biosphere Trust, and the Biohumanities Project 1 Table of contents Introduction…………………………………………………………... 3 Acorn Barnacle ………………………………………………………. 4 Spiny Pink Sea Star ………………………………………………….. 8 Decorator Crab ………………………………………………………. 9 Orange Sea Pen ……………………………………………………… 11 California Sea Cucumber ……………………………………………. 13 Dungeness Crab …………………………………………………….. 15 Boring Sulfur Sponge ………………………………………………. 19 Moon Snail …………………………………………………………. 22 Opalescent Nudibranch …………………………………………….. 24 Moon Jellyfish ……………………………………………………... 27 Bay Pipefish ……………………………………………………….. 31 Green Surf Anemone ………………………………………………. 34 Spot Prawn …………………………………………………………. 35 Sea Urchin …………………………………………………………. 37 Shiner Perch ……………………………………………………….. 39 Sunflower Sea Star ………………………………………………… 41 Squat Lobster ………………………………………………………. 43 Plumose Anemone …………………………………………………. 45 Ochre Sea Star ……………………………………………………… 47 Wolf Eel ……………………………………………………………. 49 Sand Dollar ………………………………………………………… 51 2 Introduction All of us bring different eyes to the ocean and its inhabitants. Some enjoy food from the sea. Some admire the self-renewing nature of coastal waters. Others marvel in the diversity of colours, shapes and interrelationships among marine creatures. Because we enjoy it, as aquarists, philosophers, fishermen, shore walkers or the merely curious, we ought to care about its well being. To this end, this -
2014 Field Trials | Downeast Institute
Menu Home News About Us o Mission & Vision o History of DEI o Board of Directors (2014) o Staff o DEI's Senior Scientist . Lobster Research . Mussel Research . Sea Urchin Research o DEI's Future o Marine Education Center o Pier Project o Shellfish Field Days at DEI Soft Shell Clams o Ordering Soft-Shell Clam Juveniles o Soft-Shell Clam Production at DEI o Illustrated Clam Culture Manual o Clam Predators o Soft-Shell Clam Research . Stockton Springs . Hampton Harbor . Edmunds . Freeport Research o Published Research . Soft-shell clams . Hard clams . European lobsters . American lobsters . Ocean quahogs . Green macroalgae . Green sea urchin . Eelgrass . Other o Scallop Restoration o Scallops NOAA-NMFS o Hard Shell Clams o Lobster Research o Arctic Surfclams - NSF o Blue mussels - NSF Education o Marine Education Summer Camps for Youth o NSF-supported Education Effort . Bay Ridge Elementary . Beals Elementary . Jonesport Elementary . Washington Academy . The Lobster Project o Summer Positions for Students (2014) o K-12 Teacher Resources . The Rocky Shore . Lesson Plans for Teachers . Ascophyllum Seaweed Classroom Experiment . Rearing Microalgae in the Classroom Help Support DEI Directions Contact 2014 FIELD TRIALS With lessons learned about routine monitoring and maintenance of field plots, and the necessity to hire skilled labor, we devised a six-pronged project to investigate green crabs and their effects on soft-shell clams. The brochure that is linked to this page was developed by Sara Randall, local coordinator for the Freeport Project, and explains each of the six independent field projects. In 2014, funding for field work has come from three sources: $200,000 from the Maine Economic Improvement Fund (Small Campus Initiative) - 2 yrs, $348,767 from the National Marine Fisheries Service (Saltonstall-Kennedy fund) - 2 yrs, and $28,000 from Sea Pact - 1 yr. -
Spatial and Temporal Patterns of Salinity and Temperature at an Intertidal Groundwater Seep
Estuarine, Coastal and Shelf Science 72 (2007) 283e298 www.elsevier.com/locate/ecss Spatial and temporal patterns of salinity and temperature at an intertidal groundwater seep Ryan K. Dale*, Douglas C. Miller University of Delaware, College of Marine and Earth Studies, 700 Pilottown Road, Lewes, DE 19958, USA Received 9 June 2006; accepted 31 October 2006 Available online 22 December 2006 Abstract Spatial and temporal patterns at an intertidal groundwater seep at Cape Henlopen, Delaware, were characterized using a combination of pore water salinity and sediment temperature measurements. Pore water salinity maps, both on a small scale (resolution of 0.1 m over a 1.25 m2 area) and large scale (1e5 m over a 1710 m2 area) showed reduced pore water salinities to as low as one-sixth seawater strength in a region 0e6m from the intertidal beach slope break. In this region, there was substantial spatial variability in pore water salinity at all measured scales (0.1e 90 m) alongshore. At À10 cm sediment depth, pore water salinity ranged from 6 to 24 in less than 1 m horizontally. To further characterize spatial patterns in discharge, we used novel temperature probes during summer low tides and found temperatures were much lower in a ground- water seep than the nearby sediment, as much as 8e9 C cooler at À30 cm sediment depth. Measurements over time using temperature loggers showed that despite strong tidal and diel forcing on surficial sediment temperatures, thermal anomalies due to groundwater discharge persisted over several-day sampling periods and were strongest at À20 and À30 cm depth. -
Wasting Disease and Static Environmental Variables Drive Sea
Journal of Experimental Marine Biology and Ecology 520 (2019) 151209 Contents lists available at ScienceDirect Journal of Experimental Marine Biology and Ecology journal homepage: www.elsevier.com/locate/jembe Wasting disease and static environmental variables drive sea star T assemblages in the Northern Gulf of Alaska ⁎ Brenda Konara, , Timothy James Mitchella, Katrin Ikena, Heather Colettib, Thomas Deanc, Daniel Eslerd, Mandy Lindeberge, Benjamin Pisterf, Benjamin Weitzmana,d a University of Alaska Fairbanks, PO Box 757220, Fairbanks, AK 99709, USA b US National Park Service, Inventory and Monitoring Program, Southwest Alaska Network, 4175 Geist Road, Fairbanks, AK 99709, USA c Coastal Resource Associates, 5190 El Arbol Dr., Carlsbad, CA 92008, USA d US Geological Survey, Alaska Science Center, 4210 University Drive, Anchorage, AK 99508, USA e NOAA Fisheries, AFSC, Auke Bay Laboratories, 17109 Pt Lena Loop Rd, Juneau, AK 99801, USA f US National Park Service, Kenai Fjords National Park, 411 Washington Street, Seward, AK 99664, USA ABSTRACT Sea stars are ecologically important in rocky intertidal habitats where they can play an apex predator role, completely restructuring communities. The recent sea star die-off throughout the eastern Pacific, known as Sea Star Wasting Disease, has prompted a need to understand spatial and temporal patterns of seastarassemblages and the environmental variables that structure these assemblages. We examined spatial and temporal patterns in sea star assemblages (composition and density) across regions in the northern Gulf of Alaska and assessed the role of seven static environmental variables (distance to freshwater inputs, tidewater glacial presence, exposure to wave action, fetch, beach slope, substrate composition, and tidal range) in influencing sea star assemblage structure before and after sea star declines.