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Bioindicator Selection in the Strategies for Monitoring Marine Litter in the Mediterranean Sea Foreword 4
plasticbusters.unisi.it BIOINDICATOR SELECTION IN THE STRATEGIES FOR MONITORING MARINE LITTER IN THE MEDITERRANEAN SEA FOREWORD 4 TABLE AUTHORS AND CONTRIBUTORS 6 EXECUTIVE SUMMARY 8 OF 1. THE ISSUE OF MARINE LITTER 10 2. THE MEDITERRANEAN SEA: ONE OF THE AREAS MOST IMPACTED BY MARINE LITTER WORLD-WIDE 14 CONTENTS 3. CURRENT STATE OF KNOWLEDGE ON MARINE LITTER IN THE MEDITERRANEAN 16 3.1 Bibliographic research 18 3.2 Data analysis 22 4. BIOINDICATOR SELECTION STRATEGY 24 4.1 Biological selection criteria 25 4.2 Bioindicator selection in relation to habitat and home range 27 4.2.1 Local and small-scale bioindicators for microplastics along the Mediterranean coast 27 4.2.2 Small-scale bioindicators of microplastics and macro litter on the Mediterranean seafloor 27 4.2.3 Small-scale bioindicators of microplastics in Mediterranean coastal waters 28 4.2.4 Small-scale bioindicators of microplastics in the Mediterranean open waters 28 4.2.5 Medium-scale bioindicators of microplastics in Mediterranean open water 29 30 4.2.6 Wide-scale bioindicators of of microplastics in Mediterranean open waters 4.2.7 Wide-scale bioindicators of macro-litter in the Mediterranean open waters 30 4.2.8 Wide-scale bioindicators of macro-litter in the marine environment (sea surface coastal shores) 32 5. THE THREEFOLD MONITORING APPROACH TO DETECTING MARINE LITTER INGESTION 34 AND THE RELATED IMPACT IN BIOINDICATOR ORGANISMS 5.1 Invertebrates 36 5.2 Fish 37 5.3 Sea Turtles 38 5.4 Seabirds 39 5.5 Marine mammals 40 6. RISK ASSESSMENT, MODELS AND ACCUMULATION AREAS 42 7. -
Bringing Reusable Packaging Systems to Life Lessons Learned from Testing Reusable Cups Table of Contents
Bringing Reusable Packaging Systems to Life Lessons Learned from Testing Reusable Cups Table of Contents Introduction SECTION 1 SECTION 4 Setting the Scene Experimentation in Action — Lessons Learned — Reuse Model Insights Piloting Innovative Reusable Top Insights for Reuse How It Works Cup Systems Models SECTION 2 SECTION 5 The Journey of a Reusable What’s Next? — Building the Cup — A Multi-Stage Journey Future for Reuse Models Customer Awareness Sign-up Point-of-Sale SECTION 6 Drink Preparation Point-of-Handoff Appendix Point-of-Return Terms to Know Washing & Sanitizing Citations Pick-up & Delivery Acknowledgements B L E Inventory A T O F SECTION 3 Bringing Reusable Packaging C Systems to Life – Critical O Inputs & Considerations for N Scale S T T Engage Diverse Stakeholders E N Make Sustainable Material Choices Select the Perfect Spot Choose the Right Payment Model Optimize Health & Safety Protocols Measure Impact and Success Bringing Reusable Packaging Systems to Life 2 Dear Reader, If you visualize the current journey of most products and packaging in our economy, including the single-use cup, it looks like a straight line that starts with extracting finite raw materials and ends at the landfill. fter decades of relying on this food, are accelerating the growth of reuse The key to success for reuse models is seemingly convenient linear models. Over the last few years, we’ve seen continually testing, honing and refining them. Asystem, its long hidden costs in innovative companies explore and harness And assessing the environmental impact of terms of economic and environmental groundbreaking reusable packaging and reusable packaging is paramount during this consequences have become clear, bringing refill models, such as Algramo piloting phase of experimentation — we must ensure we us to a tipping point that necessitates a their “smart dispensing” reuse model with don’t introduce new unintended consequences better way forward — one that considers companies like Nestlé and Unilever, among when replacing one system with another. -
STATE of CONNECTICUT Prev
CONTRACT SUPPLEMENT CONTRACT AWARD NO.: SP‐37 Rev. 10/15/13 STATE OF CONNECTICUT Prev. Rev. 7/19/13 12PSX0259 DEPARTMENT OF ADMINISTRATIVE SERVICES Contract Award Date: Ada Rivera PROCUREMENT DIVISION th Contract Specialist 165 Capitol Avenue, 5 Floor South 29 November 2012 Bid Due Date: 860‐713‐5048 HARTFORD, CT 06106‐1659 Telephone Number 8 November 2012 SUPPLEMENT DATE: 26 November 2013 CONTRACT AWARD SUPPLEMENT #2 IMPORTANT: THIS IS NOT A PURCHASE ORDER. DO NOT PRODUCE OR SHIP WITHOUT AN AGENCY PURCHASE ORDER. DESCRIPTION: Food Service Supplies FOR: All Using State Agencies, Political Sub‐Divisions and TERM OF CONTRACT / DELIVERY DATE REQUIRED: Qualified Non‐For‐Profit Organizations December 1, 2012 through November 30, 2015 AGENCY REQUISITION NUMBER: 0000001014 CHANGE TO IN STATE (NON‐SB) CHANGE TO DAS‐CERTIFIED SMALL CHANGE TO OUT OF STATE CHANGE TO TOTAL CONTRACT CONTRACT VALUE BUSINESS CONTRACT VALUE CONTRACT VALUE AWARD VALUE NOTICE TO CONTRACTORS: This notice is not an order to ship. Purchase Orders against contracts will be furnished by the using agency or agencies on whose behalf the contract is made. INVOICE SHALL BE RENDERED DIRECT TO THE ORDERING AGENCY. NOTE: Dollar amounts listed next to each contractor are possible award amounts, however, they do not reflect any expected purchase amounts (actual or implied). They are for CHRO use only. NOTICE TO AGENCIES: A complete explanatory report shall be furnished promptly to the Procurement Manager concerning items delivered and/or services rendered on orders placed against awards listed herein which are found not to comply with the specifications or which are otherwise unsatisfactory from the agency’s viewpoint, as well as failure of the contractor to deliver within a reasonable period of time specified. -
2018 California Ocean Litter Prevention Strategy
ATMOSP ND HE A RI IC C N A A D E M I C N O I S L T A R N A O T I I T O A N N U .S E . C D R E E PA M RT OM MENT OF C 2018 California Ocean Litter Prevention Strategy: Addressing Marine Debris from Source to Sea June 2018 California Ocean Litter Prevention Strategy: Addressing Marine Debris from Source to Sea June 2018 Cover photo courtesy of Heal the Bay. Acknowledgment: The California Ocean Litter Prevention Strategy was developed through expert input from numerous California stakeholders. Funding was provided by the California Ocean Protection Council (OPC) and NOAA Marine Debris Program (NOAA MDP). Many thanks go to the workshop participants and others who contributed to the Strategy and will participate in its implementation. We would also like to thank Miho Ligare and Nina Venuti of California Sea Grant, Eben Schwartz of the California Coastal Commission, and Angela Howe of the Surfrider Foundation for their participation on the workshop planning team. We also thank NOAA MDP staff for assistance with workshop facilitation and note-taking, and for their help preparing the document for publication. The Strategy was drafted by California Sea Grant (M. Ligare and N. Venuti) under the direction of OPC (Holly Wyer) and NOAA MDP (Sherry Lippiatt). For citation purposes, please use: California Ocean Protection Council and National Oceanic and Atmospheric Administration Marine Debris Program. (2018). California Ocean Litter Prevention Strategy: Addressing Marine Debris from Source to Sea. For more information, please contact: California Ocean Protection Council Holly Wyer, Program Manager [email protected] (916)-653-0538 NOAA Marine Debris Program Sherry Lippiatt, California Regional Coordinator [email protected] (510)-410-2602 This publication does not constitute an endorsement of any commercial product or intend to be an opinion beyond scientific or other results obtained by the National Oceanic and Atmospheric Administration (NOAA). -
(Plastic Cup) Using Micrococcus Luteus and Masoniella Sp Sivasankari
Scholars Academic Journal of Biosciences (SAJB) ISSN 2321-6883 (Online) Sch. Acad. J. Biosci., 2014; 2(2): 85-89 ISSN 2347-9515 (Print) ©Scholars Academic and Scientific Publisher (An International Publisher for Academic and Scientific Resources) www.saspublisher.com Research Article In Vitro Degradation of Plastics (Plastic Cup) Using Micrococcus Luteus and Masoniella Sp Sivasankari. S* , Vinotha. T Department Of Microbiology, Shri Mathi Indira Gandhi College, Tirchirappalli, Tamil Nadu -620002, India *Corresponding author S. Sivasankari Email: Abstract: Plastic is a broad name given to different polymers with high molecular weight, which can be degraded by various processes. However, considering their abundance in the environment and their specificity in attacking plastics, biodegradation of plastics by microorganisms and enzymes seems to be the most effective process. When plastics are used as substrates for microorganisms, evaluation of their biodegradability should not only be based on their chemical structure, but also on their physical properties (melting point, glass transition temperature, crystallinity, storage modulus etc.). Present paper investigates the possibility of plastic degradation by microbes isolated from forest soil. The invitro degradation was studied by litter bag experiment by taking 1 g of each plastic and buried under forest soil at a depth of 15 cm from the surface during the month of September to February, 2010. An in-vitro experiment was started after collecting the plastic samples from the litter bag experiment and the microbes were isolated from the surface of the plastic. Then the isolated microbes inoculated in the nutrient agar. Result showed that no variety of plastic comfortable degraded under burial condition during 45 days. -
The Chemical Story Behind Non- Petroleum-Based Plastics
THE CHEMICAL STORY BEHIND NON- PETROLEUM-BASED PLASTICS Every year, millions of tons of plastic are discarded into landfills, where they will take hundreds of years to break down. New biodegradable plastics offer a potential solution to this problem. image source Let’s back up and talk about “traditional” plastics first. In addition to being landfilled, some plastic is disposed of improperly, leading to plastic pollution on land and in lakes and oceans where they persist. Once in the environment, animals can accidentally eat the plastic but are incapable of digesting it, so the plastic just sits in their stomachs. Over time, the plastic can block off their digestive system, and the animal will starve. Luckily, there are plastics that are designed to break down rapidly upon disposal. These types of plastics are known as biodegradable plastics, meaning that organisms can decompose the plastic in the environment. When biodegradable plastics are decomposed, they are converted to chemicals found in nature, often carbon dioxide and water. The organisms that carry out the decomposition are generally microorganisms like bacteria. Instead of hundreds of years, most biodegradable plastics take only a few months to decompose after they’ve been thrown away. Many of the biodegradable plastics produced today can be made from renewable resources. I’m going to talk about a few different biodegradable plastics in use today. A biodegradable plastic that is heavily used today is called polylactic acid, or PLA, for short. Polylactic acid is most often made from corn. It has a variety of uses, the most notable being for plastic cups, but it can also be used for compost bags, disposable tableware, and in upholstery. -
Food Service Disposable
DISTRIBUTION LIST Job Name USSIV00086389 2018 Facility Solutions Cat ◊ Pricing File Name USSIV00086389_P3_CARTON UNPRICED_F0550_C0551 P3 Proof Date January 5, 2018 3:05 PM PAGE CONTROL CARTON Page Info BLEED +0p9 TRIM 7.9375 × 10.375 550 0551 UNPRICED SUBCATEGORY_2 PAPER CUPS & LIDS CUPS & LIDS CUTLERY DINNERWARE NAPKINS & DISPENSERS PARTY SUPPLIES FOOD STORAGE & CONTAINERS FOOD WRAP PAPER & BAGS CLEANING & SANITIZING CUPS 18-FA-CU-RNU 18-FA-CU-RNU FOODSERVICE DISPOSABLES 550 CAN’T FIND WHAT YOU NEED? CALL & LET US HELP. ••• DISTRIBUTION LIST Job Name USSIV00086389 2018 Facility Solutions Cat ◊ Pricing File Name USSIV00086389_P3_CARTON UNPRICED_F0551_C0552 P3 Proof Date January 5, 2018 3:08 PM PAGE CONTROL CARTON Page Info BLEED +0p9 TRIM 7.9375 × 10.375 551 0552 UNPRICED SUBCATEGORY_2 BUYING GUIDE GLOVES FOR FOODSERVICE See pages 314-317, 608 for our selection of foodservice gloves. Use our Feature Key to find gloves that help you maintain safety and hygiene standards. 1 Thin 5 High Dexterity 2 Medium Thickness 6 Powdered for Easy On/Off 3 Thick 7 Embossed/Textured Grip 4 High Protection/Tear Strength 8 Fits Either Hand Latex Synthetic No. Features How to Order No. Features How to Order BWK 355SBX 2 5 6 8 See p. 316 BWK 315SBX 3 7 8 See p. 317 BWK 355MBX 2 5 6 8 See p. 316 BWK 315MBX 3 7 8 See p. 317 BWK 355LBX 2 5 6 8 See p. 316 BWK 315LBX 3 7 8 See p. 317 BWK 345MBX 2 5 8 See p. 316 BWK 315XLBX 3 7 8 See p. 317 BWK 345LBX 2 5 8 See p. -
The Terminology of Marine Pollution by Plastics and Microplastics
The Terminology of Marine Pollution by Plastics and Microplastics The Terminology of Marine Pollution by Plastics and Microplastics By Marina Niceforo The Terminology of Marine Pollution by Plastics and Microplastics By Marina Niceforo This book first published 2019 Cambridge Scholars Publishing Lady Stephenson Library, Newcastle upon Tyne, NE6 2PA, UK British Library Cataloguing in Publication Data A catalogue record for this book is available from the British Library Copyright © 2019 by Marina Niceforo All rights for this book reserved. No part of this book may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, without the prior permission of the copyright owner. ISBN (10): 1-5275-3904-0 ISBN (13): 978-1-5275-3904-4 TABLE OF CONTENTS List of Figures........................................................................................... vii List of Tables ........................................................................................... viii Acknowledgements ................................................................................... ix Introduction ................................................................................................ 1 Chapter 1 .................................................................................................... 5 Marine Ecology 1.1 Ecology: Key Concepts ........................................................................ 5 1.2 Introduction to Marine Ecology ........................................................... -
Trend in Engineering
theTrend Autumn 2006: Volume 56, Issue 2 in engineering Hot Ideas out of the lab and into the world... Page 6 Message from the Dean News Spotlight Great Expectations As fall quarter kicks off, you can “Ideas to Innovation” (i2i) summit feel the energy of new and returning attended by 65 top executives of students. As a new kid myself, I’m as area companies as well as key local, excited as a first-year student. state and federal leaders. Among a Since mid-August, I’ve met with number of things, we talked about many faculty and staff members UW Engineering and its excellent in a series of “boot camps.” Each track record in taking innovations session introduced me to more of to market. As dean, I will strengthen the college’s work. Lots of days, it these partnerships. was intense, like drinking from a fire UW Engineering has a strong How do students fit into this hose. We hashed out our strengths, culture of interdisciplinary teamwork picture? Great expectations. We train our challenges, our plans for re- and research innovation, but the students to be more than competent search and education initiatives, all bar needs to be higher, with goals engineers seeking design or project in big chunks. It was exhausting and stretching to the global arena. This management jobs. We prepare them exhilarating, but gradually a theme requires significant resources, always to work in a complex, highly tech- emerged: the importance of commu- a major challenge. nological world. It means more nity, not just our internal university An August 22 feature article in undergraduates will participate in community, but our connection to The Seattle Times reported that interdisciplinary research projects the communities where we live. -
Infographic Research & Design by Steelysdrinkware.Com Cup Waste Data Sources >> Paper Cup Waste: U.S
THE DISPOSABLE CUP CRISIS Hello America. Did you know that more than 100 BILLION throw-away cups are sent to U.S. landfills each year? 100 That’s enough cup trash to circle the earth an astounding 1,744 times! BILLION © Steelys Drinkware 2013 © Steelys Drinkware 2013 Every time you use and toss a paper, plastic or styrofoam cup, it depletes resources, increases C02 emissions, escalates health risks, and adds to our global landfill crisis. CUPS When 315 million Americans repeat this behavior daily, it adds up to a real problem. BILLION BILLION TENS OF BILLIONS 58paper cups 25foam cups of single-use plastic cups trashed thrown away in the U.S. annually consumed in the U.S. annually at U.S. restaurants, cafes & events Polyethylene Terephthalate (PETE) 1 Mostly plastic-coated virgin paper Polystyrene (PS) 6 aka “Styrofoam” Polystyrene (PS) 6 & Polypropylene (PP) 5 Foam cups are made of In the U.S. airline 20Million industry alone almost trees are cut down to a non-biodegradable, make paper cups each year petroleum-based plastic 9 Billion Contains toxic chemicals that can Every four paper cups are responsible leach and threaten human health plastic cups are used anNually for creating 1 pound of co2 emissions and reproductive systems Foam litter hard to contain 12Billion and is a signifcant component gallons of water are used to of land and water pollution make a year’s worth of THE LARGEST of plastic, per person, per year CATEGORIES OF paper cups Can be fatal when consumed are trashed in the U.S., comprising PLASTIC WASTE up to 30% OF LANDFILL -
20 Years of Government Responses to the Global Plastic Pollution
NICHOLAS INSTITUTE FOR ENVIRONMENTAL POLICY SOLUTIONS 20 Years of Government Responses to the Global Plastic Pollution Problem The Plastics Policy Inventory Rachel Karasik, Tibor Vegh, Zoie Diana, Janet Bering, Juan Caldas, Amy Pickle, Daniel Rittschof, and John Virdin Nicholas Institute for Environmental Policy Solutions nicholasinstitute.duke.edu 20 Years of Government Responses to the Global Plastic Pollution Problem The Plastics Policy Inventory Author Affiliations Acknowledgements Rachel Karasik, Tibor Vegh, Amy Pickle and John The authors gratefully acknowledge the valuable Virdin: Duke University Nicholas Institute for peer-review provided by Dr. Karen Raubenheimer, Environmental Policy Solutions Australia National Centre for Ocean Resources and Zoie Diana, Janet Bering, Juan Caldas, and Daniel Security (ANCORS), University of Wollongong, Rittschof: Duke University Nicholas School of the and Prof. Tony Walker, Dalhousie University. Environment Additionally, the study benefited from collabora- tion with Common Seas and guidance provided by Citation Ben Jack, as well as from early suggestions by Neal Karasik, R.,* T. Vegh,* Z. Diana,* J. Bering, J. Tangri, Global Alliance for Incinerator Alternatives. Caldas, A. Pickle, D. Rittschof, and J. Virdin. 2020. 20 Years of Government Responses to the The study drew upon research conducted by Emily Global Plastic Pollution Problem: The Plastics Melvin, Emma Schmaltz, and Zoie Diana as part Policy Inventory. NI X 20-05. Durham, NC: Duke of a Bass Connections Course led by Dr. Meagan University. Dunphy-Daly, Duke University, and support- ed by Dr. Jason Somarelli, Duke University, as *Designates co-first authorship well as by Mengqi Li and Rocky Guzman, led by Prof. Kathinka Furst, Duke Kunshan Universi- ty. -
Plastic Peril: the Widespread and Devastating Impacts of Plastic Pollution on Our Oceans
OCTOBER 2020 FS: 20-10-D FACT SHEET PLASTIC PERIL: THE WIDESPREAD AND DEVASTATING IMPACTS OF PLASTIC POLLUTION ON OUR OCEANS Despite numerous, well-publicized studies and Vianna/Getty © João news stories revealing the destructive effects that plastics have on terrestrial and marine environments, plastic production continues to increase, and much of the resulting waste is steadily accumulating in our oceans. Marine debris includes any solid material that is human- made and abandoned in the marine environment. Between 60 and 80 percent of all marine debris comes from plastic products and packaging, and conservative estimates suggest that eight million metric tons of plastic finds its way into the world’s oceans every single year.1 That is equivalent to two Empire State Buildings’ worth of plastic going into the ocean every month.2 The majority of this plastic is created from fossil fuels and does not biodegrade. This means that once it is present in marine environments, this pollution will A dolphin with a white plastic shopping bag caught on its fin, swimming off the have far-reaching impacts on organisms and ecosystems for coast of Brazil. centuries to come. Plastic waste impacts organisms from plankton, fish, coral reefs, and seabirds all the way up the Plastic is found across marine environments, even in some food chain to marine mammals and humans. of the most isolated places on the planet. Images from remotely operated vehicles show plastic bags drifting 10,898 meters (6.8 miles) below sea level in the Mariana Trench, THE TRUTH ABOUT PLASTICS the deepest known place in the world’s oceans.7 Scientists have found traces of 17 different types of plastic embedded n The United States recycles only about 9 percent of its plastic in core samples taken from Arctic sea ice.8 Swaths of plastic 3 trash.