Plastics in the UK
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DAP® PLASTIC WOOD® Solvent-Based Professional Wood Filler
DAP® PLASTIC WOOD® Solvent-Based Professional Wood Filler PRODUCT DESCRIPTION DAP® PLASTIC WOOD® Professional Wood Filler is a high-performance, solvent-based wood filler that hardens to give a repair that is 3X stronger*. This heavy-duty wood filler contains real wood fibers, so it looks and acts like real wood. It can be sanded, cut, drilled, screwed, planed, stained, varnished, painted or lacquered. It provides strong nail and screw anchoring without splitting. DAP® PLASTIC WOOD® Professional Wood Filler dries fast and hard, and is shrink, crack and crumble resistant. The thick, knife- grade formula is easy to handle and can be molded and sculpted, making it ideal for corners and vertical surfaces. For use on furniture, doors, paneling, molding, plywood and other wood surfaces. Available in several popular wood shades, this high-performance wood filler can also be stained to match any wood shade. Interior/exterior use. *Than competitive product. PACKAGING COLOR UPC 1.87 oz Natural (BOX) 7079821500 1.87oz Natural (CARD) 7079821510 4 oz Light Oak 7079821400 4oz Pine 7079821404 4oz Golden Oak 7079821408 4oz White 7079821412 4oz Walnut 7079821434 4oz Natural 7079821506 16 oz Natural 7079821506 08/2018 | www.dap.com KEY FEATURES & BENEFITS • Heavy-duty, solvent-based formula • 3X Stronger* • Contains real wood fibers to simulate wood’s original characteristics • Looks and acts like real wood • Can be sanded, planed, cut, drilled, screwed & planed • Easy handling- spreads smoothly & evenly • Thick, knife-grade formula can be molded & sculpted – ideal for corners and vertical surfaces • Dries fast • Shrink, crack and crumble resistant • Strong nail & screw anchoring • Stainable and paintable • Interior/Exterior use SUGGESTED USES Ideal for filling nail holes, gouges, cracks, scratches & imperfections on: • Furniture • Windows/Doors • Woodwork • Plywood • Cabinets • Deck Posts • Paneling • Painted Surfaces • Molding APPLICATION 1. -
Assessment of the Properties of Poly (Lactic Acid) Sheets with Different Amounts of Post-Consumer Recycled Poly (Lactic Acid)
ASSESSMENT OF THE PROPERTIES OF POLY (LACTIC ACID) SHEETS WITH DIFFERENT AMOUNTS OF POST-CONSUMER RECYCLED POLY (LACTIC ACID) By Chaiyatas Chariyachotilert A THESIS Submitted to Michigan State University in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE Packaging 2011 ABSTRACT ASSESSMENT OF THE PROPERTIES OF POLY (LACTIC ACID) SHEETS WITH DIFFERENT AMOUNTS OF POST-CONSUMER RECYCLED POLY (LACTIC ACID) By Chaiyatas Chariyachotilert The main objective of this research was to evaluate the properties of sheet containing mechanically recycled post-consumer polylactic acid (PLA) bottle flakes blended with virgin PLA resin. PLA bottles were flaked, cleaned, blended with virgin resin and then extruded and thermoformed into trays. The molecular weight, physical, optical, thermal and mechanical properties of sheet containing 0, 20, 40, 60, 80 and 100 wt.-% recycled content were evaluated. Cleaning conditions were evaluated using response surface methodology, and conditions of 15 min, 85 °C, 1 wt.-% NaOH, and 0.3 wt.-% surfactant were adopted for cleaning the PLA flake. Virgin PLA sheet possessed superior properties to recycled sheet with statistically significant differences at α=0.05. PLA sheets were darker and absorbed more UV light in the 260 to 285 nm range when 20% or more recycled content was added. At 40% recycled content, the sheet had increased blue and red tones and the mechanical properties in the cross-machine direction decreased. At 60% recycled content or above, reduction of weight average molecular weight (Mw), tensile strength and tensile strength at yield in the machine direction (MD) were found. At 80% recycled content, the melting temperature and modulus of elasticity in the MD decreased. -
BPF – Understanding the Debate About Plastic
Understanding the debate about plastic At a time when a ‘climate emergency’ has been declared, it is important that people understand that ‘plastic free’ does not necessarily mean ‘better for the environment’. For example, researchers found that switching to alternative materials could quadruple what they dubbed ‘the environmental cost.’ Plastic will – and should – continue to play a vital role in all our lives going forward. That may surprise many of you. But this document helps explain why. All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, British Plastics Federation recording and/or otherwise, without the prior written permission of the publishers. While all reasonable steps have been taken to ensure that the information BPF House, 6 Bath Place contained within this document is correct, the British Plastics Federation can London, EC2A 3JE make no warranties or representations of any kind as to the content and, to the maximum extent permitted by law, accept no liability whatsoever for the First published in 2019 same including without limit, for direct, indirect or consequential loss, business © 2019 British Plastics Federation interruption, loss of profits, production, contracts or goodwill. Contents The enemy is not plastic, it is plastic waste 2 Key facts and figures 3 The right to choose (wisely) 4 Making a difference 5 Government proposals and the industry’s position 6 Why do we need single-use plastic? 8 Extended producer responsibility 10 Taxing plastic packaging based upon the amount of recycled content 12 Deposit return schemes 14 Exporting plastic waste for recycling 16 Biodegradable and oxo-degradable plastics 18 Marine litter 20 1 The enemy is not plastic, it is plastic waste Plastic brings many benefits, enabling many other cutting-edge technologies and keeping the weight and fuel emissions of vehicles down. -
PLASTIC WOOD® Solvent-Based Professional Wood Filler
Technical Bulletin 2400 Boston Street, Suite 200, Baltimore, Maryland 21224 Phone: 410-675-2100 or 800-543-3840 Revised: 3/7/14 DAP® PLASTIC WOOD® Solvent-Based Professional Wood Filler • Heavy-duty, solvent-based formula • 3X stronger than the wood itself* • Contains real wood fibers to simulate wood’s original characteristics • Looks and acts like real wood • Can be sanded, planed, cut, drilled, screwed & planed • Easy handling- spreads smoothly & evenly • Thick, knife-grade formula can be molded & sculpted – ideal for corners and vertical surfaces • Dries fast • Shrink, crack and crumble resistant • Strong nail & screw anchoring • Stainable and paintable • Interior/Exterior use Packaging: Net Weight 1.87 oz. (53g), 4 oz. (113g), 16 oz. (453g) Colors: Natural, Light Oak, Pine, Golden Oak, Walnut, White UPC Numbers: 7079821144, 7079821400, 7079821404, 7079821408, 7079821412, 7079821434, 7079821500, 7079821502, 7079821504, 7079821506, 7079821508, 7079821510 Company Identification: Manufacturer: DAP Products Inc., 2400 Boston Street, Baltimore, Maryland 21224 Usage Information: Call 1-888-DAP-TIPS or visit www.dap.com and click on “Ask the Expert” Order Information: 800-327-3339 Fax Number: 410-558-1068 Also, visit the DAP website at dap.com Product Description: DAP® PLASTIC WOOD® Professional Wood Filler is a high-performance, solvent-based wood filler that hardens to give a repair that is 3X stronger than the wood itself*. This heavy-duty wood filler contains real wood fibers so it looks and acts like real wood. It can be sanded, cut, drilled, screwed, planed, stained, varnished, painted or lacquered. It provides strong nail and screw anchoring without splitting. DAP® PLASTIC WOOD® Professional Wood Filler dries fast and hard, and is shrink, crack and crumble resistant. -
Year One of Positive Plastics Our Four-Point Plan for a Future with Less Waste
Year one of positive plastics Our four-point plan for a future with less waste. # PositivePlasticsPledge 2 Klöckner Pentaplast Sustainable protection of everyday needs At kp we have always known the value We still have some way to go, but by of plastic – its unique place in the lives of collaborating closely with our partners in communities we are very much part of the community, governments and local and its irreplaceable attributes that protect authorities, business and industry, and and package our products – in particular environmental groups we are quite literally dramatically avoiding food waste, delivering closing the loop when it comes to plastic medication and protecting the integrity packaging. We are helping reduce leakage of countless other products. Embedded in and littering of plastics into the environment, the fabric of our company is our primary ensuring plastics are valued and packaging is purpose – the sustainable protection of optimally designed for circularity. everyday needs – it’s why we exist; it’s why In the last year, the world of plastics has we do what we do. changed at an unprecedented rate and We’re determined to help we continue our determination to help make the world of plastics make it a sustainable one for society and for our environment. It’s exciting, it’s been sustainable for society successful and we have learned so much and for our environment. in the process. We are proud to share our first year of achievements with you and we We are also fully aware of our huge look forward to another challenging and responsibility to design products and transformational year ahead – we hope packaging to achieve closed-loop solutions. -
Critical Guidance Protocol for PE Film and Flexible Packaging
Critical Guidance Protocol for PE Film and Flexible Packaging Document number – FPE-CG-01 Revision date – August 17, 2021 Introduction – Scope, significance and use This is a comprehensive laboratory scale evaluation, or protocol, that can be used to assess the compatibility of PE-based films and flexible packaging innovations with film reclamation systems sourcing post-consumer film from store drop-off collection points or, in some cases, curbside collection. This test can be used to evaluate the impact of innovative PE film packaging components for which recycling compatibility is unknown or for which data is notably lacking. As examples: mono- and multi-layer constructions, coatings, additives (including compatibilizers along with innovative material), printing inks and pigments, labels with polymer substrate (paper labels are out of scope for Critical Guidance), adhesives, or new PE resin co- polymer or multi-material compositions. This test requires assessment of the effect of the packaging in blown film. This test evaluates compatibility of the flexible packaging innovation with current, industrial-scale, film-to- film recycling processes. Plastic film is generally defined as plastic items with a thickness of less than 10 mils (i.e., 0.010” or 0.25 mm) that are at least 95 percent (by weight) plastic with up to 5 percent other closely bonded or impregnated material, which may include printing, coatings, or fillers. Film, when used in packaging, is referred to as flexible packaging. The shape of flexible packaging typically changes when it is full of a product compared to when it is empty, whereas the shape of rigid packaging generally remains the same. -
Nylons: a Review of the Literature on Products of Combustion and Toxicity
— |MH|||| I A111DS l&BTIO NBSIR 85-3280 Nylons: A Review of the Literature on Products of Combustion and Toxicity NBS Reference PUBLICATIONS Emil Braun Barbara C. Levin U S. DEPARTMENT OF COMMERCE National Bureau of Standards National Engineering Laboratory Center for Fire Research Gaithersburg, MD 20899 February 1986 Sponsored in part by: U.S. Consumer Product Safety Commission — • q c — asda, MD 20207 100 • U56 85-3280 1986 NBS keseaech informattojt CENTER NBSIR 85-3280 NYLONS: A REVIEW OF THE LITERATURE ON PRODUCTS OF COMBUSTION AND TOXICITY Emil Braun Barbara C. Levin U S. DEPARTMENT OF COMMERCE National Bureau of Standards National Engineering Laboratory Center for Fire Research Gaithersburg, MD 20899 February 1986 Sponsored in part by: U.S. Consumer Product Safety Commission Bethesda, MD 20207 U.S. DEPARTMENT OF COMMERCE, Malcolm Baldrige, Secretary NATIONAL BUREAU OF STANDARDS. Ernest Ambler. Director 21 TABLE OF CONTENTS Page LIST OF TABLES iv LIST OF FIGURES vii ABSTRACT 1 1.0 INTRODUCTION 2 2.0 CHEMICAL STRUCTURE AND THERMOPHYSICAL PROPERTIES 4 3.0 DECOMPOSITION 5 3.1 VACUUM PYROLYSIS 7 3.2 DECOMPOSITION IN INERT AND AIR ATMOSPHERES 8 3.2.1 GENERAL DECOMPOSITION PRODUCTS 8 3.2.2 SPECIFIC GAS SPECIES 11 3.2.2. PURE MATERIALS 11 3. 2. 2. COMPOSITE MATERIALS 14 4.0 TOXICITY 17 4.1 DIN 53 436 19 4.2 FAA TOXICITY PROTOCOL 20 4.3 NASA/USF TOXICITY PROTOCOL 22 4.5 MISCELLANEOUS 27 5.0 LARGE-SCALE TESTS 31 6.0 CONCLUSIONS 35 7.0 ACKNOWLEDGEMENTS 36 8.0 REFERENCES 37 iii LIST OF TABLES Page TABLE 1. -
The Recent Developments in Biobased Polymers Toward
polymers Review The Recent Developments in Biobased Polymers toward General and Engineering Applications: Polymers that Are Upgraded from Biodegradable Polymers, Analogous to Petroleum-Derived Polymers, and Newly Developed Hajime Nakajima, Peter Dijkstra and Katja Loos * ID Macromolecular Chemistry and New Polymeric Materials, Zernike Institute for Advanced Materials, University of Groningen, Nijenborgh 4, 9747 AG Groningen, The Netherlands; [email protected] (H.N.); [email protected] (P.D.) * Correspondence: [email protected]; Tel.: +31-50-363-6867 Received: 31 August 2017; Accepted: 18 September 2017; Published: 18 October 2017 Abstract: The main motivation for development of biobased polymers was their biodegradability, which is becoming important due to strong public concern about waste. Reflecting recent changes in the polymer industry, the sustainability of biobased polymers allows them to be used for general and engineering applications. This expansion is driven by the remarkable progress in the processes for refining biomass feedstocks to produce biobased building blocks that allow biobased polymers to have more versatile and adaptable polymer chemical structures and to achieve target properties and functionalities. In this review, biobased polymers are categorized as those that are: (1) upgrades from biodegradable polylactides (PLA), polyhydroxyalkanoates (PHAs), and others; (2) analogous to petroleum-derived polymers such as bio-poly(ethylene terephthalate) (bio-PET); and (3) new biobased polymers such as poly(ethylene 2,5-furandicarboxylate) -
Effect on Tensile Strength of Nylon-6 by Adding Filler
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 04 | Apr 2019 www.irjet.net p-ISSN: 2395-0072 Effect on Tensile Strength of Nylon-6 by Adding Filler Divya Teli1, Kadambari Dhotre2, Vivek Topale3, Pallavi Wankhade4, Pramod Suryavanshi5 1,2,3,4Student, Department of Mechanical Engineering, Bharti Vidyapeeth’s College of Engineering, Navi Mumbai, Maharashtra, India – 400 614 5Professor, Department of Mechanical Engineering, Bharti Vidyapeeth’s College of Engineering, Navi Mumbai, Maharashtra, India – 400 614 ---------------------------------------------------------------------***---------------------------------------------------------------------- Abstract - A Polymer matrix composites are designed to Nylon6 (base resin) + Mica (filler) improve the properties and reduce the cost of plastic engineering. In this study the effect of adding mica on the Dry mixing tensile strength of nylon6 was investigated (according to Transfer moulding ASTM D63). Composite of nylon6 with adding (10 % weight) of mica were prepared by binder. The composite improves the Testing of sample (Tensile strength) tensile strength on addition of filler. In present paper work to increase the tensile strength, Nylon 6- Mica based composite 2.2 Material selection has been prepared. After that as per tensile strength standard ASTM638 Component was made with transfer moulding. After making components tensile strength of components has been Nylon6 (325mesh) was selected as a binder material. Nylon6 checked using Universal Testing Machine. has medium melt viscosity and is most widely used for producing strapping, zippers, monofilaments, cords, and Key Words: Polymer matrix composite, compounding, mica, profiles. It is semi-crystalline engineering thermoplastic Transfer moulding, ASTM D638, Tensile strength. having good abrasion resistance, sliding properties, very tough, rigid, and electrically insulated, chemical resistance to 1. -
Effect of Gelatinization Temperature and Chitosan on Mechanical Properties of Bioplastics from Avocado Seed Starch (Persea Americana Mill) with Plasticizer Glycerol
The International Journal Of Engineering And Science (IJES) || Volume || 4 || Issue || 12 || Pages || PP -36-43|| 2015 || ISSN (e): 2319 – 1813 ISSN (p): 2319 – 1805 Effect of Gelatinization Temperature and Chitosan on Mechanical Properties of Bioplastics from Avocado Seed Starch (Persea americana mill) with Plasticizer Glycerol 1M. Hendra S. Ginting, 2M. Fauzy Ramadhan Tarigan , 3 Annisa Maharani Singgih 1,2,3Department of Chemical Engineering, Faculty Engineering, University of Sumatera Utara --------------------------------------------------------ABSTRACT----------------------------------------------------------- Bioplastics are polymers which are derived from renewable biomass resources, such as starch, cellulose and lignin for plants and casein, protein and lipid for animals. The aim of this research to obtain the effect of gelatinization temperature and chitosan on the psychochemical properties of bioplastic. Starch is the raw material for bioplastics which extracted by the avocado seeds, then characterized to determine its chemical composition.The variation composition of avocado seed starch - chitosan used 7: 3, 8: 2 and 9: 1 and temperature bioplastic solution was varied at 80, 85 and 90 °C. Bioplastics were analyzed physical and chemical properties. From the analysis, tbest condition of bioplastics obtained at temperature 90 °C with comparison of mass starch - chitosan 7: 3 for tensile strength 5.096 MPa, elongation at break 14.016% and Modulus Young 36.359 MPa. From the results of FT-IR analysis indicated O-H group and N-H groups on bioplastics due to the addition of chitosan and glycerol. The results of mechanical properties were supported by Scanning Electron Microscopy (SEM) showed the bioplastic with chitosan as filler and plasticizer glycerol have the fracture surfaces were smooth and soft and a little cavity. -
Recycling Roadmap
BRITISH PLASTICS FEDERATION RECYCLING ROADMAP SUPPORTED BY The British Plastics Federation (BPF) is the trade association representing the entire plastics supply chain in the UK, from polymer producers and distributors, converters, equipment suppliers and recyclers. The BPF works in close collaboration with its member companies and liaises closely with government departments, as well as a broad range of non-governmental stakeholders such as charities, brands and retailers. The plastics industry is one of the UK manufacturing sector’s biggest strengths, comprising around 6,200 companies and directly employing 180,000 people. This report has been produced by the British Plastics Federation. The BPF would like to thank Keith Freegard of Keith Freegard Consulting Ltd for all his work on this report and all other reviewers who have provided valuable comments and feedback during its production. This report does not necessarily reflect the views of individual companies mentioned in this report and information provided by companies does not necessarily reflect the views of the BPF. All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording and/or otherwise, without the prior written permission of the publishers. While all reasonable steps have been taken to ensure that the information contained within this document is correct, the British Plastics Federation can make no warranties or representations of any kind as to the content and, to the maximum extent permitted by law, accept no liability whatsoever for the same including without limit, for direct, indirect or consequential loss, business interruption, loss of profits, production, contracts or goodwill. -
Impact Strength and Morphology of Sustainably Sourced Recycling
265 A publication of CHEMICAL ENGINEERING TRANSACTIONS VOL. 83, 2021 The Italian Association of Chemical Engineering Online at www.cetjournal.it Guest Editors: Jeng Shiun Lim, Nor Alafiza Yunus, Jiří Jaromír Klemeš Copyright © 20 21 , AIDIC Servizi S.r.l. DOI: 10.3303/CET2183045 ISBN 978-88-95608-81-5; ISSN 2283-9216 Impact Strength and Morphology of Sustainably Sourced Recycling Polyethylene Terephthalate Blends Nur H. M. Rosmmi, Zahid I. Khan, Zurina Mohamad*, Rohah A. Majid, Norhayani Othman, Siti H. C. Man, Khairil J. A. Karim School of Chemical and Energy Engineering, Universiti Teknologi Malaysia, 81310 UTM Johor Bahru, Johor, Malaysia [email protected] Polyethylene terephthalate (PET) is a semi-crystalline material that is widely used in the packaging industry, mainly in the production of bottles for beverages. Similar to other plastics, PET causes a problem in disposal as it remains in the environment for a long time. Most of the bottles are thrown away after a single usage, which worsens the disposal problem. Recycling is one of the best ways to reduce the problem of disposal. However, recycling reduces the mechanical and chemical properties of the PET. Factors such as moisture absorption, biological pollutants, oxidation, high temperature, and thermal degradation have reduced the molecular weight of PET. To improve the properties, recycled PET had been blended with Polyamide 11 (PA11) at different ratios of PET: PA11, 30:70, 50:50, and 70:30. A modified styrene/acrylic/epoxy chain extender (Joncryl) was added at 1 wt % in the blend to enhance the properties. The properties of recycled PET/PA11 blends were investigated in terms of mechanical and morphological aspects.