Plastic Compounding Market Research Report- Forecast to 2028

Total Page:16

File Type:pdf, Size:1020Kb

Plastic Compounding Market Research Report- Forecast to 2028 Report Information More information from: https://www.marketresearchfuture.com/reports/4697 Plastic Compounding Market Research Report- Forecast to 2028 Report / Search Code: MRFR/CnM/3276-CR Publish Date: August, 2018 Request Sample Price 1-user PDF : $ 4450.0 Enterprise PDF : $ 6250.0 Description: Market Overview Plastic Compounding Market is projected to be worth USD 985,743.6 million by 2028, registering a CAGR of 6.75% during the forecast period (2021 - 2028). The international manufacturing sector persists in placing an enormous requirement for polymer mixtures. As mentioned above, a fast expansion in the plastic compounding technology is witnessed as a subsequent upshot of the occurrence. Polymer blends are expected to remain a desirable industrial product as they are finding new application chances. The use of plastic compounding permits the use of polymer variants such as Polyethylene (PE), PVC (Poly Vinyl Chloride), and Polypropylene (PP) in the building of an extensive range of products. COVID-19 Analysis The conditions of buyers and sellers are changing significantly in the course of the COVID-19 crisis, which is estimated to have significant rippling effects on a macro level, especially for markets for packaging and medical applications that have coped well through the pandemic. In contrast, transactions into automotive and some durable articles such as appliances have shown strained development. Trends emerged in the pandemic, such as automakers who pivoted to providing and manufacturing ventilators in the pandemic's initial days. It is also noted that companies like LyondellBasell in the third quarter of this year saw a recovery in automotive manufacture, as OEMs resumed assembly lines and produced their vehicle backlogs. Market Dynamics Drivers Increasing Plastic Consumption In The Automotive Industry The mounting demand for fuel-efficient lightweight automotive components has opened up avenues of plastic compounding market expansion. Governments' initiatives for promoting lightweight automobiles' adoption to curb carbon emissions are expected to influence market proliferation positively. Replacement For Glass And Metals The use of the compounding techniques has led to plastic use has appeared as a viable alternative to glass and metal. Rising Demand For Light And Innovative Materials In The Packaging Industry Furthermore, the thriving packaging industry plays an essential role in the accelerated revenue generation for market players. Growth Of Key End-Use Industries The rise in plastic application in large-scale sectors such as packaging, electronics, and automotive is likely to support the global plastic compounding market's growth. Restraints Volatility In Raw Material Prices The instability in petrochemical costs is anticipated to test the plastic compounding market as the raw materials expended in plastic compounding are predominantly reliant on petrochemicals. Opportunities Growing Use Of Recycled Plastic In Various End-Use Industries The recent trend of using bio-based and recycled plastic observed in the plastic compound market has cemented the mode for advances and product portfolio developments. Segment Overview By Product The polypropylene segment captured a 31.07% share of the global plastic compounding market in 2017. The segment is assessed to record a CAGR of 6.5% throughout the assessment period. The segment's growth is credited to its elevated impact resistance, and useability has powered demand in the automotive sector. By Application The automotive segment presently reports for the leading share of the overall market. The tendency is expected to continue in the projected future. The segment is anticipated to flourish at a healthy CAGR of 7.53% throughout the forecast period. Plastic performs an integral role in producing automotive elements, which is expected to hasten the segment's development. Regional Analysis APAC Region To Display Formidable Developments The Asia Pacific reported a 47.6% share of the global market in 2017 and is expected to continue an extremely profitable market in the forecast period. The Asia Pacific is appraised to exhibit a 6.25% CAGR throughout the forecast period. The growth is linked to the upsurge in requirements from the thriving automotive industries. The exponentially growing population is inducing the consolidation of developing markets such as Thailand, India, China, and South Korea to produce prospects for plastic compounding market companies in the region. Packaging Industry To Add To Attractiveness Of European Regional Market Europe will hold the next spot globally, covering 20.8% of the plastic compounding market. The market is likely to remain highly lucrative during the projection period striking a CAGR of 5.72%. The development of the packaging industry in the region has an indispensable role in improving plastic compounding market demand. Automobile Demand To Fuel Americas Region The Americas plastic compounding market is projected to display an impressive growth section booming at a 5.17% CAGR. The factor inspiring revenue collection for market contributors in the region is augmented automotive manufacture connected with increasing demand for lightweight vehicles. Competitive Landscape The noteworthy contenders in the Plastic Compounding Market are: LyondellBasell Industries NV, SABIC, Borealis, INEOS, DuPont, BASF SE, Versalis S.p.A (Eni S.p.A), Asahi Kasei Corporation, Covestro AG, F.TER S.r.l, 3M (Dyneon GmbH), LANXESS AG, Total SA Recent Developments Dec 2020 Matrix Plastics Ltd, a market frontrunner in the coloring and compounding of plastic and other resources, has declared the founding of a new sub-brand Matrix Medical Plastics. It will operate from a purpose-built facility next to the Matrix Plastics main site, and Matrix Medical Plastics will deliver fully conforming medical compounding services to manufacturers worldwide. Dec 2020 Borealis has attained a controlling share in DYM Solution Co. Ltd, a South Korean compounder. The acquisition solidifies Borealis' position as an international supplier of wire and cable material solutions. With this investment, Borealis has extended its worldwide wire and cable asset footprint and widened its huge portfolio with complementary products and technologies for rubber, flame retardant, semi- conductive, and silane cross-linkable compounds. July 2020 Albis Plastic GmbH has accomplished its division into two separate business units. Plastics recycler Wipag and chemicals supplier Krahn Chemie also is a portion of the consortium. Benefits to the new structure include more transparent accountability for results, expenses, and quicker decision-making paths. The firm's resin distribution business will continue to operate as Albis, while its compounding unit will do business as Mocom. Both units are part of the Germany-based Otto Krahn Group. May 2020 Covestro, a materials producer, and Teknor Apex, the global plastics compounder stated they would closely join forces on compounding thermoplastic polyurethane (TPU) and have engaged in an agreement to this effect. The grouping of Covestro's know-how in TPU resin with Teknor Apex's custom preparation and compounding abilities delivers a convincing value driver for their clientele worldwide. TPU is a tremendously versatile plastic, which Covestro has produced in pure form for many years intended for many industry sectors. Report Overview By Product Polypropylene Polyethylene Polyvinyl Chloride Polyethylene Terephthalate Polystyrene Acrylonitrile Butadiene Styrene Polyamide Polycarbonate Thermoplastic Polyolefins Thermoplastic Vulcanizates Polybutylene Terephthalate Others By Application Automotive Electrical & Electronics Building & Construction Packaging Consumer Goods Industrial Machinery Solar mirror Medical Devices Optical Media Others Infographic Summary: Contents: Contents 1 Executive Summary 2 Market Introduction 2.1 Definition 20 2.2 Scope Of The Study 20 2.3 List Of Assumptions 20 2.4 Limitations 20 2.5 Market Structure 21 3 Research Methodology 3.1 Research Process 23 3.2 Primary Research 24 3.3 Secondary Research 25 3.4 Market Size Estimation 25 3.5 Forecast Model 26 4 Market Dynamics 4.1 Introduction 28 4.2 Drivers 29 4.2.1 Increasing Plastic Consumption In The Automotive Industry 29 4.2.2 Replacement For Glass And Metals 29 4.2.3 Rising Demand For Light And Innovative Materials In The Packaging Industry 30 4.2.4 Growth Of Key End-Use Industries 30 4.3 Restraint 32 4.3.1 Volatility In Raw Material Prices 32 4.4 Opportunity 33 4.4.1 Growing Use Of Recycled Plastic In Various End-Use Industries 33 4.5 Trend 33 4.5.1 Increasing Use Of Bio-Based Plastic In Various End-Use Applications 33 5 Market Factor Analysis 5.1 Supply Chain Analysis 35 5.1.1 Raw Material Suppliers 35 5.1.2 Plastic Compounding Manufacturers 35 5.1.3 Distribution Channel 36 5.1.4 End-Use Industry 36 5.2 Porter's Five Forces Analysis 36 5.2.1 Threat Of New Entrants 36 5.2.2 Threat Of Rivalry 37 5.2.3 Threat Of Substitutes 37 5.2.4 Bargaining Power Of Suppliers 37 5.2.5 Bargaining Power Of Buyers 37 6 Global Plastic Compounding Market, By Product 6.1 Polypropylene 41 6.2 Polyethylene 42 6.3 Polyvinyl Chloride 43 6.4 Polyethylene Terephthalate 44 6.5 Polystyrene 45 6.6 Acrylonitrile Butadiene Styrene 46 6.7 Polyamide 47 6.8 Polycarbonate 48 6.9 Thermoplastic Polyolefin 49 6.10 Thermoplastic Vulcanizates 50 6.11 Polybutylene Terephthalate 51 6.12 Others 52 7 Global Plastic Compounding Market, By Application 7.1 Automotive 57 7.2 Electrical & Electronics 58 7.3 Building & Construction
Recommended publications
  • Sample Pages Plastics Technology
    Sample Pages Plastics Technology Christian Bonten ISBN (Book): 978-1-56990-767-2 ISBN (E-Book): 978-1-56990-768-9 For further information and order see www.hanserpublications.com (in the Americas) www.hanser-fachbuch.de (outside the Americas) © Carl Hanser Verlag, München Preface Immediately after I started working at the University of Stuttgart in late summer 2010, I revised the course “Fundamentals of Plastics Technology” with the help of my scientific staff. Since then, this important course has been held unchanged in Stuttgart for a long time. During the revision we not only updated figures and contents, but also gave the course a new structure, which I – inspired by didactic seminars of the German University Association – consider more contemporary. Numerous film sequences used in the lectures enable the students to understand the contents more quickly and deeply. I am convinced that the students in my course become well equipped with a comprehensive, fundamental knowledge of plastics and plastics technology for their upcoming professional life. If students want to deepen their knowledge of the subject, they can do so in the three main areas of “Materials Engineering”, “Processing Technology”, and “Product Engi- neering” in other courses later on. This introductory and fundamental lecture series in Stuttgart is an elective course with four lessons per week for master students of process engineering, mechanical engineering (e. g. production engineering, automotive engineering), materials sci- ence, as well as of technology management. The course is actually aimed at techni- cally educated students, but in the meantime non-technical students (economics, environmental issues) choose the course as well.
    [Show full text]
  • (12) United States Patent (10) Patent No.: US 9,109,118 B2 Joyce Et Al
    US009 109118B2 (12) United States Patent (10) Patent No.: US 9,109,118 B2 Joyce et al. (45) Date of Patent: *Aug. 18, 2015 (54) CELLULOSIC INCLUSION 5,075.359 A * 12/1991 Castagna et al. ................ 524, 13 THERMOPLASTC COMPOSITION AND 5,346,773 A * 9/1994 Simoens ........ ... 428,476.9 5,403,667 A * 4/1995 Simoens ..... ... 428/479.6 MOLDING THEREOF 5,882,745 A * 3/1999 Miet al. .......................... 428/15 5.948,524 A 9/1999 Seethamraju et al. (71) Applicants: Innovative Plastics and Molding, 6,270,883 B1* 8/2001 Sears et al. ................. 428,292.1 Lambertville, MI (US); RheTech, Inc., 6,294,602 B1* 9/2001 Shimo et al. ... ... 524,394 6,376,584 B1 * 4/2002 Galbo et al. ....... ... 524/102 Whitmore Lake, MI (US) 6,682,789 B2 * 1/2004 Godavarti et al. .............. 428/34 6,835,764 B2 * 12/2004 Leckey et al. ................... 524/15 (72) Inventors: Robert C. Joyce, Lambertville, MI 7,862,746 B2 * 1/2011 Kaspers et al. ... ... 252/.397 (US); Andrew Hopkins, Sylvania, OH 8,122,996 B2 * 2/2012 Kajihara et al. ... ... 181,169 (US); Harutun George Karian, 8,546,470 B2 * 10/2013 Joyce et al. ..................... 524/14 Brighton, MI (US) 2003/0022962 A1* 1/2003 Cook et al. ..... ... 523, 164 2004/0122133 A1* 6/2004 Mohanty et al. ................ 524/35 2004/O126515 A1* 7, 2004 Yarmoska ...... ... 428/34.1 (73) Assignee: RHETECH, INC., Labertville, MI (US) 2005/0154094 A1* 7/2005 Maeda et al. ................... 524/35 2006/0084764 A1* 4/2006 Hanna et al. ... 525/242 (*) Notice: Subject to any disclaimer, the term of this 2006/0091578 A1* 5, 2006 Bravo et al.
    [Show full text]
  • Thermoplastic Carbon Nanotube Composites Prevent High Voltage “Burn In”
    Thermoplastic Carbon Nanotube Composites Prevent High Voltage “Burn In” RTP Company RTP Company Corporate Headquarters • 580 East Front Street • Winona, Minnesota 55987 USA website: www.rtpcompany.com • email: [email protected] • Wiman Corporation • +1 320-259-2554 TELEPHONE: U.S.A. SOUTH AMERICA MEXICO EUROPE SINGAPORE CHINA +1 507-454-6900 +55 11 4193-8772 +52 81 8134-0403 +33 380-253-000 +65 6863-6580 +86 512-6283-8383 Thermoplastic Carbon Nanotube Composites Prevent High Voltage “Burn In” Ned Bryant, Sr. Product Development Engineer RTP Company, 580 E. Front St., Winona, Minnesota, USA Telephone: +1 (507) 454-6900, Internet: www.rtpcompany.com Abstract – During a lightning strike event, lightning strike isolators are critical parts of aircraft fuel- line safety. Current technology is based on carbon fiber and carbon black filled epoxies. Recent development efforts have achieved burn-in resistant, injection moldable thermoplastics using carbon nanotube additives, capable of maintaining ESD characteristics after multiple ~10 kV DC strikes. I.) INTRODUCTION several exposures the part is no longer static dissipative, but on the contrary, rather conductive. The Boeing Company estimates that on average, This resistance to burn-in is a critical element that each airplane in service is struck by lightning twice cannot be compromised if safety of the aircraft is to per year. The energy from these strikes must be be maintained. It is also important to note that these controlled very carefully in order to avoid system isolators are deep in the structure of the aircraft wing damage. This is especially important in aircraft fuel and are therefore non-serviceable.
    [Show full text]
  • Strategicanalysisin C. Now Available Investment Opportunities In
    S T R A T E G I C A N A L Y S I S I N C. NOW AVAILABLE INVESTMENT OPPORTUNITIES IN THERMOPLASTIC COMPOUNDING IN CHINA FIRST COMPREHENSIVE ANALYSIS OF 40 POTENTIAL ACQUISITIONS, JOINT VENTURES AND ALLIANCE PARTNERS VISIT SAI’S WEBSITE FOR MORE INFORMATION www.strategicanalysis.com AUSTRALIA • BELGIUM • CHINA • INDIA • JAPAN • MEXICO • SINGAPORE • UNITED STATES BACKGROUND China has become the factory of the world and the economy is growing at substantial rates. The development of the Chinese market in the last several years has exploded and many industry segments are growing at exponential rates. As a result, companies: 1. Are rushing to position themselves to serve this rapidly growing domestic market 2. Taking advantage of the low cost of production to serve not only China and Asia, but other parts of the world 3. Positioning themselves to defend against strengthening local competition in China that if not checked will eventually spread to other parts of the world Because of China's rapid economic development, the plastic compounding industry has grown at strong double-digit rates for nearly five years and will continue to grow or exceed these rates in the next five years. Leading multinational corporations and local independents are rushing to meet this demand by adding compounding and concentrating operations to serve the specialized needs of such end-use markets as automotive, building and construction, electrical and electronics, and appliances. As Western-based customers increase their production in China to serve the local market and to export to Europe, the United States and other Asian markets, demand for higher performance compounds will also accelerate.
    [Show full text]
  • Plastic Resins in the United States
    Plastic Resins in the United States Prepared for: American Chemistry Council Plastics Division America’s Plastics MakersTM* By: American Chemistry Council Economics & Statistics Department July 2013 TABLE OF CONTENTS Plastics By the Numbers................................................................................................................................ 1 Section 1 – About Plastic Resins ................................................................................................................... 2 Resin Chemistry ............................................................................................................................... 2 A History of Plastics Innovation ....................................................................................................... 4 Section 2 – US Resin Industry Snapshot ........................................................................................................ 6 Industry Shipments .......................................................................................................................... 7 Jobs and Payroll ............................................................................................................................... 8 Investment ....................................................................................................................................... 9 Trade .............................................................................................................................................. 10 Transportation
    [Show full text]
  • The Interfacial Role of Compatabilizers to Improve Mechanical Properties Of
    0BPhysicochem. Probl. Miner. Process. 46(2011) 295-305 journal homepage Hwww.minproc.pwr.wroc.pl/journal/ Ayman A. EL-MIDANY *, Suzan S. IBRAHIM ** INTERFACIAL ROLE OF COMPATABILIZERS TO IMPROVE MECHANICAL PROPERTIES OF SILICA– POLYPROPYLENE COMPOSITES Received May 10, 2010; reviewed; accepted July 30, 2010 Polymers have tremendous applications from household to high technology applications. The polymers are easy to produce, light, and flexible. However, mechanical properties of polymers, in some industries, is a point of its weakness. Therefore, a mineral, as a bulk filler, was used to overcome this limitation and to reduce the cost of polymer composites and their manfacturing. In this study, the silica flour was introduced into the polypropylene (PP) matrix to enhance its mechanical properties. In addition, the styrene-ethylene/butylene-styrene (SEBS) triblock copolymer and its grafted maleic anhydride (SEBS-g-MA) were used as silica/ PP compatibilizers. The results showed an improvement in mechanical properties after the addition of silica to the PP matrix. However, silica addition led to drop in strain measures. On the other hand, the addition of the compatibilizer enhances the interfacial bonding and smoothen the transfer of the stresses between filler particles and the polymeric matrix. keywords: polymers, silica, polypropylene, mechanical properties, fillers 1. INTRODUCTION Minerals represent the most important filling materials. Their advantages are twofold; firstly, as functional filler because the mineral addition is incorporated to achieve a specific performance attribute to the end-product. While in the second case the mineral represents merely a bulk filler or an extender for the costly polymer base matrix (Trivedi et al., 1994; Lee, 2000; DeArmitt, 2000; Nielsen, 1974; Lindsey et al., 1974; Haddout, 1992; Chuang et al., 1985; Leidner et al., 1974).
    [Show full text]
  • Effect of Triblock-Copolymeric Compatibilizing Addidtives on Improving the Mechanical Properties of Silica Flour -Filled Polypropylene Composites
    Physicochemical Problems of Mineral Processing, 42 (2008), 165-176 Fizykochemiczne Problemy Mineralurgii, 42 (2008), 165-176 Suzan S. Ibrahim*, Ayman A. El-Midany* EFFECT OF TRIBLOCK-COPOLYMERIC COMPATIBILIZING ADDIDTIVES ON IMPROVING THE MECHANICAL PROPERTIES OF SILICA FLOUR -FILLED POLYPROPYLENE COMPOSITES Received May 15, 2008; reviewed; accepted July 31, 2008 Minerals are introduced during the compounding processes into the polymeric host matrix in most thermoplastics industries to accomplish a variety of modified physical characteristics to the new-born composites. The introduction of well-dispersed silica flour particulates; tailored with respect to grade and fineness; into the virgin polypropylene matrix has shown an extreme improvement in the per- formance characteristics of the end-product. This could be attributed to the relatively low thermal ex- pansion coefficient of silica. In this study, purified silica flour was blended with polypropylene to produce the finished masterbatch formulation for plastics industry. The flour was added during com- pounding stage with different loading levels from 1.5% to 15% by volume. Results showed substan- tial improving in many physical properties, i.e., increase in Young’s modulus, impact strength, and yield stress measures. Moreover, silica addition resulted drop in all strain measures of the end prod- ucts with various loading levels. On the other-hand, the addition of styrene-ethylene/butylene-styrene block SEBS and its grafted maleic anhydride surface compatibilizers was extra added during the blend digestion process to enhance silica/ PP wettability. After the addition of SEBS compatible re- agent, results did not show improving in both Young’s modulus and yield strength measures. Yet, remarkable improvement in impact strength and strain characters was noticed.
    [Show full text]
  • Plastic Compounding, Masterbatches, Pet and Other Plastic Processing Industries
    PLASTIC COMPOUNDING, MASTERBATCHES, PET AND OTHER PLASTIC PROCESSING INDUSTRIES •Polyethylene •Extrusion •Injection Moulding •Blow Moulding •Polyvinyl Chloride •Polyesterterephthalate (Pet) •Rotational Moulding •Post Extrusion Process •Vacuum Metallizing •IDentification of Plastic Materials •Recycling an Industrial Approach •Additives for Polymers •Get Virgin Quality From Reprocessed •speciality Additives and Masterbatches •PVC Compounding •Compounding of PVC Pastes •Expanded Polyethylene •Expanded Polystyrene •Speciality Plastic Compounds and Masterbatches •PVC Compound •Polymer Alloys, Blends & Composites •XLPE Cable Compound, Jelly Filled Telecommunication Cable Compound and Sheating Compound •Thermoplastic Rubber (Elastomer) Compound •Masterbatches •Production and Filling Process of a PET Bottle •PET Bottle Recycling •PET Preform and Bottle Blowing •PET Bottles from Pre Form PET •Plant Economics of PET Bottles from Pre Form PET •PET Pre Form PET Resin •Project Profile for Pet Strech Blow Moulding Machine •Automobile Injection Moulded Plastic Components •Colour Master Batch for Various Plastics •Compact Disk •Co-Extruded Multilayer Film and Laminated Multilayer Film •Egg Trays From Plastics •Ethylene Vinyl Acetate Sheet and Sole •Polypropylene Multifilament Spinning Yarn •Plastic Films and Sheets with Printing (Flexo and Roto) LDPE/HDPE/PP/HM/PVC •Plastic Granules From Fresh Resin •Plastic Injection Moulding Products •Plastic Mat •Pet Bottles from Pre-Form (Capsules) •Pet Pre Form Pet Resin •PVC Pipes & Fittings •PVC Extrusion Profiles
    [Show full text]
  • High Performance Compounding
    Smart Feeding & Application Example Conveying Solutions High Performance Compounding Introduction The production of plastic consists a continuous, uniform infeed with Electronics, Furniture, Health & allows formulations with reduced of many important process steps, very tight short-term accuracy and Hygiene, Leisure & Sport, Packag- wax content or no wax at all. This which are needed to generate a ho- repeatability. ing, Pipes, Textiles, etc. means that high performance mogeneous application specific compounding technology not only plastic compound from a number Typical Production Output Masterbatch benefits productivity and quality of different raw materials. Twin screw compounders are With high performance com- but also contributes to reduced equipped with different screw pounding technology, the time- raw material costs. Process diameters from 25 up to 150 mm consuming step of fine grinding The compounding process is a in various steps depending on the of pellets and premixing in batch Engineering Plastics continuous process. The main manufacturer of the compounder. quantities can be eliminated. Compounding and pelletizing of steps in the compounding process The typical line rates range from Pigments are fed directly into engineering plastics (i.e. filling, are: 50kg/h up to 6’000 kg/h. the melt by means of gravimetric reinforcing, alloying, colouring conveying feeders. Pigment concentrations and degassing of PA, PP, PET, ABS, End-Product Industries up to 70 percent are possible. PUR, PC or POM) are the specialty plasticizing/melting
    [Show full text]
  • Clean from Start to Finish
    CLEAN COMPOUNDING | PROCESSING Whether for medical, pharma or for engineering applications, demand for high cleanliness compound production is on the rise. Peter Mapleston learns more PHOTO: POLYCOMPOUND PHOTO: Clean from start to finish Mention cleanrooms to most plastics engineers Apex facility at St Albans, in Vermont in the US, Main image: and it is likely they will think of pharmaceutical where the company produces its Medalist medical Swiss toll production, manufacturing of medical and elec- thermoplastic elastomers (the company also has a compounder tronic devices, possibly plastics injection moulding, line dedicated to Medalist compounds in Singa- Polycompound but almost certainly not compounding. It is simply pore). “The adherence to CGMP protocols during reports not a term that is used much in the compounding line clearances ensures each recipe is free from growing business – but perhaps it should be. The reality is foreign materials,” he says (CGMP refers to the demand for its that if a processor working in a field such as Current Good Manufacturing Practice regulations clean com- medical does not start with a clean compound it is enforced by the FDA in the US and which provide for pounding capa- very unlikely they will be able to produce a clean systems that assure proper design, monitoring, and bilities from syringe or similar device. To coin a phrase from the control of manufacturing processes and facilities). customers in computer industry: garbage in, garbage out. “The St Albans facility has a strong commitment the high As it happens, there is plenty of expertise to the needs of our customers and incorporates performance around covering clean compounding.
    [Show full text]
  • High Performance Compounding
    Application Example High Performance Compounding Introduction Typical Production Masterbatch Engineering Plastics The production of plastic con- With high performance com- Compounding and pelletizing sists of many important process Output pounding technology, the time- of engineering plastics (i.e. steps, which are needed to gen- Twin screw compounders are consuming step of fine grind- filling, reinforcing, alloying, erate a homogeneous applica- equipped with different screw ing of pellets and premixing colouring and degassing of PA, tion specific plastic compound diameters from 25 up to 150 in batch quantities can be PP, PET, ABS, PUR, PC or POM) from a number of different raw mm in various steps depend- eliminated. Pigments are fed are the specialty of high perfor- materials. ing on the manufacturer of the directly into the melt by means mance compounders. compounder. The typical line of gravimetric feeders. Pig- rates range from 50kg/h up to Process ment concentrations up to 70 6’000 kg/h. The compounding process is a percent are possible. Compared continuous process. The main with the old premix feeding steps in the compounding pro- End-Products method, the new process allows cess are: Automotive, Building & Con- formulations with reduced wax content or no wax at all. This > conveying struction, Appliances & House- wares, Electronics, Furniture, means that high performance > plasticizing/melting Health & Hygiene, Leisure & compounding technology not > mixing Sport, Packaging, Pipes, Tex- only benefits productivity and quality but
    [Show full text]
  • Plastic Compounding Market Forecast & Competitive Share, 2017
    Plastic Compounding Market Forecast & Competitive Share, 2017 - 2024: Global Market Insights, Inc. Global Plastic Compounding Market size is projected to witness a significant growth between 2017 and 2024. Compounding of plastic is done to convert the base resin in a desired plastic form that is more usable, effective and uniform. Upsurge in the market is observed owing to its multiple and varied applications in end use industries such as automotive, electrical & electronics, and construction. Plastic components are preferred over metals in automobiles owing to their easy moldability, superior impact strength, scratch resistance, better aesthetics, light weight and recyclability. With the use of plastic components in the automobiles there is a weight saving of nearly 75% and 30% in cost savings of automobile components. Reasons to Buy This Report: 1. Plastic Compounding Market size & share forecast by product & application 2. Growth drivers, pitfalls & industry challenges 3. Key Plastic Compounding Market growth opportunities & emerging business models 4. Competitive benchmarking with market share analysis and company profiles 1 | P a g e Browse Full Plastic Compounding Market Report Summary@ https://www.gminsights.com/industry-analysis/plastic-compounding-market Based on product type, the market is segmented as polystyrene, polyamides, polycarbonate, olefins, thermoplastic polyolefins, polyethylene terephthalate, and PVC. On the basis of application, the market is divided into composites, insulation materials, floorings, storage tanks, vehicle exterior panels, and vehicle interior trims. Asia Pacific accounts for significant market share in terms of volume in the global plastic compounding market. Booming construction activities in India, China, and South Korea is contributing substantially in consumption of plastic compounds such as olefins.
    [Show full text]