Polyolefin Foam Market was valued at USD 8.11 Billion in 2021, and it is expected to reach USD 12.26 Billion by 2029, exhibiting a CAGR of 5.3 % during the forecast period (2022-2029) Polyolefins, which include polyethylene (PE), polypropylene (PP), and their derivatives, are the most important polymer family in terms of production and consumption and are thus classified as commodity polymers. Because of their inexpensive cost and a wide variety of characteristics, they have a wide range of uses. They are great polymers for foams because of their superb blend of hardness, flexibility, and resilience to chemicals and abrasion. Polyolefin foams are composed of many materials that are combined in a kneading process with an organic blowing agent and a cross-linking agent. Polyolefin resin is created by thermally decomposing it in a closed environment. Polyolefin is a broad term that refers to any compound derived from an olefin monomer. Polyolefins are classified according to the type of olefin utilized. Polyolefin foams are manufactured using a broad range of processing processes, including extrusion, injection, and compression moulding. Foaming of polyolefins normally happens in three key processes, regardless of technique: nucleation, cell development and stability. To know about the Research Methodology:- Request Free Sample Report
Polyolefin Foam Market DynamicsRise in Deployment of Renewable Energy Across the World to drive Polyolefin Foam Market Many nations are working on sustainable development and increasing the percentage of renewable energy consumption and generation in overall energy consumption and generation. Because of enormous expenditures to satisfy climate change targets, European countries are at the forefront of the renewable energy market. Germany, Sweden, Spain, and Italy are among the countries. European governments are helping to boost the renewable energy sector. With the emphasis moving toward the development of renewable energy, the demand for polyolefins has expanded, since these polyolefin-based goods find use in numerous appliances used to manufacture renewable energy infrastructure or equipment. Advanced Polyolefin Group Facing the Automotive Challenge and Creating Growth Opportunities in Polyolefin Foam Market Polypropylene, which includes a series of improved reactor thermoplastic olefins (TPOs) and compounded grades, provides novel answers to a variety of difficulties confronting the automotive industry today. Polypropylene's flexibility and low cost enable cost-effective and novel design solutions that improve passenger safety and comfort. The lower density of PP adds to better fuel economy and cheaper raw material costs. Furthermore, the inherent enhanced noise, vibration, and harshness (NVH) qualities of PP contribute to increased passenger comfort. As a result, PP has become the most significant thermoplastic material in automobiles, accounting for more than 50 kg per car on average. The amount of polyolefin materials utilized by the automobile sector has steadily increased over the previous two decades. Technological advancements that significantly broaden the property range of polyolefins are driving this development. The primary goal of a bumper system is to limit the damage by absorbing kinetic energy, so reducing the load imparted to the underlying vehicle body. As a result, bumper systems have evolved into intricately designed systems. Automobile manufacturers pioneered the use of polyolefins in a variety of automotive-related applications. Polypropylene-based materials are now utilized to make more than 90% of all bumpers in big corporations. This is expected to drive the Polyolefin Foam Market growth during the forecast period. Low-Density Polyolefin Packaging Foams to Drive Polyolefin Foam market Companies are actively forming joint ventures and investing in the development of improved low-density packing foams. In the cushion packaging sector, including computer and anti-static packing applications, case inserts, and automobile material handling, these low-density packaging foams offer price/performance benefits. As a result of advanced technology developed by companies for the production of ultra-low-density polyolefin foams, the market for polyolefin packaging foams has grown significantly, replacing not only higher-density polyethylene foams but also dissimilar materials such as resilient moulded bead foams and polyurethane foams. Thus, low-density polyolefin packaging foams are expected to drive the growth of Polyolefin Foam Market during the forecast period. For example, Sentinel Polyolefins, a Pactiv joint venture, and Pactiv Corp. (formerly Tenneco Packaging) have announced the creation of a global marketing and technology development collaboration for innovative low-density packaging foams. SenFlex-H914, the first commercial product, is believed to be the world's first polyolefin packing foam with a density of less than 1.0 pcf. At only 0.9 pcf (14kg/m3), the H914 material outperforms standard polyethylene foams and polyurethane foams that are more than twice as dense. SenFlex is a physically blown foam material made feasible by Dow's Index Interpolymers, a novel thermoplastic polymer family enabled by INSITE Technology. Meeting New VOC Emission Requirements to Pose a Challenge for Polyolefin Foams Market and Polyolefin Foams Manufacturers Restrictive rules and growing worries about the environmental impact of tiny plastic beads will slow the polyolefin foam industry's development pace. The rising awareness of the detrimental impacts of plastic on the environment is expected to create significant hurdles for polyolefin foam manufacturers. For example, with increased health awareness both internationally and in China, various research on how to manage automobile cabin air quality has been conducted in recent years to prevent the principal categories of dangerous volatile organic compounds (VOC) material in the vehicle cabin. The State Environmental Protection Administration of China (SEPA) issued regulation GB/T 27630-2011, a guideline for passenger automobile air quality evaluation, in 2007. This regulation is quite likely to become mandatory and hence influence global regulation. Lack of Melting Strength Expected to Restraint Polyolefin Foams Industry Growth Melt strength is defined as the resistance to extensional flow above the polymer's melting point. Melt strength is determined by molecular weight and long-chain branching. Long chain branches are introduced or created to increase melt strength and drawability, with the entanglement of the branched polymer chain giving rise to better melt strength and drawability. Polyolefins' inability to achieve sufficient melt strength qualities has historically prohibited them from being used effectively in foam applications. PE flexible foams, which employ a blowing agent with or without cross-linking to enhance strength, are mostly used for light-duty cushioning, protective packaging, and limited insulation (sound and roof insulation). Thus, lack of melting strength is expected to restraint Polyolefin Foams Market growth during the forecast period.
Polyolefin Foam Market Segment AnalysisPolyolefin Foam Industry Based on Resin Type, the polyethylene segment dominated the polyolefin foam market in 2021 and is expected to grow at a CAGR of 5.4% during the forecast period. Polyethylene foam is a low-density, chemically cross-linked closed-cell material that may be improved by adding additives and modifiers to get the desired output. Polyethylene-based foams are lightweight, flexible and resistant to thermal insulation. Polyethylene-based polyolefin foams are used in an automobile for interior and exterior body components, bumpers, body panels, trims, dashboards, door claddings, climate control, and many more applications. The increased production of automobiles will increase demand for the Polyolefin Foam market. According to the International Organization of Motor Vehicle Manufacturers, global vehicle production will grow by 3% in 2021, with automotive production estimated to be around 5,70,54,295 units and commercial vehicle production estimated to be around 2,30,91,693 units. As a result, the rise in vehicle manufacturing has demonstrated that polyethylene is a favoured choice over alternative polyolefin foam resins, propelling its segmental growth. Polyolefin Foam Industry Based on End-Use Industry, the automotive industry held the largest polyolefin foam market share in 2021 and is estimated to grow at a CAGR of 4.9% during the forecast period. Polyolefin foam, which is composed of polypropylene and ethylene vinyl acetate resins, has excellent thermal insulation properties and is widely used in automobile shockproof pads, waterproof door panels, headrests and car door handrails, car sun visors, sealing tape, marine bumpers and buoys, and gaskets. The increased output of electric cars in the automotive industry is driving the polyolefin foam business. According to the International Energy Agency, electric car sales in Europe will climb by 70% to 2.3 million in 2021, with plug-in hybrids accounting for over half of the total. With the increased manufacturing of electric cars, it is expected that the need for polyolefin foam in the automotive sector would increase in the future years.
Polyolefin Foam Market Regional InsightsAsia-Pacific region dominated the global polyolefin foam market in 2021 with the highest market share. Asia-Pacific region is expected to dominate the polyolefin foam industry during the forecast period. Growing automobile manufacturing demand in countries such as China, Japan, and India is one of the primary reasons driving demand for polyolefin foam in the Asia-Pacific region, which is estimated to increase demand for polyolefin foam in the region. The building industries of China, India, the United States, and Indonesia are expected to increase significantly in the future years. China will account for 26.1% of world growth on its own. India is estimated to account for 14.1% of global growth, the US for 11.1%, and Indonesia for 7.0%, which will fuel demand for polyolefin foam in the region thanks to the application of polyolefin foams in the building and construction sector. According to EV Volumes, in 2021, out of a total of 6.75 million EVs across the world, around 3.4 million, or almost 50%, were sold to mainland China. China is still the world's top manufacturer of automobiles. China is concentrating on growing domestic manufacturing and sales of electric cars. The Chinese car sector was impacted by economic upheavals and the trade war between the United States and China. In India, 4,399,112 automobiles were produced in 2021, a 30% increase over the previous year. Japan is the world's third-largest automaker, manufacturing 7,846,955 automobiles in 2021, a figure that is predicted to rise further in 2022. Because of all of these reasons, the region's polyolefin foam market is expected to increase steadily over the forecast period.
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Polyolefin Foam Market Base Year 2021 Forecast Period 2022-2029 Historical Data CAGR Market Size in 2021 Market Size in 2029 2017 to 2021 5.3% US$ 8.11 Bn US$ 12.26 Bn Segments Covered by Resin Type • Ethylene Vinyl Acetate(EVA) • Polyethylene(PE) • Polypropylene(PP) by End-Use Industry • Automotive • Construction • Packaging • Others by Technology • Extrusion Foaming • Injecting Moulding Foaming • Blown Moulding Foaming • Beads Foaming • Others Regions Covered North America • United States • Canada • Mexico Europe • UK • France • Germany • Italy • Spain • Sweden • Austria • Rest of Europe Asia Pacific • China • S Korea • Japan • India • Australia • Indonesia • Malaysia • Vietnam • Taiwan • Bangladesh • Pakistan • Rest of APAC Middle East and Africa • South Africa • GCC • Egypt • Nigeria • Rest of ME&A South America • Brazil • Argentina • Rest of South America
Manufacturing Leaders in the Global Polyolefin Foam Market are:• Armacell (US) • Polymer Technologies Inc. (US) • Rogers Corporation (US) • Dow Inc (US) • Sekisui Voltek (US) • Pregis LLC (US) • Johnson Controls (US) • Woodbridge Foam Corporation (Canada) • Arkema S.A. (France) • Knauf Industries (France) • BASF SE (Germany) • Covestro AG (Germany) • Zotefoams plc (UK) • Sekisui Alveo AG (Switzerland) • Recticel (Belgium) • Borealis AG (Austria) • NMC SA (Luxembourg) • DAFA A/S (Denmark) • Synthos (Poland) • JSP Corporation (Japan) • Mitsui Chemicals (Japan) • Toray Industries (Japan) • Cygtefa (CTF) (China) • Reliance Industries Limited (India) • KK NAG Ltd. (India) • SABIC (Saudi Arebia) Frequently Asked Questions: 1] Which physical foaming agent (gas) is the best in PP foam production? Ans. The optimal physical foaming agent is determined by the intended foam. Hydrocarbons such as iso- or n-butane are utilized in the creation of low-density foams, whilst inert gases such as supercritical CO2 or N2 are employed in the manufacturing of foams with densities of more than 200 kg/m3. 2] Can a chemical foaming agent be used with Daploy HMS PP? Ans. Yes. There are several different masterbatches for chemical foaming that may be employed in PP foaming. In the manufacture of high and medium density foams, chemical foaming agents are more commonly used. 3] What is the minimum and maximum thickness of the foams produced using Daploy HMS PP in extrusion foaming? Ans. The thinnest foams are 700-800 m thick. Depending on the foam density and cooling capability of the line, the foams can be up to 10 mm thick or even somewhat thicker. The difficulty in producing thick foams is stabilising (cooling down) the foam core to minimise foam collapse. 4] Which die type is recommended: flat die or annular die? Ans. Flat dies can be used in production of extruded foams with densities down to about 200 kg/m3. Annular dies are recommended if the foam target density is lower. 5] Why are the foam properties different in machine and transverse directions? Ans. In most circumstances, there will be some cell orientation during foam creation, either in the machine or transfer direction. As a result, the mechanical characteristics of the foam vary in various directions. By optimising foam nucleation and production settings, the situation can be improved.
1. Global Polyolefin Foam Market Size: Research Methodology 2. Global Polyolefin Foam Market Size: Executive Summary 2.1. Market Overview and Definitions 2.1.1. Introduction to Global Polyolefin Foam Market Size 2.2. Summary 2.2.1. Key Findings 2.2.2. Recommendations for Investors 2.2.3. Recommendations for Market Leaders 2.2.4. Recommendations for New Market Entry 3. Global Polyolefin Foam Market Size: Competitive Analysis 3.1. MMR Competition Matrix 3.1.1. Market Structure by region 3.1.2. Competitive Benchmarking of Key Players 3.2. Consolidation in the Market 3.2.1 M&A by region 3.3. Key Developments by Companies 3.4. Market Drivers 3.5. Market Restraints 3.6. Market Opportunities 3.7. Market Challenges 3.8. Market Dynamics 3.9. PORTERS Five Forces Analysis 3.10. PESTLE 3.11. Regulatory Landscape by region • North America • Europe • Asia Pacific • The Middle East and Africa • South America 3.12. COVID-19 Impact 4. Global Polyolefin Foam Market Size Segmentation 4.1. Global Polyolefin Foam Market Size, by Resin Type (2021-2029) • Ethylene Vinyl Acetate(EVA) • Polyethylene(PE) • Polypropylene(PP) 4.2. Global Polyolefin Foam Market Size, by End-Use Industry (2021-2029) • Automotive • Construction • Packaging • Others 4.3. Global Polyolefin Foam Market Size, by Technology (2021-2029) • Extrusion Foaming • Injecting Moulding Foaming • Blown Moulding Foaming • Beads Foaming • Others 5. North America Polyolefin Foam Market (2021-2029) 5.1. North America Polyolefin Foam Market Size, by Resin Type (2021-2029) • Ethylene Vinyl Acetate(EVA) • Polyethylene(PE) • Polypropylene(PP) 5.2. North America Polyolefin Foam Market Size, by End-Use Industry (2021-2029) • Automotive • Construction • Packaging • Others 5.3. North America Polyolefin Foam Market Size, by Technology (2021-2029) • Extrusion Foaming • Injecting Moulding Foaming • Blown Moulding Foaming • Beads Foaming • Others 5.4. North America Polyolefin Foam Market, by Country (2021-2029) • United States • Canada • Mexico 6. Europe Polyolefin Foam Market (2021-2029) 6.1. Europe Polyolefin Foam Market, by Resin Type (2021-2029) 6.2. Europe Polyolefin Foam Market, by End-Use Industry (2021-2029) 6.3. Europe Polyolefin Foam Market, by Technology (2021-2029) 6.4. Europe Polyolefin Foam Market, by Country (2021-2029) • UK • France • Germany • Italy • Spain • Sweden • Austria • Rest of Europe 7. Asia Pacific Polyolefin Foam Market (2021-2029) 7.1. Asia Pacific Polyolefin Foam Market, by Resin Type (2021-2029) 7.2. Asia Pacific Polyolefin Foam Market, by End-Use Industry (2021-2029) 7.3. Asia Pacific Polyolefin Foam Market, by Technology (2021-2029) 7.4. Asia Pacific Polyolefin Foam Market, by Country (2021-2029) • China • India • Japan • South Korea • Australia • ASEAN • Rest of APAC 8. Middle East and Africa Polyolefin Foam Market (2021-2029) 8.1. Middle East and Africa Polyolefin Foam Market, by Resin Type (2021-2029) 8.2. Middle East and Africa Polyolefin Foam Market, by End-Use Industry (2021-2029) 8.3. Middle East and Africa Polyolefin Foam Market, by Technology (2021-2029) 8.4. Middle East and Africa Polyolefin Foam Market, by Country (2021-2029) • South Africa • GCC • Egypt • Nigeria • Rest of ME&A 9. South America Polyolefin Foam Market (2021-2029) 9.1. South America Polyolefin Foam Market, by Resin Type (2021-2029) 9.2. South America Polyolefin Foam Market, by End-Use Industry (2021-2029) 9.3. South America Polyolefin Foam Market, by Technology (2021-2029) 9.4. South America Polyolefin Foam Market, by Country (2021-2029) • Brazil • Argentina • Rest of South America 10. Company Profile: Key players 10.1. Armacell (US) 10.1.1. Company Overview 10.1.2. Financial Overview 10.1.3. Global Presence 10.1.4. Capacity Portfolio 10.1.5. Business Strategy 10.1.6. Recent Developments 10.2. Polymer Technologies Inc. (US) 10.3. Rogers Corporation (US) 10.4. Dow Inc (US) 10.5. Sekisui Voltek (US) 10.6. Pregis LLC (US) 10.7. Johnson Controls (US) 10.8. Woodbridge Foam Corporation (Canada) 10.9. Arkema S.A. (France) 10.10. Knauf Industries (France) 10.11. BASF SE (Germany) 10.12. Covestro AG (Germany) 10.13. Zotefoams plc (UK) 10.14. Sekisui Alveo AG (Switzerland) 10.15. Recticel (Belgium) 10.16. Borealis AG (Austria) 10.17. NMC SA (Luxembourg) 10.18. DAFA A/S (Denmark) 10.19. Synthos (Poland) 10.20. JSP Corporation (Japan) 10.21. Mitsui Chemicals (Japan) 10.22. Toray Industries (Japan) 10.23. Cygtefa (CTF) (China) 10.24. Reliance Industries Limited (India) 10.25. KK NAG Ltd. (India) 10.26. SABIC (Saudi Arebia)