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市场调查报告书
商品编码
1675047
全球工程塑胶市场:成长、未来展望与竞争分析(2025-2033)Engineering Plastics Market - Growth, Future Prospects and Competitive Analysis, 2025 - 2033 |
预计 2024 年工程塑胶市场价值将达到 1,132 亿美元,预计 2033 年将达到近 2,002 亿美元,2025 年至 2033 年的复合年增长率为 6.54%。工程塑胶具有的物理特性使其能够在结构应用、恶劣的机械应力和宽的温度范围内长期有效地发挥作用。工程塑胶通常用于製造机器零件、建造容器和包装各种物质。工程塑胶比金属和陶瓷轻得多,因此被广泛用作这些材料的替代品。此外,它具有优异的承载能力、机械强度、热稳定性和寿命,可实现灵活的设计。聚砜、聚酰胺 (PA)、聚碳酸酯 (PC)、丙烯腈丁二烯苯乙烯 (ABS) 和丙烯腈丁二烯苯乙烯 (PA) 是一些常用的技术塑胶 (PSU)。
政府对生物基工程塑胶的有利要求
由于旨在降低排放水平和提高燃油经济性的法规越来越严格,各种工程塑胶正在取代汽车中的金属。目标商标产品製造商( OEM )正在这样做以遵守这些法规。最近的突破导致了一系列工程塑胶的生物基等级的出现。这些生物基等级产品现已上市。预计工程塑胶市场的扩张将受到这些因素的推动。 PLA、PHA 和 PET 等生物基工程塑胶在包装、食品服务、袋子、农业等领域有着广泛的应用。对生物基材料製成的产品的需求正在上升,越来越多的供应商向市场提供生物基工程塑胶。
对电动和混合动力汽车的需求为该市场的新进入者创造了机会
随着工程塑胶的需求不断增长,以及这些材料的新应用不断增多,该行业由于其多功能性已经吸引了大量参与者。竞争日趋激烈,加上工程塑胶市场本来就高度分散,显示出当前市场的需求多么旺盛。
原物料价格波动
对于工程塑胶而言,原物料价格波动导致的成本上升预计将成为市场扩大的阻碍因素。这是因为工程塑胶是由原料製成的。由于工程塑胶的性能较为先进,且聚合物的製造较为复杂,因此工程塑胶的总成本较高。工程塑胶可分为三类:由此直接导致的结果是,工程塑胶价格高企预计将减缓该产业的成长。
按塑胶类型细分的市场
预计聚甲醛(POM)部分在预测期内将达到最高的年复合成长率,为 12.21%。甲醛聚合会产生一种称为聚缩醛的工程塑料,通常也称为聚甲醛 (POM)。聚缩醛具有优异的机械性能、热性能、化学性能和电气性能,并且耐高温、耐溶剂和耐磨。此外,它们还具有广泛的电气性能。其优异的电气性能以及对多种溶剂的耐受性使其成为电气应用的理想材料。聚甲醛的特性使其非常适用于工业机械、电气和电子设备、汽车、运输设备以及消费品,有助于工程塑胶产业的扩张。
按应用程式细分市场
到 2033 年,汽车和运输领域预计将占据 33% 的最大市场占有率。在汽车工业中,工程塑胶有多种用途,包括内部和外部组件、马达车组、底盘、电气元件和引擎盖下部件。应用包括仪表板、保险桿、座椅、车身面板、燃油系统、内装、引擎盖下组件、车灯、外部、储液器、内装等。目前,环境和经济问题导致对轻质工程塑胶的需求增加,预计这将推动所分析行业的市场成长。
区域洞察
预计亚太地区将占据工程塑胶市场的最大份额。预计到 2033 年亚太地区将占据最大的市场占有率38%。由于中国、日本和印度等国家的需求不断增长,区域市场正在迅速扩张。中国是亚太地区最利润丰厚的工程塑胶市场,而印度预计将成为该地区乃至全球成长最快的市场。随着汽车、电气电子产业的扩张、半导体製造业以及电视机和其他消费性电子产品的出口,对工程塑胶的需求大幅增加。
预测期内,主要参与者之间的竞争将愈演愈烈
工程塑胶市场竞争处于中高等水平,并由大公司主导。BASF、科思创公司、索尔维公司、塞拉尼斯公司、杜邦公司、LG 化学公司、沙乌地基础工业公司、赢创工业公司、朗盛公司、三菱工程塑胶公司和帝斯曼公司是该市场上最强大的竞争对手。世界各地的研究人员正在努力开发能够使塑胶製造过程更容易的最尖端科技。这可能有利于未来预期时期的市场成长。
In 2024, the size of the engineering plastics market was estimated to be US $113.2 billion, and it is anticipated that the total revenue will expand at a CAGR of 6.54% from 2025 to 2033, reaching almost US $200.2 billion by 2033. Plastics used in engineering are those that have physical qualities that allow them to function effectively for extended periods of time in structural applications, across a broad temperature range, while being subjected to mechanical stress, and in challenging chemical and physical conditions. In the manufacturing of mechanical parts, container construction, and the packaging of various substances, engineering plastics are typically utilised. Due to the fact that they are far lighter than both metal and ceramic, they have found widespread application as a favoured alternative to the former. In addition to this, they offer great load capacity, mechanical strength, thermal stability, and longevity, as well as flexible design options. Polysulphone, polyamides (PA), polycarbonates (PC), acrylonitrile butadiene styrene (ABS), and acrylonitrile butadiene styrene (PA) are some examples of the several types of technical plastics that are frequently utilised (PSU).
Favourable government mandates for bio-based grades of engineering plastic
Metals are being replaced in automobiles by a variety of engineering plastics as a result of increasingly rigorous laws aimed at lowering emission levels and increasing fuel economy. OEMs (Original Equipment Manufacturers) are doing this in response to these regulations. Recent breakthroughs have led to the creation of bio-based grades of various engineering plastics. These bio-based grades are now available. It is anticipated that the expansion of the engineering plastics market would be driven by these factors. Applications for bio-based engineered plastics such as PLA, PHA, and PET have found a tremendous breadth of use in the packaging, food service ware, bag, and agricultural industries. There is a growing demand for products derived from bio-based materials, which has led to an increase in the number of sellers who offer bio-based engineering plastics on the market.
Need for electric and hybrid vehicles presents opportunity for the new entrants in this market
Because of the growing need for engineering plastics and the plethora of new applications for these materials, this industry already has a significant number of participants due to the fact that it is so versatile. an increasing number of global and local players in each nation. This increase in competition, when combined with the high level of market fragmentation that already exists for engineering plastics, is symptomatic of how desirable the market now is.
Fluctuation in raw material prices
It is projected that the high costs of engineering plastics, which are caused by variations in the costs of raw materials, will be an impediment to the expansion of the market for engineering plastics. This is due to the fact that engineering plastics are made from raw materials. Both the more advanced properties of engineering plastics and the more complicated production of those polymers contribute to the higher total cost of engineering plastics. Engineering plastics can be broken down into three categories: As a direct consequence of this, it is projected that the high price of engineering plastics will slow down the growth of the industry.
Market Segmentation by Plastic Type
The polyacetals (POM) segment is anticipated to experience the largest compound annual growth rate of 12.21% during forecast period. Formaldehyde polymerization results in the production of an engineering plastic known as polyacetal, which is also frequently referred to as polyoxymethylene (POM). It has great mechanical, thermal, chemical, and electrical capabilities and is resistant to high temperatures, solvents, and abrasion. Additionally, it has a wide range of electrical properties. Because it is resistant to a wide variety of solvents in addition to having great electrical qualities, it is an ideal material for use in applications involving electricity. Polyoxymethylene's properties make it ideally suited for application in industrial machinery, electrical and electronic equipment, automotive and transportation, as well as consumer items, which contributes to the expansion of the engineering plastics industry.
Market Segmentation by End-use
It is anticipated that the automotive and transportation segment would hold the greatest market share of 33% by the year 2033. In the automotive industry, engineering plastics are used for a variety of applications, including interior and exterior furnishings, motor trains, chassis, electrical components, and objects found under the hood. It is utilised in the construction of components like as dashboards, bumpers, seats, body panels, fuel systems, interior trim, under-bonnet components, lights, external trim, liquid reservoirs, and upholstery. It is anticipated that current environmental and economic concerns will lead to an increase in demand for lightweight engineering plastic, which, in turn, would boost market growth in the industry that has been analysed.
Regional Insights
The Asia Pacific region is anticipated to hold the largest share of the engineering plastics market. It is anticipated that the Asia Pacific region will hold the greatest market share of 38% by the year 2033. The markets in the region are expanding at a rapid rate as a direct result of the rising levels of demand coming from countries such as China, Japan, and India. It is anticipated that China will constitute the most lucrative market for engineering plastics in the Asia Pacific and India will be the market with the quickest growth rate in both the region and the world. As a result of the expansion of the automotive, electrical, and electronics sectors, as well as the fabrication of semiconductors and the export of televisions and other consumer appliances, there has been a significant increase in the demand for engineering plastics.
Competition to Intensify Among the Key Players During the Forecast Period
The market for engineering plastics is moderate to highly competitive and dominated by large companies. The companies BASF SE, Covestro AG, Solvay S.A., Celanese Corporation, DuPont, LG Chem, SABIC, Evonik Industries, Lanxess, Mitsubishi Engineering-Plastics Corporation, DSM N.V. are among the most significant competitors in this market. Researchers from all over the world are focusing their efforts on the development of cutting-edge technologies that will make the process of creating plastics more straightforward. Because of this, the growth of the market during the period of time that is expected to follow will benefit.
Historical & Forecast Period
This study report represents an analysis of each segment from 2023 to 2033 considering 2024 as the base year. Compounded Annual Growth Rate (CAGR) for each of the respective segments estimated for the forecast period of 2025 to 2033.
The current report comprises quantitative market estimations for each micro market for every geographical region and qualitative market analysis such as micro and macro environment analysis, market trends, competitive intelligence, segment analysis, porters five force model, top winning strategies, top investment markets, emerging trends & technological analysis, case studies, strategic conclusions and recommendations and other key market insights.
Research Methodology
The complete research study was conducted in three phases, namely: secondary research, primary research, and expert panel review. The key data points that enable the estimation of Engineering Plastics market are as follows:
Research and development budgets of manufacturers and government spending
Revenues of key companies in the market segment
Number of end users & consumption volume, price, and value.
Geographical revenues generated by countries considered in the report
Micro and macro environment factors that are currently influencing the Engineering Plastics market and their expected impact during the forecast period.
Market forecast was performed through proprietary software that analyzes various qualitative and quantitative factors. Growth rate and CAGR were estimated through intensive secondary and primary research. Data triangulation across various data points provides accuracy across various analyzed market segments in the report. Application of both top-down and bottom-up approach for validation of market estimation assures logical, methodical, and mathematical consistency of the quantitative data.