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市场调查报告书
商品编码
1284260
到 2028 年的增材製造市场预测——按材料类型(合金、陶瓷、金属、塑料、其他材料类型)、技术、软件、应用、最终用户和地区进行的全球分析Additive Manufacturing Market Forecasts to 2028 - Global Analysis By Material Type (Alloys, Ceramics, Metals, Plastics and Other Material Types), Technology, Software, Application, End User and By Geography |
根据 Stratistics MRC 的数据,全球增材製造市场预计将在 2022 年达到 169 亿美元,并在 2028 年达到 713 亿美元,复合年增长率为 27.1%。
减材製造从大量材料中去除多余的材料,这与增材製造不同。 在工业界,术语“增材製造”通常指的是 3D 打印。 使用3D打印机和3D打印机软件,指的是3D文件,是一种通过分层材料来创建模型对象的方法。 根据应用,从各种技术中选择合适的技术。
根据 Sculpteo 的一项调查,41% 的公司确认增材製造可以帮助他们更高效地完成任务,同时改进流程。 受近期生物基材料兴起的推动,59% 的用户希望使用更具可持续性的材料。
由于增材製造产品的性能,航空航天是使用增材製造产品的行业之一,轻型和环保型增材製造材料被用于飞机部件。 在快速发展的医疗领域,增材製造产品的使用使医生、患者和研究机构都受益匪浅。
使用激光粉末床熔合进行增材製造,可以製造出以前昂贵或难以製造的复杂几何形状。 然而,激光粉末床熔合法也有其缺点。 它们包括难以拆除的支撑结构和薄壁、高纵横比的部件,这些部件在施工过程中可能会破裂,从而限制市场扩张。
汽车和航空航天行业必须满足各种相互关联的技术和财务目标,例如功能性能、缩短交货时间、轻量化设计、成本控制以及安全关键部件的可用性。我有。 为满足需求,需要直接提高经济技术性能,如降低油耗、提高技术性能、减轻结构重量等,对,并增加收益。
根据所需的应用,增材製造设备的资本成本很高。 此外,引入增材製造的一个障碍是缺乏合格的专业人员。 这些因素鼓励最终用户继续使用传统机器。 此外,各国对新技术的采用率较低。 结果,这些限制阻碍了市场扩张。
COVID-19 在多个应用中的爆发阻碍了增材製造的发展。 世界各国政府都采取了封锁措施来阻止这种疾病的传播。 这导致了供应和运输限制、基础设施延误以及製造业务放缓。 因此,增材製造在世界范围内越来越不受欢迎。 这些参与者的製造和供应链设施遍布多个国家。 增材製造材料的需求和供应链受到大流行的巨大影响。
据估计,立体光刻领域因其易于操作而获得有利可图的增长。 最古老和最广泛使用的印刷技术之一是立体光刻。 还有许多其他优点可以促进这项技术的使用。 然而,技术的进步以及研究人员和行业专业人士正在进行的深入研究和开发工作已经为各种有效和可靠的技术创造了希望。
由于其优势,原型製造领域有望在预测期内以最快的复合年增长率增长。 原型技术被广泛应用于各个业务领域和行业。 原型製作是汽车、航空航天和国防公司用来製造精密零件、组件和復杂系统的常用技术。 原型製作使製造商能够创建可靠的最终产品并提高准确性。
由于製造业扩张和人口增长,预计亚太地区在预测期内将占据最大的市场份额。 在该地区,业务随着新兴国家的经济增长而扩大。 航空航天工业使用增材製造来製造复杂的发动机部件。 随着政府重点推广增材製造在工业中的应用,预计该市场将会增长。
由于国际公司的投资增加,预计北美在预测期内的复合年增长率最高。 由于技术进步、跨行业引入机器学习和人工智能等新方法以增强自动化以及研发资源的有效利用,预计该市场在预测期内也将增长。
2021 年 11 月,Optomec Inc. 宣布推出两款新的增材製造机器,专用于大规模生产并配备机器人零件处理功能。
2021年11月,Stratasys Ltd.宣布丹麦製鞋公司ECCO将采用Stratasys Origin one 3D打印技术,使用汉高乐泰树脂材料製成的3D打印模具和鞋楦进行工艺测试,宣布提供abstract shoe标本进行早期分析,加快产品开发。
According to Stratistics MRC, the Global Additive Manufacturing Market is accounted for $16.9 billion in 2022 and is expected to reach $71.3 billion by 2028 growing at a CAGR of 27.1% during the forecast period. The subtractive method of manufacture, which calls for removing extra material from a block of material, differs from additive manufacturing. In industrial settings, the term "additive manufacturing" typically refers to 3D printing. Using a 3D printer and 3D printer software, additive manufacturing entails adding material layer by layer to create an object while referring to a three-dimensional file. Depending on the application, a suitable technology for additive manufacturing is chosen from the pool of options.
According to a survey by Sculpteo, 41% of the companies confirm that Additive Manufacturing has helped them complete their task more efficiently while improvising their process. 59% of users desire to use more sustainable materials, driven by the increasing number of bio-based materials in recent years.
Aerospace was one of the industries that used additive manufacturing products for their performance, and lightweight, environmentally resilient additive manufacturing materials are used for aeroplane parts. Doctors, patients, and research institutes all benefit greatly from the use of additive manufacturing products in the quickly developing medical sector.
Complex and complicated shapes can now be built utilising additive manufacturing with the laser powder-bed fusion technique that was previously prohibitively expensive or difficult to produce. However, there are drawbacks to laser powder-bed fusion. It contains support structures that are hard to remove and pieces with thin walls and high aspect ratios that could fail during construction, which could limit market expansion.
The automotive and aerospace industries need to achieve a wide range of interrelated technical and financial goals, including functional performance, lead time reduction, lightweight design, cost control, and supply of safety-critical components. In order to satisfy demand, reduce fuel consumption, improve technical performance, and make lighter structures, which are all directly related to improving economic and technical performance, the airline industry must carry more payloads, which increases revenue.
Based on the required applications, the capital cost of an additive manufacturing equipment is expensive. Additionally, a barrier to the adoption of additive manufacturing is a lack of qualified specialists. These elements have encouraged end users to continue using traditional machines. In addition, the countries have a poor adoption rate of new technologies. As a result, these constraints are impeding the market's expansion.
The desire for additive manufacturing is being hampered by the COVID-19 outbreak in several applications. Lockdown measures have been implemented by governments in many different nations around the world to stop the disease's spread. As a result, supply and transportation constraints, a delay in infrastructure development, and a slowdown in manufacturing operations have all occurred. As a result, additive manufacturing is becoming less popular all over the world. These players' manufacturing and supply chain facilities are dispersed throughout several nations. The demand and supply chain for additive manufacturing materials have been significantly impacted by the pandemic.
The stereolithography segment is estimated to have a lucrative growth, due to ease of operations. One of the earliest and most widely used printing techniques is stereolithography. There are a number of other benefits that are promoting the use of the technology. However, technological advancements and the intensive R&D initiatives being undertaken by researchers and industry experts are creating prospects for a number of different effective and dependable technologies.
The prototyping segment is anticipated to witness the fastest CAGR growth during the forecast period, due to its advantages. The prototype technique is widely employed in a variety of business sectors and industries. Prototyping is a common technique used by companies in the automotive, aerospace, and defence sectors to manufacture exact parts, components, and intricate systems. Manufacturers can build trustworthy final goods and attain improved precision through prototyping.
Asia Pacific is projected to hold the largest market share during the forecast period owing to the expanding manufacturing sector, as well as growing population. Businesses in the region are expanding as a result of emerging economies like. To produce intricate engine parts, the aerospace industry uses additive manufacturing. The market is expected to grow as a result of the government's emphasis on promoting the use of additive manufacturing in the industrial industry.
North America is projected to have the highest CAGR over the forecast period, owing to rise in investments by various international companies. Additionally, the market is anticipated to grow during the forecast period due to technological advancements, the implementation of novel approaches like machine learning and artificial intelligence across all industries to enhance automation, and the efficient use of R&D resources.
Some of the key players profiled in the Additive Manufacturing Market include Nano Dimension Ltd., EnvisionTEC GmbH, Materialise NV, Hewlett-Packard Development Co., L.P., EOS GmbH, Arcam AB, General Electric Co., 3D Systems Corporation, SLM Solutions Group AG, ExOne Co., Stratasys Ltd., Optomec Inc., Mcor Technologies Ltd, Optomec Inc. and Materialise NV.
In November 2021, Optomec Inc. has introduced two new additive manufacturing machines that are specifically built for large scale production and include robotic part-handling capabilities.
In November 2021, Stratasys Ltd. announced that ECCO, a Danish shoe company, is using Stratasys Origin one 3D printing technology to speed up product development by providing abstract footwear specimens to be analysed early in the process using 3D printed mould and lasts made with Henkel Loctite resin materials.
Note: Tables for North America, Europe, APAC, South America, and Middle East & Africa Regions are also represented in the same manner as above.