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市场调查报告书
商品编码
1359003
2030 年 3D 列印市场预测:按产品、製程、技术、用途、最终用户和地区进行的全球分析3D Printing Market Forecasts to 2030 - Global Analysis By Product, Process, Technology, Application, End User and By Geography |
根据Stratistics MRC的数据,2023年全球3D列印市场规模为209.8亿美元,预计预测期内年复合成长率为25.3%,到2030年将达到1017.7亿美元。
3D 列印或积层製造是根据 CAD 或数位3D 模型建立三维物件。为了创建 3D 项目,需要使用积层製造流程来建构材料层。他们从电脑辅助设计 (CAD) 软体中获取数位绘图,将其转换为薄的数位水平截面,然后逐层构建,直到模型完成。它为独特的建筑形式、施工方法和材料的创造、设计和实施提供了丰富的机会。这是一种尖端、快速、敏捷的产品生产方式。
根据《有趣的工程》杂誌的报导报道,雪梨新南威尔斯大学的工程师发表了一篇论文,他们成功开发了一种名为F3DB 的3D 生物列印设备,可以将多层生物材料直接转移到组织和内臟器官的表面上..
3D 列印从概念上和物理上彻底改变了汽车的製造方式。汽车可以使用 3D 列印来生产特殊且独特的零件,例如内装、仪表板零件,甚至根据特定客户要求生产独特的外部特征。将可以根据需要製造备件,不再需要庞大的仓库来存放各种零件。我们帮助製造商创新并在快速变化的市场中保持竞争力。汽车产业对 3D 列印的依赖正在推动该产业的成长。
涉及混合材料和技术的产品(例如电路基板)的 3D 列印仍在扩展。儘管这项技术代表了该过程的重大进步,但可使用的材料仍有限制。此外,没有标准化测试来检查所用材料的机械品质(强度、韧性、刚度、硬度),这会影响 3D 列印创建的物件的准确性和可重复性。因此,3D 列印的材料表征和标准化阻碍了需求。
世界各国政府正在发起倡议并资助教育机构、研究机构以及研究和技术组织,以进一步探索 3D 列印技术提供的可能性并促进其发展。随着 3D 列印技术新用途的出现,世界各地的行业和政府都对 3D 列印产生了兴趣。美国、英国和加拿大製定了国家计划来支持大学水平的 3D 列印研究、推广该技术并培育新创公司。
由于技术突破、成本降低、行业接受度以及创新和颠覆的潜力,3D 列印已成为各个领域有吸引力的投资领域。因此,技术投资不断增加。这包括设备、软体、材料、认证、积层製造教育和人力资源开发的支出。 3D 系统需要更多的资源和资本成本来建立。因此,据报道,高昂的初始成本是采用该技术的最大障碍。
COVID-19大流行的爆发对整个全球经济以及3D列印领域产生了重大影响。整体停工正在影响 3D 列印产业的生产。该国的物流和供应链已完全中断,据说这是劳动力短缺的原因。疫情第一季、二季度,3D列印停产对市场成长产生了负面影响。疫情过后,用途增多,市场需求逐渐增加。
软体领域预计将出现良好成长。设计软体通常用于汽车、航太和国防、建筑和工程行业,为要列印的专案创建设计。印表机硬体和设计软体协同工作来创建所生产的产品。这一类别的需求预计将受到储存物件扫描影像(无论其尺寸和尺寸如何)的能力的推动,从而实现这些产品的按需 3D 列印。
选择性雷射烧结(SLS)领域预计将在预测期内实现最快的年复合成长率。选择性雷射烧结(SLS)是一种基于粉末的增材製造技术,利用雷射提供的能量熔化和熔合粉末,将它们逐层构建起来,以根据3D模型资料列印零件的形式。 SLS 3D 列印机由高功率雷射结构,可熔化小颗粒聚合物粉末。该领域的扩张是由强大的雷射烧结、柔性材料、高精度和高解析度驱动的。
预计亚太地区在预测期内将占据最大的市场占有率。该地区 3D 列印在原型製作和先进製造领域的使用显着增加。中国是最大的家用电器和汽车生产国之一。中国的技术开拓也是刺激市场的重要要素。政府的努力、强大的研发能力以及外国直接投资(FDI)正在推动其崛起。快速都市化和消费性电子製造的主导地位要素推动了该地区对 3D 列印的需求。
美国和加拿大是北美国家在各种製造流程中较早采用这些技术的例子。该地区拥有许多积层製造行业公司,在增材製造方面拥有强大的技术力。各领域的投资和合作也在该地区层出不穷。此外,不断变化的消费者偏好和日益增长的客製化需求正在推动成长,从而产生了创建可使用 3D 列印技术实现的灵活錶带和电子系统的需求。
According to Stratistics MRC, the Global 3D Printing Market is accounted for $20.98 billion in 2023 and is expected to reach $101.77 billion by 2030 growing at a CAGR of 25.3% during the forecast period. 3D printing or additive manufacturing is the creation of a three-dimensional object from a CAD model or a digital 3D model. To make a 3D item, layers of material are built up in an additive process. It takes digital drawings from computer-aided design (CAD) software and turns them into thin, digital, horizontal cross-sections that are built up layer by layer until the model is finished. It provides an abundance of chances for the creation, design, and implementation of unique architectural shapes, building methods, and materials. It is a cutting-edge, quick, and agile way for producing products.
According to an article by Interesting Engineering, engineers at the University of New South Wales, Sydney, published a paper wherein they successfully developed a 3D bio-printed device, F3DB, which can directly transfer multi-layered biomaterials on the surface of the tissues and internal organs.
3D printing has transformed the way that automobiles are created, both conceptually and physically. Automakers are able to use 3D printing to build specialized and unique parts, such as interior trims, dashboard components, and even distinctive external aspects based on the desires of specific customers. It makes it possible to produce spare parts as needed, eliminating the need for massive warehouses to keep a variety of components. In a market that is changing quickly, it is assisting manufacturers in remaining inventive and competitive. The automobile sector's reliance on 3D printing is boosting industry growth.
3D printing of products with mixed materials and technology, such as circuit boards, is still under expansion. Although the technique represents a significant advancement in procedure, the materials that may be employed are still constrained. Additionally, the absence of standardized testing to confirm the mechanical qualities (strength, toughness, stiffness, and hardness) of the materials employed affects the accuracy and repeatability of the objects created by 3D printing. As a result, the demand is being hampered by material characterization and standardisation for 3D printing.
Governments all around the world are launching initiatives and providing financing to educational institutions, research facilities, and research and technology organizations to further study the possibilities offered by 3D printing technology and promote its growth. Industrialists and governments all around the world are becoming interested in 3D printing as new applications for the technology emerge. National programmes have been put in place in the US, UK, and Canada to support university-level 3D printing research, promote technology, and foster the creation of start-ups.
3D printing has become an appealing area for investment across a wide range of sectors as a result of technological breakthroughs, cost reductions, industry acceptance, and the potential for innovation and disruption. This has resulted in increased investments in the technology. It includes spending money on gear, software, materials, certification, education in additive manufacturing, and personnel training. A 3-dimensional system requires a lot of resources and capital expenses to set up. As a result, the biggest barrier to the adoption of this technology is reported to be high initial costs.
The COVID-19 pandemic outbreak has had a major effect on the world economy as a whole and, therefore, the 3D printing sector. The whole lockout has an impact on 3D printing industry production. The nation's logistics and supply chain have been completely disrupted, which is blamed for this together with the labour deficit. In the first and second quarters of the epidemic, the suspension of 3D printing output negatively affected market growth generally. After the epidemic, there were an increasing number of applications, which gradually increased market demand.
The software segment is estimated to have a lucrative growth. In the automotive, aerospace and defence, construction and engineering industries, design software is frequently used to create the designs of the items that will be printed. The hardware of the printer and design software work together to create the items that will be produced. Demand for the category is anticipated to be driven by its capacity to save scanned pictures of things, regardless of their dimensions or size, enabling 3-dimensional printing of these products as needed.
The selective laser sintering (SLS) segment is anticipated to witness the fastest CAGR growth during the forecast period. Selective laser sintering (SLS) is a powder-based additive manufacture technology that uses energy provided by the laser to melt and fuse the powders and then stack layer by layer to form a printed part based on 3D model data. SLS 3D printers comprise of a high-powered laser to fuse small particles of polymer powder. The segment's expansion is being fuelled by its powerful laser sintering, flexible materials, high precision, and high resolution.
Asia Pacific is projected to hold the largest market share during the forecast period. The use of 3D printing for prototype and advanced production has significantly increased in the region. One of the biggest producers of consumer electronics and automobiles is China. Technology development in China is another significant market-stimulating driver. The rise has been spurred by government efforts, robust research and development capabilities, and foreign direct investment (FDI). Rapid urbanization and dominance on consumer electronics manufacturing are further factors boosting 3D printing demand in the area.
North America is projected to have the highest CAGR over the forecast period, owing to the widespread implementation of additive manufacturing The U.S. and Canada are two examples of North American nations that were among the leading and early users of these technologies in a variety of manufacturing processes. Many additive manufacturing industry companies with solid technical competence in additive manufacturing methods are based in this region. The region is also witnessing a series of investments and collaborations in various sectors. Also, changing consumer preferences and a rising need for customization have bought about a need to create flexible bands and electronics systems that could be realized using 3D printing technology, thereby driving its growth.
Some of the key players profiled in the 3D Printing Market include: 3DCeram, Canon Inc., Arcam AB, 3D Systems Inc., EnvisionTec, Autodesk, Inc., GE Additive, Dassault Systemes, ExOne, Materialise NV, Electro Optical Systems GmbH, Shapeways Inc, Organovo Holdings, HP Inc, Desktop Metal Inc, Proto Labs, Optomec, Voxeljet AG, Tiertime and Stratasys Limited.
In March 2023, Materialise collaborated with Exactech, which is a developer of innovative instrumentation, implants, and other smart technologies for joint replacement surgery, to provide advanced treatment alternatives for patients with severe shoulder defects.
In February 2023, Stratasys collaborated with Ricoh USA, Inc. to offer on-demand 3D-printed anatomic models for clinical settings. Under this agreement, Stratasys' patient-specific 3D solutions integrated with its 3D printing technology; the cloud-based segmentation-as-a-service solution from Axial3D, a medical technology manufacturer; and precision additive manufacturing services from Ricoh combined to develop a single, convenient solution.
In February 2023, Desktop Metal launched Einstein Pro XL, an affordable, high-accuracy, high-throughput 3D printer ideal for dental labs, orthodontists, and other medical device manufacturers.
Note: Tables for North America, Europe, APAC, South America, and Middle East & Africa Regions are also represented in the same manner as above.