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レポート概要
| 本資料は、3Dプリント材料の世界市場について調べ、3Dプリント材料の世界規模、市場動向、市場環境、タイプ別（プラスチック、フォトポリマー、金属、セラミック）分析、プロセス技術別（光造形装置装置（SLA）・デジタル光処理（DLP）、フィラメント溶解製法（FFF）、インクジェット印刷、粉末床溶解結合法（PBF）、その他）分析、エンドユーザー別分析、アメリカ市場規模、ヨーロッパ市場規模、アジア市場規模、日本市場規模、中国市場規模、産業バリューチェーン分析、関連企業情報などをまとめた調査レポートです。 ・イントロダクション ・エグゼクティブサマリー ・3Dプリント材料の世界市場インサイト ・3Dプリント材料の世界市場環境 ・3Dプリント材料の世界市場動向 ・3Dプリント材料の世界市場規模 ・3Dプリント材料の世界市場規模：タイプ別（プラスチック、フォトポリマー、金属、セラミック） ・3Dプリント材料の世界市場規模：プロセス技術別（光造形装置装置（SLA）・デジタル光処理（DLP）、フィラメント溶解製法（FFF）、インクジェット印刷、粉末床溶解結合法（PBF）、その他） ・3Dプリント材料の世界市場規模：エンドユーザー別 ・3Dプリント材料の世界市場：地域別市場規模・分析 ・3Dプリント材料の北米市場規模・予測 ・3Dプリント材料のアメリカ市場規模・予測 ・3Dプリント材料のヨーロッパ市場規模・予測 ・3Dプリント材料のアジア市場規模・予測 ・3Dプリント材料の日本市場規模・予測 ・3Dプリント材料の中国市場規模・予測 ・3Dプリント材料のインド市場規模・予測 ・関連企業情報・競争状況 |
The 3D printing materials market is expected to register a CAGR of 28.55%, during the forecast period (2018 – 2023). The scope of the market covers various holistic solutions offered by the leading vendors of the market. The scope is limited to the end-user applications in the industrial segment.
With rapid advances in materials such as polymers and metals, 3D product manufacturing is evolving from prototyping to becoming a functional part of fabrication. New materials, shorter lead time and innovative finishes, while adhering to standards such as FDA, ASTM and ISO, are also enabling this technology to be integrated into manufacturing processes and supply chains. Further, the decreased prices for 3D materials and machines, coupled with growing expertise and awareness has increased the availability of and demand for these materials.
Increased investments in R&D to develop improved software and technology, coupled with the introduction of new combinations of printing materials are expected to spur the development of new equipment and applications, bolstering the growth of 3D printing materials market.
Demand for Light Weight Construction in Automotive and Aerospace Industry
Lightweight construction, flexibility in design & fabrication and energy conservation have spurred the demand for high-performance construction processes and materials across the aerospace and automotive industries. 3D additive manufacturing makes this design-driven construction a reality, enabling the production of complex structures that are stable, strong, lightweight, and offer capabilities beyond traditional subtractive manufacturing techniques. In the automotive landscape, owing to the of demand for high-strength parts to endure the rigors of high-speed racing, as well as the need to build complex geometries, and light weight construction, the automotive market giant Lamborghini hired Stratasys to design and print 3D automotive parts and components further, major market players in the aerospace industry, such as Boeing and Airbus have invested into developing 3D manufacturing-based airplane components and parts. For instance, Airbus hired Solid Concepts Inc. to design and produce 3D manufacturing-based titanium parts for structural components on a commercial aircraft, 787 Dreamliner aircraft. Also, with the added benefits of eliminating the need for custom tooling and design, the 3D production-based technology delivers cost-effective, on-demand, low volume as well as full batch production, making it an attractive alternative for the manufacture of aircrafts and automobiles. This has been a major driving force for the adoption of 3D printing materials.
Plastics to Hold the Largest Market Share
Plastics are widely used in the industry owing to many advantages such as cost-efficiency, ease of manufacture, etc., and a variety of material properties offered by the change in composition. Aerospace, medical and automotive industries lead the market for 3D printing materials. Plastics are used in the form of thermoplastics and many other polymers, such as Acrylonitrile butadiene styrene (ABS) Polylactic acid (PLA) Polyvinyl alcohol (PVA) Polycarbonate for many applications, such as the manufacture of prototypes hearing aids, etc. Industrial 3D printing manufacturing and materials are seeing a shift from prototype to production, indicating increasing industrialization with an increase in efficiency and reliability of the manufacturing process. In the medical industry, especially with dental applications, such as the prototyping of teeth was done by a clay modeled plastic, which can now be done by an orthodontist through a 3D scan of the teeth and create a model by 3D manufacturing. The number of applications in the medical field are also escalating with more than 15 million hearing aids printed and various printed dental appliances from aligners to crowns. All these factors have driven the adoption of plastic as a 3D printing material market.
United Kingdom to Hold the Second Largest Market in Europe
The UK government is making huge investments for developing 3D printing’s potential in aerospace, by investing EUR 100 million into a new research center in Coventry, as well as launching a competition, giving USD 10 million funding to aerospace firms. This is driving the companies to increasingly use 3D manufacturing. Applications such as printing aircraft wings and parts in microgravity are foreseeable in the future. The UK is investing in 3D manufacturing R&D to maintain its place at the forefront of innovation in the global aerospace market. The concentration of the UK’s higher education sector into 3D manufacturing needs to be more broadly recognized; primarily, the capabilities that have been developed through the support of Engineering and Physical Sciences Research Council support for innovative manufacturing. The impact on the plant locations of 3D manufacturing is diverse ranging from reducing costs and becoming more competitive with 3D printing. Because of the short and less effort-intensive value chain, companies perceive 3D product manufacturing as a chance to re-shore manufacturing back to western countries. This expectation is highest in the United Kingdom, with more than 60% of the population anticipating this change.
Key Developments
• September 2017 – Mcor Technologies Ltd announced that it is increasing its sales channels with the addition of new distributors across the United Kingdom, Germany, France, China, Taiwan and Korea. To meet strong demand for its printers, the company is ramping up staffing levels in the United States, Ireland and Korea, by 30% over the next six months.
• May 2017 – EOS partnered with Incodema3D, a leader in direct metal 3D printing, to grow their EOS machine portfolio by 50%. Incodema3D’s most recent investment – two EOS M 290s and one EOS M 400, will join its existing portfolio of six EOS M 280s – providing its customers expanded production capabilities, enabling them to further capitalize on market opportunities with the latest in additive manufacturing technology.
Major Players: 3D SYSTEMS, ARCAM AB, ENVISIONTEC, EOS GMBH, EXONE GMBH, MCOR TECHNOLOGIES LTD, MATERIALISE NV, OPTOMEC, STRATASYS LTD, HOGANAS AB, CONCEPT LASER AND RENISHAW, amongst others.
Reasons to Purchase this Report
• Current and future 3D printing materials market outlook in the developed and emerging markets
• Analyzing various perspectives of the market with the help of Porter’s five forces analysis
• The type of material and end-users that are expected to dominate the market
• Regions that are expected to witness fastest growth during the forecast period
• Identify the latest developments, market shares and strategies employed by the major market players
• 3 month analyst support, along with the Market Estimate sheet (in excel)
Customization of the Report
• This report can be customized to meet your requirements. Please connect with our representative, who will ensure you get a report that suits your needs.
レポート目次1. Introduction
1.1 Scope of the Study
1.2 Executive Summary
2. Research Methodology
2.1 Study Deliverables
2.2 Study Assumptions
2.3 Research Methodology
2.4 Research Phases
3. Market Analysis
3.1 Market Overview
3.2 Industry Attractiveness – Porter’s Five Force Analysis
3.2.1 Bargaining Power of Suppliers
3.2.2 Bargaining Power of Buyers
3.2.3 Threat of New Entrants
3.2.4 Threat of Substitute Products
3.2.5 Competitive Rivalry
3.3 Value Chain Analysis
4. Market Dynamics
4.1 Market Drivers
4.1.1 Demand for Light Weight Construction in Automotive and Aerospace Industry
4.2 Market Restraints
4.2.1 Lack Of Skilled Workforce
5. Industry Policies
6. Technology Snapshot
7. Global Process Automation Market Segmentation
7.1 By Type
7.1.1 Plastics
7.1.2 Photopolymers
7.1.3 Metals
7.1.4 Ceramics
7.2 By Process Technology
7.2.1 Stereolithography Apparatus (SLA) & Digital Light Processing (DLP)
7.2.2 Fused Filament Fabrication (FFF) Processes
7.2.3 Jet printing
7.2.4 Powder Bed Fusion (PBF) Processes
7.2.5 Other processes
7.3 By End-User
7.3.1 Aerospace
7.3.2 Architecture
7.3.3 Automotive
7.3.4 Military
7.3.5 Healthcare
7.3.6 Others
7.4 By Geography
7.4.1 North America
7.4.1.1 United States
7.4.1.2 Canada
7.4.2 Europe
7.4.2.1 United Kingdom
7.4.2.2 Germany
7.4.2.3 France
7.4.2.4 Italy
7.4.2.5 Rest of Europe
7.4.3 Asia-Pacific
7.4.3.1 China
7.4.3.2 India
7.4.3.3 Japan
7.4.3.4 Others
7.4.4 Latin America
7.4.4.1 Brazil
7.4.4.2 Mexico
7.4.4.3 Argentina
7.4.4.4 Rest of Latin America
7.4.5 Middle East and Africa
7.4.5.1 UAE
7.4.5.2 Saudi Arabia
7.4.5.3 Israel
7.4.5.4 South Africa
7.4.5.5 Rest of Middle East and Africa
8. Competitive Intelligence
8.1 3D Systems
8.2 Arcam AB
8.3 EnvisionTEC
8.4 EOS Gmbh
8.5 ExOne
8.6 Mcor Technologies Ltd
8.7 Materialise NV
8.8 Optomec
8.9 Stratasys Ltd
8.10 Hoganas AB
8.11 Concept Laser
8.12 Renishaw
9. Investment Analysis
10. Future of the Market