Metal Powders for Additive Manufacturing Market was valued US$ 930.96 Mn. in 2021 and is expected to grow US$ 1874.15 Mn. by 2029, at a CAGR of 9.14% during the forecast period. The report study has analyzed revenue impact of COVID-19 pandemic on the sales revenue of market leaders, market followers and market disrupters in the report and same is reflected in our analysis.Metal Powders for Additive Manufacturing Market Overview:
The additive manufacturing with metal powder is used for creating objects and substances by adding materials layer by layer in a variety of ways, depending on the manufacturing technique used. Additive manufacturing with metal powder is available in several types with alloy, stainless steel, precious metal, and others. Additive manufacturing with metal powder is mostly used in aerospace, automotive, medical, oil & gas applications.To know about the Research Methodology :- Request Free Sample Report
Metal Powders for Additive Manufacturing Market Dynamics:
The growing applications of additive manufacturing with metal powders in several medical applications reduced production time and mass customization of additive manufacturing with metal powders, and multi-functionality of additive manufacturing with metal powders. Also, the demand for additive manufacturing with metal powders in automotive and aerospace applications, and an increase in R&D in metal powders, are the factors expected to boost the market growth. Moreover, growing medical and pharmaceutical industries, increasing government investments in additive manufacturing with metal powders, and adoption of different technology in additive manufacturing with metal powders, are expected to create opportunities for the manufacturers in the global market over the forecast period. Leading the development of manufacturing metals parts with metal powders has been the aerospace industry, which expects to consume about $150 million in 3D metal powders by 2020. Aerospace has been the pioneer for metal additive manufacturing in high-value applications. The supply chain for metal powders for additive manufacturing is potentially robust, as production processes for metal powders have been utilized for decades, with hundreds of thousands of tons of powder being supplied to manufacturers across the globe each year. The future is very promising for metal powders for use in 3D printing, but, as wide investment in R&D for self-monitoring and reporting in metal 3D printers is taking place. This will lead to quicker qualification of metal parts printed via additive manufacturing in high-value applications. On the other hand, volatile prices of raw materials, stringent government regulations about the use of materials are expected to hinder the growth of the global additive manufacturing with metal powders market in the upcoming years.Metal Powders for Additive Manufacturing Market Segment Analysis:
By material type, the alloy segment accounts for the largest market share of the global market and is expected to grow at a CAGR of around xx% during the forecast period. Because of the rising demand for alloy due to cheaper, easily moldable, and formable and used in numerous applications, such as automotive components, hearing aids, prototyping, and surgical guides. The manufacturers 3D Systems Corporation, Matsuura Machinery Corporation, and Hoeganaes Corporation are largely investing in the development of alloy, which expected the lead the market in the coming years.
Metal Powders for Additive Manufacturing Market Regional Insights
Region-wise, North America held the largest market share of the metal powders for the additive manufacturing market in 2018 and expected to maintain its dominance over the forecast period (2021-2029). The rapid consumption of additive manufacturing with metal powders in several end-user industries, growing development metal industry, and growing miniaturization of electronic devices in several industries are the key driving factor for the region in the global market. Also, the well-established R&D centers and the rise in several manufacturers and a strong economy to support research funding are expected to improve the market growth in the global metal powders for the additive manufacturing market in the future. The growing demand for customized metal manufacturing in countries, such as the US, Canada, and Mexico, are expected to improve the market growth in the global metal powders for the additive manufacturing market during the forecast period. Europe is expected to hold the second-largest market in the global market during the forecast period. The growing medical industry, development of new medical and aerospace devices, growing automobile industry, and increase in production base, rising numerous additive manufacturers are expected to augment the market growth in the global metal powders for the additive manufacturing market during the forecast period. Asia-Pacific is expected to hold the highest CAGR in the global market during the forecast period. The growing medical device industry, increase in innovation and development in additive manufacturing, rapid industrialization, growing foreign direct investment, the rising production base of medical device and automotive component industry, is expected to boost the market growth in the global metal powders for the additive manufacturing market in the future. The objective of the report is to present a comprehensive analysis of the Global Metal Powders for Additive Manufacturing Market including all the stakeholders of the industry. The past and current status of the industry with forecasted market size and trends are presented in the report with the analysis of complicated data in simple language. The report covers all the aspects of the industry with a dedicated study of key players that includes market leaders, followers and new entrants. PORTER, SVOR, PESTEL analysis with the potential impact of micro-economic factors of the market have been presented in the report. External as well as internal factors that are supposed to affect the business positively or negatively have been analyzed, which will give a clear futuristic view of the industry to the decision-makers. The report also helps in understanding Global Metal Powders for Additive Manufacturing Market dynamics, structure by analyzing the market segments and project the Global Metal Powders for Additive Manufacturing Market size. Clear representation of competitive analysis of key players by type, price, financial position, Product portfolio, growth strategies, and regional presence in the Global Metal Powders for Additive Manufacturing Market make the report investor’s guide.Scope of the Global Metal Powders for Additive Manufacturing Market: Inquire before buying
Global Metal Powders for Additive Manufacturing Market Report Coverage Details Base Year: 2021 Forecast Period: 2022-2029 Historical Data: 2017 to 2021 Market Size in 2021: US $ 930.96 Mn. Forecast Period 2022 to 2029 CAGR: 9.14% Market Size in 2029: US $ 1874.15 Mn. Segments Covered: by Manufacturing Technique • Powder Bed • Blown Powder • Others by Material Type • Alloy • Stainless Steel • Others by Application • 3D Printing • Rapid Prototyping • Direct Digital Manufacturing (DDM) Metal Powders for Additive Manufacturing Market, by Region
• North America • Europe • Asia Pacific • Middle East & Africa • South AmericaMetal Powders for Additive Manufacturing Market Key Players are:
• GKN Plc. • Rio Tinto • Hitachi Chemical Co., Ltd. • ATI Powder Metals • Sandvik AB • Renishaw plc. • Praxair Technology Inc. • Arconic Inc. • Miba AG • Hoganas AB • Metaldyne Performance Group Inc. • BÖHLER Edelstahl GmbH & Co KG • Carpenter Technology Corporation • Aubert & Duval • 3D Systems Corporation • Matsuura Machinery Corporation • Hoeganaes Corporation • Sandvik Group • Shaanxi Hengtong Intelligent Machine Co., Ltd. • Praxair Surface Technologies • Cookson Precious Metals Ltd Frequently Asked questions 1. What is the market size of the Global Metal Powders for Additive Manufacturing Market in 2021? Ans. The market size Global Metal Powders for Additive Manufacturing Market in 2021 was US$ 930.96 Billion. 2. What are the different segments of the Global Metal Powders for Additive Manufacturing Market? Ans. The Global Metal Powders for Additive Manufacturing Market is divided into Manufacturing Technique, Application and Material Type. 3. What is the study period of this market? Ans. The Global Metal Powders for Additive Manufacturing Market will be studied from 2021 to 2029. 4. Which region is expected to hold the highest Global Metal Powders for Additive Manufacturing Market share? Ans. The Asia Pacific dominates the market share in the market. 5. What is the Forecast Period of Global Metal Powders for Additive Manufacturing Market? Ans. The Forecast Period of the market is 2022-2029 in the market.
Global Metal Powders for Additive Manufacturing Market 1. Preface 1.1. Report Scope and Market Segmentation 1.2. Research Highlights 1.3. Research Objectives 2. Assumptions and Research Methodology 2.1. Report Assumptions 2.2. Abbreviations 2.3. Research Methodology 2.3.1. Secondary Research 2.3.1.1. Secondary data 2.3.1.2. Secondary Sources 2.3.2. Primary Research 2.3.2.1. Data from Primary Sources 2.3.2.2. Breakdown of Primary Sources 3. Executive Summary: Global Metal Powders for Additive Manufacturing Market Size, by Market Value (US$ Bn) 4. Market Overview 4.1. Introduction 4.2. Market Indicator 4.2.1. Drivers 4.2.2. Restraints 4.2.3. Opportunities 4.2.4. Challenges 4.3. Porter’s Analysis 4.4. Value Chain Analysis 4.5. Market Risk Analysis 4.6. SWOT Analysis 4.7. Industry Trends and Emerging Technologies 5. Supply Side and Demand Side Indicators 6. Global Metal Powders for Additive Manufacturing Market Analysis and Forecast 6.1. Metal Powders for Additive Manufacturing Market Size & Y-o-Y Growth Analysis 6.1.1. North America 6.1.2. Europe 6.1.3. Asia Pacific 6.1.4. Middle East & Africa 6.1.5. South America 7. Global Metal Powders for Additive Manufacturing Market Analysis and Forecast, by Manufacturing Technique 7.1. Introduction and Definition 7.2. Key Findings 7.3. Metal Powders for Additive Manufacturing Market Value Share Analysis, by Manufacturing Technique 7.4. Metal Powders for Additive Manufacturing Market Size (US$ Bn) Forecast, by Manufacturing Technique 7.5. Metal Powders for Additive Manufacturing Market Analysis, by Manufacturing Technique 7.6. Metal Powders for Additive Manufacturing Market Attractiveness Analysis, by Manufacturing Technique 8. Global Metal Powders for Additive Manufacturing Market Analysis and Forecast, by Material Type 8.1. Introduction and Definition 8.2. Key Findings 8.3. Metal Powders for Additive Manufacturing Market Value Share Analysis, by Material Type 8.4. Metal Powders for Additive Manufacturing Market Size (US$ Bn) Forecast, by Material Type 8.5. Metal Powders for Additive Manufacturing Market Analysis, by Material Type 8.6. Metal Powders for Additive Manufacturing Market Attractiveness Analysis, by Material Type 9. Global Metal Powders for Additive Manufacturing Market Analysis and Forecast, by Application 9.1. Introduction and Definition 9.2. Key Findings 9.3. Metal Powders for Additive Manufacturing Market Value Share Analysis, by Application 9.4. Metal Powders for Additive Manufacturing Market Size (US$ Bn) Forecast, by Application 9.5. Metal Powders for Additive Manufacturing Market Analysis, by Application 9.6. Metal Powders for Additive Manufacturing Market Attractiveness Analysis, by Application 10. Global Metal Powders for Additive Manufacturing Market Analysis, by Region 10.1. Metal Powders for Additive Manufacturing Market Value Share Analysis, by Region 10.2. Metal Powders for Additive Manufacturing Market Size (US$ Bn) Forecast, by Region 10.3. Metal Powders for Additive Manufacturing Market Attractiveness Analysis, by Region 11. North America Metal Powders for Additive Manufacturing Market Analysis 11.1. Key Findings 11.2. North America Metal Powders for Additive Manufacturing Market Overview 11.3. North America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Manufacturing Technique 11.4. North America Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 11.4.1. Powder Bed 11.4.1.1. Direct Metal Laser Sintering (DMLS) 11.4.1.2. Selective Laser Melting (SLM) 11.4.1.3. Electron Beam Melting (EBM) 11.4.2. Blown Powder 11.4.2.1. Direct Metal Deposition (DMD) 11.4.2.2. Laser Engineering Net Shapes (LENS) 11.4.3. Others 11.5. North America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Material Type 11.6. North America Metal Powders for Additive Manufacturing Market Forecast, by Material Type 11.6.1. Alloy 11.6.1.1. Titanium 11.6.1.2. Cobalt 11.6.1.3. Copper 11.6.1.4. Nickel 11.6.1.5. Aluminum 11.6.2. Stainless Steel 11.6.2.1. Austenitic Steel 11.6.2.2. Martensitic Steel 11.6.2.3. Duplex Steel 11.6.2.4. Ferritic Steel 11.6.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 11.6.3. Others 11.7. North America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Application 11.8. North America Metal Powders for Additive Manufacturing Market Forecast, by Application 11.8.1. LiDAR 11.8.2. Image 11.8.3. Radar 11.8.4. Ultrasonic 11.8.5. Others 11.9. North America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Country 11.10. North America Metal Powders for Additive Manufacturing Market Forecast, by Country 11.10.1. U.S. 11.10.2. Canada 11.11. North America Metal Powders for Additive Manufacturing Market Analysis, by Country 11.12. U.S. Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 11.12.1. Powder Bed 11.12.1.1. Direct Metal Laser Sintering (DMLS) 11.12.1.2. Selective Laser Melting (SLM) 11.12.1.3. Electron Beam Melting (EBM) 11.12.2. Blown Powder 11.12.2.1. Direct Metal Deposition (DMD) 11.12.2.2. Laser Engineering Net Shapes (LENS) 11.12.3. Others 11.13. U.S. Metal Powders for Additive Manufacturing Market Forecast, by Material Type 11.13.1. Alloy 11.13.1.1. Titanium 11.13.1.2. Cobalt 11.13.1.3. Copper 11.13.1.4. Nickel 11.13.1.5. Aluminum 11.13.2. Stainless Steel 11.13.2.1. Austenitic Steel 11.13.2.2. Martensitic Steel 11.13.2.3. Duplex Steel 11.13.2.4. Ferritic Steel 11.13.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 11.13.3. Others 11.14. U.S. Metal Powders for Additive Manufacturing Market Forecast, by Application 11.14.1. LiDAR 11.14.2. Image 11.14.3. Radar 11.14.4. Ultrasonic 11.14.5. Others 11.15. Canada Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 11.15.1. Powder Bed 11.15.1.1. Direct Metal Laser Sintering (DMLS) 11.15.1.2. Selective Laser Melting (SLM) 11.15.1.3. Electron Beam Melting (EBM) 11.15.2. Blown Powder 11.15.2.1. Direct Metal Deposition (DMD) 11.15.2.2. Laser Engineering Net Shapes (LENS) 11.15.3. Others 11.16. Canada Metal Powders for Additive Manufacturing Market Forecast, by Material Type 11.16.1. Alloy 11.16.1.1. Titanium 11.16.1.2. Cobalt 11.16.1.3. Copper 11.16.1.4. Nickel 11.16.1.5. Aluminum 11.16.2. Stainless Steel 11.16.2.1. Austenitic Steel 11.16.2.2. Martensitic Steel 11.16.2.3. Duplex Steel 11.16.2.4. Ferritic Steel 11.16.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 11.16.3. Others 11.17. Canada Metal Powders for Additive Manufacturing Market Forecast, by Application 11.17.1. LiDAR 11.17.2. Image 11.17.3. Radar 11.17.4. Ultrasonic 11.17.5. Others 11.18. North America Metal Powders for Additive Manufacturing Market Attractiveness Analysis 11.18.1. By Manufacturing Technique 11.18.2. By Material Type 11.18.3. By Application 11.19. PEST Analysis 11.20. Key Trends 11.21. Key Developments 12. Europe Metal Powders for Additive Manufacturing Market Analysis 12.1. Key Findings 12.2. Europe Metal Powders for Additive Manufacturing Market Overview 12.3. Europe Metal Powders for Additive Manufacturing Market Value Share Analysis, by Manufacturing Technique 12.4. Europe Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.4.1. Powder Bed 12.4.1.1. Direct Metal Laser Sintering (DMLS) 12.4.1.2. Selective Laser Melting (SLM) 12.4.1.3. Electron Beam Melting (EBM) 12.4.2. Blown Powder 12.4.2.1. Direct Metal Deposition (DMD) 12.4.2.2. Laser Engineering Net Shapes (LENS) 12.4.3. Others 12.5. Europe Metal Powders for Additive Manufacturing Market Value Share Analysis, by Material Type 12.6. Europe Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.6.1. Alloy 12.6.1.1. Titanium 12.6.1.2. Cobalt 12.6.1.3. Copper 12.6.1.4. Nickel 12.6.1.5. Aluminum 12.6.2. Stainless Steel 12.6.2.1. Austenitic Steel 12.6.2.2. Martensitic Steel 12.6.2.3. Duplex Steel 12.6.2.4. Ferritic Steel 12.6.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.6.3. Others 12.7. Europe Metal Powders for Additive Manufacturing Market Value Share Analysis, by Application 12.8. Europe Metal Powders for Additive Manufacturing Market Forecast, by Application 12.8.1. LiDAR 12.8.2. Image 12.8.3. Radar 12.8.4. Ultrasonic 12.8.5. Others 12.9. Europe Metal Powders for Additive Manufacturing Market Value Share Analysis, by Country 12.10. Europe Metal Powders for Additive Manufacturing Market Forecast, by Country 12.10.1. Germany 12.10.2. U.K. 12.10.3. France 12.10.4. Italy 12.10.5. Spain 12.10.6. Rest of Europe 12.11. Europe Metal Powders for Additive Manufacturing Market Analysis, by Country 12.12. Germany Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.12.1. Powder Bed 12.12.1.1. Direct Metal Laser Sintering (DMLS) 12.12.1.2. Selective Laser Melting (SLM) 12.12.1.3. Electron Beam Melting (EBM) 12.12.2. Blown Powder 12.12.2.1. Direct Metal Deposition (DMD) 12.12.2.2. Laser Engineering Net Shapes (LENS) 12.12.3. Others 12.13. Germany Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.13.1. Alloy 12.13.1.1. Titanium 12.13.1.2. Cobalt 12.13.1.3. Copper 12.13.1.4. Nickel 12.13.1.5. Aluminum 12.13.2. Stainless Steel 12.13.2.1. Austenitic Steel 12.13.2.2. Martensitic Steel 12.13.2.3. Duplex Steel 12.13.2.4. Ferritic Steel 12.13.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.13.3. Others 12.14. Germany Metal Powders for Additive Manufacturing Market Forecast, by Application 12.14.1. LiDAR 12.14.2. Image 12.14.3. Radar 12.14.4. Ultrasonic 12.14.5. Others 12.15. U.K. Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.15.1. Powder Bed 12.15.1.1. Direct Metal Laser Sintering (DMLS) 12.15.1.2. Selective Laser Melting (SLM) 12.15.1.3. Electron Beam Melting (EBM) 12.15.2. Blown Powder 12.15.2.1. Direct Metal Deposition (DMD) 12.15.2.2. Laser Engineering Net Shapes (LENS) 12.15.3. Others 12.16. U.K. Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.16.1. Alloy 12.16.1.1. Titanium 12.16.1.2. Cobalt 12.16.1.3. Copper 12.16.1.4. Nickel 12.16.1.5. Aluminum 12.16.2. Stainless Steel 12.16.2.1. Austenitic Steel 12.16.2.2. Martensitic Steel 12.16.2.3. Duplex Steel 12.16.2.4. Ferritic Steel 12.16.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.16.3. Others 12.17. U.K. Metal Powders for Additive Manufacturing Market Forecast, by Application 12.17.1. LiDAR 12.17.2. Image 12.17.3. Radar 12.17.4. Ultrasonic 12.17.5. Others 12.18. France Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.18.1. Powder Bed 12.18.1.1. Direct Metal Laser Sintering (DMLS) 12.18.1.2. Selective Laser Melting (SLM) 12.18.1.3. Electron Beam Melting (EBM) 12.18.2. Blown Powder 12.18.2.1. Direct Metal Deposition (DMD) 12.18.2.2. Laser Engineering Net Shapes (LENS) 12.18.3. Others 12.19. France Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.19.1. Alloy 12.19.1.1. Titanium 12.19.1.2. Cobalt 12.19.1.3. Copper 12.19.1.4. Nickel 12.19.1.5. Aluminum 12.19.2. Stainless Steel 12.19.2.1. Austenitic Steel 12.19.2.2. Martensitic Steel 12.19.2.3. Duplex Steel 12.19.2.4. Ferritic Steel 12.19.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.19.3. Others 12.20. France Metal Powders for Additive Manufacturing Market Forecast, by Application 12.20.1. LiDAR 12.20.2. Image 12.20.3. Radar 12.20.4. Ultrasonic 12.20.5. Others 12.21. Italy Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.21.1. Powder Bed 12.21.1.1. Direct Metal Laser Sintering (DMLS) 12.21.1.2. Selective Laser Melting (SLM) 12.21.1.3. Electron Beam Melting (EBM) 12.21.2. Blown Powder 12.21.2.1. Direct Metal Deposition (DMD) 12.21.2.2. Laser Engineering Net Shapes (LENS) 12.21.3. Others 12.22. Italy Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.22.1. Alloy 12.22.1.1. Titanium 12.22.1.2. Cobalt 12.22.1.3. Copper 12.22.1.4. Nickel 12.22.1.5. Aluminum 12.22.2. Stainless Steel 12.22.2.1. Austenitic Steel 12.22.2.2. Martensitic Steel 12.22.2.3. Duplex Steel 12.22.2.4. Ferritic Steel 12.22.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.22.3. Others 12.23. Italy Metal Powders for Additive Manufacturing Market Forecast, by Application 12.23.1. LiDAR 12.23.2. Image 12.23.3. Radar 12.23.4. Ultrasonic 12.23.5. Others 12.24. Spain Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.24.1. Powder Bed 12.24.1.1. Direct Metal Laser Sintering (DMLS) 12.24.1.2. Selective Laser Melting (SLM) 12.24.1.3. Electron Beam Melting (EBM) 12.24.2. Blown Powder 12.24.2.1. Direct Metal Deposition (DMD) 12.24.2.2. Laser Engineering Net Shapes (LENS) 12.24.3. Others 12.25. Spain Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.25.1. Alloy 12.25.1.1. Titanium 12.25.1.2. Cobalt 12.25.1.3. Copper 12.25.1.4. Nickel 12.25.1.5. Aluminum 12.25.2. Stainless Steel 12.25.2.1. Austenitic Steel 12.25.2.2. Martensitic Steel 12.25.2.3. Duplex Steel 12.25.2.4. Ferritic Steel 12.25.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.25.3. Others 12.26. Spain Metal Powders for Additive Manufacturing Market Forecast, by Application 12.26.1. LiDAR 12.26.2. Image 12.26.3. Radar 12.26.4. Ultrasonic 12.26.5. Others 12.27. Rest of Europe Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 12.27.1. Powder Bed 12.27.1.1. Direct Metal Laser Sintering (DMLS) 12.27.1.2. Selective Laser Melting (SLM) 12.27.1.3. Electron Beam Melting (EBM) 12.27.2. Blown Powder 12.27.2.1. Direct Metal Deposition (DMD) 12.27.2.2. Laser Engineering Net Shapes (LENS) 12.27.3. Others 12.28. Rest of Europe Metal Powders for Additive Manufacturing Market Forecast, by Material Type 12.28.1. Alloy 12.28.1.1. Titanium 12.28.1.2. Cobalt 12.28.1.3. Copper 12.28.1.4. Nickel 12.28.1.5. Aluminum 12.28.2. Stainless Steel 12.28.2.1. Austenitic Steel 12.28.2.2. Martensitic Steel 12.28.2.3. Duplex Steel 12.28.2.4. Ferritic Steel 12.28.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 12.28.3. Others 12.29. Rest Of Europe Metal Powders for Additive Manufacturing Market Forecast, by Application 12.29.1. LiDAR 12.29.2. Image 12.29.3. Radar 12.29.4. Ultrasonic 12.29.5. Others 12.30. Europe Metal Powders for Additive Manufacturing Market Attractiveness Analysis 12.30.1. By Manufacturing Technique 12.30.2. By Material Type 12.30.3. By Application 12.31. PEST Analysis 12.32. Key Trends 12.33. Key Developments 13. Asia Pacific Metal Powders for Additive Manufacturing Market Analysis 13.1. Key Findings 13.2. Asia Pacific Metal Powders for Additive Manufacturing Market Overview 13.3. Asia Pacific Metal Powders for Additive Manufacturing Market Value Share Analysis, by Manufacturing Technique 13.4. Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 13.4.1. Powder Bed 13.4.1.1. Direct Metal Laser Sintering (DMLS) 13.4.1.2. Selective Laser Melting (SLM) 13.4.1.3. Electron Beam Melting (EBM) 13.4.2. Blown Powder 13.4.2.1. Direct Metal Deposition (DMD) 13.4.2.2. Laser Engineering Net Shapes (LENS) 13.4.3. Others 13.5. Asia Pacific Metal Powders for Additive Manufacturing Market Value Share Analysis, by Material Type 13.6. Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Material Type 13.6.1. Alloy 13.6.1.1. Titanium 13.6.1.2. Cobalt 13.6.1.3. Copper 13.6.1.4. Nickel 13.6.1.5. Aluminum 13.6.2. Stainless Steel 13.6.2.1. Austenitic Steel 13.6.2.2. Martensitic Steel 13.6.2.3. Duplex Steel 13.6.2.4. Ferritic Steel 13.6.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 13.6.3. Others 13.7. Asia Pacific Metal Powders for Additive Manufacturing Market Value Share Analysis, by Application 13.8. Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Application 13.8.1. LiDAR 13.8.2. Image 13.8.3. Radar 13.8.4. Ultrasonic 13.8.5. Others 13.9. Asia Pacific Metal Powders for Additive Manufacturing Market Value Share Analysis, by Country 13.10. Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Country 13.10.1. China 13.10.2. India 13.10.3. Japan 13.10.4. ASEAN 13.10.5. Rest of Asia Pacific 13.11. Asia Pacific Metal Powders for Additive Manufacturing Market Analysis, by Country 13.12. China Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 13.12.1. Powder Bed 13.12.1.1. Direct Metal Laser Sintering (DMLS) 13.12.1.2. Selective Laser Melting (SLM) 13.12.1.3. Electron Beam Melting (EBM) 13.12.2. Blown Powder 13.12.2.1. Direct Metal Deposition (DMD) 13.12.2.2. Laser Engineering Net Shapes (LENS) 13.12.3. Others 13.13. China Metal Powders for Additive Manufacturing Market Forecast, by Material Type 13.13.1. Alloy 13.13.1.1. Titanium 13.13.1.2. Cobalt 13.13.1.3. Copper 13.13.1.4. Nickel 13.13.1.5. Aluminum 13.13.2. Stainless Steel 13.13.2.1. Austenitic Steel 13.13.2.2. Martensitic Steel 13.13.2.3. Duplex Steel 13.13.2.4. Ferritic Steel 13.13.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 13.13.3. Others 13.14. China Metal Powders for Additive Manufacturing Market Forecast, by Application 13.14.1. LiDAR 13.14.2. Image 13.14.3. Radar 13.14.4. Ultrasonic 13.14.5. Others 13.15. India Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 13.15.1. Powder Bed 13.15.1.1. Direct Metal Laser Sintering (DMLS) 13.15.1.2. Selective Laser Melting (SLM) 13.15.1.3. Electron Beam Melting (EBM) 13.15.2. Blown Powder 13.15.2.1. Direct Metal Deposition (DMD) 13.15.2.2. Laser Engineering Net Shapes (LENS) 13.15.3. Others 13.16. India Metal Powders for Additive Manufacturing Market Forecast, by Material Type 13.16.1. Alloy 13.16.1.1. Titanium 13.16.1.2. Cobalt 13.16.1.3. Copper 13.16.1.4. Nickel 13.16.1.5. Aluminum 13.16.2. Stainless Steel 13.16.2.1. Austenitic Steel 13.16.2.2. Martensitic Steel 13.16.2.3. Duplex Steel 13.16.2.4. Ferritic Steel 13.16.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 13.16.3. Others 13.17. India Metal Powders for Additive Manufacturing Market Forecast, by Application 13.17.1. LiDAR 13.17.2. Image 13.17.3. Radar 13.17.4. Ultrasonic 13.17.5. Others 13.18. Japan Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 13.18.1. Powder Bed 13.18.1.1. Direct Metal Laser Sintering (DMLS) 13.18.1.2. Selective Laser Melting (SLM) 13.18.1.3. Electron Beam Melting (EBM) 13.18.2. Blown Powder 13.18.2.1. Direct Metal Deposition (DMD) 13.18.2.2. Laser Engineering Net Shapes (LENS) 13.18.3. Others 13.19. Japan Metal Powders for Additive Manufacturing Market Forecast, by Material Type 13.19.1. Alloy 13.19.1.1. Titanium 13.19.1.2. Cobalt 13.19.1.3. Copper 13.19.1.4. Nickel 13.19.1.5. Aluminum 13.19.2. Stainless Steel 13.19.2.1. Austenitic Steel 13.19.2.2. Martensitic Steel 13.19.2.3. Duplex Steel 13.19.2.4. Ferritic Steel 13.19.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 13.19.3. Others 13.20. Japan Metal Powders for Additive Manufacturing Market Forecast, by Application 13.20.1. LiDAR 13.20.2. Image 13.20.3. Radar 13.20.4. Ultrasonic 13.20.5. Others 13.21. ASEAN Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 13.21.1. Powder Bed 13.21.1.1. Direct Metal Laser Sintering (DMLS) 13.21.1.2. Selective Laser Melting (SLM) 13.21.1.3. Electron Beam Melting (EBM) 13.21.2. Blown Powder 13.21.2.1. Direct Metal Deposition (DMD) 13.21.2.2. Laser Engineering Net Shapes (LENS) 13.21.3. Others 13.22. ASEAN Metal Powders for Additive Manufacturing Market Forecast, by Material Type 13.22.1. Alloy 13.22.1.1. Titanium 13.22.1.2. Cobalt 13.22.1.3. Copper 13.22.1.4. Nickel 13.22.1.5. Aluminum 13.22.2. Stainless Steel 13.22.2.1. Austenitic Steel 13.22.2.2. Martensitic Steel 13.22.2.3. Duplex Steel 13.22.2.4. Ferritic Steel 13.22.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 13.22.3. Others 13.23. ASEAN Metal Powders for Additive Manufacturing Market Forecast, by Application 13.23.1. LiDAR 13.23.2. Image 13.23.3. Radar 13.23.4. Ultrasonic 13.23.5. Others 13.24. Rest of Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 13.24.1. Powder Bed 13.24.1.1. Direct Metal Laser Sintering (DMLS) 13.24.1.2. Selective Laser Melting (SLM) 13.24.1.3. Electron Beam Melting (EBM) 13.24.2. Blown Powder 13.24.2.1. Direct Metal Deposition (DMD) 13.24.2.2. Laser Engineering Net Shapes (LENS) 13.24.3. Others 13.25. Rest of Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Material Type 13.25.1. Alloy 13.25.1.1. Titanium 13.25.1.2. Cobalt 13.25.1.3. Copper 13.25.1.4. Nickel 13.25.1.5. Aluminum 13.25.2. Stainless Steel 13.25.2.1. Austenitic Steel 13.25.2.2. Martensitic Steel 13.25.2.3. Duplex Steel 13.25.2.4. Ferritic Steel 13.25.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 13.25.3. Others 13.26. Rest of Asia Pacific Metal Powders for Additive Manufacturing Market Forecast, by Application 13.26.1. LiDAR 13.26.2. Image 13.26.3. Radar 13.26.4. Ultrasonic 13.26.5. Others 13.27. Asia Pacific Metal Powders for Additive Manufacturing Market Attractiveness Analysis 13.27.1. By Manufacturing Technique 13.27.2. By Material Type 13.27.3. By Application 13.28. PEST Analysis 13.29. Key Trends 13.30. Key Developments 14. Middle East & Africa Metal Powders for Additive Manufacturing Market Analysis 14.1. Key Findings 14.2. Middle East & Africa Metal Powders for Additive Manufacturing Market Overview 14.3. Middle East & Africa Metal Powders for Additive Manufacturing Market Value Share Analysis, by Manufacturing Technique 14.4. Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 14.4.1. Powder Bed 14.4.1.1. Direct Metal Laser Sintering (DMLS) 14.4.1.2. Selective Laser Melting (SLM) 14.4.1.3. Electron Beam Melting (EBM) 14.4.2. Blown Powder 14.4.2.1. Direct Metal Deposition (DMD) 14.4.2.2. Laser Engineering Net Shapes (LENS) 14.4.3. Others 14.5. Middle East & Africa Metal Powders for Additive Manufacturing Market Value Share Analysis, by Material Type 14.6. Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Material Type 14.6.1. Alloy 14.6.1.1. Titanium 14.6.1.2. Cobalt 14.6.1.3. Copper 14.6.1.4. Nickel 14.6.1.5. Aluminum 14.6.2. Stainless Steel 14.6.2.1. Austenitic Steel 14.6.2.2. Martensitic Steel 14.6.2.3. Duplex Steel 14.6.2.4. Ferritic Steel 14.6.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 14.6.3. Others 14.7. Middle East & Africa Metal Powders for Additive Manufacturing Market Value Share Analysis, by Application 14.8. Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Application 14.8.1. LiDAR 14.8.2. Image 14.8.3. Radar 14.8.4. Ultrasonic 14.8.5. Others 14.9. Middle East & Africa Metal Powders for Additive Manufacturing Market Value Share Analysis, by Country 14.10. Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Country 14.10.1. GCC 14.10.2. South Africa 14.10.3. Rest of Middle East & Africa 14.11. Middle East & Africa Metal Powders for Additive Manufacturing Market Analysis, by Country 14.12. GCC Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 14.12.1. Powder Bed 14.12.1.1. Direct Metal Laser Sintering (DMLS) 14.12.1.2. Selective Laser Melting (SLM) 14.12.1.3. Electron Beam Melting (EBM) 14.12.2. Blown Powder 14.12.2.1. Direct Metal Deposition (DMD) 14.12.2.2. Laser Engineering Net Shapes (LENS) 14.12.3. Others 14.13. GCC Metal Powders for Additive Manufacturing Market Forecast, by Material Type 14.13.1. Alloy 14.13.1.1. Titanium 14.13.1.2. Cobalt 14.13.1.3. Copper 14.13.1.4. Nickel 14.13.1.5. Aluminum 14.13.2. Stainless Steel 14.13.2.1. Austenitic Steel 14.13.2.2. Martensitic Steel 14.13.2.3. Duplex Steel 14.13.2.4. Ferritic Steel 14.13.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 14.13.3. Others 14.14. GCC Metal Powders for Additive Manufacturing Market Forecast, by Application 14.14.1. LiDAR 14.14.2. Image 14.14.3. Radar 14.14.4. Ultrasonic 14.14.5. Others 14.15. South Africa Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 14.15.1. Powder Bed 14.15.1.1. Direct Metal Laser Sintering (DMLS) 14.15.1.2. Selective Laser Melting (SLM) 14.15.1.3. Electron Beam Melting (EBM) 14.15.2. Blown Powder 14.15.2.1. Direct Metal Deposition (DMD) 14.15.2.2. Laser Engineering Net Shapes (LENS) 14.15.3. Others 14.16. South Africa Metal Powders for Additive Manufacturing Market Forecast, by Material Type 14.16.1. Alloy 14.16.1.1. Titanium 14.16.1.2. Cobalt 14.16.1.3. Copper 14.16.1.4. Nickel 14.16.1.5. Aluminum 14.16.2. Stainless Steel 14.16.2.1. Austenitic Steel 14.16.2.2. Martensitic Steel 14.16.2.3. Duplex Steel 14.16.2.4. Ferritic Steel 14.16.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 14.16.3. Others 14.17. South Africa Metal Powders for Additive Manufacturing Market Forecast, by Application 14.17.1. LiDAR 14.17.2. Image 14.17.3. Radar 14.17.4. Ultrasonic 14.17.5. Others 14.18. Rest of Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 14.18.1. Powder Bed 14.18.1.1. Direct Metal Laser Sintering (DMLS) 14.18.1.2. Selective Laser Melting (SLM) 14.18.1.3. Electron Beam Melting (EBM) 14.18.2. Blown Powder 14.18.2.1. Direct Metal Deposition (DMD) 14.18.2.2. Laser Engineering Net Shapes (LENS) 14.18.3. Others 14.19. Rest of Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Material Type 14.19.1. Alloy 14.19.1.1. Titanium 14.19.1.2. Cobalt 14.19.1.3. Copper 14.19.1.4. Nickel 14.19.1.5. Aluminum 14.19.2. Stainless Steel 14.19.2.1. Austenitic Steel 14.19.2.2. Martensitic Steel 14.19.2.3. Duplex Steel 14.19.2.4. Ferritic Steel 14.19.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 14.19.3. Others 14.20. Rest of Middle East & Africa Metal Powders for Additive Manufacturing Market Forecast, by Application 14.20.1. LiDAR 14.20.2. Image 14.20.3. Radar 14.20.4. Ultrasonic 14.20.5. Others 14.21. Middle East & Africa Metal Powders for Additive Manufacturing Market Attractiveness Analysis 14.21.1. By Manufacturing Technique 14.21.2. By Material Type 14.21.3. By Application 14.22. PEST Analysis 14.23. Key Trends 14.24. Key Developments 15. South America Metal Powders for Additive Manufacturing Market Analysis 15.1. Key Findings 15.2. South America Metal Powders for Additive Manufacturing Market Overview 15.3. South America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Manufacturing Technique 15.4. South America Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 15.4.1. Powder Bed 15.4.1.1. Direct Metal Laser Sintering (DMLS) 15.4.1.2. Selective Laser Melting (SLM) 15.4.1.3. Electron Beam Melting (EBM) 15.4.2. Blown Powder 15.4.2.1. Direct Metal Deposition (DMD) 15.4.2.2. Laser Engineering Net Shapes (LENS) 15.4.3. Others 15.5. South America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Material Type 15.6. South America Metal Powders for Additive Manufacturing Market Forecast, by Material Type 15.6.1. Alloy 15.6.1.1. Titanium 15.6.1.2. Cobalt 15.6.1.3. Copper 15.6.1.4. Nickel 15.6.1.5. Aluminum 15.6.2. Stainless Steel 15.6.2.1. Austenitic Steel 15.6.2.2. Martensitic Steel 15.6.2.3. Duplex Steel 15.6.2.4. Ferritic Steel 15.6.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 15.6.3. Others 15.7. South America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Application 15.8. South America Metal Powders for Additive Manufacturing Market Forecast, by Application 15.8.1. LiDAR 15.8.2. Image 15.8.3. Radar 15.8.4. Ultrasonic 15.8.5. Others 15.9. South America Metal Powders for Additive Manufacturing Market Value Share Analysis, by Country 15.10. South America Metal Powders for Additive Manufacturing Market Forecast, by Country 15.10.1. Brazil 15.10.2. Mexico 15.10.3. Rest of South America 15.11. South America Metal Powders for Additive Manufacturing Market Analysis, by Country 15.12. Brazil Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 15.12.1. Powder Bed 15.12.1.1. Direct Metal Laser Sintering (DMLS) 15.12.1.2. Selective Laser Melting (SLM) 15.12.1.3. Electron Beam Melting (EBM) 15.12.2. Blown Powder 15.12.2.1. Direct Metal Deposition (DMD) 15.12.2.2. Laser Engineering Net Shapes (LENS) 15.12.3. Others 15.13. Brazil Metal Powders for Additive Manufacturing Market Forecast, by Material Type 15.13.1. Alloy 15.13.1.1. Titanium 15.13.1.2. Cobalt 15.13.1.3. Copper 15.13.1.4. Nickel 15.13.1.5. Aluminum 15.13.2. Stainless Steel 15.13.2.1. Austenitic Steel 15.13.2.2. Martensitic Steel 15.13.2.3. Duplex Steel 15.13.2.4. Ferritic Steel 15.13.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 15.13.3. Others 15.14. Brazil Metal Powders for Additive Manufacturing Market Forecast, by Application 15.14.1. LiDAR 15.14.2. Image 15.14.3. Radar 15.14.4. Ultrasonic 15.14.5. Others 15.15. Mexico Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 15.15.1. Powder Bed 15.15.1.1. Direct Metal Laser Sintering (DMLS) 15.15.1.2. Selective Laser Melting (SLM) 15.15.1.3. Electron Beam Melting (EBM) 15.15.2. Blown Powder 15.15.2.1. Direct Metal Deposition (DMD) 15.15.2.2. Laser Engineering Net Shapes (LENS) 15.15.3. Others 15.16. Mexico Metal Powders for Additive Manufacturing Market Forecast, by Material Type 15.16.1. Alloy 15.16.1.1. Titanium 15.16.1.2. Cobalt 15.16.1.3. Copper 15.16.1.4. Nickel 15.16.1.5. Aluminum 15.16.2. Stainless Steel 15.16.2.1. Austenitic Steel 15.16.2.2. Martensitic Steel 15.16.2.3. Duplex Steel 15.16.2.4. Ferritic Steel 15.16.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 15.16.3. Others 15.17. Mexico Metal Powders for Additive Manufacturing Market Forecast, by Application 15.17.1. LiDAR 15.17.2. Image 15.17.3. Radar 15.17.4. Ultrasonic 15.17.5. Others 15.18. Rest of South America Metal Powders for Additive Manufacturing Market Forecast, by Manufacturing Technique 15.18.1. Powder Bed 15.18.1.1. Direct Metal Laser Sintering (DMLS) 15.18.1.2. Selective Laser Melting (SLM) 15.18.1.3. Electron Beam Melting (EBM) 15.18.2. Blown Powder 15.18.2.1. Direct Metal Deposition (DMD) 15.18.2.2. Laser Engineering Net Shapes (LENS) 15.18.3. Others 15.19. Rest of South America Metal Powders for Additive Manufacturing Market Forecast, by Material Type 15.19.1. Alloy 15.19.1.1. Titanium 15.19.1.2. Cobalt 15.19.1.3. Copper 15.19.1.4. Nickel 15.19.1.5. Aluminum 15.19.2. Stainless Steel 15.19.2.1. Austenitic Steel 15.19.2.2. Martensitic Steel 15.19.2.3. Duplex Steel 15.19.2.4. Ferritic Steel 15.19.2.5. Other Steel (High Speed Steel, Tool Steel, Low Alloy Steel) 15.19.3. Others 15.20. Rest of South America Metal Powders for Additive Manufacturing Market Forecast, by Application 15.20.1. LiDAR 15.20.2. Image 15.20.3. Radar 15.20.4. Ultrasonic 15.20.5. Others 15.21. South America Metal Powders for Additive Manufacturing Market Attractiveness Analysis 15.21.1. By Manufacturing Technique 15.21.2. By Material Type 15.21.3. By Application 15.22. PEST Analysis 15.23. Key Trends 15.24. Key Developments 16. Company Profiles 16.1. Market Share Analysis, by Company 16.2. Competition Matrix 16.2.1. Competitive Benchmarking of key players by price, presence, market share, Applications and R&D investment 16.2.2. New Product Launches and Product Enhancements 16.2.3. Market Consolidation 16.2.3.1. M&A by Regions, Investment and Applications 16.2.3.2. M&A Key Players, Forward Integration and Backward Integration 16.3. Company Profiles: Key Players 16.3.1. GKN Plc. 16.3.1.1. Company Overview 16.3.1.2. Financial Overview 16.3.1.3. Product Portfolio 16.3.1.4. Business Strategy 16.3.1.5. Recent Developments 16.3.1.6. Development Footprint 16.3.2. Rio Tinto 16.3.3. Hitachi Chemical Co., Ltd. 16.3.4. ATI Powder Metals 16.3.5. Sandvik AB 16.3.6. Renishaw plc 16.3.7. Praxair Technology Inc. 16.3.8. Arconic Inc. 16.3.9. Miba AG 16.3.10. Hoganas AB 16.3.11. Metaldyne Performance Group Inc. 16.3.12. BÖHLER Edelstahl GmbH & Co KG 16.3.13. Carpenter Technology Corporation 16.3.14. Aubert & Duval 16.3.15. 3D Systems Corporation 16.3.16. Matsuura Machinery Corporation 16.3.17. Hoeganaes Corporation 16.3.18. Sandvik Group 16.3.19. Shaanxi Hengtong Intelligent Machine Co., Ltd. 16.3.20. Praxair Surface Technologies 16.3.21. Cookson Precious Metals Ltd 17. Primary Key Insights