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Global Additive Manufacturing With Metal Powders Market Analysis- Industry Size, Share, Research Report, Insights, Covid-19 Impact, Statistics, Trends, Growth and Forecast 2022-2030

Published Date: October, 2022
No of Pages: 159
Delivery Format: PDF+Excel

$2,950.00

Industry Overview

Global Additive Manufacturing with Metal Powders Market size was over USD 345 Million in 2021 and is estimated to grow at over 21% CAGR between 2022 and 2030 owing to the growing focus on technological advancements in the medical industry. Also, growing applications in the automotive and aerospace sectors should support the growth of the market.

Additive manufacturing comprises a family of different technologies that build up parts by adding materials layer by layer at a time on a digital 3D solid model. Additive manufacturing with metal powders has wide usage in the medical industry as it enables manufacturers to produce a variety of medical devices which have complex internal structures. Well-established medical sector across both developed and developing countries including the U.S., Canada, Germany, France, Italy, China, and India is supporting the growth of the market.

Strong application outlook in manufacturing production parts, functional prototyping, and thermal control system, should stimulate the additive manufacturing with metal powders market share. Rapid industrialization accompanied with increased usage of additive manufacturing in making of small custom parts and tool prototypes in the automotive sector should drive regional industry growth.

Technological advancement by various manufacturers may drive additive manufacturing with metal powders market in automotive sector on account of providing corrosion protection, lightweight, eco-friendly nature, and low VOCs.

Lower production cost is expected to drive the growth of powder bed manufacturing techniques

The powder bed manufacturing technique was around USD 298 Million in 2021 and is projected to grow at a CAGR of 21.5% over the forecast period owing to growing application in automotive and aerospace industries attributed to lower production cost and a broad range of material selection. Growing use in functional prototyping, commercial production of manufacturing production parts, and thermal control systems should stimulate the additive manufacturing with metal powders market growth over the forecast timeframe.

Direct Metal Laser Sintering (DMLS) manufacturing technique surpassed USD 271.5 million in 2021 and is projected to show a substantial CAGR of 22% through 2030. Design freedom for DMLS results in accurate metal components in less time compared to other manufacturing methods, thus, propelling the market growth. Selective Laser Melting (SLM) manufacturing technique is primarily used for manufacturing of tools for the injection moulding process owing to its low cost.

Electron Beam Melting (EBM) method of powder bed produces complete dense metallic parts directly from metal powder with characteristics of the target material. As compared to other techniques, the EBM method has a generally superior built rate due to higher energy density and scanning method. The advent of controlled vacuum technology improves the entire build cycle and build environment driving technology demand in production

Increasing focus towards manufacturing lightweight ornaments should fuel the demand for the precious metals in global market

Precious metal material is projected to cross USD 475 million by 2030 and is projected to grow at a CAGR of over 12% during the forecast period. Precious metals including gold, silver and platinum are used in additive manufacturing to produce jewellery and watches with the help of a laser sintering process. This technology help manufacturers to design and produce lightweight ornaments with less wastage of materials, thereby favouring the market growth. Additive manufacturing provides ultimate flexibility for designers in terms of styling and structure.

Platinum material surpassed USD 58 million in 2021 and is projected to show a CAGR of 11.5% in the forecast period. Increasing use of platinum in laboratory equipment, catalytic converters, platinum resistance thermometers, electrical contacts & electrodes, dentistry equipment, and jewellery is projected to favour the growth during the forecast period. Additionally, the growing use of other precious metals such as gold and silver in making ornaments is projected to boost the additive manufacturing with metal powders market sales over the projected period.

Growing use in production of high-tech aircraft components should fuel the business growth from aerospace application 

The aerospace application in the additive manufacturing with metal powders market was around USD 131.5 million in 2021 and is projected to exhibit a CAGR of 22% over the analysis period. Additive manufacturing with metal powder is used in the production of high-tech aircraft components owing to its properties such as maximizing performance, improving reliability & fuel efficiency, and reducing lead time. High flexibility allows to produce lightweight components and reduce fuel emissions, further driving the market growth.

This technology is extensively used in the manufacturing of various high-tech aircraft components for jet engines, turbine parts, fuselages, landing gear and cabin interior components. It prints solid objects with the help of a digital file by applying one layer of material on top of another thereby allowing manufacturers to design complex aircraft structures and shape easily.

Well-established medical sector is escalating the growth of additive manufacturing with metal powders market in North America

North America additive manufacturing with metal powders market is projected to cross USD 680.2 Million by 2030 and is predicted to grow at a CAGR of over 20.5% during the forecasted period. Well-established medical sector and strong presence of many medical device manufacturers such as Johnson & Johnson, 3M Company, Medtronic, and Abbott are supporting the market growth in North America.

Growing health concerns among the aging population, rising prevalence of chronic disease, and stringent regulations for the medical device industry, should drive market growth. Increasing concerns regarding sports-based facial injury and dental implants have promoted the usage of additive manufacturing in the medical sector. The presence of companies engaged in adopting additive manufacturing to gain a competitive advantage and achieve design freedom will boost product demand over the projected period.

Mergers & acquisitions and strategic partnerships & collaborations to accelerate additive manufacturing with metal powders market competitiveness

The global market is moderately consolidated and competitive. Key players in the additive manufacturing with metal powders industry include EOS, Arcam, Concept Laser, 3D systems, Trumpf, Renishaw, Optomec, Matsuura Machinery, and ExOne. Other industry participants include Ping, Phenix Systems, Plunkett Associates, Pratt & Whitney, Progold MTU, Metalysis, GE, and Puris. The market players are implementing strategies such as expansion, mergers & acquisitions, technological advancements, and partnerships & collaborations to increase the market share and tap the growth opportunities in the market.

For instance, in February 2021, 3D Systems partnered with U.S Army for virtual design and qualification projects. The company will work to enhance a component related to an army modernization product to improve overall system performance and maximize cooling. This project is expected to enhance the company’s brand value and accelerate the additive manufacturing with metal powders market revenue.

Additionally, in November 2021, Trumpf acquired the joint venture company, Trumpf Sisma S.R.L. from its partner SISMA S.p.A., which is an Italy based company. The strategic acquisition was primarily aimed to strengthen the company’s additive manufacturing business.

Global additive manufacturing with metal powders market research report includes in-depth coverage of the industry with estimates & forecast in terms of volume in Tons, revenue in USD Million from 2022 to 2030 for the following segments:

By Manufacturing Technique

  • Powder Bed
    • Direct Metal Laser Sintering (DMLS)
    • Selective Laser Melting (SLM)
    • Electron Beam Melting (EBM)
  • Blown powder
    • Direct Metal Deposition (DMD)
    • Laser Engineering Net Shapes (LENS)
  • Others

By Material

  • Alloy
    • Titanium
      • Ti6Al4V
      • Ti6Al4V (ELI)
      • Others
    • Cobalt
      • CoCr
      • CoCrWC
      • CoCrMo
    • Copper
      • C18150
      • CuCr1Zr
      • CuNi2SiCr
    • Nickel
      • Inconel 625
      • Inconel 718
      • Hastelloy X
    • Aluminium
      • ALSi12
      • ALSi7Mg
      • ALSi10Mg
      • AL6061
      • Others
  • Stainless Steel
    • Austenitic Steel
    • Martensitic Steel
    • Duplex steel
    • Ferritic Steel
  • Other Steel
    • High Speed Steel
    • Tool Steel
    • Low Alloy Steel
  • Precious Metal
    • Platinum
    • Other precious metal
  • Tungsten
  • Silicon carbide
  • Aluminium oxide powder
  • Zirconium
  • Zirconium dioxide
  • Molybdenum
  • Magnesium
  • Aluminium nitride
  • Tungsten carbide

By Application

  • Aerospace
  • Automotive
  • Medical
  • Oil & Gas
  • Energy
    • Nuclear
    • Renewable
  • Other

By Region

  • North America
    • US
    • Canada
  • Latin America
    • Brazil
    • Mexico
    • Argentina
  • Europe
    • Germany
    • UK
    • France
    • Italy
    • Spain
    • Russia
    • Poland
  • Asia Pacific
    • China
    • Japan
    • India
    • South Korea
    • Australia
    • Taiwan
  • Middle East & Africa
    • Saudi Arabia
    • UAE
    • South Africa

Chapter 1   Methodology & Scope

1.1    Market definition

1.2    Base estimates & calculations

1.3    Forecast calculations

1.4    Data Sources

1.4.1    Primary

1.4.2    Secondary

1.4.2.1    Paid Sources

1.4.2.2    Public Sources

Chapter 2   Executive Summary

2.1    Additive manufacturing with metal powders market report industry 3600 synopsis, 2017-2030

2.2    Business trends

2.2.1    Regional trends

2.2.2    Manufacturing technique trends

2.2.3    Material trends

2.2.4    Application trends

Chapter 3   Additive Manufacturing with Metal Powders Industry Insights

3.1    Industry segmentation

3.2    COVID-19 overview on world economy

3.3    Industry ecosystem analysis

3.3.1    Vendor matrix

3.3.2    Distribution channel analysis

3.3.2.1    Collaboration/partnerships

3.3.2.2    Distributors

3.3.2.3    Service providers

3.3.2.4    Technology providers

3.3.3    Profit margin analysis

3.3.4    Impact of COVID-19 on industry value chain

3.4    Pricing Analysis

3.4.1    COVID-19 impact on pricing trends, 2017-2030

3.4.1.1    Titanium

3.4.1.2    Ti6Al4V

3.4.1.3    Ti6Al4V (ELI)

3.4.1.4    Others

3.4.1.5    Cobalt

3.4.1.6    CoCr

3.4.1.7    CoCrWC

3.4.1.8    CoCrMo

3.4.1.9    Copper

3.4.1.10    C18150

3.4.1.11    CuCr1Zr

3.4.1.12    CuNi2SiCr

3.4.1.13    Nickel

3.4.1.14    Inconel 625

3.4.1.15    Inconel 718

3.4.1.16    Hastelloy X

3.4.1.17    Aluminum

3.4.1.18    AlSi12

3.4.1.19    ALSi7Mg

3.4.1.20    ALSi10Mg

3.4.1.21    Al6061

3.4.1.22    Others

3.4.1.23    Austenitic Steel

3.4.1.24    Martensitic Steel

3.4.1.25    Duplex Steel

3.4.1.26    Ferritic Steel

3.4.1.27    Tool Steel

3.4.1.28    High Speed Steel

3.4.1.29    Low Alloy Steel

3.4.1.30    Precious metal

3.4.1.31    Tungsten

3.4.1.32    Tungsten Carbide

3.4.1.33    Silicon Carbide

3.4.1.34    Aluminum Oxide powder

3.4.1.35    Zirconium

3.4.1.36    Zirconium Dioxide

3.4.1.37    Molybdenum

3.4.1.38    Magnesium

3.4.1.39    Aluminum Nitride

3.4.2    Cost structure analysis, 2021

3.5    Technology landscape

3.5.1    Powder bed fusion

3.5.2    Blown powder

3.5.3    Binder jetting

3.5.4    Micro 3D Printing

3.5.4.1    Lithography-based metal manufacturing (LMM)

3.5.5    Cold Spray

3.6    Technology comparison

3.7    Powder Characteristics

3.8    Regulatory landscape

3.8.1    ASTM International

3.8.1.1    ISO / ASTM52910 – 17: Standard Guidelines for Design for Additive Manufacturing

3.8.1.2    ASTM F2924 – 14: Standard Specification for Additive Manufacturing Titanium-6 Aluminum-4 Vanadium with Powder Bed Fusion

3.8.1.3    ASTM F3001 – 14: Standard Specification for Additive Manufacturing Titanium-6 Aluminum-4 Vanadium ELI (Extra Low Interstitial) with Powder Bed Fusion

3.8.1.4    ASTM F3049 – 14: Standard Guide for Characterizing Properties of Metal Powders Used for Additive Manufacturing Processes

3.8.1.5    ASTM F3187 – 16: Standard Guide for Directed Energy Deposition of Metals

3.8.2    FDA Guideline for additive manufactured medical devices

3.8.3    Europe Union Horizon 2020 Programme (H2020)

3.8.4    ISO Standards

3.8.4.1    ISO 17296-4:2014

3.8.4.2    ISO/ASTM 52901:2017

3.8.5    China

3.8.5.1    China Food and Drug Administration (CFDA)

3.8.5.1.1    Introduction

3.8.5.1.2    Application

3.8.5.1.3    Product testing

3.8.5.1.4    Evaluation

3.9    Industry impact forces

3.9.1    Growth drivers

3.9.1.1    North America: Technological advancements in medicine industry

3.9.1.2    Europe: Enhanced application scope in automotive and aerospace sector

3.9.1.3    Asia Pacific: Government initiatives to enhance additive manufacturing technology

3.9.1.4    MEA: Replacement of conventional technology in oil & gas exploration and production activities

3.9.2    Industry pitfalls & challenges

3.9.2.1    Technological limitation

3.9.2.2    Intellectual property issues

3.10    Innovation & Sustainability

3.10.1    Patent

3.11    Growth potential analysis, 2021

3.11.1    Emerging business model

3.11.1.1    Collaboration/Joint ventures

3.11.1.2    Acquisitions

3.11.1.3    New product launch

3.12    Porter’s analysis

3.12.1    Bargaining power of suppliers

3.12.2    Bargaining power of buyers

3.12.3    Threat of new entrants

3.12.4    Threat of substitutes

3.13    Competitive landscape, 2021

3.13.1    Company market share analysis, 2021

3.13.2    Strategy dashboard

3.13.3    Impact of COVID-19 on consumer buying behaviour

3.14    PESTLE Analysis

3.15    Impact of COVID-19 on additive manufacturing with metal powders demand, by application

3.15.1    Aerospace

3.15.2    Automotive

3.15.3    Medical

3.15.4    Energy

3.15.5    Oil & gas

Chapter 4   Additive Manufacturing with Metal Powders Market, By Manufacturing Technique

4.1    Key manufacturing technique trends

4.2    Powder Bed

4.2.1    Global market estimates & forecast from powder bed technique, 2017-2030, (Tons) (USD Million)

4.2.2    Global market estimates & forecast from powder bed technique, by region, 2017 – 2021, (Tons) (USD Million)

4.2.3    Direct Metal Laser Sintering (DMLS)

4.2.3.1    Global market estimates & forecast from DMLS technique, 2017-2030, (Tons) (USD Million)

4.2.3.2    Global market estimates & forecast from DMLS technique, by region, 2017-2030, (Tons) (USD Million)

4.2.4    Selective Laser Melting (SLM)

4.2.4.1    Global market estimates & forecast from SLM technique, 2017-2030, (Tons) (USD Million)

4.2.4.2    Global market estimates & forecast from SLM technique, by region, 2017-2030, (Tons) (USD Million)

4.2.5    Electron Beam Melting (EBM)

4.2.5.1    Global market estimates & forecast from EBM technique, 2017-2030, (Tons) (USD Million)

4.2.5.2    Global market estimates & forecast from EBM technique, by region, 2017-2030, (Tons) (USD Million)

4.3    Blown powder

4.3.1    Global market estimates & forecast from blown powder technique, 2017-2030, (Tons) (USD Million)

4.3.2    Global market estimates & forecast from blown powder technique, by region, 2017-2030, (Tons) (USD Million)

4.3.3    Direct Metal Deposition (DMD)

4.3.3.1    Global market estimates & forecast from DMD technique, 2017-2030, (Tons) (USD Million)

4.3.3.2    Global market estimates & forecast from DMD technique, by region, 2017-2030, (Tons) (USD Million)

4.3.4    Laser Engineering Net Shapes (LENS)

4.3.4.1    Global market estimates & forecast from LENS technique, 2017-2030, (Tons) (USD Million)

4.3.4.2    Global market estimates & forecast from LENS technique, by region, 2017-2030, (Tons) (USD Million)

4.4    Others

4.4.1    Global market estimates & forecast from other techniques, 2017 – 2021, (Tons) (USD Million)

4.4.2    Global market estimates & forecast from other techniques, by region, 2017-2030, (Tons) (USD Million)

Chapter 5   Additive Manufacturing with Metal Powders Market, By Material

5.1    Key material trends

5.2    Alloy

5.2.1    Global market estimates & forecast from alloy, 2017-2030, (Tons) (USD Million)

5.2.2    Global market estimates & forecast from alloy, by region, 2017-2030, (Tons) (USD Million)

5.2.3    Titanium

5.2.3.1    Global market estimates & forecast from titanium, 2017-2030, (Tons) (USD Million)

5.2.3.2    Global market estimates & forecast from titanium, by region, 2017-2030, (Tons) (USD Million)

5.2.3.3    Ti6Al4V

5.2.3.3.1    Global market estimates & forecast from Ti6Al4V, 2017-2030, (Tons) (USD Million)

5.2.3.3.2    Global market estimates & forecast from Ti6Al4V, by region, 2017-2030, (Tons) (USD Million)

5.2.3.4    Ti6Al4V (ELI)

5.2.3.4.1    Global market estimates & forecast from Ti6Al4V (ELI), 2017-2030, (Tons) (USD Million)

5.2.3.4.2    Global market estimates & forecast from Ti6Al4V (ELI), by region, 2017-2030, (Tons) (USD Million)

5.2.3.5    Others

5.2.3.5.1    Global market estimates & forecast from Others, 2017-2030, (Tons) (USD Million)

5.2.3.5.2    Global market estimates & forecast from Others, by region, 2017-2030, (Tons) (USD Million)

5.2.4    Cobalt

5.2.4.1    Global market estimates & forecast from cobalt, 2017-2030, (Tons) (USD Million)

5.2.4.2    Global market estimates & forecast from cobalt, by region, 2017-2030, (Tons)

5.2.4.3    CoCr

5.2.4.3.1    Global market estimates & forecast from CoCr, 2017-2030, (Tons) (USD Million)

5.2.4.3.2    Global market estimates & forecast from CoCr, by region, 2017-2030, (Tons) (USD Million)

5.2.4.4    CoCrWC

5.2.4.4.1    Global market estimates & forecast from CoCrWC, 2017-2030, (Tons) (USD Million)

5.2.4.4.2    Global market estimates & forecast from CoCrWC, by region, 2017-2030, (Tons) (USD Million)

5.2.4.5    CoCrMo

5.2.4.5.1    Global market estimates & forecast from CoCrMo, 2017-2030, (Tons) (USD Million)

5.2.4.5.2    Global market estimates & forecast from CoCrMo, by region, 2017-2030, (Tons) (USD Million)

5.2.5    Copper

5.2.5.1    Global market estimates & forecast from copper, 2017-2030, (Tons) (USD Million)

5.2.5.2    Global market estimates & forecast from copper, by region, 2017-2030, (Tons) (USD Million)

5.2.5.3    C18150

5.2.5.3.1    Global market estimates & forecast from C18150, 2017-2030, (Tons) (USD Million)

5.2.5.3.2    Global market estimates & forecast from C18150, by region, 2017-2030, (Tons) (USD Million)

5.2.5.4    CuCr1Zr

5.2.5.4.1    Global market estimates & forecast from CuCr1Zr, 2017-2030, (Tons) (USD Million)

5.2.5.4.2    Global market estimates & forecast from CuCr1Zr, by region, 2017-2030, (Tons) (USD Million)

5.2.5.5    CuNi2SiCr

5.2.5.5.1    Global market estimates & forecast from CuNi2SiCr, 2017-2030, (Tons) (USD Million)

5.2.5.5.2    Global market estimates & forecast from CuNi2SiCr, by region, 2017-2030, (Tons) (USD Million)

5.2.6    Nickel

5.2.6.1    Global market estimates & forecast from nickel, 2017-2030, (Tons) (USD Million)

5.2.6.2    Global market estimates & forecast from nickel, by region, 2017-2030, (Tons) (USD Million)

5.2.6.3    Inconel 625

5.2.6.3.1    Global market estimates & forecast from Inconel 625, 2017-2030, (Tons) (USD Million)

5.2.6.3.2    Global market estimates & forecast from Inconel 625, by region, 2017-2030, (Tons) (USD Million)

5.2.6.4    Inconel 718

5.2.6.4.1    Global market estimates & forecast from Inconel 7182017-2030, (Tons) (USD Million)

5.2.6.4.2    Global market estimates & forecast from Inconel 718, by region, 2017-2030, (Tons) (USD Million)

5.2.6.5    Hastelloy X

5.2.6.5.1    Global market estimates & forecast from Hastelloy X, 2017-2030, (Tons) (USD Million)

5.2.6.5.2    Global market estimates & forecast from Hastelloy X, by region, 2017-2030, (Tons) (USD Million)

5.2.7    Aluminium

5.2.7.1    Global market estimates & forecast from aluminum, 2017-2030, (Tons) (USD Million)

5.2.7.2    Global market estimates & forecast from aluminum, by region, 2017-2030, (Tons) (USD Million)

5.2.7.3    ALSi12

5.2.7.3.1    Global market estimates & forecast from ALSi12, 2017-2030, (Tons) (USD Million)

5.2.7.3.2    Global market estimates & forecast from ALSi12, by region, 2017-2030, (Tons) (USD Million)

5.2.7.4    ALSi7Mg

5.2.7.4.1    Global market estimates & forecast from ALSi7Mg, 2017-2030, (Tons) (USD Million)

5.2.7.4.2    Global market estimates & forecast from ALSi7Mg, by region, 2017-2030, (Tons) (USD Million)

5.2.7.5    ALSi10Mg

5.2.7.5.1    Global market estimates & forecast from ALSi10Mg,2017-2030, (Tons) (USD Million)

5.2.7.5.2    Global market estimates & forecast from ALSi10Mg, by region, 2017-2030, (Tons) (USD Million)

5.2.7.6    AL6061

5.2.7.6.1    Global market estimates & forecast from AL6061, 2017-2030, (Tons) (USD Million)

5.2.7.6.2    Global market estimates & forecast from AL6061, by region, 2017-2030, (Tons) (USD Million)

5.2.7.7    Others

5.2.7.7.1    Global market estimates & forecast from Others, 2017-2030, (Tons) (USD Million)

5.2.7.7.2    Global market estimates & forecast from Others, by region, 2017-2030, (Tons) (USD Million)

5.3    Stainless Steel

5.3.1    Global market estimates & forecast from stainless steel, 2017-2030, (Tons) (USD Million)

5.3.2    Global market estimates & forecast from stainless steel, by region, 2017-2030, (Tons) (USD Million)

5.3.3    Austenitic Steel

5.3.3.1    Global market estimates & forecast from austenitic steel, 2017-2030, (Tons) (USD Million)

5.3.3.2    Global market estimates & forecast from austenitic steel, by region, 2017-2030, (Tons) (USD Million)

5.3.4    Martensitic Steel

5.3.4.1    Global market estimates & forecast from martensitic steel, 2017-2030, (Tons) (USD Million)

5.3.4.2    Global market estimates & forecast from martensitic steel, by region, 2017-2030, (Tons) (USD Million)

5.3.5    Duplex steel

5.3.5.1    Global market estimates & forecast from duplex steel, 2017-2030, (Tons) (USD Million)

5.3.5.2    Global market estimates & forecast from duplex steel, by region, 2017-2030, (Tons) (USD Million)

5.3.6    Ferritic Steel

5.3.6.1    Global market estimates & forecast from ferritic steel, 2017-2030, (Tons) (USD Million)

5.3.6.2    Global market estimates & forecast from ferritic steel, by region, 2017-2030, (Tons) (USD Million)

5.4    Other Steel

5.4.1    Global market estimates & forecast from other steel, 2017-2030, (Tons) (USD Million)

5.4.2    Global market estimates & forecast from other steel, by region, 2017-2030, (Tons) (USD Million)

5.4.3    High Speed Steel

5.4.3.1    Global market estimates & forecast from high-speed steel, 2017-2030, (Tons) (USD Million)

5.4.3.2    Global market estimates & forecast from high-speed steel, by region, 2017-2030, (Tons) (USD Million)

5.4.4    Tool Steel

5.4.4.1    Global market estimates & forecast from tool steel, 2017-2030, (Tons) (USD Million)

5.4.4.2    Global market estimates & forecast from tool steel, by region, 2017-2030, (Tons) (USD Million)

5.4.5    Low Alloy Steel

5.4.5.1    Global market estimates & forecast from low alloy steel, 2017-2030, (Tons) (USD Million)

5.4.5.2    Global market estimates & forecast from low alloy steel, by region, 2017-2030, (Tons) (USD Million)

5.5    Precious Metal

5.5.1    Global market estimates & forecast from precious metal, 2017-2030, (Tons) (USD Million)

5.5.2    Global market estimates & forecast from precious metal, by region, 2017-2030, (Tons) (USD Million)

5.6    Platinum

5.6.1    Global market estimates & forecast from platinum, 2017-2030, (Tons) (USD Million)

5.6.2    Global market estimates & forecast from platinum, by region, 2017-2030, (Tons) (USD Million)

5.7    Other precious metal

5.7.1    Global market estimates & forecast from other precious metal, 2017-2030, (Tons) (USD Million)

5.7.2    Global market estimates & forecast from other precious metal, by region, 2017-2030, (Tons) (USD Million)

5.8    Tungsten

5.8.1    Global market estimates & forecast from tungsten, 2017-2030, (Tons) (USD Million)

5.8.2    Global market estimates & forecast from tungsten, by region, 2017-2030, (Tons) (USD Million)

5.9    Tungsten carbide

5.9.1    Global market estimates & forecast from Tungsten carbide, 2017-2030, (Tons) (USD Million)

5.9.2    Global market estimates & forecast from Tungsten carbide, by region, 2017-2030, (Tons) (USD Million)

5.10    Silicon carbide

5.10.1    Global market estimates & forecast from Silicon carbide, 2017-2030, (Tons) (USD Million)

5.10.2    Global market estimates & forecast from Silicon carbide, by region, 2017-2030, (Tons) (USD Million)

5.11    Aluminium oxide powder

5.11.1    Global market estimates & forecast from Aluminium oxide powder, 2017-2030, (Tons) (USD Million)

5.11.2    Global market estimates & forecast from Aluminium oxide powder, by region, 2017-2030, (Tons) (USD Million)

5.12    Zirconium

5.12.1    Global market estimates & forecast from Zirconium, 2017-2030, (Tons) (USD Million)

5.12.2    Global market estimates & forecast from Zirconium, by region, 2017-2030, (Tons) (USD Million)

5.13    Zirconium dioxide

5.13.1    Global market estimates & forecast from Zirconium dioxide, 2017-2030, (Tons) (USD Million)

5.13.2    Global market estimates & forecast from Zirconium dioxide, by region, 2017-2030, (Tons) (USD Million)

5.14    Molybdenum

5.14.1    Global market estimates & forecast from Molybdenum, 2017-2030, (Tons) (USD Million)

5.14.2    Global market estimates & forecast from Molybdenum, by region, 2017-2030, (Tons) (USD Million)

5.15    Magnesium

5.15.1    Global market estimates & forecast from Magnesium, 2017-2030, (Tons) (USD Million)

5.15.2    Global market estimates & forecast from Magnesium, by region, 2017-2030, (Tons) (USD Million)

5.16    Aluminium nitride

5.16.1    Global market estimates & forecast from Aluminium nitride, 2017-2030, (Tons) (USD Million)

5.16.2    Global market estimates & forecast from Aluminium nitride, by region, 2017-2030, (Tons) (USD Million)

Chapter 6   Additive Manufacturing with Metal Powders Market, By Application

6.1    Key application trends

6.2    Aerospace

6.2.1    Global market estimates & forecast from aerospace, 2017-2030, (Tons) (USD Million)

6.2.2    Global market estimates & forecast from aerospace, by region, 2017-2030, (Tons) (USD Million)

6.3    Automotive

6.3.1    Global market estimates & forecast from automotive, 2017-2030, (Tons) (USD Million)

6.3.2    Global market estimates & forecast from automotive, by region, 2017-2030, (Tons) (USD Million)

6.4    Medical

6.4.1    Global market estimates & forecast from medical, 2017-2030, (Tons) (USD Million)

6.4.2    Global market estimates & forecast from medical, by region, 2017 – 2021, (Tons) (USD Million)

6.5    Oil & Gas

6.5.1    Global market estimates & forecast from oil & gas, 2017-2030, (Tons) (USD Million)

6.5.2    Global market estimates & forecast from oil & gas, by region, 2017-2030, (Tons) (USD Million)

6.6    Energy

6.6.1    Global market estimates & forecast from energy, 2017-2030, (Tons) (USD Million)

6.6.2    Global market estimates & forecast from energy, by region, 2017-2030, (Tons) (USD Million)

6.6.3    Nuclear

6.6.3.1    Global market estimates & forecast from nuclear, 2017-2030, (Tons) (USD Million)

6.6.3.2    Global market estimates & forecast from nuclear, by region, 2017-2030, (Tons) (USD Million)

6.6.4    Renewable

6.6.4.1    Global market estimates & forecast from renewable, 2017-2030, (Tons) (USD Million)

6.6.4.2    Global market estimates & forecast from renewable, by region, 2017-2030, (Tons) (USD Million)

6.7    Other

6.7.1    Global market estimates & forecast from other applications, 2017-2030, (Tons) (USD Million)

6.7.2    Global market estimates & forecast from other applications, by region, 2017-2030, (Tons) (USD Million)

Chapter 7   Additive Manufacturing with Metal Powders Market, By Region

7.1    Key regional trends

7.2    North America

7.2.1    North America additive manufacturing with metal powders market, 2017-2030, (Tons) (USD Million)

7.2.2    North America additive manufacturing with metal powders market, by manufacturing technique, 2017-2030, (Tons) (USD Million)

7.2.3    North America additive manufacturing with metal powders market, by material, 2017-2030, (Tons) (USD Million)

7.2.4    North America additive manufacturing with metal powders market, by application, 2017-2030, (Tons) (USD Million)

7.2.5    U.S.

7.2.5.1    U.S. additive manufacturing with metal powders market, 2017-2030, (Tons) (USD Million)

7.2.5.2    U.S. additive manufacturing with metal powders market, by manufacturing technique, 2017-2030, (Tons) (USD Million)

7.2.5.3    U.S. additive manufacturing with metal powders market, by material, 2017-2030, (Tons) (USD Million)

7.2.5.4    U.S. additive manufacturing with metal powders market, by application, 2017-2030, (Tons) (USD Million)

7.2.6    Canada

7.2.6.1    Canada additive manufacturing with metal powders market, 2017-2030, (Tons) (USD Million)

7.2.6.2    Canada additive manufacturing with metal powders market, by manufacturing technique, 2017-2030, (Tons) (USD Million)

7.2.6.3    Canada additive manufacturing with metal powders market, by material, 2017-2030, (Tons) (USD Million)

7.2.6.4    Canada additive manufacturing with metal powders market, by application, 2017-2030, (Tons) (USD Million)

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By Manufacturing Technique

  • Powder Bed
    • Direct Metal Laser Sintering (DMLS)
    • Selective Laser Melting (SLM)
    • Electron Beam Melting (EBM)
  • Blown powder
    • Direct Metal Deposition (DMD)
    • Laser Engineering Net Shapes (LENS)
  • Others

By Material

  • Alloy
    • Titanium
      • Ti6Al4V
      • Ti6Al4V (ELI)
      • Others
    • Cobalt
      • CoCr
      • CoCrWC
      • CoCrMo
    • Copper
      • C18150
      • CuCr1Zr
      • CuNi2SiCr
    • Nickel
      • Inconel 625
      • Inconel 718
      • Hastelloy X
    • Aluminium
      • ALSi12
      • ALSi7Mg
      • ALSi10Mg
      • AL6061
      • Others
  • Stainless Steel
    • Austenitic Steel
    • Martensitic Steel
    • Duplex steel
    • Ferritic Steel
  • Other Steel
    • High Speed Steel
    • Tool Steel
    • Low Alloy Steel
  • Precious Metal
    • Platinum
    • Other precious metal
  • Tungsten
  • Silicon carbide
  • Aluminium oxide powder
  • Zirconium
  • Zirconium dioxide
  • Molybdenum
  • Magnesium
  • Aluminium nitride
  • Tungsten carbide

By Application

  • Aerospace
  • Automotive
  • Medical
  • Oil & Gas
  • Energy
    • Nuclear
    • Renewable
  • Other

EOS, Arcam, Concept Laser, 3D systems, Trumpf, Renishaw, Optomec, Matsuura Machinery, and ExOne. Other industry participants include Ping, Phenix Systems, Plunkett Associates, Pratt & Whitney, Progold MTU, Metalysis, GE, and Puris.

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