Ceramic Additive Manufacturing Market Research Report Information By Type of Ceramic (Oxide Ceramics, Non-Oxide Ceramics, Bioceramics and Others), By Process (Pellet Material Extrusion, Filament Material Extrusion, Powder, and Dispersion), By End-Use Industry (segmented Automotive, Consumer Electronic, Healthcare, Construction, Aerospace & Defense, Oil & Gas, Energy & Power, Semiconductor, and Others), By Region -Global Forecast to 2032

Global Ceramic Additive Manufacturing Market Overview

Ceramic Additive Manufacturing Market Size was valued at USD 584.69 million in 2023. The Ceramic Additive Manufacturing industry is projected to grow from USD 716.83 million in 2024 to USD 4,208.22 million by 2032, exhibiting a compound annual growth rate (CAGR) of 24.8% during the forecast period (2024 - 2032). Ceramic additive manufacturing is highlighted as a technology that can overcome the inherent limitations of ceramics such as processability and formability. The process creates a structure by slicing a 3D model and stacking ceramic materials layer-by-layer. Ceramic products have been used for centuries for tableware, tiles and sanitaryware, as well as for several technical applications, due to their desired properties including chemical durability, water impermeability (absence of open porosity) and good mechanical properties. Unlike traditional manufacturing techniques, which often involve subtractive processes like cutting or shaping material, additive manufacturing starts with a digital design and directly creates the final product by adding material in a controlled manner. This technology allows for the creation of complex and intricate geometries that may be challenging or impossible to produce using traditional methods.

Source: Secondary Research, Primary Research, MRFR Database and Analyst Review

Ceramic Additive Manufacturing Market Trends

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  RISE IN NUMBER OF CONSTRUCTION ACTIVITIES ACROSS THE GLOBE

  
  

Ceramic additive manufacturing is used for construction activities due to design flexibility it offers. Unlike traditional construction techniques ceramic additive manufacturing offers easy building of complex geometries, intricate details, and even hollow structures with internal features. Traditional methods rely on molds for shaping the ceramic material. Complex structures are impossible with traditional methods as the entire shape needs to be formed upfront. For producing dense materials structures with a high level in mechanical properties, additive manufacturing methods have to be used. AM builds the object layer-by-layer using only the material needed for the design. This helps in minimizing waste. Traditional methods focus on subtractive methods and processes which generate waste. Also, the properties of ceramics like brittleness is handled in additive manufacturing without any risk. Ceramic additive manufacturing helps in making components with unique functionalities or lightweight structures. There are various processes used in construction for additive manufacturing like extrusion based additive manufacturing.

The additive manufacturing techniques used in the construction sector differ on the one hand with regard to the material used, and on the other hand with regard to the technology applied in each case The Extrusion based additive manufacturing for ceramics offers various advantages over other processes. 3D printing technology can largely automate the construction process, reducing the need for more labors and labor costs. With the ceramic additive manufacturing modular construction is trending. Lightweight and high-performance structures can be built easily with the help of ceramics AM. The high temperature resistance enables ceramics AM along with their resistance to corrosion. Furthermore, through AM the properties of ceramics like porosity ,thermal and electrical conductivity can be adjusted according to ones need by incorporating several materials. This produces several flexible options in the construction industry and therefore ceramics AM is used in construction.

Another method used is powder based AM, particularly called binder jetting which fosters market growth. Binder jetting is an additive manufacturing process in which an industrial printhead selectively deposits a liquid binding agent onto a thin layer of powder particles of ceramics. This agent can be chosen according to one’s construction need. The competition in architectural designs is increasing due to intricate, complex ,geometrical designs covered with the help of ceramic AM. On site automation and faster construction is boosting the ceramic AM construction market.  

HIGH-PERFORMANCE APPLICATIONS IN AEROSPACE & DEFENSE

Additive technologies are revolutionizing the aerospace sector, offering multiple  benefits. These include the creation of lighter, yet stronger components with intricate designs, unlocking unprecedented design flexibility. In airplanes, every kilogram saved in weight translates to significant fuel savings. This is because less energy is required to propel a lighter aircraft through the air. Additionally, the ability to produce lightweight components through additive manufacturing in aerospace directly contributes to fuel efficiency in aircraft. This leads to lesser carbon emissions as well. Ceramic components for the aerospace industry are often characterized by very complex shapes, driving the development of new forming technologies, such as 3D printing. Also, in aerospace and defense applications materials able to withstand high temperatures is required. Ceramics used in aircraft are lighter compared to other metals and help in faster speed ,less corrosion, fuel consumption and high weight load capacity. Structural ceramics have applications that include thermal protection systems in rocket exhaust cones, missile nose cones, and engine components. Ceramic matrix composites have been applied in critical engine components such as turbine vanes and combustion liners. Aircraft engine components with internal cooling channels, made possible only by additive manufacturing, can lead to more efficient and cooler-running engines. Ceramic materials are used in gas turbine engine needs, because of their high temperature durability, lower specific weight, and high resistance to hot corrosion. In military applications ,urgent requirements in equipment can be managed by reducing delay in logistics and supply chain due to the speed offered through ceramic AM. From producing lighter and stronger components to creating innovative tools and spare parts, AM is revolutionizing military logistics and maintenance processes. Ceramic components with high hardness and wear resistance are used for personal armor, vehicle armor, and even missile defense systems. Ceramic AM in aerospace and defense enhances cost-effectiveness and resource efficiency. It minimizes fabrication and processing times.

Some advanced ceramics are aluminum oxide (Al2O3), silicon nitride (Si3N4), silicon carbide (SiC), and zirconia (ZrO2). Through the utilization of 3D printing technology, even ultra-high temperature ceramics (UHTCs) can be fabricated. This serves as an advantage in the aerospace and defense industry. Components with  complex geometries and shapes that in many cases are impossible to create using any other technology are possible through AM. Low aerospace volumes and an efficient supply chain make additive manufacturing an attractive, lower-cost alternative. As demand increases, material science advances and cost efficiency is offered ,there has been seen a wider adoption of this technology.

GROWTH IN 3D PRINTED PRODUCTS

The demand for customized and complex geometries fuels the adoption of 3D printing. The technology of additive manufacturing is excelling in producing intricate designs that are not possible easily by traditional manufacturing methods. Emerging applications of 3D printed technologies in automotive, healthcare, construction, aerospace, and defence is fuelling the ceramic additive manufacturing market. Many sectors like automotive and aerospace have already started using additive manufacturing in their operations because of the reduced lead time and low cost. In healthcare, Ceramic 3D printing technology is used for making high-precision personalized manufacturing of orthopedic implants. In construction sector, 3D modelling enables teams to accurately understand their designs, eliminate further risks and costs. By depositing material only where required for the final design intent, 3D printing reduces waste generation significantly.3D printing eliminates the time required for molds, casts and few parts required for production.

AM technology has witnessed significant development, with new technologies and production processes being developed. More energy efficient processes and developing recyclable materials are some trends in the industry increasing the demand for 3D printed products. The design flexibility offered by AM also creates several opportunities in this market. Low-volume production and mass customization along with design freedom and innovation is possible. Rapid prototyping and design is done much faster, and the part is ready for testing, and changes in model to incorporate any needed modifications is feasible effortlessly. Labor and operational efficiency is another advantage of 3D printed products.3D printing also discards any integration assembly issues associated with complex products. 3D printing has vast implications for the global supply chain due to the advancements offered in ceramic additive manufacturing. Therefore, there are a number of end user opportunities for the Ceramic AM market as the demand of 3D ceramic printing grows.

Ceramic Additive Manufacturing Market Insights

Ceramic Additive Manufacturing Market by Type of Ceramic Insights

By type of ceramic the ceramic additive manufacturing market has been segmented into oxide ceramics, non-oxide ceramics, bioceramics and others. Among these, the oxide ceramics segment dominated the global market with the largest revenue share of 33.2% in 2023 and is projected to dominate the Ceramic Additive Manufacturing Market revenue through the projected period. Oxide ceramics consist of metallic (such as Al, Zr, Ti, Mg) or metalloid (Si) elements combined with oxygen in inorganic compounds. Combining oxides with nitrogen or carbon can create oxynitride or oxycarbide ceramics that are more complex. Oxide ceramics display high melting temperatures, poor wear resistance, and a diverse array of electrical characteristics. The minerals employed in creating these ceramic materials are crushed or grinded to a fine powder, which is cleansed by mixing it with a solution and enabling a chemical precipitate to develop. The solid is then isolated from the liquid and warmed to create an extremely pure fine powder. Minerals can also be processed in an arc furnace and atomized or cast and crushed to form oxide ceramic powders and fused abrasive grain.

Ceramic Additive Manufacturing Market by Process

Based on process, the Ceramic Additive Manufacturing Market is segmented as pellet material extrusion, filament material extrusion, powder, and dispersion. The powder segment dominated the Ceramic Additive Manufacturing Market with the largest market revenue share of 43.1% in 2023 and is also projected to dominate the Ceramic Additive Manufacturing Market  revenue through the projected period.  Powder-based additive manufacturing processes, such as selective laser sintering (SLS) and binder jetting, offer a wide range of material options and the ability to create complex geometries. Powder-based processes are generally more cost-effective compared to other additive manufacturing methods, making them attractive for various applications.

Ceramic Additive Manufacturing Market by End-Use Industry Insights

The Ceramic Additive Manufacturing Market segmentation, based on end-use industry the market has been segmented as automotive, consumer electronic, healthcare, construction, aerospace & defense, oil & gas, energy & power, semiconductor and others. The automotive segment dominated the market with the largest market revenue share in 2023 with market share of 20.6%, and it is projected to dominate the Ceramic Additive Manufacturing Market revenue through the forecast period. Ceramics used in Automotive are advanced ceramic materials that are made into components for automobiles. Examples include spark plug insulators, catalysts and catalysts supports for emission control devices, and sensors of various kinds. Two important automotive applications of modern advanced ceramics—support structures for catalytic converter elements and various pressure and heat sensors.

Ceramic Additive Manufacturing Market Regional Insights

Based on Region, the Ceramic Additive Manufacturing Market is segmented into North America, Europe, Asia-Pacific, Middle East & Africa, and South America. The North America market held the maximum market share of 35.9% in 2023 and is also expected to account for a significant revenue share during the forecast period. North America holds a strong market share, standing as the leading region for this advanced manufacturing technology. With a robust infrastructure for technological innovation and significant investments in research and development, North America spearheads the adoption of Ceramic Additive Manufacturing across various industries. Reasons like Advancement in the healthcare sector in the medical field, every patient is unique, and therefore additive manufacturing has a high potential to be utilized for personalized and customized medical applications. The most commonly medical clinical used are personalized implants and medical model saws guides. In dental fields, additive manufacturing products are used in splints, orthodontic appliances, dental models, and drill guides. However, additive manufacturing products are also used to make artificial tissues and organs, which can be used for study purposes in a research institute or in between doctor and patients’ consultation. The development of digitalizing medical imaging that digitalization allows for the reconstruction of models from patients' anatomy. Furthermore, increasing government funding to promote additive manufacturing Additive manufacturing has immense potential to revolutionize the manufacturing and industrial production landscape through digital processes, communication and imaging. Additive manufacturing is a trending business that has high demand from various industries like aerospace, automotive, medical sector, electronics, fashion etc. seeing the potential possibility of this sector's contribution to the nation's economy, governments of different countries are coming up with a different strategy to support and promote this industry.

Source: Secondary Research, Primary Research, MRFR Database and Analyst Review

Ceramic Additive Manufacturing Market Key Market Players & Competitive Insights

The market for the Ceramic Additive Manufacturing Market is very competitive. Major players are competing based on technology, product quality and industrial requirements. Thus, to remain competitive manufacturers must innovate and provide safe products. The products should meet the needs of the various end-use industries. Desktop Metal Inc., SiNAPTIC, Ceram Tech, Lithoz, Voxeljet, XJet, Renishaw, Dyson Technical Ceramics, 3D, Ceram Sinto, Admatec, Kwambio, Nanoe, Tethon 3D, Prodways, 3D Systems and Kyocera International, Inc are some of the major players in the market.

These market players are focusing on providing high-quality ceramic additive manufacturing solutions. They are providing solutions that are ecofriendly and adhere to industry standards. While global players dominate the market, there are also regional and local players. These Regional And local players have a significant presence in markets. These players face intense competition. These players are differentiating themselves by offering unique features or competitive pricing. They also invest heavily in research and development to create and integrate advanced technology and innovative products. This way they cater to the changing demands of the market. Partnerships and collaborations and adoption of new and innovative technologies are other tactics that players employ to strengthen their position in the market.

Desktop Metal, Inc.: Desktop Metal, Inc., was founded in 2015, and is headquartered at Burlington, US. The company specializes in the development and manufacturing of additive printing systems. The company's offerings include a range of products such as Production System™, X-Series, Shop System™, and Studio System™. These systems offered by the company are designed for various industries including automotive, consumer, heavy industry, tooling, machine design, and education.  The company is operating in additive manufacturing technologies for mass production. The company has intensified their focus on technical ceramics offerings across their portfolio due to customer demand, primarily for silicon carbide, carbon, and tungsten carbide cobalt. The company has been using binder jetting technology to produce technical ceramics. This approach simplifies production for ceramics.

Ceramic Additive Manufacturing Market Industry Developments

October 2023: Desktop Metal and Schaeffler have partnered to develop multi-material powder additive manufacturing using Schaeffler's laser-based system and Desktop Metal's binder jetting technology. Schaeffler has acquired Desktop Metal's Belgian subsidiary, Aerosint, which will be renamed "Schaeffler Aerosint SA" and integrated into Schaeffler's special machinery unit. Both companies will continue their collaboration in multi-material solutions.

September 2021: CeramTec revealed a new medical technology production hall in Marktredwitz, Germany. The expansion strengthens CeramTec's manufacturing hub in Germany and highlights the increasing global demand for advanced ceramics in healthcare.

Key Companies in the Ceramic Additive Manufacturing Market include.

• Desktop Metal Inc.


• SiNAPTIC


• Ceram Tech


• Lithoz


• Voxeljet


• XJet


• Renishaw


• Dyson Technical Ceramics


• 3D Ceram


• Sinto


• Admatec


• Kwambio


• Nanoe


• Tethon 3D


• Prodways


• 3D Systems


• Kyocera International, Inc.

Ceramic Additive Manufacturing Market Segmentation

Ceramic Additive Manufacturing Market Type of Ceramic Outlook

• Oxide Ceramics


• Non-Oxide Ceramics


• Bioceramics


• Others

Ceramic Additive Manufacturing Market Process Outlook

• Pellet Material Extrusion


• Filament Material Extrusion


• Powder
  
  
  
  • Mold Powder Deposition
  
  
  • Powder Bed Fusion
  
  
  • Binder Jetting
  
  
  
  


• Dispersion
  
  
  
  • Material Jetting
  
  
  • Vat Polymerization
  
  
  • Mold Depostion
  
  
  • Others
  
  
  
  

Ceramic Additive Manufacturing Market End-Use Industry Outlook

• Automotive


• Consumer Electronic


• Healthcare


• Construction


• Aerospace & Defense


• Oil & Gas


• Energy & Power


• Semiconductor


• Others

Ceramic Additive Manufacturing Market Regional Outlook

• North America
  
  
  
  • US
  
  
  • Canada
  
  
  • Mexico
  
  
  
  


• Europe
  
  
  
  • Germany
  
  
  • UK
  
  
  • France
  
  
  • Italy
  
  
  • Spain
  
  
  • Rest of Europe
  
  
  
  

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  Asia-Pacific

  
  
  
  
  • China
  
  
  • Japan
  
  
  • India
  
  
  • South Korea
  
  
  • Rest of Asia-Pacific
  
  
  
  


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  Middle East & Africa

  
  
  
  
  • Saudi Arabia
  
  
  • UAE
  
  
  • South Africa
  
  
  • Rest of Middle East & Africa
  
  
  
  


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  South America

  
  
  
  
  • Brazil
  
  
  • Argentina
  
  
  • Rest of Latin America