Industry 政策发布 Neutral

AM Europe Releases European Additive Manufacturing Research Capability Map: Covering 83 Institutions Across 18 Countries, Metal AM is the Largest Capability Area

2026-10-07 · Impact score: 60

On October 7, 2026, the European additive manufacturing technology platform AM Europe released the summary of the 'European Additive Manufacturing Research Capability Map' report, based on evidence from 83 research institutions across 18 countries, covering seven major capability domains including materials, digital technologies, testing, and industrial applications. The report concludes that Europe has a strong additive manufacturing research foundation, and the next challenge is to translate specialized capabilities into qualified, repeatable, and commercially viable industrial-scale production. Statistics show that metal additive manufacturing and advanced materials appear in the capability items of 66 institutions, making it the most widely covered area; circular economy, repair, and industrial adoption appear in 65 institutions, and testing, inspection, and quality assurance in 63. Capabilities cover specialized fields such as aerospace and defense, artificial intelligence, polymers and composites, and healthcare. The report notes that these overlapping categories record the presence or absence of capabilities, not the scale or maturity of individual projects. The report also points out imbalances in access to capabilities: small businesses struggle to identify suitable facilities, compare services, and finance certification; inconsistent data formats and testing requirements make research results difficult to reuse; and after public funding ends, promising demonstration projects may lack industrial uptake. Based on this, AM Europe proposes a European policy agenda: accessible infrastructure, shared testing, reusable evidence, and a clearer path from research to production, and states it will prioritize industrial competitiveness, sustainability, defense readiness, and healthcare innovation to connect research institutions, businesses, and policymakers. Value for powder buyers: ① 66 European institutions are engaged in metal AM and advanced materials R&D, serving as a dense collaborative entry point for new material grades and process validation; powder suppliers can enter the European validation system through joint projects; ② the report highlights the 'research-to-production' bottleneck, and powder manufacturers with batch stability and certification support capabilities are exactly the external supply needed by European industry; ③ pay attention to the implementation window for AM Europe's subsequent industrial partner programs and customer trial support policies, and establish European channels in advance.

📰 News Source

This article was translated from a Chinese source.

Source URL not available

Show Chinese original

AM Europe发布欧洲增材制造研究能力图谱：覆盖18国83家机构，金属AM是最大能力项

2026年10月7日，欧洲增材制造技术平台AM Europe发布《欧洲增材制造研究能力图谱》报告摘要，基于18个国家、83家研究机构的证据，覆盖材料、数字技术、测试与工业应用等七大能力领域。报告认为欧洲拥有雄厚的增材制造研究基础，下一阶段的挑战是把专业能力转化为合格、可重复、具商业可行性的工业量产。统计显示：金属增材制造与先进材料出现在66家机构的能力项中，是覆盖面最广的方向；循环经济、修复与工业采纳出现在65家，测试、检测与质量保证63家。能力覆盖航空航天与国防、人工智能、聚合物与复合材料、医疗等专业领域。报告注明，这些重叠类目记录的是能力的有无，而非单个项目的规模或成熟度。报告同时指出能力获取的不均衡：小企业难以识别合适设施、比较服务并为认证融资；数据格式与测试要求不一致使研究结果难以复用；公共资助结束后，有前景的示范项目可能缺乏产业承接。AM Europe据此提出欧洲政策议程：可及的基础设施、共享测试、可复用证据、从研究到生产的更清晰路径，并表态将以产业竞争力、可持续、防务就绪与医疗创新为优先方向连接研究机构、企业与政策制定者。对粉末采购商的价值：① 欧洲66家机构布局金属AM与先进材料研发，是新材料牌号与工艺验证的密集合作入口，粉末供应商可通过联合项目进入欧洲验证体系；② 报告点名「研究→量产」瓶颈，具备批量稳定性与认证支持能力的粉末厂商正是欧洲产业界所需的外部供给；③ 关注AM Europe后续产业伙伴计划与客户试验支持政策的落地窗口，提前布局欧洲渠道。

🧪 Related Material Grades

Metal powder grades mentioned in this article — specs, live prices & verified suppliers

316L Stainless Steel Powder

15-45 µm / 15-53 µm

→

17-4PH Stainless Steel Powder

15-45 µm / 15-53 µm

→

Ti-6Al-4V (Grade 5) Titanium Powder

15-45 µm / 15-53 µm / 45-105 µm

→

AlSi10Mg Aluminum Alloy Powder

15-45 µm / 20-63 µm

→

Inconel 718 Nickel Superalloy Powder

15-45 µm / 15-53 µm

→

18Ni300 Maraging Steel Powder

15-53 µm

→

Related News

Beam Shaping in LPBF of IN718: Top-Surface Morphology and Defect Mechanisms — Doubling Build Rate via Small Hatch Spacing and High Scan Speed Process Window

Robin Prudlik, Jonas Grünewald, Simon Sankaré, and Katrin Wudy from the Laser Additive Manufacturing team at the Technical University of Munich published a paper in Additive Manufacturing (October 2026 issue, DOI: 10.1016/j.addma.2026.105402) systematically investigating the effects of laser power, scan speed, and hatch spacing on the top-surface morphology and defect formation in IN718 processed by laser powder bed fusion (PBF-LB/M), comparing Gaussian and ring beam profiles. The study shows that surface tension-driven melt pool instability is the core factor limiting productivity, particularly at high scan speeds (≳1600 mm/s) and large hatch spacings (≳0.15 mm). Hatch spacing is the primary trigger of surface irregularity, acting through control of inter-track remelting and transverse melt pool confinement; scan speed determines the morphology type and characteristic wavelength. Increasing hatch spacing reduces inter-track overlap, suppresses remelting-induced planarization, and induces unstable surface features; increasing scan speed shrinks the melt pool size, driving the surface from continuous to discontinuous states. Using ISO 25178 areal roughness parameters and a regularized classification framework, process maps were constructed: a planar top surface is achieved only at small hatch spacings, independent of beam shape; however, the combination of small hatch spacing and high scan speed maintains a planar top surface while increasing build rate by more than twofold compared to typical existing processes. Value for powder buyers: This study provides a new process window for IN718 powder under beam-shaping processes that balances surface quality and productivity. The small hatch spacing and high scan speed strategy imposes higher demands on powder batch consistency—sphericity, particle size distribution, and flowability directly affect melt pool stability at high scan speeds. When purchasing, verify the supplier's batch data and quality traceability documentation.

2026-10-17

Guangdong Hengtai's RMB 3.837 Billion Titanium-Based New Materials Integrated Project Phase I Filed: 100,000 t/y Chloride-Process Titanium Dioxide + 25,000 t/y Titanium Sponge

The Phase I green titanium-based new materials integrated project of Guangdong Hengtai New Materials Co., Ltd. completed filing on October 16, 2026, with a total investment of RMB 3.837 billion. It involves building production lines for 100,000 t/y chloride-process titanium dioxide and 25,000 t/y titanium sponge, and is located in the West Zone of Maoming High-tech Industrial Development Zone. This is an upstream titanium raw material capacity expansion rather than a direct additive manufacturing event: titanium sponge is the most upstream feedstock for titanium alloy powders (TC4/TA15, etc.), and the integrated layout of chloride-process titanium dioxide and titanium sponge can dilute titanium raw material costs. The commissioning of 25,000 t/y of titanium sponge capacity will strengthen titanium raw material supply in South China, provide a cost anchor and supply assurance for downstream powder producers, and indirectly benefit the cost and delivery stability of titanium alloy powders. For powder buyers: upstream titanium sponge capacity expansion is a medium- to long-term bullish signal for titanium alloy powder prices; attention should be paid to the linkage between powder production capacity in South China and raw material procurement rhythms.

2026-10-16

Titomic Awarded $250,000 Contract by Bechtel BPMI: TKF Cold Spray Technology to Evaluate U.S. Navy Submarine Repair Materials

Titomic USA (ASX: TTT) announced on October 16 that it has been awarded a contract by Bechtel Plant Machinery, Inc. (BPMI) to evaluate and develop advanced material solutions supporting the U.S. Navy submarine industrial base, with an initial order valued at $250,000 (approximately AUD 361,000). The collaboration centers on Titomic's proprietary TKF™ (Titomic Kinetic Fusion) cold spray additive manufacturing technology, which uses solid-state metal powder deposition (without melting) to achieve high-performance coatings, repairs, and near-net-shape components with minimal heat-affected zones and preserved material properties. The two parties will jointly explore advanced repair materials and manufacturing processes for future U.S. Navy programs, including submarine repair. Titomic plans to further introduce the TKF cold spray process into broader defense applications such as rapid production, component repair, and advanced material development to enhance readiness and reduce lifecycle costs. The announcement was made from Huntsville, Alabama, USA. CEO Jim Simpson stated that the future belongs to companies that dare to challenge traditional manufacturing methods and co-develop entirely new capabilities. Previously in an exploratory collaboration phase, this contract marks a substantive advancement of the partnership. Value to powder buyers: ① The defense repair demand signal for spherical metal powders (titanium, aluminum, nickel-based, refractory metals, DED/cold spray feed-grade particle sizes) is strengthening; ② if the U.S. submarine industrial base repair material evaluation is successful, it will bring opportunities for supporting powder supply and qualification; ③ Titomic's deeper integration into the U.S. defense supply chain benefits long-term order expectations for its partner powder suppliers.

2026-10-16

📡 Get Daily Industry Updates

Follow on X Join Telegram

View all news