📌 AMA: Energy 2026: Additive Manufacturing in Energy Is Moving Beyond Pilots Here’s What’s Actually Being Deployed
For years, additive manufacturing (AM) in the energy sector has been a story of potential—filled with pilot projects and proofs of concept. Today, that story is changing. The industry is moving decisively beyond the trial phase into tangible, repeatable deployment. The critical question is no longer *if* the technology works, but *where* and *how* it can be trusted in demanding production environments.
多年来,能源领域的增材制造(AM)一直是一个充满潜力的故事——充满了试点项目和概念验证。如今,这个故事正在改变。该行业正果断地超越试验阶段,进入切实、可重复的部署阶段。关键问题不再是这项技术*是否*有效,而是在苛刻的生产环境中*何处*以及*如何*才能信赖它。

A growing coalition of energy operators, original equipment manufacturers (OEMs), and certification bodies is now tackling the real-world constraints: part qualification, documentation, supply chain integration, and the economics of scaling. The result is a much clearer map of where AM delivers genuine value in energy systems and where traditional methods still reign.
一个不断壮大的联盟,包括能源运营商、原始设备制造商(OEM)和认证机构,现在正在应对现实世界的制约因素:零件认证、文件记录、供应链整合以及规模化经济。其结果是一幅更清晰的路线图,指明了增材制造在能源系统中真正创造价值的领域,以及传统方法仍然占主导地位的领域。
The shift is evident in the applications now moving forward. Siemens Energy, for instance, is applying AM to produce titanium impellers for integrally geared compressors—high-stakes components where failure is not an option. Meanwhile, operators like Equinor are focusing deployment on improving operational uptime and slashing lead times for critical spare parts.
这种转变在目前正在推进的应用中显而易见。例如,西门子能源正在应用增材制造来生产整体齿轮压缩机的钛合金叶轮——这些是高风险的部件,不容有失。与此同时,像Equinor这样的运营商正将部署重点放在提高运营正常运行时间和缩短关键备件的交付周期上。
This represents a fundamental change in approach. The focus has moved from demonstrating technical feasibility to solving business challenges: reducing downtime, managing obsolescence, and enabling on-demand, distributed production.
这代表了一种根本性的方法转变。焦点已经从展示技术可行性转向解决业务挑战:减少停机时间、管理设备老化、实现按需分布式生产。
So, what’s holding back an even faster rollout? The primary gatekeeper isn’t the printer or the material; it’s the qualification process.
那么,是什么阻碍了更快的推广?主要的瓶颈不是打印机或材料,而是认证过程。
This holistic view is crucial. Success depends on aligning production technology with qualification standards and workforce development, a model embraced by initiatives like Stamas Solutions AS in collaboration with industry and academia.
这种整体视角至关重要。成功取决于将生产技术、认证标准和劳动力发展相结合,这是Stamas Solutions AS等倡议与工业界和学术界合作所采用的模式。
Research continues to expand the possibilities. Institutions like Oak Ridge National Laboratory are developing advanced process routes, including multi-material and sinter-based approaches, which could unlock entirely new applications for premium STL files and advanced 3D printing models in energy.
研究持续拓展着可能性。像橡树岭国家实验室这样的机构正在开发先进的工艺路线,包括多材料和基于烧结的方法,这可能为能源领域中的优质STL文件和高级3D打印模型解锁全新的应用。
For professionals and enthusiasts inspired by this industrial evolution, understanding these advanced applications can inform even hobbyist projects. The principles of design for additive manufacturing, material selection, and efficient production are universal, whether you’re printing a turbine component or exploring our vast library of 3D printing models at home.
对于受这场工业演进启发的专业人士和爱好者来说,了解这些高级应用甚至可以启发业余项目。增材制造的设计原则、材料选择和高效生产是普适的,无论您是在打印涡轮机部件,还是在家中探索我们庞大的3D打印模型库。
Looking for high-quality STL files? Browse our collection at 3dmis.com!
Original source: View Original
🚀 开启你的下一个 3D 打印项目
想要高质量的 STL 文件?浏览我们丰富的优质 3D 模型库,从流行文化角色到桌游 mini,应有尽有——尽在 3dmis.com!
🚀 Start Your Next 3D Printing Project
Looking for high-quality STL files? Browse our vast collection of premium 3D models at 3dmis.com!
📌 编者按:本文改编自行业最新资讯。查看原文

