bob综合游戏材料科学研究

添加剂制造

我们支持来自世界各地的工程师和研究人员,通过使用我们的尺寸,化学和机械测试和分析来带来批量生产的添加剂制造。

解决行业领先的制造过程的解决方案和支持

Automotive and aerospace companies are in a constant race to increase energy efficiency and design flexibility, lower production and service costs and reduce manufacturing cycle time while ensuring the reliability and safety of their products. For many of these companies, additive manufacturing (AM) looks like the solution to all of these market demands. Most rapidly emerging and popular AM processes for metals are based on a powder bed: a metallic powder is formed into a solid state through melting or sintering. Common melting techniques consist of scanning a laser (Direct Laser Selective Melting, DLSM) or electron beam (Electron Beam Melting - EBM) across subsequent layers of metal powder in a “printer’s” powder bed to build up a final, finished AM part. The technique is also known as powder bed fusion or LPBF. Another AM technology is vat photopolymerization making up close to 50% of the material use in AM. Vat Photopolymerization is a process in which liquid photopolymer in a vat is selectively cured by light-activated polymerization.

然而,许多公司发现,从造型到生产的原型致力于挑战。为了获得缺陷,可重复的结果需要流程表征和QA / QC控件,它是AM独特的。Bruker具有无与伦比的经验和宽度的解决方案,以帮助最大限度地提高AM利润。

Correctly specifying and monitoring the chemical and mechanical properties of raw materials used in the AM process is absolutely critical. Inclusions, voids, porosity variation as well as changes is mechanical properties (hardness, brittleness) can result from improper alloy/mixture use and contamination of incoming, stored and recycled powders.

印刷过程本身,如果没有适当的characterized, can also be a source of a wide range of defects. An optimum balance needs to be found between scanning speed, laser or electron beam power, beam incident angle, thermal load on the surrounding powder bed, powder particle size, and bed thickness. For vat photopolymerization, not only the mixture composition but also the curing kinetics of the photopolymer is of great importance for the result. To characterize the AM process and monitor witness samples during production and after finishing steps (heat treatment-HIP, milling and grinding/polishing, UV curing), Bruker offers an unmatched suite of products for dimensional, chemical and mechanical testing and analysis.

相关产品

3D光学分析器

Bruker的行业领先的3D光学分析仪提供纳米至微米级表面特征的快速,非接触表面剖面。可以表征表面裂缝,凹坑,空隙和其他缺陷,以便可以将处理问题追踪并消除。影响下游处理步骤和产品性能的表面粗糙度(SA),波纹和纹理被容易地监控。

CS / ONH.

Contamination of parts during printing can be an underappreciated issue. Diffusible hydrogen must be controlled to prevent hydrogen embrittlement of the printed part and residual argon content in the printed parts can impact down- stream processing steps. Bruker’s Inert Gas Fusion – Mass Spectrometry systems are critical tools to monitor H and Ar in your process.

EDS,WDS,EBSD,SEM Micro-XRF

为了延长SEM / TEM分析电源,Bruker的电子显微镜分析仪EDS,WDS,EBSD和Micro-XRF在SEM上提供了最全面的材料组成和结构分析,包括用于先进材料研究的分析软件,工艺开发和失败分析。bob综合游戏

FT-IR光谱仪平台:Invenio

对于QA / QC控制和AM过程Invenio FT-IR光谱仪中使用的原材料的表征是一个有用的工具。bob综合游戏FT-IR技术可以帮助改善AM过程,例如,通过在增值税光聚合期间监测UV固化过程,或者结合热度分析聚合物3D印刷的过程优化。

Mechanical Testers

为确保成品部件可以满足汽车和航空航天应用的严格需求,Bruker的通用机械测试仪为压缩摩擦学提供了全面的解决方案。通过广泛的应用模块,您可以表征印刷和成品的部分硬度,磨损率和阻力以及摩擦和负载的敏感性,以确保流程完整性和识别问题。

纳宁德斯

对于添加剂制造工艺开发和故障分析,Bruker机械测试和分析工具的组合提供了独特的洞察力。我们的纳米狭窄系统提供精确,高分辨率的微观结构性质分析和定量地图机械性能作为处理参数的函数。

XRD.

X射线衍射(XRD)分析仪广泛用于AM工艺开发,以识别尺寸不稳定性,如奥氏体合金中的奥氏体相变,并识别残余应力的源。压缩表面应力表示长的寿命和拉伸表面应力会导致过早的部分失效。

XRF.

Bruker拥有广泛的设备组合,用于表征和QA / QC的金属粉末,包括:X射线荧光(XRF)分析仪,燃烧天然气分析仪(C,S)和惰性气体融合 - 质谱(O,N,H,AR)仪器。

XRM.

Critical to the structural integrity, performance and fit of the final AM produced part are its bulk and surface properties. 3D X-ray Microscopes (XRM) provide quantitative identification of volume porosity, inclusions, cracks and printing defects in the bulk or on the surface and highlight differences between the as-printed part, post-machined part and the CAD model at internal and external surfaces.