通过双喷嘴熔融沉积建模打印双金属不锈钢 316L/inconel 718 复合材料的烧结参数研究

IF 3.4 4区 工程技术 Q1 ENGINEERING, MECHANICAL Rapid Prototyping Journal Pub Date : 2024-07-25 DOI:10.1108/rpj-04-2024-0163
C. Jiang, Masrurotin Masrurotin, Maziar Ramezani, A. T. Wibisono, Ehsan Toyserkani, Wojciech Macek
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引用次数: 0

摘要

目的如今,熔融沉积建模(FDM)不仅在制造热塑性聚合物方面,而且在制造聚乳酸/金属合金复合材料方面都具有广阔的应用前景。本研究旨在通过打印聚乳酸/多金属物体的绿色主体、将这些物体进行脱胶处理并改变烧结参数来探索多金属部件的可制造性。去胶后,在非真空室中对印刷部件(绿色主体)进行等温烧结,在 1270 ℃-1530 ℃ 范围内的四个不同温度下烧结 12 小时,然后在炉中缓慢冷却,以研究其熔融行为。对所有样品都进行了评估,包括测量收缩率的几何评估、鉴定化合物结晶度的表征(XRD)以及探索表面孔隙率和形态的微观结构演变(光学显微镜和扫描电镜)。对每种样品的硬度进行了测量和比较。研究结果表明,所有样品都能通过减少重量有效地去结合,直到 16% 的绿体聚乳酸被成功蒸发。形貌结果表明,烧结过程有效,所有样品都有晶界,而多金属部分则明显显示出界面。此外,XRD 结果显示 SS316L 部件的结晶度较低,而 IN718 的结晶度较高。SS316L/IN718 零件的最佳烧结温度为 1500 ℃。硬度测试结果表明,烧结温度越高,硬度越高。原创性/价值 本研究强调了在非真空环境下于 1500 ℃ 成功烧结双金属不锈钢 316 L/Inconel 718 复合材料的过程。所得材料的最大硬度值分别为 SS316L 872 HV 和 IN718 755.5 HV,两种材料均表现出极佳的熔融性,未出现任何裂纹。
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Sintering parameter investigation for bimetallic stainless steel 316L/inconel 718 composite printed by dual-nozzle fused deposition modeling
Purpose Fused deposition modeling (FDM) nowadays offers promising future applications for fabricating not only thermoplastic-based polymers but also composite PLA/Metal alloy materials, this capability bridges the need for metallic components in complex manufacturing processes. The research is to explore the manufacturability of multi-metal parts by printing green bodies of PLA/multi-metal objects, carrying these objects to the debinding process and varying the sintering parameters. Design/methodology/approach Three different sample types of SS316L part, Inconel 718 part and bimetallic composite of SS316L/IN718 were effectively printed. After the debinding process, the printed parts (green bodies), were isothermally sintered in non-vacuum chamber to investigate the fusion behavior at four different temperatures in the range of 1270 °C−1530 °C for 12 h and slowly cooled in the furnace. All samples was assessed including geometrical assessment to measure the shrinkage, characterization (XRD) to identify the crystallinity of the compound and microstructural evolution (Optical microscopy and SEM) to explore the porosity and morphology on the surface. The hardness of each sample types was measured and compared. The sintering parameter was optimized according to the microstructural evaluation on the interface of SS316L/IN718 composite. Findings The investigation indicated that the de-binding of all the samples was effectively succeeded through less weight until 16% when the PLA of green bodies was successfully evaporated. The morphology result shows evidence of an effective sintering process to have the grain boundaries in all samples, while multi-metal parts clearly displayed the interface. Furthermore, the result of XRD shows the tendency of lower crystallinity in SS316L parts, whilst IN718 has a high crystallinity. The optimal sintering temperature for SS316L/IN718 parts is 1500 °C. The hardness test concludes that the higher sintering temperature gives a higher hardness result. Originality/value This study highlights the successful sintering of a bimetallic stainless steel 316 L/Inconel 718 composite, fabricated via dual-nozzle fused deposition modeling, in a non-vacuum environment at 1500 °C. The resulting material displayed maximum hardness values of 872 HV for SS316L and 755.5 HV for IN718, with both materials exhibiting excellent fusion without any cracks.
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来源期刊
Rapid Prototyping Journal
Rapid Prototyping Journal 工程技术-材料科学:综合
CiteScore
8.30
自引率
10.30%
发文量
137
审稿时长
4.6 months
期刊介绍: Rapid Prototyping Journal concentrates on development in a manufacturing environment but covers applications in other areas, such as medicine and construction. All papers published in this field are scattered over a wide range of international publications, none of which actually specializes in this particular discipline, this journal is a vital resource for anyone involved in additive manufacturing. It draws together important refereed papers on all aspects of AM from distinguished sources all over the world, to give a truly international perspective on this dynamic and exciting area. -Benchmarking – certification and qualification in AM- Mass customisation in AM- Design for AM- Materials aspects- Reviews of processes/applications- CAD and other software aspects- Enhancement of existing processes- Integration with design process- Management implications- New AM processes- Novel applications of AM parts- AM for tooling- Medical applications- Reverse engineering in relation to AM- Additive & Subtractive hybrid manufacturing- Industrialisation
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