LSP路径脉冲能量对AHSS-DP 350/600的影响

Baidoo Philip
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引用次数: 1

摘要

激光冲击加工(LSP)是一种新型的材料外表面改性技术。Cheng等[1]研究了LSP对Fe-Ni合金纳米硬度、弹性模量和表面残余应力的影响,并研究了LSP对Fe-Ni合金纳米硬度、弹性模量和表面残余应力的影响。采用纳米压痕技术测定了Fe-Ni合金在LSP后的显微硬度和弹性模量的重要性。利用sin2ψ的XRD和扫描电镜(SEM)对LSP溶液前后的微观结构进行了观察。结果表明,与非LSP区域相比,LSP区域的显微硬度、弹性模量和向外残余力明显提高到理想的程度。Banderas等人[2]在一篇论文中强调警告,使用LSP设置并评估了吸收剂覆盖在残余应力场上的负侧,并对能级进行了评估。以倍数分布的残余缺陷具有由钻孔行为控制的内部深度特征。结果表明,残余应力的扩散使write-about移动到试样外侧改变的位置。LSP后试样表面涂层的防止,提高了该铝合金的磨损和接触疲劳性能。Guan等人[3]在用于测量微小薄膜的力学性能(包括弹性模量和微小硬度)的微压痕工作中也证实了这一点。在LY2铝合金加工过程中,LSP对样品的硬度和弹性模量有一系列的影响。结果表明,与非lsp相比,纳米压痕技术值分别提高了58.13%和61.74%。LPS提高了金属的机械强度,对金属的疲劳性能和耐蚀性有显著的影响。Hill等人[4]研究了7085-T7651铝材经LSP和阳极氧化试样处理后的提前循环疲劳特性。应力特性和疲劳数据在高湿度环境下点火,使用光滑(Kt = 1)试样在应力比(R= 0.1)下进行测试。结果表明,冲击试样的疲劳性能得到了更显著的改善。深红出版社的研究之翼研究文章
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The Sway of Effect Pulse Energies of LSP Pathways on AHSS-DP 350/600
Laser shock processing (LSP) is accountably novel material outward layer body modification technology. It employs high power laser to inflict a well-built hit wave on material outer body layer to refine the material structure and induce residual stress beneficially into outward appearance Cheng et al. [1] worked on the effects of LSP on Nano-hardness, elastic modulus and surface residual stress of Fe-Ni alloy and investigated. The importance of tiny-hardness and elastic modulus on Fe-Ni alloy after LSP were measured by the Nano indentation technology. The marked residual effort outward layer by XRD with sin2ψ and scanning electron microscopy (SEM) observation of the microstructure before and after LSP solutions were captured. Execute resulted that outer appearance of the tiny-hardness, elastic modulus and outward residual effort in LSP region, were obviously raised to a desirable point as against non-LSP region. Banderas et al. [2] emphatically alarmed on a paper the negative side of an absorbent overlay on the residual stress field using LSP setup and the energy level were evaluated. The Residual defects spread in multiples have a character of inner depth governed by the drilling behavior. It was seen that the overspread of residual stress move the write-about to a position changed on the outer side on the specimen. The prevention of coating the specimen surface after LSP have improved wear and contact fatigue properties of this aluminum alloy. Guan et al. [3] confirmed also in the work done on tiny-indentation used to handle measuring tiny films on mechanical properties, including elastic modulus and tiny-hardness. The pithy-hardness and elastic modulus samples manufacture have a series of effects by LSP during LY2 aluminum alloy worked. The outcome of the result shown Nanoindentation techniques values increased by 58.13% and 61.74% as compared to non-LSP. LPS improved metal mechanical strength which governed fatigue property and corrosion resistance were alarmed. Hill et al. [4] investigated that the advance-cycle fatigue feats in accordance with 7085-T7651 aluminum treated with a sample of LSP and anodization. The Stress-feats and fatigue-data were ignited in a high-level humidity environment which used smooth (Kt = 1) specimens test at a stress ratio (R= 0.1). This resulted that shocked specimens chanced-out higher significant improvement in fatigue performance. Crimson Publishers Wings to the Research Research Article
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