1) vibratory stress relief technology
振动时效工艺
1.
The vibratory stress relief technology directly influence the aging results of aluminum alloy thick plates.
振动时效是一种能有效地降低残余应力和提高尺寸稳定性的技术,其中,振动时效工艺的掌握至关重要。
2) aging process
时效工艺
1.
The effects of aging process on the electrical and mechanical properties are studied.
研究了铜碲合金的时效工艺,用扫描电镜(SEM)和能谱(EDS)分析了析出相的形貌与组成,进而研究了时效工艺对其电性能及力学性能的影响。
2.
With different aging processes, the effects of aging temperature and time on ZL101A alloy's mechanical properties had been studied.
采用不同的时效工艺 ,研究了时效温度和时间对 ZL10 1A合金性能的影响 ,得出了该合金较理想的时效制度 ,在此制度下 ,ZL10 1A合金的金属型典型性能达到 σb≥ 330 MPa,δ5≥ 10 % ,为满足航空、航天等领域对高性能铝合金精密铸件的需求奠定了材料基础。
3) vibratory technology
振动工艺
4) vibratory stress relief
振动时效
1.
Research on the vibratory stress relief used to reduce butt weld residual stress of dissimilar steel;
振动时效用于降低异种钢对接焊缝残余应力的试验研究
2.
The mechanism for vibratory stress relief of stainless steel;
不锈钢振动时效过程的循环蠕变机理
3.
Application of vibratory stress relief to the residual stress elimination for steel manifords;
振动时效工艺在钢岔管消除残余应力中的应用
5) vibration stress relief
振动时效
1.
Investigation on vibration stress relief of post-welded drums;
振动时效在卷筒体焊后消应力中的应用
2.
To quickly and quantitatively evaluate the vibration stress relief (VSR) effect in the site, assumption about VSR criterion is presented.
为了实现振动时效(VSR)效果的现场定量快速评定,提出了振动时效动应力判据的设想:仅通过动应力参数的测量就可迅速地求得消应力效果。
6) Vibration aging
振动时效
1.
The Research for the Vibration Aging of the Large Mill Vessel;
大型磨机筒体振动时效研究
2.
Based on the analysis of the effect of excitation force of vibration aging on the fatigue life of white cast iron parts, the selection gist for excitation force was determined.
从理论上分析了振动时效激振力对白口铸铁工件疲劳寿命的影响,确定了白口铸铁疲劳破坏工件振动时效激振力的选择依据。
3.
This paper introduced the damage of residual stress to machine building,analyzed the theory and application of vibration aging as well as its effect on eliminating residual stress.
主要介绍了残余应力在机械制造中的危害,分析了振动时效工艺的理论和应用及其在生产实践中的应用效果。
补充资料：采气工艺(见天然气开采工艺)
采气工艺(见天然气开采工艺)
gas production technology
，一‘J\匕乙吕天然气开采工艺pro以uetionteehnology)见
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条