crack blunting

英 [kræk ˈblʌntɪŋ] 美 [kræk ˈblʌntɪŋ]

网络  裂纹钝化

化学



双语例句

  1. Analyzing the blunting process at crack tip and the form of blunting line in J-integral test, results indicate that the slope of blunting line in current standard is too low to obtain valid data for highly tough metals.
    分析了裂纹钝化过程和J积分测试中的钝化线形式。研究认为,对于高韧性金属,现行J积分测试标准对有效数据的选取,因规定的钝化线斜率太低而误判率较高。
  2. It is considered that the crack blunting process of each several material is different and that the blunting equation depends on the dissimilarity in strength, ductility and strain hardening behavior of the materials.
    研究认为,不同金属具有不同的裂纹钝化特征,钝化线方程取决于材料的强度、塑性和应变强化能力。
  3. The effect of temperature on impact fracture toughness was a result of the joint effect of tan δ loss with crack tip thermal blunting.
    温度对冲击断裂韧性的影响,是tanδ损耗和裂尖前缘热钝化共同作用的结果。
  4. It turns out that crack closure is the main reason for retardation, and crack tip blunting, crack deflection and strain-induced martensite would reinforce it.
    室温蠕变对裂纹扩展产生延滞的原因主要是裂纹闭合,同时裂尖钝化、裂纹偏折及形变诱发马氏体的形成也会起到一定的作用。
  5. Two kinds of crack blunting mechanism a new form of blunting line
    两种裂纹钝化机制一种新的钝化线形式
  6. Two kinds of crack blunting mechanism
    两种裂纹钝化机制
  7. The overload effects were controlled by various factors such as crack blunting, residual compressive stress ahead of the crack tip and crack closure induced by wake zone plasticity.
    过载效应是裂尖钝化、裂尖附近残余压应力和裂尖尾部塑性诱导闭合等共同作用的结果。
  8. On the basis of experiment and research efforts, the paper points out that the growth of elastic-plastic fatigue crack ( EPFC) is a course of alternate crack-tip blunting, initiating and stable growth. The growth mechanism is of the mode of energy or strain accumulation.
    本文通过实验研究指出:弹塑性疲劳裂纹的扩展,是一个裂尖钝化启裂和裂纹稳定扩展交替进行的过程,其扩展机制为能量累积型或应变累积型。
  9. In situ TEM technique was employed to observe the influence of lamellar structure on the crack propagation in duplex TiAl alloy. It has been found that both crack tip blunting and crack propagating have connected with the angle included between crack growth and lamellar direction.
    在TEM下原位观察了双相TiAl层状组织对裂纹扩展的影响,发现裂纹尖端的钝化以及裂纹的扩展方式与裂纹和片层界面的夹角有关。