1) hardened layer
硬化层
1.
Constructions controlling the cracking on waterproofing concrete roof and hardened layer;
防水混凝土屋面及硬化层施工裂缝控制
2.
The results show that when the thickness of hardened layer is 0.
为了确定钛合金表面扩散焊接轴承钢硬化层的合适厚度,利用先进的纳米显微力学探针测量了材料的弹性模量。
3.
Being a kind of integrated structural parts,different thickness of Ni hardened layer has great effect on distribution of internal stress and dimensional stability.
作为一种整体结构件,在实际应用中镍硬化层的厚度对部件的内应力分布以及尺寸稳定性有着重要的影响。
2) hardening layer
硬化层
1.
The microstructure and property of remelting hardening layer at different paramenters was analyzed by scanning electron microscope and microhardeness sclerometer and abrasion test-machine and salt-mist test-machine.
利用扫描电镜、显微硬度计、磨损试验机和盐雾试验机研究了不同工艺下熔凝硬化层显微组织及性能。
2.
The relation between the processing parameters and the size of hardening layer the micro-hardness is investigated.
研究了40Cr钢表面激光淬火工艺参数与硬化层尺寸以及显微硬度的关系,分析了激光硬化层的显微组织。
3.
The Al concentration distribution in aluminized layer,microstructure and some properties of surface hardening layer were studied.
研究了渗层的铝浓度分布，硬化层的显微特性及有关性能。
3) hardened case
硬化层
1.
Based on the three-dimensions transient temperature distribution model, the paper analyzes the effects of different combination of laser power and scanning velocity on the hardened case's uniformity.
以三维瞬态温度场分布模型为基础 ,对激光相变硬化中不同激光功率和扫描速度组合对硬化层分布均匀性的影响进行了理论研究。
2.
According to the uniformity of the hardened case, the technique of using curved rectangular beam in laser hardening is put forward.
针对改善激光硬化层均匀性问题,提出了采用曲边矩形光斑进行激光淬火的方法,并对该光斑扫描作用下工件内的温度场及硬化层进行理论模拟。
3.
According to the feature of the temperature distribution induced by laser scanning, the simple formulas for the fast calculation of the hardened case are set up.
根据激光扫描时工件内温度场及硬化层的分布特征 ,提出了简便实用的硬化层预测计算公式。
4) hardened-depth
硬化层深
1.
Nondestructive testing of metal hardened-depth is an important problem to be solved in machinery industry.
金属表面硬化层深的检测一直是机械工业部门急需解决的问题，涡流法作为一种无损检测方法相较于以往的破坏性检测有更高的可靠性和经济效益。
5) depth of hardening
硬化深层
6) depth of hardened layer
硬化层深度
1.
When the grinding parameters are constant, the depth of hardened layer and.
结果表明:硬化层完全硬化区均由细小的孪晶马氏体和板条马氏体组成,且硬化层的组织形貌及显微硬度无显著变化,但硬化层略粗马氏体相的出现位置有所差异;在磨削用量恒定时,顺磨硬化层的深度以及最大残余压应力均大于逆磨硬化层;在磨削功率恒定时,采用逆磨方式可以获得更深的硬化层;与干磨相比,湿磨硬化层表面残余压应力有所提高,但其硬化层深度减少了约30%。
补充资料：硬化
分子式：
分子量：
CAS号：
性质：见变定。
分子量：
CAS号：
性质：见变定。
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