1) austenite
[英]['ɔ:stə,nait] [美]['ɔstə,naɪt]
奥氏体
1.
Research on austenite grain growth behavior of GCr15 steel;
GCr15钢奥氏体晶粒长大规律研究
2.
The Deformation and Recrystalization of Austenite of Steel in Rolling Processing;
轧制过程中钢的奥氏体变形与再结晶
3.
Study on the Plasma Arc Welding Technology of Austenite Stainless Steel Parts;
奥氏体不锈钢件的等离子弧焊接工艺研究
2) austenitic
[英][,ɔ:stə'nitik] [美][,ɔstə'nɪtɪk]
奥氏体
1.
Surface Quality Control of Cold Rolled Austenitic Stainless Stell Strip for Deep Drawing;
冲压用冷轧奥氏体不锈钢带的表面质量控制
2.
Supersonic detection for welding joint of austenitic stainless steel small-diameter pipe;
奥氏体不锈钢小径管焊缝超声波检测
3.
Inspection detection research in austenitic stainless steel with different ultrasonic probes;
奥氏体不锈钢焊接接头超声波检测研究
3) austenite steel
奥氏体钢
1.
The interface lattice misfitting theory can not explain that TiC and CaS act as an efficient catalyzer during the non-equilibrium solidification of austenite steel.
利用界面共格对应理论无法解释奥氏体钢非平衡凝固过程中TiC、CaS为奥氏体枝晶有效异质核心的现象。
2.
The performance of granular γ+(Fe,Mn)3C eutectics reinforced austenite steel matrix composites (EAMC) was studied, and the strengthening/toughness match and wear resistance were analyzed.
在研究团球γ+(Fe,Mn)3C共晶体增强奥氏体钢基自生复合材料(EAMC)的力学与耐磨性能的基础上,分析了EAMC的强韧化及耐磨机理。
3.
The effect of sliding velocity on the friction behaviors of in situ granular 7+(Fe, Mn)3C eutectics reinforced austenite steel matrix composites (EAMC) has been investigated by the pin-on disc dry sliding tests and scanning electron microscopy (SEM) observation.
利用MPX-2000型主轴盘销式磨损实验机和扫描电子显微镜(SEM)研究了相对滑动速度对团球γ+(Fe,Mn)_3C共晶体增强奥氏体钢基自生复合材料(EAMC)摩擦学性能的影响。
4) austenizing
奥氏体化
1.
The quenching microstructure of low carbon steel after austenizing with and without DC electric field was studied.
研究了低碳钢在直流静电场中进行奥氏体化后淬火的显微组织。
2.
From the mechanics of steel austenizing ,a mathimatic model of austenizing process is set up.
从钢的奥氏体化机理入手，建立了加热奥氏体的数学模型；并对激光加热温度场和硬化带进行了估算。
3.
The microstructure of 45CrMoV steel after austenizing followed by air cooling and tempering at various temperatures have been studied, using TEM and SAD.
利用透射电镜和选区电子衍射研究了45CrMoV钢奥氏体化后空冷及其在不同温度回火的显微组织。
5) austenitic steel
奥氏体钢
1.
The direct relationship between stacking fault energy and phase transformation driving force of austenitic steels and the effect of stacking fault energy and strain energy on the morphology of martensite are deduced.
导出了在奥氏体钢中相变驱动力与层错能的关系以及层错能和应变能对马氏体形态的影响规律。
2.
The effects of stacking fault energy and strength on phase transformation in cryogenic austenitic steels were studied.
研究了低温奥氏体钢中层错能和强度对相变的作用 ,导出了相变临界分切应力和层错能与强度之间的关系式。
6) austenization
奥氏体化
1.
Effects of Nb on the austenization and static recrystallization behavior of 20MnSi steel;
铌对20MnSi钢奥氏体化和静态再结晶的影响
2.
Simulation of austenization during intercritical annealing for Fe-C-Mn cold rolling dual phase steel;
Fe-C-Mn系冷轧双相钢两相区奥氏体化过程模拟
3.
In this paper the quenching microstructure of the low carbon steel in the austenization with the application of an electric field 20kV/cm between the specimen and a companion electrode of an electrostatic circuit is studied.
研究了电场奥氏体化对低碳钢的淬火组织的影响。
补充资料：奥氏体
碳溶解在γ铁中形成的一种间隙固溶体，呈面心立方结构,无磁性。奥氏体是一般钢在高温下的组织,其存在有一定的温度和成分范围。有些淬火钢能使部分奥氏体保留到室温，这种奥氏体称残留奥氏体。在合金钢中除碳之外,其他合金元素也可溶于奥氏体中,并扩大或缩小奥氏体稳定区的温度和成分范围。例如，加入锰和镍能将奥氏体临界转变温度降至室温以下，使钢在室温下保持奥氏体组织，即所谓奥氏体钢（见铁碳平衡图、过冷奥氏体转变图）。
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