1、The results show that the microstructure was mainly composed of martensite and lower-bainite.
結(jié)果表明，實驗鋼的組織以馬氏體和下貝氏體為主。

2、These lath martensite first nucleates in parent austenite intergranular and twin boundary.
應(yīng)變誘發(fā)馬氏體首先在原奧氏體晶界和孿晶界形核。

3、Failure Analysis on Quenching Cracking of High Carbon Martensite Steel Ball
高碳馬氏體鋼球淬火開裂失效分析

4、Rapid cooling after nitrocarburizing, martensite structure is obtained at the diffusion layer.
氮碳共滲后快冷，在滲層獲得含氮碳的馬氏體組織。

5、The microstructure of surfacing metal is lath martensite and carbide.
堆焊層顯微組織為低碳馬氏體和碳化物。

6、This equation reflects the special character of martensite phase transformation well.
該方程能較好地反映馬氏體相變特征。

7、TEM Study on Relative Orientation Between Adjacent Martensite Laths
相鄰板條馬氏體間位向關(guān)系的TEM研究

8、No deformation martensite phase was discovered.
沒有發(fā)現(xiàn)形變誘發(fā)馬氏體相。

9、The structure of the studied steels was bainite, martensite and retained austenite.
研究用鋼的室溫組織為貝氏體、馬氏體、少量殘余奧氏體。

10、They are dislocated lath martensite area and twinned martensite area respectively.
這些微區(qū)分別為內(nèi)孿晶馬氏體區(qū)和位錯板條馬氏體區(qū)。

11、Tempered Martensite Embrittlement in a 5Cr_4 Mo_3 Si Mn VAl Matrix Steel
5Cr_4Mo_3SiMnVAl基體鋼回火馬氏體脆性

12、The interface of austenite and martensite is somewhat straight.
奧氏體和馬氏體之間的界面為較平直的界面。

13、INFLUENCE OF CARBON ON MICROSTRUCTURE OF MARTENSITE IN Fe—C ALLOYS
含碳量對Fe—C合金馬氏體形態(tài)的影響

14、Erosive Wear of High—Cr Cast Iron With Austenite or Martensite Matrix
奧氏體基體和馬氏體基體高鉻鑄鐵的沖蝕磨損特性

15、The deformation dislocation density and martensite microstructure were also analysed by TEM.
采用TEM對形變位錯密度以及馬氏體組織進行了分析。

16、APPLICATION OF ISOTHERMAL MARTENSITE IN GCr15 BALL-BEARING STEEL
GCr15軸承鋼中等溫馬氏體的應(yīng)用

17、The Grain Refining Process for 18Ni(2450MPa) Martensite Aged Steel
18Ni(2450MPa級)馬氏體時效鋼細化晶粒工藝

18、Fine structure of martensite in M-A constituents is twin sub structure.
組元中馬氏體的精細結(jié)構(gòu)為孿晶亞結(jié)構(gòu)。

19、FORMATION MECHANISM OF ISOTHERMAL MARTENSITE IN 1C-1.5Cr BALL BEARING STEEL
1C-1.5Cr軸承鋼中等溫馬氏體的形成

martensite翻譯