定向凝固

定向凝固Al／C复合材料研究

Directional solidification of al / C Composite

MonteCarlo方法在定向凝固模拟中的应用

Application of Monte Carlo Method for the Microstructure Simulation of Directional Solidification

关于｛x／n｝的分布定向凝固钴基高温合金中碳化物形态和分布

Morphology and distribution of carbides in directionally solidified cobalt base superalloy

定向凝固Al-38.5%Cu合金中Al2Cu相的小平面特性

Facet of Al_2Cu Phase in Directionally Solidified Al-38.5 % Cu Alloy

浇注温度对定向凝固Al－Cu合金热裂的影响

Influence of Casting Temperature on Hot Cracking of Directionally Solidified Al-Cu Alloys

定向凝固Ti-（44%&54%）Al合金的凝固相选择

Solidification phase selection in directionally solidified ti - ( 44 % - 54 % ) al alloys

P，Zr，B对定向凝固IN738合金组织和偏析的影响

Effects of p , Zr and B on Microstructure and segregation of directionally solidified in 738 super alloy

金属／气体共晶二维定向凝固放射状多孔Mg的结构特征

Structural features of radial & type porous magnesium fabricated by bidirectional solidification of metal / gas eutectic

激光区熔定向凝固Al2O3/YAG/ZrO2亚共晶陶瓷的微观组织

Microstructure of Al_2O_3 / YAG / ZrO_2 Hypoeutectic Ceramics Directionally Solidified with Laser Zone Melting

La对定向凝固Al-4.5%Cu合金热疲劳性能的影响

Effect of La on Thermal Fatigue Property of Unidirectional Solidification of Al-4.5 % Cu Alloy

低生长速度下定向凝固Nd（13.5）Fe（81.5）B5永磁合金的磁取向

Magnetic Alignment of Directionally Solidified Nd_ ( 13.5 ) Fe_ ( 81.5 ) B_5 Alloy at Lower Crystal Growth Speeds

凝固界面临界分叉－Sn－Pb共晶定向凝固几何模型

Critical Splitting of the Solidifying Interface-the Geometric Model of the Sn-Pb Eutectic during Directional Solidification

TiAl金属间化合物的定向凝固和晶向控制

Directional solidification and lamellar orientation control of TiAl intermetallics

HRS定向凝固过程中固/液界面位置控制

Control of solid / liquid interface position on directional solidification process

Hf和凝固冷速对定向凝固高温合金低周疲劳性能的影响

Effect of Element Hf and Cooling Rate during Solidification on Low Cycle Fatigue Properties of Directionally Solidified Superalloys

镍基高温合金HRS定向凝固过程的计算机模拟及控制

Computer modelling and control of HRS directional solidification process of Ni-base superalloys

限制定向凝固法制备YBCO超导体单畴生长的分析

Analysis of the Limits of YBCO Single Domain Growth Using Directional Solidification Method

定向凝固Ni3Al－Mo基合金高温氧化研究

High temperature oxidation behavior of DS ni_3al-mo base alloy

用电子探针测定了铝合金中Al－1.35%Cu和Al－0.25%Cr在定向凝固过程中液固界面处的溶质分配系数。

The electron microprobe was used to determine the solute distribution coefficient at liquid-solid interface in Al-1.35 % Cu and Al-0.25 % Cr alloys during directionally solidification .

定向凝固制备YBCO高温超导氧化物的工艺探索及组织分析

Study on Technology Searching and Microstructure Analysis of YBCO Superconductors Made by Directional Solidification

HRS法定向凝固的理论分析5mM丁酸钠作用24小时后，细胞体积增大，形态改变呈现上皮样；

Theoretical Analysis of Directional Solidification in HRS Process 24 hrs .

对钛合金中的TiC，用重力法和定向凝固法制备试样，分析研究了其中TiC形态及生长方向。

Morphology and growing direction of TiC in titanium alloy has been investigated by gravity and directional solidification technique .

定向凝固和单晶体的Ni3Al（B，Hf）在中温下的蠕变-疲劳性能

Creep-fatigue behavior of directionally solidified and single crystal intermetallic ni3al ( b , hf ) at an intermediate temperature

定向凝固Ni3Al合金高温变形后的显微组织特征

Microstructure features in directionally solidified ni_3al alloy after high temperature deformation

Al-Cu合金高梯度定向凝固过程中的形态转变

Morphological transitions during directional solidification under high thermal gradient

定向凝固NiAl-Cr（Mo，Hf）合金的显微组织及力学性能研究

The Microstructure and Mechanical Property of a Directionally Solidified NiAl-Cr ( Mo , Hf ) Composite

运用光学显微镜、扫描电子显微镜、能谱分析仪、X射线衍射仪、热分析仪对多主元合金进行了显微结构、元素分布、相组成、热性能和定向凝固组织演化规律的研究。

The phase , distribution of element , microstructure evolution and thermal property of multi-principal-element alloys were examined by using optical microscope , SEM , EDS , XRD , DSC .

定向凝固Ni3Al工艺参数的特性

The characterization of the process parameters for the directional solidification of ni_3al

利用TEM研究了两种定向凝固共晶合金NiAl－Cr和NiAl－（Cr，Mo）在不同状态下的显微结构特征，以能了解其复相强韧化作用。

Directionally solidified NiAl-Cr and NiAl - ( Cr , Mo ) eutectic alloys were studied by TEM to characterize their microstructures .

Bridgman法铸铁定向凝固一维传热特性的测试分析

The Heat Transfer of Unidirectional Solidification of Cast Iron in Bridgman Configuration