纳米晶镁铝尖晶石透明微晶玻璃的晶化行为研究

利用DTA、XRD和TEM研究了制备工艺对微晶玻璃晶化行为的影响，并制备出具有纳米镁铝尖晶石为晶相的微晶玻璃。     

超重力对燃烧合成Ti（C，N）-TiB2复合粉体的影响

以Ti和B4C为起始反应物，分别在常规和超重力条件下通过燃烧合成技术制备出Ti（C,N）-TiB2复合粉体，利用XRD和SEM对燃烧产物进行了表征，研究了起始组成和超重力条件对燃烧产物相组成和微观形貌的影响。结果表明，燃烧产物主要由Ti（C，N）和TiB2组成，通过改变起始配方中Ti／B4C的摩尔比，可以调节产物中Ti（C，N）和TiB2的相对含量。超重力条件下，反应物颗粒接触更加充分，碰撞更加频繁，因而晶粒形态发育更加完整，生成规则的多面体。     

巨磁电阻材料的研究与应用

介绍了一种新型的磁性功能材料－巨磁电阻材料，综述了其研究进展情况。并就它在巨磁电阻传感器、高密度磁记录读出磁头、巨磁电阻随机存储器以及自旋晶体管等磁电子元器件上的进行了论述。     

Effects of plasma treatment on bioactivity of TiO2 coatings

In this work, nano-TiO₂ powders were deposited on titanium alloy substrates by atmospheric plasma spraying, followed by plasma immersion ion implantation (PIII) using hydrogen, oxygen and ammonia gases. The bioactivities of PIII-treated TiO₂ coatings were evaluated by the formation of apatite on their surface after soaked in simulated body fluids (SBF) for a period of time. As-sprayed TiO₂ coating is composed of rutile, anatase and TiO_2−x (most of them is Ti₃O₅). After immersion in SBF for two weeks, the hydrogen PIII-treated TiO₂ coating can induce bone-like apatite formation on its surface but apatite cannot be formed on the surface of as-sprayed and oxygen, ammonia PIII-treated TiO₂ coatings. The results obtained indicated that a hydrogenated surface plays a very important role to induce bioactivity of TiO₂ coatings.     

稀土元素对硬质合金高温性能的影响

采用动态热模拟试验技术，研究了添加微量稀土元素对硬质含金高温性能的影响。试验结果表明：添加微量稀土元素，能改善硬质合金高温性能，增加合金的塑性和高温韧性，降低硬质合金的热强性。     

65Mn钢CCT曲线及圆锯片淬火工艺

用全自动相变测定仪测定了圆锯片常用６５Ｍｎ钢的连续冷却转为曲线，研究了不同连续冷却速度下得到的组织，为合理制订圆锯片的淬火工艺提供了依据，得到了最佳淬火工艺曲线。     

从热滤渣中富集提取贵金属

介绍了减压蒸馏脱硫，熔炼富集，高温悬浮氯气浸出处理热滤渣的工艺。其综合利用好，元素硫脱除率〉９２％，贱金属浸出率〉９５％，贵金属回收率〉９９％。贵金属富集物可并入贵金属精炼分离工段处理。     

方柱体镦粗的两个新力学模型

在对平板间镦粗圆柱体的研究［１，２，３］基础上，进一步对普通平板间的方柱体镦粗，进行了工程力学的分析，提出了二个新力学模型，并进行了实验验证。这为形成新的拔长理论［４，６］奠定了力学基础。     

Formation of WC/Ni hard alloy coating by laser cladding of W/C/Ni pure element powder blend

WC/Ni coating was formed by laser cladding of a W/C/Ni powder blend. The formed WC crystals have rectangular or quadrangle cross-section shapes with size of 2–30 μm. Step, twist and cross growth morphologies of WC formation were observed. The coating contains WC, CW_3, WNi, FeW₃C, Fe₆W₆C, W₃O, W, C, and (Fe,Ni) phases.