化工原理教学中突出工程思维的培养

化工原理是一门实践性、工程性很强的应用课程。教学实践中应注重培养学生的工程思维、工程意识、分析工程问题、解决工程问题的能力。本文从工程研究方法的角度探讨对学生工程思维的培养问题。     

浅谈煤炭企业改革与内部审计发展

针对煤炭企业内部审计工作中存在的问题,提出了煤炭企业内部审计工作完善和发展的建议。     

接受美学观照下的探究性阅读教学的流程

本文从接受美学的角度来观照探究性阅读教学，并以此构建起三个层阶的阅读教学流程。即一级阅读：审美感知的理解阅读阶段；二级阅读：意义反思的阐释阅读阶段；三级阅读：意义融合的历史重建阅读阶段。这种教学流程不仅吸收了他人在阅读教学研究中获得的经验，还将阅读的视野拓展到更深层的历史视野中，帮助学生对文本的意义作更深入的探究。     

用高品位高硫铝土矿生产氧化铝时的除硫新方法研究

本文研究了贵州高硫型高品位铝土矿溶出性能,考查了石灰添加量、溶出温度、苛性碱浓度和溶出时间对氧化铝溶出率的影响以及铝土矿的硫向溶液中的转化率(即硫的溶出率)的影响;还研究了用铝酸钡净化拜耳赤泥洗液的除硫条件和效果。     

西安事变前后中共对蒋政策之嬗变

以1936年下半年以来国共两党接触的相关文献和档案为基础,从更宽的视野中去追寻形成西安事变最终解决条件的若干历史细节,并由此得出三个结论:其一,事变解决的具体条件在事变发生之前即已被双方提及;其二,突发的西安事变使蒋氏在坚持改编红军的强硬前提下放弃了极端强硬的一些条件,而回到了事变前曾经提出过的一些框架之中;其三,中共在西安事变初期态度强硬,但最终却让步,这与蒋氏的强硬不无关系,蒋在事变中并非完全处于被动。     

论社会主义荣辱观与和谐校园的构建

和谐校园是一个理想校园。构建和谐校园是实现和谐社会的重要环节和组成部分。本文通过分析社会主义荣辱观的主要内容及其在大学校园的适用，阐述了广大师生通过树立社会主义荣辱现在加强认识、强化情感、坚定意志和努力实践等方面对构建和谐校园的重大意义。     

Determination of the rheological behavior of epoxy–amine thermosets by dynamic mechanical analysis: Isothermal methods versus nonisothermal methods

The reticulation process of an epoxy resin using an amine as a cure agent was studied at different temperatures and concentrations of the cure agent with dynamic mechanical thermal analysis. The study was performed under both isothermal and nonisothermal conditions, and a temperature–time–transformation diagram was obtained. The measurements from the two modes gave similar results, although the nonisothermal mode required fewer experiments. © 2003 Wiley Periodicals, Inc. J Polym Sci Part B: Polym Phys 41: 1965–1977, 2003     

Simultaneous Pseudo-Timestepping for PDE-Model Based Optimization Problems

In this paper we present a new method for the solution of optimization problems with PDE constraints. It is based on simultaneous pseudo-time stepping for evolution equations. The new method can be viewed as a continuous reduced SQP method in the sense that it uses a preconditioner derived from that method. The reduced Hessian in the preconditioner is approximated by a pseudo-differential operator, whose symbol can be investigated analytically. We apply our method to a boundary control model problem. The new optimization method needs 3.2-times the overall computational effort of the solution of simulation problem alone.