走出科学教育的现代迷茫

科学与人文之争已历经上百年，在以知识为主导的新时代，科学教育倍爱世人的青睐。科学教育既是科学人才的产床，也是人性异化等扼杀人类文明、威胁人类生存的制造之所。科学教育必须走上与人文教育相结合的道路才能走出现代迷惘，并最终使科学真正带给人类以福祉而不是灾难。     

乙酸乙酯分离竹子中木质素制浆造纸研究

用乙酸乙酯浸提竹子制取纸浆，并用造纸行业相关国家标准对纸浆进行了分析。探讨了乙酸乙酯浓度、反应温度、反应时间、原料与溶剂的固液比对纸浆质量的影响。实验结果表明：当乙酸乙酯浓度为60％、反应温度为180℃、反应时间2h、原料-溶剂比为1：6时，制得的纸浆中残余木素含量相对较低、纸浆得率较高。     

发射光谱定量分析光学玻璃中As、Pb、Hg、Cu元素

本方法对光学玻璃进行直接光谱定量分析,实验采用直接固体试样、垂直电极、光流电弧摄谱,标样与试样基本成份一致,消除了干扰。方法快速,准确,灵敏,简便,并同时测定多项元素。     

JXTA技术中RPV的改进策略

JXTA技术的对等网络中普遍存在RPV管理不足的现象,该现象对网络中的信息传递有较大影响.分析了现有RPV中的聚集对等点信息管理的缺陷,以及由此导致的查询效率和网络性能的降低.提出了对RPV的改进策略,并给出了相应的查询消息发送机制.改进后的RPV策略提高了查询效率,并改善了RPV的适应性.     

Evolutionary Computation and its Application

On Mar.23,2006,a project in the Major Program of NSFC-"Evolutionary computation and its application",managed by Prof.Licheng Jiao,Prof.Lishan Kang,Prof.Zhenya He,and Prof.Tao Xie,passed its Final Qualification Process and was evaluated as Excellent.     

关于极大子群的θ—对

设M为有限群G的极大子群,M的θ-对是一个子群对(C,D),且满足条件(ⅰ)DG,D相似文献   

Intelligence service binding architecture for interoperability between home network devices

Existing home devices in home network provides only independent services limited on a homogeneous protocol and/or do not fully support an intelligent service provided by cooperating among heterogeneous protocol devices. This paper proposes an intelligent and integrated service binding architecture which allow the users to figure out the status of devices and to cooperate among home network devices regardless of supported protocols or operational characteristics.     

AMC垃圾渗滤液处理工艺

介绍了AMC垃圾渗滤液处理的工艺流程,对系统单元进行了功用分析,探讨了AMC系统的特点。     

Preparation and properties of the SmOx/Rh(100) model surface

The preparation of SmOx/Rh(100) and CO adsorption on this model surface have been investigated with Auger electron spectroscopy (AES), X-ray photoelectron spectroscopy (XPS) and temperature programmed desorption spectroscopy (TDS). The oxygen adsorption on the SmRh alloy surface leads to the aggregation of Sm on the surface. The thermal treatment of this oxidized surface induces the further agglomeration of SmOx on the Rh(100) surface. Compared with CO TDS on the clean Rh(100) surface, three additional CO desorption peaks can be observed at 176, 331 and 600 K on the SmOx/Rh(100) surface. The CO desorption peak at 176 K may originate from CO adsorbed on SmOx islands, while the appearance of the CO adsorption peaks at 331 and 600 K, depending on the oxidation state of Sm, is attributed to CO species located at the interface of SmOx/Rh(100).