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论大学生心理健康教育中的认识误区 被引量:3
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作者 吴萍 彭振宇 《武汉职业技术学院学报》 2004年第1期14-16,共3页
心理健康教育是高等学校德育工作的重要组成部分 ,在推行大学生心理健康教育的过程中 ,目前存在三大认识误区 ,即观念误区、内涵误区、标准误区。本文就这三大误区进行了分析和论证。
关键词 大学生 心理健康教育 德育 观念误区 内涵误区 标准误区
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Comparative Analysis of EEG Signals Based on Complexity Measure
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作者 ZHU Jia-fu HE Wei 《Chinese Journal of Biomedical Engineering(English Edition)》 2009年第4期144-148,170,共6页
The aim of this study is to identify the functions and states of the brains according to the values of the complexity measure of the EEG signals. The EEG signals of 30 normal samples and 30 patient samples are collect... The aim of this study is to identify the functions and states of the brains according to the values of the complexity measure of the EEG signals. The EEG signals of 30 normal samples and 30 patient samples are collected. Based on the preprocessing for the raw data, a computational program for complexity measure is compiled and the complexity measures of all samples are calculated. The mean value and standard error of complexity measure of control group is as 0.33 and 0.10, and the normal group is as 0.53 and 0.08. When the confidence degree is 0.05, the confidence interval of the normal population mean of complexity measures for the control group is (0.2871,0.3652), and (0.4944,0.5552) for the normal group. The statistic results show that the normal samples and patient samples can be clearly distinguished by the value of measures. In clinical medicine, the results can be used to be a reference to evaluate the function or state, to diagnose disease, to monitor the rehabilitation progress of the brain. 展开更多
关键词 EEG signal nonlinear dynamics Kolmogorov complexity comparative analysis
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Mesh sharpening via normal filtering 被引量:2
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作者 Jian-guo SHEN San-yuan ZHANG +2 位作者 Zhi-yang CHEN Yin ZHANG Xiu-zi YE 《Journal of Zhejiang University-Science A(Applied Physics & Engineering)》 SCIE EI CAS CSCD 2009年第4期546-553,共8页
We present a robust mesh sharpening approach to reconstructing sharp features from blended or chamfered features, even with noise and aliasing errors. Feature regions were first recognized via normal variation accordi... We present a robust mesh sharpening approach to reconstructing sharp features from blended or chamfered features, even with noise and aliasing errors. Feature regions were first recognized via normal variation according to the user's input, and then normal filtering was applied to faces of feature regions. Finally, the vertices of the feature region were gradually updated based on new face normals using a least-squares error criterion. Experimental results demonstrate that the method is effective and robust in sharpening meshes. 展开更多
关键词 Normal filtering Sharp feature Mesh sharpening BLEND CHAMFER
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