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基于铁基非晶态合金细丝的微压力传感器
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作者 石延平 范书华 臧勇 《仪表技术与传感器》 CSCD 北大核心 2013年第2期7-9,共3页
对一种利用Fe基非晶态软磁合金细丝作为敏感材料的新型微压磁式压力传感器进行了可行性研究。介绍了这种传感器的结构、工作原理、输出特性以及主要参数的选择。通过试验,分析了传感器的静态特性。试验结果表明:这种传感器的最大线性误... 对一种利用Fe基非晶态软磁合金细丝作为敏感材料的新型微压磁式压力传感器进行了可行性研究。介绍了这种传感器的结构、工作原理、输出特性以及主要参数的选择。通过试验,分析了传感器的静态特性。试验结果表明:这种传感器的最大线性误差为1.11%F.S,最大不重复误差为0.85%F.S,未经放大的最大灵敏度为2.19 mV/kPa.另外,这种传感器结构简单,工作可靠。 展开更多
关键词 微压力传感器 压磁效应 Fe非晶态合金 静态特性
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Golgi localization and dynamics of hyaluronan binding protein 1 (HABP1/p32/C1QBP) during the cell cycle 被引量:3
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作者 Aniruddha SENGUPTA Bhaswati BANERJEE +1 位作者 Rakesh K. TYAGI Kasturi DATTA 《Cell Research》 SCIE CAS CSCD 2005年第3期183-186,共4页
Hyaluronan binding protein 1 (HABP1) is a negatively charged multifunctional mammalian protein with a unique structural fold. Despite the fact that HABP1 possesses mitochondrial localization signal, it has also been l... Hyaluronan binding protein 1 (HABP1) is a negatively charged multifunctional mammalian protein with a unique structural fold. Despite the fact that HABP1 possesses mitochondrial localization signal, it has also been localized to other cellular compartments. Using indirect immunofluorescence, we examined the sub-cellular localization of HABP1 and its dynamics during mitosis. We wanted to determine whether it distributes in any distinctive manner after mitotic nuclear envelope disassembly or is dispersed randomly throughout the cell. Our results reveal the golgi localization of HABP1 and demonstrate its complete dispersion throughout the cell during mitosis. This distinctive distribution pattern of HABP1 during mitosis resembles its ligand hyaluronan, suggesting that in concert with each other the two molecules play critical roles in this dynamic process. 展开更多
关键词 Hyaluronan Binding Protein 1 (HABP1) HYALURONAN sub-cellular localization GOLGI mitosis.
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Prediction for Geometric Characteristics of Single Track of Deposition Layer and Surface Roughness in Thin Wire-Based Metal Additive Manufacturing Process
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作者 Liu Haitao Wang Lei +2 位作者 Zhao Zhenlong Wang Linxin Tang Yongkai 《稀有金属材料与工程》 SCIE EI CAS 2024年第11期3026-3034,共9页
Machine learning prediction models for thin wire-based metal additive manufacturing(MAM)process were proposed,aiming at the complex relationship between the process parameters and the geometric characteristics of sing... Machine learning prediction models for thin wire-based metal additive manufacturing(MAM)process were proposed,aiming at the complex relationship between the process parameters and the geometric characteristics of single track of the deposition layer and surface roughness.The effects of laser power,wire feeding speed and scanning speed on the width and height of the single track and surface roughness were experimentally studied.The results show that laser power has a significant impact on the width of the single track but little effect on the height.As the wire feeding speed increases,the width and height of the single track increase,especially the height.The faster the scanning speed,the smaller the width of the single track,while the height does not change much.Then,support vector regression(SVR)and artificial neural network(ANN)regression methods were employed to set up prediction models.The SVR and ANN regression models perform well in predicting the width,with a smaller root mean square error and a higher correlation coefficient R2.Compared with the ANN model,the SVR model performs better both in predicting geometric characteristics of single track and surface roughness.Multi-layer thin-walled parts were manufactured to verify the accuracy of the models. 展开更多
关键词 thin wire-based metal additive manufacturing machine learning SVR ANN
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