位移变磁导效应与无约束微振发电

来源 :南京师范大学 | 被引量 : 0次 | 上传用户:huashaosile
下载到本地 , 更方便阅读
声明 : 本文档内容版权归属内容提供方 , 如果您对本文有版权争议 , 可与客服联系进行内容授权或下架
论文部分内容阅读
In the past decades, process, memory and communication technology have got rapid development.Compare that, power technology progress is slow.Energy desity has not been improved obviously.Sensor and interactive meshed network has made great academic progress.Because meshed network incressing in quantity and shrinking in the size, It s more strict demand on the size ,lifetime of power and energy desity.The traditional power supply can not meet the demand the develop of meshed network.So new electricity supply technology research become very critical.Safe, low cost and theoretically no life limit self-supply power technology and methodology has attracted more and more attentions by researchers.Mechanical energy is one type of widely exist in the environment.Vibrations exist in lots of environments.How to convert the mechanical energy supplied by vibration into electrical energy were being studied by scientists on and on in recent years.In this paper we present the research and developing situation of micro-vibration generate electricity technology home and abroard in chapter one.In chapter two we set forth the effect of demagnetization of high permeability material and displacement-permeability and physical mechanism.In chapter three we studied displacement-permeability in the heterotype composition and electromagnetic effect by experiment, as well as theory analysis, also we retrospect the research and developing situation of electromagnetic effect home and abroard.In chapter four we discussed displacement-permeability in heterotype material and micro-vibration generate electricity and its efficiency estimation.About micro-vibration generate electricity technology,we make a prospect on how to integrate.Ferromagnetic vibrate generate electricity is a new methods of pro-environment producing electricity.The merit of ferromagnetic vibration power generation assembly lie in simple structure .We can achieve more devices connected in series or parallel connected to produce higher voltages or higher current, It s pollution free, long operating life, low cost, do without consuming natural resources.So it has wide practical value in reality.
其他文献
随着半导体工艺和产业遵循着摩尔定律获得快速发展,以微电子为支撑,计算机和通信技术为代表的电子信息产业,使人类进入了现代信息科技的时代。然而,存储器作为信息技术的关键
第一性原理研究在许多领域已经取得了巨大的成果,使我们从微观的角度更深入地理解固体和表面特性的物理本质,并能够预测体系许多性质及其变化的趋势。随着计算理论和计算方法
近年来,人们一直致力于寻找有效的途径制备处于特定状态的原子或分子系统。有多种方法可以实现原子或分子特定态-态之间的相干布居转移,其中瞬态相干控制技术,绝热通道技术和脉
糖尿病已经成为世界范围的疾病,但还没有治愈的方法。糖尿病的检测主要依靠葡萄糖生物传感器。ZnO纳米材料具有无毒、等电点高、电化学活性强和良好的生物相容性和高的电子传递特性,因此在生物传感器领域有广泛的应用。本文对ZnO纳米棒在葡萄糖生物传感特性方面进行了研究,具体研究内容如下:(1)利用水热法在ITO衬底制备ZnO纳米棒,并分析籽晶层对ZnO纳米棒生长取向的影响。利用静电自组装制备基于ZnO纳米棒
铁磁半导体兼具铁磁性与半导体性,具有丰富的自旋极化效应,是研究自旋电子学的一种新型材料。铁磁半导体相关异质结具有将信息处理与信息存储集于一身的应用潜能,成为研究自
本文采用基于密度泛函理论的第一性原理全势能线性缀加平面波方法(FLAPW),考虑自旋轨道耦合效应,对Bi2Te3-xSex(x≤3)同晶化合物的电子特性进行理论研究。计算结果表明:自旋轨
纳米材料由于具有与体相材料不同的新异物理与化学性质,在可再生能源、环保等领域具有特殊的应用。本文报道了采用溶剂热法在180-200℃制备出三元黄铜矿结构CuFeS2纳米颗粒和
近似无衍射贝塞尔光束在有限距离传播时横向光强分布近似不变,这种独特的性质,二十多年来一直受到人们密切的关注和深入的研究。短脉冲近似无衍射Bessel光束由于中心光斑尺寸小
随着人类社会全球信息化的进程,人们对高速多媒体通信带宽的需求不断提高,毫米波频段的应用逐步进入人们的视野。频率比微波更高的毫米波有着宽频带,大容量传输信号的优势,但