离子导体的英文

• ion conductor
• ionic conductor

• "离子"英文翻译    ion
• "导体"英文翻译    electric conductor; conducto ...
• "超离子导体" 英文翻译 :    superionic conductors
• "氟离子导体" 英文翻译 :    fluorine ion conductor
• "钠离子导体" 英文翻译 :    sodium ion conductor
• "铜离子导体" 英文翻译 :    copper ion conductor
• "阳离子导体" 英文翻译 :    cationic conductor
• "银离子导体" 英文翻译 :    silver ion conductor
• "快离子导体材料" 英文翻译 :    fast ion conducting materials
• "离子导电体 离子型导体" 英文翻译 :    ionicconductor
• "快离子导体及其应用" 英文翻译 :    fast ionic conductor and device
• "电子导体" 英文翻译 :    electron conductor; electronic conductor; metallic conductor
• "分子导体" 英文翻译 :    molecular conductor
• "转子导体" 英文翻译 :    rotor conductor
• "离子导电" 英文翻译 :    ionic conduction; ionicconduction
• "离子导电率" 英文翻译 :    ionic conductivity
• "离子导电体" 英文翻译 :    ionic conductor
• "离子导电性" 英文翻译 :    ionic conductivity
• "离子导电玻璃" 英文翻译 :    ion conductive glass
• "离子导电机制" 英文翻译 :    mechanism of ionic conduction
• "离子导电矿物" 英文翻译 :    ionic conducting mineral
• "离子导入疗法" 英文翻译 :    ion-introduction therapy
• "阴离子导电率" 英文翻译 :    anionic condrctance
• "超离子导电聚合物" 英文翻译 :    super ion-conductive polymer
• "超声波离子导入机" 英文翻译 :    ultrasonic iontra ort machine; ultrasonic iontransport machine

• Ionic conductors have extensive and valuable use in the energy and material fields
  离子导体在材料和能源领域有着广泛的应用前景。
• Application of a new synthetic technigue using microwave radiation in the preparation of ionie conductor
  一种新的微波合成技术在离子导体合成中的应用
• A series of ultra - fine , homogeneous powders and density pellets were synthesized , li3 . 4si0 . 4v0 . 6o4 as the matrix and the lithium salt and other oxides as the second phase
  O 。固溶体为基质，以不同种类的氧化物或理盐为第二相，合成了一系列复合理离子导体的超细粉体和均匀、致密的烧结体。
• The research of the new and high conductivity material of lithium ionic conductor is always an interesting issue in the material field due to its low potential , light weight and providing high cell voltage and energy density
  由于锂具有较负的电极电势和较轻的重量，可以为电化学器件提供高的电池电压和能量密度，所以锂离子导体高电导率新材料的研究一直是材料研究领域倍受关注的课题之一。
• The basic results include three aspects : the interests of lithium ionic conductors focused on the simple compounds , solid solution ( substitution by aliovalent and isovalent ) and the small composites which mostly are al2o3 as the second phase and some simple compounds as the matrix
  文献的基本结论是：对于锂离子导体的研究主要集中在单相化合物、固溶体(等价或异价取代)及少数以单一化合物为基、以al _ 2o _ 3等为第二相的复合体系。
• This work analyzed the micro - machinery of the base and how to make the base be good ion conductor ; investigated the factors which affect the conduct characteristic of the base , explained the change of the base when the amtec working , explained the thermal stability of the base
  本论文从微观角度分析了base的结构及它形成快离子导体的原因;实验研究了影响base传导特性的因素，详细阐明了在装置运行时在base内部发生的变化和热稳定性。
• The questions the researcher concerned are which system will be chosen and how to obtain the good lithium ionic conductor materials , which is the basic departure of the paper . the addition of second phase in composite can change the interface structure and the conduction mechanism , improve the matrix conductivity and other function such as the sintering , crisping and so on , so the research of composites are an interesting field of the ionic conductors . the synthesis of lithium ionic conductor is often by solid state reaction , but this method needs high temperature and leads to the volatility of lithium which not only causes the drift of the compounds but gets the no well - distributed materials
  研究者所关注的问题是选择新的体系进行研究，以期得到性能更好的锂离子导体材料，这也正是本论文的基本出发点；复合离子导体中第二相的加入改善了基质的界面结构和导电机制，不仅可以提高基质材料的电导率，还可以在一定程度上改善材料的其它性能，如烧结性能、脆性和机械强度等。因此复合材料的研究是离子导体一个有广阔前景的发展方向；合成锂离子导体，特别是成分复杂的体系以传统的固相合成法为主，但这种方法需要较高的温度，容易引起锂的挥发，从而造成产物组成的偏移，而且不易得到显微结构均匀的材料。
• The solid reaction synthetic process , sintering properties and phase composition of the lsgm samples are investigated by tg - dta , sem , xrd and the archimedes method . the results reveal that the sintering technology generated significant influence on the sintering properties of the lsgm samples . the optimum synthesis parameters to prepare lsgm electrolyte with a pure perovskite - type structure were ascertained ; the sintering temperature and chemical constitution contributed greatly to the phase composition , the solid solubility limit of lsgm electrolyte increased with increasing of the sintering temperature , and we made lsgm electrolyte of single - perovskite structure above 1400 #
  本文采用改进埋烧法制备出la _ ( 0 . 8 ) sr _ ( 0 . 2 ) ga _ ( 1 - y ) mg _ yo _ 3 ( lsgm )电解质，对制备方法与工艺参数、材料结构、电学性能以及热学性能进行了研究，分析了组成、结构与导电性能的关系，探讨了离子传输机制，其目的在于为该类离子导体的进一步研究和应用提供实验和理论依据。
• In this work , the solid solution of li3 . 4sio . 4vo . 6o4 as the matrix was chosen because of its suitable path for the mobility of li ions and the different material as the second phase to synthesize a series of lithium ionic conductor composites by sol - gel method , which bases on the opinion of the composites having higher ionic conductivity , and to research the synthetics method , compound - structure - function and so on
  本论文基于复合离子导体具有较高的离子电导率的观点，以具有锂离子可迁移通道结构的li _ ( 3 . 4 ) si _ ( 0 . 4 ) v _ ( 0 . 6 ) o _ 4固溶体作为基质，用不同的氧化物或锂盐为第二相，采用溶胶-凝胶法合成了一系列复合锂离子导体新材料，并对其合成方法、组成-结构-性能关系进行了系统的研究。

• 离子导体的日语：イオンでんどうたい イオン伝導体