磁场梯度的英文

• gradient magnetic field
• magnetic field gradient
• magnetic gradient

• "磁场"英文翻译    magnetic field
• "梯度"英文翻译    gradient; grad
• "磁头磁场梯度" 英文翻译 :    head field gradient
• "磁场梯度加速器" 英文翻译 :    magnetic gradient accelerator
• "交变磁场梯度同步加速" 英文翻译 :    alternating gradient synchrotron
• "交变磁场梯度同步加速器" 英文翻译 :    ags alternating gradient synchrotron; strong focusing synchrotron
• "场梯度" 英文翻译 :    field gradient
• "电场梯度" 英文翻译 :    electric field gradient (efg); electric force gradient; electricforce gradient
• "静电场梯度" 英文翻译 :    electrostatic field gradient
• "线性场梯度" 英文翻译 :    linear field gradient
• "电场梯度张量" 英文翻译 :    electric field gradient tensor
• "电场梯度张量分量" 英文翻译 :    electric field gradient tensor components
• "脉冲场梯度电泳" 英文翻译 :    pulsed field gradient electrophoresis
• "梯度磁场" 英文翻译 :    gradient magnetic field
• "脉冲场梯度凝胶电泳" 英文翻译 :    pulsed field gradient gel electrophoresis
• "高梯度磁场过滤法" 英文翻译 :    high gradient magnetic filtration
• "固定磁场交变梯度" 英文翻译 :    fixed field alternating gradient
• "交变梯度磁场焦" 英文翻译 :    alternating-gradient focusing
• "磁场" 英文翻译 :    [物理学] (传递运动电荷或电流之间相互作用的物理场) magnetic field
• "固定磁场交变梯度聚焦加速器" 英文翻译 :    fixed field alternating gradient accelerator
• "固定磁场交变梯度同步加速器" 英文翻译 :    fixed field alternating gradient synchrotron
• "梯度" 英文翻译 :    [物理学] gradient; [数学] grad
• "场梯形畸变" 英文翻译 :    field keystone
• "场梯形失真" 英文翻译 :    field keystone
• "场梯形校正" 英文翻译 :    field keystone correction

• When the rf pulse is combined with magnetic field gradients , a spatially encoded signal is produced that can be detected and translated into images
  当射频脉冲与磁场梯度联合起来时，我们可以探测到一个空间编码信号的产生并且将它转变成图像。
• The system has its own style . the trapping beams can be independently adjustable and three double - passed circularly polarized cooling / trapping beams intersect at the center of mot . about 1 107 cesium atoms with equivalent temperature of ~ 270 k are successfully trapped in our vcmot
  在每束冷却俘获光的光强约4 . 9mw cm ~ 2 、失谐量为- 10mhz 、轴向磁场梯度约11 . 6gauss cm的条件下得到的冷原子样品中典型的原子数约1 10 ~ 7个，温度约270 k左右。
• Results show that the levitation force is generated between the high temperature superconductor and the magnetic field under the critical temperature . the value of the levitation force is determined by the temperature and the gradient of magnetic field . that is the smaller of the gap , the larger of the levitation force when the temperature is fixed , and the value of the levitation force is an exponential function of the gap
  研究表明，当高温超导体的温度低于其临界温度时，在磁场中开始受到力的作用；受到的悬浮力大小由温度和磁场梯度共同决定；即温度一定时，悬浮间距越小，对应的磁场梯度越大，悬浮力就越大，力的大小与悬浮间距成指数关系；而当悬浮间距一定时，温度越低，对应的悬浮力也越大，且超导体刚进入超导态的一段温度区间悬浮力增大最快。
• In view of the fact that there is often a gradient in the external magnetic field in true magnetic separation equipment , and its direction is often not identical with that of magnetic field , a formula of the magnetic force exerting on the magnetic particles is deduced and the factors influencing the magnetic force are analysed
  考虑实际磁选设备中外部磁场常有梯度，并且磁场梯度方向常与磁场方向不一致的情况，推导出了磁性矿粒所受磁力公式，分析了影响磁力的因素。
• Magnetic anomaly detection is a kind of magnetic technology of target - detection . it is developed with the progress of magnetic sensors , which is based on the phenomena that ferrous objects disturbs the magnetic lines of force of the earth . so we can gain the neccesary informatin of the target through processing the data of the magnetic anomaly signatures . this technology has a wide perspective in the future . this paper will study the technoly of mad through a lot of experiment . the platform for the experiment is made
  本论文通过大量实验对磁异信号目标探测技术进行了研究,研制了磁异信号目标探测技术试验平台,利用amr磁阻传感器开发了提取磁异信号特征量?磁梯度计,并基于磁场梯度计通过实验对模拟磁性目标的磁异常场的分布进行了研究,用图示法将其分布特征表现出来,发现了磁异信号测量的最佳角度,并给出了理论分析和结论。
• The gas sources that we used are trimethylgallium ( tmg ) and 99 . 9999 % purity nitrogen , which were fed into reaction chamber and resonance cavity respectively . the highly dense ecr plasma up to 1011cm - 3 was created in the resonance cavity and introduced to the next reaction chamber by the force of divergent magnetic field . consequently , gan thin film was grew on the substrate sapphire ( 0001 ) placed in the downstream
  实验采用有机金属三甲基镓气源( tmg )和99 . 9999纯度的氮气，在ecr - pecvd150装置共振腔内电子回旋共振吸收微波能量产生的高密度ecr等离子体在磁场梯度和等离子体密度梯度的作用下向下级反应室扩散，在放置于下游区样品台上的- al _ 2o _ 3衬底表面附近发生物理化学反应沉积成gan薄膜。