The Seebeck Thermal Stage includes two pairs of thermocouples.
塞贝克热电系统包括两个热电偶对。
The available methods of Seebeck coefficient of micro-scale material with MEMS structure were reviewed.
综述了微观尺度下利用MEMS结构测量硅材料塞贝克系数的已有工作。
The other pair is formed of junctions of copper and the material whose Seebeck emf is to be determined.
另一对是形成了铜路口及材料的塞贝克电动势。
The relationship of Seebeck coefficient and electrical conductivity in different sintering temperatures was analyzed.
研究了这种热电材料的电导率、塞贝克系数与烧结温度的关系。
Test fixtures often use spring contacts, which may be made of phosphor-bronze, beryllium-copper, or other materials with high Seebeck coefficients.
测试夹具常常采用弹簧触点的连接方法，这些触点可能由磷青铜、铍铜合金或者其它具有高赛贝克系数的材料制成。
Seebeck coefficient increased with increasing temperature and Y filling fraction, the maximum value of Seebeck coefficient shifted towards low temperature.
塞贝克系数随着温度的升高和Y填充分数的增加而增大，同时峰值朝低温方向移动。
The theory of thermo-electric cooler (TEC) using Seebeck effect is introduced, and the design of temperature control circuit based on ADN8830 is discussed.
介绍了采用赛贝克效应工作的热电制冷器（TEC）的工作原理，详细讨论了基于ADN8830 的温度控制电路的设计。
While many semiconductor materials can produce an electric potential when heated, through something called the Seebeck effect, that effect is very weak in carbon.
然而很多半导体材料(semiconductor material)在加热时能够通过塞贝克效应(Seebeckeffect)这种形式产生电势能(electric potential)，但是在碳中发生的塞贝克效应很微弱。
In chapter four, the thermoelectric properties, mainly the Seebeck effect and Peltier effect of microchannel structures are tested, and test results are analyzed and discussed.
第四章对硅微通道板结构的热电特性，主要是塞贝克效应和珀尔帖效应进行测试，并对测试结果进行分析讨论。
Above 650-700k, oxygen desorption from samples influences the transport behavior obviously and electrical resistivity and Seebeck coefficients increase with the increasing temperature.
当温度高于650- 700k时，氧脱附显著影响样品的电输运性质，导致电阻率和塞贝克系数随温度增加而增大。
The resistance and Seebeck voltages used to calculate the ZT and the maximum temperature difference are measured using a testing system composed of a DC pulse generator and a DAQ card.
利用一个由恒流脉冲发生器和数据采集卡组成的简单测试系统测得制冷器在小电流下的电阻电压和塞贝克电压，通过这两个电压推导出ZT值、最大制冷温差。
Thermocouples and thermopiles are devices that use the Seebeck effect to measure the temperature difference between two objects, one connected to a voltmeter and the other to the probe.
热电偶以及热电堆也是利用塞贝克效应的器件用于测试两个待测点之间的温度差，其工作时将其中的一个待测点连接伏特表而另一个待测点连接传感器探头。
Thermocouples and thermopiles are devices that use the Seebeck effect to measure the temperature difference between two objects, one connected to a voltmeter and the other to the probe.
热电偶以及热电堆也是利用塞贝克效应的器件用于测试两个待测点之间的温度差，其工作时将其中的一个待测点连接伏特表而另一个待测点连接传感器探头。
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