1) melting heat energy
熔化热能
1.
Abstract According to the correlation between deformation work and melting heat energy,the experimental method of uniaxial tension is applied to measure melting heat energy and deformation heat effect in this paper.
本文根据变形功与熔化热能的关系,将简单拉伸实验方法推广应用到了熔化热能和变形热效应的测量上。
2) Latent heat of fusion
熔化潜热
1.
%) and Al-28%Mg-14%Zn alloys used for thermal energy storage applications,such as the specific heat capacity including solid and liquid state;the mass density in the temperature range 30~500℃;the melting temperature and the latent heat of fusion.
利用差示扫描量热仪(DSC)和H-90型膨胀仪,对潜热储能材料A l-34%Mg-6%Zn和A l-28%Mg-14%Zn合金的热物性参数进行了测定,如固、液态时的比热容,30~500℃间的质量密度,熔化温度和熔化潜热等。
2.
We report the calculated results of the latent heat of fusion Δμ ls and the melting temperature T m as a function of cluster size.
给出了团簇熔化潜热和熔点随团簇尺寸的变化关系 ,表明团簇熔化潜热和熔点强烈依赖于团簇的原子数 。
3) melting heat
熔化热
1.
Experimental instrument of measuring the melting heat of ice by electrothemal method;
电热法测定冰的熔化热实验仪的研制
2.
The thermal properties of trans-ferulic acid such as melting point,melting heat,decomposition temperature,and so on,were studied by DSC and DTA-TGA.
采用差示扫描量热法和热重分析法对反式阿魏酸的熔点、熔化热、分解温度等性质进行了实验研究,确定了DSC-60差示扫描量热仪测定反式阿魏酸的条件,即在升温速率10℃。
3.
According to the data of the melting heat of iron, the author corrected the solidus of FeC binary phase diagram in the rich iron end,and according to the corrected solidus e-valuated the carbon content at point H in 0.
根据铁的熔化热数据,校正了铁碳二元相图富铁端的固相线,并根据校正后的固相线,求出H点的碳含量为0。
4) fusion heat
熔化热
1.
The fusion heat and the degree of crystallinity of the various composites were got by DSC and XRD, which were related to the tribological performance.
研究结果表明,高压摩擦环境中,蠕变的发生是加速PTFE复合材料磨损、恶化材料性能的主要原因;高比表面填料的加入会提高复合材料的熔化热,有助于降低材料的磨损率;结晶度的提高对增强复合材料的耐蠕变性有明显的效果。
5) melting heat transfer
熔化传热
1.
The effects of natural convection and moving of solid PCM on melting heat transfer are compared.
固态相变材料的运动对熔化传热过程有着重要影响 。
2.
In order to simulate the cooling of electronic devices by solid -liquid phase change materials (PCM ) the problem on two-dimensional melting heat transfer in a rectangularenclosure with discrete heat sources on one of its vertical walls has been solved numerically.
为了探索在电子设备冷却中应用固液相变冷却的可能性,本文用数值方法求解了一侧垂直壁上有三个分散热源、其余三个面均绝热时矩形区域内的二维熔化传热问题,对固液界面形状以及加热壁面温度沿高度方向的变化规律进行了讨论。
补充资料:鞍山热能研究院
鞍山热能研究院
娜 7.鞍山热能研穷院
说明:补充资料仅用于学习参考,请勿用于其它任何用途。
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