1.
infrared directional radiation heater
红外定向辐射加热器
2.
graphite resistor radiation furnace
石墨电阻辐射加热炉
3.
Study on the Characteristic of Far-infrared Radiation Heating Using Hot Fluid;
流体载热远红外辐射加热特性的研究
4.
Measuring method for electric-to-radiant power transfer efficiency of infrared heater
GB/T7287.7-1987红外辐射加热器电—热辐射转换效率测量方法
5.
Metal tube far infrared heater
GB/T8623-1988金属管状远红外辐射加热器
6.
Test method for vibration of infrared heater
GB/T7287.12-1987红外辐射加热器振动试验方法
7.
Test method for lifetime of infrared heater
GB/T7287.11-1987红外辐射加热器寿命试验方法
8.
Preparation of semiconductor ZnS nanoparticles with microwave irradiation;
微波辐射加热制备半导体ZnS纳米粒子
9.
Measuring method for normal total emittance of infrared heater
GB/T7287.9-1987红外辐射加热器全法向发射率测量方法
10.
Measuring method for the radio between radiant surface and rear surface of infrared heater
GB/T7287.3-1987红外辐射加热器辐射面和背面温度比测量方法
11.
Energy Saving Technology with the Application of High-emis sive Coatings in Radiation Heating Process by Electricity
电辐射加热条件下应用高辐射率涂料的节能技术
12.
And comparing with radiation heating, atom diffusion velocity at interface quickened.
与辐射加热相比，接触面处原子扩散速率加快。
13.
Measuring method for insulation resistance of infrared heater
GB/T7287.6-1987红外辐射加热器绝缘电阻测量方法
14.
Measuring method for the surface temperature distribution of infrared heater
GB/T7287.2-1987红外辐射加热器表面温度分布测量方法
15.
Measuring method for power deviation rate of infrared heater
GB/T7287.8-1987红外辐射加热器功率偏差检测方法
16.
There is a increase in heat radiation with a increase in load, and there is a decrease with an increase in speed.
负荷增加时辐射热量增加,转速增加时辐射热量减少。
17.
The shell and cover of the radiation tube heating furnace.
辐射管加热炉的炉壳及炉盖;
18.
In this case latent heating and radiation cooling are comparable.
在这种场合，潜热加热和辐射冷却数值相当。