Enhanced efficiency of engines and gas turbines can be ensured with operation at higher temperatures. Materials that maintain their strength at high-temperatures are required for certain applications, in addition to corrosion resistance and/or wear-resistance. These applications include steam turbines, hot working of metals, petrochemical processing, and catalytic processing to eliminate harmful greenhouse gases. Therefore, it is vital to compare materials under high-temperature working conditions.
Why Hot Hardness?
The answer to this question is simple: a hardness test can be easily carried out in a fast and economical manner. Despite the fact that tensile testing is the conventional method used to assess strengths of materials at higher temperatures, these tests require specially designed equipment and specialized samples. On the contrary, carrying out a hardness test enables strength-based comparisons of materials using simplified sample shapes such as rods or flats.
UMT具有不同类型的缩进器,包括广泛的力传感器,并且可以在室温到1000°C的温度下进行广泛的材料比较和筛查测试(图1)。
图1。硬度和磨损测试可以在同一样品上进行。显示:UMT 1000°C旋转室。
图2。使用HBB测试方法比较三种不同合金在高温下测得的硬度。
可以对多种材料进行测试,例如塑料,软金属和超合金。亚博网站下载用户还可以在同一样品上进行更高的温度磨损测试(图2)。
该信息已从布鲁克·纳米(Bruker Nano)表面提供的材料中采购,审查和改编。亚博网站下载
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