STEP 1
Working Temperature Range
Our High Temperature Contact Angle Tester operates within a broad temperature range of 1600℃/1700℃, making it suitable for a wide array of high-temperature material property studies.
High Temperature Contact Angle Tester
High-Temperature Surface Property AnalysisThe high temperature contact angle tester is a specialized instrument designed to measure the contact angle between a liquid droplet and a solid surface under high-temperature conditions. This tester is crucial for understanding how material surface properties change with temperature, providing valuable insights into hydrophilicity or hydrophobicity. With a working temperature range of 1600℃/1700℃ and precise control accuracy of ±1℃, it is an essential tool in material science and surface chemistry research.
Why Measure Contact Angles at High Temperatures?
The high temperature contact angle tester is pivotal for determining the wettability of solid surfaces when exposed to high temperatures. The contact angle, formed by a liquid droplet on a solid surface, is a critical parameter indicating the hydrophilic or hydrophobic nature of the material. This tester operates within a temperature range of 1600℃/1700℃, allowing for the study of material surface properties under extreme conditions.
Its high-precision measurement capabilities are essential for industries such as material science, where understanding surface changes at elevated temperatures is crucial. The tester's ability to maintain a temperature control accuracy of ±1℃ ensures reliable and repeatable results, making it a valuable asset in high-temperature process engineering and surface treatment studies.
Compared to other testers in the series, this model stands out with its rapid heating rate of 0~20℃/min and a hemisphere point test accuracy of ±3℃. These features, combined with a high-resolution image scanning accuracy of 30L/mm, provide a comprehensive analysis of surface properties at high temperatures.
- High-temperature operation up to 1700℃ for extreme condition analysis.
- Precise temperature control within ±1℃ for reliable experimental data.
- Rapid heating and accurate hemisphere point test for efficient studies.
