Design of a Falling Ball Speed Measuring Instrument in Viscosity Experiment Using Arduino UNO ATmega

B. Budiyono, E. Sutrisno, Taufik Usman Wibowo
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Abstract

Viscosity experiments in universities generally use falling ball method with manual observations. Measuring travel time of iron ball from one point to another manually using a stopwatch can cause a large error. This problem can be solved by designing a digital falling ball viscometer using infrared and photodiode configured with Arduino. Infrared and photodiode pairs are placed in the top and bottom glass tubes to detect the movement of iron ball so that it produces a change in voltage. This voltage change is used to mark start and stop times in time measurement. The time measurement obtained is then used to calculate speed of the ball through the formula for distance between sensors divided by time. Data obtained is then entered into viscosity formula of falling ball method to obtain viscosity value of fluid (oil). The digital falling ball viscometer is accurate when error obtained is less than 5%. The results obtained are the error of the digital viscometer measurement results are better than the error of the manual viscometer. The highest error obtained from the digital viscometer is 4%, while the lowest is 1%. This indicates that the digital falling ball viscometer has a high enough accuracy so that data obtained is in accordance with the reference and can be used as a viscosity experiment tool using falling ball method.
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基于Arduino UNO ATmega的粘度实验落球速度测量仪的设计
高校粘度实验一般采用人工观测的落球法。用秒表手动测量铁球从一点到另一点的行程时间会产生很大的误差。利用红外和光电二极管配置Arduino,设计一种数字落球粘度计,可以解决这一问题。红外和光电二极管对放置在顶部和底部的玻璃管,以检测铁球的运动,使其产生电压的变化。在时间测量中,这个电压变化用来标记启动和停止时间。然后通过传感器之间的距离除以时间的公式来计算球的速度。将所得数据输入降球法粘度公式,得到流体(油)的粘度值。数字式落球粘度计在测量误差小于5%的情况下是准确的。结果表明,数字粘度计的测量误差优于手动粘度计的测量误差。从数字粘度计获得的最高误差为4%,而最低的是1%。这说明数字式落球粘度计具有足够高的精度,所得到的数据与参考文献相符,可以作为采用落球法进行粘度实验的工具。
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