利用密立根油滴实验仪测定空气粘滞系数
杨厚发 1 ,沈云才 1 ,陈壮壮 1 ,曹伟 1 ,赵圆磊 1 ,李文 2 ,吕宪魁 1 ,易庭丰 1* ,郑永刚 1 ,刘文广 1 ,冯洁 1
1.云南师范大学物 理与电子信息学院,云南 昆明 650500;2.昆明市外国语学校,云南 昆明 650041
Determination of Air Viscosity Coefficient by Millikan Oil Drop Tester
YANG Houfa 1 ,SHEN Yuncai 1 ,CHEN Zhuangzhuang 1 ,CAO Wei 1 ,ZHAO Yuanlei 1 ,LI Wen 2 ,LÜ Xiankui 1 ,YI Tingfeng 1* ,ZHENG Yonggang 1 ,LIU Wenguang 1 ,FENG Jie 1
摘要
以传统落球法测量液体粘滞系数为背景,结合密立根油滴实验,将空气中的油滴模拟成液体中运动的小球,如此即可将落球法测量液体粘滞系数的思想应用到测量空气粘滞系数中.借助 CCD 成像系统捕捉油滴状态并使用智能手机记录其运动过程.并利用 tracker 软件对相关物理量进行采集,最终通过计算得出空气粘滞系数.
关键词:
气体粘滞系数
密立根油滴实验
落球法
Tracker
Abstract:
Based on the traditional falling ball method to measure the liquid viscosity coefficient,combined with Millikan oil drop experiment,the oil drop in the air is simulated as a small ball moving in the liquid,so that the idea of measuring the liquid viscosity coefficient by falling ball method can be applied to the measurement of air viscosity coefficient.The CCD imaging system is used to capture the state of oil droplets and use intelligent phones to record their movement process.The“ Tracker ”software is used to collect relevant physical quantities,and finally the air viscosity coefficient is calculated.
Key words:
gas viscosity coefficient
Millikan oil drop experiment
drop ball method
Tracker
出版日期: 2023-02-25
发布日期: 2023-02-25
整期出版日期: 2023-02-25
引用本文:
杨厚发 , 沈云才 , 陈壮壮 , 曹 伟 , 赵圆磊 , 李 文 , 吕宪魁 , 易庭丰 , 郑永刚 , 刘文广 , 冯 洁 .
利用密立根油滴实验仪测定空气粘滞系数
[J]. 大学物理实验, 2023, 36(1): 12-14.
YANG Houfa , SHEN Yuncai , CHEN Zhuangzhuang , CAO Wei , ZHAO Yuanlei , LI Wen , LÜ Xiankui , YI Tingfeng , ZHENG Yonggang , LIU Wenguang , FENG Jie .
Determination of Air Viscosity Coefficient by Millikan Oil Drop Tester
. Physical Experiment of College, 2023, 36(1): 12-14.
链接本文:
http://dawushiyan.jlict.edu.cn/CN/10.14139/j.cnki.cn22-1228.2023.01.003
或
http://dawushiyan.jlict.edu.cn/CN/Y2023/V36/I1/12
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