Application of flexural mechanical resonators to high throughput liquid characterization

L.F. Matsiev
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引用次数: 32

Abstract

Application of flexural mechanical resonators such as tuning forks, benders, etc. to liquid characterization is discussed. Additional complex impedance produced by a liquid environment to such resonators is considered. It was shown experimentally, that for the disk bender resonator this additional impedance can be represented by the sum of two terms: one that is proportional to liquid density and a second one that is proportional to the square root the of viscosity density product. Same model was earlier shown applicable to the tuning fork resonator. Interaction of a resonator of arbitrary shape oscillating in any mode with surrounding fluid is considered theoretically. The conditions on which this impedance model is applicable to any type of a resonator that directly displaces liquid are discussed. These conditions are satisfied for most of flexural resonators available, detailed consideration of tuning fork and disk bender is provided. Sensitivity of flexural resonator response to liquid electrical properties is discussed. Application of disk bender to density and viscosity measurements in strong electrolytes is considered.
弯曲机械谐振器在高通量液体表征中的应用
讨论了弯曲机械谐振器如音叉、弯管器等在液体表征中的应用。考虑了液体环境对谐振器产生的附加复阻抗。实验表明,对于弯曲盘谐振器,附加阻抗可以用两项的和来表示:一项与液体密度成正比,另一项与黏度密度积的平方根成正比。同样的模型也适用于音叉谐振器。从理论上考虑了任意形状、任意模态振动的谐振腔与周围流体的相互作用。讨论了该阻抗模型适用于任何类型直接置换液体的谐振器的条件。这些条件是满足大多数现有的弯曲谐振器,详细考虑音叉和磁盘弯曲提供。讨论了弯曲谐振器响应对液体电性能的敏感性。考虑了圆盘弯曲机在强电解质密度和粘度测量中的应用。
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