Both a transmission-line model and its simpler variant, a lumped-element model, can be used to predict the responses of a thickness-shear-mode quartz resonator sensor. Relative deviations in the parameters computed by the two models (shifts in resonant frequency and motional resistance) do not exceed 3% for most practical sensor configurations operating at the fundamental resonance. If the ratio of the load surface mechanical impedance to the quartz shear characteristic impedance does not exceed 0.1, the lumped-element model always predicts responses within 1% of those for the transmission-line model
The authors developed a general model that describes the electrical responses of thickness shear mod...
We derive a lumped-element, equivalent-circuit model for the thickness shear mode (TSM) resonator wi...
AbstractDuring the last decades thickness shear mode resonators (TSM, QCM) have been object of compr...
The Thickness Shear Mode (TSM) quartz crystal resonator has been extensively used as a sensitive sen...
Quartz crystal resonators in chemical sensing applications are usually configured as the frequency d...
Often quartz crystal resonator equivalent electrical model parameters are extracted from measured sc...
A quartz crystal resonator that can be modeled as a one-or two-port electrical circuit is discussed....
A ring electrode design that produces a uniform mass sensitivity distribution across a TSM device is...
We perform a theoretical analysis of a contoured crystal plate resonator with nonuniform thickness. ...
Multi-parameter sensing is examined for thickness shear mode (TSM) resonators that are in mechanical...
We study the effects of couplings to flexure and face-shear modes on the admittance of an AT-cut quar...
A quartz crystal resonator can be modeled as a one or two port electrical circuit. Extraction of the...
We develop a general model that describes the electrical responses of thickness shear mode resonator...
This paper describes a one‐dimensional analysis of a piezoelectric resonator with multiple nonpiezoe...
Abstract- The quartz crystal microbalance (QCM) is a quartz crystal plate resonator for measuring a ...
The authors developed a general model that describes the electrical responses of thickness shear mod...
We derive a lumped-element, equivalent-circuit model for the thickness shear mode (TSM) resonator wi...
AbstractDuring the last decades thickness shear mode resonators (TSM, QCM) have been object of compr...
The Thickness Shear Mode (TSM) quartz crystal resonator has been extensively used as a sensitive sen...
Quartz crystal resonators in chemical sensing applications are usually configured as the frequency d...
Often quartz crystal resonator equivalent electrical model parameters are extracted from measured sc...
A quartz crystal resonator that can be modeled as a one-or two-port electrical circuit is discussed....
A ring electrode design that produces a uniform mass sensitivity distribution across a TSM device is...
We perform a theoretical analysis of a contoured crystal plate resonator with nonuniform thickness. ...
Multi-parameter sensing is examined for thickness shear mode (TSM) resonators that are in mechanical...
We study the effects of couplings to flexure and face-shear modes on the admittance of an AT-cut quar...
A quartz crystal resonator can be modeled as a one or two port electrical circuit. Extraction of the...
We develop a general model that describes the electrical responses of thickness shear mode resonator...
This paper describes a one‐dimensional analysis of a piezoelectric resonator with multiple nonpiezoe...
Abstract- The quartz crystal microbalance (QCM) is a quartz crystal plate resonator for measuring a ...
The authors developed a general model that describes the electrical responses of thickness shear mod...
We derive a lumped-element, equivalent-circuit model for the thickness shear mode (TSM) resonator wi...
AbstractDuring the last decades thickness shear mode resonators (TSM, QCM) have been object of compr...