The phrase "a volume sensor" is correct and usable in written English.
It can be used when referring to a device or component that measures the volume of a substance, typically in contexts related to technology, engineering, or science.
Example: "The new device includes a volume sensor that accurately measures the amount of liquid in the tank."
Alternatives: "a capacity sensor" or "a volumetric sensor".
In the example of a volume sensor, medical imaging and rigorous mathematical analysis lead to optimal sensor design and optimal placement for highest sensitivity.
Various spectral and acoustic signatures, new video imaging techniques, and image recognition methods have been investigated and integrated into a multi-sensory prototype system that is able to detect event signatures within the volume of a space (i.e., a "volume sensor") rather than relying on spot-type fire detectors.
The venovenous ECMO circuit acts as a cardiac preload sensor (more than a volume sensor).
In order to observe the contribution of AQPs in the water transport across the cell membrane, an exponential function was used to fit the data measured using a volume sensor.
In addition, advantageous use of distributed mathematical models to accelerate design and development of a novel volume sensor for hydrocephalus treatment is demonstrated.
We previously developed an impedance-based cell volume sensor that can measure changes in cell volume in real time.
In this report, we examined the participation of AQPs in the water transport using an impedance-based microfluidic cell volume sensor.
Here we demonstrate that an impedance-based microfluidic cell volume sensor can be used to study the roles of aquaporin (AQP) in cellular water permeability and screen AQP-specific drugs.
While the pressure sensor is based on a MEMS Wheatstone bridge structure (R1,R2,P1,P2) and is stimulated by a DC current reference DCref, the volume sensor (the four rings (a,b,c,d)) is stimulated by voltage reference AC v r e f that is converted into current reference AC i r e f.
These results demonstrate that the volume sensor can provide a convenient platform for investigating the effect of reagents on the functions of AQPs.
(21) Osmotic shocks were applied to HEK cells to cause water to transport across the cell membrane, and the subsequent changes in the cell volume were measured as a function of time using the volume sensor.
