20240011881. MULTIFUNCTIONAL MICROPILLAR-ENABLED ACOUSTIC WAVE VISCOMETER simplified abstract (Northeastern University)
MULTIFUNCTIONAL MICROPILLAR-ENABLED ACOUSTIC WAVE VISCOMETER
Organization Name
Inventor(s)
Hongwei Sun of Lexington MA (US)
Ilia Chiniforooshan Esfahani of Boston MA (US)
MULTIFUNCTIONAL MICROPILLAR-ENABLED ACOUSTIC WAVE VISCOMETER - A simplified explanation of the abstract
This abstract first appeared for US patent application 20240011881 titled 'MULTIFUNCTIONAL MICROPILLAR-ENABLED ACOUSTIC WAVE VISCOMETER
Simplified Explanation
The abstract describes a micropillar-enabled acoustic wave viscometer that includes a quartz crystal microbalance substrate, at least one micropillar, and a film. The micropillar is positioned on the substrate and extends perpendicular to it, with a defined height between its first and second ends. The film is located between the micropillar and the substrate.
- The patent application describes a viscometer device that utilizes micropillars and a quartz crystal microbalance substrate.
- The micropillar is placed on the substrate and extends vertically, creating a defined height.
- A film is present between the micropillar and the substrate.
Potential Applications:
- This technology can be used in various industries that require accurate viscosity measurements, such as pharmaceuticals, food and beverage, and chemical manufacturing.
- It can be utilized in research laboratories for studying fluid dynamics and rheology.
Problems Solved:
- The micropillar-enabled acoustic wave viscometer provides a more precise and sensitive method for measuring viscosity compared to traditional viscometers.
- It allows for real-time monitoring of viscosity changes, enabling better control and optimization of manufacturing processes.
Benefits:
- The use of micropillars and a quartz crystal microbalance substrate enhances the sensitivity and accuracy of viscosity measurements.
- The device offers a non-invasive and non-destructive method for viscosity analysis.
- Real-time monitoring capability allows for immediate adjustments and optimization of processes, leading to improved product quality and efficiency.
Original Abstract Submitted
a micropillar-enabled acoustic wave (�paw) viscometer including a quartz crystal microbalance (qcm) substrate; at least one micropillar having a first end and a second end, defining a height therebetween, the at least one micropillar disposed on to the qcm substrate at the first end and extending perpendicular to the qcm substrate; and a film disposed between the at least one micropillar and the qcm substrate.
