Fluidic Oscillators with Variable Sweep, Tilt, and Inclination as well as Adjustable Frequency

Embark on a new era of fluidic control with our state-of-the-art fluidic oscillator technology with variable sweep, tilt, and inclination control as well as adjustable frequency. Experience unmatched precision, adaptability, and efficiency in your fluidic applications. Stay ahead of the curve and revolutionize your industry with our innovative solution.

This inventive technology T2018-041 is just one part of a larger, comprehensive suite of fluidic oscillator technologies offered by The Ohio State University for licensing. To learn more about our other designs, please visit https://oied.osu.edu/find-technologies and search using the term: Fluidic Oscillator.

To see a descriptive YouTube video of this technology, please visit: https://www.youtube.com/watch?v=g2Hn2q5W958.

The Need:

In the realm of fluidic engineering, a pressing demand exists for a fluidic oscillator that surpasses the limitations of traditional devices. Current fluidic oscillators struggle with fixed frequencies and sweeping angles, hindering their adaptability to diverse applications. Industries require a solution that can dynamically alter its sweeping angle and frequency at a given flow rate. Moreover, the need for a three-dimensional oscillating fluid stream, as opposed to the conventional two-dimensional outputs, has become crucial in various fields.

The Technology:

Our revolutionary fluidic oscillator technology addresses these challenges head-on. By introducing a feedback-type fluidic oscillator, it includes a middle portion featuring an interaction chamber, fluid supply inlet, outlet nozzle, and feedback channels. Notably, this design incorporates control ports, allowing for precise adjustments in the fluidic behavior. The central axis extending from the fluid supply inlet to the outlet nozzle ensures controlled and efficient fluid flow dynamics. These design features allow the for variable sweep, tilt, and inclination control as well as adjustable frequency.

Commercial Applications:

Industrial Automation: Enables precise fluid control in manufacturing processes, ensuring uniformity and efficiency.
Environmental Engineering: Facilitates optimized fluid flow in environmental monitoring systems for accurate data collection.
Aerospace Research: Perfect for wind tunnel testing, providing varied fluidic patterns for comprehensive aerodynamic analysis.
Biomedical Devices: Enhances precision in diagnostic tools, ensuring controlled fluidic pathways for accurate results.
Automotive Engineering: Optimizes fuel injection systems, improving combustion efficiency and reducing emissions.

Benefits/Advantages:

Dynamic Adaptability: Can adjust sweeping angles and frequencies, catering to diverse applications and scenarios.
Enhanced Precision: Offers superior control over fluidic behavior, ensuring accurate and consistent results.
Versatility: Applicable across multiple sectors, providing tailored solutions for specific fluidic control needs.
Efficient Fluid Dynamics: Optimizes fluid flow patterns, reducing energy consumption and waste.
Innovative Design: Incorporates advanced features like control ports, setting a new standard in fluidic engineering.