Multi Resonator System Crosstalk Reduction
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Solution Overview
Problem
Existing multi resonator systems face challenges in improving both time and frequency resolution due to computational load and crosstalk effects caused by coupling between resonators with different center frequencies.
Innovation Solution
A multi resonator system design where each resonator has a unique center frequency, with resonators arranged in a flat plane without overlapping, and adjacent resonators having the same center frequency to reduce crosstalk and enhance resonance displacement and output signal.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If multiple resonators with different center frequencies are arranged adjacently to cover broader frequency range, then frequency resolution is improved, but crosstalk effect increases due to coupling between adjacent different resonators
Solution Approach 1:
The patent divides the resonator system into multiple independent resonator units, each with its own fixer, driver, and sensor. By segmenting the system into separately fixed resonators rather than a single coupled structure, crosstalk between adjacent resonators is reduced while maintaining the ability to detect multiple frequency components
Solution Approach 2:
Each resonator is designed with localized properties including specific center frequencies, quality factors, and sensitivity characteristics. The resonators have different center frequencies optimized for specific frequency bands, allowing each to operate independently with minimal interference from adjacent resonators
2Measurement precision
If resonators are made more sensitive to detect weak signals, then detection precision is improved, but resonance displacement at center frequency decreases
Solution Approach 1:
Multiple resonators with the same center frequency are grouped within each multi-resonator unit. By combining the output signals from multiple resonators with identical center frequencies, the system achieves enhanced sensitivity and detection precision while maintaining adequate resonance displacement through the collective response
3Measurement precision
If Fourier transform is used to acquire frequency domain information, then frequency analysis is achieved, but computational load increases and time resolution deteriorates
Solution Approach 1:
The patent replaces the computational Fourier transform approach with a mechanical resonance-based frequency analysis system. Each resonator naturally responds to its resonant frequency, providing direct frequency domain information through physical resonance rather than mathematical transformation, thereby reducing computational load and improving time resolution
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system achieves increased resonance displacement and output signal at the center frequency, while minimizing crosstalk effects, thereby enhancing sensitivity and resolution.
Implementation Method 1
a driver configured to be driven in response to an audio signal
Implementation Method 2
one end of each of the plurality of resonators is fixed to the support substrate... increased resonance displacement at a center frequency
Implementation Method 3
a sensor configured to sense a movement of the driver
Data Source
AI summary
A multi resonator system is provided including a support substrate and a plurality of multi resonators. Each of the plurality of multi resonators includes a plurality of resonators, and one end of each of the plurality of resonators is fixed to the support substrate. Center frequencies of different ones of the plurality of multi resonators are different from each other, and the plurality of resonators within each individual multi resonator all have a same center frequency.