Therapeutic Vibration Boot With Dimpled Surface For Focused Resonance
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Solution Overview
Problem
Existing vibrational therapy devices, such as tuning forks, lack an effective mechanism to target and stimulate sluggish and energy-deficient areas of the body, as their smooth surfaces fail to achieve focused resonance and targeted mechanical stimulation.
Innovation Solution
A dimpled surface design on the boot of the therapeutic vibration device, which is substantially spherically contoured and convex, enhances resonance by trapping soundwaves and providing pulsed mechanical stimulation, attracting to energy-deficient areas through magnetic attraction.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If a smooth surface is used on the boot, then the device can slide easily over the skin, but it fails to achieve focused resonance and targeted mechanical stimulation
Solution Approach 1:
The boot surface is designed with dimples that create localized zones of different acoustic impedance. These dimpled regions trap sound waves and create focused resonance points, while the overall spherical contour maintains smooth contact with the skin. This local variation in surface quality enables both easy sliding and targeted mechanical stimulation.
Solution Approach 2:
The boot is given a substantially spherical contour that allows it to roll smoothly over the skin surface, providing ease of operation. The spherical shape distributes contact pressure evenly while the superimposed dimples create localized resonance zones, combining smooth movement with focused stimulation.
2Measurement precision
If a dimpled surface is used on the boot, then focused resonance and targeted mechanical stimulation are achieved, but the surface complexity increases
Solution Approach 1:
The boot surface is segmented into multiple dimpled regions distributed across the spherical contour. Each dimple acts as an independent resonance trap, creating multiple focused stimulation points. This segmentation approach achieves comprehensive tissue coverage and targeted stimulation without requiring overly complex individual surface features.
Solution Approach 2:
The dimples are designed with specific parameters including depth, diameter, and spacing that optimize acoustic wave trapping and resonance. By carefully controlling these geometric parameters, the invention achieves focused resonance capability while keeping the manufacturing process relatively simple, as the dimples can be created through standard molding or machining techniques.
3Ease of operation
If the boot slides smoothly over the skin, then application is easy, but it cannot deliver pulsed mechanical stimulation to energy-deficient areas
Solution Approach 1:
The dimpled surface design creates acoustic resonance that generates pulsed mechanical vibrations when the boot is applied to the skin. The dimples trap sound waves and convert acoustic energy into mechanical vibrations that are delivered to underlying tissues. This enables targeted stimulation of energy-deficient areas while maintaining ease of application through the smooth spherical contour.
Solution Approach 2:
The resonance trapping mechanism creates periodic pulsed vibrations as sound waves bounce between the dimpled surface and underlying tissues. This periodic mechanical action delivers rhythmic stimulation to targeted areas, enhancing therapeutic effectiveness while the overall spherical shape maintains ease of application and movement.
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 dimpled surface design improves muscle healing by delivering targeted mechanical stimulation, reducing muscle tension, increasing muscle strength, and speeding up muscle recovery, as demonstrated by increased resonance and attraction to energy-deficient areas.
Implementation Method 1
The dimpled surface may trap soundwaves and keep them bouncing between the boot and the body. This increased resonance may give the boot the property of both locating areas that are sluggish and underpowered electrically in the body
Implementation Method 2
The dimpled surface may trap soundwaves and keep them bouncing between the boot and the body
Implementation Method 3
The dimpled design and trapped soundwaves may create a greater degree of stimulation of tissues that a smooth surface
Data Source
AI summary
A therapeutic vibration device includes a vibration generator, such as a tuning fork having an end, and a head or “boot” attached to the end of the generator and having a dimpled surface. The dimpled surface is sized and shaped to contact a patient to transmit vibrations to the patient for therapeutic benefits during treatment. The dimpled surface can be substantially spherically contoured and substantially smooth with dimples. The dimpled surface can have a dome or other convex shape.