Narrow LED Light Distribution for Deep Tissue Penetration
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Solution Overview
Problem
Existing light therapy devices lack precision and power for deep tissue penetration, result in inadequate cellular stimulation, inefficient energy production, and inconsistent therapeutic outcomes due to diffused light beams and inadequate wavelength targeting, failing to address individual patient needs effectively.
Innovation Solution
A narrow light distribution apparatus with a cuboid encasement housing light-emitting diodes and refraction means that emit focused light beams at specific angles and wavelengths, controlled by a control panel, and equipped with cooling mechanisms for stable operation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Area of stationary object
If existing light therapy devices use wide beam angles, then light distribution covers larger surface areas, but light becomes scattered and diffused reducing energy concentration on targeted tissues
Solution Approach 1:
The light distribution system is segmented into multiple independent light sources arranged in arrays, with each source emitting a narrow beam. This segmentation allows the system to cover large surface areas through multiple focused points rather than a single diffused beam, resolving the contradiction between area coverage and energy concentration.
Solution Approach 2:
The patent transitions from two-dimensional wide area illumination to three-dimensional focused beam delivery by using multiple light sources at different positions and angles. This dimensional approach enables simultaneous coverage of large areas while maintaining high energy concentration at each target point.
2Device complexity
If existing light therapy devices use insufficient power, then device complexity and heat generation are reduced, but light cannot penetrate deeply into tissues for effective cellular stimulation
Solution Approach 1:
The high power requirement is segmented across multiple light sources, each operating at moderate power levels. This segmentation allows the system to achieve deep tissue penetration through cumulative effect while keeping individual component complexity and heat generation manageable.
Solution Approach 2:
Multiple light sources are merged into a coordinated system where their combined output achieves the necessary power level for deep tissue penetration. The merging of multiple moderate-power sources effectively delivers high power therapy while distributing thermal load and complexity across the array.
3Device complexity
If existing light therapy devices lack focused beams, then light distribution is simpler, but energy is not effectively concentrated on targeted tissues reducing absorption efficiency
Solution Approach 1:
The optical system is segmented into multiple independent light-emitting units, each producing a focused beam. This segmentation achieves effective energy concentration on target tissues while maintaining relative simplicity in each individual unit, avoiding the need for complex single-source optical systems.
Solution Approach 2:
Each light-emitting unit in the array is self-contained with its own focusing capability, allowing individual units to independently deliver concentrated energy to their respective targets. This self-service approach achieves high absorption efficiency without requiring complex inter-dependent optical components.
4Device complexity
If existing light therapy devices use non-specific wavelengths, then device design is simpler, but cellular energy production and stress response modulation are insufficient
Solution Approach 1:
The wavelength delivery system is segmented into multiple light sources, each emitting at specific therapeutic wavelengths. This segmentation enables targeted wavelength delivery for different therapeutic effects (e.g., red light for cellular energy, infrared for deeper penetration) while maintaining manageable device complexity through modular design.
Solution Approach 2:
The system utilizes parameter changes by selecting specific wavelength values for different light sources in the array. By changing the wavelength parameter of individual sources, the system optimizes therapeutic effectiveness for different tissue depths and cellular targets while keeping the overall device design relatively simple.
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 apparatus ensures deep tissue penetration, enhances cellular energy production, and provides uniform, targeted therapy by concentrating energy on specific tissues, improving therapeutic efficacy and adaptability to individual patient needs.
Implementation Method 1
A plurality of refraction means and each refraction means is aligned with one of the plurality of light-emitting diodes to direct light emitted from the light-emitting diodes away from the inner panel
Data Source
AI summary
Disclosed is a narrow light distribution apparatus, system, and associated methods of use and manufacture. In one embodiment, an apparatus comprises an encasement comprising a front panel, a back panel, and a siding. An interencasement space within the encasement is formed when the front panel and the back panel are attached to the siding. An inner panel is situated within the interencasement space. A plurality of electrical sockets are arranged on a front side of the inner panel and the electrical sockets of the inner panel are electrically connected to a power source. The apparatus comprises a plurality of housings and each housing is individually attached to one of the plurality of electrical sockets. The apparatus comprises a plurality of light-emitting diodes and each light-emitting diode is at least partially within one individual housing.