Adaptive Induction Lamp String Shielding for EMI and Heat Control
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing induction lamp technologies lack environmental adaptability in shielding performance and luminous effect adjustment, relying on passive shielding methods that do not dynamically adjust to real-time environmental changes, and suffer from inadequate heat dissipation during high-power operation.
Innovation Solution
An environment-adaptive induction lamp string with a composite shielding module and heat dissipation system, utilizing a magnetic coupler, composite shielding components, and environmental sensors to dynamically adjust luminous parameters and shielding effectiveness based on real-time environmental data through a scene weighting algorithm.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Object-affected harmful factors
If passive shielding methods (metal mesh, isolation covers) are used to block electromagnetic radiation, then radiation protection is provided, but the processing complexity increases and shielding effectiveness is insufficient
Solution Approach 1:
The patent applies dynamic shielding by controlling the shielding component to move between a shielding position (blocking electromagnetic radiation) and a non-shielding position (allowing radiation passage). This dynamic mechanism resolves the contradiction by providing effective radiation protection only when needed, rather than using permanent complex shielding structures that always block radiation and complicate processing.
Solution Approach 2:
The patent changes the state parameter of the shielding component from static to dynamic, allowing it to switch between shielding and non-shielding states based on operational requirements. This parameter change enables the system to achieve effective radiation protection without permanently increasing device complexity.
2Object-affected harmful factors
If multi-layer wire meshes are used to block electromagnetic radiation, then radiation shielding is improved, but lighting effectiveness is reduced
Solution Approach 1:
The patent uses a dynamically controllable shielding component that can switch between shielding and non-shielding states. When the shielding component is in the non-shielding position, lighting effectiveness is maximized without the obstruction caused by multi-layer wire meshes. When radiation protection is needed, the component moves to the shielding position, providing protection without permanently compromising lighting quality.
Solution Approach 2:
The shielding component operates periodically, switching between shielding and non-shielding states based on operational requirements. This periodic action allows the system to alternate between radiation protection mode and optimal lighting mode, resolving the contradiction between shielding effectiveness and lighting effectiveness.
3Object-affected harmful factors
If static physical structures (isolation covers, wave-absorbing surfaces) are used for radiation protection, then shielding is provided, but adaptive adjustment to environmental changes is lost
Solution Approach 1:
The patent incorporates environmental sensors that detect real-time environmental parameters (light intensity, temperature, humidity) and feed this information to a control unit. The control unit adjusts the shielding component's position and the induction lamp's luminous parameters based on sensor feedback, enabling adaptive adjustment to environmental changes while maintaining radiation protection when needed.
Solution Approach 2:
The system transitions from static shielding structures to a dynamic control system that continuously adjusts shielding and luminous parameters based on environmental conditions. This dynamic adaptability allows the system to optimize both radiation protection and lighting performance according to real-time environmental feedback.
4Illumination intensity
If high-power operation is used to increase luminous output, then lighting effectiveness is improved, but heat dissipation becomes insufficient
Solution Approach 1:
The patent introduces a heat dissipation component as an intermediary between the induction lamp and the environment. This component actively manages thermal energy, facilitating heat transfer from the high-power induction lamp to the surrounding environment, thereby enabling sustained high luminous output without excessive temperature buildup.
Solution Approach 2:
The system dynamically adjusts operational parameters including power output and heat dissipation based on environmental temperature and humidity conditions. When environmental conditions allow, the system operates at high power for maximum luminous output; when temperature rises, the system reduces power or enhances cooling, maintaining thermal balance while optimizing lighting performance.
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 dynamic balance between radiation suppression and lighting effectiveness by actively counteracting electromagnetic interference and optimizing heat dissipation, ensuring safety and efficiency across diverse environments.
Implementation Method 1
an environmental sensor, a signal transmission end of the environmental sensor is provided with a control center
Implementation Method 2
a magnetic coupler is arranged inside each lampshade
Implementation Method 3
a composite shielding module is installed on an inner wall of the lampshade, positioned outside the magnetic coupler
Implementation Method 4
Induction lamps, short for high-frequency plasma discharge induction lamps
Implementation Method 5
They represent a new type of light sources that embody the future direction of lighting technology
Data Source
AI summary
The invention relates to the technical field of induction lamp manufacturing, and discloses a method for manufacturing an environment-adaptive induction lamp string and an induction lamp string. The induction lamp string comprises connecting wires, magnetic couplers, composite shielding modules, composite heat dissipation modules, an environmental sensor, and a control center. The invention primarily addresses the problem of the lack of environmentally adaptive coordination in adjusting the luminous effect and shielding performance found in the prior art. Through the synergistic action of the composite shielding modules and the environmental sensor, adaptive adjustment of electromagnetic radiation is achieved. Magnetic coupling shielding components, in conjunction with parallel-wound coils and shielding coatings, work together with metal grids to enhance the electromagnetic radiation protection of the induction lamp.