Projection Device Segmented Heat Dissipation Module
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Solution Overview
Problem
In solid-state light source projection systems, conventional heat dissipation methods often increase system noise and cost due to the need for multiple fans, and placement of radiators either leads to reduced heat dissipation performance or increased fan usage.
Innovation Solution
A projection device design featuring a housing divided into two spaces with the radiator in one space and a heat dissipation plate in the other, allowing for independent cooling air flows that directly cool the radiator and discharge high-temperature air, improving heat dissipation efficiency while reducing the need for multiple fans.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Temperature
If the radiator is placed at the air inlet of the system, then the heat dissipation path is extended, but the fan usage increases and system noise increases
Solution Approach 1:
The housing is divided into a first space and a second space using a spacer plate. The first space houses the radiator with its dedicated air inlet and air outlet, while the second space houses other components. This segmentation allows the radiator to have an independent heat dissipation path, eliminating the need for additional fans and reducing system noise.
2Object-generated harmful factors
If the radiator is placed at the air outlet of the system, then the fan usage is reduced, but the temperature of incoming air to the radiator becomes too high, reducing heat dissipation performance
Solution Approach 1:
The housing is divided into a first space and a second space using a spacer plate. The first space houses the radiator with its dedicated air inlet and air outlet, while the second space houses other components. This segmentation allows the radiator to have an independent heat dissipation path, eliminating the need for additional fans and reducing system noise.
3Illumination intensity
If the brightness of the solid-state light source projection system increases, then the projection quality is improved, but the heat dissipation requirements increase, requiring more fans and increasing system noise
Solution Approach 1:
The housing is divided into a first space and a second space using a spacer plate. The first space houses the radiator with its dedicated air inlet and air outlet, while the second space houses other components. This segmentation allows the radiator to have an independent heat dissipation path, eliminating the need for additional fans and reducing system noise.
Solution Approach 2:
The radiator is extracted from the common air flow path and placed in a separate first space with its own dedicated air inlet and air outlet. This extraction allows the radiator to operate independently from other components, providing efficient heat dissipation for high-brightness systems without requiring additional fans or increasing noise.
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
This design enhances heat dissipation efficiency by isolating high-temperature air from other components and reduces system noise and costs by utilizing a single system fan for heat dissipation.
Implementation Method 1
the heat of the light source is usually dissipated by air cooling
Implementation Method 2
The radiator has the most heat in the solid-state light source projection system
Implementation Method 3
A first cooling air flow enters the first space from the first air inlet, flows through the radiator, and is discharged from the first air outlet
Data Source
AI summary
A projection device includes a housing, a spacer plate, and a heat dissipation module. The spacer plate is disposed in the housing to divide the housing into a first space and a second space. The heat dissipation module includes a radiator, a heat dissipation plate, a driving element, and a tube. The radiator is located in the first space, and the heat dissipation plate is located in the second space. The first space has a first air inlet and a first air outlet. A first cooling air flow enters the first space from the first air inlet, flows through the radiator, and is discharged from the first air outlet. The second space has a second air inlet and a second air outlet. A second cooling air flow enters the second space from the second air inlet, and is discharged from the second air outlet.