Hydrogen Bright Radiator Emissions Reduction
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Solution Overview
Problem
Modern bright radiators still emit harmful substances like carbon monoxide, carbon dioxide, and hydrocarbons, despite achieving good waste gas values and efficacy, and there is a need to further reduce these emissions while maintaining performance.
Innovation Solution
The bright radiator is designed with a hydrogen fuel source, angled hydrogen and combustion air flow, a reflector enclosing the radiant panel, an ejector for mixing combustion air and waste gases, and an optical sensor for flame detection, which allows for precise control of the combustion process to minimize harmful emissions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If natural gas or liquefied gas is used as fuel gas in bright radiators, then good heating efficacy is achieved, but harmful substances such as carbon monoxide, carbon dioxide, and hydrocarbons are emitted during combustion
Solution Approach 1:
The patent changes the chemical composition parameter of the fuel from carbon-based gases (natural gas, liquefied gas) to hydrogen. This fundamental parameter change eliminates carbon-containing harmful emissions while maintaining combustion heating efficacy, as hydrogen combustion produces only water vapor.
Solution Approach 2:
The patent employs a distributor panel with numerous small openings that creates a distributed pattern of short-lived micro-flames across the radiant panel surface. This approach ensures complete combustion of hydrogen in brief, localized reaction zones, eliminating harmful emissions while maintaining effective heat radiation.
2Stability of the object's composition
If the hydrogen flow and combustion air flow are set at an angle less than or equal to 90 degrees and greater than or equal to 45 degrees, then good mixing of hydrogen and combustion air is achieved, but the combustion process becomes more complex to control
Solution Approach 1:
The patent creates locally optimized flow conditions at the distributor panel where hydrogen emerges through numerous small openings. The angled configuration (45-90 degrees) between hydrogen flow and combustion air creates localized mixing zones that ensure complete combustion without requiring complex global control systems.
Solution Approach 2:
The combustion process is segmented into numerous small, independent combustion zones corresponding to the distributor panel openings. Each opening creates a localized micro-flame with its own mixing characteristics, and the overall combustion stability emerges from the collective behavior of these segmented zones rather than requiring control of a single large flame.
3Object-generated harmful factors
If waste gases are recirculated into the combustion air mixing space, then nitrogen oxide emissions are reduced and flame temperature is lowered, but the combustion air composition becomes more difficult to control
Solution Approach 1:
The patent converts the potentially harmful effect of high flame temperatures (which produce nitrogen oxides) into a benefit by recirculating waste gases. The recirculated waste gases act as a cooling medium that lowers flame temperature and reduces nitrogen oxide formation, while the ejection effect simultaneously ensures proper mixing and prevents combustion instability.
Solution Approach 2:
The ejector device serves as an intermediary mechanism that mediates between the recirculated waste gases and the fresh combustion air. It uses the kinetic energy of combustion air to draw in and mix waste gases in a controlled manner, maintaining proper oxygen levels without requiring complex control systems.
4Measurement precision
If an ejector is used to mix combustion air and waste gases with a defined ratio, then precise control of combustion air composition is achieved, but the device structure becomes more complex
Solution Approach 1:
The patent employs pneumatic principles through the ejector device, which uses the kinetic energy and pressure differential of combustion air to draw in and mix waste gases. This pneumatic mixing mechanism achieves precise control of the combustion air composition ratio without requiring mechanical moving parts, complex valves, or electronic control systems.
Solution Approach 2:
The ejector replaces complex mechanical mixing systems with a pneumatic field-based solution. By utilizing fluid dynamics and pressure differentials rather than mechanical pumps or mixers, the device achieves precise ratio control with simpler structure and fewer moving parts.
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 configuration reduces harmful substance emissions by ensuring complete combustion and optimizing the combustion air and hydrogen mixture, maintaining high efficacy and reducing nitrogen oxide emissions.
Implementation Method 1
a fan (3), which is set up for supplying combustion air to the burner (1)
Implementation Method 2
the burner (1) is set up for bringing about whole-area glowing of the radiant panel (12)
Implementation Method 3
infrared radiators are frequently used for heating production and warehousing sites. These radiators produce infrared radiation, which is utilized to produce heat
Implementation Method 4
the waste gas space is connected to the combustion air mixing space by way of an ejector, wherein the driving medium of the ejector is combustion air introduced by means of the fan
Data Source
AI summary
A bright radiator includes a burner, a fan and a radiant panel functioning as a radiating surface and having flame through-channels, wherein the burner is connected to a fuel gas supply, wherein the fan is designed to supply the burner with combustion air, wherein the burner is designed to bring about extensive glowing of the radiant panel, and wherein the fuel gas supply is connected to a hydrogen source as a fuel gas source.