Hydrogen Oxygen Burner Nozzle Geometry for Clean Combustion
Solution Overview
Problem
Traditional power plants face challenges such as high pollution, non-renewable resources, and uncertainty in renewable energy sources, necessitating a cleaner, more reliable energy production method.
Innovation Solution
Dynamic combustion chambers using pure hydrogen and oxygen, with burner designs that optimize molecular mass ratios and nozzle geometries to enhance combustion efficiency, producing only water and heat, which can be recycled for energy.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional power plants burn hydrocarbons to produce energy, then electricity demand is met, but greenhouse gases and pollutants are produced
Solution Approach 1:
The invention changes the chemical composition parameters of the combustion process by using pure hydrogen and pure oxygen instead of hydrocarbon fuels, transforming the combustion products from harmful greenhouse gases to harmless water vapor, thereby eliminating pollution while maintaining electricity production capability
Solution Approach 2:
The invention converts the previously harmful combustion process into a beneficial one by using hydrogen-oxygen combustion that produces only water and heat, turning what was a source of pollution into a clean energy generation method that can be integrated with electrolysis systems
2Object-generated harmful factors
If nuclear power is used to generate electricity, then greenhouse gas production is eliminated, but nuclear waste and safety risks are produced
Solution Approach 1:
The invention uses readily available, non-radioactive hydrogen and oxygen as fuels with no long-term waste management issues, replacing the complex nuclear fuel cycle with a simple combustion process that produces no radioactive waste or long-term safety concerns
Solution Approach 2:
The invention creates a safe operational environment by using hydrogen-oxygen combustion that produces only water vapor, eliminating the radioactive and toxic waste problems associated with nuclear power while maintaining high energy output
3Object-generated harmful factors
If solar, wind, and wave energy are used to produce electricity, then renewable energy is utilized, but certainty and reliability are reduced
Solution Approach 1:
The invention enables continuous on-demand electricity generation through hydrogen-oxygen combustion that can be activated whenever needed, unlike intermittent renewable sources, by using stored hydrogen and oxygen that can be combusted continuously to drive turbines and generate electricity reliably
Solution Approach 2:
The invention uses preliminary electrolysis to store hydrogen and oxygen separately for later combustion, allowing electricity to be generated on-demand rather than depending on immediate weather conditions, thus providing reliable and certain energy production
4Productivity
If burner complexity is increased to improve combustion efficiency, then combustion performance may improve, but device complexity and cost increase
Solution Approach 1:
The invention segments the burner into distinct functional zones with separate nozzles for hydrogen and oxygen delivery, allowing independent optimization of each gas flow path while maintaining overall system simplicity and avoiding the need for complex mixed-gas control mechanisms
Solution Approach 2:
The invention applies local quality optimization by designing specific nozzle geometries and aperture distributions tailored to the molecular weights and flow characteristics of hydrogen and oxygen, improving combustion efficiency through localized flow control rather than complex overall burner design
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 approach reduces pollution, ensures high combustion efficiency, and provides a reliable, renewable energy source with certainty, as the combustion of hydrogen and oxygen produces only water and heat, which can be used to generate electricity.
Implementation Method 1
Due to the relative molecular weights (oxygen being about 16 times as heavy as hydrogen), the hydrogen collapses towards the oxygen, for example due to differential mass effects, which mixes the hydrogen and the oxygen for enhanced combustion.
Implementation Method 2
Dynamic combustion chambers for the reaction of pure hydrogen and pure oxygen
Implementation Method 3
the combustion produces only pure water and heat
Implementation Method 4
The pure water can be recycled to be split into pure hydrogen and oxygen (e.g., using a renewable resource to provide energy for electrolysis)
Data Source
AI summary
A burner includes a main flange, an oxidant inlet coupled to the main flange, a combustion fuel inlet coupled to the main flange, a nozzle pipe coupled to the main flange, an outer pipe coupled to the main flange, and a diffuser coupled to the nozzle pipe and the outer pipe. The nozzle pipe has an inner volume in fluid communication with the oxidant inlet. The outer pipe is around the nozzle pipe. An annular volume is at least partially defined by the main flange, the nozzle pipe, the outer pipe, and the diffuser. The annular volume is in fluid communication with the combustion fuel inlet. The diffuser may be flat.