Electrolyte-Derived Emissions Treatment for Carbon and NOx Reduction
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Solution Overview
Problem
Existing emissions treatment technologies for vehicles and fossil fuel-based systems are inadequate in achieving stringent emission standards, particularly failing to effectively reduce tiny carbon particles and NOx emissions across varying operating temperatures and conditions, leading to increased carbon footprint and health risks.
Innovation Solution
An emissions treatment apparatus that uses chemically derived substances from an electrolyte source, such as oxygen and hydrogen, to react with exhaust compounds like tiny carbon particles and NOx within a burner and reactor mechanism, respectively, utilizing ozone for carbon particle combustion and hydrogen for NOx reduction without catalysts, and an electrostatic precipitator to enhance particle capture and burning efficiency.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If existing emissions treatment technologies are used, then some emission reduction is achieved, but tiny carbon particles and NOx emissions cannot be effectively reduced across varying operating temperatures and conditions
Solution Approach 1:
The patent changes the chemical parameters by introducing substances derived from electrolyte sources (oxygen, hydrogen, ozone) to react with exhaust compounds. This enables effective emission reduction across varying operating temperatures and conditions by utilizing chemical reactions that are not dependent on catalysts or extreme temperature ranges.
Solution Approach 2:
The patent introduces an intermediary substance (electrolyte-derived chemicals) that mediates between the exhaust gas and the treatment process. These substances act as active agents that directly react with carbon particles and NOx, bridging the gap between exhaust treatment and emission reduction without requiring complex catalytic systems.
2Object-affected harmful factors
If stringent emission standards are targeted, then environmental protection is improved, but current technologies result in increased carbon footprint and health risks due to inadequate reduction
Solution Approach 1:
The patent converts harmful exhaust compounds (carbon particles and NOx) into beneficial substances through chemical reactions. Carbon particles are oxidized to carbon dioxide, and NOx is reduced to nitrogen gas, both of which are far less harmful. This transforms the harmful emission problem into a beneficial emission reduction solution.
Solution Approach 2:
The patent employs strong oxidants (ozone and oxygen) to accelerate the oxidation of carbon particles to carbon dioxide. This strong oxidizing action efficiently eliminates harmful carbon emissions while producing environmentally benign CO2, directly addressing the carbon footprint reduction goal.
3Reliability
If catalysts are used for NOx reduction, then NOx conversion is improved, but device complexity and operational costs increase
Solution Approach 1:
The patent replaces the mechanical/catalytic system with a chemical reaction system. Instead of using catalysts to facilitate NOx reduction, the patent uses hydrogen gas to directly reduce NOx to nitrogen gas through chemical reactions. This substitution eliminates the need for complex catalytic materials and their associated complexity.
Solution Approach 2:
The patent employs inexpensive, readily available substances (hydrogen from electrolyte sources) instead of expensive catalysts. These substances can be continuously supplied from electrolyte sources without requiring complex catalyst management, maintenance, or replacement, thereby reducing device complexity and operational costs.
4Object-generated harmful factors
If existing treatment technologies are applied, then some emissions are reduced, but back pressure and operational costs increase
Solution Approach 1:
The patent extracts harmful emissions (carbon particles and NOx) from the exhaust stream through targeted chemical reactions. By removing these specific harmful components through reaction with electrolyte-derived substances, the treatment process achieves emission reduction without requiring complex filtration or high-pressure systems that would increase back pressure.
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 solution significantly reduces emissions with minimal back pressure and operational costs, allowing engines to operate more efficiently and meet stringent emission standards without substantial engine modifications, effectively addressing the limitations of current technologies.
Implementation Method 1
the burner mechanism is supplied with oxygen and in turn the oxygen is converted to ozone for burning the tiny carbon particle to carbon dioxide
Implementation Method 2
the reactor mechanism is supplied with hydrogen gas for reducing the NOx to nitrogen gas
Implementation Method 3
the burner mechanism further comprises an electrostatic precipitator for enhancing the burning rate of the carbon particle
Implementation Method 4
the first substance being chemically derived from an electrolyte source
Data Source
AI summary
An emissions treatment apparatus includes a first mechanism arranged to receive an exhaust gas, wherein the first mechanism is supplied with a first substance arranged to react with a first exhaust compound to process the exhaust gas, the first substance being chemically derived from an electrolyte source. The emissions treatment apparatus further comprises a second mechanism arranged to receive the exhaust gas after its reaction with the first exhaust compound; wherein the second mechanism receives a second substance arranged to react with a second exhaust compound to further process the exhaust gas, the second substance being chemically derived from an electrolyte source.