Composite Hydrocarbon Combustion Catalyst for Faster Fuel Propagation
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Solution Overview
Problem
Conventional catalysts for improving fuel efficiency in combustion chambers lack key components that accelerate fuel propagation, leading to inconsistent bonding and insufficient improvements in fuel consumption efficiency.
Innovation Solution
A catalyst comprising aluminum chloride, cerium (III) chloride, deionized water, propylene glycol, lithium chloride, chloroplatinic acid, rhodium chloride, perrhenic acid, and a pH adjuster is introduced into the flame zone of a combustion chamber via vaporous transport, ionizing the catalyst to enhance fuel propagation and combustion efficiency.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If conventional catalysts are used to improve fuel efficiency, then fuel consumption efficiency is improved, but fuel propagation is not accelerated sufficiently due to missing key components
Solution Approach 1:
The patent employs a composite catalyst system comprising multiple metal chlorides (aluminum chloride, cerium chloride, lithium chloride) combined with transition metal compounds (chloroplatinic acid, rhodium chloride, perrhenic acid). This composite formulation synergistically accelerates fuel propagation while maintaining fuel consumption efficiency, resolving the contradiction between productivity improvement and propagation speed enhancement.
Solution Approach 2:
The patent modifies the chemical parameters of the catalyst system by incorporating specific metal chlorides and transition metal compounds in optimized concentrations. These parameter changes enable the catalyst to simultaneously enhance fuel propagation speed and maintain fuel consumption efficiency, addressing the technical contradiction through chemical composition optimization.
2Productivity
If conventional catalysts are used, then fuel efficiency is improved, but bonding consistency with fuel mixture is insufficient
Solution Approach 1:
The composite catalyst system incorporates aluminum chloride and cerium chloride which form stable bonds with the fuel mixture, ensuring consistent bonding. The transition metal compounds (chloroplatinic acid, rhodium chloride, perrhenic acid) further enhance bonding consistency through their catalytic activity, thereby improving reliability while maintaining fuel efficiency.
Solution Approach 2:
The patent uses deionized water and propylene glycol as intermediary substances that facilitate consistent bonding between the catalyst and fuel mixture. These intermediaries ensure reliable contact and reaction between the catalyst components and fuel molecules, improving bonding consistency while maintaining fuel efficiency improvements.
3Productivity
If catalyst components are added to accelerate fuel propagation, then fuel efficiency improves, but emissions may increase without proper oxidation
Solution Approach 1:
The patent incorporates strong oxidizing agents including chloroplatinic acid, rhodium chloride, and perrhenic acid which promote complete oxidation of hydrocarbon fuels. These oxidants ensure that fuel combustion produces minimal harmful emissions while simultaneously accelerating fuel propagation and improving fuel efficiency, resolving the contradiction between productivity and harmful emissions.
Solution Approach 2:
The patent converts potential harmful emissions into beneficial outcomes by using the catalyst system to promote complete combustion. The transition metal compounds facilitate oxidation reactions that transform incomplete combustion products into harmless substances, thereby converting what would be harmful emissions into beneficial exhaust gases while maintaining fuel efficiency.
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 catalyst improves emissions and fuel efficiency by accelerating fuel propagation, reducing fuel usage, and oxidizing carbon buildup in the cylinder, resulting in more complete ignition and burning of hydrocarbon fuels.
Implementation Method 1
A catalyst for improving emissions and fuel efficiency in combustion chambers... accelerating fuel propagation during the combustion of hydrocarbon fuels
Implementation Method 2
introducing the catalyst via a vaporous transport into the flame zone of a combustion chamber... ionizing the catalyst prior to or during the combustion
Implementation Method 3
oxidizing carbon build up in the cylinder... more complete ignition and burning of hydrocarbon fuels
Data Source
AI summary
A catalyst for improving emissions and fuel efficiency in combustion chambers may include aluminum chloride, cerium (III) chloride, deionized water, propylene glycol, lithium chloride, chloroplatinic acid, rhodium chloride, perrhenic acid, and a pH adjuster, such as lithium hydroxide or hydrochloric acid reagent. A method of improving emissions and fuel efficiency in combustion chambers while simultaneously enhancing combustion of hydrocarbons may include introducing the catalyst via a vaporous transport into the flame zone of a combustion chamber.