Zeolite Catalyst Fuel Conditioning Module for Combustion Efficiency
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Solution Overview
Problem
Internal combustion engines and furnaces using fossil fuels suffer from inefficiencies due to incomplete combustion, leading to increased pollutant emissions, reduced energy utilization, and higher maintenance costs, resulting in environmental and economic inefficiencies.
Innovation Solution
A fuel conditioning module using a housing with a zeolite catalyst material, comprising micro porous aluminosilicate zeolites and rare earth metals, is introduced to condition fuel before combustion, enhancing combustion efficiency by rearranging molecular bonds and increasing the surface area of fuel molecules, thereby improving burn efficiency and reducing emissions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If conventional combustion is used in internal combustion engines and furnaces, then the system operates with simple structure and low cost, but fuel combustion efficiency is low and pollutant emissions are high
Solution Approach 1:
The patent applies preliminary action by treating the fuel before combustion through a conditioning module containing zeolite and rare earth metal catalysts. This pre-treatment rearranges molecular bonds and increases surface area of fuel molecules, preparing them for more efficient and cleaner combustion in the engine or furnace.
2Use of energy by moving object
If conventional combustion is used, then the system operates with simple structure, but energy utilization is insufficient and fuel is under-utilized
Solution Approach 1:
The fuel conditioning module performs preliminary action by chemically treating fuel before it enters the combustion chamber. The catalysts rearrange molecular bonds and increase surface area, enabling more complete energy extraction from the fuel and reducing energy losses from unburned or under-burned fuel.
3Reliability
If conventional combustion is used, then the system operates without additional components, but engine components wear out faster and maintenance frequency increases
Solution Approach 1:
The patent applies preliminary action by conditioning the fuel before it reaches the engine, using catalysts to pre-process the fuel molecules. This prevents harmful combustion byproducts from forming in the first place, thereby protecting engine components from accelerated wear and reducing maintenance needs.
Solution Approach 2:
The fuel conditioning module acts as an intermediary device between the fuel source and the engine. It introduces zeolite and rare earth metal catalysts that mediate the fuel combustion process, transforming it into a cleaner reaction that produces fewer harmful byproducts and less engine wear.
4Productivity
If fuel is conditioned through catalytic treatment, then combustion efficiency increases and emissions decrease, but the device complexity increases
Solution Approach 1:
The patent employs porous materials, specifically zeolite with its characteristic porous structure, as the primary catalyst support. This porous structure provides high surface area for catalytic reactions while maintaining a compact physical form, thereby achieving effective fuel conditioning without excessive device complexity.
Solution Approach 2:
The fuel conditioning module uses composite materials combining zeolite with rare earth metals and metal oxides. This composite catalyst system achieves superior catalytic performance for fuel conditioning, improving combustion efficiency and reducing emissions while maintaining a compact module 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
The solution results in more complete fuel combustion, significantly reducing pollutant emissions, increasing fuel efficiency, and extending the lifespan of engines and furnaces by ensuring cleaner operation and reduced maintenance needs.
Implementation Method 1
A fuel conditioning module using a housing with a zeolite catalyst material, comprising micro porous aluminosilicate zeolites and rare earth metals, is introduced to condition fuel before combustion, enhancing combustion efficiency by rearranging molecular bonds and increasing the surface area of fuel molecules
Implementation Method 2
zeolite catalyst material, comprising micro porous aluminosilicate zeolites and rare earth metals
Data Source
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AI summary
Fuel conditioning modules that condition a combustible fuel prior to combustion are provided so that fuel to be conditioned is brought into contact with a fuel conditioning insert assembly which includes a zeolite catalyst material comprised of a mixture of zeolite particulates and rare earth metal or metal oxide particulates in a solid resin binder disposed in a housing flow through passageway such that the fuel flowing in the passageway between inlet and outlet ends of the housing contacts the fuel conditioning insert assembly. The catalytic metal is most preferably at least one selected from the group consisting of copper, aluminum, stainless steel, titanium, magnesium, chromium, barium, calcium, platinum, palladium, nickel, bronze and iron. The zeolite catalyst material may be dispersed in the form of solid chips throughout a mass of metallic elements form of a catalytic metal.