Fuel Structuring Electrode Assembly for Combustion Efficiency
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Solution Overview
Problem
Existing fuel processing technologies for internal combustion engines face inefficiencies due to limited magnetic or electrostatic field effectiveness, high energy consumption, and short lifespan of rare-earth magnets, leading to incomplete combustion and increased toxic emissions.
Innovation Solution
A fuel processing equipment with a hollow cylindrical body and centrally mounted rod, using interleaved current-conducting and insulating discs to create a quasi-steady heterogeneous electric field, allowing for intense and localized electric field exposure with minimal energy expenditure, promoting fuel structurization and polarization.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If magnetic field processing is used to align hydrocarbon molecules, then completeness of burning is improved, but the efficiency is limited because only a small portion of the total volume of hydrocarbon fractions can be aligned
Solution Approach 1:
The processing chamber is segmented into multiple zones with different field intensities and orientations. The fuel stream is divided into multiple passes through the chamber, allowing different portions of hydrocarbon fractions to be aligned sequentially, thereby increasing the total volume processed while maintaining burning completeness.
Solution Approach 2:
The patent transitions from a single-dimension magnetic field approach to a multi-dimensional field configuration, combining magnetic and electrostatic fields in orthogonal orientations. This allows simultaneous alignment of hydrocarbon molecules in multiple spatial dimensions, dramatically increasing the volume of fuel that can be processed while maintaining alignment quality.
2Reliability
If powerful permanent magnets of rare-earth metals are used for structurization and polarization, then the effectiveness of fuel processing is improved, but the cost increases and the lifetime decreases due to demagnetization
Solution Approach 1:
The patent replaces permanent magnetic fields with electromagnetic fields generated by coils and electrodes. This substitution eliminates the demagnetization problem inherent in permanent magnets, allowing the field to be maintained indefinitely as long as power is supplied, while also enabling dynamic control of field intensity and configuration.
Solution Approach 2:
The system uses controllable electromagnetic parameters (current intensity, voltage, frequency) to achieve the required field strength for effective fuel processing. This allows optimization of processing effectiveness without relying on fixed-strength permanent magnets, and enables adaptation to different operating conditions while maintaining component longevity.
3Manufacturing precision
If electrostatic and magnetic fields are applied simultaneously in several places of the stream's cross-section, then dispersion of fuel is improved almost on molecular level, but the productivity is limited on swift-flowing streams because polarized hydrocarbon fractions fail to line up in time
Solution Approach 1:
The fuel stream undergoes preliminary structuration in a first processing zone before entering the main combustion chamber. This preliminary alignment of hydrocarbon molecules occurs upstream, allowing the fuel to be pre-conditioned for complete combustion without requiring extended processing time in the high-speed flow, thereby maintaining both dispersion quality and productivity.
Solution Approach 2:
The patent employs periodically alternating electromagnetic fields that synchronize with the flow characteristics of the fuel stream. This periodic action creates multiple opportunities for molecular alignment along the flow path, ensuring that even swift-flowing streams receive adequate processing time through repeated field cycles rather than requiring a single prolonged exposure.
4Area of stationary object
If conventional electrodes with large area are used for fuel processing, then the processing coverage is improved, but the voltage of the field decreases and the equipment becomes complicated for manufacturing and operation
Solution Approach 1:
The electrode system is segmented into multiple smaller electrode elements arranged in series along the processing chamber. This segmentation maintains a large total processing area while preserving high voltage capability, as each segment can withstand the full voltage without requiring excessively large individual electrode surfaces. The segmented design also simplifies manufacturing and assembly compared to a single large electrode.
Solution Approach 2:
The patent transitions from planar electrodes to three-dimensional electrode structures, such as mesh or lattice configurations. This dimensional change increases the effective processing surface area without proportionally increasing the voltage requirement, as the electric field is distributed through multiple spatial pathways. The 3D structure also facilitates easier manufacturing and assembly compared to large flat electrodes.
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
Achieves complete combustion of fuel, reducing noxious emissions and improving engine efficiency with potential for significant fuel economy and extended equipment lifespan.
Implementation Method 1
processing with a battery of current-conducting discs interleaved with insulating ones, tightly positioned on the rod, so that in a working gap for passing fuel, combustion mixture or water created between the top of any current-conducting disc and the internal surface of the body
Implementation Method 2
allowing for intense and localized electric field exposure with minimal energy expenditure, promoting fuel structurization and polarization
Data Source
Figure 1~2
Figure 3~4
AI summary
The invention relates to engine construction, to equipment for improving fuel and combustion mixture. Also may be used for water processing. Economy of fuel and decrease of noxious air emissions in the atmosphere are achieved. Equipment for structurization and polarization of fuel, combustion mixture or water, comprises a body in a form of a hollow cylinder with a smooth inside surface and a rod mounted in the body, both made of current-conducting materials and connectable to the electric circuit. The equipment is supplied with a battery of current-conducting discs interleaved with insulating ones, positioned on the rod. The size of a working gap for passing fuel between the tops of the discs and the body doesn't exceed 1/10 of the size of the working surface of the body. The body and the rod are made of duralumin alloy, but the current-conducting discs of aluminum. The plain surfaces of the current-conducting discs are performed with electro insulating cover, without covering the tops of the discs.