Resonance-Based Fluid Supply for Multi-Liquid Combustion
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Solution Overview
Problem
Conventional fluid supply devices for internal and external combustion machines are limited to a single fluid supply unit, capable of either atomizing or vaporizing only one type of liquid, and lack the ability to efficiently mix different liquids, leading to inefficiencies and inconvenience in controlling multiple fluid supplies.
Innovation Solution
A fluid supply device with multiple fluid supply units, each equipped with a resonance material to rearrange molecules into small molecules, a controller to manage airflow and valve states, and sensors to monitor liquid levels and engine conditions, allowing for the integration and efficient mixing of different liquids.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a single fluid supply unit is used, then the device structure is simple, but it can only atomize or vaporize one type of liquid and lacks versatility
Solution Approach 1:
The device is divided into multiple independent fluid supply units, each capable of handling a specific liquid. Each unit includes its own container, heating element, and control mechanism, allowing independent operation and easy maintenance while providing versatility to handle multiple liquids simultaneously
Solution Approach 2:
Each fluid supply unit is designed with a universal structure that can be configured for different liquids. The units share common control systems and output interfaces, allowing the device to function as multiple separate devices while integrated into a single system, thus providing multi-functionality without proportionally increasing complexity
2Adaptability or versatility
If multiple fluid supply devices are used for different liquids, then various liquids can be atomized or vaporized, but control becomes inconvenient and complex
Solution Approach 1:
Multiple fluid supply units are merged into a single integrated device with a unified control system. The controller can independently regulate each unit's heating power, flow rate, and operation status through a single interface, consolidating what would otherwise require multiple separate controls into one convenient system
Solution Approach 2:
The control system dynamically adjusts the operation of each fluid supply unit based on real-time requirements. Users can selectively activate or deactivate individual units, adjust their respective parameters independently, and the system adapts the mixing ratios and output characteristics dynamically, providing ease of operation while maintaining versatility
3Adaptability or versatility
If conventional photocatalyst liquid is used, then it can serve as combustion adjuvant for liquid fuels, but it cannot be applied to gaseous fuels
Solution Approach 1:
The device changes the physical state parameter of the photocatalyst liquid by controlling heating temperature and residence time. By adjusting these parameters, the liquid photocatalyst is transformed into vapor or aerosol form, enabling it to effectively mix with and enhance gaseous fuel combustion while maintaining its photocatalytic properties and ensuring reliable combustion efficiency across different fuel types
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
Enhances combustion efficiency by utilizing hydrogen as a secondary energy source and reducing carbon emissions, while improving fuel savings and exhaust gas pollution through photocatalytic water decomposition and optimized liquid vaporization.
Implementation Method 1
a resonance material having an infrared wavelength to rearrange molecules of the target liquid in the container body to small molecules
Implementation Method 2
an air pump connected to the intake pipe or the exit pipe to drive the working fluid to flow through each of the fluid supply units and output from the exit pipe to form an output flow
Implementation Method 3
a valve unit coupled with the controller, arranged in the containing space and having an ON state and an OFF state
Implementation Method 4
a liquid level warning device disposed on the outer housing for displaying a level height of the respective target liquid
Data Source
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AI summary
A fluid supply device for improving combustion efficiency is provided. The fluid supply device includes a controller (3) and a fluid supply unit (1; 5) coupled to the controller (3). The fluid supply unit (1; 5) includes an outer housing (18) and a container body (10) having a resonance material, wherein the container body (10) is configured in the outer housing (18) and has a containing space (S) for accommodating a target liquid (L), and the resonance material is configured adjacent to the target liquid (L). The resonance material has an infrared ray wavelength to rearrange molecules of the target liquid (L) in the container body (10) to small molecules to increase the combustion efficiency of an internal/external combustion machine, and the controller (3) can adjust the supply volume of the target liquid (L) according to a predefined rule based on an obtained information from the fluid supply unit (1; 5) and/or the internal/external combustion machines, so that the internal/external combustion machine can achieve the best combustion efficiency.