Rotary Pulse Engine Shockwave Energy Recovery
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Solution Overview
Problem
Conventional engine designs suffer from inefficiencies due to reciprocating components, which lead to vibration and limited power output adaptation across different RPMs.
Innovation Solution
A rotary pulse engine with a rotor and housing configuration that includes combustion chambers, exhaust/thrust ports, and reflective surfaces to capture additional energy from shockwaves, eliminating reciprocating components and allowing for customizable power output through varying combustion chamber and port configurations.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Power
If conventional reciprocating engine designs are used, then power output is generated, but vibration occurs and operating efficiency is limited
Solution Approach 1:
The patent replaces the traditional reciprocating mechanical system with a rotary system where combustion occurs in stationary chambers and thrust is generated through angled exhaust ports. The rotor rotates continuously without reciprocating motion, substituting the piston-crank mechanism with a rotary thrust generation system that eliminates vibration while maintaining power output.
Solution Approach 2:
The patent inverts the conventional approach by having combustion occur in stationary chambers rather than moving pistons, and generating thrust through angled exhaust ports rather than linear piston motion. This inversion of the combustion and thrust generation mechanism eliminates the need for reciprocating components and associated vibration.
2Power
If conventional engine designs are used, then power output is generated, but operating efficiency is limited due to energy loss
Solution Approach 1:
The patent captures the harmful shockwaves and exhaust gas energy that would normally be wasted and redirects them through reflective surfaces back onto the rotor vanes. This converts the harmful exhaust energy into useful thrust, increasing operating efficiency by recovering energy that would otherwise be lost.
Solution Approach 2:
The patent implements a feedback mechanism where reflective surfaces redirect exhaust shockwaves and gas back onto the rotor vanes, creating a feedback loop that recovers energy from the exhaust process and feeds it back to enhance continued rotation, thereby improving overall energy efficiency.
3Power
If conventional engine designs are used, then power output is generated, but adaptability to different RPM requirements is limited
Solution Approach 1:
The patent employs dynamic configuration where the rotor, combustion chambers, and exhaust ports can be adjusted or designed in various configurations to optimize performance at different RPM ranges. This dynamic adaptability allows the engine to be tailored for specific applications requiring peak power at particular rotational speeds.
Solution Approach 2:
The patent utilizes parameter changes by varying the configuration of combustion chambers and exhaust port angles to optimize performance across different RPM ranges. By changing geometric parameters of the combustion system, the engine can be adapted to deliver peak power at specific rotational speeds suitable for different applications.
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 engine achieves increased operating efficiency and adaptable power output without reciprocating components, reducing vibration and enabling peak power at specific RPMs for various applications.
Implementation Method 1
The combustion chambers include an exhaust/thrust port that expels heated gas and combustion byproducts from the rotor at an angle to thereby forcibly spin the rotor
Implementation Method 2
One or more reflective surfaces mounted to the housing reflect shockwaves from the port back towards vanes on the rotor
Implementation Method 3
One or more reflective surfaces mounted to the housing reflect shockwaves from the port back towards vanes on the rotor
Implementation Method 4
The rotor vanes capture energy from the shockwaves/exhaust gas to provide additional forces acting on the rotor
Implementation Method 5
The combustion chambers include an exhaust/thrust port that expels heated gas and combustion byproducts
Data Source
AI summary
A rotary engine includes a rotor having one or more combustion chambers connected to an exhaust passageway extending radially outward from the combustion chamber to an exhaust port adjacent a peripheral edge of the rotor. The exhaust gas is expelled at an angle to thereby generate cause the rotor to rotate. The housing may include reflective surfaces that reflect shockwaves from the exhaust gas back towards vanes on the rotor to thereby capture additional energy from the exhaust gas. The housing may also include stators that capture additional energy from the exhaust gas and rotate the rotor. An intake port fluidly connected to the combustion chamber is aligned with an opening in the housing as the rotor rotates to thereby allow comprised air to flow into the combustion chamber. As the combustion chamber rotates, it is closed off by a closed portion of the housing, fuel is injected, and ignited, to thereby generate exhaust gases and generate power. The engine does not include reciprocating components, and relatively few moving parts are required.