Billet Air Delivery System with Integrated Monitoring Ports
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Solution Overview
Problem
Existing internal combustion engine systems face challenges in efficiently delivering prioritized air flow to achieve optimal horsepower, particularly under extreme engine loads, due to inaccuracies in air intake temperature, speed, vacuum/manifold atmospheric pressure, and fuel pressure measurements.
Innovation Solution
A multipurpose four-piece billet air delivery system that includes a 10-degree shift forward mounting, dual seals, and monitoring ports for air speed, intake air temperature, and pressures, along with a safety pressure relief disc to protect against pressure reversion, ensuring balanced air distribution and accurate fuel demand adjustments.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Power
If air delivery system prioritizes air flow to increase horsepower, then power output improves, but measurement accuracy deteriorates due to high pressure conditions
Solution Approach 1:
The air delivery system is divided into four separate billet aluminum pieces that can be independently assembled and sealed. This segmentation allows for precise measurement ports to be integrated into specific locations without compromising the overall high-pressure air delivery function, enabling accurate measurements while maintaining horsepower performance.
Solution Approach 2:
Multiple sealed measurement ports serve as intermediaries between the high-pressure air delivery system and the measurement instruments. These ports allow accurate measurement of air intake temperature, air speed, vacuum/manifold atmospheric pressure and fuel pressure without disrupting the prioritized air flow needed for maximum horsepower output.
2Power
If air flow distribution is optimized for horsepower, then power output improves, but system complexity increases due to multiple seals and ports
Solution Approach 1:
The billet aluminum air delivery system is designed with multi-functionality, integrating air delivery, air flow distribution, measurement port access, and pressure relief functions into a single unified structure. This eliminates the need for separate components and reduces overall system complexity while maintaining optimized air flow for maximum horsepower.
Solution Approach 2:
Multiple functional elements including dual seals, four measurement ports, and the pressure relief disc housing are merged into a single integrated billet aluminum construction. This consolidation simplifies assembly and maintenance while ensuring optimized air flow distribution for enhanced horsepower performance.
3Measurement precision
If pressure monitoring ports are added for accurate measurements, then measurement precision improves, but device complexity increases
Solution Approach 1:
The measurement ports are pre-integrated into the billet aluminum air delivery system during manufacturing. This preliminary action ensures that all necessary measurement points for air speed, intake air temperature, vacuum/manifold atmospheric pressures and fuel pressure are already in place, eliminating the need for additional complex modifications while maintaining measurement precision.
Solution Approach 2:
Different regions of the air delivery system are designed with specific local qualities - certain areas contain measurement ports for specific parameters (air speed, temperature, pressure), while other areas maintain sealed configurations for optimal air flow. This localized approach enables precise measurements without unnecessarily increasing overall device complexity.
4Reliability
If dual seals are implemented to prevent air leaks, then air delivery reliability improves, but manufacturing complexity increases
Solution Approach 1:
Dual seals are installed beforehand in the billet aluminum air delivery system to prevent air leaks before the system operates under high pressure. This prior cushioning approach ensures reliable air delivery for maximum horsepower while the seals are integrated into the manufacturing process, minimizing the impact on ease of manufacture.
Data Source
AI summary
A four-piece billet aluminum device used to deliver compressed air into an internal combustion engine through a carburetor. An inlet delivers forced air from a compressor to the outlet fastened and sealed to the top of the carburetor to give equal distribution to the internal combustion engine. The device can also be used for draw through, naturally aspirated and nitrous assisted internal combustion engines that are prioritizing fresh air to the carburetor. The multipurpose four-piece billet air delivery system has four ports for monitoring air speed, intake air temperature, vacuum/manifold atmospheric pressures, and a port for force induction setups to vacuum/boost reference a fuel pressure regulator to meet fuel demands. There is an additional opening that requires an atmospheric reverse pressure disc to protect an internal combustion engine that is turbocharged, supercharged or nitrous equipped from further damage if it were to have a major backfire or reversed pressure.