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This is gonna take a few pics and some explaining. I think I'm onto something........
The concept is cooling the intake and combustion chamber gases drastically while heating the post-combustion gases. Making greater efficiencies and power.
Two proven mechanisms involved are.....
1- Hilsch Vortex Tube with Archemedes type vortex chamber. Injecting compressed air at 80 psi into a properly tuned hilsch vortex tube will push fire hot air out the hot side and freezing cold air out the cold side.
Ranque-Hilsch Vortex Tube.png
hilsch234.gif
2- Schaubergers Vortexing Exhaust Egg- Spins up exhaust gases while buffering the impulses to a steady stream. While also producing a vacuum to draw another gas.
Schauberger_Vortex_Exhaust-01.png
The idea is to use the vacuum from the engine and the exhaust vortex egg to make a pressure difference across the Hilsch Tube hot and cold pipes. Simulating a positive pressure on the intake of the Hilsch Tube. I realize a pressure difference of 80 psi is not reasonable. However, temp differences of 30-40 degrees can still be accomplished with 20 psi pushed into the Hilsch Tube. The engine vacuum pulls on the cold side, the exhaust egg pulls on the hot side. The hilsch tube doesn't have a lot of restriction and can flow large amounts of air rapidly due to the vortex that has been measured to spin at roughly 1,000,000 rpm.
The engine injests cooler air making more power. The exhaust is heated to increase velocity. The vortexing egg will also decrease resistance improving exhaust flow. Even if the hot drawn side is still cooler then the exhaust gases it provides an effective vacuum to make the splitting of temps possible.
The point of entry in the Hilsch Vortex could be modified to act as a throttle. The increasing vacuum would provide greater cooling, greater efficiencies.
The exhaust egg is capable of drawing equally as much air as the exhaust stream itself. It is a 1:1 proportion.
This may actually work. A Hilsch Vortex can flow hundreds of CFM at 80 psi, with a pipe diameter of 3/4 inches. Scaled to size the engine will certainly be able to breath well enough.
This is something that really needs to be built to find out. Fortunately it isn't too complicated. Welding up the exhuast egg might be interesting though.
Thoughts?
The concept is cooling the intake and combustion chamber gases drastically while heating the post-combustion gases. Making greater efficiencies and power.
Two proven mechanisms involved are.....
1- Hilsch Vortex Tube with Archemedes type vortex chamber. Injecting compressed air at 80 psi into a properly tuned hilsch vortex tube will push fire hot air out the hot side and freezing cold air out the cold side.
Ranque-Hilsch Vortex Tube.png
hilsch234.gif
2- Schaubergers Vortexing Exhaust Egg- Spins up exhaust gases while buffering the impulses to a steady stream. While also producing a vacuum to draw another gas.
Schauberger_Vortex_Exhaust-01.png
The idea is to use the vacuum from the engine and the exhaust vortex egg to make a pressure difference across the Hilsch Tube hot and cold pipes. Simulating a positive pressure on the intake of the Hilsch Tube. I realize a pressure difference of 80 psi is not reasonable. However, temp differences of 30-40 degrees can still be accomplished with 20 psi pushed into the Hilsch Tube. The engine vacuum pulls on the cold side, the exhaust egg pulls on the hot side. The hilsch tube doesn't have a lot of restriction and can flow large amounts of air rapidly due to the vortex that has been measured to spin at roughly 1,000,000 rpm.
The engine injests cooler air making more power. The exhaust is heated to increase velocity. The vortexing egg will also decrease resistance improving exhaust flow. Even if the hot drawn side is still cooler then the exhaust gases it provides an effective vacuum to make the splitting of temps possible.
The point of entry in the Hilsch Vortex could be modified to act as a throttle. The increasing vacuum would provide greater cooling, greater efficiencies.
The exhaust egg is capable of drawing equally as much air as the exhaust stream itself. It is a 1:1 proportion.
This may actually work. A Hilsch Vortex can flow hundreds of CFM at 80 psi, with a pipe diameter of 3/4 inches. Scaled to size the engine will certainly be able to breath well enough.
This is something that really needs to be built to find out. Fortunately it isn't too complicated. Welding up the exhuast egg might be interesting though.
Thoughts?
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