intakemanifold
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intakemanifold [2020/05/16 21:52] – admin | intakemanifold [2020/05/17 18:27] (current) – admin | ||
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With that being the case, the intake manifold needs to be optimized to feed these flow-hungry ports. Using advanced computer modeling techniques and after 7 iterations, we finally achieved the design we were looking for. From 20 PSI to 100 PSI. and from 40 lbs of airflow to 160lbs of airflow, the new 1G V3 cast manifold has equal flow distribution within 1 percent in each cylinder. That’s something none of the competition can even approach. In addition to unmatched flow distribution, | With that being the case, the intake manifold needs to be optimized to feed these flow-hungry ports. Using advanced computer modeling techniques and after 7 iterations, we finally achieved the design we were looking for. From 20 PSI to 100 PSI. and from 40 lbs of airflow to 160lbs of airflow, the new 1G V3 cast manifold has equal flow distribution within 1 percent in each cylinder. That’s something none of the competition can even approach. In addition to unmatched flow distribution, | ||
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===JMF Drag=== | ===JMF Drag=== | ||
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This manifold works very well and its bottom and mid range powerband are very difficult to beat. However this manifold lacks in top end performance. This manifold can be used on any combination but most of the other intake manifolds listed here will produce decent gains on the top end over the stock manifold. This manifold is good for about 6000-7500 RPM or higher depending on camshaft. | This manifold works very well and its bottom and mid range powerband are very difficult to beat. However this manifold lacks in top end performance. This manifold can be used on any combination but most of the other intake manifolds listed here will produce decent gains on the top end over the stock manifold. This manifold is good for about 6000-7500 RPM or higher depending on camshaft. | ||
- | ===Evo3=== | + | ===Evo3/RVR=== |
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- | The Evo3 intake has a bigger plenum and shorter runners than a 2g intake. This will allow it to make power higher up in the rpm band. It's a nice compromise between the 6500rpm cuttoff of a stocker | + | The Evo3 intake has a bigger plenum and shorter runners than a 2g intake. This will allow it to make power higher up in the rpm band. It's a nice compromise between the 6500rpm cuttoff of a stocker. RVR Runner’s and plenum are the same. RVR has smaller TB inlet, it doesn’t have the port for the egr (wasn’t used for that tho), RVR also is just missing a couple extra vacuum nipples. |
===JMF Race=== | ===JMF Race=== | ||
The JMF " | The JMF " | ||
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===Magnus V4=== | ===Magnus V4=== | ||
After endless hours dedicated to creating prototypes, testing and perfecting we had reached the results that we were looking for. The result that we had achieved from the last prototype was up to our standards, was Magnus approved and that is when the V4 cast manifold was born. We dedicated almost two years of research and development using enhanced flow dynamics utilizing CAD Modeling & CFD simulation to develop the manifold. It’s made from A356-T6 aluminum alloy and can be installed in stock location with clearance for the original battery. The Manifold can be configured for 8 injectors using the Magnus weld in dual fuel rail kit and fits factory fuel rail or Magnus high flow fuel rail. Featuring 5L plenum with contoured velocity stacks molded into the floor for huge top end and minimal turbulence. This manifold is good for about 9000 RPM or higher depending on camshaft. | After endless hours dedicated to creating prototypes, testing and perfecting we had reached the results that we were looking for. The result that we had achieved from the last prototype was up to our standards, was Magnus approved and that is when the V4 cast manifold was born. We dedicated almost two years of research and development using enhanced flow dynamics utilizing CAD Modeling & CFD simulation to develop the manifold. It’s made from A356-T6 aluminum alloy and can be installed in stock location with clearance for the original battery. The Manifold can be configured for 8 injectors using the Magnus weld in dual fuel rail kit and fits factory fuel rail or Magnus high flow fuel rail. Featuring 5L plenum with contoured velocity stacks molded into the floor for huge top end and minimal turbulence. This manifold is good for about 9000 RPM or higher depending on camshaft. | ||
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===JMF Drag=== | ===JMF Drag=== | ||
The JMF " | The JMF " |
intakemanifold.1589665949.txt.gz · Last modified: 2020/05/16 21:52 by admin