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Video Supercharging

Video Supercharger
Video Summary

Video Truck Supercharging
Video 2-stage Turbocharger
Video Super-/Turbocharger
Video Parallel Supercharging

Video Roots Blower 1
Video Roots Blower 2
Video Roots blower 3

Video Turbocharger 1
Video Turbocharger 2
Video Turbocharger 3
Video Turbocharger 4
Video Turbocharger 5
Video Turbocharger Damage
Video Turbocharger Repair

Video Var Nozzle Turbine 1
Video Var Nozzle Turbine 2
Video Var Nozzle Turbine 3

Video Boost Pressure Control
Video Turbo Engine 1
Video Turbo Engine 2

Video Charge Air Cooler 1
Video Charge Air Cooler 2
Video Charge Air Cooler 3

Video Pop Off Valve
Video Compr. Supercharger
Video G-charger
Video Turbo Oldtimer
Video 2-stroke Turbocharger

Video Supercharging 1
Video Supercharging 2


          A B C D E F G H I J K L M N O P Q R S T U V W X Y Z

Super-/Turbocharging








Click on 'Diagram'!
1Air from the turbocharger/intercooler
2Pressure pipe to the turbocharger
3Compressor (Roots-blower)
4Vacuum line, air distribution






Assignment

In the diagram (figure 2), the charger is, not without reason, shown as being larger than the engine. Also the elevated view shows a number of pipes which have been cut open and high-lighted for better representation. The Roots compressor which is flange-mounted, parallel to the engine block in the center of the picture, is particularly important.

This arrangement allows the constructor the almost limitless charging possibilities through a compressor and/or a turbocharger. To keep things simple, we want to single out two operating conditions. First of all, the lower RPM area. In this case, too little exhaust gas flows from the engine to build up an effective charging by the turbocharger. The compressor however, which is driven by the crankshaft, can provide powerful thrust without hesitation. In the upper RPM area, it is then switched off and by-passed, because now the full, and more favourable exhaust gas energy, can be used by the turbocharger. In this case, no hesitation (turbo lags) appear as far as the responsive properties are concerned. The result of these complexities is, an engine with a relatively small displacement which can develop (almost more) torque in the lower RPM area than a large engine. In addition, it revs higher, brings a better perfomance and apart from that, is still is relatively economical in it's fuel consumption.

Function

The air-hoses show the fairly complicated path of the air-intake. This is easier to understand when looking at the diagram ( figure 2). Here the air flows into the air-filter (1) and is the either accelerated by the compressor (3) or is sucked in through the bypass (2) by the compressor-wheel (5) of the turbocharger. Through the thrust diverter valve (4), the compressor-wheel can also be bypassed. Basically, it then goes on to the intercooler (6), through the throttle-valve (7) and the inlet manifold, to the individual cylinders.

As far as the path of the exhaust gas is concerned when leaving the engine, there is no difference to a customary turbocharger. It is led through the turbine-wheel (8) or through the bypass (9) to the catalytic converter (10). To ensure that everything is really controllable, the compressor can be activated or switched of by a magnetic coupling (11). 05/10

Max. charging pressure2,5 bar at 1500 rpm of the engine
Max. Turbine speed200.000 rpm
Max. Temperature800C (Paddle-wheel tips)



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Translator: Don Leslie - Email: lesdon@t-online.de

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