Now, tell me, if torque is the controlling factor on all this, why the constant push towards more RPM? If the whole game is torque, wouldn't you want to keep RPM low in order to reduce the friction that will reduce the torque output?
But it is the controlling factor...what would be the point of increasing RPM's and not try to increase or maintain torque as the RPM's increase.....which would in turn increase the HP dramatically!
As we all know......
The higher the HP at a *specific* RPM, the higher the torque will be.
The higher the HP at a *specific* RPM, the higher the torque will be.
or
The higher the torque at a *specific* RPM, the higher the HP will be.
The higher the torque at a *specific* RPM, the higher the HP will be.
What is it about this simple concept that makes people crazy?
Most = most.....at a specific RPM.
A motor tweak at a static RPM!
800 hp @ 17,000 - 247 lb/ft
805 hp @ 17,000 - 249 lb/ft
810 hp @ 17,000 - 250 lb/ft
815 hp @ 17,000 - 252 lb/ft
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Now....what would be the point of this as compared to the above?
800 hp @ 18,000 - 233 lb/ft
805 hp @ 18,000 - 235 lb/ft
810 hp @ 18,000 - 236 lb/ft
815 hp @ 18,000 - 238 lb/ft
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...or this dynamically!
800 hp @ 17,000 - 247 lb/ft
805 hp @ 18,000 - 235 lb/ft
810 hp @ 19,000 - 224 lb/ft
815 hp @ 20,000 - 211 lb/ft
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....or does this make more sense?
800 hp @ 17,000 - 247 lb/ft
850 hp @ 18,000 - 248 lb/ft
900 hp @ 19,000 - 249 lb/ft
950 hp @ 20,000 - 250 lb/ft
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...or to maintain a torque curve!
800 hp @ 17,000 - 247 lb/ft
847 hp @ 18,000 - 247 lb/ft
893 hp @ 19,000 - 247 lb/ft
940 hp @ 20,000 - 247 lb/ft
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....how about maintaining a HP curve?
800 hp @ 17,000 - 247 lb/ft
800 hp @ 18,000 - 233 lb/ft
800 hp @ 19,000 - 221 lb/ft
800 hp @ 20,000 - 210 lb/ft
John