The idea is that with this one change we hope to get the race car to turn in better and
also get the power down earlier on the corner exit.  We are assuming a smooth road
surface, so slow speed settings on the shocks affect weight transfer.  For the shocks
to wedge or de-wedge the car, we need the car to be moving in roll, or a combination of roll and pitch.  Where there is sufficient wheel travel happening, the shock force will
add to roll and warp resistance from springs and anti-roll bars, and pitch resistance from the springs.  We look for what wheels are moving, and work out the effect of
the shock forces.

The change to the car has been to stiffen slow speed damping at the rear, relative to
the front.  Even if we do not have slow speed damping adjustment on our shocks, we
should still get good effect from this set up by increasing the rear bump settings and/or decreasing front rebound.  It is important that we don't go too stiff in rear bump,
because then we won't be able to get the power down because the rear tyres lose
proper contact with the road - quite aside from the weight transfer advantage we are
looking for.

The progression in the corner, starting from hard straight line acceleration is:

Hard Braking. Very large weight transfer in pitch, rear to front.

Turn In. The driver modulates the brake pedal and applies steering input at the same time.  ie decreasing braking and increasing steering input.  As brake force is reduced, the car pitches towards the rear.  Race drivers will be familiar with the feeling of the outside front suspension staying down (compressed) as you trail brake and turn in.  So
the rearward pitch will be diagonal weight transfer from the inside front to outside rear.
This will reduce inside rear percentage ie de-wedge the car. This movement of the car is fairly momentary, so the stiff rear shock speeds up the weight transfer. A further  influence of the stiffer rear shocks is to add rear roll stiffness while roll is building - helps de-wedge the car.  ie to de-wedge (or loosen) the car on corner entry.

Mid Corner.  Steady state.  Shocks do not have any affect.  The car is wedged a bit to allow some rear tyre traction for the coming power application.

Applying the Power and Corner Exit.  The car is in cornering and wedged as the power comes on.  The car pitches, transferring weight front to rear as the rear tyre thrust increases.  This weight transfer further wedges the car as per the weight transfer example.  The rear stiff shocks will transfer the weight faster.  ie wedge (tighten) the car on corner exit.  To get the most from this effect, rather than just rear stiff shocks, attention should also be given to having less front slow speed rebound.  Neil Roberts,
(see shock tuning) describes how this works.  As we "let the car go" (reduce steering angle), the weight will come off the outside front - this will probably be the shock with the greatest movement - and increase front inside percentage (ie move towards oversteer).  Less slow speed rebound will slow down this weight transfer and contribute to understeer.

Note:
1.  This effect only allows you to apply a little more power sooner.  The
car should still move to oversteer with increasing rear tyre thrust as
explained here. yawaxis.html