To faktycznie masz laleczke do reanimacji z driftu

Ktoś ją tym driftem nieźle dojebał

A tak na marginesie do most tylni ma spięcie 40%, ok... Ale przy obciążeniu zacieśnia się do 99% (?). Kiedyś Mateush wrzucał PDFa z opisem tylnego mostu w M3 E46... Więc może ty masz w nim coś nie tak, że masz cały zcas 99%?
EDIT
Szpera spięta jest na 25%...
"
E46 Rear Axle Differential: The rear axle differential is developed specifically for the E46
M3. The rear axle differential is designated “210” (ring gear diameter in mm).
The mounting points of the rear axle carrier for the differential have been modified compared
to the E46/2.
The rear axle differential is bolted to the rear axle carrier at two mounting points on the rear
axle differential casing.
The rear axle carrier is connected to the body at the same points as the E46/2. For all BMW
vehicles, this mounting arrangement is known as double-flexible rear axle mounting.
The housing of the rear axle differential is E46 M3 specific. The cover of the rear axle differential
is made of pressure die cast aluminum. Special arranged cooling fins reduce the
temperature of the oil in the differential.
The technical innovations of the variable M-differential lock developed by BMW M in cooperation
with GKN Viscodrive GmbH is fitted in the E46 M3.
Variable M-differential Lock
To date, torque-sensing limited slip differentials with a constant basic locking torque have
been used in M vehicles.
The differential lock value for current M vehicles is 25%. However,
if traction is very low, e.g. on snow, the advantages with this differential lock concept are
limited due to the restricted support torque.
A variable differential lock is used for the first time in the E46 M3. Compared to the conventional
torque-sensing differential lock, the variable M-differential lock is capable of providing
traction advantages even under these extreme conditions.
When there is a speed difference between both wheels, a shear pump located on the ring
gear side generates a pressure. A working piston transmits this controlled pressure on the
basis of the differential speed of the drive wheels to the multi-disc clutches so that the drive
torque is transmitted to the wheel with the most “grip”.
The pump pressure and locking power increase as the speed difference between the two
wheels increase. If the differential speed between both wheels decreases, the pump pressure
is also reduced and the locking power diminishes.
The Pump Unit: The pump unit is sealed (cannot
be dismantled) and is filled with approx. 46
grams of high viscosity silicone oil.
As a result of the speed difference between the
drive wheels, shear forces occur in the silicone
oil in the pump unit between a channel filled with
silicone oil and a pump disc located above it.
These shear forces generate a pressure that is
dependent on the differential speed of the drive
pinions.
The pressure is built up by a piston (max. 38
bar) that presses the multi-disc clutches together
achieving a variable differential lock effect
dependent on the differential speed."