I will try again.
Imagine the cars sprung mass as a cube mounted on a spring.
Any force down on the cube, extra fuel weight, DF etc will compress the spring which will act as a conventional suspension.
The bottom of the spring is joined at a spring plate to a shaft which connects to a piston in a cylinder.
The cylinder is part of the hub carrier and is unsprung.
There is oil either side of the piston fed from an oil reservoir which is pressurized with gas.
There is a pressure measuring valve at the feed for both the upper and lower sides of the cylinder and a pressure changing valve on each side.
When load increases on the coil spring the spring shortens in length but it also increases the load on the piston in the cylinder this increases the pressure against the gas supply to the lower part of the cylinder this opens the pressure valve to the lower part of the cylinder increasing feed pressure and pushing the piston up to a pre determined point that maintains the wanted ride height plus the difference in spring length.
The system is continualy operating to keep the ride heigh the same and even, no matter what the load input source/amount or the vehicle dynamic loads.
When the car is stationary and there are no inputs the pressure is slightly biased to jack the vehicle mass up to maximum. This helps to keep the plank off the ground and keeps the system legal in parc ferme.
Now work out the dozen at least variations that can be designed into an F1 suspension geometry.