Not true. The weight transfer to the rear is a pretty simple physics problem that involves the height and longitudinal position of the center of gravity, the wheelbase and the longitudinal G forces. To use simple numbers if the center of gravity is 1 meter high and 1 meter in front of the rear axle then 100% of the weight will transfer to the rear axle at 1 G of acceleration (and you’ll begin popping a wheelie beyond that).
Traction is more complex, and there things like damping, spring rate and anti-squat come into play, but if anything anti-squat makes the rear stiffer decreasing available traction.
That said the gravity has a very long wheelbase of nearly 120”, and it also has a very low CG height (not sure what it is, but it’ll be lower than most ICE cars due the battery pack in the floor). This will help reduce weight transfer and make equal torque front and rear less bad. It will still be sub-optimal though; ideally something closer to a 60/40 power split would allow more acceleration around the traction limit. That may only be out of corners depending on the torque the gravity makes at the wheels, however- the rear likely has traction reserve in a straight line the way it’s “geared”, and that motor used at the front might still be below the limit of the tires in good conditions.