Answer:
Height will be 3.8971 m
Step-by-step explanation:
We have given that radius of the solid r = 1.60 m
Mass of the solid disk m = 2.30 kg
Angular velocity

Moment of inertia is given by

Transnational Kinetic energy is given by
as we know that v =

So

Rotational kinetic energy is given by

Potential energy is given by mgh
According to energy conservation

