Answer:
A) 4.95 m
B) 1.48225 m
Step-by-step explanation:
Constant Acceleration Equations (SUVAT)
When using SUVAT, assume the object is modeled as a particle and that acceleration is constant.
Consider the horizontal and vertical motion of the projectile separately.
Part A
The horizontal component of velocity is constant, as there is no acceleration horizontally.
Resolving horizontally, taking → as positive:


Part B
As the projectile is fired horizontally, the vertical component of its initial velocity is zero.
Acceleration due to gravity = 9.8 ms⁻²
Resolving vertically, taking ↓ as positive:

