Given:
Mass of object = 37 kg
Slope = 24 degrees
Let's solve the following questions.
A. Normal force acting on him.
To find the normal force acting on Matt, apply the formula below:

Where N is the force.
m is the mass = 37 kg
g is the gravitational acceleration = 9.8 m/s^2
Θ = 24 degrees.
Thus, we have:

Add N to both sides:

Therefore, the normal force acting on Matt is 331.25 N
B. Acceleration down the hill.
The acceleration down the hill will be the opposite side(side opposite the angle).
To find the acceleration down the hill, apply the formula below:

Thus, we have:

Therefore, the acceleration down the hill is 3.99 m/s
C. Given:
Coefficient of friction between Matt and the hill is = 0.31
Let's find the acceleration assuming there is friction.
To find the acceleration, we have the formula:

Where:
Fg is the force due to gravity
m is the mass of Matt
Thus, we have:

Also, let's find the force due to fricton using the formula:

Where:
u is the coeficient of friction = 0.31
N is the normal force
We have:

Thus, we have the formula:

Let's solve for a:

Therefore, the acceleration assuming there is friction is 2.75 m/s^2
ANSWER:
