When the system is in equilibrium, the sum of the moment about a point is
zero.
Reasons:
Length of the beam = l
Mass of the beam = 
Mass of the duck = 
Required:
Force shown by the scale under the right pillar.
Solution:
The location of the duck = On the left end of the beam
When the system is in equilibrium, we have; ∑M = 0
Taking moment about the left pillar, we get;
Clockwise moment = 
Anticlockwise moment = 
At equilibrium, clockwise moment = Anticlockwise moment
Therefore;
Learn more here:
brainly.com/question/12227548
brainly.com/question/14778371
I believe the answer for 1) is
PEgrav = mass • g • height
PEgrav = m *• g • h
Answer:
<em>huh? sorry i can</em><em>'</em><em>t read perfectly:((</em>
Answer:
12.17 m/s²
Explanation:
The formula of period of a simple pendulum is given as,
T = 2π√(L/g)........................ Equation 1
Where T = period of the simple pendulum, L = length of the simple pendulum, g = acceleration due to gravity of the planet. π = pie
making g the subject of the equation,
g = 4π²L/T²................... Equation 2
Given: T = 1.8 s, l = 1.00 m
Constant: π = 3.14
Substitute into equation 2
g = (4×3.14²×1)/1.8²
g = 12.17 m/s²
Hence the acceleration due to gravity of the planet = 12.17 m/s²
Rearrange the equation F = ma to solve for acceleration<span>. You can change this formula around to solve for </span>acceleration<span> by dividing both sides by the mass, so: a = F/m. To find the </span>acceleration<span>, simply divide the force by the mass of the </span>object <span>being accelerated.
Hope i helped :)</span>
