To solve this problem we will apply the concepts given from the circular movement of the bodies for which we have that the centripetal Force is defined as a product between the mass and the velocity squared at the rate of rotation, mathematically this is

Where,
m = Mass
v = Velocity
r = Radius
Our values are given as

Rearranging to find the velocity we have that,




Therefore the maximum speed can the mass have if the string is not to break is 29m/s
Answer:

Explanation:
Given equation:

To solve the given equation:


Multiply both sides by T₀:

Add 100 to both sides:

Subtract
from both sides:

Factor out the common term T₀:

Divide both sides by 

Carry out the calculation:



Answer:
75 Newtons.
Explanation:
From Newton's second law of motion,
F = m(v-u)/t................... Equation 1
Where F = force exerted by the ball on the bat, m = mass of the ball, v = final velocity of the ball, u = initial velocity of the ball, t = time
Given: m = 0.6 kilogram, u = 0 meter per seconds (at rest), v = 25 meters per seconds, t = 0.2 seconds.
Substitute into equation 1
F = 0.6(25-0)/0.2
F = 3(25)
F = 75 Newton.
Hence the magnitude of the average force exerted by the ball on the bat = 75 Newtons.
The conclusion of a scientific process is a statement of whether the original hypothesis was supported or refuted by the observations gathered.
The six steps are:
1) Make an observation
2) Ask a question
3) Form a hypothesis
4) Conduct an experiment
5) Accept or Reject the hypothesis
6) Share your results
Answer:
λ ≈ 462 nm
Explanation:
Given:-
- The slit separation, a = 10^-5 m
- The first bright fringe occurs at, y = 0.03 m from central order
- The distance between the screen and slit, L = 0.65 m
Find:-
what is the wavelength of this light?
Solution:-
- The Young's double slit experiment gives us the relation for the interaction of a light with wavelength ( λ ) that pass through 2-slits with separation ( a ) and interfere constructively or destructively at the the screen Hence, forming an interference pattern of bright and dark fringes.
- The relation for separation ( y ) between bright fringes is related to the above mentioned parameters as given below:
y = L*n*λ / a
Where,
n: The order of fringe from central
Re-arrange for wavelength ( λ ).
- The order of first bright fringe is n = 1:
λ = y*a / L
λ = 0.03*0.00001 / 0.65
λ = 4.61538 * 10^-7 m
λ ≈ 462 nm