A slinky forms it’s third harmonic standing wave when the input frequency is 24 Hz. What is the fundamental frequency of the sli
1 answer:
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Answer:
The value is
Explanation:
From the question we are told that
The mass of matter converted to energy on first test is
The mass of matter converted to energy on second test
Generally the amount of energy that was released by the explosion is mathematically represented as
=>
=>
Answer:
15,569,653.3 Joules(J)
Explanation:
The equation used to find Kinetic Energy (KE) is
KE = m
You have been given
m = 450kg
v = 947km/h
KE = ???
Firstly, we need to convert the km/h into m/s as this is the unit used in the KE equation
This can be done by dividing by 3.6
947km/h = 263.056m/s
Substitute you values into the equation
KE = m
KE = * 450 *
KE = 15,569,653.3 Joules(J)
Round your answer as appropriate
The characteristics of the speed of the traveling waves allows to find the result for the tension in the string is:
T = 10 N
The speed of a wave on a string is given by the relationship.
v =
Where v es the velocty, t is the tension ang μ is the lineal density.
They indicate that the length of the string is L = 2.28 m and the pulse makes 4 trips in a time of t = 0.849 s, since the speed of the pulse in the string is constant, we can use the uniform motion ratio, where the distance traveled e 4 L
v =
v =
v =
v = 10.7 m / s
Let's find the linear density of the string, which is the length of the mass divided by its mass.
μ =
μ = 8.77 10⁻² kg / m
The tension is:
T = v² μ
Let's calculate
T = 10.7² 8.77 10⁻²
T = 1 0 N
In conclusion using the characteristics of the velocity of the traveling waves we can find the result for the tension in the string is:
T = 10 N
Learn more here: brainly.com/question/12545155