English, asked by devbindu1298, 2 months ago

All formulas in sound chapter in physics class 9?​

Answers

Answered by yashrajpokle
1

Answer:

Given that,

Formula of sound

We need to calculate the formula of sound

(1). Echo :

Speed of echo is equal to the twice of distance between surface and source divided by time.

In mathematically term,

v=\dfrac{2d}{t}v=

t

2d

Where, v = echo

d = distance between surface and source

t = time

(2). Velocity of wave :

Velocity of wave is equal to the product of frequency and wavelength.

In mathematically term,

v=f\lambdav=fλ

Where, v = velocity of wave

f = frequency

\lambdaλ = wavelength

(3). Frequency :

Frequency is reciprocal of time.

In mathematically term,

f=\dfrac{1}{t}f=

t

1

Where, f= frequency

t = time

(4). Energy of wave :

Energy of wave is equal to the product of planck constant and frequency.

In mathematically term,

E=h\nuE=hν

Where, h = planck constant

\nuν = frequency

(5). Frequency of stretched string :

Frequency of stretched string is defined as

f=\dfrac{1}{2L}\sqrt{\dfrac{T}{M}}f=

2L

1

M

T

Where, f = frequency

L = length of string

T = tension

M = mass per unit length

Hence, This is the required solution

Answered by nishu6157
2

Answer:

Given that,

Formula of sound

We need to calculate the formula of sound

(1). Echo :

Speed of echo is equal to the twice of distance between surface and source divided by time.

In mathematically term,

Where, v = echo

d = distance between surface and source

t = time

(2). Velocity of wave :

Velocity of wave is equal to the product of frequency and wavelength.

In mathematically term,

Where, v = velocity of wave

f = frequency

= wavelength

(3). Frequency :

Frequency is reciprocal of time.

In mathematically term,

Where, f= frequency

t = time

(4). Energy of wave :

Energy of wave is equal to the product of planck constant and frequency.

In mathematically term,

Where, h = planck constant

= frequency

(5). Frequency of stretched string :

Frequency of stretched string is defined as

Where, f = frequency

L = length of string

T = tension

M = mass per unit length

Hence, This is the required solution

Explanation:

hope it helps you

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