Answer:
The simple harmonic wave function is

Step-by-step explanation:
Generally a sine wave is mathematically represented as

Here A is the amplitude which is mathematically represented as

substituting 0.25 m for Z we have that
k is the wave number which is mathematically represented as
substituting 1.1 m for (wavelength ) we have
=>
w is the angular frequency which is mathematically represented as

Here T is the period which is mathematically represented as

substituting 13 wave pass for n and
for t


So


So
