\(\frac{\pi}{4} \, \text{rad}\)
\(\frac{\pi}{2} \, \text{rad}\)
\(\frac{3\pi}{4} \, \text{rad}\)
\(\pi \, \text{rad}\)
Step 1: A stationary wave results from the interference of two identical waves traveling in opposite directions.
Step 2: The phase difference (\( \Delta \phi \)) between a node (where displacement is zero) and an adjacent antinode (where displacement is maximum) is given by: \[ \Delta \phi = \frac{\pi}{2} { rad}. \] This indicates that the particle at an antinode is a quarter cycle ahead of the particle at the node. \bigskip
Explain the construction of a spherical wavefront by using Huygens' principle.
Two tuning forks having frequencies 320 Hz and 340 Hz are sounded together to produce sound waves. The velocity of sound in air is 340 m/s. Find the difference in wavelength of these waves.
Derive an expression for the equation of stationary wave on a stretched string. Show that the distance between two successive nodes or antinodes is \( \frac{\lambda}{2} \).