When air moves due to a strong wind, sound waves can be affected by the movement of the air. However, the effect on the position of the sound source is not necessarily an angular shift.
Sound waves are mechanical waves that travel through a medium, such as air. They propagate by compressing and rarefying the air particles as they travel. When there is wind or air movement, the sound waves will interact with the moving air.
If the wind is blowing in the same direction as the sound waves, it can enhance the propagation of sound by carrying the waves farther and increasing their intensity. This effect is known as a "downwind advantage." In this case, the sound waves can travel longer distances, and the sound source may appear louder than it would be in still air.
On the other hand, if the wind is blowing opposite to the direction of the sound waves, it can hinder the propagation of sound by causing sound wave reflections and refractions. This effect is called "upwind shielding." In such cases, the sound waves can be partially blocked or scattered by the wind, reducing their intensity and making the sound source appear quieter.
While wind can influence the propagation of sound, it does not typically cause an angular shift in the position of the sound source itself. The angular shift of the sound source, known as the Doppler effect, occurs when there is relative motion between the sound source and the observer. This shift is a result of the changing frequency of the sound waves as they approach or recede from the observer due to the relative motion. The wind, by itself, does not cause this angular shift unless the wind is causing the sound source itself to move relative to the observer.