A mechanical wave travels through a medium because a medium is necessary for the propagation of that wave. With a mechanical wave, like sound, mechanical energy is put intothe wave, and the medium carries the energy of the wave. This is in contrast to an electromagnetic wave (like light) which can move through a total vacuum.
When rain hits a raincoat, the outer fabric repels the water and prevents it from soaking through to the wearer. The water forms droplets on the surface of the raincoat and eventually runs off. This helps keep the person wearing the raincoat dry.
When sunlight hits soil, it warms up the soil and promotes the growth of plants through photosynthesis. The sunlight also helps to activate microorganisms in the soil, which play an important role in the nutrient cycling process. Additionally, sunlight can influence the temperature and moisture levels of the soil, affecting the overall ecosystem dynamics.
Primary waves (P-waves) are faster seismic waves that travel through solids, liquids, and gases by compressing and expanding material in the same direction as the wave's propagation. Secondary waves (S-waves) are slower seismic waves that travel only through solids by moving material perpendicular to the wave's propagation. P-waves are the first to be detected during an earthquake and can travel through the Earth's inner core, while S-waves follow and cannot pass through the core.
When a tornado hits the ground, it can cause significant destruction by uprooting trees, damaging buildings, and tossing debris into the air. The swirling winds can reach extreme speeds, creating a wide path of devastation in its wake.
After rain hits the ground, it may evaporate back into the atmosphere, infiltrate the soil to replenish groundwater, flow over the surface as runoff into rivers and streams, or get absorbed by plants and trees for their growth and survival.
When a wave hits a barrier and reflects back in the same medium, it is called wave reflection. This happens because the barrier cannot absorb or transmit the wave energy. The angle of reflection is equal to the angle of incidence.
When a wave hits a barrier, it can reflect, refract, or diffract. The behavior of the wave depends on the properties of the barrier and the type of wave. Reflection occurs when the wave bounces back off the barrier. Refraction happens when the wave changes direction as it passes through the barrier. Diffract refers to the bending of the wave around the edges of the barrier.
There is no scientific term for what happens when light hits an opaque object I'm afraid to say.
When a sound wave hits a barrier, several things can happen: it can be absorbed by the barrier, reflected back, transmitted through the barrier (if it's not solid), or diffracted around the barrier. The actual outcome depends on the properties of both the barrier and the sound wave.
When a wave hits a barrier and bounces back off, it is known as wave reflection. This phenomenon occurs when the wave encounters a boundary that prevents it from passing through, causing it to reverse its direction.
When a sound wave hits a barrier, it can be reflected, absorbed, or transmitted through the barrier. The amount of sound that is reflected, absorbed, or transmitted depends on the properties of the barrier, such as its material and thickness. Reflection occurs when the barrier is dense and rigid, while absorption occurs when the barrier is soft and porous. Transmission occurs when the barrier is thin and non-porous.
When light hits an object that it cannot pass through, it undergoes reflection or absorption. Reflection occurs when light bounces off the object's surface, while absorption results in the light being absorbed by the object, converting energy into heat. The specific outcome depends on the properties of the object and the light itself.
When a wave hits a barrier, two wave interactions that can occur are reflection, where the wave bounces off the barrier and returns in the opposite direction, and diffraction, where the wave bends around the barrier and spreads out.
Reflection
If the light can not pass through a object it is opaque . The light will reflect or be absorbed by the object.
When a wave hits a surface through which it cannot pass and bounces back, it undergoes reflection. The angle at which the wave hits the surface is equal to the angle at which it bounces back, following the law of reflection.
Hello, Well, When something hits a barrier it can either go through it or bounce off. Like a bullet. When you fire a bullet at a wall, if the wall is soft it would pass through and if it is too strong, the bullet would ricochet off the wall. For waves, they either pass into the barrier using the barrier as a medium or bounce off. Remember that when some waves that hit the barrier transfer, there would be always some who 'bounce back' The words I use are not entirely scientifically correct but you get the idea. Hope I Helped