P or primary waves
In a solid, particles are tightly packed and arranged in a fixed pattern, so squeezing them would result in the particles getting even closer together, potentially causing the solid to deform or break. In a liquid, the particles are more loosely packed and can flow past each other, so squeezing them would just compress the liquid. In a gas, the particles are already far apart and moving freely, so squeezing them would cause the gas to increase in pressure and possibly decrease in volume.
Squeezing the dropper will create a vacuum inside it, causing the liquid to be drawn up into the dropper. When you release the pressure, the liquid will be dispensed in a controlled manner.
Because if you don't squeeze it, it won't fit together and it will be a pile of snowflakes. You can't really make a snowball/ball if you don't squeeze it. If do it will just crinkle up and break.
When you squeeze a balloon, you are applying pressure to the air inside it. This increased pressure causes the air molecules to move closer together, which changes the balloon's shape. Once you release the balloon, the air molecules move back to their original positions and the balloon returns to its original shape.
Yes, although not necessarily at the same depth as igneous or metamorphic rocks are. The formation is also without excessive heat. The pressure is required to ensure that the clasts/grains are cemented and connected completely.
Seismic waves, specifically compressional (P-waves), squeeze and pull rock in the same direction that they travel. These waves cause particles in the rock to oscillate back and forth along the direction of propagation.
A solid is not easy to squeeze since its particles are tightly packed together. Liquids are relatively easy to squeeze as their particles are more spread out but still have some resistance. Gases are the easiest to squeeze since their particles are far apart and can be compressed easily.
There are more cold particles than warm particles because the particles attract to frozen temperatures. They do this because since the colder the temperature is usually tight the molecules tighten and there is room for only the particles to squeeze.
When you squeeze an air-filled balloon, the air inside gets compressed, causing an increase in pressure. If the pressure becomes too high, the balloon may pop.
To effectively squeeze a soda bottle to release carbonation without causing a mess or spillage, slowly and gently squeeze the bottle while keeping it upright. Release the pressure gradually to prevent the soda from foaming up and overflowing. Be cautious and stop squeezing if you feel the pressure building up too quickly.
Under the influence of external pressure the particles are forced together. Under the particles' own gravitational force the particles come together. Technically speaking there must be an external force to bring the particles of matter together. Another point to be noted is that when the particles moves so close to together that it crosses its critical mass a black hole is developed. But not always.
Yes, liquefaction forces can squeeze or pull the rock in Earth's crust. During an earthquake, liquefaction can occur when seismic waves cause water-saturated sediments to lose their strength, leading to the squeezing or pulling of rocks and sediments in the crust.
When you squeeze together the coils of a spring and then release them, you are creating a mechanical wave known as a longitudinal wave. This wave travels through the spring by causing the coils to compress and then expand in the same direction as the wave's motion.
When you squeeze the sides of the bottle, the pressure on the water and air in the dropper increases. This is due to the decrease in volume inside the bottle, causing an increase in pressure on the contents as they try to occupy less space.
The force acting when you twist wet clothes to squeeze out water is called torsional force. This force is generated when you apply a twisting motion to the cloth, causing the water to be forced out due to the wringing action.
A force or pressure that attempts to flatten or squeeze a material. forces acting on the body from all direction (generally all 4 directional sides) which result as the compression in body that type of force is called compressional force
the plural form of squeeze is just, well, squeeze. If you ar asking a question in which you need to use the plural form of squeeze, you ask "how many times do i squeeze this sponge?" for example.