At very high pressure, solids can undergo phase transitions to form new crystal structures or even change into different phases of matter, such as becoming amorphous or liquid-like. The atoms or molecules in the solid are compressed together more closely, leading to changes in their arrangement and properties.
Yes, density can change with very high pressure. When pressure is applied to a material, its particles are compressed closer together, resulting in an increase in density. This effect is particularly significant in gases, which are more compressible than liquids and solids. However, in solids and liquids, the change in density is generally less pronounced, as they are already closely packed.
Because the solid molecules are joined with very high inter molecular force in case of liquid this force is not very high.No. It is because the molecules in solids maintain a regular pattern and only vibrate, or move very slowly
For most solids, increasing the pressure will also increase the melting temperature. A notable exception is ice. Although solids are not very compressible, extreme pressure will still compress solids to a measurable degree. Some solids will also undergo phase changes when subjected to increasing pressure - from one solid structure to another. As previously noted, ice may actually melt if pressure is applied near the melting point temperature of the ice (a solid to liquid phase change vice a solid/solid phase change). A good example that most people are familiar with is the formation of diamonds. The tetrahedral crystaline structure of diamonds is actually not thermodynamically stable at atmospheric conditions, but from a kinetic standpoint the conversion back to graphite or other stable solid structure is so slow that it might as well be stable. To get it to convert to the diamond structure requires very high pressure.
Yes, 1040mb is a very high surface pressure.
Yes, but it usually requires changes in temperature and/or pressure, although there are cases where one structure is energetically preferred where it can happen spontaneously. Some examples are:amorphous carbon under very high temperature and pressure becomes diamondthe black amorphous solid form of sulfur spontaneously converts to the yellow crystalline solid form slowly over time, as the crystal is more stableetc.
Rock exposed to very high temperature and pressure will soften or melt.
Yes, density can change with very high pressure. When pressure is applied to a material, its particles are compressed closer together, resulting in an increase in density. This effect is particularly significant in gases, which are more compressible than liquids and solids. However, in solids and liquids, the change in density is generally less pronounced, as they are already closely packed.
Cause your body contains a very high temperature causing the solids to dissolve into liquids
Yes, you can compress gases, liquids, and solids. However, liquids and solids are MUCH less compressible than gases, and for many practical purposes you can consider them "incompressible". This means that a high pressure will only cause a very small change in volume.
No.
when the collision between the gas molecules and the container in which the gas exist is very high.....then the pressure of the gas is very high
Because the solid molecules are joined with very high inter molecular force in case of liquid this force is not very high.No. It is because the molecules in solids maintain a regular pattern and only vibrate, or move very slowly
For most solids, increasing the pressure will also increase the melting temperature. A notable exception is ice. Although solids are not very compressible, extreme pressure will still compress solids to a measurable degree. Some solids will also undergo phase changes when subjected to increasing pressure - from one solid structure to another. As previously noted, ice may actually melt if pressure is applied near the melting point temperature of the ice (a solid to liquid phase change vice a solid/solid phase change). A good example that most people are familiar with is the formation of diamonds. The tetrahedral crystaline structure of diamonds is actually not thermodynamically stable at atmospheric conditions, but from a kinetic standpoint the conversion back to graphite or other stable solid structure is so slow that it might as well be stable. To get it to convert to the diamond structure requires very high pressure.
The boiling points of ionic solids tend to be very high.
high pressure most likely
The vapor pressure of KCl depends on temperature. At room temperature (around 25°C), the vapor pressure of KCl is very low, close to negligible. As the temperature increases, the vapor pressure of KCl also increases, following the general trend for solids.
Because their intermolecular forces are very high relative to liquid and gas