This is consequence of a very common law which is known as Boyle's law.
According to it when we give pressure to the gas at constant temperature the volume of gas decreases.
The gas law formula is: pV/T=k; the volume is decreasing.
Yes, the pressure is inversely proportional to the area over which a force is applied. Decreasing the area that a force acts on will result in a lower pressure. This relationship is defined by the equation Pressure = Force / Area.
A stress on a reaction at equilibrium refers to any change that disturbs the balance between reactants and products. This can include changes in temperature, pressure, or concentration. When a stress is applied, the reaction will shift in a direction that helps to relieve the stress and re-establish equilibrium.
in order to make things clear, I would like to explain how is the pressure measured and what does it mean... pressure is the force (weight) exerted by an object on a specific area. and by this we can define the atmospheric pressure as the weight of the column of air ,that extends from earth to the exosphere; the upper limit of our atmosphere, divided by the area. now by increasing the length of that column (and consequently increase the weight) we increase the pressure,and the same thing can be applied when decreasing the length.
The melting point of materials varies depending on the applied pressure. As pressure increases so does the melting temperature. This relationship is normally shown in a phase diagram.The main constituent of the inner core is iron and the inner core pressure is approximately 330-360 GPA while the temperature varies from approximately 5000 to 7000 K.The extremely high pressures in the Earth's inner core therefore drive the melting point of the iron up beyond the temperature that occurs and the metals of the inner core cannot melt.As such the inner core is solid, even though it is the highest temperature region in the Earth.Please see the related links.
This depends on the confining pressure, the temperature and the strain rate applied to the rock mass. In general, the lower the rate of strain, the more likely ductile or plastic deformation leading to bending or folding will occur. The higher the strain rate, the more likely brittle deformation is to occur, leading to the rock "breaking". As the confining pressure increases, a materials shear strength will increase (this usually coincides with a greater depth of burial) and due to the Earth's thermal gradient an increase in temperature. As the shear strength of the rock increases, the occurrence of brittle failure is less likely while the higher temperature means that plastic deformations are more likely to occur.
The volume of the gas will decrease. the gas will also attempt to increase in temperature.
The volume of the gas will decrease. the gas will also attempt to increase in temperature.
change the pressure and/or the temperature of the gas
It's Pressure would rise.
When force is exerted on a fluid in a closed container, the pressure will increase. This is because pressure is directly proportional to the force applied to a fluid.
Since Pressure is Force per Unit Area (P = F/A), there are intuitively two ways to increase pressure. You can either keep the area constant and increase the force being applied, or keep the force constant and decrease the area on which the force acts.
As volume changes so does pressure. During the compression cycle of an engine, the volume is decreasing causing the pressure to increase. This happens so rapidly that I do not believe that temperature stays constant. For this to actually be following Boyle's law the temp is supposed to remain constant.
If all environmental conditions remain constant then the resistance will not change appreciably with applied voltage, but the current will increase. An increase in current will raise the temperature of the conductor which will increase the resistance somewhat.
Avogadro's principle can be applied to ideal gases at constant temperature and pressure. It states that equal volumes of gases at the same temperature and pressure contain the same number of molecules, allowing for calculations involving quantities of gases.
Boyle's law states that the pressure of a gas is inversely proportional to its volume at constant temperature. In a pressure cooker, as the volume decreases due to the sealed environment, the pressure inside increases, allowing the temperature to rise above the boiling point of water and cook food faster.
boyle's law holds good in this case and the gas experiences decrease in volume....provided the gas is not in a container with fixed dimensions! its volume will decrease
1. Temperature of a gas 2. Force applied to a surface 3. Containing (included in closed system) mass