Yes
Okay i think i might know but i'm not sure but i think this can never happen because if it did the atmospheric pressure would crush us. our fluids in our bodies exert pressure on the atmospheric pressure(the same amount) and pretty much neutralize the effect!
Yes, atmospheric pressure acts on both sides of the plunger in a sealed syringe. The pressure outside the syringe applies force on the outer surface, while the pressure inside the syringe is influenced by the contents within. If the plunger is pushed or pulled, the pressure difference between the inside and outside can create a force that moves the plunger. However, in a sealed environment, the pressure inside can change based on the volume of the fluid inside the syringe.
This is known as an experiment demonstrating the concept of water displacement and the principle of atmospheric pressure. When the candle burns inside the cup, it consumes oxygen, reducing air pressure inside the cup. The higher atmospheric pressure outside the cup forces the water up into the cup to balance the pressure difference.
Our bodies are made to withstand the atmospheric pressure around us. This pressure is evenly distributed inside and outside our bodies, so we don't get crushed. Additionally, our body tissues contain fluids that help balance the internal pressure.
If the building is not air tight the presure should be just about the same inside or outside. If all the doors and windows are shut and you turned on the heat, the presure may be slightly higher inside.
When the water level is higher inside the flask than outside, the gas pressure in the flask would be lower than the atmospheric pressure. This is because the water exerts a partial vacuum on the gas in the flask, reducing its pressure compared to the external atmospheric pressure.
Think about this: if the pressure WERE equal, what would happen in the instant when you open the neck of the balloon and whatever pressure is on the inside meets the pressure that is on the outside (atmospheric pressure)? In your experience, what DOES happen?
A pressure difference is created, low pressure on the inside and higher pressure on the outside (the atmospheric pressure). The atmospheric pressure crushes the plastic container, acting on the outer plastic walls.
When air is removed from a balloon, the pressure inside the balloon becomes lower than the atmospheric pressure outside. This causes the walls of the balloon to lose support from inside and collapse inward due to the higher atmospheric pressure pushing in from the outside.
The force of atmospheric pressure on a blimp is what helps it to stay inflated and maintain its shape. The blimp is designed to have a higher pressure inside than outside, creating buoyancy that enables it to float in the air. Changes in atmospheric pressure can impact the altitude and stability of the blimp.
When the air is pumped out of the can, the pressure inside the can becomes significantly lower than the external atmospheric pressure. The higher external pressure then causes the can to collapse. This is due to the unequal forces acting on the can from the outside and inside, leading to the can's deformation.
The atmospheric pressure go on falling. So the pressure in the balloon. It takes lot of height to get the pressure reduced. I mean, the reduction in the pressure can not be easily measured for short height.
The atmospheric pressure inside a pressure cooker can reach around 15 psi (pounds per square inch) above normal atmospheric pressure. This higher pressure increases the boiling point of water and allows for faster cooking times.
A can or container can stay rigid due to equal pressure from the inside and the outside. When the atmospheric pressure from the outside increases mote than the pressure pushing out from the inside, the material gets crushed.
There is no difference of the average local air pressure inside or outside of the headphone.
A vacuum cleaner creates suction by reducing air pressure inside the device, causing higher atmospheric pressure outside to push air and debris into the vacuum. This difference in pressure allows the vacuum cleaner to effectively pull in dirt and dust particles from surfaces.
Atmospheric pressure does not crush our lungs because the pressure inside our bodies is equal to the pressure outside. This balance allows our lungs to expand and contract without being crushed.