Use the ideal gas equation to solve this. PV= nRT. You will have to convert your pressure to atmosphere to use the constant R = 0.0821 L*ATM/mol*K. You know your initial pressure, volume, and temperature. Moles can be neglected (n) because they will stay the same. You also know your final pressure and final volume, so you can solve for final temperature.
Water pressure increases by approximately 1 bar for every 10 meters of depth in freshwater. At a depth of 10 meters, the water pressure would be about 1 bar, in addition to the atmospheric pressure at the surface, which is roughly 1 bar as well. Therefore, the total pressure at 10 meters depth would be about 2 bars.
90 meters. Every 10 meters, the pressure increases by approximately 1 bar, to this, you have to add the atmospheric pressure, which is also approximate 1 bar.
Celsius
"5 meters" is not an area.If the area is 5 square meters, then you're describing a pressure of 5 pascals.
10 meters of water depth equals about 1 atmosphere.
It depends on air pressure and temperature and whatnot, but it's about 340 meters/second.
The pressure at a depth of 10 meters underwater is about 2 atmospheres, which is equivalent to around 1 atmosphere of pressure at the surface plus an additional atmosphere for every 10 meters of depth. This increased pressure is due to the weight of the water above pushing down on you.
Using the formula P1V1/T1 = P2V2/T2, we can find the new volume. Since the temperature remains constant, T1 = T2 and can be canceled out. Plugging in the values, we have (200 kPa)(2500 m^3) = (500 kPa)V2, solving for V2 gives us the new volume of gas as V2 = 1000 cubic meters.
Using Boyle's Law (P1V1 = P2V2), we can calculate the new volume of the gas. Rearranging the formula gives V2 = (P1/P2) * V1. Substituting the given values, we get V2 = (236/354) * 60 = 40 cubic meters. Therefore, the gas occupies 40 cubic meters at the new pressure.
Argos at 2000 meters measure conductivity, temperature and pressure.
add 1 atm (atmosphere) for every 10 meters below the surface
At standard temperature and pressure conditions, 1 kilogram of gaseous hydrogen would occupy a volume of about 11.1 cubic meters.
Sound travels through air at a speed of approximately 343 meters per second (1235 km/h or 767 mph) at room temperature. The speed of sound can vary slightly depending on factors such as temperature, humidity, and pressure.
Using Boyle's Law, we can calculate the new volume by dividing the initial pressure by the final pressure and multiplying it by the initial volume. New Volume = (Initial Pressure / Final Pressure) * Initial Volume = (200 kPa / 400 kPa) * 50 cubic meters = 25 cubic meters.
The answer is 10 meters.
It would decrease because the distance between the blocks has increased.
60