P1*V1 = P2*V2, Therefore your numerical answer would be 100*810/72 torr.
No. Dissolved gasses trapped under pressure provide the force.
To ensure that the plunger can move and not stuck. Because if it is stuck, when the gas goes into the syringe, the plunger will not move back and so the values you received will be lower than the actual value
If u are on a workbook page and you are in Science 6 and live in Cali, and working on a chart, you answer is "Dissolved gasses under pressure are trapped in magma underground" Nicky Dicky Anwered this question
The build-up of pressure from trapped gases in magma can cause explosive volcanic eruptions. The sudden release of this pressure propels magma, ash, and gases violently out of the volcano, leading to potentially devastating and widespread destruction.
The capillary oncotic pressure is higher because of the plasma proteins trapped within the capillaries. The high oncotic pressure pulls the water from from the interstitium into the capillary.
1100
Using Boyle's law (P1V1 = P2V2), the initial pressure is 820 torr, the initial volume is 110.0 mL, and the final volume is 83.0 mL. Solving for P2, we get P2 = (P1V1) / V2 = (820 torr * 110.0 mL) / 83.0 mL = 1088.55 torr. Therefore, the pressure of the trapped nitrogen in the syringe is 1088.55 torr.
Using Boyle's Law (P1V1 = P2V2), we can find the final pressure with the initial pressure (P1 = 790 torr), initial volume (V1 = 125.0 mL), and final volume (V2 = 75.0 mL). Plugging in the values: (790 torr)(125.0 mL) = P2(75.0 mL). Solving for P2 gives a pressure of 1327 torr for the trapped nitrogen.
If the room was quite weakly constructed, you might have a chance. It would really depend on what the room was made of, how it was built, etc.
Paper can explode when compressed because the air trapped within the paper fibers heats up and expands rapidly, causing the paper to burst.
No. Dissolved gasses trapped under pressure provide the force.
To ensure that the plunger can move and not stuck. Because if it is stuck, when the gas goes into the syringe, the plunger will not move back and so the values you received will be lower than the actual value
Pull the plunger of the syringe down to the 0.7 ml mark on the scale. Insert the needle into the liquid and slowly draw up the desired amount of 0.7 ml by gently pulling back on the plunger. Ensure no air bubbles are trapped in the syringe before administering the medication.
If u are on a workbook page and you are in Science 6 and live in Cali, and working on a chart, you answer is "Dissolved gasses under pressure are trapped in magma underground" Nicky Dicky Anwered this question
Well Yes we can compress it :)Foam rubber has air gaps, which allow it to be squashed together, and is not completely contained so it can spread outwards instead of being compressed only downward.By Vernit ;)
Vapor locking in syringes can occur due to air bubbles or gas trapped inside the syringe, which can prevent the proper flow of liquid medication. This can happen if the syringe is not properly primed or if it is not held at the correct angle during use. It is important to ensure that syringes are primed correctly and used in a way that prevents air from entering the syringe barrel.
The air pressure inside the bottle is greater than the water pressure outside, creating a force that prevents water from entering the bottle. This is because the air inside the bottle is trapped and compressed, making it resistant to being displaced by water.