How do you calculate the density of oxygen gas (O2) at 30 degree C. and 700 mmHg?
The partial pressure of oxygen in expired air is 109 mmHg. Partial pressure is calculated at the proportion of oxygen in the air, so at 1 atmosphere for dry air pressure is 713 mmHg (which is 760 total pressure - 47 mmHg water vapor) and oxygen is 21% of the dry gas concentration so inspired pO2 is 150 mmHg.
The conversion factor from kPa to mmHg is 1 kPa = 7.5 mmHg. Therefore, the pressure in the container is 445 kPa * 7.5 mmHg/kPa = 3337.5 mmHg.
The partial pressure of oxygen in the heart varies depending on the specific location within the heart. Generally, it ranges from 30-50 mmHg in the coronary arteries to around 20 mmHg in the cardiac chambers. This partial pressure gradient allows for the diffusion of oxygen from the blood into the heart tissue for proper functioning.
Arterial values should be between 85 and 100 mmHg, Venous values should be between 30 and 40 mmHg.
The volume is 0,446 L.
How To Calculate The Density Of Oxygen Gas ,O2, At 30 Deg. C And 700 MmHg
About 20%% of the air we breath is oxygen. The PaO2 (oxygen breathed in mmhg) is approximately 100 mmhg.
To calculate the partial pressures of oxygen (O₂) and nitrogen (N₂) in the atmosphere, you can use Dalton's Law of Partial Pressures. The total pressure is 760 mmHg. The partial pressure of O₂ is 20% of 760 mmHg, which is 152 mmHg, and the partial pressure of N₂ is 80% of 760 mmHg, which is 608 mmHg. Therefore, the partial pressures are 152 mmHg for O₂ and 608 mmHg for N₂.
Personally, I would go from mmHg to Atm which the conversion factor is 760mmHg/1Atm. From there, go to kPa which is 101.325KPa/1Atm. Your answer should come out to be 60.43KPa.
270 mmHg.
The density is approx. 1,2 g/L.
blood entering the lungs has a partial pressure of oxygen (PO2) of 40 mmHg and a partial pressure of carbon dioxide (PCO2) of 46 mmHg; alveoli, on the other hand, have a PO2 of 105 mmHg and a PCO2 of 40 mmHg. As the blood moves past the alveoli, oxygen and carbon dioxide will diffuse down their respective partial pressure gradients. Oxygen will move from the alveolar space (PO2 of 105 mmHg) to the blood stream (PO2 of 40 mmHg). Carbon dioxide will move from the blood (PCO2 of 46 mmHg) to the alveolar space (PCO2 of 40 mmHg). As the blood leaves the alveolus, the PO2 and PCO2 will have essentially equilibrated with the alveolar air.
The partial pressure of oxygen in expired air is 109 mmHg. Partial pressure is calculated at the proportion of oxygen in the air, so at 1 atmosphere for dry air pressure is 713 mmHg (which is 760 total pressure - 47 mmHg water vapor) and oxygen is 21% of the dry gas concentration so inspired pO2 is 150 mmHg.
Convert all the pressures into one unit and then, using Dalton's Law of Partial Pressure, you just add all the pressures together. Using these conversions(101325Pa equals 1 ATM, 1 ATM equals 760 mmHg, 1 mmHg equals 1 torr), calculate each pressure into one unit(I used mmHg) 1013000 Pa nitrogen equals 7598 mmHg of nitrogen(make sure you round using sig figs) 700 mmHg of argon equals 700 mmHg of argon 1.20 ATM of helium equals 912 mmHg of helium 790 torr oxygen equals 790 mmHg of oxygen 0.50 ATM of carbon dioxide equals 380 mmHg of Carbon Dioxide Now add all the pressures and you get: 7598+700+912+790+380= 10380 mmHg If you need to have the answer in a particular unit: 10380 mmHg = 10380 torr = 13.66 ATM = 1384000 Pa = 1,384 kPa
The partial pressure of oxygen in the interstitial space of peripheral tissues is typically around 40 mmHg. This level is lower than the partial pressure of oxygen in arterial blood, which is around 100 mmHg. Oxygen diffuses from blood capillaries into the interstitial space to reach cells for metabolism.
The conversion factor from kPa to mmHg is 1 kPa = 7.5 mmHg. Therefore, the pressure in the container is 445 kPa * 7.5 mmHg/kPa = 3337.5 mmHg.
The partial pressure of oxygen (PaO2) when oxygen saturation is at 90% is approximately 60 mmHg.