Приклади вживання Partial pressure Англійська мовою та їх переклад на Українською
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To the partial pressure of water.
So right here, we have on the x-axis or the horizontal axis,we have the partial pressure of oxygen.
Partial Pressure of CO2.
And I could compare it to the partial pressure on the arteriole side of oxygen.
So this x-axis down here is the millimeters of oxygen,or millimeters of mercury for partial pressure of oxygen.
Factors That Determine the Partial Pressure of a Gas Dissolved in a Fluid.
So the partial pressure of oxygen is going to go up in the blood and in the plasma because it just dissolved into those liquids.
Well if the oxygen is going to diffuse into those liquids,then I would say the partial pressure of oxygen in the liquid would go up.
So I increase the partial pressure of oxygen in the air and it's going to diffuse into those two liquids and will dissolve in those liquids.
Let it be no one atmosphere,and let 0.3 and pure oxygen to save partial pressure. Let 0.3 kilograms per square centimeter.
Fixation is shut off when other sources of nitrogen are available, and, for many species,when oxygen is at high partial pressure.
So now let's say I decide to increase the partial pressure of oxygen in the air, so it's going to diffuse in here and here.
So you are literally going to startgetting some oxygen that falls off the hemoglobin simply because the partial pressure of oxygen is low.
So oxygen either comes in a dissolved form, we call partial pressure of oxygen, or it's going to be bound to hemoglobin.
Translated into English, this means that the amount of gas thatwill dissolve into a fluid will increase as the partial pressure increases.
Let's just draw out a little graph here.this will be the partial pressure of oxygen on this axis, and this will be O2 or oxygen saturation.
Because the pressure of the overall gas increases with depth,so does the pressure of an individual gas- the partial pressure.
So as we descend under the water and the partial pressure of gases in our lungs increases, more of this gas will dissolve in solution.
So 50% of the hemoglobin molecules are bound to oxygen,when the pressure of oxygen--the partial pressure of oxygen-- is about 27.
If the partial pressure of the gas is greater in the dissolved state in the blood, which is normally true for carbon dioxide, then net diffusion will occur toward the gas phase in the alveoli.
So this problem illustrates some of the ideas specifically around trying to tie in andincrease the partial pressure of oxygen, to how that could affect the saturation of oxygen.
Now for the same partial pressure of oxygen, my curve actually went down, meaning I have less oxygen bound to hemoglobin in the presence of molecule. and that makes sense with what we just said, because the molecule helps kick off the oxygen.
Accordingly, or the pressure should be lifted to maintain the partial pressure of oxygen, or to have a different atmosphere in different compartments.
The original dissociation curves from Bohr's experiments in the first description of the Bohr effect,showing a decrease in oxygen affinity as the partial pressure of carbon dioxide increases.
In the blood of people,as a result of the ascent to a considerable height, the partial pressure of O2 increases, as a result, oxygen begins to be utilized worse by the cells and oxygen starvation occurs, the result of which is loss of consciousness.
Transcutaneous polarography is one of the most objective noninvasive assessment of the capillary blood flow andmicrocirculation by controlling the oxygen partial pressure in the subcutaneous tissue.
MOUNTAIN DISEASE- a pathological condition that develops due to the low partial pressure of atmospheric gases, mainly oxygen, in high altitude conditions.
During the ascent, the tissue tension may be higher than the blood tension, which means diffusion will occur in the opposite direction, taking N2 back to the lungs,which has a still lower partial pressure of N2 for a given tissue.
MOUNTAIN DISEASE- a pathological condition that develops due to the low partial pressure of atmospheric gases, mainly oxygen, in high altitude conditions.
This has the effect of keeping the pressure inside a bubble higher than the partial pressure of the gas in the surrounding tissues, so that either bubbles will not get any bigger, or may actually shrink a little.