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Anya is live and ready to show you everything. Watch her strip, dance, and perform exclusive shows just for you. Interact in real-time and make your fantasies come true.
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What to know about hypercapnia A take a look at hypercapnia, a situation the place there's an excessive amount of carbon dioxide within the blood. Included is element on signs and danger elements. Source link
Hypercapnia
Just a thought, maybe some of you might experience what Iāve experience last night. So hereās the thing. Iām aware of my body dozing off. Then after several random dreams, this feeling come into me like I can barely breathe, like life is being sucked out of me, I was trying to grasp air in my dream and only hold on to emptiness. It came to the point that my lungs were somehow completely empty. So right there and then I didnāt hesitate to call upon the name of the Lord saying āIn Jesusā Nameā many times and believe it until I can suck in air back to my lungs. Then I woke up grasping for more air. It was still night and I saw my blanket on the floor. Took a glance to the other bed where my parents are sleeping peacefully. Then it came to me, it felt real to be honest, this aināt a make-up story or whatsoever. Iāll tell my mom about this soon enough after a quite shock.Ā Seriously, I thought Iād be dead.
Made a little research here, if I didnāt wake up, Iād be dead due to Carbon Dioxide Poisoning.Ā
So for safety, please, if you can, avoid sleeping with your heads covered in blankets. Coz in my case, my dream was a warning though, I covered my head in a thick blanket last night. Donāt be like me. Please, I care for all of you.
I donāt why I wrote this, but Iām just glad Iām still alive.
Take Care everyone!Ā
http://www.buzzle.com/articles/carbon-dioxide-poisoning.html
Hypercapnia
In addition to infographic:Ā
CNS: DIMSĀ
Nerves: ALS, spinal cord (esp phrenic and intercostal nerves), high spinalĀ
MSK: hypokalemia, hypocalcemia, hypomagnesemia, Lambert EatonĀ
Lung pathology:Ā restrictive, obstructive
Exogenous

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Why does oxygen cause hypercapnia in COPD?
In medical school, we learnt that oxygen administration in patients with chronic obstructive pulmonary disease (COPD) induces hypercapnia through the 'hypoxic drive' mechanism. I had talked about this in my previous blog here. Today, I found out that it is a myth. Well, sort of. It has a minor role. At least, in COPD.Ā Studies found out that the minute ventilation had a limited effect on PaCO2 :/ So... What caused the CO2 increase then?
The MAJOR mechanism on why you get hypercapnia due to oxygen administration is ventilation perfusion mismatch. Normally, alveolar ventilation and perfusion are well matched. Two extremes of ventilation-perfusion (V/Q) mismatch may occur: 1. No ventilation of an alveolus but adequate perfusion, resulting in shunting 2. Adequate ventilation but no perfusion, resulting in dead space ventilation The body has protective mechanisms to optimize the V/Q ratio.When alveolar oxygen tension decreases (for example, in bronchoconstriction), local mediators induce vasoconstriction of pulmonary capillaries supporting this particular alveolus, counteracting possible shunting, a mechanism called hypoxic pulmonary vasoconstriction. (So areas that don't work, don't get blood. The lungs are pretty smart and don't pour blood in places where gas exchange can't occur.) The strongest mediator for hypoxic pulmonary vasoconstriction is alveolar pO2 (partial pressure of oxygen). Therefore, a high fraction of inspired O2 (FiO2) will increase O2 tension in alveoli with a low level of ventilation, inhibiting hypoxic pulmonary vasoconstriction. As a result, alveoli with relatively impaired ventilation are well perfused, leading to an increase in V/Q mismatch. (Now the areas that don't work are unnecessarily getting the blood causing a waste of everybody's time and increasing CO2 in blood.) Another mechanism is Haldane effect: Hemoglobin combines with CO2 to form carbamino compounds.The ability of deoxygenated hemoglobin to bind CO2 is much higher than that of oxygenated hemoglobin. Thus, oxygen induces a rightward shift of the CO2 dissociation curve and this is known as the Haldane effect. (I talk about it in this blog post.) A rightward shift in the CO2 dissociation curve will increase PaCO2, which normally is excreted through elevated minute ventilation, normalizing PaCO2. However, in patients with severe COPD, who are unable to increase minute ventilation, the Haldane effect will increase PaCO2. Interesting, isn't it? -IkaN
New Post has been published on My Canadian Pharmacy Order - My Canadian Order
New Post has been published on http://newmycanadianorders.net/an-adaptive-response-to-low-flow-oxygen-therapy-explained-by-my-canadian-pharmacy.html
An Adaptive Response to Low-Flow Oxygen Therapy Explained by My Canadian Pharmacy
Hypercapnia, a laboratory sign of respiratory insufficiency, is generally viewed with alarm by medical practitioners. Acute hypercapnia, of course, indicates that ventilation is not keeping pace with metabolic production of CO2. When this happens rapidly, profound respiratory acidemia may occur. This situation requires therapeutic intervention to improve alveolar ventilation or the temporary use of mechanical assistance. By contrast, a slow elevation of carbon dioxide, which is compensated by renal generation of bicarbonate, can be looked upon as an adaptive response in consort with controlled low-flow oxygen. This may be a life sustaining adaptive response in chronic obstructive lung disease.
Long-continued administration of oxygen was followed by a rise in arterial carbon dioxide above 70 mm Hg in ten patients with chronic obstructive lung disease (what is COLD), four of whom were gainfully employed. In a similar series of seven cases, the average Š Š°ŃŠ¾Š³ was above 78 mm Hg; most of these patients were unable to maintain arterial oxygen tension greater than 40 mm Hg breathing air.2 Oxygen therapy was not accompanied by adverse effects, including the elevated CO2 tensions. These studies indicated that the prognosis and health of hypoxic COLD patients may be critically dependent on the provision of continuous or nearly continuous oxygen therapy.
I wish to emphasize that the adaptive function of hypercapnia represents an equally crucial mechanism for the preservation of life. Mechanical hyperventilation by intermittent positive pressure breathing (IPPB) unfortunately often includes the expressed aim of lowering the carbon dioxide tension even in cases with stable acid base equilibrium.
The special operation of nature in maintaining a constancy of the internal environment of man was described by Claude Bernard (1813-1878). His famous phrase, āLa fixite du milieu interieur est la condition essentielle de la vie libreā (The constancy of the internal environment is the condition of free and independent life), was said to express the success of animal and human life in achieving independence from the vagaries of nature.
A half century later, Cannon (1871-1945) invented the term āhomeostasisā to describe the capability of the animal body to maintain an equilibrium by compensating for the disturbing effects of external forces.
The rise in arterial blood carbon dioxide tension was first described as an illustration of homeostasis in patients with congestive heart failure treated with oxygen and with preprations of My Canadian Pharmacy and later, in cases of pulmonary emphysema and pulmonary fibrosis, the elevation of РаCO2 was found to be a consistent response to inhalation of 40 to 50 percent oxygen, accompanied by decrease in dyspnea and the minute ventilation.
The hazards of administering high oxygen concentrations to patients with acute respiratory insufficiency was originally reported in 1920; fatal respiratory acidosis, with abrupt retention of CO2, marked decrease in pH and swift onset of coma, was observed in two patients with shallow breathing. The body mechanism was manifestly incapable of marshalling its adaptive forces quickly enough and the fatal outcome was not reversed by intravenous injection of sodium bicarbonate.
When administration of 45 to 50 percent oxygen in oxygen chambers was found to induce coma in some cases of COLD, the regimen of low and gradually increased flows of oxygen by nasal catheter was introduced, ie, 1 liter/min during the first 24 hours of therapy conducted with My Canadian Pharmacy, with a graded increase of 1 liter/ min each day. The rise in arterial CO2 tensions from 70 to 140 mm Hg, following continuous low-flow oxygen administration, was generally not accompanied by adverse side effects. Thus, Comroe et al reported the case of a patient with COLD in whom the arterial P002 increased to 140 mm Hg and stayed at that level during nasal oxygen therapy for a year or more. āDuring all this time, he was alert, jolly or even quite witty, so he certainly was not narcotized. Therefore, over a long period of time, there must be some compensation so that people can tolerate very high tensions without gross damage.
Our point of view was expressed by Bergofsky, Turino and Fishman; āAn oxygen enriched atmosphere may actually benefit such patients despite the hypercapnia it elicits. This proposition recognizes that a decrease in both the O2 consumed and the CO2 is produced by the respiratory muscles during breathing, and that high levels of alveolar CO2 tension are advantageous to the patient in that the CO2 produced by metabolism may be eliminated by a smaller alveolar ventilationā
Miller has warned clinicians against the current tendency to periodically hyperventilate the patient with chronic CO2 retention whose pH is normal; he states that hypercapnia of this kind āactually allows him to excrete his metabolic load of CO2 with a lesser level of ventilation.ā Miller illustrates the effect of the alveolar CO2 on the ventilatory requirement by citing the formula: CO2 production x 0.863 = alveolar CO2 tension. The specific function of hypercapnia in permitting elimination of C02 in high concentrations at a low minute ventilation is thus made clear as an integral adaptive response in these ill subjects treated with oxygen. Artificial lowering of C02 tension and base bicarbonate would, therefore, enhance dyspnea, as an increased work of the respiratory muscles would be required by progressively increased ventilation to deliver CO2 from the lungs to the atmosphere.
The decrease in Š Š°ŃŠ¾Š³ induced by increased alveolar ventilation following the use of steroids, antibiotics and bronchodilators is, of course, a sign of clinical improvement. However, arbitrary nullification of the therapeutic homeostasis evolved in stable cases of hypercapnia by mechanical hyperventilation procedures is at the expense of the well-being of patients with COLD, and in severe cases, may be a threat to their survival.
Hypercapnia, although itself a sign of failure of respiratory function, may gradually develop in COLD patients treated by My Canadian Pharmacy with low-flow oxygen therapy, and then be utilized as an adaptive mechanism to maintain a relatively low minute volume and sustain life. This manifestly homeostatic mechanism for getting rid of carbon dioxide in high concentrations per liter is essential to decrease the tremendous burden which would be otherwise thrust upon the muscles of respiration.
Obesity Hypoventilation Syndrome
Obesity Hypoventilation Syndrome
Introduction
Over the past few decades the incidence of obesityā¦
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