What is the fate of ammonia in the human body?(I need a bichemical answer)?
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there's ammonia in your urine and your sweat\n(i think)
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The kidneys remove urea and other toxic wastes from the blood, forming a dilute solution called urine in the process. The two kidneys have a very extensive blood supply and the whole blood supply passes through the kidneys every 5 minutes, ensuring that waste materials do not build up. The renal artery carries blood to the kidney, while the renal vein carries blood, now with far lower concentrations of urea and mineral ions, away from the kidney. The urine formed passes down the ureter to the bladder.\n\nThe liver converts ammonia to urea, which is excreted in urine by the kidneys.\n\nThe blood entering the liver from the portal vein, after being cleaned by the liver, flows into the inferior vena cava via the hepatic veins.\n\nJudging by this information i would say it is the Hepatic because it transfers the "stuff" from the liver to the inferior vena cava then it gets to the renal vein which as it says has less urea concentration.  With the liver that creates the urea, id say the obvious first vein it goes through is the right one.
301802
It's probably not the best thing for you as this can mess up your body chemistry if you're not used to this.  Nothing really horribly serious will happen though because your fluids are buffers.  A buffer is a solution which doesn't drastically change pH if an acid or base is added.  For example, your blood is a buffer solution.  On a daily basis you eat all sorts of acidic or basic things, but your insides need to be kept at a consistent pH.  Because buffer solutions don't change pH very much, your body can stay at a constant pH, and your organs won't fail.  I also think I heard that many cities have water with a pH of 9.
476672
It's a common misconception that your food comes out either as pee or poop or some ratio depending upon it's state of matter before being eaten. In fact, the different sources of energy (i.e. fats and carbs) as well as proteins, undergo catabolism so much that the waste products are nothing like them at all. In any case, feces (poop) is what is never actually absorbed by your body. Anything that is taken up by the body and used is in the urine (pee). This is mostly water, salt, and urea (broken down proteins).
802840
Ammonia is a chemical compound, and Excretion is to actively transport a substance outside of an area. So Ammonia Excretion is to move Ammonia outside of the cell/organism.
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im studying the digestive system right now, so i'll have a go at this question (u may want to chec accuracy).\nthe cell gets the carbon it needs via the blood supply. when we eat, all the nutrients are broken down and molecules such as hydrogen, oxygen and carbon are filtered into the blood stream so that they can be passed on to all the cells in th body.\n\ndoes that help?
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This is a rather complex process. First of all urea are made in a process called deamination, this occurs in the liver. Excess proteins that have been eaten by the human are broken up and converted into urea. \n This then enters the blood and is transfered throughout the body(even our sweat contains urea!).\nAs blood passes into the kidneys, it's filtered there so urea is separated from the rest constituents of blood.\nFrom the kidneys urea,dissolved in water( now called urine) is transfered via the ureters to the bladder where it is stored until excreted.
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Animal's excretion. Nitrogen gas to NH3
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No. The kidneys filter blood to eliminate nitrogen wastes from the breakdown of proteins and nucleic acids. Most of these nitrogen wastes are excreted as urea.
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Last week I wrote a detailed answer to a very similar question.  Try looking at that first, and follow the same procedure for your ammonia oxidation question.
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AH ..... an aneasthetic Q/A.\n   Some things that are introduced into our system are metabolised or altered by certain organs.\n  eg....we swallow a tablet  goes to stomach, gets partially digested and then goes into the blood stream, then to the liver....etc....\n  OR...we inject a patient into a vein, the substance goes to the liver to be first metabolised before anywhere else...\n....get it.\n   There are other things that go through your system and get changed by different organs, broken down, altered and then get treated by other organs in other ways, and then get excreted out, be it by the kidneys into urine, or lungs, via breath.
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medicine, metabolic acidosis is a state in which the blood pH is low (under 7.35) due to increased production of H+ by the body or the inability of the body to form bicarbonate (HCO3-) in the kidney. Its causes are diverse, and its consequences can be serious, including coma and death. Together with respiratory acidosis, it is one of the two general types of acidosis.
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C.\n\nThe Urea Cycle take place in the Liver.  Ammonia proceeds Urea.
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Basically you need to oxidise ammonia and then  adsorb the gases into water.\n\nSee the site below.
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3g of hidrogen (plus 14 g of nitrogen) make up 17g of ammonia (H+H+H+N=1+1+1+14), so:\n\n3g  H____17g NH3\n50g H____=283.33g NH3\n\nI assumed a 100% efficient reaction (that means every bit of reactant will actually react).
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amino acid metabolism-the liver regulates blood levels of amino acids(proteins) based on tissue needs for protein synthesis. the liver is able to synthesis 12 of these human proteins. The chemical process is called transanimation
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Urine contains large amounts of urea, an excellent source of nitrogen for plants. As such it is a useful accelerator for compost. Urea is 10,000 times less toxic than ammonia and is a byproduct of deamination (2 NH3 molecules) and cellular respiration's (1 CO2 molecule) products combining together. Other components include various inorganic salts such as sodium chloride (the discharge of sodium through urine is known as "natriuresis".)  The typical clear, yellow, or yellow-orange (usually a sign of dehydration) colour of urine is caused by the pigment urochrome, but also from the degradation products of bilirubin and urobilin.