Ammonia

Yes, ammonia has been detected in trace amounts in the atmosphere of Mars by the Curiosity rover. However, the levels are very low compared to other gases like carbon dioxide.

Ammonia is not typically found in hail stones or clouds. Hail stones are formed from water droplets in thunderstorm updrafts, while clouds are made up of water droplets or ice crystals. Ammonia is more commonly found in certain industrial processes, cleaning products, and some natural environments.

Yes, Saturn's atmosphere contains ammonia, but it's present in gaseous form rather than being crystallized. The extreme cold temperatures and high pressures on Saturn might allow ammonia to potentially crystallize deep within its interior.

Liver, through a series of reactions known as the urea cycle. This process takes place in the liver's mitochondria and cytosol and involves several enzymes that convert ammonia, a toxic byproduct of protein metabolism, into urea, which is then excreted by the kidneys in urine.

High ammonia levels in the human body can indicate liver dysfunction, as the liver normally converts ammonia into urea for excretion. If the liver is not functioning properly, ammonia can build up in the bloodstream, leading to symptoms such as confusion, fatigue, and possibly coma. This condition is known as hyperammonemia.

The circulatory system is responsible for delivering oxygen, nutrients, and hormones to cells through the blood. It also helps eliminate waste products like carbon dioxide and ammonia by transporting them away from cells for excretion.

Bacteria with the ability to perform nitrogen fixation, such as Rhizobium and Azotobacter, have an enzyme called nitrogenase that enables them to convert atmospheric nitrogen gas (N2) into ammonia (NH3). This process is essential for making nitrogen available to plants for growth and survival.

This process is called nitrogen fixation. Certain bacteria, such as those in the genus Rhizobium, can convert atmospheric nitrogen gas into ammonia, which can then be used by plants as a nutrient.

Bacteria use a process called nitrogen fixation to convert nitrogen gas in the air to ammonia. This process involves specialized enzymes that break the strong triple bond in nitrogen gas and convert it into a form that can be used by plants and other organisms.

Ammonia is produced in cells primarily as a byproduct of amino acid metabolism. Amino acids undergo deamination, a process in which the amino group is removed to produce ammonia. This ammonia can then be incorporated into other cellular processes or converted into less toxic compounds for excretion.

Ammonia has a strong, pungent odor that is often described as sharp and unpleasant. It is commonly used in cleaning products and can be irritating to the respiratory system when present in high concentrations.

You misunderstand!!!! All molecules can either be ionic of covalent.

Ammonia is a COVALENT molecule.

Soil bacteria change ammonia into nitrite and nitrate through a process called nitrification.

Ammonia hydroxide has a pungent, sharp, and distinct odor similar to that of household ammonia. It is often described as strong, acrid, and slightly sweet.

Ammonium phosphate can be made by reacting phosphoric acid with ammonia. This reaction forms ammonium phosphate, which can then be concentrated and crystallized to obtain the final product. The chemical equation for this reaction is: H3PO4 + NH3 → (NH4)3PO4.

Ammonium chloride is formed when ammonia reacts with dilute hydrochloric acid.

No, oil cannot turn into an ammonia smell. Ammonia is a compound formed by nitrogen and hydrogen, while oil is composed of carbon and hydrogen. The presence of ammonia smell could indicate a separate source of ammonia contamination.

Ammonia is more toxic than urea because it is a strong alkaline compound that can disrupt cellular processes and cause damage to tissues and organs. Urea, on the other hand, is a less toxic waste product that is more easily excreted by the body in urine.

Ammonia is essential for life as it is a key component in the nitrogen cycle, which is crucial for the synthesis of amino acids, proteins, and nucleic acids in living organisms. It is used by plants to make organic compounds and by bacteria to convert it into nitrates for plants to use. Ammonia also helps regulate pH levels in the body and is involved in various metabolic processes.

Ammonia dissolves in water exothermically, with the solubility increasing as the temperature decreases. At room temperature (25°C), ammonia has a solubility of about 32.5 g/L in water.

Ammonia does not burn like a typical fuel, but it can combust in the presence of oxygen when the temperature is around 1200-1800°F (650-980°C). However, it is not a common practice to use ammonia as a fuel source due to safety concerns.

Ammonia is effective against lice because it has high pH levels that disrupt the pests' bodies and can kill both adult lice and their eggs. It is also known to help dissolve the glue that lice use to attach their eggs to hair shafts, making them easier to remove during laundering.

The formula of ammonia (NH3) tells you the elemental composition of the compound, indicating that it contains one nitrogen atom and three hydrogen atoms. It also gives you information about the ratio of atoms in the molecule, allowing you to predict its chemical properties and reactions.

Ammonia is amphoteric because it can act as both a Brønsted-Lowry acid and base. In an acid-base reaction, ammonia can donate a proton (H+) to act as an acid:

NH3 + H2O ⇌ NH4+ + OH-

And it can also accept a proton to act as a base:

NH3 + H+ ⇌ NH4+

Household ammonia contains the base ammonia (NH3). It acts as a weak base when it reacts with water to produce ammonium hydroxide (NH4OH), which can then accept a proton (H+) to form ammonium ion (NH4+).