This yields nitric and nitous acid (1 to 1)
H2O + 2 NO2 --> HNO2 + HNO3
The elements carbon, nitrogen, chlorine, bromine, iodine, sulfur, and phosphorus all have this characteristic.
Bubbling nitrogen dioxide through water can increase the reaction rate by increasing the surface area for the reaction to occur. The dissolved nitrogen dioxide can react with water to form nitrous and nitric acids, which can further catalyze reactions. Additionally, the increased concentration of nitrogen dioxide can lead to more collisions between reacting particles, enhancing the reaction rate.
The balanced equation for this reaction is: 4 H2 + 4 NO -> 4 H2O + 2 N2.
That depends on the other products and or reactants and the percentage yield (measure of efficiency) of the reaction.
First, balance the equation: 2NO + O2 -> 2NO2 Calculate the molar mass of NO2 using the periodic table. Calculate the number of moles of NO involved using the given mass. Use the stoichiometry of the balanced equation to find the theoretical yield of NO2 in grams.
If we combine nitrogen and oxygen, we can get several different things that are combinations of nitrogena nd oxygen. The NO2 is nitrogen dioxide. Here's the formula:N2 + 2O2 => 2NO2Note that the equation is balanced, and one molecule of nitrogen (which is a pair of nitrogen atoms) combines with two molecules of oxygen (each one being a pair of oxygen atoms) to yield two molecules of nitrogen dioxide.
Combustion reactions yield water and carbon dioxide. Hope this helps!
All of these
I believe when the average person thinks of a solution, they are imagining a solid dissolved in a liquid, and this may be the most common type of solution. However, there are at least six additional types of solutions: 1) A liquid dissolved in one or more other liquids, for example acetic acid in water (vinegar), ethyl alcohol in water (vodka), or hexane dissolved in toluene; 2) A liquid dissolved in a solid as in mercury dissolved in silver (silver amalgam) or cesium dissolved in potassium provided the temperature is above 83.3 deg. F. (Cesium melts at 83.3 deg. F.); 3) One gas dissolved in one or more gasses for example oxygen, carbon dioxide, and argon dissolved in nitrogen (air); 4) One or more solids dissolved in another solid, as in steel, which is a solution of carbon in iron, although modern carbon steels contains small amounts of other solid elements also dissolved in iron; 5) One or more gasses dissolved in a liquid such as carbon dioxide dissolved in water, which is "soda" or "sparkling water," or boron trifluoride dissolved in diethyl ether; 6) A gas dissolved in a solid. This one is tough, and the only examples I know offhand are solutions of hydrogen gas in certain metals and nitrogen dissolved in ice. Hydrogen is quite soluble in nickle and in many other transition metals including iron and copper. It is also soluble in several of the noble metals (rhodium, palladium, and gold). I would be very surprised if there aren't other gasses that dissolve in solids. A search using one of the internet search engines would probably yield some other examples.
Under pressure, carbon dioxide will dissolve in water to produce carbonic acid, H2CO3.
water and carbon dioxide. Carbonic acid is H2CO3
The yield of combustion of ether in air typically includes carbon dioxide and water vapor as the main products. The specific yield will depend on the exact chemical composition of the ether and the conditions of the combustion process.