very high temperatures
Ammonia-NH3 2N+3H2=2NH3 2moles of Nitrogen produced 2moles of Ammonia (2*14)g of Nitrogen produced (2*17)g of Ammonia 28g of Nitrogen produced 34g of Ammonia 34g of Ammonia is produced by 28g of Nitrogen 0.034kg of Ammonia is produced by 0.028kg of Nitrogen 91.3kg of Ammonia will be produced by 0.028*91.3/0.034 91.3kg of Ammonia will be produced by 75.19kg of Nitrogen FOR HYDROGEN: 3moles of H2 produces 2moles of NH3 (2*3)g H2 produces 2*17g NH3 6g hydrogen produces 34g ammonia 0.006kg hydrogen produces o.o34kg ammonia 91.3kg ammonia will be produced by 91.3*0.006/.034=16.11kg of Hydogen Therefore, 75.19kg of Nitrogen and 16.11kg of Hydrogen will produce 91.3kg of Ammonia
There is no nitrogen in glucose.
The reaction to form nitrogen dioxide using nitric oxide is; 2NO(g) + O2(g) -> 2NO2(g) As the stoichiometry between the substances are 1:1, 1.35 moles of nitrogen monoxide is needed.
Using the law of multiple proportions, we can see that the ratio of nitrogen to hydrogen in ammonia is 28:6 = 4.67:1. Therefore, for 80 g of nitrogen, 80/4.67 = 17.12 g of hydrogen would be needed to react completely. Since only 4 g of hydrogen is available, the limiting reactant is hydrogen and only 6 g of ammonia will be produced.
to make protiens
CO2 and water is needed. Oxygen and glucose are produced
Because no nitrogen is absorbed. N is not needed in respiration.
Nitrogen-fixing bacteria are needed to convert atmospheric nitrogen into a usable form for plants. These bacteria form symbiotic relationships with certain plants, like legumes, to provide them with a source of nitrogen for growth and development.
10 moles of nitrogen dioxide are needed to react with 5,0 moles of water.
Nitrogen is a key component of amino acids, which are the building blocks of proteins. Nitrogen is incorporated into amino acids through the process of nitrogen fixation, where nitrogen is taken up by plants and converted into forms that can be used to build proteins.
Nitrogen and Hydrogen.
yes