To find the number of moles of SrCl2 consumed, you need to set up a stoichiometry ratio using the balanced chemical equation between SrCl2 and ZnCl2. First, calculate the number of moles of ZnCl2 produced from 54g. Then, use the stoichiometry ratio to determine the number of moles of SrCl2 consumed in the reaction.
When 1.0 mole of O2 is completely consumed in the reaction to form NO, 1.0 mole of NO is produced since the balanced equation for the reaction is 2 O2 + 2 N2 -> 2 NO. This means that the mole ratio between O2 and NO is 1:1.
For every mole of oxygen consumed in the reaction 2H2 + O2 -> 2H2O, two moles of water are produced. Therefore, if 0.633 moles of oxygen are consumed, the number of moles of water produced would be 2 x 0.633 = 1.266 moles.
The moles of KHCO3 and KCl produced should be the same because they are stoichiometrically related in the chemical reaction that produces them. For every mole of KHCO3 that reacts, it produces one mole of KCl. This means that the number of moles of KHCO3 consumed is equal to the number of moles of KCl produced in the reaction.
To determine the amount of butane that combusts, we need to use the enthalpy of combustion for butane, which is -2877 kJ/mol. Since the heat produced is 1550 kJ, we can set up a proportion to find the amount of butane consumed. By dividing the heat produced by the enthalpy of combustion per mole, we will get the number of moles of butane consumed. From there, you can convert moles to grams using the molar mass of butane (58.12 g/mol).
The coefficients in a balanced equation represent the relative number of moles of each substance involved in a chemical reaction. By comparing the coefficients of the substances in the balanced equation, you can determine the mole ratios between them. This allows you to calculate the amounts of substances consumed or produced in the reaction.
20.4
Supply
When 1.0 mole of O2 is completely consumed in the reaction to form NO, 1.0 mole of NO is produced since the balanced equation for the reaction is 2 O2 + 2 N2 -> 2 NO. This means that the mole ratio between O2 and NO is 1:1.
For every mole of oxygen consumed in the reaction 2H2 + O2 -> 2H2O, two moles of water are produced. Therefore, if 0.633 moles of oxygen are consumed, the number of moles of water produced would be 2 x 0.633 = 1.266 moles.
The moles of KHCO3 and KCl produced should be the same because they are stoichiometrically related in the chemical reaction that produces them. For every mole of KHCO3 that reacts, it produces one mole of KCl. This means that the number of moles of KHCO3 consumed is equal to the number of moles of KCl produced in the reaction.
The efficiency of glycolysis would remain the same regardless of the number of ATP molecules produced because efficiency is calculated based on the ratio of ATP molecules produced to glucose molecules consumed. Increasing the number of ATP molecules produced would not affect this ratio, therefore the efficiency would stay constant.
The actual number of ATP produced from the complete oxidation of one molecule of glucose is around 30-32 ATP molecules. This includes ATP generated through glycolysis, the Krebs cycle, and oxidative phosphorylation in the mitochondria.
Daily quantity refers to the amount or number of something that is consumed, used, produced, or required on a daily basis. It could refer to anything from food intake to medication dosage or work output.
4-2=2 net gain ATPs. 4 are produced and 2 are consumed during the process.
The number of pounds increases as the number of calories consumed increases.
To determine the amount of butane that combusts, we need to use the enthalpy of combustion for butane, which is -2877 kJ/mol. Since the heat produced is 1550 kJ, we can set up a proportion to find the amount of butane consumed. By dividing the heat produced by the enthalpy of combustion per mole, we will get the number of moles of butane consumed. From there, you can convert moles to grams using the molar mass of butane (58.12 g/mol).
During glycolysis, a net of 2 ATP molecules are produced per glucose molecule. However, it's important to note that 4 ATP molecules are produced during glycolysis, but 2 ATP molecules are consumed in the initial steps, resulting in a net gain of 2 ATP molecules.