The mass percent of nitric acid HNO 3 in water is 30% with density 1.18 g/cm 3 . The molarity of HNO 3 in the solution needs to be calculated. Concept introduction: Mass percent of any species in the solution can be calculated from its mass and mass of the solution. For example, if mass of the species is x and that of solution is y, the mass percent of the solution can be calculated as follows: % m = x g y g × 100 % The molarity of solution is defined as number of moles of solute in 1 L of the solution. M = n V ( L ) The density of the solution is related to mass and volume of solution as follows: d = m solution V solution The number of moles of substance can be calculated from mass and molar mass as follows: n = m M Here, m is mass and M is molar mass.
The mass percent of nitric acid HNO 3 in water is 30% with density 1.18 g/cm 3 . The molarity of HNO 3 in the solution needs to be calculated. Concept introduction: Mass percent of any species in the solution can be calculated from its mass and mass of the solution. For example, if mass of the species is x and that of solution is y, the mass percent of the solution can be calculated as follows: % m = x g y g × 100 % The molarity of solution is defined as number of moles of solute in 1 L of the solution. M = n V ( L ) The density of the solution is related to mass and volume of solution as follows: d = m solution V solution The number of moles of substance can be calculated from mass and molar mass as follows: n = m M Here, m is mass and M is molar mass.
Solution Summary: The author explains that the mass percent of nitric acid in water is 30% with density 1.18g/cm3. The molarity of the solution is defined as number of mo
The mass percent of nitric acid HNO3 in water is 30% with density 1.18 g/cm3. The molarity of HNO3 in the solution needs to be calculated.
Concept introduction:
Mass percent of any species in the solution can be calculated from its mass and mass of the solution. For example, if mass of the species is x and that of solution is y, the mass percent of the solution can be calculated as follows:
%m=x gy g×100%
The molarity of solution is defined as number of moles of solute in 1 L of the solution.
M=nV(L)
The density of the solution is related to mass and volume of solution as follows:
d=msolutionVsolution
The number of moles of substance can be calculated from mass and molar mass as follows:
Add curved arrows to show the forming and breaking of bonds in the reaction below.
:Br:
H
2
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H-Br:
G
હે
P
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Draw a free-radical mechanism for the following reaction, forming the major monobromination product:
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CH3
Br-Br
CH
H3
Draw all missing reactants and/or products in the appropriate boxes by placing atoms on the canvas and connecting them with bonds. Add charges where needed. Electron-
flow arrows should start on the electron(s) of an atom or a bond and should end on an atom, bond, or location where a new bond should be created. Include all free radicals by
right-clicking on an atom on the canvas and then using the Atom properties to select the monovalent radical.
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0 2
DE
[1]
H EXP.
CONT.
H.
Br-Br
H
FEB
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