(a) Interpretation: The molarity of the solution is to be calculated. Concept Introduction: There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as, M = moles of solute mole total volume of solution L The conversion of liter to milliliter is as follows. 1 L = 1 000 mL Thus the formula of molarity becomes, M = moles of solute mole total volume of solution mL × 1000 .
(a) Interpretation: The molarity of the solution is to be calculated. Concept Introduction: There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as, M = moles of solute mole total volume of solution L The conversion of liter to milliliter is as follows. 1 L = 1 000 mL Thus the formula of molarity becomes, M = moles of solute mole total volume of solution mL × 1000 .
Solution Summary: The author explains how the molarity of the solution is calculated. Molarity is defined as the number of moles in one liter of a solution.
There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as,
M=molesofsolutemoletotalvolumeofsolutionL
The conversion of liter to milliliter is as follows.
1L=1000mL
Thus the formula of molarity becomes,
M=molesofsolutemoletotalvolumeofsolutionmL×1000.
Interpretation Introduction
(b)
Interpretation:
The molarity of the solution is to be calculated.
Concept Introduction:
There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as:
M=molesofsolutemoletotalvolumeofsolutionL
The conversion of liter to milliliter is as follows.
1L=1000mL
Thus the formula of molarity becomes,
M=molesofsolutemoletotalvolumeofsolutionmL×1000.
(c)
Interpretation Introduction
Interpretation:
The molarity of the solution is to be calculated.
Concept Introduction:
There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as:
M=molesofsolutemoletotalvolumeofsolutionL
The conversion of liter to milliliter is as follows.
1L=1000mL
Thus the formula of molarity becomes,
M=molesofsolutemoletotalvolumeofsolutionmL×1000.
Interpretation Introduction
(d)
Interpretation:
The molarity of the solution is to be calculated.
Concept Introduction:
There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as:
M=molesofsolutemoletotalvolumeofsolutionL
The conversion of liter to milliliter is as follows.
Br.
, H+
.OH
Mg
ether solvent
H+, H₂O
17. Which one of the compounds below is the final product of the reaction sequence
shown above?
HO
A
HO
HO
OH
D
B
OH
HO
OH
C
OH
HO
OH
E
8:57 PM Sun Jan 26
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Explanation Page
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ALEKS Jade Nicol - Le
A https://www-av
C
www-awa.aleks.com
O States of Matter
Understanding consequences of important physical properties of liquids
? QUESTION
Liquid A is known to have a lower viscosity and lower surface tension than Liquid B.
Use these facts to predict the result of each experiment in the table below, if you can.
experiment
Liquid A and Liquid B are each pumped
through tubes with an inside diameter of
27.0 mm, and the pressures PA and PB
needed to produce a steady flow of
2.4 mL/s are measured.
25.0 mL of Liquid A are poured into a
beaker, and 25.0 mL of Liquid B are poured
into an identical beaker. Stirrers in each
beaker are connected to motors, and the
forces FA and FB needed to stir each liquid
at a constant rate are measured.
predicted outcome
OPA will be greater than PB
OPA will be less than PB
OPA will be equal to PB
It's impossible to predict whether PA or PB will
be greater without more information.…