(a) Interpretation: The equilibrium partial pressure of F atoms in atm needs to be determined. Concept introduction: Force exerted by the gas is termed as partial pressure. It helps to predict the movement of gases. In gases, molecules get diffuse, react or dissolve because of partial pressure. For example, The partial pressure is determined by Dalton’s law: p = p N 2 +p H 2 +p NH 3 Where, The total pressure of gas mixture: p The partial pressure of N 2 : p N 2 The partial pressure of H 2 : p H 2 The partial pressure of NH 3 : p NH 3
(a) Interpretation: The equilibrium partial pressure of F atoms in atm needs to be determined. Concept introduction: Force exerted by the gas is termed as partial pressure. It helps to predict the movement of gases. In gases, molecules get diffuse, react or dissolve because of partial pressure. For example, The partial pressure is determined by Dalton’s law: p = p N 2 +p H 2 +p NH 3 Where, The total pressure of gas mixture: p The partial pressure of N 2 : p N 2 The partial pressure of H 2 : p H 2 The partial pressure of NH 3 : p NH 3
Solution Summary: The author explains the equilibrium partial pressure of F atoms in atm needs to be determined.
The equilibrium partial pressure of F atoms in atm needs to be determined.
Concept introduction:
Force exerted by the gas is termed as partial pressure. It helps to predict the movement of gases. In gases, molecules get diffuse, react or dissolve because of partial pressure.
For example,
The partial pressure is determined by Dalton’s law:
p = pN2+pH2+pNH3
Where,
The total pressure of gas mixture: p
The partial pressure of N2 : pN2
The partial pressure of H2 : pH2
The partial pressure of NH3 : pNH3
Interpretation Introduction
(b)
Interpretation:
The fraction of the F2 molecule, dissociated at 1500 K needs to be determined.
Concept introduction:
Force exerted by the gas is termed as partial pressure. It helps to predict the movement of gases. In gases, molecules get diffuse, react or dissolve because of partial pressure.
Interpretation Introduction
(c)
Interpretation:
The reason for F-F bond in F2 to be weaker than the Cl-Cl bond in Cl2 needs to be explained.
Concept introduction:
In F2, the bonding is purely covalent. Bonding electrons are shared equally between the two fluorine atoms. In HF there are also a shared pair of bonding electrons, but the shared pair is drawn more closely to the fluorine atom.
In the chlorine molecule, another example of a covalent bond is Cl-Cl bond. Two chlorine atoms are attracted to the same pair of electrons.
Write the complete common (not IUPAC) name of each molecule below.
Note: if a molecule is one of a pair of enantiomers, be sure you start its name with D- or L- so we know which enantiomer it is.
molecule
C=O
H3N
CH3
common name
(not the IUPAC
name)
H
☐
C=O
H
O-C-CH2-CH2
010
NH3
☐
H3N
☐
HO
5
Write the systematic name of each organic molecule:
structure
CI
CH3
HO-C-CH-CH-CH2 – CH— CH3
CH3
name
X
O
☐
CH3-CH-CH2-CH2-C-OH
CH3
11
HO-C-CH-CH2-OH
CH3
☐
Check the box under each a amino acid.
If there are no a amino acids at all, check the "none of them" box under the table.
Note for advanced students: don't assume every amino acid shown must be found in nature.
CH3
CH2
0 C=O
+
CH-CH3
H₂N C-COOH
H₂N
H
H
H3N C COO¯
NH, O
HO C C H
CH3-CH
HO C=O
H2N-CH-COOH
CH2
NH3
HO
CH3
none of them
O
NH3
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