(a)
Interpretation:
Formula for Copper(I) cyanide has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(a)

Answer to Problem 2.60QP
Formula for Copper(I) cyanide is written as
Explanation of Solution
With reference to table 2.3 in the text book, anions and cations formed by various elements are named.
Cyanide is
(b)
Interpretation:
Formula for Strontium chlorite has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(b)

Answer to Problem 2.60QP
Formula for Strontium chlorite is written as
Explanation of Solution
With reference to table 2.3 in the text book, anions and cations formed by various elements are named.
Chlorite is
(c)
Interpretation:
Formula for Perbromic acid has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(c)

Answer to Problem 2.60QP
Formula for Perbromic acid is written as
Explanation of Solution
Oxoacids are named on the basis of polyatomic anion present in them. Here the polyatomic anion is
(d)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(d)

Answer to Problem 2.60QP
Formula of the compound Hydroiodic acid is written as
Explanation of Solution
Binary acids are named based on the non-metal atom present in them. Non-metal in this acid is iodine. Thus the formula of the compound is written as
(e)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(e)

Answer to Problem 2.60QP
Formula of the compound Disodium ammonium phosphate is written as
Explanation of Solution
The compound
The charge on the anion
Thus formula of the compound Disodium ammonium phosphate is written as
(f)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(f)

Answer to Problem 2.60QP
Formula of the compound Lead(II) carbonate is written as
Explanation of Solution
The cation and anion in Lead(II) carbonate are lead(II) ion
Hence the formula is
The formula can be simplified and written as the same number in subscript gets called and thus the formula of the compound Magnesium phosphate is written as
(g)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(g)

Answer to Problem 2.60QP
Formula for the compound Tin(II) fluoride is written as
Explanation of Solution
The cation and anion in Tin(II) fluoride are Tin(II) ion
Hence the formula is
(h)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(h)

Answer to Problem 2.60QP
Formula for the compound Tetraphosphorus decasulfide is written as
Explanation of Solution
The prefix ‘tetra’ indicates 4 P atoms and ‘deca’ indicates 10 S atoms.
Hence the formula is
(i)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(i)

Answer to Problem 2.60QP
Formula of the compound Mercury(II) oxide is written as
Explanation of Solution
The cation and anion in Mercury(II) oxide are mercury(II) ion
Hence the formula is
The formula can be simplified and written as the same number in subscript gets called and thus the formula of the compound Mercury(II) oxide is written as
(j)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(j)

Answer to Problem 2.60QP
Formula of Mercury(I) iodide is written as
Explanation of Solution
The cation and anion in Mercury(I) iodide are mercury(I) ion
Hence the formula is
(k)
Interpretation:
Formula for the given compound has to be written.
Concept Introduction:
Refer to part (a).
- The prefixes on each atom indicates the number of that atoms in the compound.
- The number written on the subscript of the anion is numerically equal to the charge on the cation and vice versa.
- Subscripts are discarded when the numerical charge on cation and anion are equal.
- When a metal has more than one positive oxidation state, its lowest oxidation number has name of the metal ion ending with ‘ous’ and highest oxidation number has name of the metal ion ending with ‘ic’. This rule is applicable when oxidation number of metal is not more than three.
- If a metal ion has multiple number of oxidation states more than three, then Roman numeral has to be used within square brackets to indicate the oxidation number of metal ion.
- Nomenclature of binary acids and oxoacids are not similar. Binary acids are named based on the non-metal atom present in them. Oxoacids are named on the basis of polyatomic anion present in them.
(k)

Answer to Problem 2.60QP
Formula of selenium hexafluoride is written as
Explanation of Solution
In Selenium hexafluoride the prefix ‘hexa’ indicates six F atoms are bonded to Se.
Hence the formula is written as
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Chapter 2 Solutions
CHEMISTRY 1111 LAB MANUAL >C<
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- Predict the major products of the following organic reaction: NC Δ ? Some important Notes: • Draw the major product, or products, of the reaction in the drawing area below. • If there aren't any products, because no reaction will take place, check the box below the drawing area instead. • Be sure to draw bonds carefully to show important geometric relationships between substituents. Note: if your answer contains a complicated ring structure, you must use one of the molecular fragment stamps (available in the menu at right) to enter the ring structure. You can add any substituents using the pencil tool in the usual way. Click and drag to start drawing a structure. Х аarrow_forwardPredict the major products of this organic reaction. Be sure you use dash and wedge bonds to show stereochemistry where it's important. + ☑ OH 1. TsCl, py .... 文 P 2. t-BuO K Click and drag to start drawing a structure.arrow_forwardConsider this organic reaction: ( Draw the major products of the reaction in the drawing area below. If there won't be any major products, because this reaction won't happen at a significant rate, check the box under the drawing area instead. Click and drag to start drawing a structure. Х : а ค 1arrow_forward
- In the drawing area below, draw the major products of this organic reaction: If there are no major products, because nothing much will happen to the reactant under these reaction conditions, check the box under the drawing area instead. 1. NaH 2. CH3Br ? Click and drag to start drawing a structure. No reaction. : ☐ Narrow_forward+ Predict the major product of the following reaction. : ☐ + ☑ ค OH H₂SO4 Click and drag to start drawing a structure.arrow_forwardConsider this organic reaction: ... OH CI Draw the major products of the reaction in the drawing area below. If there won't be any major products, because this reaction won't happen at a significant rate, check the box under the drawing area instead. ☐ No Reaction. Click and drag to start drawing a structure. : аarrow_forward
- Chemistry: The Molecular ScienceChemistryISBN:9781285199047Author:John W. Moore, Conrad L. StanitskiPublisher:Cengage LearningGeneral Chemistry - Standalone book (MindTap Cour...ChemistryISBN:9781305580343Author:Steven D. Gammon, Ebbing, Darrell Ebbing, Steven D., Darrell; Gammon, Darrell Ebbing; Steven D. Gammon, Darrell D.; Gammon, Ebbing; Steven D. Gammon; DarrellPublisher:Cengage Learning

