Concept explainers
(a)
Interpretation:
Need to predict the shape of PCl5 according to the VSEPR theory.
Concept introduction:
Shapes of ions and molecules can be determined by VSEPR theory. This is valence shell electron pair repulsion theory and it is a model to predict the geometry of molecules from the amount of electron pairs around the central atom.
(b)
Interpretation:
Need to predict the shape of NH3 according to the VSEPR theory.
Concept introduction:
Shapes of ions and molecules can be determined by VSEPR theory. This is valence shell electron pair repulsion theory and it is a model to predict the geometry of molecules from the amount of electron pairs around the central atom.
(c)
Interpretation:
Need to predict the shape of ClF3 according to the VSEPR theory.
Concept introduction:
Shapes of ions and molecules can be determined by VSEPR theory. This is valence shell electron pair repulsion theory and it is a model to predict the geometry of molecules from the amount of electron pairs around the central atom.
(d)
Interpretation:
Need to predict the shape of SO2 according to the VSEPR theory.
Concept introduction:
Shapes of ions and molecules can be determined by VSEPR theory. This is valence shell electron pair repulsion theory and it is a model to predict the geometry of molecules from the amount of electron pairs around the central atom.
(e)
Interpretation:
Need to predict the shape of ClF4- according to the VSEPR theory.
Concept introduction:
Shapes of ions and molecules can be determined by VSEPR theory. This is valence shell electron pair repulsion theory and it is a model to predict the geometry of molecules from the amount of electron pairs around the central atom.
(f)
Interpretation:
Need to predict the shape of PCl4+ according to the VSEPR theory.
Concept introduction:
Shapes of ions and molecules can be determined by VSEPR theory. This is valence shell electron pair repulsion theory and it is a model to predict the geometry of molecules from the amount of electron pairs around the central atom.
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General Chemistry: Principles and Modern Applications (11th Edition)
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