(a)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
(b)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
(c)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
(d)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
(e)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
(f)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
(g)
Interpretation:
The active or inactive state of the molecule
Concept introduction:
A molecule is active in the infrared spectrum if it has the net dipole moment.
The vibrations are classified into the two categories.
- The stretching vibration (In this vibration the interatomic distance is changes continuously along with bond axis).
- The bending vibration (In the vibration the change in the angle between the two bonds take place).
The bending vibrations are further classified into four categories.
- The wagging vibration.
- The twisting vibration.
- The rocking vibration.
- The scissoring vibration.
Trending nowThis is a popular solution!
Chapter 16 Solutions
Principles of Instrumental Analysis
- Check the box under each structure in the table that is an enantiomer of the molecule shown below. If none of them are, check the none of the above box under the table. Molecule 1 Molecule 2 Molecule 3 ----||| Molecule 4 Molecule 5 Molecule 6 none of the above mm..arrow_forwardUse the vapor-liquid equilibrium data at 1.0 atm. for methanol-water (Table 2-8 ) for the following: If the methanol vapor mole fraction is 0.600, what is the methanol liquid mole fraction? Is there an azeotrope in the methanol-water system at a pressure of 1.0 atmospheres? If water liquid mole fraction is 0.350, what is the water vapor mole fraction? What are the K values of methanol and of water at a methanol mole fraction in the liquid of 0.200? What is the relative volatility αM-W at a methanol mole fraction in the liquid of 0.200?arrow_forwardCheck the box under each structure in the table that is an enantiomer of the molecule shown below. If none of them are, check the none of the above box under the table. || |II***** Molecule 1 | Molecule 4 none of the above Molecule 2 Molecule 3 Х mm... C ---||| *** Molecule 5 Molecule 6arrow_forward
- is SiBr4 Silicon (IV) tetra Bromine? is KClO2 potassium dihypochlorite ?arrow_forward"יוון HO" Br CI Check the box under each structure in the table that is an enantiomer of the molecule shown below. If none of them are, check the none of the above box under the table. Molecule 1 Molecule 2 Molecule 3 Br Br Br HO OH H CI OH ✓ Molecule 4 Molecule 5 Molecule 6 CI Br יייון H Br OH OH CI Br ☐ none of the above × Garrow_forwardUS2 Would this be Uranium (II) diSulfide?arrow_forward
- nomenclature for PU(SO4)3arrow_forwardLi2CrO4 is this Lithium (II) Chromatearrow_forwardCheck the box under each structure in the table that is an enantiomer of the molecule shown below. If none of them are, check the none of the above box under the table. NH ** Molecule 1 NH Molecule 4 none of the above Х Molecule 3 Molecule 2 H N wwwwww.. HN Molecule 5 Molecule 6 HN R mw... N H ☐arrow_forward
- Nomenclature P4S3 Would this be tetraphsophorus tri sulfide?arrow_forwardDon't used Ai solutionarrow_forwardBenzene-toluene equilibrium is often approximated as αBT = 2.34. Generate the y-x diagram for this relative volatility. Also, generate the equilibrium data using Raoult’s law, and compare your results to these.arrow_forward
- Principles of Modern ChemistryChemistryISBN:9781305079113Author:David W. Oxtoby, H. Pat Gillis, Laurie J. ButlerPublisher:Cengage LearningPhysical ChemistryChemistryISBN:9781133958437Author:Ball, David W. (david Warren), BAER, TomasPublisher:Wadsworth Cengage Learning,Principles of Instrumental AnalysisChemistryISBN:9781305577213Author:Douglas A. Skoog, F. James Holler, Stanley R. CrouchPublisher:Cengage Learning