- 3.3.1: Each molecule has one chiral center. Draw stereorepresentations for...
- 3.3.2: Assign priorities to the groups in each set. (a) !CH2OH and !CH2CH2...
- 3.3.3: Assign an R or S configuration to the chiral center in each molecule.
- 3.3.4: Following are stereorepresentations for the four stereoisomers of 3...
- 3.3.5: Following are four Newman projection formulas for tartaric acid. (a...
- 3.3.6: Give a complete stereochemical name for the following compound, whi...
- 3.3.7: How many stereoisomers exist for 1,3-cyclopentanediol?
- 3.3.8: How many stereoisomers exist for 1,4-cyclohexanediol?
- 3.3.9: The specific rotation of progesterone, a female sex hormone, is 117...
- 3.3.11: Think about the helical coil of a telephone cord or a spiral bindin...
- 3.3.12: The next time you have the opportunity to view a collection of seas...
- 3.3.13: One reason we can be sure that sp3-hybridized carbon atoms are tetr...
- 3.3.14: Which compounds contain chiral centers?(a) 2-Chloropentane (b) 3-Ch...
- 3.3.15: Using only C, H, and O, write structural formulas for the lowest-mo...
- 3.3.16: Draw mirror images for these molecules. Are they different from the...
- 3.3.17: Following are several stereorepresentations for lactic acid. Use (a...
- 3.3.18: Mark each chiral center in the following molecules with an asterisk...
- 3.3.19: Show that butane in a gauche conformation is chiral. Do you expect ...
- 3.3.21: Following are structural formulas for the enantiomers of carvone. E...
- 3.3.22: Following is a staggered conformation for one of the enantiomers of...
- 3.3.23: For centuries, Chinese herbal medicine has used extracts of Ephedra...
- 3.3.24: When oxaloacetic acid and acetyl-coenzyme A (acetyl-CoA) labeled wi...
- 3.3.25: Draw stereorepresentations for all stereoisomers of this compound. ...
- 3.3.26: Mark each chiral center in the following molecules with an asterisk...
- 3.3.27: Label the eight chiral centers in cholesterol. How many stereoisome...
- 3.3.28: Label the four chiral centers in amoxicillin, which belongs to the ...
- 3.3.29: If the optical rotation of a new compound is measured and found to ...
- 3.3.31: Which of the following are meso compounds?
- 3.3.32: Vigorous oxidation of the following bicycloalkene breaks the carbon...
- 3.3.33: A long polymer chain, such as polyethylene (!CH2CH2! )n, can potent...
- 3.3.34: Which of the following compounds are chiral? Which, if any, are mes...
- 3.3.35: Will the following compound show any optical activity if there is r...
- 3.3.36: Are the following structures chiral as drawn? When placed in a solu...
- 3.3.37: To the following statements, answer true or false and explain your ...
- 3.3.38: The chiral catalyst (R)-BINAP-Ru is used to hydrogenate alkenes to ...
- 3.3.39: In Section 10.5D, the following reactions are discussed. Ts is the ...
Solutions for Chapter 3: Stereoisomerism and Chirality
Full solutions for Organic Chemistry | 7th Edition
ISBN: 9781133952848
Chapter 3: Stereoisomerism and Chirality includes 36 full step-by-step solutions. This expansive textbook survival guide covers the following chapters and their solutions. Organic Chemistry was written by and is associated to the ISBN: 9781133952848. This textbook survival guide was created for the textbook: Organic Chemistry, edition: 7. Since 36 problems in chapter 3: Stereoisomerism and Chirality have been answered, more than 56567 students have viewed full step-by-step solutions from this chapter.
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alkanes
Compounds of carbon and hydrogen containing only carbon–carbon single bonds. (Sections 2.9 and 24.2)
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Anti conformation
A conformation about a single bond in which two groups on adjacent carbons lie at a dihedral angle of 180°.
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beta sheet
A structural form of protein in which two strands of amino acids are hydrogen-bonded together in a zipperlike configuration. (Section 24.7)
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Bicycloalkane
An alkane containing two rings that share two carbons
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Bonding molecular orbital
A molecular orbital in which electrons have a lower energy than they would in isolated atomic orbitals
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carboxylic acid
A compound that contains the ¬COOH functional group. (Sections 16.10 and 24.4)
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catenation.
The ability of the atoms of an element to form bonds with one another. (22.3)
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colligative property
A property of a solvent (vapor-pressure lowering, freezing-point lowering, boiling-point elevation, osmotic pressure) that depends on the total concentration of solute particles present. (Section 13.5)
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critical pressure (Pc).
The minimum pressure necessary to bring about liquefaction at the critical temperature. (11.8)
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delocalization
The spreading of a charge or lone pair as described by resonance theory.
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double helix
The structure for DNA that involves the winding of two DNA polynucleotide chains together in a helical arrangement. The two strands of the double helix are complementary in that the organic bases on the two strands are paired for optimal hydrogen bond interaction. (Section 24.10)
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heat capacity
The quantity of heat required to raise the temperature of a sample of matter by 1 °C (or 1 K). (Section 5.5)
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Infrared (IR) spectroscopy
A spectroscopic technique in which a compound is irradiated with infrared radiation, absorption of which causes covalent bonds to change from a lower vibration state to a higher one. Infrared spectroscopy is particularly valuable for determining the kinds of functional groups present in a molecule.
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lithium dialkyl cuprate
A nucleophilic compound with the general structureR2CuLi.
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living polymer
A polymer that isformed via anionic polymerization.
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nuclear magnetic resonance (NMR)
A form of spectroscopy that involves the study of the interaction between electromagnetic radiation and the nuclei of atoms.
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sigma complex
The positively charged intermediate of an electrophilic aromatic substitution reaction.
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Substitution
A reaction in which an atom or group of atoms in a compound is replaced by another atom or group of atoms.
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Thermoplastic
A polymer that can be melted and molded into a shape that is retained when it is cooled.
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Vinylic carbocation
A double-helix model for the secondary structure of a DNA molecule