A chiral center is a(n) (select all possible answers) atom bearing groups such that interchanging of any two groups leads to a stereoisomer. plane of symmetry so that there are no stereoisomers. tetrahedral atom. enantiomer. non-superimposable mirror image. tetrahedral atom bonded to 4 different substituents. O O O O O

A chiral center is a(n) (select all possible answers) atom bearing groups such that interchanging of any two groups leads to a stereoisomer. plane of symmetry so that there are no stereoisomers. tetrahedral atom. enantiomer. non-superimposable mirror image. tetrahedral atom bonded to 4 different substituents. O O O O O

Organic Chemistry: A Guided Inquiry

2nd Edition

ISBN:9780618974122

Author:Andrei Straumanis

Publisher:Andrei Straumanis

Chapter12: Chirality

Section: Chapter Questions

Problem 15CTQ

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A chiral center is a(n) (select all that apply): a) plane of symmetry so that there are no stereoisomers b) tetrahedral atom bonded to 4 different substituents c) tetrahedral atom d) non-superimposable mirror image e) atom bearing groups such that interchanging of any two groups leads to a stereoisomer d) enantiomer
Please draw all four of the bonds at any chiral centers as well.
1.Circle the organic the functional groups and name them. 2.Mark all chiral centers and determine the configuration of one of them.
A chiral center is a(n) (select all possible answers) atom bearing groups such that interchanging of any two groups leads to a stereoisomer. non‑superimposable mirror image. tetrahedral atom bonded to 4 different substituents. plane of symmetry so that there are no stereoisomers. enantiomer. tetrahedral atom.
Circle and name three functional groups within the molecule and place an * against any chiral carbons
Determine each structure to be chiral or achiral.
chiral centers and r and s for each, please
Determine each molecule is : a. achiral b. chiral c. meso
Construct a model in which a tetrahedral carbon atom has four different colored model atoms attached to it- red, green, orange and white representing 4 different atoms attached to the central atom. a) Does the atom have a plane of symmetry? why or why not? b) Now replace the green atom in your model with a second orange atom. Now two of the groups attached to the carbon atom are identical. Does the model now have a plane of symmetry? Describe it. c)A carbon atom has four different groups attached to the stereogenic center. Draw structural formulas for the following compound and mark stereogenic centers with as asterisk: 1-bromobutane, 2-bromobutane, 1,2-dibromobutane, 1,4-dibromobutane, 2,3-dibromobutane.
For each compound shown decide whether or not it can have enantiomers? If yes, click on any chiral carbon atoms in the molecule. If no, click on "no chiral atoms."
For the compounds shown, use the R/S configuration given in the compound name to finish drawing the structure by changing bonds to the the appropriate wedge‑and‑dash bonds. For each compound, change two of the in‑plane bonds to a wedge and a dashed bond. You can select the chiral bond and click on top of an in‑plane bond to quickly modify it.
Circle the chiral molecules below. Please provide an explanation for each molecule.