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PRACTICE PROBLEM 6.6
(a) Illustrate how this is true by assigning R, S configurations to the 2-chlorobutane enantiomers based on the following data. [The configuration of (–)-2-butanol is given in Section 5.8C.]
(b) When enantiomerically pure (+)-2-chlorobutanc is allowed to react with potassium iodide in acetone in an
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- O PRACTICE PROBLEM 8.14 Starting with any needed alkene (or cycloalkene) and assuming you have deuterioace- tic acid (CH3CO,D) available, outline syntheses of the following deuterium-labeled compounds.s el en olad lo nohibbs ad CH3 (a) (CH3)2CHCH2CH,D (b) (CH3),CHCHDCH3 (c) (+ enantiomer) (d) Assuming you also have available BD3:THF and CH3CO2T, can you suggest a synthesis of the following? hab erl (+ enantiomer)he imo (nwond-ben) CH3 H. (asoholea)arrow_forward7.44 Give the structures of two different alkyl bromides both of which yield the indicated alkene as the exclusive product of E2 elimination. (а) СH;CH—CH, (b) (CH3)2С—СH2 (c) BRCH=CB12 CH3 (d) CH3arrow_forwardG only please (a) 4.41 Draw the more stable chair conformation of each of the following molecules. (b) (c) J (d) Ć (e) ▸ (1) (g)arrow_forward
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