BIRCH REDUCTION OF AROMATIC COMPOUNDS
BIRCH REDUCTION OFAROMATIC COMPOUNDS
A. A. Akhrem, I. G. Reshetova, and Yu. A. Titov Institute of Organic Chemistry Academy of Sciences of the USSR Moscow, USSR
Translated from Russian by B. J. Hazzard
IFI/PLENUM • NEW YORK-WASHINGTON-LONDON • 1972
Afanasii Andreevich Akhrem was born in 1914. In 1934 he completed his studies at the Minsk Polytechnic Institute. In 1949 he received the degree of Candidate of Chemical Sciences and in 1959 that of Doctor of Chemical Sciences. He began work in the Institute of Organic Chemistry of the Academy of Sciences of the USSR in 1946, and in 1962 he became head of the Laboratory of Corticoid Chemistry. Dr. Akhrem is a member of the Academy of Sciences of the Belorussian SSR.
Irina Grigor'evna Reshetova was born in 1934. She completed her studies at the Moscow Institute of Fine Chemical Technology, and since then has been working at the Institute of Organic Chemistry of the Academy of Sciences of the USSR in the field of modified steroids.
Yurii Andreevich Titov was born in 1932. In 1954 he completed his studies at the Moscow Institute of Fine Chemical Technology, and since then has been working at the Institute of Organic Chemistry of the Academy of Sciences of the USSR, first as an assistant and, since 1965. as senior scientific researcher of the Laboratory of Corticoid Chemistry.
The present work originally appeared as pages 7-128 in Reaktsii i Metody Issledovaniya Organicheskikh Soedinenii, Vyp. 20, published by Khimiya Press in Moscow in 1969. This translation, revised and corrected by the authors, is published by special agreement with Mezhdunarodnaya Kniga, the Soviet book export agency.
Library of Congress Catalog Card Number 70-183103
ISBN 978-1-4757-0431-0 ISBN 978-1-4757-0429-7 (eBook) DOI 10.1007/978-1-4757-0429-7
© 1972 IFI/Plenum Data Corporation Softcover reprint of the hardcover 1st edition 1972 A Subsidiary of Plenum Publishing Corporation
227 West 17th Street, New York, N.Y. 10011
United Kingdom edition published by Plenum Press, London
A Division of Plenum Publishing Company, Ltd.
Davis House (4th Floor), 8 Scrubs Lane, Harlesden, NWI0 6SE, London, England
All rights reserved
No part of this publication may be reproduced in any form without
written permission from the publisher
Contents
Introduction .......... .
Reaction Mechanism
Field of Application
Side Reactions ....
Methods and Examples of the Performance ot 'le Reaction. 2.5-Dihydroanisole ........ . 6-Alkylcyc1ohex-2-en-l-ones ..... . Piperitone .................. . 3-Methoxyestra-2.5(10)-dien-17 8-01 .
Review of Literature Information ....
Index of Reagents ..
Literature Cited ...
v
1
2
4
8
15 16 16 17 17
18
112
116
Introduction
Birch reduction (see reviews [1-5]) is the name given to the reaction of unsaturated organic compounds with alkali metals and alcohols in liquid ammonia. This method was first used for aromatic compounds in 1937 by Wooster [6J, who showed that benzene and its derivatives are reduced by sodium in liquid ammonia in the presence of an alcohol, while this reaction does not take place in the absence of an alcohol. However, the general recognition and broad application of this reaction was achieved only after a series of investigations by Birch published from 1944 onwards [7J.
Since the presence of an alcohol in the reaction medium is not indispensable for pOlycyclic aromatic systems, the present review includes only derivatives of the simplest aromatic compounds - benzene and naphthalene.
1
Reaction Mechanism
The most probable mechanism of Birch reduction, adopted by the majority of workers in this field [4, 8 -12] can be represented by the following stages:
3)
4)
5)
6)
7)
'v\ I NH -'" ,.+ -i T 1 3 +-- "'(NHa) , , ,e (NHa)
Q')', ",,\\+ / (NHa) . (NH:,)
H H H H
X~.H~ 0 >< lIT V H H
+ ROH ----+ () ll.. (NHa)
A H H
H H
+ RO" ~ Q + 110M,,,,,,
Ii Ij H H
H+ X/~H M,l<Utl 0 <~ ~J"H • ~
2
REACTION MECHANISM
8)
When an alkali metal (M) is dissolved in liquid ammonia (stage 1) the solvated cation and electron formed remain weakly attached to one another
3
in the form of an ion pair [13]. The reaction of the latter with the aromatic nucleus is accompanied by electron transfer and the formation of a radical anion which occupies the place of the electron on the ion pair (stage 2). The radical anion of monobenzenoid systems is an extremely unstable particle [14-16] because of the low electron affinity of the aryl nucleus. Consequently, a shift of the equilibrium of stage 2 to the right is possible only if the radical anion is constantly eliminated from the equilibrium mixture, which is achieved by its irreversible protonation by means of the alcohol ROH (stage 3). Ammonia cannot provide the electron necessary for this in view of its low acidity (pKa ~ 34), while the acidity of alcohols (pKa ~ 16 -18) is sufficient.
The intermediate radical obtained in stage 3 immediately adds a second electron, being converted into an anion (stage 4). Protonation by the alcohol again leads to a 1,4-dihydro derivative (stage 5).
If NHi ions are present in the reaction mixture, conditions are created for the ionization of the 1,4-dihydro derivative, in consequence of which the more thermodynamically stable 1,2-dihydro derivative accumulates in the reaction mixture. The latter, being a conjugated diene, is reduced further to the tetrahydro derivative <stage 6). However, in the majority of cases with an alcohol present in the reaction mixture a strongly acid buffer (as compared with the acidity of ammonia) is created, which prevents the accumulation of NH; ions.
The radical anion formed in stage 2 can react further with a second electron, forming a dianion (stage 7) the subsequent double protonation of which (stage 8) also leads to the 1,4-dihydro derivative. Because of the low electron affinity of the aryl nucleus mentioned above, this possibility is apparently not realized in the case of systems with a simple benzene nucleus. On the other hand, naphthalene and its derivatives react in just this way [8, 9,17,18], i.e., via stages I, 2, 7, and 8.
Hiickel et a!. [19, 20] have proposed an alternative mechanism for Birch reduction including in the first stage an attack of atomic hydrogen with the formation of a radical. On the successive addition of an electron and a proton, this radical is converted into the anion of a dihydro derivative, which then reacts in the manner of stage 5.
Field of Application
The Birch reaction is used for the reduction of very diverse aromatic compounds differing in their degree of substitution and in the nature of the substituents. In the first stage of the reaction, l,4-dihydro derivatives are always formed and through the further reactions of these are effected transformations to various compounds frequently difficult of access by other methods of synthesis.
In the reduction of benzene and its derivatives, the corresponding cyclohexadienes are obtained (yield up to 80-900/0). In this process the orientation of the reduction is of prime importance. In accordance with the mechanism illustra ted above. the structure of the products obtained is determined by the direction of the addition of the protons to the radical anion in stage 3 and to the anion in stage 5. It is obvious that in both cases the protons will a ttack the carbon atoms of the ring with the highest electron density. The electron densities of all the carbon atoms of mono- and disubstituted benzenes and also of the anion radicals formed from them ha ve been calculated by the molecular orbitals method [18, 21j. When electron-donating substituents (alkyl, alkoxyl, and amino groups) are present, the carbon atoms bearing the substituents or those in the para position to them have the greatest tendency to undergo protonation. Consequently. the Birch reduction of such compounds leads to l,4-dihydro derivatives (I) containing the maximum number of substituents on the remaining double bonds [8, 22]. This rule had previously been deduced empirically by Birch [2, 7, 23, 24]:
A different distribution of electron densities is found when electronaccepting substituents are present; in this case the addition of protons takes
4
FIELD OF APPLICATION
place in the 1,4- positions with respect to the carbon atom bearing the substituent, leading to compounds of type (II) [25-27J:
5
In the reduction of polycyclic derivatives of anisole (III), the addition of protons in the 1,4- positions may take place in two directions with the formation of compounds (IV) and (V). It is found, however, that the isomers of type (V) always predominate in the mixture of reaction products [28J:
Examples are also known in which the reduction product originally arising - the l,4-cyclohexadiene (VI) - then rearranges into the conjugated 1,3- derivative (VII) [8, 23, 29. 30J:
VI
_ ()/CHa
(CHa)2N/'V VII
When the reaction is carried out with alkoxy- and aminobenzenes, the reduction products formed are ethers of the enolic forms (VIII) or are enamines (IX) corresponding to the unsaturated ketones (X) into which they can be converted by acid hydrolysis [22J:
(Y0CH3 (yOCH:l I ~II
,,?
V/II
6 FIELD OF APPLICATION
The Birch reduction of anisole derivatives is used particularly widely in steroid chemistry to effect the passage from ethers of estrogens to 19-norandrostanes. These compounds possess a high and diverse physiological activity and are therefore of great value for medicine (see the reviews [31-33J. The acid hydrolysis of the reduction products (XI) under severe conditions (hydrochloric acid) leads to b,4 -3-oxosteroids (XII), while milder hydrolysis using oxalic or acetic acid permits the double bond in the b,5(lO)_position to be retained with the formation of (XIII):
The method of reduction under consideration has proved acceptable in the total synthesis of various steroids [34J, alkaloids [35, 36J, resin acids [37], and various terpenes [38-43J, including such complex ones as totarol (XIV) [44J and cx-onocerin (XV) [45j:
3 :?' I HCJ:XOH Q6 CH(CH,),
H,C CH3
XIV
Birch reduction has also found use for the synthesis of hydrogenated naphthalene derivatives. Depending on the reaction conditions, naphthalene itself forms the 1,4-dihydro derivative (XVI) or the 1,4,5, 8-tetrahydro derivative (XVII) [46,47]:
CO~(X) + (X) XVI XVII
FIELD OF APPLICATION 7
For substituted naphthalenes, the degree and direction of reduction depend on the number, nature, and positions of the substituents in the aromatic nucleus, as is shown by,the examples of the reactions of compounds (XVITI)-(XX) given below:
OH OH
~ ~ ~ 0) 1
~, ~-----(() XVIJI
COOH COOH I 06, ~
~ 8 XIX
-(X)
Thus, I-naphthol (XVIII) is reduced in the unsubstituted ring and 2-naphthol (XX) in the substituted ring [7, 48]. I-Naphthoic acid (XIX), containing an electron-accepting substitutent, is also reduced in the substituted ring [49J.
In the case of compounds with several substituents, a more complex reaction pattern is observed, as can be illustrated by the reduction of compound (XXI), forming the 3,4,6, 9-tetrahydro derivative and of compound (XXII), giving a hexahydro derivative under the conditions of the Birch reaction [50]:
OCHa ,
(X) --I
CHsO XXI
OCHa I
O/~ dy I
CH30
Side Reactions
Since the main reaction considered in the present review is the reduction of the aromatic nucleus, side reactions must be considered to include, in the first place, the reduction of other unsaturated functional groups and, in the second place, the hydrogenolysis of certain substituents under the conditions of the Birch reaction.
The compounds to be red uced most frequently contain, besides the aromatic ring, other unsaturated groupings which are also capable of reduction under the action of alkali metals and alcohols in liquid ammonia. The fate of such groupings in the reaction process is important for the successful application of the Birch red uction to the synthesis of organic compounds.
Double carbon-carbon bonds not conjugated with a keto group of an aromatic nucleus are not usually reduced in the Birch reaction. The numerous exceptions [51-53] include the reduction of the 17cx-allyl grouping of compound (XXII):
HaC OH
(I (')j--CH,cH
CH:lV ~X) '( XIII
A double bond conjugated with an aromatic ring (a "styryl" bond) is reduced more rapidly than the ring. and this effect has been made use of in the total and partial synthesis of steroids. The reactions of b,,6_, b"s(g)_, and b,,11_ steroids [(XXIV) [54], (XXV) [55,56], and (XXVI) [57]] may serve as
examples of this. As a rule, the reduction of the double bonds forms products with the trans - linkage of the corresponding rings. The few exceptions (5, 58-61] are due to special features of the structure of the initial compounds and the nature of the alkali metal used:
8
SIDE REACTIONS
CH" I
~--I-OH \
~X~"" / -~ (yy CH}V 10 ) CHHO/V",)
xxv
CH3
(,1-=0
ClI"vO(rV XXVI
Conjugated dienes of the type of (xxvII) are reduced to olefinic compounds under the conditions of the Birch reaction [62]. If the diene system is conjugated with an aromatic ring (XXVIII), on reduction only the double bond attached directly to the ring is affected [38, 39]:
C~ C~ I I
ty~ ri) (~H30AJI)1 -- CH 0))
- 3 II A A
HaC CHa HaC CHa
XXVIII
Triple carbon -carbon bonds conjugated with an aromatic ring [63] or with a carboxyl group (XXIX [64-66]) are completely or partially reduced by
9
10 SIDE REACTIONS
alkali metals and alcohols in liquid ammonia. The degree of reduction depends on the conditions of the reaction:
HaC OH
('-1-1---C==CCOOH
t'X)/"-./ CHaOA
XXIX
-+
As a rule, under the conditions of the Birch reaction, carbonyl groups are reduced to hydroxy groups, the thermodynamically more stable stereoisomers being formed predominantly. Keto groups conjugated with aromatic rings undergo complete hydrogenolysis, as was shown on the basis of acetophenone (XXX), which is reduced to ethylbenzene [67]. In this case, hydrogenolysis is not prevented even by using the corresponding ketal (xxxI) in the reaction [68]:
-I -I o 0 "-/
~I ()CCHa
~
XXXI
When it is necessary to retain a keto group not conjugated with an aromatic ring, either it may be previously protected by conversion into the ethylene ketal (XXXIII [69, 70]) or, after the reaction, the keto grol,lp can be regenerated by the Oppenauer oxidation of the carbinol (XXXIV) originally formed [71-75], as was done in the synthesis of 19-norprogesterone (XXXV)
SIDE REACTIONS
from an aromatic precursor (XXXII):
CH3
('i)CHOHCH' CHaOmA --+
XXXIV
In some cases [76), the reduction of a keto group is prevented by its conversion into an enol ether.
11
When a keto group conjugated with a double bond is present in the compound, the double bond is reduced first, and then the keto group, and last the aromatic rings present in the molecule. This difference in reactivities is widely used for the selective reduction of the functional groups mentioned (5).
Generally, carboxyl groups undergo no change under the conditions of the Birch reaction (47, 77). At the same time, ester groupings are completely or partially reduced to primary alcohols, this reaction taking place faster than the reduction of an aromatic ring. Compounds (xxxvI) [77, 78) and (XXXVII) (79) may serve as examples. In the case of substituted naphthalenes of type (XXXVIII), alkoxycarbonyl groups attached to the aromatic ring are retained on Birch reduction [80):
12 SIDE REACTIONS
XXXVII
'XXOH (I : COOCH a XXXVIII
Hyd roxyl and thiol groups remain unaffected in the Birch reaction if they are not present in the benzyl (0:-) position with respect to an aromatic ring. In this case, hyuroxyl groups undergo hydrogenolysis, but this can be prevented by the introduction of an electron-donating substituent in the para position of the aromatic ring. For example, the hydroxyl group of compound (XXXIX) undergoes complete hydrogenolysis in Birch reduction, while compound (xL)
forms the normal reaction product [81]:
i CHaO
XXXIX
-;?''" I !I-:=O CH:P'/~/"'''/
XL
/' .. --1 I . V"./
CH"O
Benzoylation or the conversion of alcohols with such a structure into benzyl ethers does not protect their hydroxyl gr oups from hydrogenolysis [82 • 83].
Sometimes a methoxyl group directly attached to an aromatic ring is also eliminated in the Birch reaction, particularly if it is present in the para position to a carboxyl group (XLI) [76, 84]:
COOH
~'" i II CH:;O/~(Y"OCl-la
OCH" XLI
COOH
For naphthalene derivatives, such elimination is observed when alcohols are added at the end of the reaction [85].
SIDE REACTIONS 13
Vinyl and eth ynyl carbinols, of which compounds (XLII) [86] and (XLIII) [51, 87] may serve as examples, also undergo hydrogenolysis on reduction with alkali metals and alcohols in liquid ammonia. The corresponding ethylidene derivatives are formed, and in the first case the ethylidene group is red uced further to an ethyl group, since the double bond is conjugated with the aromatic ring:
'.LIII
Hydrogenolysis of the hydroxyl group of ethynyl carbinols can be prevented by the addition of alkali-metal amides to the reaction mixture [51, 88].
The acetoxy groups of a:-acetoxy ketones of type (XLIV) undergo hydrogenolysis during the Birch reaction with a change in the configuration of the side chain, which is further reduced to the corresponding carbinol [64, 89, 90]:
xuv XLV
The migration of the acyl group observed in the Birch reduction of compound (XLVI), with the formation of compound (XLVII) [57], can be explained in the following way. The attack of the anion (XLVIII) (see the section "Reaction Mechanism," stage 4) on the carbonyl of the acetate grouping leads to the intermediate product (XLIX). The subsequent migration of the acetyl group from C(ll) to C(l) takes place in the manner of a Claisen reaction, and this is followed by the addition of a proton to the hydroxyl group and the re-
14 SIDE REACTIONS
duction of the carbonyl groupings:
0 OH
~
CH30 CH30
(XLVI) i t (XLVII)
I ?) 9~o I
I CH'w CHw --CH30 CHaO
H H H H
(XLVllI) (XLIX)
Methods and Examples of the Performance of the Reaction
In the performance of the Birch reduction, a number of experimental variants have been proposed which differ from one another by the ratio and order of addition of the reagents - the alkali metal, the ammonia, and the alcohol - and also by the presence or absence of supplementary solvents. Since the reaction is carried out in liquid ammonia, its temperature range is determined by the boiling and solidification points of ammonia (from -34°C to -80 °C).
Of the many variants described in the literature, we shall consider only the main ones: the Birch, the Nelson-Wilds, the Iohnson, and the Dryden methods.
According to the Birch method [38], the alkali. metal - sodium or potassium - is added to a well-stirred mixture of an alcohol (taken in stoichiometric amount with respect to the meta!), liquid ammonia, and the substance to be reduced. The method is applicable predominantly to simple aromatic compounds; for more complex compounds (methyl ethers of hexestrol and estradiol) the yields fall sharply, mainly because of the low solubility of the compounds to be reduced. The modification of the reaction proposed by Wilds and Nelson [10] differs from the Birch method by the use of an auxiliary solvent (ether, tetrahydrofuran. etc.) by the replacement of sodium by lithium, which is more soluble in liquid ammonia and has a higher reduction potential, and, finally, by the addition of the alcohol at the end of the process, which reduces the probability of an undesirable reaction of the alcohol with the alkali metal. This modification has found application mainly for the reduction of pOlycyclic derivatives of anisole, primarily steroid estrogens.
According to the method of Johnson et al. [28, 82, 91] a comparatively large excess of ethanol (up to 400/0) is used in the reaction. The alkali metal is added until a bronze-colored phase has been formed, showing the achievement of the maximum concentration of the metal in the ammonia. This procedure was developed for tetracyclic compounds difficult to reduce. Dryden et al. [11, 65] established that the presence of small amounts of iron in technical ammonia catalyzes the reaction of sodium and potassium and, to a far
15
16 METHODS AND EXAMPLES OF THE PERFORMANCE OF THE REACTION
smaller degree, lithium with ammonia and alcohols. This fact explains the inapplicability of the Birch method to sparingl y-soluble anisoles and the success achieved by Wilds and Nelson in the use of lithium. Consequently, Dryden et al. proposed to use redistilled ammonia freed from contamination with iron and a system of solvents consisting of liquid ammonia, tetrahydrofuran, and tert - butanol in a ratio of 2:1 :1. The improved solubility in this system has enabled the reduction of a large group of aromatic compounds to be carried out successfully.
The other modifications of the Birch reduction process consist in the use of two alkali metals in the reduction of polycyclic derivatives of styrene [28, 92], in the use of the monometh yl ether of 1 ,2- propylene gl ycol as proton donor [93], and the use of dimethoxyethane as auxiliary sol vent [91], and in a variation in the order of addition of the reagents and in the working up of the reaction products, etc.
2,5-Dihydroanisole [94]
With stirring. 200 ml of liquid ammonia is added to a solution of 15 g of anisole in 50 ml of anhydrous ether cooled with dry ice, after which 4.5 g of lithium in small pieces is added to the flask and the reaction mixture is stirred for 10 min. Then 35 g of absolute ethanol is added dropwise over 30 min. After the evaporation of the ammonia at room temperature. ether and water are added to the reaction products, the layers are separated, and the aqueous layer is extracted with ether. Distillation of the combined ethereal extracts gives 12.8 g (yield 84'1d of 2,5-dihydroanisole containing, according to its UV spectrum (A. C2H 50H 268 nm), about 20'10 of the 2,3-dihydro derivative.
max
6-Alkylcyclohex-2-en-l-ones [22]
An 0.05 g solution of a substituted aniline or anisole in 20 ml of tertbutanol is added over 5 min to a solution of 1.4 g (0.2 g -atom) of lithium in 100 ml of liquid ammonia, the mixture is stirred until its color disappears
Initial compound
Anisole Aniline N, N-Dimethylaniline 2-Methylanisole a-Toluidine N, N-Dimethyl-a-toluidine
TABLE 1
Reaction product
Cyclohex- 2-en-l-one
6-Methylcyclohex-2-en-l-one
49 42 37 52 50 43
-The yields are given only for the desired products; in addition to these, saturated alkylcyclohexanones are also formed in small amount.
METHODS AND EXAMPLES OF THE PERFORMANCE OF THE REACTION 17
TABLE 2
Metal Alcohol Yield of (XI), 0/0
Li CHsOH 84 Li tert -C"HgOH 79 Na iso -CSH70H 88 Na tert -C"HgOH 88 Na tert -C5HUOH 85 Ca tert -C"HgOH 86
(about 1 h), the ammonia is evaporated off, and 150 ml of water is carefully added to the residue. The aqueous solution is extracted with ether, the solvent is distilled off, the resid ue is treated with 100 ml of ice-cooled 50/0 hydrochloric acid, and the mixture is heated from 0 to 90°C over 20 min. After COOling, it is again extracted with ether, and the extract is dried over potassium carbonate and distilled. The results shown in Table 1 are obtained.
Piperitone [38]
A solution of 22 g of the B -hydroxyethyl ether of 2-isopropyl- 5-methylphenol is added to 350 ml of liquid ammonia. The mixture is reduced with 15 g of sodium and is worked up in the same way as described in the preceding method. This gives 14 g (yield 820/0) of piperitone (3-methyl-6 -isopropylcyclohex-2-en-1-one).
3-Methoxyestra-2,5(10)-dien-17B-ol (XI) [11]
A I-liter three-necked flask cooled with dry ice is charged with 300 ml of liquid ammonia. Then with stirring, a solution of 0.035 mole of the methyl ether of estradiol in a mixture of 150 ml of tetrahydrofuran and 150 ml of ethanol is added through a dropping funnel. Over 15 min, 0.6 g-atom of an alkali metal is added to the resulting solution. After the disappearance of the blue coloration of the solution, which generally requires 4-5 h, the reaction mixture is carefully treated with 40 ml of methanol. The ammonia is evaporated off in room temperature, and 250 ml of water is carefully added to the residue. The tetrahydrofuran is distilled off in the vacuum of a water pump, after which another 250 ml of water is added to the mixture. The precipitate of the reaction product (XI) is collected on a filter, carefully washed with cold water, and dried in the air. The results shown in Table 2 are obtained.
The authors express their deep gratitude to N. N. Pivnitskii for valuable advice and assistance in the work.
Rev
iew
of L
iter
atur
e In
form
atio
n T
he c
ompo
unds
red
uced
are
giv
en i
n th
e ta
ble
in o
rder
of
incr
easi
ng e
mpi
rica
l fo
rmul
as.
Com
poun
ds w
ith
the
sam
e em
piri
cal
form
ula
are
arra
nged
in
orde
r of
inc
reas
ing
num
ber
of r
ings
in
the
mol
ecul
e, a
nd c
ompo
unds
wit
h th
e sa
me
num
ber
of r
ings
in
orde
r of
inc
reas
ing
num
ber
of s
ubst
itue
nts.
In
the
cas
e of
com
plex
rea
ctio
n pr
oduc
ts,
the
stru
ctur
al
form
ula
is ,
give
n on
ly f
or t
hat
part
of
the
mol
ecul
e in
whi
ch c
hang
es t
ook
plac
e du
ring
Birc
h re
duct
ion.
T
etra
hydr
ofu
ran
used
as
an a
uxil
iary
sol
vent
is
deno
ted
in t
he t
able
by
TH
F.
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t ~~
Met
al,
prot
on ~g L
iter
-N
o.
Em
piri
cal
dono
r, a
uxil
-ti~
-0
atu
re
Str
uctu
ral
form
ula
Str
uctu
ral
form
ula
iary
sol
vent
s III
III
form
ula
'-<
,d
:>-.
..
-...
......
......
......
.
Co
......
......
......
......
...
1 Co
Ho
() ()
Li.
NB
3• C
2H6O
H -
8
2 »
» »
Na,
NH
s•
83
6. ~ 5
C
2Hr,o
H
3 C
OH7N
(y
NH
2
(yN
H2
Li
. N~/.'
-22
te
rt-C
4 90
H
4 »
» »
Na.
NH
s•
96
-C
2H6O
H
......
......
......
......
...
C7
......
......
......
....
5 C
7Heo.
J ()
CO
OH
A
/eO
OH
N
a. N
Ha•
CH
sOH
90
25.
2
, I
lJ
~
.... 00
~ til ~ ~ t"' ::3 ~ t-'l
C (:g ~ ~ ~ t-'l o Z
6 7 I
C7H
,ON
8 9 I
C,H
g
10
11
12 1
C,I-
I 80
13
14
15
I C
,H9N
16
I C
,HsO
N
(yC
ON
H2
ffyC
H~
~)
(yO
CH
a
NH
2
·~X
~ C
H3
NH2
CCo~
O/C
ON
H,
/\-/
CH
3
~)
(~/O
CHa
. ,/"
,jO
CH
a I
-L I
) 1
/ I ~
1:4
(yO
CH
a
NH
,
(XCH:~
(~
,A
o
I I N
a,
NH
3,
--
I 27
C
2HsO
H
Na,
t\H
:J,
-I
27
C2H
PH
I\1g,
N
Ha,
1 -
1 97
C
2HsO
H
Li,
NH
a, C
2HsO
HI-
1 8
Na,
NH
a, C
Ha
OH
I-1
19
IN
a,
NH
a,
83
6.
fi2
i C
2HsO
H
I L
i,
NH
a,
I 841
12,
29
C2H
sOH
, (C
2Hs)
P
Li,
NH
a,
tert
-C4H
90H
Na,
N
Ha,
C
2Hr,o
H
22
98
Li,
NH
a,
I-I
22
tert
-C4H
90H
Li,
NH
a,
1 37
1 .9.
9 C
2HsO
H,
(C2H
[»)2
0.
(HC
l)
Al
tTl <
M
<: ~ t""' ......
>-:l ~
::.>
>-l
C
Al
tTl Z
'Tl ~ ::.>
>-:l o Z .... c:o
Sta
rtin
g m
ater
ial
No
Em
piri
cal
Str
uctu
ral
form
ula
form
ula
......
, .....
. I
c ~
I ..
....
....
" ,
.,
7 C
gHS01
("
'yC
OO
H
I I I
I
B I
~)l"CHa
I >i
C
OO
H
1 1 I
I ~',
I
~~CH
3 I
3 i
::rC
OO
I!
If"
I L
H,.
C/
:0..
1
D
CsH
aO:;
(X
OC
Ha
. I
'~
CO
OH
2 2 1
C8H
sO;;
CO
OH
"',,
/'· ..
.. ()C
II
. .
:~
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
I
/'.
/CO
Ol!
l :r
Ii //
-"C
I1;;
CO
Ol!
I I
(. il
I I
)l"C
Ha
i , ,
/CO
OH
(/
''/
HaC
/')
A/
OC
H,.
~)"'COOH
CO
OH
, I
/">
""
~
[, .
)"'O
ClL
,
(Con
tinue
d)
~~
Met
al,
prot
on ~g L
iter
-do
nor,
au
xil
--<
ll "=
l ...
. .-
<0
atu
re
iary
sol
vent
s <l
l<ll
'~..
c :>-
< ...
Na,
NH
3,
73
100
C2H
.oH
Na,
N
1l3
, 87
84
C
H30
11
!\ia,
N
Ha,
--
27
C)-1
50B
;\ii!
, N
H3
, -
10/
CH
PH
Na,
NH
a, C
HaO
J-!
80
84
t>:l o ;>
::l tr:l <:
tTl ::s Sil r-' ;:J
tr:l
;>::l >
>-3 c:: ;>
::l tr:l ......
Z
'T1 ~ ~ >
>-3 o Z
22
I \:
iI,
\: I
['I'
io ~J
i'.
,,:
(')I
"UJI
;0
23
I C
sHgO
N
t':I
~,~/
COMi
2 ,V
<'D
NH
2 M
g,
NH
a,
97
< ......
C2H
uOH
, t':
I
II;r
/')
(Clf
,lP
<:
IT~C
/ ~/
0
24
1 C
,Hn0
2l\
."
",C
OC
H!
Na,
N
H3
, 25
76
t"
" ......
7X
C21
I[,O
II, (
HC
I) >-
l
~ I 'N
IIC
II"
t':I
()
s; >-l
25
I p
VC
ON
I12
.C
ON
H,
Na,
N
lla.
27
C
/:"
" C
2H;;O
H
S;
I~)
l)
z ."
I G
CH
I ¥
OC
Ha
I $::
26
C
sHlo
(yC
2Ho
/\./
C21
I,.
Li,
NH
:l'
I 8
:>
C2H
,;OH
1
>-l
~I
I~,,)
......
Nil.
NH
3,
CH
aOH
i98
il(}
2
0 Z
27
(X~113
(XC
Iia
CH;1
e
lLI
28 I
CH
a C
H3
Li,
NH
3,
I~i
8
I ,
i C
2H5O
H
p)
,f'.
I
~)\CH:
I l)
"'C
H: 1
29 I
Na,
N
Ha•
7
C2H
"OH
30 I
})
JyC
Ha
/\./
CH
a L
i, N
Ha•
R
Ha C
/l )
C
2HI>
0H
HP/~
~
I--'
Sta
rtin
g m
ater
ial
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a fo
rmul
a
CSHI
O I
NC
II,
;/,
HaC
~
3
, CSHI
OO
(yC
HO
HC
H3
»
(XC
Ha
: I
OC~-13
» »
" ('
''V
0CH
a
~)
I CH
a »
»
» ((
CH
3 ;/
, CH.,o/~/
I
Rea
ctio
n pr
oduc
t M
etal
, pr
oton
do
nor,
au
xil
-
Str
uctu
ral
form
ula
iary
sol
vent
s
A/C
Ha
HaC/
~)
/~</
C2H5
~)
(~/C
Ha
\"/~O
(XCH
3 I
lOC
H 3
A/O
CH
:, f\
U
,
I CB
a »
CH
,()/
3
I n
#
v !
21
(Con
tinue
d)
~~
~~ L
iter
-.(
])
"0 ..
.. -0
atu
re
(])(
])
'~..
c:
>-< ...
.
87
75
78
-
[-
t-.:l
t-.:l
::0
trl < t;:l <: ~ t'"
'" ;::J
trl ~ >-:l
C ~ Z
'Tl ~
, -
, '8
;;:;::
80 I
:>
>-:l (3
Z
38
I CS
H1OO
., CHPy~(OCH:j
CH
aO
yyO
CH
:;
Na,
N
H3
, -
108
C2H
5OH
'"
I ,I
~)
tTl <
,f"'
......
tTl
39 I
CS
HllO
N
(~yCH:l
/XCH
:; Li
, N
Hs,
99
<:
~ I
C2H
5OH
, 0
~
(C2H
5hO
'T
l
CH
30/'
''
NH
2 t-<
C
Hp
/ NH
~ .....
.
40 I
CsH
uN
(yN
(CH
3 h
Li,
NH
a,
>-l
/;.y
N(C
Ha )
2 22
tT
l
l)
tert
-Cll
90
H
~ >-l
,/
c:::
41 I
'''
'-.;f
"0
Na,
N
H3
, 23
fg
C
2HrP
H,
(HC
I) .....
.
l)
z 'Tl ~
42
I "'II
,\H
I. (,,)
112
Na,
N
H3
, -
104
$:
I ~ I
-C
2H5O
H
:>
~)""
) >-
l .....
. 0 Z
CD
43 I
CgH
gOaN
ry
/-:O
OH
(,
,/C
OO
H
Na,
N
H3
, I-I
27
C2H
5OH
["
I C
HaC
O:\
IIA
) C
H3C
Oi'-
HI/
"V
44
! C
9111
0 C
lio
CH
2 "
ILi,
NH
:;, C
HaO
HI -I 1
0~)
-" •
/CH
c i
/CH
2
(y/C
H
A/
CH
~)
L)
45 I
()
")
(~)
INa,
NH
s, C
HaO
HI
-I
lIJ6
t\? '"
Sta
rtin
g m
ater
ial
No •
Em
pir
ical
S
tru
ctu
ral
form
ula
form
ula
I f
) Ct
HtoO
~ _"
/C
OO
CzH
o
I I
f'{
~.~J
4, 7
C9Hl
(J0~
(X
CO
CH
U
~ O
ClI
a
4 4 3
» C
OO
!l
; ~
t. I
113C'~
CH
: J
4 ~
C9H
lU0
4 C
OO
H
,
f .
~(lCH"
~ I
OC
Ha
5 )
x· C
OO
H
I
ClI
:P" /~
1, AoC
H!J
Rea
ctio
n pr
oduc
t M
etal
, pr
oton
do
nor,
au
xil
-
Str
uct
ura
l fo
rmul
a ia
ry s
olve
nts
f'. J
-C0
0C2H
" M
g.
NB
s.
l)
C2B
5OB
.
I (C
2H5)
20
(,<
ClI
. N
a.
NB
s.
CH
sOH
. (C
2H.)2
0,
(HC
I)
\/~O
CO
Ol I
N
a, N
Hs•
CH
aOH
I (~
ilcA
C
H
s 3
CO
OH
N
a, N
Hs•
CH
aOH
I
fXO
CH
:l
. O
CH
a
CO
OH
N
a. N
Hs•
CH
aOH
CIl.O'
Q OCH~
(Con
tinue
d)
fo'-;G ~~ L
iter
--c
U
"0
'"
......
0 at
ure
cU
cU
'~.d
:>-< .
... -I (r
.
I
I
4t!
68
95
84
7fJ
84
85
84
t-:l "" ~ .... t%l ~ $il t"
" ::3 t%l s: ~ c::: Gl .... Z
'Tl ~ ~ > ~ o z
51 I
C!l
IIII
():I
\ (":
:nV
" "C
ONII
~ C1
1:IO
('
C()
\IL
\;
" \1
1",
l7
" (:)
'1:,0
11
;;0
I~ tT
l
~)
< ,J
1
-1
tTl
6CH3
I <:
OC
Ha
~
52 I
ell,
" ,(
:,;H
;II.
I()
/ ..
. <
:)1;
/(11
1 Li
, M
I;1'
H
t-<
( ~/
, "\/
C"H
aOB
1
-1
I I
>-:l
~/
tTl
~/
;;0
53 I
,\l
a,
NH
;J'
19
:>
>-:l
CH
aOH
C
;;
0
54 I
(J
I"
('II
:,
U,
NH
", 8
tTl
1-1
C"H
,;011
Z
;~"
'Tl 0
i I
~ J
~ II:
,C"
"'~
(' II
II
"e
;;/
'UI"
:>
55
I
>-:l
\a,
Nil;
!, 19
0
CII
,PH
Z
56
I C
~III
P (:1
1"
(II
UI,
;"'
;a,
NH
",
lil
.;""
,/ (
)(]
I"
()
CJI
:;O
I!
(""
;. J
'I
"'/
-"
ell"
',/
'UI"
"'-
) "
ell"
57 I
II:J
C,-
-ryO
CI
L, II
F
()
11/:
.
-f'..,
:-"
'a,
N11 3
• \-
1
ilL
~"
C)1
;;O
H
I
l)
.' I
) '~
'/
1 ell;1
CI
1"
ell;
j
58 I
CilH1P~
(yC
l!(O
II)C
II:I
/"
/C
)i;;
K
, N
H;!,
I-
I G8
r;
II te
rt-c
'iHU
OH
il
0 ~/
'·(JU
I.,
-()(
J I
r-:>
CI1
Sta
rtin
g m
ater
ial
NGl.
Em
piri
cal
Str
uctu
ral
form
ula
form
ula
9 C
9H12
02
I O
CHa
I I
#y
CH
s
I (I
I I ~
5
I I OCH~
6 0
C9H
12O
S O
CH
a i
CH
,»O
CH
, 1
C9H1
SN
()
NH
CH
s ~
I,)
6
2 »
(XN
(CH
ab
~ C
Hs
6
3 ,)
(J /N
(CH
a)2
I I I
i CH
a
I
Rea
ctio
n pr
oduc
t M
etal
, pr
oton
do
nor,
aux
il-
Str
uctu
ral
form
ula
iary
sol
vent
s
0 IN
a.
NH
a•
(yeH.
C
2H,O
H.
(HC
I)
: ",
I
° °
Na.
NH
s•
" C
2H,O
H.
(HC
I) "
("1
i ~)
~O
i
('11 N
HC
Ha
Na.
NH
s•
I A)
C2H
,OH
(XN
(CH
ah
Li
, N
Hs•
te
rt-C
,H9O
H
/ C
H a
(/'y
fO
Na.
NB
3•
C2H
50H
. (H
CI)
'f CH;j
(Con
tinue
d)
~'-;;j
~g
-Ill L
iter
-'0
....
.......
0 at
ure
III I
II '~,Q
:>-<
...
47
107
-76
72
108
-22
-28
t-:>
Cl)
:;>::l m
<:
til ::s o 'T
1 r ~
m
~ >-l c::: Ri Z
'T1 ~ ;::: > >-l (3
Z
64
I C9
H\3
N
~yCila
(yC
H3
Na,
NH
a,
84 2
3,
30
C2H
5OH
~
tTl
(CH
ahN
~)
(CHahN/~)
< -tTl I
~
"~~'~"""
""""''''
'I 0 'T
l
r -65
1 C
lOHS
(X
)
(X
)
Na,
NH
a.
I-I 46
""'l
tTl
CzH
oOH
, ~ >
(CZH
5120
""'
l c 66
I
(X
)
Na,
NH
a.
65 4
6,47
~
CZH
5OH
, tT
l -(C
ZH5h
O
z 'Tl
67
I C 1
oH80
O
H
OH
N
a, N
H3
, 7
0
00
I tert-
C.H
n OH
~
(X
)
>
""'l 0 Z
68 I
O
H
(X
)#
O
Na,
NH
3,
1-
7
(X
X
tert-C,
HnOH
69
1 C1
0HsN
N
H2
NH
z N
a. N
Ha,
I-I
48
I I
CZH
50H
(X
)
(X
)
70 1 C
loH
lO02
~)
J=0
j)T
H
Li,
NH
a,
I 67
1 81
C
2H5O
H,
CHaO
~
)-
CHaO
(C
2H5)2
0
711
Na,
NH
a,
1-1
10
9
C2H
5OH
I I
'" -.::J
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No,
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
7 2
C10
H12
eX)
(X)
3 C
10H
12O
e),,)
A_
lj
,,)
I I
OC
Hs
OC
Ha
7
4 C
lOH
IPS
CH
s A
/C
2H5
I C--
S
l)
()6J
7 7 5
C
lOH
IPz
CH
a »
I c--o
()6J
6
» ~J1.
J:(CO
OC,H
. H
C ~
HsC
/
3
7
I I
Met
al,
prot
on
dono
r, a
ux
il-
iary
sol
vent
s
Na,
N
Ha.
C
2H6O
H
Li,
NH
a,
C2H
5OH
, (C
~H6)
20
Na,
N
Ha•
C
HaO
H,
(C~H5)P
I N
a, N
H3
,
CH
3OH
, (C
2H5)
P
Mg,
N
Hs'
C
2H5O
H,
(CZH
,)20
(Con
tinue
d)
to~
~~
-Ill L
iter
-"0
....
......
0 at
ure
III I
II '~.d
>-< ..
.. 91
6.
7
75
81
1-
68
I I
-68
-97
I>:l
00
::0
tTl < -tTl ~ ~ t"
" ~ ~ '"'l c::: f;l ~ 2 ~ '"'l (3
Z
I I
77
1 C
lOH
1P;
I C
OO
H
CO
OH
IN
a. N
Ha•
CH
aOH
93
76,
84
,
I ::0
A
I i
tTl
()
i <
CH
aO
::::"'1 I
OC
H3
>-<
I tT
l
CH
30
AA
OC
Ha
I
:E:
0 O
CH
s 'T
l r
78 I
»
Na.
NH
s•
87
27
>-< >-l
C2H
5O
H
tTl
I S;
79 I
Clo
HlS
04N
C
ON
H2
CONH
z N
a.
NH
a,
27
I I
C2H
5O
H
>-l
I c:::
:
C~~fOCH.
/'" ~
1" cH
aoA I
OC
Ha
t-<
Z
'Tl ~
OC
H3
$::
80 I
Clo
Hu
(yC
4 Hu -
tert
A~4H9-tert
Li.
NH
3,
8 :>
C
2H5O
H
>-l
~)
0 Z
81 I
~yCH
3 I 'y
,CH
a
Na,
N
Ha•
7
C2H
5O
H
iso-.C
aH7 I:
iSO-
CaH
7,J(/
821
C1o
H14
O
(XO
CH
a (X
OC
Ha
Li.
NH
a•
I-I
22
tert
-C4H
9OH
~ CS
H7-
iso
I I
C 3H7-
iso
83 I
V
A/O
CH
a
Na.
N
Ha•
I-I
38
~)
C2H
.OH
~H,.-i
SO 1 CaH
,-iso
I I
t-:l co
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
4 Cl
OH
lOO
N
OC
Ha
OC
Ha
I I
(~ N
HC
Ha
A
NH
CH
a
~ I
) l)
",)
8 5 C1
oH1S
N
C(: .. ,,,,
(XN
H2
I I
C,H
o-te
rt
......
......
......
......
..
Cll
....
....
....
..•.
....
..
:6
Cll
Hs0
2 C
OO
H
CO
OH
c()
I I
(X)
I 7
»
WCOO
H (()
,COO
H :8
C
llH10
~
( XyC
H3
~I
,9
I
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Na,
N
Ha,
C
2HsO
H
Li,
NH
3•
tert
-C4H
"OH
Na,
N
Ha•
C
zHsO
H
Li.
NH
a•
Czl
"I,,o
H,
(C2H
s)P
Na.
NH
3•
CH
aOH
. (C
lfs)
P
(Con
tinue
d)
~~
~g L
iter
-b:!'
~ ..
....
0 at
ure
<U<u
....
. ,.c::
>< ... 87
llO
-2:
!
-49
41
111
.-11
2
CJ.
) o G;
-< ~ ~ t""' q t"Z:I ~ >-l c::: G;
.....
Z
'"r1 ~ :>
>-l o Z
89
I C
IlH10
0
90
I C
UH
120
'2
91
92
93
94 1
Cll
H14
0
95
;f'1(~
cH
aO
M}
%
WCO
OH
o
~!\
CHaO~
OC
Ha
! (X)
~ ~''
', /'"
,
fl 'f
I~ Cl
f30A
~,)
(q-)
(X
yCOO
H
OH
[
OH
J 1
1/
/"/ ",
/'\.
/'\
. !I
II 1+
II
II I
CH
30
' '\.
/'\.
/ C
HaO
/"/"/
2
24:3
7
OH
I
CH,o)
J()
o il CX)
OC
I-la
I (X)
! ,
I ,
! i
Na,
N
HS
' I -I
47
,
CZI-
l 50
I-l
I I
i I
I
INa,
NH
3,
CH
30H
I! R
ol1J
3 i
I I I
I
Li,
NH
s'
C2H
50H
, (C
2li 5
hO
Li,
NH
3,
C2H
50B
, (C
2H5)
20
Na,
N
Ha,
C
ZHbO
H
341
111
, i I
I -I 86
I
771
86
, 10
9,
114
Li, NH
~, C
HaO
H,1
63
1 11
te
rt-C
4H90
H,
(C2H
5)P
, (H
CI)
Li,
NH
3,
C2B
50B
, (C
Zli 5
)P
-'1115'
11
6
J I
fg < .... tTl <: ~ t"' ~
tTl ~ >-l c::: fg Z
." ~ >
>-l o Z
C.:>
I-'
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
961
Cll
H14
0 O
CH
a O
CH
a I
I
(X)
eX)
97
» \,
0 !i ex)
98
)\
CH
ON
:)
(X
)
CH
aOA
3
99
» ,)
\\
100
» >\
101
Cn
H1
402
OH
01
-1
I I I
I C
l-lo
/()()
CH
o/(X
)
3 3
I
(Con
tinue
d)
ro~
Met
al,
prot
on ~~
Lit
er-
dono
r, a
uxil
-o
(\)
"0 .
...
'-<
0 a
ture
ia
ry s
olve
nts
(\)(
\)
'~.J
::
>-< ..
..
Li,
NH
a,
87
C2H
DOH
, is
o-C
sH7O
H,
(CH
PC
Hab
Na,
NH
a,C
HaO
H,
-te
rt-C
4HgO
H,
(C2H
.)P
, (H
CI)
Li,
NH
a,
90
C2H
5OH
, (C
2H5)
P
Na,
N
Ha,
-
CH
aOH
, (C
2HD)
P
Na,
N
Ha,
-
I~
C2H
ijOH
, (C
2H5)
P
Na,
N
Ha,
-
C2H
5OH
7
t.) ~ fg <
>-<
tTl ~
0 'Tl r ::J tTl
::0
)- ..., c:::
::0
tTl
>-< Z
'Tl ~ ~ )- ..., >-< 0 Z
10
2'
Cll
HI4
0a
CH~
, 6~
()6
J I I OC
Hs
1031
CU
H16
0
XcOC
" (I
4 H
g'-te
rt
1041
Cll
H16
0Z
O
CH
s I ((Ji
. I OC
Hs
C12
........
........
~ .......
... 10
51 C
12H
s04
CO
OH
i
r/X
)
~
~ tO
OH
1061
C12
H1O
O8
OH
(XX
~
~
CO
OC
Ha
A/C
zH
D
~)
6CHa
(X
OC
H:<
C4H
9-te
rt
OC
Hs
I /~/CaH7
~)
I OC
H:; C
OO
H
(()
~OOH 0
(X
:(O
OC
H 3
I INa,
NH
s ' C
HaO
HI-
68
Li,
NH
s'
22
tert-
C4H
9OH
Na,
NH
3,
37
118
C2H
sOH
, (C
zHo)
P
Na,
NB
s,
16
01
11
9
C2H
5OH
INa,
NH
8,
CH
aOH
I-I
80
::0
tTl <:
.....
tTl ~ ~ r .....
t-'j
tTl S; t-'j c Gi ......
Z
'Tl 2 ~ t-'j .....
0 Z
C.:>
C.:>
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
07
C12
H10
03
HO
OC
I
cocm
I
I (X
yO
CH
3 (X
yO
CH
3
I I
I, /
1
08
» C
H30
(xyeO
OIl
(X
yC
OO
H
09
» C
OO
H
(X
Xo
cH
,
(X
yC
OO
H
10
C12H
1202
OCH2CH~ml
OC
H2C
HP
H
I
O()
I (X
)
11
»
)(X'
~ I
M)
HO
CH
zCH
P 'J
,,~
HO
CH
2CH
2 /
i i I
!
(Con
tinue
d)
~
Met
al,
prot
on ~~
~~
dono
r, a
uxil
--<
ll
"""'
......
0
iary
sol
vent
s <l
l<ll
'~..
c:
>-....
Li,
N
H3
, 52
C
2H5O
H,
(C2H
5hO
Li,
NH
3,
41
C2H
r;OH
, (C
2H5)
20
Li,
NH
3,
-C 2
H5O
H,
(C2H
5)20
Na,
NH
3,
CH
30H
-
Na,
NH
a, C
HaO
H -
Lit
er-
atur
e
111
111
111 47
47
::0
tTl <
......
tTl ~ ~ r-< ~
tTl ~ >-3
C ~ Z
.." ~ ~ >
>-3 o Z
I I
I I
I ,
N
NH
16
,,1
50
112/
d;H,
O
CH
I
3 1
a,
:1'
'ell
C2H
fjOH
, TH
F :::0
I ~(
~I
I tT
l
I <
I
~~ ,
/ >-
< tT
l
I ~
OC
Ha
OCH
a 0 '-r
l
1131
CH~:crH'
CH'm
+CH,
oW Li
, N
Ba,
CH
aOH
-85
t'"
' >-
<
f/ I ~
>-l
tTl
~
~
~ 11
41
CH,o'(
XyOCH
, I
Li,
N
Ha ,
96
12
0 >-
l c
I I
I C 2
H50
H, T
HF
:::0
tTl
>-<
"-./
IN
a,
NH
s'
Z
1151
'-r
l 96
85
, ~
I CzH
.OH
, TH
F 12
0 ~
116,1
W
OCH
, jx
jO
CH
a N
a,
NH
3,
, 74,5
50
:>
I~
>-
l C 2
HsO
H,
THF
: 0
CHaO
~
~
I z
CHaO
..-
1171
CH~~
CH~(
(~OH
IN
a,
NH
a,
I 721
67
C 2
Hr;O
H,
(HC!
)
I)
OH
o
f'
) C
HaO
~
1181
C12
H14
02
H,CW
-H
'lo
L
i,
NH
s'
I 851
113
C
HaO
H,
THF
'" I
0)
I I
0 ,
0:)
119\
C12
H14
Oa
(XXCOO
H /X
XCOOH
Na,
NH
a,
I-I 4
7 I
I I
C~HfjOH
I I
i "'
-.0
O
CHa
" 'O
CB
a 0
0
en
Sta
rtin
g m
ater
ial
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a fo
rmul
a
20
CI2
H14
Oa
CO
OH
CH
,0'd)
1 21
C
l2H
l6O
(y)"
CH
a O
C2H
5
1
l2
» H
aC
~)J C
Ha
CH
O ~
3
1
23
C 12H
1P2
O
CH
2CH
PH
!
I (X)
:
1
24
C 12H
1S0
2 :
HaC
(YOCH
.CH'OH
1
I C HH
7-is
o
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
CO
OH
I
°
I ~CX)
())~
CHa
0
HaC
(1-:
CH3 O~ f/
V
OC
H2C
HP
H
I O~)
CHa
A/O
CH
2C
H2
0H
l)
I CaH
7-iso
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Li,
NH
a•
C 2H
5OH
. (C
H2O
CH
ah,
(H2S
O4)
Na,
N
Ha,
~H50H.
(HC
l)
Na,
N
Ha,
C 2
H5O
H.
(H2S
O4)
Na.
N
Ha•
C
2H5O
H
Na.
N
Ha•
C 2
H5O
H
(Con
tinue
d)
~~
~~ L
iter
--<
ll ."
....
.......
0 at
ure
<ll<
ll '~.d
:>-<
....
-12
1
-76
-42
-'
47,
122
-88
C» m
~
< til ~ ~ r ~
tTl ~ >-'I c::: ~ Z
'n ~ :>
>-'I o Z
1251
C12
H19
ON
1
K
)J(
Na.
N
Ha•
(
92
123
::0
/1
I 1
CH
aOH
t"
l <:
~
til
CHuO
(C
H2h
N(C
Ha)2
CH
a (C
H2h
N(C
Ha)
2 ::E
: 12
61 C
12H
uN
(XN
(OJ,)
, «
N(o
!'),
Li
. N
Ha•
22
0
~I
tert-
C.H
gOH
'T
l
t'"""
~
::J 'C
4Hg-
tert
C
.Hg-
tert
t"
l s: >-l
CIa
c:::
fg 12
71 C
iaH
Io
I l-
I
OV
() (~O
Na.
N
Ha•
-1
00
12
4 Z
C
2H
60H
. T
HF
'Tl ~
1281
C1s
H1
4
CHa
CHa
Na.
N
Ha,
12
5 )-
1 I
~H60H.
>-l
l-I
(X~
(X)
( H
5)20
0 Z
~
~
~H3 ~
H3 ~Ha
~H.1
1291
~3H140
OH
~"~o
Na.
N
Ha•
I-
I 37
JXl
~H50H
iso-
CaH
7 ~
U
iso-C
aH7 ~ 1
) 13
0 I C
13H
1602
~C(Q
H,Cm.-
Li.
l'-J
Hs.
1 48
1 11
3
~I
0 lI,
C I
I 0)
C
HaO
H.
TH
F
HaC
' 0
:)
I I
~
..:J
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
31
C1
31-1 1
602
CH
2=
CH
O
il
C2H
. V
I
CH,Om
C
HO
J:X
)
a
1 1
32
C1a
H18
O
CH
O/()-()
J:)-
()
CH
a .
'..
33\
3
» »
»
1 1 34 i
»
» ),
......
......
.....
.....
C14
..
....
....
....
....
....
.
1 35
C14
HI2
O
('
(X~O
(X~OH
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Na,
NH
3, C
HaO
H
Li,
N
H: l
,
C2H
5OH
, (C
2H5)
P
Na,
N
Ha,
C
HaO
H,
tert
-C4H
90 H
, T
HF
Na,
N
Ha,
C
2H
5O
H,
(C2H
S)P
Na,
NH
~>
C2H
50H
, T
HF
(Con
tinue
d)
ro~
~g L
iter
--Q
) ", ...
......
0 at
ure
Q)Q
) '~..c::
:>< ..
.
39
86
88
29,
115
84
11
35
29,
115
I
34
126
to:>
00
::0 ~ til ~ ~
t"'" ::3 t>:I s: >-:l c:: ~ Z
'TJ ~ >
>-:l o Z
I I i
I I I
1361
C14
H12
02
CH~At"
CH
aO
,-()
/" ,,~(.OH
Li
(6 g
-eq
),
7311
27
::0
ll-(
~ N
H3,
Cll
50H
t"
l <
i til
13
71
CH,O
'(t,,()/
OH
I ~
Li
(50g
-eq.
),
5°1
127
NH
a, C
2H.O
H
0 "T1
t-'
......
1381
C14
H14
oc9
('"
Na,
N
Ha,
87
12
8 >-
l t"
l
(xX
C2H
.OH
, T
HF
~ >-l
c:::: fg
1391
C14
H14
O
Na,
N
H3,
12
6 .....
.
(:O~OH
(ifO
H
61
Z
C2H~
OH,
TH
r I
"T1 ~ 3::
:>
>-l
140~
C
14H
16
......
HaC
C
H3
HaC
C
Ha
Na,
N
H3
, -
125
0 I
I
eX)
C2H
5OH
, z
(X)
(C2H
5)P
HJ
~H3
I I
HaC
C
Ha
1411
»
06)
(I
IN
a,
NH
3,
1-1
12
4
C2H
sOH
, T
HF
(X)
1421
C14
H16
02
My
OC
2H
5
jJ(yO
QI'
IN
a,
NH
a,
i 751
50
C 2H
.OH
, T
HF
C2H
sO ~
,9
C2H
r.
I I
1:.0
)
co
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
1 43
CU
H1S
02
0 O
H
II
CH~,;w
c,.a
m ~aH,-i
SO 44
»
HOiA
_ ~I
v ~y
ly!
CHaO
/~)
CH
O
.6-a
1
45
» H
OiA
1_
("'I-
~yv
A/V
CH
ao
/V
CH
O
.6-3
1 1 46
C
14H
200
2 O
H
OH
d'
CH'~~
CH
aO'" ~
I)
CaH
,-iso
C
aH7-
iso
Met
al,
prot
on
dono
r, a
ux
il-
iary
sol
vent
s
Na.
N
Ha•
C
2H.O
H
Li.
NH
a•
C2H
oOH
. (C
2Hoh
O
Ll.
NH
a•
C2H
.OH
. (C
2H.)
P
Na.
N
Ha•
C
2HoO
H
(Con
tinue
d)
'0';\1
~g L
iter
--<
l.l "'
0 .
...
......
0 at
ure
<l.l<
l.l '-,
.c:
>-.... 70
12
9
-10
0
130.
13
1
-\0
0
130.
13
1
-12
9
oj:> o ~ til :E: ~ t"' ::3 tr.I S; i-l
c:: fg
......
Z
." ~ )- i-l @
CII
i fg
14
7'1 C
I.H
140
2
CH'°'C
'Arr'YO
CH,
<:
~'L:()'
Li.
NH
a•
83
127
til
~)_I~
~HoOH
:E:
1/1
-('
0 'Tl
1481
ClO
H20
O
CH
a C
H3
Na.
N
Ha•
85
38,
39
t"
' .....
I 1
C2H
liOH
>-
l tt
l
m
C~~;
s:
CH
O ~,
/
>-l c::
a II
fg H
acA
cH
a
cH
aA
cH
a
52 14
91
Ha
A)
HaC
(~
Na.
NH
a• C
HaO
H
80
132
'Tl ~
('I "
I ('
h/
$':
:>
HO
/ )0
>-
l H
O/ A
)
(3 z
1501
1
}fN
HaC
(~
Na.
NH
s• C
HaO
H
-13
2
J:+V
HO
)V
H
A
) 15
11 C
IIiH
200
2 C
Ha
CH
s N
a. N
Hs•
I
671
133
("I-O
H
('-1
-C
HaO
H.
tert
-C,H
9OH
.
))V
A
)""
(~Ho
)20
CH8o
/~)
CH
aO
d-
1521
L
i. N
Ha•
C
2HliO
H
1-1
13
4
I I
Il>-
......
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
Str
uctu
ral
form
ula
OH
n6
~,~
c!)/
: C
Ha
~
CH
aO
/V
1
OH
,
all
all
rnft
0 )~
/'"
CH
aO
/V
1
» O
CHa
\ 0 II
1
H(/e
x))
() H
O/(X
)
Li.
NH
a•
C2H
5OH
(C
2H5)
20
Li.
NH
a ~H
50H:
(C
2H5)
20
Na.
N
H
CH
aOH
. (lo
R:l)
(Con
tinue
d)
t
-13
5
-13
5
-13
6
~ ~ ~ t"" ~ ~ t-i
c:: ~ Z
'n ~ ) t-i
(5
Z
1561
O
CH
3
H~)
I i
0 1
_1
13
6
Ii L
i, N
Ha
H$
C 2H
r;OH
'
1571
C H
(CzH
5)zO
;0
tTl
15
22
<
Clia
tTl ~
I
0
C~m
CH3
'T]
i N
a,
NH
a,
r
J:)('"
C
2H
5OH
_
I
38
::3 tTl
II C
Ba
)
~
1581
C H
0
Hac
AcH
0-3
15
22
a a
II
C
-1
--
Hac
AcH
fg
o b
3
-""
'/
C'V/ (CH
2 )aC
OC
H
Z
MICH
,),-C-
CH
0,1
)~
a
Li,
NH
a,
'T]
CH
O ~ I
a
CzH
r;OH
, (H
Cl)
~ H
a
a C
H
:>
a
0-3 - 0 z
......
......
..... ~
C16
1591
'c~~H~~O~
,,,·,,·1
CHa
I Li
. N
H,.
I I
("IA
d~)
~M'"
I I
C2H
50H
, (H
Cl)
-13
8
I C
Hs
.-9
(')
'"
'O
H
, I I
0/7
'''./
i
I I
: I
I I I
~
c.:>
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
60 I C:t
SH18
02
I ;]A
yH'
HC
A
/OC
Ha
3 ~
,(IN
O
f'
.&I ,
,)
HO
),,)
1 61
» »
HC
(V
O
/~I/
) H
O
),,)
1
52
C:t6H
1S0S
O:tH
0
(X)~
: 1,,
9 CO
OC&
Hll-
iso
~ "c
OO
C;H
ll-iS
O
1 1 13
»
OCH
a 0
I O
CH
3 Ii
CV(Y
/)
'I
,(f
~)V
HO
I'
) I
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Li,
NH
s' ~H&OH
Na,
N
Ha,
C
HsO
H,
(HC
!)
Na,
NH
s' C
HaO
H
(HC
!)
Na,
NH
s,CH
a0H
(H
C!)
(Con
tinue
d)
t
~~
~~
-til
"0
'"
......
0 til
til
..... ,
d
>-< ..
.
- - 80
-
Lit
er-
atur
e
139
136 80
136
~ ~ ~
t'"" ::3 ~ >-l c:: f;l .... Z
'T1 ~ >
>-l @
::>:l
ttl <:
>-< ttl
164/
CuH
soO
s
H,C~
HaC
A/O
CH
a
~!JI
Li,
NH
s'
H~~
~I;O
H,
=E:
( H
&)zO
, ~
diox
ane
t""
>-< >-:l
ttl S c:
165
/ C
18H
200
8 I
CH
a
19~
(1 N
a N
H
C
' 8
' -
141
2H&O
H,
(HC
I) ::>
:l
CHs~b
ttl
>-<
J)"
Z
'T
I ~ >- >-:l
>-< 0 Z
166/
C
16H
200
4 I
;YCOO
H I
1 771
142
CH
~
I C
H3
0m
Li,
NH
a•
~H50H
3
1671
)
HjfCO
OH
$ rn
A Li
, N
Ha•
/
62/1
42
C2H
&OH
t
(Con
tinue
d)
~
Sta
rtil
lg m
ater
ial
Rea
ctio
ll pr
oduc
t ro-
;;s M
etal
, pr
otol
l ~~ L
iter
-N
o.
dOllo
r, au
xil-
oQ)
"0 ..
.. E
mpi
rica
l '-
<0
atu
re
Str
uctu
ral
form
ula
Str
uctu
ral
form
ula
iary
sol
vellt
s Q
)Q)
form
ula
.~;::
:>-< .
...
68
Ct6
H22
02
HsC
r
HsC
Li
, N
Hs,
143
I -
I O
H
I O
H
tert
-C4H
gOH
,
(' -1
---C
Hs
(~-I
-'CH
3 (C
2H6)
20
~V
A/V
CHaO
Q
CH
O/~)
I
~
1
......
... ~ .
.... ~.~
.....
I C
t7
~ r;;
....
... -
--
.. ~
69
Cl?
H20
02
CHaO
Q
CH'~y
Li,
NH
s, C
HaO
H,
-14
4 (C
2H6)
20
XX)
COCH
s I )
"'/
1 ~ t'"
.... 0-'3 S c:::
: 70
C
17H
220
2 C
Hs
CH3
Li,
NH
3•
-14
5
(,I
90 CHO
HC~
C2H
oOH
,
))O
CH
s
(C2H
6hO
JC) "
CH~
CH
//
3
1 ~ ~ ~ )
- 0-'3
(3
Z
II I
1711
~7
H2Pa
~)/CH'
11
0'(y"
, ::0
N
a,
NH
s'
24
107
M <
CHaO
C 2
H50
H,
(HC
l) .....
. M
~'I
I ~
oDJ
~
CHs ~)V
t"" ......
>-l
M
::0
:>
>-l c::
172
1 C1
7H24
02
CHa
CHs
Li,
NH
s,
80
146
::0
M
('I~HOHC
H'
(,,1-
C2H
6O
H,
'"" (C
2H5h
O
z 'Tl
f'i"
G5
J)~
~
:>
CHs
~
oA
>-
l '""
0 z
1731
C a
H7
C aH
7 N
a,
NH
a,
1-1
14
7
("I--O
H
("I-
---r
l)H
C 2
H5O
H,
(C2H
5)p
. (H
Cl)
())
ri")
CH
a<Y
I ~
oA
174
C 17H
2,Oa
HO
",()
/.C
HO
HC
Hs
1 Li
. N
Ha,
1
861
148
~(
C?H
I\OH
(X~r
CH
lV ~/
/ oj:
>. -.
1
Sta
rtin
g m
ater
ial
No,
E
mpi
rica
l S
truc
tura
l fo
rmul
a fo
rmul
a
75
CI7
H24
0a
H"'
eyA
:HO
HC
H,
()()
C
H C
Y' ~
3
1
.~ ...
~.-.. ~
.~.~ ...
.. ~ ...
CIS
......
......
......
.....
1 76
. C
lsI-fl
S02
Ocr
-I;,
rxl vi'
CH
iY ~
77
C1s
H2P
2 ,,/-0
NCY"
r C
HO
~
3
1
Rea
ctio
n pr
oduc
t M
etal
, pr
oton
do
nor,
au
xil
-
Str
uctu
ral
form
ula
iary
sol
vent
s
I Li
, N
Ha,
CH
o/(X
Y
C2H
.OH
3
OC
H' I
Na,
NH~,
I .
C2H
ijOH
, T
HF
oi/X
) (H
2SO
4)
(~I-OH
I L
i, N
H3
,
(VV
V
! C
2HDO
H,
(HC
l)
of )~
)
(Con
tinue
d)
1'Q';;j
~g L
iter
-b:
l'~
'-<
0 a
ture
(l
)(l)
'~..c::
>-< ..
.
76
148
42
149
-15
0
.... 00
::<l
t"l <
......
('Z
l :E: ~ t'"' ::; ~ :>
>-l c g; ~ ~ :>
>-l (3
Z
I
1781
C
H 0
18
22
3
rf 0
CHa
I
('ITH
I
Li.
NH
~/'0
C2H
sOH
. TH
F
CHa
~,,)
~)/j/i
::<:l
t'r.I
0
<:
.....
CHa
" /
t'r.I
0
~ ~
t'"'
1791
~ H
0
82
4.2
H
3C O
H
(I)
uOl
~I/"J
Li.
NH
a
.....
149.
t-l
C2H
!;OH
. THF
t'r.
I
CHaO
~
I I
/0
152
::<:l
1801
(H2S
O4)
>
»
t-l
0#
c
HaC
OH
::<:l
t'r.I
fl)
H3C
OH
.....
z 'Tl
~IVO
vC
1 )
Na.
N
H
68
149
~
I AJ
C
2H!;O
H. T
HF
(H2S
O4)
>
CHa
~
t-l
.....
Off
0 z
1811
H
aC I
COCH
H
aC
I'j.--C~a
I C
HO
HC
H
Li.
NH
a 1
-11
45
)(y:
~.-I---CH3 a
C~
H!;O
H'
CH
aO
~
I ~/:"v'
( 2H
S)20
CH
ao/0
18
21
lC7°CH
. ifH
. Li
. N
Ha
~!"~
I
481
45
~/
CH
aOH
'
1
(C2!
I o)20
HaC
r.
Hs
I !
0l:>-
eo
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l fo
rmul
a S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a
C 1sH
2P2
CH
a
~I-OH
/ I
o~~XY
~/V
I H
O ~
»
I ~I-OH
/ I
~V,)
CH
aj()(Y
I CH
a ~
)
ClsH
240a
CH
a
I rlT
H
I /'
I
CH,)lY
Y ()A
/: CH
aO/~
,,)
0
I I
C1s
H2P
4
0
Hi O
H CH
a
~ j-
(CH
z)zC
OO
H
Cl /
~)/i
/"')
" CH
a ,&
CH
30/~
)
1 ~8
185
186
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
I
Li,
N
Ha,
~H50H,
(CZH
5)P
Li,
NH
a,
tert
-C4H
9OH
, (C
ZH5)
20
i I L
i,
NH
3,
C ZH
50H
Li,
NH
a.
tert-
C4H
9OH
(C~H5)P
, "0';;\
~~
-<ll
Lit
er-
"" ....
.....
0 at
ure
<ll<
ll '~.c
>-0 ..
. I -
153
-15
4
-I 155
I
-15
6
I
en
o ::<l
ttl <
1-1
tt
l ::E: $fl t-' :::J ~ d 1'g Z
'TI ~ >
>-l o Z
1871
C1
sH2.
ON
I
1881
Cls
H25
02N
1891
C1
sH2P
190
191
((TreH ,
CH
,O' ~ '0
C
Ha
/'I
-O
H
(yl,r
v CHaO/~/")
a~YO
CH'
~:,,)
HaC
CH
a
OCHa
I
.
a~)
Xl"
) Ha
CH
~
(I I
'1/
/"}('
~H30A, J~
/"
'Vi
( II )/
CH
aO
/"/"
)
HaC
("
yP
~I~f
HaC
A/O
CH
a
"I/~)
/iV °
II
HaC 9 (
"1/
/i"-
Li,
NH
a·
C2H
50H
, (C
2H5)
20
Li,
NH
a,
tert
-ClI
90
H,
TH
F
Li,
NH
a,
C2H
50H
, (H
CI)
i -115
7 I
I I
I I
I
44,
159
K,
NH
a,
I 98
1 41
C
2H50
H,
(C2H
5)20
Li,
NH
3,
I 48
1 16
0 C
2H50
H,
TH
F
(HC
I)
;0
t:r:I <
.....
t:r:I ~ ~ r q t:r
:I ~ >-l c::: f;:l Z
'Tl ¥ 3:: >
>-l o Z
C1I
......
Sta
rtin
g m
ater
ial
I
No
, Ii E
mpi
rica
l fo
rmul
a S
truc
tura
l fo
rmul
a
I 92
C
1sH
26O
2 O
CH!J
I
Ci6)
/""'-
H3C
C
HP
H
1 93
»
»
....
....
....
. _ ..
.. ' ..
'
C19
..
....
....
....
....
....
1 94
, C
19H
lS02
°
II
()()
C
HQ
/(X
)
3
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
OC
Ha
H3C
I ,A
'''I/l)
/"
')
).
°
I'
O1)(x
90
(Con
tinue
d)
ro';;i
Met
al,
prot
on ~g L
iter
-do
nor,
au
xil
-0(
1)
"0
'"
......
0 at
ure
Q
)Q)
iary
sol
vent
s ...
.. ,.d
;.-.
...
Li,
NH
3,
97
161
tert
-C4H
gOH
, T
HF
Ca,
N
Ha,
te
rt-C
4H9O
H,
57
11
TH
F
K,
NH
a, C
HaO
H -
162
CII
1):)
~ til :E: ~ r ::J ~ >-l
C fg Z
'Tl ~ ~ '6 z
195/
~ H
O
N
9 20
2
i #
' A
,'- J II
~ \(
"-/
' h
l6 I C
HaO
19
61 C
IDH
200a
1
0 o
ii
~(~0
CHm
1971
C H
0
19
22
2 C
Ha
7 c*
rH
CH30~XY'
1981
C
Ha
('1-=
0 MV1~
CH
aO ~
)
I l\: "-
./ " ~A
~)
i C
HaO
OH
"-.,'
)
H~'~'
O#
cx (J(Y
C
Ha
O"'
'' ~
CH
a
("I)
'H
CH
aJ:X
)/i
"-.
Na,
N
Ha,
te
rt-C
,HpO
H
88
36
Na,
N
Ha,
C
2H&O
H,
(Hel
) -
163
Na,
NH
87
te
rt-C
,H9O
H
164
TH
F
'
1\,
Li,
NH
1
1 C
2HijO
H a
--
56
:;0 tTl <: ~
~
0 ."
r ;:J
tTl S! >-l c fg
.....
Z
." ~ >
>-l ..... @
CI1
Co)
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
Np.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
I ~9~202
CHa
CHa
("'/
-=
0
("'/
-.-
oH
~'V
(lY'v
CH
aO ~
off
"
1
I »
. "I
()~fO
,/X
wO
H
CH
ao
M)
I I)
CHa
2
~9H2
'0
9J~
I
O/()
~ 0:
" CH
ao/~
I I
C1g
H2,0
2 CH
a C
Bs
2 2
("'/
-=
0
("'i-
OH
JJ:)
'V
,/XV
!V
+
CHaO
~
CHa
)
! I
. I
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Li,
NH
a,
~H50H,
(~Ho
)20,
(H
Cl)
I I L
i, N
H3
,
I te
Tt-C
4HgO
H,
TH
F I I I
Li,
NH
a,
I te
Tt-C
4HgO
H,
TH
F (H
Cl)
I I L
i, N
Ha,
C
2H5O
H,
(CZH
o)20
(Con
tinue
d)
1'C
i';;
~g L
iter
--<
0 tsC
i atu
re
<0<0
.~~
>-.... -
57
62
154,
16
5,
166
24
165
I
-16
7
I I
en
of>. f;l <:
til ~ ~ t'""
::j
t:<:I S; >-l c:: f;l Z
'Tl ~ > >-l @
204
»
205
CHa
OH
+ I
(,,,1_
1 _ CH
"O/"C(
:(~-
CH
"I a
(x00 0
H
CIJ
ao
A I
) CH
a
o~9~ OH
CB
s
I d 0
0l1
CH
aO
/()(
) CH
a
-, _,2
I
U, ~H
3'
C2H
DO
H,
TH
F
Li,
NH
a, C
2HsO
H,
TH
F
I
I L
i. N
Bs.
I-I
iC
H30
CH
2CH
(OH
)CH
a I
I I
!
Na,
N
Ha,
C2H
[;OH
, di
oxan
e (H
CI)
/,,1
"'V
i ) -G
H
("/'
I "
i
0#"')
"')
I i
169 93
~
tTl < .... tTl
::E:
0 "Tl
r .... >-l
tTl ~ >-l
C ~ .... Z
"Tl f6 $::
:>
>-l .... 0 Z
en
en
(Con
tinue
d)
<:II en
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
1 M
etal
, pr
oton
Str
uctu
ral
form
ula
Str
uctu
ral
form
ula
2071
Clu
H24
02
osr'
CH~)(Y
)~-OH
Li,
NH
a•
CJl,<
v: I
I ~
C2H
5OH
1-1
171
.
208!
(C2H
6)20
17
2
CH
a
,,1-ToH
CH
.)XY
1<:,
Li,
NH
fg
(X~/l'"
C2H
sOH
a·
CHaO
/~ I
)
<
(C2H
6)2 0
, T
HF
......
t>l ~ $fl t"'
" -f-j t>l 5:
209i
C
H
0 19
24
3
C2H
f>
,,1
--0
CzH
o
/ "O
-oH
Li,
NH
(xy!
')
CZH
60H
. y'
HF
f-j c::
I Ol
aO/~
,,)
~)i/
fg
0
-
I
CH
aO
" /
Z
'Ti
0
0 ~ :>
f-j - 0 Z
I I
2101
C
Ha
ff~O
I '
CH
a ~
2111
HO r
"'1
'-=
0
M,0
C
Ha
~
2121
2131
C1u
H24
04
HaC
OCOCH~
('~.""
OC",
j)/:
' I
' I
CH
a(
§
2141
BY
H3C
\
~
OC
Ra
(,0 ~
CH
a
HO
, 1
'1
" --O
H
Mi 0
C
Ha
CH
a
HO
1
"'(
"'-
OH
$;0
C
Ha
CH
a
('I)"O
HC
". ('1
/:"-
ey/'
J C
HaOn I i /
I O
CH
a
U,
NH
a,
C2H
sOH
Li,
NH
a,
-17
4 ~HsOH,
diox
ane
Li,
NH
a,
57,
C2H
sOH
. 17
3 (C
2Hsh
O
I L
i, N
Ha,
75
89
, C
HsO
H,
175
(C2H
s)20
, (H
CI)
Li,
NH
a,
.-,,1
001
176
C2H
sOH
, (C
2H5h
O,
diox
ane
::0
tTl <:
.....
tTl ~
0 'Tl
t""' .....
>-l
tTl s: >-l c:: ~
.....
Z
'Tl
0 ::0
3::
)- >-l .....
0 Z CI1
-J
CTI
00
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No·
1 I'
",n
;r;,
.."l I
Str
uctu
ral
f orm
ula
I S
truc
tura
l fo
rmul
a I i"
y ;o
lveo
"
CH&
~ {'~OH
I
ex)
I Li
, C
2H
NH
I
ex '/i~
~.I
,)
tert
. C H
6i;
801
177
5 11
I CB
3
I
I 21
61.
C
H
0
CH
a
19
26
2 C
Hs
OI,o
yx('I)
OH
CH
aO
I C
Li,
NH
a
~
~ I )/
:~
'DC)
39
17
8 <
zH,O
ff,
TH
F
I-<
179'
tT
l ~ ~ L
" I-
<
>-3 ~ >-3
2171
C
lis
('1 0oH
I
((J/
C
Hao
fX
)/
Li,
NH
a>
I 66
180
CHaO
/'~
!
CZH
50
H
c::::
(CZH
5)20
;;0
tT
l Z
'Tl ~ :>
>-3 '6 z
218
219
220,
221
222
223
2241
2251
CH
" ,
/ I
, /1
----
011
,.<""
'/""
"')
l
Il I'
i. I
. C
IJlY
' ... ~/ ")
CI I
}
i "
/',
/
"/
'v
" I
ii i
>/"
/,,
/)
Li,
NH
s,
CzH
.OH
, (C
2Hs)
20
Li,
NH
a.
CZH&
OH,
(C2H
.)20
U.
:\11:
1' C
) I;,
C)H.
IC
)1;;
)/).
TH
F
Li.
\H:!
. (:
IIP
CH
2C1f
(OH
)(:H
:1
Li(K
). :-J
H3
•
tert
-Cll~OH.
(C!I
"OH
, C
)I,o
H).
TH
F
\a.
NJ-l
;).
CI-I
30
f!.
(ClU
lU
Ii'l
C);
,I}II,
71
) 11
5.
153.
1I
iR.
lR2-
-18-
1
k:zl
IRS
181;
11
187.
fli
R
~il,
N
H;j.
I 8~
1 f(l
iso
-C:
11I 7
OH
. (C"H:»~O
"C!.
Nll
a.
I 11
te
rt-
Ci1
"OH
, T
HF
fg <
iTl ~ ~
r ::3 ~ o-j c: fg Z
'Tl o ~ >
o-j @
C11 ~
Sta
rtin
g m
ater
ial
Rea
ctio
ll p
rodu
ct
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
2 Cl
~H2'
P~
Cll
a C
Ha
kl -ol
l
CIl';::
CY''')
~'l--O
H /v
r)
CH
a(Y
JlJ
l
, C
Ha
I
/Vd~
) ~,
/''
) /
AX ./
C
HO
,.,j
~
I II
CH,p/~./' .. )
2
Cl.I
I~,;
()a
CHe;
I
("-I·
··CO
OII
{):"
l\
.j' ....
/:"I/i-C~llfo
CII
:p/ ,,/ "./
')
C:Hi
Y~ ,
,)
2
I
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Li,
NH
a.
C2H
PH
, (C
2H5h
O. T
HF
I I 1
Li,
NIl
:..
tert
·C1H
!,(
)H
I
Li,
NH
3.
C2H
,,oH
(Con
tinu
ed)
I'o~
~g L
iter
-o
(\)
-0 .
...
-0
atu
re
(\)(
\)
.....
,.t:l
>-0 ..
.
I ~J111 f
i9
I
...
/911
".
191
I
I I
0)
o ~ til
:E: ~ t"
" ::J tTl ~ ,., c ~ Z
'Tt ~ :> ,., (3 z
2291
I
2 N°
Oj ,
H~C
(""j
OC
ll:l
I i ("J~)
Li,
NHa
/),,)
I
C2H
.OH
' --
77,
78
HaC
'" "t
OO
CH
a
\/l)
(C
2H.h
O
~
/""-
t:rl
IlsC
C
H20
H
-< I:a ~ ~ c-' -
2301
»
HO r
~(~')OH
1
CH3c
Y~X)
/ Li
, N
Hs
57,
( II
)/1"
~H60
H'
'"'l
(~H.
)20,
19
2 ~
2311
CH
30/ ~_A,
'"'l c:
CH
: 1
fg
In
I
-
d('
,0H
I
Z
Li,
NH
'Tl
~
C
3'
193,
~
CHl{V~
I Y
2H.O
H
(C2H
6)20
19
4 > " - ~
2321
»
CH
!i
(r,(b
-oH
I
I L
i, N
H
I
I /.
"'0
C
H3O
/O
CY
C2H
OH
T'
701
195
CH
!iO/ ~
,,)
H
6 ,H
F
» I
I I
» L
' I
I
I
ClI
1,
N
H3,
-
' aO
CH
2 CH
(OH
)CH
19
fJ
3,
diox
ane
I ,
0)
.....
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
OH
(""I
OH
~
/j--CH~
CH
pAX
) ,
235
OH
:
OH
(""j-
j-CH
a
~X)/:V
cHao
A
C2H
.
('i-r
lJH
A
/,
/;",
,)
I II
N
CHO
/V""
) a
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
I
o~()~y
oJ(x
Y
I n
' !:I~/
:; !:
i CH
p/V
V
-----
Li,
NH
a,
tert
-C
4H90
H,
TH
F
(HC
I)
Li,
N
Ha,
te
rt-C
4HgO
H.
TH
F
(HC
I)
Li,
NH
3•
tert
-C4H
90H
. T
HF
(Con
tinue
d)
0>
tv
~
<
t:;:J
~ ~ r q ~ >-l c::: ~ Z
'Tl o ~ >-l o Z
23
7l
CHo
" I
., ()t
I
(y(
'rjcl
" {/
" /"
v
\ ,\'
ClI
P/V
")
C
-~luIl2~O:l
<
~11;jJl
,.:/
/'
"
GI:I
O,)~
XICJ
IzhO
I !
239
Ol-l
(' I
01
!
~'-.... h
.'
10
!"
r r ,
', /
CHl()/
~' .. )
v
OC
H
/)((XI
!~ .1
j I
' )
Ol:.o/~·
,)
/ I
~ y)/
CH
P/"-
/'-...
.)
" /"
'
II ,./
-"v,,
//
.!i)l!
: C
J!})
/ .../
(yl
cHsA
) OC
H:,
,
(1/)
_"
J!
()f(
)~ r/'
~f
Li.
NH
s•
tert:~C4H90H.
TH
F
Li.
'\H
:l'
C)-
I})I
I. T
HF
Li.
NH
",
tert-
ell nO
ll
IC}I
:,)p
. T
HF
Li,
NH
".
CzH
"OH
, T
HF
IH
CI,
}.)8
-~ ...
19
R
197
::0
r::I <
til ~ o 'T
l
t"" ::J r::I g; >-:l
C fg Z
'Tl ~ :>
>-:l (3
Z
0)
C.:>
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
41.
C~OH
2202
I
()()/l
CII '
(XyO
CH,
~''j
//
/):/'1
) CH
aO)~
I,)
Ii
I /
CH3~' ,
)
2 2 !l2
>:~
(?
CH
'l 0
/ I
"
HaC
/ X)
H
aC (";/
"
0
("I/
~/I
~ I
I I
•
vO~l
')+
(Y)
o#~),,-)
H
' A
/"
I
!l3
» lie
NO
CfI
, lla
C ('
,(f "
v:)
0 3
I ""
(,I)~
1//
(,,
,-1/"-
1)"')
(J
#"')"
') H~/'''')
2
l4
I »
" 2
Met
al,
prot
on
dono
r, a
ux
il-
iary
sol
vent
s
K,
NH
3•
C2H
5O
H
Li.
NH
a.
C2H
.OH
, di
oxan
e (H
CI)
Li,
NH
a,
C2H
50H
. (H
CI)
Li,
NH
:J.
C2H
5OH
, (C
2Hfj}
zO,
diox
ane
(He
I)
(Con
tinue
d)
'O~
~g L
iter
-0<
1)
'0 .
...
.....
0 at
ure
<1)<
1)
'~..c::
>--.... 45
16
2
-91
, 20
1,
202
75
60,
20.1
~-
204
I !
0)
~
:::0 ~ til ~ ~ t'
" ::J ~ >-3
C fg Z
'Tl ~ 3:::
:>
>-3
(3
Z
245
246
CZU
H24
0"
247
»
248
2491
G
!oH
2.oz
"
r~y)(~k)COCH
8 Ct
I80/
~ H
aC I ? C
/~
(Y~/
:"')
CH30
/~,k
) ..
HaC
011
,,,I)
.iYV~)
CHp/~
HaC
I O
H
("-I
·--C
=C
I-I
A/, /'v
I
Ii N
II
)
CH
aO/
V"-
HaC
/', /~OCH
(,I)
):J/
'
IlcA
)'·,)
('I /(
"'/ J
CH
OH
CH
/
,("
,j
O,;
?V
V
HaC
OI
-I
(',,1)
1 ("
/)/.
"/
o,;;~),
HaC
O
H
(",1/
\ (
' I
I
. 'j
/!I~
"/
()//
)V I
A/"
-/
!i II
N/
:I I
'I 'I
) CH:JO/~)""
\a,
;\H
;!,
C2H
,oH
, c:,
;H5N
Hz
Li.
NH
a,
1 -
1 15
(1
C~H50H.
(HC
I)
l\,
Li.
NH
a,
1 -I 2
06
C2H
50H
. (H
el)
Li,
NH
~,
1 80
1 20
7 C
2H50
H,
TH
F
(HC
l)
Li,
NJj
;j' T
HF
1-
'-1 1
58
tert
-t4H~( lH
::0
t>l < tTl
::E: $il r ::J t>l ~ >-l c:::
fg Z
'T1 ~ 3:::
)- >-l ~ 0)
en
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
50 C2
oH~o
02
CH
3 0-0
-,-C
2H
5 (hC
>-I-C 2H
"
CH
P-O
-_
CzH
o
O~ ~)-l-C2I!"
2 51
» C
If;,
I
(~I-~o
tyy
~XY)
CJJ
;pA
/ v/
CH
O ~
3
2 2 52
»
01:,
ell"
~H3 ('
,1-=
0 !
~IL, (
"I--O
H
MY"
) f)
/\/"
) C
HO
~
(]-I
:P~
'v '-./
3
2 53
» »
,.
(Con
tinue
d)
~';;
i M
etal
, pr
oton
~g L
iter
-do
nor,
au
xil
--(
1)
"0
'"
"-'0
atu
re
iary
sol
vent
s (1
)(1)
'-<
..1::
>-..
Na,
N
Bs,
-20
8 C
2H50
H,
(HC
I)
Li,
"-'
Ha,
-20
9 C
2H,;O
H
Li,
NH
3,
G~H[,oH
-21
f1
Li.
NH
a, -
. 4"
-
" C
H;P
r:Jl
zCH
(OH
)CH
s I
a>
a>
::0
tTl < ra :.::: ~ r ;:::j
tTl ~ >-'l e ~ Z
'n ~ :>
>-3 o Z
2541
C
"H5
(~I-=O
((
f')
CH
:p/ ~
2551
CH~
I
Clla
(""I
I
TIl
;:fX
V':'
2561
CH30/~
) Ha
C 1 O
H
/ ("
'-I-
--C
H3
(~X)
/""/
CH
aO/~
I I
' .
2571
("'
10 C
OC
H3
(("/
C
H3<
Y ~
1 )
2581
H
aC O
H
" I)
/ '"
",xl./
,,)
CJ
l~1
J -1 3
0'
":
v'
C)-I
;; Li
, N
H- j
I
(,I
C~H50If
---.
17
4
. -I-
-J-O
H
dio
xan
e
~"(,/:,,
C!-Ia
A
) Ha
C I I
Li,
NH
a,
f)('Y
C tH
5OH
, -
54
CJ-J3~ 1
,,/
( ~H)P
((' /
Li,
NH
3
I I
Y'
caH5O
H'
--1,
17
1
CH
:P/
)! (
H5)
20
("'/
TH
OH
CH
I
Li,
NH
s,
1--
1 :11
1
/X"'/
" "
CH
aOH
cH
pA
I )
' (C
'2Hu)
z6
I (l"
/ I
, •
.. /"
J/
/ 1
K,
Li,
NH
, -
(yf'
\'"'
~.
( )
)\ I
C,H
,OH
." I I
92. 0
:''''
'''''
""
(CZ H
5 )20
, TH
F 2
12
-' 9
(H
CI)
214
I,
: ill
::0
t"l <
Fil
:E:
0 'Tl
t"' ~
t"l S; t-"l
C ~ Z
'Tl ~ 2::: >
t-"l .....
0 Z
0>
-.J
Sta
rtin
g m
ater
ial
No.
E
mpi
rica
l fo
rmul
a S
truc
tura
l fo
rmul
a
59
40H
2S0
2
~!j~
OC~
HO
/ /1
"')
2 60
» O
CH
3 I
HaC /X
) (I
Alb
H
O/ )0
2 2 61
C2
oH2S
03
CH
s
Ho
",1
1H~
1-,=
0 ~)/!V
CH
~
3
2 62
~OH2
6()~
O
H
CH
3 0-O
-i -C
2H6
CH30-0~Ho
Rea
ctio
n pr
oduc
t M
etal
, pr
oton
do
nor,
aux
il-
Str
uctu
ral
form
ula
iary
sol
vent
s
)(y),f
O
Li,
NH
a,
~HIiOH,
(HC
I)
/ '/" 0
Li,
K.
NH
3•
" ~H50H,
Ii
JX)
(~H5
)20.
(H
CI)
CHa
Li,
NH
fi
HO
I
C2H
50H
. (
CI)
1H~"
'I-1
OH
C()
iV
0#
~
-
OH
L
i. N
Ha.
0=
C>
-i_
C2Ho
~H.OH,
[( O
OH
hl
o=C>
-1 -C
2 H.;
OH
(Con
tinue
d)
rca;
~g L
iter
-~.~
«i5 at
ure
..... ,a
><
... 37
215
-28
-21
6
-21
7
C»
00
::a
tTl < Fa ~ ~ r ~
tTl ~ >-l c: fg Z
'Tl ~ > >-l @
I
263
1
2641
CtO
H2P
2
265
"
267
CH3
CH3 ?
("'i-.-o
H W
'V
tH;o
CJI
-
AA('
~)')
OH
I )/
.""
CH
P ~
CH'I
CH
. ('I
' I O
H
YX
)/:V
CH
a OA
1 '
~y ('I a
) O
H
I "]/
"-,,
--'C
H.
CHa ~)
,I
OH
#~
I CH
aO-'\J
I-C
"H"
CH30
-<=>
-+C~
H5
OH
eXy
~H:I /X
!y ~I
CH
3<Y
v
.
CH
s"y/
.....
"
CH
:<o
AX
Y
(Vly
0
'; ,,-
}'~/
Na.
N
Ha.
C
2HijO
H.
diox
ane
218
Li.
NH
a•
1-
I 17
7 is
o-C
aH70
H,
digl
yme
.TH
F
Li.
NH
a•
I 90
1 21
9 C
2H50
H. T
HF
Li.
NH
a•
,,-,IO
UI
220
C 2H
sOH
. (C
2H5)
20
Li.
NH
a.
1 --
1 22
1 C
2H.O
H. T
HF
(HC
I)
1
R; <
til
::E: ~ r !:i
tTl S; >-l
C R; Z
'Tl ~ :>
>-l ~ 0)
co
Sta
t'
r m
g m
at
' ef
tal
No.
Str
uctu
ral
f or m
ula
2681
CQn
HQoO
Q C
Ha
( (l
)'H
:?'X
)/" -C
H~
2691
CHP/~
:
HaC
("'I O
H
:?'
/:,
/ ~
( -I
---C
H
CH~O/ ~X
)/ • v
2721
I
Rea
ctio
fl p
rodu
ct
Str
uctu
ral
f orm
ula
I
CH~~X)
lX')/
1
(j/.
Y/
\,//
" )
/ I
)1 Y
)/ .
( 1
CH~O
//~'
Li,
NH
C
2HsO
H, T
HF
Li,
NH
a•
tert
-C4H
90H
, T
HF
~I
Li,
NH
a.
1 -I 1
81
C2H
.OH
. (C
2H5hO
Li,
NH
3•
1 -I l
fi.9
C2H
,PH
, T
HF
Li.
NH
: I•
C,l-
fsO
H.
(C2H
:,hO
--
224·
-22
fi
-.J
0 f;:i < tTi ~ o 'T
1 r-' ::J tTl ~ >-l c::: f;:i .....
Z
'T1 2 2::: ~
>-l @
27·1
274
I I I I 27
5j I i
2761
C2
oH~R
O"
H"C
OH
(,,1)
"1
(X)/
,j
CH
:P/ ~
'--
<;>CH
:1
HaC
(X
'I ~
rl/)
'-')
11
0/ ,)
'"
OC
H' j
HaC
(X
l .
H;j~) I
) H
aC ~,
~OCH
3
("I/(,
G )"
') .'
'-H
aC
(OO
ClI
:;
c"'O
'{lY
o
r~~)
I
o ()
D)m
,
I t
HaC
(v
'()
(,,1/,,
) )"
j /'
,
HaC
C
H/)
H
. L
i, N
H: j
•
1 C~
H:;O
H,
I (C
~H5)
"O,
TH
F
I L
i, N
H: j,
I C
2H;;O
H,
(HC
I)
I I I L
i, N
H: 1,
I C
2H
;;OI-J
, (H
CI)
Li,
NH
a,
C2H
aOH
, di
oxan
e (H
CI)
I ,
I I
1191
212,
227
I
28
22
8'
91 77
::0
t>l < ~ Sil t"'
" ::J t>l ~ o-,J c: ~ Z
'Tl ~ ~ :>
o-,J o z -.1 .....
(Con
tinue
d)
-'I
t-o
erIa
l S
tart
ing
mat
.
Rea
ctio
n pr
oduc
t hi
S
truc
tura
l f o
rmul
a S
truc
tura
l ~ o
rmul
a
2771
CoH
ooO
o CH
a
I AA
fb-O
H
oiX
) IN
a, N
H
1
I I ~ I
:
CH
aOH
, (ri
b)
-I 1
,4
I
0
2781
»
"'-C
H2C
H2O
H
I C
Ha
N(QL
J OH
1
;:0
('''(Y
L
i, N
H
t':l
r:HP)"~)
C.~H50~'
-22
9 <
CH
aO ~
I )
.
"..
. t':
l
i
~
2791
H6
'"
(tIs
~
CH
a
I:'"
"...
HaC
t-j
t':l
I
HO
",-
"'I O
H
S;
(-I--'C
Ha
I
t-j
Cf1ly
J:x)
Li,
NH
c
(XY"
/
~H.m
t 57
, f;l
CH
ive ~ I ~ '
v'
"..
.
diox
ane
174,
Z
230
."
0 ~ :>
t-j
"..
. 0 Z
280
281
282
1 I 28
31 I
284
285
CH
a
("',
I-O
H
/.X·,
, 1
,;/'
"/;,
V':
-,C
H
I '
v,
' 3
J, I ).
: CH
a O/ ,,~,
OH
CH
a
("I-
IOH
(X' )/V
'-O
H
CH
uA
C
H
a H
HaC
('
I C
H3
", --
I"~OH
fr)/V
<'O
H
CHaO~'
'
HaC
(~I
OH
~
,-I-
--C
Ha
(X)/,
,,/"-0
H
CHaO
/~
,
I
01
,»)
/ I
il X"~/
OI:J
~"
) f
cHpA
Jj/
I
CH
30))(
Y
Li,
NH
!I'
tert
· C4H
gOH
, T
HF
Li,
NH
3,
C2H
sOH
, (C
2Hs)
20
Li,
NH
a, te
rt·C
4H
90H
, (C
2Hs)
P
Li,
NH
a, C
zH.o
H,
TH
F
Li,
NH:c,
C~H30H,
TH
F
231,
28
2 ~ <
.....
m
::E: ~
t"' .....
i-l ~ i-l
C ~ Z
'T] o ~ :>
i-l (3
Z
-J
C.:l
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
OC
Ha
HOV""/~
HaC
I
II I
/(j/)/
V
HO
/ "
OC
H"
I ..
HO
" /'
)"
V
"'-
/ "-'
-
HaC
I
I! I
(',j
/"lI
V
Ho
NV
OH
O
CH'I
HO
VI
I,,'
Y
~
HaC
I
; i
(""I
/i"I/"
! H~.V
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
o I
o il H
O'j
/))
AI
! ;::()
I
o
HOyX
!)~'
/"
'"
I
°
II H
O'lA
(,!
),"I/~)
I
Li,
NH
3,
C 2H;
OH,
(HC
I)
Li,
NH
3,
C2H
;OH
, (H
CI)
Li,
NH
;J'
CzH
sOH
, (H
tl)
(Con
tinue
d)
...J "'" ::0
t'l <:
.....
t'l ~ ~ r ::3 t'l ~ >-j
c::; ~ ~ o ~ :>
>-j o z
C~UH~90/-.J
CH~
?,-II
.. )--CH
OH
CH
1/ .
/ ",
/:'
:1
II N:
·· CH
P/~)
"')
C~I-1,
p(,
I-j-
OH
y
' ,,/
" /'
I II
N
V
CH~O
/'\'
/") H:1C
I O
il
('"
-I-
'C,C
CO
-I
i~';
(~/V
ill):
CHa(
)//~
/"'"
0/\ I
~ C
Hp
/ "')
AI
,I ("~V
'I il
CH
aO
/V''')
CH
: j
X(., ··.I--
"=cH
ClL
I
~ liN
C
H"O
/ ....
, I
/ +
1f
3C
/",1.
Of I
+
('(U<JCil~c!L
CH
PA
)l)
Li.
l\H
::.
tert
-C
lluO
H.
TH
F
Li,
NH
a.
tert
-C4H
"OH
, T
HF
Li.
~H::.
C,H;;<
)H.
(~,H:,)~O
235
10
~
<
1-4
t7
l ~ ~
r ::::j
t7l s: I-j c::: ~ ~ o ~ :>
I-j (3
Z
-.il
C11
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
2 92
CZ
IHz4
02
CHa
CH;j
(~/~
I (~/)
M~/'"
CH
(V V
")\;H
I)
I 3
oi
~k.)
3
CH
O ~
OH
3
93
C21H
240a
H
aC O~
CHa
F8
')""
0
~
~.
~I
CH
O ~
0-7
'.)
3
2
94 C2
tH26
0~
CHa
CHa
0IT(
~H'
0~CHOHCH.
X'/·
M)/
'"
f I
:'" C
HO
)'
,).
CH
30
a
2
Met
al,
prot
on
dono
r. a
uxil
-ia
ry s
olve
nts
Li.
NH
s•
C2H
.OH
. TH
F (H
CI)
Li.
NH
a•
C2H
.OH
. (C
2H6~
0. T
HF
( C
l)
Li,
NH
a•
C2H
5OH
. di
oxan
e
(Con
tinue
d)
I'o~
~~ L
iter
--Q
) "0
'"
....
0 at
ure
Q)Q
) .~~
:>< ...
..
-23
7
-23
8
--23
9
-J
0')
~ til ~ ~ t"' ::3 ~ >-:l
C ~ ~ ~ )- t-
i (3
Z
295
CH
a
('
1 O
H
~ "
-/-.
-.C
=C
H
I/"'X"
/o CH
aOJ~
I )
: v
//XI -..
/ II
I Y
C
Hao
/'"
/)
296
HaC
("I_
OH
/yh
)
.I--
-CH
=C
H"
II II
" V
-.
CH3~A)
HaC
0
(""1)1
)
.:?J
U'; /V,,,
) C
HaO
~
I :
HaC
OH
/ ("
"I)')
(j )0,
,1/ i""
) C
HaO
/"'"
2981
C21
Hz6
0a
HSC
H3~
CH
30
Ct-
I{f
'v""
-'-.
. /'
:\a,
NH
3,
C2H
oOH
, IC
zH5)
P
Li,
NH
3,
CzH
oOH
, (C~H5)P
K,
Li,
NH
a,
CzH
.OH
,TH
F
Li,
NH
a,
C 2H
5.OH
I I 7J
88 I
821
51,
88,
240,
24
1 92
185,
23
8
::0
tTl < -tTl ~ ~ r ~
tTl ~ I-j c:: ::0
tTl Z
'TI ~ :>
I-j (3
Z
-J
-J
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
2 I
C21H
2tlO
a C
Ha
CHa
I'I~H
(~I~
H I
.(X
Y:V
-O
H
~X
'V-O
H
I I
/;
. I
.'
CH
aO .)
CH,=CH
~ I
CH
(Y
~
):
C=
CH
a
I C
21H
26O
" C
Ha
CI-!:
l
CH3c
oo~(
~I_,
_ =
0
HO
" (
I .
'-'-
-O
f!
((('
) (V
"!/,,)
CH
ao
/ ~
O,f~)~)
:
3 3 »
» C
H3
}-1O
, A
, I
"'/
":-~OH
HO
CH
3TH
" I
I I
fX'1/~/
CH
i)/ ")
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
Li.
NH
a.
C2H
5OH
. (C
2H5)
P
Li.
NH
a.
C2H
.OH
. di
oxan
e (H
CI)
Li.
NH
a.
C2H
:,OH
. di
oxan
e
(Con
tinue
d)
ro«i
~g
oQ) L
iter
-"0
....
-0
Q
)Q) at
ure
'~..d
:>-<
....
-28
2
-57
. 24
2
-24
8
~
(1J ~
< ......
t"l ~ ~ t"
" ......
>-l ~ >-l
C ~ Z
'7l o ~ :>
t-"'J 5 z
C~lH270~l\:
3031
C21
H2S
02
»
30
5"
» »
CtH
o A
I
OH
( ,
-I-·C
:~=CH
/f'v
' /:
'" /
I Ii
N'"
,~
II )
CH:p/~A
CHa
l~x()J
) CO
CH
,
CH
oA
I
: 3
.
HaC
~Ol-l
. i'
I-·-C
H.
(J:)/
:V
.1 ),
:
\,
CHa O
/ ~
I :
CH
2
HaC
OH
("I),
CH:1
fYY
:V
CHl)~N :
A
OH
(I,l{
;; A
I'
.~-I--
-C==CH
ii
,,"N
/' "'
v'
I "
~
CH
P/")')
CHa
(yr:
I,)
CH
OH
CH
,
CH
:P)"
,J,,
) : »
!
(yfCX
Y I
o~(X
Y
Li.
NH
a.
tert
-C4H
~OH.
T
HF
Li,
NH
a.
C2H~
OH.
(C~H5hO
Na.
N
Ha•
C
Ji;;O
H.
(C2H
5hO
Li
. N
Ha•
C
2HijO
H.
TH
F
K.
Li.
N
Ha•
C
2H50
H.
(HC
I)
158
fg < -M ::E
; Q
r ::J M s: >-3
c:::
fg Z
'n ~ :>
>-3 6 z -
J
co
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
3 07
~lH2
sDa
CHa
CH3
3
01-)
Coa
CH
, (~
I--C
HPH
I W
i (Y
)')
~Il
: I
CH
a()/
~
CHa
j""
)81
» li3
C 0
)
I
CH
P)(D
'
I
~
I
~I
I
CH
30
3 )9
i>
» "
3 10
» »
}i
I I
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
ol v
ents
Li,
NH
a,
C2H
6O
H.
(C2H
.hO
Li,
NH
a,
cls
OH
, (
2H5
)P
Li.
NH
a,
C2H
5OH
, (C
ZH5)
20,
TH
F
Li,
NH
3,
tert
-C4H
9OH
, T
HF
(Con
tinue
d)
I'o~
~~ L
iter
-1:
9'~
....
..0
atur
e (l
)(l)
'~..c::
:>-<
...
-79
. 24
5
.-24
6-24
9
-18
5
85
250
00
o Ri <
-ttl ~ ~ t"
" ~ ~ >-:l c::: Ri 52 'T1 o ~ :>
>-:l ~
3111
»
CH;l
CHaO
CH"
("'1--1
~O CH
: l
CH
,x
xl'i
T'H
CH
,OX
X}
:')
I I
Y:"'
, CH
aO
//',
,,)
3121
CH
;l
("'I
-O
H
X
1 I
((y
'vL
OH
C
Hao
A ,)
~ I
..
CH
aW' ~
,)
CH
=CH
2
3131
~ IH
2S0
4 CH
a
CH
nl'l
rO
CH
'
CHa
CH
,O
('I
T)H
{/
'1/'"
' H
O ~
I j.
' 11
:'(>/'"
",
) 31
41
CHa
ml),O
H
CHa
I (,I_
/O
yp
CHa
~ I
• CH
2 CO
Ol-I
(:
)'!v
-0
/ ,)
,
Li,
NH
a ---
88
Cj!H
"OH'
Li,
NH
a -
232
C 2H
5OH
' (C
2HohO
Na,
NH
a C 2
H5O
H'
-17
9
U,
NH
I
tert
-C H
3 0H
81
1 25
1 T
HF'
(HC
I) ,
~
t>:I < -t>:I ::E: ~
t"' ->-l ~ >-l c ~ - z 'T
J ~ 2:::
:>
>-l - 0 Z 00
1-
1
316
317
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
C aH
7
(" ('I
v O
H
CllaO/
~X): C:
JH7
("'1
-) OH
(Y
"/:'"
CHaQ/~)
: CaH
7-is
o
('1
-) OH
(X
:"(>
CHp/~
V
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
/ I
CHP~X)
I
CHaC
Y~X)
/X)I
Ii \
~
CH~O
/ "
Li,
NH
a_
1 --
1 25
2 C
2H50
H
Li,
NH
a_
821
219
CjH
50H
I I
Li,
N
Ha,
66
1258
C~H50H, T
HF
ex>
t-:)
:;0 tTl <
&!
::E; ~
t""'
>-< >-l ~ >-l
C g:; ~ ~ ~ >-l (3
Z
CaH
i-iso
I ~b-OB
X
i I
'" Li
, N
H
CHaOA
I :
CH3(
~ .. ,/(
C~H.oH,
THF
·Hi
2/i,1
:;0 tTl <
I
t-I
tTl ~ ~
318
3191
»
CHa
)CJ{
~l)
CH
OB
CH
, C
H')
:X
Y
Li,
NH
3201
CHaO
~ .. I
)
:
C 2H
.0l-
i' -
254
t""
(C2H
.)i)
:=i tT
l
HaC
S; >-j
("I O
H
c:::
1
:;0
NYJ--C~'
tTl
CXy
Lj,
N
H
t-I
CHaO
~
I :
ClI
.OJ-
t
~
. /
( 2H5)~O
~ >
>-j
t-I @
I
CH
s):X
Y
Li,
NH
~H50lr
-51
(~H5
)~O
181'
22
5'
226:
25
5,
256
»
(Y
Li,
NH
f'",Y
s,
1-1
16
9
. 323
1
i Li
, (N
a K)
N
CH
.J-
I )'
tert
-'c4H~oN8' I
-I
11
(C2H
60H
'
CH
aOH
), T
liF
j
I 0
0
Co)
No.
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
CI2H
50H
('" -J.
-.CH a
(x)<
V
CH
ao/\
:' '
HaC
("'I O
H
CHa
x
-J---CH
;"
'j()
/V
a
CHaO
~/
~ : H
5C2
0H
r'(+~
)Xy,V
CH
lY~'
)'
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
(yl
CH
scA
A)
CHa 6
I"
/ C
Hso
X/1
/ I
rrx"/
CH
P/"
,,
)
Li.
NH
a•
C2H
.OH
. di
oxan
e
Li.
NH
a.
I 49
CH
aCH
(OH
)CH
IPC
I-/a,
T
HF
Li.
NH
3,
C2H
r,oH
. (C
2H
.)20
Li.
NH;
J. C
2HIiO
H. T
HF
25
2.
258
00
"'" ~
<:
til
=E: ~ t""' :=i ~ 0-3 c: ~ ~ o ~ :>
0-3 5 z
CH
: 1
(~~I-'
-{)H
I
~'/"
)'
Cfl,
o~
CH
:P
~,I
) .S
CcH
:,
CH
' 1
((~i
)CHO
HCH"
o/cxl (
CH
0/ ~
I :
~
HaC
(~~OH
(X ;
",1--c
HOHC
", I
r:'j(
' /
CH~O/
~ ).
' A
I'!
C
HaO
/'
''/)
H~C
HO~
I O
H
, 0:
9)-0,
,,, (V
iV
n~ )
~)
CHlY'~ /'
Li,
NH
62
25
9 C
2H5mr
(C~Hr,)~d
261
Li.
NH
C
2HsO
H,
(ikl)
-21
6
Li,
NH
C
2H50
1l
(C~H
")~d
Li,
NH
a 1
CZH
50H
' -I
57
diox
ane
(HC
I)
::0
t>l <
~
~
0 "Tl
t'" ->-l t>l s: >-l
C fg -z "Tl ~ :>
>-l -0 Z
00
C1
1
Sta
rtin
g m
ater
ial
No.
1 E
mpi
rica
l I
Str
uctu
ral
form
ula
form
ula
I I 33
21 C~
lH30
04
CH
a
(~'-OH
'J
:)";
I
I ·
CHP/~
, I I CH
OH
CH
PH
33
3
334
3351
C21
HsI
02N
/-"
"C,2
H5
A)
. I
CH
OH
CH
s
I II
"/,
V
'I N
, I
j ,
CHp/~) "'
J'
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
I ~/xy
CH
2°"-'
'-/ ,)
, I CH
OH
CH
PH
I
o~(XY
("V
Y
o~~f
l)
I I
N/
/X"
CH
pJ,,
,,
)
Met
al,
prot
on
dono
r, a
ux
il-
iary
sol
vent
s
Li,
NH
s.
C2H
5OH
, (C
ZH5)
P
Na,
N
tla,
C
'lH50
H,
(A12
0a)
(Con
tinue
d)
..-<
0«
1
0,
~~ILiter-
"' ....
Q) 2
atur
e . ..
.-I.,d
: >-0
....
,18
K,
NH
a,
1 --
I 26
3 C
)-150
H,
(HC
I)
Li,
NH
a,
I-I
235
tert
-C
,H90
H,
TH
F
00
en
:;0
t'
l < .... t'l ~ ~ t"' .... >-l
t'l 5: >-l c:: fg Z
'"T1 ~ :>
>-l o Z
336
C,l-
L
/"-1-"
OH
//
'.)
.-I-
-C2 H
o
, ....
. ',
/V
i
\;
CHP/
~)""
) C2
~
3371
C2
2Hz4
0a
ell;
!
(,I
/ )
__
_
) -O
CO
C,)
I:,
II ~,
CHP/~';
3381
C22
H24
04N
2 .A
.,
UIi-/.,
'·· Ii
I ,
:\
"-/',/'
f',
I '.
I ~
I H
·(/
"1
Hoov
j~A
i O
CH
" O
CH:!
3391
C22
H2P
a -I -,
(]I}~3
I
liY
\/
CHP/~YvJ A/
( '>
.r
C1Lp
A)
~ '(
'I
l"r/,
IIO
OC
/'f"
'OC
lI;1
II:IC
I ('Y
",,,,m
'
Li,
NH
3,
-f5
R
tert
-C
,HuO
H,
TH
F
Li,
NH
a.
C2H
:,OH
-, 2
6,]
:\(a.
;"
\ir!:l
' I-
! 2M
j iso
-C
aH70
H
Li,
:.Jll;
J' C
2il.
OH
. (C
2H
o)l)
, d
ioxa
ne
741
'107
, 'l(
jl)
:;>;l
tTl <
'"""
tTl ::e: ~ r '"""
>-3
tTl S! >-3 c:: ~ Z
'Tl ~ ;s:: ) >-3
(3
Z
00
-3
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a S
truc
tura
l fo
rmul
a fo
rmul
a
~o
C22
H?60
.3 O
CH
3 (X
':H.,
('"A
' H,C
Or)
),,)
~)
m/
::-"
'. /0
~
~o
3
U
C22I-12~04
I-I:,C
()
I O
H
HaC
('.
-I-
-'C
=0 C
CO
OH
I
0--
1
,cfX
'l/V
("
I-k)
J Ii·
(",/
'''.,
.": "
./
C11
:P/ ."
'.
/
<l J.
I .
o ',,
/ ',
/
3 3 42
" "
"
Met
al,
prot
on
dono
r, a
uxil
-ia
ry s
olve
nts
I Li
. i\I
-I:J.
C
,I-I
PH
I I
Li.
\Il;
j.
C ,H
"OI!
. (H
Ci)
Li.
NH
a•
tert
-C4H
gOH
. (H
CI)
(Con
tinue
d)
1'0-;0
~~
t9.~ L
iter
-.-
<0
atu
re
(l)(
l)
'~..
c >-<~ -12il
7
I -. 64
-.
1i5
CI)
C
I)
fg < -r.<l :E; ~ t"" ::l ~ t-l
c:::
fg Z
"T1 ~ :>
t-l o Z
41 C
22H
2s0 2
51 I 61 C
22H
zs03
HaC
HOC
H
A
:1
1 -,
h"-
.,
I ,
\CH
" (-?
~/,,,/:'
-
CH:p
A)~)
:
H~CI
0-«(
('_
-I
N' /
1,,/
II 1'
''''/
CHa
~/'/
HC
()
3 II
(xd,
~U
0';:
: /1
) H~C
(".,\_C~OHCHa
("J
/ -l
cH
a
I ).
~)
o.f(
'~""
•
CH: 1
(""'\
:-),
CH
OH
CH
a
('v
''1
/'
'·CH
a I
I I:
00 :
'.. '~""/ H
aC l
OB
(' -J
.(CH
~)aO
H ('''/
'']/ 'v
) J
) 0
/"-.
'-;:
" '/
Li,
:.JH
a, te
rt-
C4H
oOH
, (C
HaC
OO
H)
Li,
NH
s.
CH
aOH
, (C
2H5h
O,
(HC
I)
Li,
NH
a,
C2H
50H
, (H
CI)
Li,
NH
a.
CH
30H
, te
rt-C
4HoO
H,
TH
F
(HC
!)
(i6
66
270:
27
1
~
<
til
::E: ~ t'" ::J ~ ~ c::: ~ Z
'TI ~ :>
~
(5
Z
00
(0
No
. E
mpi
rica
l fo
rmul
a
347
1 C2
2H2s
Oa
1 I
348
'349/
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
H~C
°
I,i-O,
,-J;
j,yX" /.
, 1 v/
I
Y· "/
Cflp
/~
)
-1-:
H
:1C
OO
1
'/
("/~
(;X~/,,/
)~ I
•
/ CH
:P/~
,)
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
HaC
I O
H
('" -1
--(C
HJh
OH
II I
'j/.
, /X'
/:. C
H:p
/""v
)
("X/'y
ni;{y~
/I )/
o Ii o
f))+
fX)
I I
(Con
tinue
d)
I ... .
--<
o CIS
",
0
Met
al,
prot
on ~,:iILiter-
-ill
dono
r, a
uxil
-;:g
0 at
ure
ill i
ll,
iary
sol
vent
s ~-
5'
Na,
N
Ha,
te
rt-C
4H
nOH
, T
HF
Li,
NH
3,
C2H
oOH
, TH
F
Li,
NH
3,
C2H
50
H,
diox
ane
272
I),,
",'
)
~/"
266,
27
4 58
to
o fg <
tTl ~ o 'Tl
t""' .....
>-l
t:<l s: >-l
C fg Z
'Tl ~ >
>-l (3
Z
3501
»
CHa
((r'b
-ocOCH
' cn
,coo
/ "I
Y'
C22
Hao
02
I H
5C2
("'I O
H
NC~
-1--
·C2 H
5
V:V
C
HO
~
I )
: _
3
» CH
a
CHa ("'I ~ /
v COC
H, C
HaO
~ I
)
: »
CHa
NC~,
CrH'
CHaO
~ I
);
--CHa
0 II
J:X)
I
/X CH'
COO~ I
Y
I
CH
aO
J:X
Y
CHa
CHa (~
I (V
/,j
CHOH
CH,
wI )~
) : CH
a
uC'h-
CHOH
CH'
I I )/~
'. C
HaO
' .
CH;j
Li,
NH
C
2H50
H,
T'H
F [(
CO
OH
hl
Li,
NH
C
zHsO
tl'
-15
3
(C2H
s)l)
C
Li,
NH
a H
aOCH
2CH
(OH
)CH
a-25
7
CH
aO(C
H r
OH
I
Li,
NH
(H
CI)
a '
Li,
NH
cH
a od'
(C
2H5lz
O
:;0 t'rl < .....
t'rl :E: ~ t'"' ::i ~ t-3
c::: ~ .....
Z
." ~ :>
t-3
..... ~ co
.....
»
357
»
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
HsC I
OH
1'-
1--
-CH
2
rYY
:V I
cH
sM
):
CH
=C
H2
H C
C2H
S
3
11
/O
H
1'//)
rf
X'\/
T"
CHa(
)/~
): O
H
H3C
I I ./C2H
s
("" //
ryv:
")
CH3cY~
:
»
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
HaC
(""I
OH
/X
,-I--
-CaH
7
fl I )/V
C
Hp
A.
'
(vl/
0#
)"
")
('V'~(
n.l
)"
") I
(vy
0.
1 )"')
Met
al,
prot
on
dono
r, a
ux
il
iary
sol
vent
s
Li,
NH
S'
C2H
PH
, (C
2HSh
O
K,
Li,
NH
., C
2H50
H,
(HC
l)
K,
Li,
NH
a,
C2H
60H
, (H
Cl)
51
co
t<:l ::0
r::I <:
til
=E: ~ t"" ::j ~ >-l c::: Rl Z
'T1 ~ :>
>-l '6 z
3591
C~2
H300
3
360
»
363
I C
ZZ
H3
20
2
H3C
CHa
("'I C
OC
Ha
I -I
-,O
H
((
,\/V
C
HP
/ ~
I )
• -'
-I
HaC
00
("'I)~
! ;fy
/'. /.:"
. / i
I )'
: "..
/ C
HoO
/' ~/'"
.,
HO
CH
?CI1
20 .. ,r
···~
. ---
-C,~
!c
"=./
I
.. ,
H
--",
O
CH
.CH
.Q-.
#'
'>:"
. .
,\~---CJi"
CH
a C
I13 C
OO
1
Oll
1/'", -I
.. ·ctf a
::-X
"'/V
C
lll)
A ),
CH
a 1
OH
("'
I-I-·,
Ca H
7
r~/"'/V
CH:p/~)"')
H~C
CH
a ("'I
CH
OH
CH
a I
-I·
OH
(V
)/V
0'
;:)'"
• ,-/"
/
)1 Y
C
HaQ
/' ,,
,)'"
()
/--'
) --
,---
\,-/
I
C2 H
.
0.
/)
-~f -
---C
,Hc
HO
CH
zCH
, .,
i-I
CH,~XY
,
cH,eM
Y
Li,
NH
C
HP
(CH
)'O
H
2 3
Li,
N
H
C
3'
--21
2 2H
50H
' 20
8 I C2H
~6H~~H
cI) I-I
38.
I Li,
NH
1
-12
43
C2H
bm-t
diox
ane
Li,
NH
a 51
, C
ZH5O
H'
(C2H
5hO
22
5
:xl
trl < 'fil
:E:
0 "T1
r-' ,.... ..., trl s: ..., c:: ~ ,....
Z
"T1 ~ ~ )- ..., ,....
0 z ~
w
(Con
tinue
d)
to ""
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t I
I M
etal
, pr
oton
No.
1 -
I do
nor,
au
xil
-
Str
uctu
ral
f or m
ula
S
truc
tura
l f o
rmu
la
iary
sol
vent
s
C2H
5
(~I
OH
I
((
:)-C,
H,
J:Y)
/ L
i, N
H
I
CH
a O/ ~ I
)<
CH
a A
C2H
50H
T
HF
9°
1219
, ,
254.
27
8
»
3661
»
H7C
a
CH
L
i, N
Ha
257
a OC
H2 C
H(O
H)C
--
:;0
(~I
OH
/ I,
(C2H
5hO
, T
HF
' 3
tTl <
AX /j-
-CH
, cH
ao
AX
Y
I-<
Li,
NH
tTl
80
219
::E:
CH
aO ~ I
)
:
~,
pyrr
ole
0 'TI
t'"'
I-<
>-3
tTl ~ >-l c:::
fg
3671
»
HaC
CH
I
OH
)
a ~ -1-
--C2 H
5
ell
I 3
I Li
, N
H
m/~v
CH
aJ:X
Y
C2H
5 0rf
' -
279
......
CH
aO ~
I :
z
(C2H
5hO
'T
I ~ ~ :>
>-l
......
0 Z
» Ha
C ("'I O
H
m:-
I"-C
2H
5
)XI)
L
i, N
Ha
I ,V
"rn
CH
I
I ""
-C,H
,OH
CH
, '"
.,'
THF
' ~ t"t
l <
~ A
I OH
I
C
M)("
'/'vl
-<C
H,)
,oH
iY
) L
i NH
~
I :
(H
p/,
A
C H
' OH3 '
~ .
.'
.. ,
~ CH
,O
'"
. '"
'-C
,H,O
H,:
:;
TH
F
~ c:::
~ =
1
all
~ C
HP
CH
2 ('" -I-
-",H
CH
'XX
I L
~ Y
X)/
V'
CH a
I
I Y
~;Hr;gi'
1 83
~
3711
C
H,c
yA
,'
,/
,.
• j o
CH
Z
MI'
~OH
~Xl)
Li,
NH
I
)/:V,-D
H CH
I
I '"'-
C,H,
1'>H,
I-I 2
31,
CH,o ",'
' TH
F m
C3H
7
to
en
Sta
rtin
g m
ater
ial
No.
E
mpi
rica
l S
truc
tura
l fo
rmul
a fo
rmul
a
3 I
72
Cz2H
3a02
N
CaI-I
,
AI
1 I)
CH
OH
CH
3
A/"
/~'"
I II
N:
CH o
/v
",)
3
3 73'
»
C 3B
, OIl
AI
_I
1 I
---C
Z H5
A/,
/:'V
I II
N:
CH30/V~)
......
......
_--...
... _--
..
C23
3 74
CZ3H
3003
CH
3
(~I-=o
I I
A
o::y
v I I
1 I~
~
, !
,,/
/ o
0
I
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
I /"/~/
II II
N
CH
aO
/V"')
[ }
v
I 11
N
C1
-laO
/',
) CH3
("'I
-O
H
A
((yv
1 I,
/ "
./
" /
" ""/
o 0
(Con
tinue
d)
1'Q';;i
M
etal
, pr
oton
~g L
iter
-do
nor,
au
xil
--Q
)
"""
.-<
0 a
ture
ia
ry s
olve
nts
Q)Q
) '-,
.c:
>-< ...
.
Li,
NH
3,
--23
5 te
rt-C
4H9O
H,
TH
F
Li,
:\H
".
1-15
8 te
rt-C
)-lp
H. I
TH
F
i
Na,
NH
3,
-28
1 C
H3O
H,
tert
-C4H
9OH
, T
HF
<D
0>
::0
ttl -< t=;:J ::s ~ t"" ::::j ~ >-l
C fg Z
'T1 ~ 3'::: ::. >-l @
3761
C23
H30
04
377
I C
23H
300i
j
378
I C
2aH
320
2
()
tI:jC
II
("'I-~
/)'
fY)/:
J"
CH
a OM
:
HaC
("'I
OCO
CH3
~X
,-I-
--C
OC
Ha
'/ "'
-/:V
CH
aO''' ~
I )
: o
H3C
\'T)
1_--
0
Hd~~
CHpA~) :
I
o#CXY
CHa
("'I
~) HOH
CH
a
CII,J
:(Y" I
CIi'»
Y i "".
/'.,
/
Ii 1('
T
" II
f /"
'-/'
" "
CH
aO'
,,/v
Li,
NH
a,
tert
-C
4HgO
H,
TH
F (H
CI)
Li,
NH
3,
CH
pH
, di
oxan
e
Li,
NH
a,
CzH
.OH
, di
oxan
e
Li,
NH
a, C
2H50
H,
TH
F
66
Ri <
>-<
tTl <: o ."
t"" ::J tTl s: >-l c:::
;:cl
tTl Z
." o ;:c
l ::;:: :.. >-l ~ co
-J
Sta
rtin
g m
ater
ial
No.
Str
uctu
ral
form
ula
3791
C23
H32
0a
CH
a
O
("1
-) OH
(X)/:
" o V~I
: 38
0 »
CH
3 :J
381
» CH
a
("I-o
H A
A)/
:V!-
OH
I
.'
CH
aO ~
: tH
zC=
CH
2
tH~
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
I
(j"J:
XY
o 0
I
CH
aJ:X
Y
'I "'-
./ 'Xi
CHao
/~ I
)
(Con
tinue
d)
I ..........
. 0
«1
t)
Met
al,
prot
on ~QILiter-
-<l.l
dono
r, a
ux
il-
:8 0
atu
re
<l.l<
l.l ia
ry s
olve
nts
~.s'
Na,
NH
a,
CH
sOH
, te
rt-C
4H90
H,
TH
F
Li,
NI;I
~,
C2H
60H
, (C
2H5h
O
I
II 69
, 19
4
Li,
NH
a,
II -II
232
C2H
.OH
, (C
2H.)z
O
cD
00
~
<:
tTl
~ o 'T
I t'"
' ::3 ~ >-l
C ~ Z
'TI o ~ :>
>-l @
3821
C2s
H °
~2
4
Hi DH
m;J~~~(CHJ'COOH
I
Cll,oiX
Y CH
aO ~I
:
3831
»
~ ..
I
CH.<Y
W -~-OH
SH
30" ~"'-/
3841
C23
H °
32
6
rOH
~
CH,m
b
~~--DH
~I
: C
HaO
· ~
I
Li,
NH
t
a, er
t-C
H O
H
4 9
, T
HF
Li,
NH
C
2H50
tt'
(C2H
5)20
Li,
NH
~
3'
H5O
H,
diox
ane
65
28
3-
285
-23
9
::0
t'Il <:
......
t'Il
::E: 0 'Tl
r-<
......
>-l
t'Il S; >-l
c:::: ~
'""' ~ ~ >
>-l '""'
0 Z co
co
3861
C
23H
;IP
2
387
»
Sta
rtin
g m
ater
ial
Str
uct
ura
l fo
rmul
a
01::1
H3C
~~J
---O
H
HaC
(""1_° 1 ~
C H
fY)/
V
49
CHpA~
: CI2
H50
H
tx)~
J-C,
H'
CHl)
/~
.
Rea
ctio
n pr
oduc
t
Str
uct
ura
l fo
rmul
a
I
CII,)X
Y r i //', /.
~ !.I
~. y
I! II
I r"/'
~
, '1
1}
l 'v
/ './'
'''xl
II I
CH
aO/" Y
(Con
tinue
d)
I I
I
Met
al,
prot
on
dono
r, a
ux
il-
iary
sol
vent
s
Li,
NH
'l' 70
1 28
2 C
2H
5OH
, di
oxan
e
Li,
NH
3,
I-I
51
C2H
50H
, (C
2HS}
zO
Li,
NH
a,
I 77
1 21
9 C
2H50
H,
TH
F
.....
0 0 ~ t=ri :E: ~ r ::J t'Il ~ >-cl c:::
::0
t'Il Z
'Tl 2 $:
:>
>-cl o Z
iso-C
H
3 "'/
I 01
1
§J.~II"
CHa
~ I )
,
» H
aC
CHa
"I O
H
I (-I·-
-C
H
NY
"
,V
CHaO
~
I ~ CH
a
~clJ"OH
CH3J
~ I ):
SC4 H
9
HaC
("I O
C2 Ho
oAA
.-i-OC
2H5
I )/!V~
CHa
~ ;
HaC
I O
H
~(,-I __ 'C
HC
H
f' y;
v I
' CH
~I
: C
H2
3 ~H20H
[
CH,,M
Y H
aC I
I
CHa~XY
eH'O~X
Y I
~D/
CHaO
I
I
eHAY
I L
i. ;\J
Ha.
c'll
sOH
, T
HF
Li,
NH
C
2HoO
rf'
(C2H
6)20
Li,
NH
a C
2H5O
H'
(C2H
o)20
1 L
i, N
H
CH
aOC
H2C
H(t
H)C
J 89
1 28
6,
3 28
7
Li,
NH
te
rt-c
,H:6
H
I -I
66
TH
F
'
::0
t>l <
.....
t>l ~
0 "T1 r .....
>-l ~ '"' c:: ~
..... ~ ~ ~ »- >-
l ..... ~ i-'
o i-'
395
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
CH3
(~I-
I OCH
a
~X)/V:-OH
I ::
CH30
~
: C 3B
7
() Ni
'~
Cll
aO
M)<
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
1
CH
a)X
Y
i
O#()
:~Y
Met
al,
prot
on
dono
r, a
uxil
ia
ry s
olve
nts
(Con
tinue
d)
Li,
NH
a,
1 -I
232
C2H~OH,
(C2H
s)P
Li,
NH
a,
tert
-C.H
gOH
, (C
2HslP
Na,
N
Ha,
I
931
288
tert
-C,H
gOH
, T
HF
, (H
C!)
I-'
o N
::0
t%l <
t;:i
::E: ~ t"'" ::J t%l ~ >-l c:::
::0
t%l ~ ~ :>
>-l o Z
397
398 i C
Z!H
280
a
399
I C24
Hao
Os
() rf
Y~b-
oH
CH
30
M)
:
('I~oc
CH
,o,oN
oc,H
,
[pca
CH
~OJ
3
*,[
I '
I '
CH~O ~
/'1 Y
;:~)H
I
(~
~)
~ ('
1-)
OH
ijX"
"'~
CHau
A
) el
l,
("\-(l
/'~'
0
'7''''/
~~UH
(~I_I=O
(V
)/V
o#)~
~
N,.
~H". 17
41 28
8 te
rt-C
4HoO
H,
TH
F.
(HC
I)
Na,
N
Ha.
I -
I 28
8 te
rt-·C
4HoO
H,
TH
F,
(HC
l)
Na.
N
Ha.
I .
-I
289
C~H50H.
(HC
I)
Li,
NH
a•
I-I 1
50
C2H
sOH
, (H
CI)
~
<
,.....
tTl ~ ~
r ~ ~ >-:
l c:::
::0
tTl
,.....
Z
." o ~ » >-:
l o Z
I-'
o C.:l
(Con
tinue
d)
I-'
0
I *'"
Sta
rtin
g m
ater
ial
Rea
ctio
n pr
oduc
t '0"
;;1
Met
al,
prot
on
()
-S:B
ILite
r-N
o.1
dono
r, a
ux
il-
" ....
Em
piri
cal
Str
uct
ura
l fo
rmul
a S
tru
ctu
ral
form
ula
iary
sol
vent
s c:;
2 atu
re
form
ula
'~..c::
I :>-0
....
400 I C
24H
aP6
°t
--O
H
Li,
NH
a,
1-1
29
0
<0 °
HC
C
2H;O
H,
3
HaC;
: )
HO
I
=0
(C
2H5h
O,
---0
C
H V
'" -
---O
H
(HC
OO
H)
I :1 I
I ~
(VJ/
'V
CH
aO'
'"
o,f
,,)
:
1-'" tTl
4011
C24
HaP
:J <
C
II
I U
, N
H3
, 29
1 .....
. '.
3
tTl
~:J
CH
OJ:X
)/
CH
aOC
H2C
H(O
H)C
F:1
~
HaC
I 0 'T
I 3
r 1-0
>-l
tTl ~
CH
aO;
'0/'
'v
"
t-l
C ~
4021
C24
Ha4
04
CH
a C
Ha
Li,
NH
a,
-29
2 .....
. I
Z
PJ
HO
'vA
"i_
C
2H
;OH
'T
I
b ~
HaC
I
! s :>
/,,1 Y
'" t-
l
cH
oA
)",
•
0 C
H30
; 'V
""-/
Z
3
403
»
H3C 0-
0 "'/ f
1iO"
CH
0f::x
YiV" "-
3
404
4051
C2!I
-i a60
S
CHa
((/)~Iv SC
,H"o
;ro
CH
O
.~ I
: 3
/ ,
406
I C2,H
a60
2 H
aC
CH
a (""I
OH
)
.-\ ..
. C,H
9
CH,Q
/(J():
V
I
rn,J
):)
HaC
I I
CII,
)):)
I
CH
aO
)(X
)
HaC
: I
CH
,)):)
Na,
NH
3•
tert
·C,H
gOH
, T
HF
Li,
NH
a,
C2H
.oH
, (C
2H5)
20
Li,
NH
3•
CH
aOH
, (C
~H5)
~O
Li,
NH
3,
C2H
50H
, (C
2Hlih
O
231.
23
2
-·2
79
:;0
~ til ~ ~ r ;:J ~ o-'
l c: Gl Z
'Tl ~ :>
o-'l (3
Z .... o C11
Sta
rtil
1g m
ater
ial
No.
Str
uctu
ral
form
ula
407
ClaH
70H
aNC(' -
1--
-CaH
-
~I )
/tv'
. CH
a ~
.
408
C4H
"
("'I O
H
fX /v
l ---Cz
H"
cHa o
A I
) :
40
9'
C24H
as04
Ha
C,
OH
('"
-1
---C
H2C
H2
M)/
V
~H
I:
I C
HaO
~
(OC
Hah
C25
Rea
ctio
l1 p
rodu
ct
Str
uctu
ral
form
ula
I
CH
aO
/(X
Y
I
CH
aO
/(X
Y
(')
y
CH3aA~)
(Con
tinue
d)
Li,
NH
a•
I-I 25
7 C
H3O
CH
2CH
(OH
)CH
a
Li.
NH
a•
I -I
257
CH
sOC
H2C
H(O
H)C
Ha
Li.
NH
a•
I-I
295
tert
-C4H
90H
, T
HF
~
o en
:;0
tTl <
>-<
tTl :E: o '"Tl
r ::J tTl s: >-l
C ~ Z
'"Tl ~ ::::: ::. >-l (3
Z
410
I C2r>Ha~07
4111
C25
Ha6
0a
C26
4121
C26
Hao
O;1
4131
C26
Ha4
0a
HaC
~OH PJ '0 ~
--OH
I O
H
I" -\
.. -CZH
5
A
fX)/
V
l),,/~I
: o
0
CH3
~X~b-O
COC'H'
CH
30~~
/'
A
HaC
/1
1
I 0
,,/
~ (,,-\.-.C~H
-7')(
)/V
CH
aO ~
I :
11
0"
CH,J:(
9~ I
(),,/(
Xy
o 0
CHa
, ("1
-) Oil
(jX1 ,+:
" C
Hp
A,.
. /:
CB
3
CHml~~CHCH"
Li.
NI-l
3•
I-I
296
C2H
,.OH
Li,
NH
s'
I 88
1 87
tert~C4H90H,
TH
F
Li.
NH
a•
CZH
50H
. (C
2H5h
O
Li,
NH
a•
tert-
C,H
oOH
, T
HF
521
87
~ til ~ o '1
1 r ::J t'l s;: >-:l
C ~ Z
'Tl ~ :>
>-:l o Z
~
o ...:J
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula A
H
aC
/'
,
I 0
'0/
MI'
-j---C
H=
CH
I )<
v 2
CH
aO ~
:
HaC
("'I O
H
HYij--
{CH,
J,CI
CH
aO
A)v
:
H3C
I O
H
(Yl'jJ-~-(?H2)
a cH
pM):
N(~H5)
2
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
ella
fx(t
rCH~
' C
HaO
I)
: I
oJ:X
)
~$
Li,
NH
3,
tert
-C4H
90H
, T
HF
Li.
NH
3•
1-
CH
aOC
H2C
H(O
H)C
Ha
......
o 00
~ trl
:E: ~ r ::J ~ >-
l c:::
fg Z
'Tl 2 ;?:: > >-l @
4191
C27
H3S
03
eHa
~I-oc
(X"'
/"')
O
C6H
s
CH
3C
oo
A I
)
: iC'l
»C
H
10
_ 3
CH
;;C
OO
H
aC ~J
~OH
CH
aO/ W
I CH
a
("1-
1 OH
iX)'/:
," '..
OH
J~
I'
: ,./
C11
a O/
'~
'C=C
C(\H
J~
Cll:
l
("1
-) C8 1
f17
(X/)/
" CH
a O/ ~
.'
/yi,
CH,W
)UJ/
~OH
H3C
C7
0
HO
"'('i-
--OH
(V
)/V
' 0
,/ )"
I
CH:JO~U)
I -,
/',
/'
O?~)
~')/
Li.
NH
a•
C2HsOH
. (C
2Hs)
20
Li.
N
Ha•
C
zHsO
H.
(C2H
s)20
Li.
NH
3•
C2H
sOH.
I (C~
H5)P
· (H
el)
~.
153
G2i
'298
. 29
9
~ ..., tTl ~ o 'TI
t'"' :::J
tTl S; t-'l
C s:; Z
'TI ~ ~ >
t-'l (3
Z
I-'
o CD
Sta
rtin
g m
ater
ial
Str
uctu
ral
form
ula
4211
C2
7H42
02
HaC
I O
H
fYC~
J·-·
CSH1
7-n
cHaOA~)
;
4221
C2
7H42
0a
CHa ("
,I-rm
JX)
/~",<-OH
~ I
;;
CHa
CsH
17
42
3
» »
Rea
ctio
n pr
oduc
t
Str
uctu
ral
form
ula
1
CH):X
Y 1
CHaJ:
XY
»
Met
al,
prot
on
dono
r, a
uxil
ia
ry s
olve
nts
Li,
NH
a•
CjH
sOH
, (C
2H5)
20
Li,
NH
a•
C2H
sOH
, (C
ZH5)
zO
51
-, 2
32
Li,
NH
a•
1 -
1 23
1 te
rt-C
4HDO
H,
(~H5bO
l-'
l-'
o :::0
t"Il <:
I-<
t"
Il :E: o 'TI r :=j
t"Il s: t-:l C f;l Z
'TI ~ :>
t-:l ~
4241
C2sH
,oO
,
° rfx)
~I~
",/~I
: o
0
C29
........
........
........
.......
4251
CZO
H36
03
C 6B
S
N~!b-~
C
Hso
M)
: 42
6 1 C
2DH4
50aN
Ha
C ("'I O
H
oMY,-I-
--(CH 2
)a-N
'-'b
C
I !V
"j
,Ho
~
.
C 32
......
......
......
......
..
427 I C
32H
320
, CH
a
N~~T
~oc,
H,
C6
H5
CO
oM
) :
1
O",/(
XY
° 0
I
CH
,JC
(Y
I
O~(XY 1
CSB 5C
OJC
(Y
Li,
NH
3,
tert
-C,H
gOH
, T
HF
901
87
Na,
NH
s•
I 841
288
te
rt-C,
HgOH
, T
HF
Li,
NH
s'
I-I
297
CH
aOC
H2C
H(O
H)C
Ha.
[(C
OOH)
2J
Li,
NH
a,
C2H
50H
, (C
2H5)
P
-, 1
53
fg
<:
tTi
:E: o 'Tl
r'"
::j
t>l g; ""l
C fg Z
'Tl ~ :>
""l (3
Z ......
......
......
112
Index of Reagents Metal Proton donor Auxiliary solvent Serial numbers
Li CHaOH 44,113 Li CHaOH (C2H5)20 169, 182, 213, 344, 354,
405 Li CHaOH, tert-C4H9OH (C2Hs)20 94, 151 Li CHaOH THF 118, 130, 222, 323 Li CHaOH Dioxane 376 Li CHaOH, tert-C 4H9OH THF 346 Li C2HsOH I, 9, 26, 28, 30, 52, 54,
80, 136, 137, 147, 152, 158, 159, 160, 166, 167, 174, 175, 177, 185, 189, 210, 228, 243, 246, 251, 252, 259, 261, 262, 274, 275, 278, 286, 287, 288, 298, 311, 315, 316, 329, 337, 340, 341, 345, 357, 360, 370, 399, 402, 410, 418
Li C2HsOH (C2Hs)20 12, 16, 33, 37, 39, 70, 73, 87, 91, 92, 95, 98, 107, 108, 109, 132, 144, 145, 153, 154, 169, 171, 181, 183, 187, 199, 202, 207,212,217,218,219, 229, 230, 231, 255, 256, 257, 266,270, 272, 282, 291, 296, 299, 303, 307, 308, 312, 319, 320, 321, 326, 328, 330, 332, 332, 351, 355, 363, 367, 380, 381, 383, 386, 389, 390, 393, 400, 404, 406, 412, 417, 419, 420, 421, 422, 427
Li C2HsOH (C2Hs~0 260 Li C2HsOH (C2Hs )20, THF 220, 226, 273, 293, 309 Li C 2HsOH (C2Hs)20, dioxane 164, 214, 244, 239
INDEX OF REAGENTS 113
(Continued)
Metal Proton donor Auxiliary solvent Serial numbers
Li C2HsOH Dioxane 211, 242, 254, 276, 279, 300, 301, 324, 331, 349, 362, 377, 384, 385
Li C2HsOH THF 114, 178, 179, 191, 203, 204, 209, 216, 232, 238, 240, 248,265,267,268, 271, 281, 284, 285, 292, 305, 317, 318, 322, 323, 327, 348, 350, 364, 378, 387, 388
Li C2HsOH (C~OCHS}2 120 Li C2HsOH, iso-CsH70H (C~OCHs~ 96 Li C2HsOH, tert-C 4HgOH THF 369 Li iso-CsH70H Diglyme, 1HF 264 Li tert-C 4HgOH 3, 13, 15, 34, 40, 62,
82, 85, 103, 126, 227, 342, 343
Li tert -C 4HgOH (C2Hs}20 167, 184, 283, 394, 423 Li tert -C 4HgOH (C2Hs~O, THF 239 Li tert -C4 HgOH THF 186, 188, 192, 200, 201,
222, 234, 235, 236, 237, 249, 269, 282, 290, 302, 310, 314, 323, 335, 336, 368, 371, 372, 373, 375, 392, 409, 411, 413, 414, 424
Li Pyrrole 366 Li CHsOCH(OH}CHs 415 Li CHsOC ~CH(OH)C Hs 205, 221, 253, 352, 391,
401,407,408,416,426 Li CHsOCH2CH(OH}CHs (C2Hs~O, lHF 365 Li CHsOCH2CH(OH}CHs THF 325 Li CHsOC~CH(OH}CH3 Dioxane 233 Li CHsO(CH2}sOH 353,359 Li tert -CsHuOH 215 Na CHsOH 5, 10, 18, 20, 21, 27,
35, 45, 48, 49, 50, 53, 55, 77, 90, 102, 106,
114 INDEX OF REAGENTS
(Continued)
Metal Proton donor Auxiliary solvent Serial numbers
110, 111, 131, 149, 150, 155, 161, 163, 277
Na CHsOH (C2Hs)20 47, 74, 75, 88, 99, 223
Na CHsOH THF 323
Na CHsOH, tert-C 4 HgOH (C2H5)20 97 Na CHsOH, tert -C 4HgOH THF 133, 374, 379 Na C2H5OH 2,4,6,7, II, 14, 17,
19, 22, 24, 25, 29, 31, 36, 38, 41, 42, 43, 51, 56,57, 59, 60, 61, 63, 64,69,71,72,78,79, 81, 83, 84, 86, 89, 93, 101, 105, 117, 119, 121, 122, 123, 124, 125, 129, 143, 146, 148, 157, 165, 170, 196, 250, 313, 333, 361, 398
Na C2HsOH (C2H5)20 65, 66, 100, 104, 128, 134, 140, 172, 173, 295, 304
Na C2H5OH THF 112, 115, 116, 127, 135, 138, 139, 141, 142, 176, 180, 323
Na C2HsOH Dioxane 206, 263
Na C2H5OH C6H5NH2 245
Na iso-CsH7OH 338
Na iso -CSH70H (C2Hs)20 224
Na tert -C 4HgOH 195
Na tert -C 4HgOH THF 197, 225, 323, 347, 395, 396, 397, 403, 425
Na tert -C5Hll0H 67, 68
K CHsOH 194
K CHsOH THF 222, 323
K C2H5OH 241, 334
K,Li C2H5OH 198, 247, 306, 356, 358
K C2HsOH (C2H5~O 190
K,Li C2H5OH (C2H5)20, THF 208, 258
K,Li C2H50H THF 297
INDEX OF REAGENTS 115
(Continued)
Metal Proton donor Auxiliary solvent Serial numbers
K C2H5OH THF 222, 323 K tert -C 4H90 H 32, 58 K tert -C4~OH THF 222, 323 Mg C2 H5OH (C2H5)20 8, 23, 46, 76 Ca tert -C4~OH THF 193
Literature Cited
1. A. J. Birch, Ann. Repts. Progr. Chern., 1950:210. 2. A. J. Birch, Quart. Rev. Chern. Soc., 4:69 (1950). 3. G. W. Watt, Chern. Rev., 46:289 (1950). 4. A. J. Birch and H. Smith, Quart. Rev., 12:17 (1958). 5. H. Smith, Organic Reactions in Liquid Ammonia, Braunschweig (1963). 6. u. S. Patent No. 2,182,242; Chern. Abstr., 34:1993 (1940). 7. A. J. Birch, J. Chern. Soc., 1944:430. 8. A. P. Krapcho and A. A. Bothner-By, J. Am. Chern. Soc., 81:3658 (1959). 9. A. J. Birch and D. Nasipuri, Tetrahedron, 6:148 (1959).
10. A. L. Wilds and N. A. Nelson, J. Am. Chern. Soc., 75:5366 (1953). 11. H. L. Dryden, G. M. Webber, R. R. Burtner, and J. A. Cella, J. Org.
Chern., 26:3237 (1961). 12. J. E. Eastham and D. R. Larkin, J. Am. Chern. Soc., 81:3652 (1959). 13. H. M. McConnell and C. H. Holm, J. Chern. Phys., 26:1517 (1951). 14. D. Lipkin, D. E. Paul, J. Townsend, and S. I. Weissman, Science, 117:
534 (1953). 15. T. R. Tuttle and S. 1. Weissman, J. Am. Chern. Soc., 80:5342 (1958). 16. D. E. Paul, D. L. Lipkin, and S. 1. Weissman, J. Am. Chern. Soc., 78;
116 (1956). 17. W. Hiickel and H. Bretschneider, Ann. Chern., 540:157 (1939). 18. A. Streitwieser, and S. Suzuki, Tetrahedron, 16:153 (1961). 19. W. Hiickel, B. Graf, and D. Miinkner, Ann., 614:46 (1958). 20. W. Hiickel and G. Graner. Chern. Ber., 90: 201 7 (1957). 21. H. E. Zimmermann, Tetrahedron, 16:169 (1961). 22. G. Stork and W. N. White, J. Am. Chern. Soc., 78:4605 (1956). 23. A. J. Birch, J. Chern. Soc., 1946:593. 24. A. J. Birch, J. Chern. Soc., 1947:102. 25. H. Plieninger and G. Ege, Angew. Chern., 70:505 (1958). 26. H. Plieninger, G. Ege, F. Jung, and W. Maier-Borst, Chern. Ber., 94:2088
(1961 ). 27. M. E. Kuehne and B. F. Lambert, J. Am. Chern. Soc., 81:4278 (1959). 28. W. S. Johnson, W. A. Vredenburgh, and J. E. Pike, J. Am. Chern. Soc.,
82:3409 (1960).
116
LITERATURE CITED 117
29. A. L. Wilds and N. A. Nelson, J. Am. Chern. Soc., 75:5360 (1953). 30. B. B. Millward, J. Chern. Soc., 1960:26. 31. A. A. Akhrern and Yu. A. Titov, Usp. Khirn., 33:151 (1964). 32. B. Pelt. Chern. Listy, 53:1032 (1959). 33. C. Djersassi, Steroid Reactions, Holden-Day, San Francisco (1963). 34. A. A. Akhrern and Yu. A. Titov, Total Steroid Synthesis [in Russian],
Izd. "Nauka" (1967) [English translation: Plenum Press, New York and London (1970)].
35. W. Nagata, T. Sugasawa, M. Narisada et al., J. Am. Chern. Soc., 85: 2345 (1963).
36. J. A. Swan, J. Chern. Soc., 1950:1534. 37. G. Stork and 1. W. Schulenberg, J. Am. Chern. Soc., 78:250 (1956). 38. A.1. Birch and S. M. Mukherji, J. Chern. Soc., 1949:2531. 39. S. M. Mukherji and N. K. Bhattacharyya, J. Am. Chern. Soc., 75:4698
(1953). 40. G. S. Krishna Rao and 1. Sukh Dev, J. Indian Chern. Soc., 34:255 (1957). 41. 1. A. Barltrop and N. A. J. Rogers, J. Chern. Soc., 1958:2567. 42. N. G. Kundu, S. M. Mukherji, and P. C. Dutta, Tetr. Lett., 1962:627. 43. P. De Mayo, The Higher Terpenoids, Interscience, New York (1959)
[Russian translation], Izd. "Mir" (1963). 44. J. A. Barltrop and N. A. J. Rogers, Chern. and Ind., 1957:20. 45. G. Stork, A. Meisels, and J. E. Davies, 1. Am. Chern. Soc., 85:3419
(1963). 46. W. Hlickel and H. Schlee, Chern. Ber., 88:346 (1955). 47. A. J. Birch, A. R. Murray, and H. Smith, J. Chern. Soc., 1951:1945. 48. G. W. Watt, C. M. Knowles, and 1. O. Morgan,]. Am. Chern. Soc., 69:
1657 (1947). 49. M. F. Ansell and G. J. Brooks, J. Chern. Soc., 1961:201. 50. M. Kocor and W. Kotlarek, Bull. Acad. Polon. ScL, Ser. Sci. Chirn., 9:
507 (1961).
51. F. B. Colton, 1. N. Nysted, B. Riegel, and A. 1. Raymond, J. Am. Chern. Soc., 79:1123 (1957).
52. I. V. Gostunskaya, M. 1. Rozhkova, and B. A. Kanzanskii, Dokl. Akad. Nauk SSSR, 114:545 (1957).
53. H. Greenfield, R. A. Friedel, and M. Orchin, J. Am. Chern. Soc., 76: 1258 (1954).
54. British Patent No. 807,225; Chern. Abstr., 53:13,208 (1959). 55. Belgian Patent No. 638,080; Chern. Abstr., 62:7846 (1965). 56. S. N. Ananchenko and 1. V. Torgov, Tetrahedron Lett., 1963:1553.
57. B.]. Magerlein and J. A. Hogg, J. Am. Chern. Soc., 80:2220 (1958). 58. W. S. Johnson, B. Bannister, R. Pappo and J. E. Pike, J. Am. Chern. Soc.,
78:6354 (1956).
118 LITERA TURE CITED
59. W. S. Johnson, E. R. Rogier, Szrnuszkowicz et aI., J. Am. Chern. Soc., 78:6289 (1956).
60. W. Nagata, S. Hirai, T. Terasawa, and K. Takeda, Chern. Pharrn. Bull. (Tokyo), 9:769 (1961).
61. K. K. Koshoev, S. Ananchenko, and I. V. Torgov, Khirn. Prirodn. Soedin., 1 :180 (1965).
62. A. J. Birch, J. Chern. Soc., 1947:1642. 63. S. G. Strel'tsova, and E. A. Shilov, Ukr. Khirn. Zh., 22:489 (1956). 64. J. A. Cella and C. M. Kagan, J. Am. Chern. Soc., 79:4808 (1957). 65. J. A. Cella, E. A. Brown, and R. R. Burtner, J. Org. Chern., 24:743 (1959). 66. British Patent No. 843,155; Chern. Abstr., 55:6544 (1961). 67. J. W. Cornforth and R. Robinson, J. Chern. Soc., 1946:676. 68. A. R. Pinder and H. Smith, 1. Chern. Soc., 1954:113. 69. French Patent No. 1,164,509; Chern. Abstr., 54:18,599 (1960). 70. u. S. Patent No. 2,838,529; Chern. Abstr., 52:16,423 (1958). 71. G. F. R. Patent No. 926,552; Chern. Abstr., 52:2105 (1958). 72. L. Miramontes, G. Rosenkranz, and C. Djerassi, J. Am. Chern. Soc.,
73: 3540 (1951). 73. U. S. Patent No. 2,759,951; Chern. Abstr., 51:2894 (1957). 74. L. Miramontes, G. Rosenkranz, and C. Djerassi, J. Am. Chern. Soc., 75:
4440 (1953). 75. G. Stork, H. N. Khastgir, and A. J. Solo, J. Am. Chern. Soc., 80:6457
(1958). 76. A. J. Birch, P. Nextall, and S. Sternhell, Australian J. Chern., 7:256
(1954). 77. 1. A. Barltrop and A. C. Day, J. Chern. Soc., 1959:671. 78. A. Tahara, O. Hoshino, and Y. Harnazaki, Chern. Pharrn. Bull. (Tokyo),
11:1328 (1963). 79. U. S. Patellt No. 2,925,427; Chern. Abstr., 54:15,456 (1960). 80. N. M. Przhiyalovskaya, V. F. Shner, M. L. Mel'nikova, and V. N.
Belov, Zh. Obshch. Khirn., 33:635 (1963). 81. L. Novak and M. Protiva, Chern. Listy, 50:1995 (1956). 82. W. S. Johnson, A. D. Kemp, R. Pappo, et aI., 1. Am. Chern. Soc., 78:
6312 (1956). 83. H. Kaneko, M. Hashimoto, Y. Mitta, and K. Kawase, Chern. Pharrn.
Bull. (Tokyo), 11:264 (1963). 84. o. L. Chapman and P. Fitton, J. Am. Chern. Soc., 85:41 (1963).
85. B. Weintstein and A. H. Fenselau, J. Org. Chern., 30:3209 (1965). 86. N. N. Gaidarnovich and I. V. Torgov, Izv. Akad. Nauk SSSR, Otd. Khirn.
Nauk,1961:1803. 87. C. Gandolfi and P. de Ruggieri, Gazz. Chirn. Ital., 94:675 (1964). 88. P. de Ruggieri and C. Ferrari, Ann. Chirn. (Rorna), 48:1042 (1958).
LITERATURE CITED 119
89. R. Bucourt, J. Tessier, and G. Nomine, Bull. Soc. Chirn. Franc., 1963: 1923.
90. J. S. Mills, H. J. Ringold, and C. Djerassi, J. Am. Chern. Soc., 80:6118 (1958).
91. w. S. Johnson, B. Bannister, and R. Pappo, J. Am. Chern. Soc., 78:6331 (1956).
92. V. M. Rzheznikov, S. N. Ananchenko, and I. V. Torgov, Izv. Akad. Nauk SSSR, Otd. Khirn. Nauk, 1962:465.
93. H. J. Ringold, G. Rosenkranz, and F. Sondheimer, J. Am. Chern. Soc., 78:2477 (1956).
94. British Patent No. 777,682; Chern. Abstr., 52:2943 (1958). 95. J. P. Wibaut and F. A. Haak, Rec. Trav. Chirn., 67:85 (1948). 96. A. J. Birch, Nature (London), 160:754 (1947). 97. P. Markov and K. Ivanov, Tetrahedron Lett., 1962:1139. 98. A. J. Birch and P. Hextall, Australian J. Chern., 8:96 (1955). 99. E. A. Braude, A. A. Webb, and M. U. S. Sultanbawa, 1. Chern. Soc.,
1958:3328. 100. A. J. Birch, J. Chern. Soc., 1950:1551. 101. M. E. McEntel and A. R. Rinder, J. Chern. Soc., 1957:4419. 102. W. HUckel and U. Werfel, Chern. Ber., 88:338 (1955). 103. J. A. K. Quartey, J. Indian Chern. Soc., 37:731 (1960). 104. R. Grewe and H. W. Otto, Chern. Ber., 92:644 (1959). 105. R. Ya. Levina, V. N. Kostin, P. A. Gernbitskii, and E. G. Treshchova,
Zh. Obshch. Khirn., 31:829 (1961). 106. E. Giovannini and H. WegrnUller, Helv. Chirn. Acta, 41:933 (1958). 107. R. Anliker, A. S. Lindsey, D. E. Nettleton, and R. B. Turner, J. Am.
Chern. Soc., 79:220 (1957). 108. R. Grewe and H. W. Otto, Chern. Ber., 92:644 (1959).
109. A. J. Birch, J. A. K. Quartey, and H. Smith, J. Chern. Soc., 1952:1768. 110. R. Grewe, E. Notte, and R. H. Rotzoll, Chern. Ber., 89:600 (1956)~ 111. E. L. Eliel and T. E. Hoover, J. Org. Chern., 24:938 (1959). 112. W. Hiickel, R. Cramer, and S. Laufer, Ann. Chern., 630:89 (1960). 113. A. J. Birch, P. Fitton, D. C. C. Smith, et al., J. Chern. Soc., 1963:2209. 114. N. N. Gaidarnovich and I. V. Torgov, Izv. Akad. Nauk SSSR, Otd. Khim.
Nauk, 1961, 1162. 115. U. S. Patent No. 3,155,694; Chern. Abstr., 62:614 (1965). 116. A. J. Birch, D. Nasipuri, and H. Smith, Experientia, 15:126 (1959). 117. Belgian Patent No. 638,079; Chern. Abstr., 62:11876 (1965). 118. J. Diekmann, W. R. Hertler, and R. E. Benson, J. Org. Chern., 28:2719
(1963). 119. H. J. Dauben and D. J. Bertelli, J. Am. Chern. Soc., 83:4657 (1961). 120. P. Radlick, 1. Org. Chern., 30:3208 (1965).
120 LITERATURE CITED
121. D. K. Banerjee, J. Dutta, A. S. Rao, and E. ]. Jacob, Tetrahedron, 8~163 (1960 ).
122. J. A. K. Quartey, J. Indian Chern. Soc., 37:731 (1960). 123. G. Stork, S. S. Wagle, and P. C. Mukharji, ]. Am. Chern. Soc., 75:3197
(1953). 124. S. Meier, Bull. Acad. Polon. ScL, Ser. Sci. Chirn., 9:773 (1961). 125. W. Hiickel and C. M. Jennewein, Chern. Ber., 96:442 (1963). 126. S. Meier, Bull. Acad. Polon. Sci., Ser. Sci. Chirn., 10:469 (1962). 127. 1. Fried and N. A. Abraham, Tetrahedron Lett., 1965:3505. 128. S. Meier, Bull. Acad. Polon. ScL, Ser. Sci. Chern., 10:463 (1962). 129. M. V. R. Koteswara Rao, G. S. Krishna Rao, Sukh Dev, Tetrahedron Lett.,
1960: 27, 27. 130. V.1. Maksirnov and G. S. Grinerrko, Zh. Obshch. Khirn., 29:2056 (1959). 131. G. S. Grinenko and V. 1. Maksirnov, Dokl. Akad. Nauk SSSR, 112:1059
(1957).
132. F. H. Howell and D. A. H. Taylor, J. Chern. Soc., 1959:1607. 133. L. 1. Chinn and H. L. Dryden, ]. Org. Chern., 26:3904 (1961). 134. 1. Velluz, G. Nomine, ]. Mathieu, et al., Cornpt. Rend., 250:1084 (1960) 135. S. K. Balasubrarnanian, Tetrahedron, 12:196 (1961). 136. F. H. Howell and D. A. H. Taylor, J. Chern. Soc., 1959:1607. 137. W. S. Johnson, S. Shulman, K. L. Williamson, and R. Pappo, J. Org.
Chern., 27:2015 (1962). 138. G. Stork, H. J. E. Lowenthal, and P. S. Mukherji, J. Am. Chern. Soc.,
78:501 (1956). 139. W. Nagata, T. Terasawa, and T. Aoki, Tetrahedron Lett., 1963:865. 140. U. S. Patel1t No. 3,190,879; Chern. Abstr., 63:10,032 (1965). 141. D. K. Banerjee, H. N. Kastgir, ]. Dutta, et al., Tetrahedron Lett., 1961:
76. 142. Z. G. Hajos, D. R. Parrish, and M. W. Goldberg, J. Org. Chern., 31:7l3
(1966). 143. u. S. Patent No. 3,041,372; Chern. Abstr., 58:4490 (1963). 144. u. S. Patent No. 2,894,958; Chern. Abstr., 53:20,010 (1959). 145. G. Nomine, R. Bucourt, J. Tessier, et al., Cornpt. Rend., 260:4545
(1965). 146. Dutch Patent Application No. 6411300; Chern. Abstr., 63:10031 (1965). 147. British Patent No. 979,898; Chern. Abstr., 63:3020 (1965). 148. Z. G. Hajos, C. P. Parios, and M. W. Goldberg, ]. Org. Chern., 31:1360
(1966). 149. R. H. Jaeger, Tetrahedron, 2:326 (1958). 150. V. F. Kucherov and 1. A. Gurvich, Zh. Obshch. Khim., 31:796 (1961). 151. Belgian Patent No. 657,257; Chern. Abstr., 64:5184 (1966). 152. A. J. Birch, E. Pride, and H. Smith, J. Chern. Soc., 1958:4688.
LITERATURE CITED 121
153. J. A. Hartman, A. J. Tornasewski, and A. S. Dreiding, J. Am. Chern. Soc., 78:5662 (1956).
154. u. S. Patent No. 2,972,623; Chern. Abstr., 55:12,462 (1961).
155. H. Smith, G. H. Douglas, and C. R. Walk, Experientia, 20:418 (1964). 156. u. S. Patent No. 2,971,009; Chern. Abstr., 55:25896 (1961). 157. W. H. Pirkle and M. Gates, 1. Org. Chern., 30:1769 (1965). 158. Belgian Patent No. 647,699; Chern. Abstr., 63:11664 (1965). 159. R. F. Church, R. E. Ireland, and 1. A. Marshall, Tetrahedron Lett., 1960:
No.17,1. 160. E. Wenkert, V. 1. Stenberg, and P. Beak, J. Am. Chern. Soc., 83:2320
(1961 ). 161. R. H. Bible and R. R. Burtner, 1. Org. Chern., 26:1174 (1961). 162. A.1. Birch and H. Smith, 1. Chern. Soc., 1951:1882. 163. A.1. Birch and]. A. K. Quartey, Chern. and Ind., 1953:489. 164; J. Hannah and]. H. Fried, J. Med. Chern., 8:536 (1965). 165. W. F. Johns, ]. Org. Chern., 28:1856 (1963). 166. u. S. Patent No. 3,016389; Chern. Abstr., 57:9923 (1962). 167. ]. Fried and N. A. Abraham, Tetrahedron Lett., 1964:1879. 168. W. S. Johnson, H. C. Dehrn, and L.1. Chinn, 1. Org. Chern., 19:670
(1954). 169. Dutch Patent No. 89,813; Chern. Abstr., 54:2424 (1960). 170. U. S. Patent No. 2,744,122; Chern. Abstr., 51:510 (1957). 171. G. F. R. Patent No. 1,093,360; Chern. Abstr., 55:27,426 (1961). 172. U. S. Patent No. 2,930,805; Chern. Abstr., 54:19,768 (1960). 173. U. S. Patent No. 2,874,173; Chern. Abstr., 53:17,193 (1959). 174. Dutch Patent Application No. 6400153; Chern. Abstr., 62:9201 (1965). 175. French Patent No. 1,368,728; Chern. Abstr., 62:4098 (1965). 176. Swiss Patent No. 325,453; Chern. Abstr., 53:17,191 (1959). 177. E. Caspi and Ii. M. Piatak, J. Org. Chern., 29: 2948 (1964). 178. ]. Fishman and M. Tornasz, J. Org. Chern., 27:365 (1962). 179. ]. Fishman, Chern. and Ind., 1958:1556. 180. C. H. Robinson, O. Gno), and E. P. Oliveto, J. Org. Chern., 25:2247
(1960). 181. Dutch Patent No. 90,774; Chern. Abstr., 54:13,178 (1960). 182. u. S. Patent No., 2,785,189; Chern. Abstr., 51:10,602 (1957). 183. u. S. Patent No., 3,076827; Chern. Abstr., 60:610 (1964). 184. USSR Authors' Certificate No. 162,529; Chern. Abstr., 61:13,381 (1964). 185. K. K. Koshoev, S. N. Ananchenko, and 1. V. Torgov, Khirn. Prirodn.
Soedin., 1:180 (1965). 186. u. S. Patent No. 2,806,030; Chern. Abstr., 52:9234 (1958). 187. B. Pele, ColI. Czech. Chern. Cornrn., 27:2706 (1962). 188. Czechoslovakian Patent No. 105,236; Chern. Abstr., 60:8096 (1964).
122 LITERATURE CITED
189. J. M. H. Graves, G. A. Hughes, T. Y. Jen, and H. Smith, J. Chern. Soc., 1964:5488.
190. G. R. Pettit, U. R. Ghatak, B. Green, et al., J. Org. Chern., 26:1686 (1961 ).
191. U. S. Patent No. 3,192,257; Chern. Abstr., 63:13,360 (1965). 192. U. S. Patent No. 2,885,413; Chern. Abstr., 53:20,138 (1959). 193. French Patent No. 1,404,412; 64:2147 (1966). 194. Dutch Patent No. 295,318; Chern. Abstr., 63:16416 (1965). 195. S. Bernstein and E. W. Cantrall, J. Org. Chern., 26:3560 (1961). 196. O. Schlinder, Helv. Chirn. Acta, 42:1955 (1959). 197. u. S. Patent No. 2,957,896; Chern. Abstr., 55:6511 (1961). 198. J. F. Bagli, Canadian J. Chern., 40:2032 (1962). 199. A. J. Birch, G. A. Hughes, and H. Smith, J. Chern. Soc., 1958:4774. 200. A. J. Birch and H. Smith, J. Chern. Soc., 1956:4909. 201. U. S. Patent No. 2,810,758; Chern. Abstr., 52:2949 (1958). 202. W. S. Johnson, B. Bannister, B. M. Bloom, et al.. J. Am., Chern. Soc.,
75:2275 (1953). 203. W. Nagata, T. Terasawa, S. Hirai, and K. Takeda, Tetrahedron Lett.,
1960:17, 27. 204. Japanese Patent No. 18,373/63; Chern. Abstr., 60:4214 (1964). 205. J. P. Kutney, J. Winter, W. McCrae, and A. By, Canadian J. Chern., 41:
470 (1963). 206. USSR Authors' Certificate No. 147,589; Chern. Abstr., 58:1516 (1963). 207. V. M. Rzheznikov, S. N. Ananchenko, and I. V. Torgov, Khirn.
Prirodn. Soedin., 1:7 (1965). 208. A. J. Birch and S. M. Mukherji, Nature (London), 163:766 (1949). 209. British Patent No. 922,877; Chern. Abstr., 59:14,060 (1963). 210. E. Caspi and P. K. Grover, Tetrahedron Lett., 1963:591. 211. N. A. Nelson and R. B. Garland, 1. Am. Chern. Soc., 79:6313 (1957). 212. V. M. Rzheznikov, S. N. Ananchenko, and I. V. Torgov, Khirn.
Prirodn. Soedin., 1 :90 (1965). 213. S. N. Ananchenko, V. E. Lirnanov, V. N. Leonov, et al., Tetrahedron,
18:1355 (1965). 214. S. N. Ananchenko, V. M. Rzheznikov, V. N. Leonov, and I. V. Torgov,
Izv. Akad. Nauk SSSR, Otd. Khirn. Nauk, 1961:1913. 215. W. Nagata, T. Terasawa, and T. Aoki, Chern. Pharrn. Bull. (Tokyo), 11:
819 (1963).
216. J. A. Edwards, P. Crabbe, and A. Bowers, J. Am. Chern. Soc., 85:3313 (1963).
217. H. H. Inhoffen, Angew. Chern., 76:235 (1964). 218. H. H. Inhoffen, D. Kampe, C. Cordes, et al., Ann. 674:36 (1964). 219. H. Smith, G. A. Hughes, G. H. Douglas, et al., 1. Chern. Soc., 1964:
4472.
LITERATURE CITED 123
220. Y. Yarnato and K. Kaneko, Tetrahedron, 21:2501 (1965). 221. Belgian Patent No. 660,312; Chern. Abstr., 64:785 (1966). 222. F. A. Kincl and M. Garcia, Chern. Ber., 92:595 (1959). 223. u. S. Patent No. 3,049,555; Chern. Abstr., 59:1712 (1963). 224. C. Djerassi, L. Miramontes, G. Rosenkranz, and F. Sondheimer, J. Am.
Chern. Soc., 76:4092 (1954). 225. u. S. Patent No. 2,905,676; Chern. Abstr., 54:3518 (1960). 226. u. S. Patent No. 3,076,826; Chern. Abstr., 59:8833 (1963). 227. A. J. Birch and R. Harrison, Australian J. Chern., 8:519 (1955). 228. w. S. Johnson and K. Y. Yorka, Tetrahedron Lett., 1960, No.8, 11. 229. Japanese Patent No. 21,373/63; Chern. Abstr., 60:3038 (1964). 230. u. S. Patent No. 2,991,295; Chern. Abstr., 57:12,590 (1962). 231. British Patent No. 909,373; Chern. Abstr. 59:6483 (1963). 232. u. S. Patent No. 3,042,689; Chern. Abstr., 57:15,186 (1962). 233. W. S. Johnson, R. Pappo, and W. F. Johns., J. Am. Chern. Soc., 78:
6339 (1956). 234. W. S. Johnson, R. Pappo, and A. D. Kemp, J. Am. Chern. Soc., 76:3353
(1954). 235. Belgian Patent No. 648,058; Chern. Abstr., 63:16,428 (1965). 236. A. K. Hiscock and 1. S. Whitehurst, J. Chern. Soc., 1965:5772. 237. T. 1. Sorkina, 1. 1. Zaretskaya, and 1. V. Torgov, Izv. Akad. Nauk SSSR,
Ser. Khirn., 1964:2021. 238. K. K. Koshoev, S. N. Ananchenko, A. V. Platonova, and 1. V. Torgov,
Izv. Akad. Nauk SSSR, Ser. Khirn., 1963:2058. 239. B. J. Magerlein and J. A. Hogg, J. Am. Chern. Soc., 80:2226 (1958). 240. British Patent No. 863,400; Chern. Abstr., 55:21,170 (1961). 241. U. S. Patent No. 3,062,713; Chern. Abstr., 58:8002 (1963).
242. B. J. Magerlein and J. A. Hogg, J. Am. Chern. Soc., 79:1508 (1957). 243. u. S. Patent No. 2,820,045; Chern. Abstr., 52:10,230 (1958). 244. French Patent 1,393,648; Chern. Abstr., 63:8450 (1965). 245. A. Sandoval, G. H. Thomas, C. Djerassi, et al., J. Am. Chern. Soc., 77:
148 (1955).
246. A. Corbellini, G. Gerali, G. Ferrara, and G. Lugaro, Farrnaco (Pavia), Ed. Sci., 19:913 (1964).
247. Japanese Patent No. 17,030/63; Chern. Abstr., 55:17,691 (1961). 248. Dutch Patent Application No. 6402609; Chern. Abstr., 62:14,775 (1965). 249. P. de Ruggieri, Gazz. Chirn. Ital" 87:795 (1957). 250. A. J. Birch, J. M. Graves, and G. S. R. Subba Rao, J. Chern. Soc., 1965:
5137. 251. P. Kurath and W. Cole, J. Org. Chern., 26:4592 (1961). 252. Belgian Patent No. 632,346; Chern. Abstr., 61:4457 (1964). 253. K. Hiraga, T. Asako,and T. Miki, Chern. Pharm. Bull (Tokyo), 13:
1294 (1965).
124 LITERATURE CITED
254. U. S. Patent No. 3,086,027; Chern. Abstr., 59:10,182 (1963). 255. R. Y. Kirdani and R. 1. Dorfman, ]. Med. Chern., 8:268 (1965). 256. British Patent No. 776,42':; Chern. Abstr., 52:463 (1958). 257. French Patent No. 1,341,755; Chern. Abstr., 60:10,753 (1964). 258. Dutch Patent No. 292,815; Chern. Abstr., 64:2148 (1966). 259. Japanese Patent No. 19,447/64; Chern. Abstr., 62:10,484 (1965). 260. K. Takeda, T. Korneno, N. Tokutake, and Y. Kanernatsu, Chern. Pharrn.
Bull. (Tokyo), 12:965 (1964). 261. French Patent No. 1,350,339; Chern. Abstr., 61:703 (1964). 262. U. S. Patent No. 3,194,821; Chern. Abstr., 63:8449 (1965). 263. A. J. Birch, ]. Chern. Soc., 1950:367. 264. U. S. Patent No. 3,020,296; Chern. Abstr., 57:915 (1962). 265. F. L. Weisenborn and H. E. Applegate, ]. Am. Chern. Soc., 78:2021
(1956).
266. S. N. Ananchenko, A. V. Platonova, V. N. Leonov, and 1. V. Torgov, Izv. Akad. Nauk SSSR, Otd. Khirn. Nauk, 1961:1074.
267. W. S. Johnson, B. Bannister, R. Pappo, and J. E. Pike, J. Am. Chern. Soc., 77:817 (1955).
268. D. Bum,]. W. Ducker, B. Ellis, et aI., 1. Chern. Soc., 1963:4242. 269. D. Bum, M. T. Davies, and V. Petrow, Steroids, 3:583 (1964). 270. Belgian Patent No. 611,997; Chern. Abstr., 58:12,632 (1963). 271. W. F. Johos and E. A. Brown,]. Org. Chern., 31:2099 (1966). 272. Dutch Patent Application No. 6503505; Chern. Abstr., 64:5169 (1966). 273. U. S. Patent No. 2,952,676; Chern. Abstr., 55:5600 (1961). 274. S. N. Ananchenko, V. N. Leonov, A. V. Platonova, and 1. V. Torgov,
Dokl. Akad. Nauk SSSR, 135:73 (1960). 275. C. Djerassi, A. E. Lippman, and J. Grossman, J. Am. Chern. Soc., 78:
2479 (1956). 276. D. Bum and V. Petrow, ]. Chern. Soc., 1962:364. 277. V. N. Leonov, E. V. Shapkina, S. N. Ananchenko, and 1. V. Torgov,
Izv. Akad. Nauk SSSR, Ser. Khirn., 1964:375. 278. K. Hiraga, Chern. Pharrn. Bull. (Tokyo), 13:1289 (1965). 279. British Patent No. 842,303; Chern. Abstr., 55:4592 (1961). 280. Japanese Patent No. 5824/65; Chern. Abstr., 62:16,336 (1965). 281. French Patent No. 1,363,733; Chern. Abstr., 62:9204 (1965). 282. 1. 1. Brown and S. Bernstein, J. Org. Chern., 26:5033 (1961). 283. A. Zaffaroni. H. J. Ringold, G. Rosenkranz, et al., 1. Am. Chern. Soc.,
80:6110 (1958). 284. A. Zaffaroni, H. J. Ringold, G. Rosenkranz, et aI., 1. Am. Chern. Soc.,
76:6210 (1954). 285. U. S. Patent No.2, 781,365; Chern. Abstr., 51:11,405 (1957).
LITERATURE CITED 125
286. British Patent No. 850,386; J. Appl. Chern., 12:841 (1962); Chern. Abstr., 56:8800 (1962).
287. u. S. Patent No. 2,940,990; Chern. Abstr., 55:627 (1961). 288. T. B. Windholz, R. D. Brown, and A. A. Patchett, Steroids, 6:409 (1965). 289. L. Velluz, G. Nomine, R. Bucourt, et al.. Tetrahedron Lett., 1961, 127. 290. British Patent No. 886,961; Chern. Abstr., 57:920 (1962). 291. British Patent No. 781,833; Chern. Abstr., 52:9232 (1958). 292. u. S. Patent No. 3,027,409; Chern. Abstr., 57:9928 (1962). 293. u. S. Patent No. 2,863,862; Chern. Abstr., 53:11,452 (1959). 294. u. S. Patent No. 3,179,673; Chern. Abstr., 63:10,026 (1965). 295. u. S. Patent No. 3,137,690; Chern. Abstr., 61:4428 (1964). 296. u. S. Patent No. 2,913,456; Chern. Abstr., 54:3532 (1960). 297. u. S. Patent No. 3,184,486; Chern. Abstr., 63:7083 (1965). 298. L. Velluz, B. Goffinet, J. Warnant, and G. Arniard, Bull. Soc. Chern.,
1957:1289. 299. French Patent No. 1,192,187; Chern. Abstr., 56:3550 (1962).