Handbook of Functionalized Organometallics Applications in S

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366 8 Polyfunctional 1,1-Organodimetallic for Organic Synthesis enol ether carrying C±Zn bond. [39]. These zinc-substituted silyl enolates can be used for a coupling reaction. Aconjugate addition of 1,1-bis(iodozincio)ethane to a,b-unsaturated ketone arises the interest for diastereoselectivities. As shown in Scheme 8.35, its diastereoselective 1,4-additions of 1,1-bis(iodozincio)ethane were performed to give a secondary organozinc reagent with diastereomercally enriched form [40]. R Ph Ph O Ph Ph OSiMe3 ZnI 1) Me 3SiCl 2) CH 2(ZnI) 2 4 20 ºC ,0.5h 1) Pd(0)(0.05) 2) Ph-I (1.3 ) 20 ºC ,1h R Ph Ph Ph 1) CuCN•2LiCl (1.1 eq ) 2) H2C=CHCH2Br (1.0 eq ) 3) H2O OSiMe3 ZnI –10 ºC ,1h ZnI Ph OSiMe 3 Ph Ph OSiMe 3 Pd(0) Pd 2dba 3 •CHCl 3 /[3,5-(CF 3) 2C 6H 3] 3P (dba: trans, trans-dibenzilideneacetone) Scheme 8.34 Sequential coupling reaction via 1,4-addition. R O R' 22 CH 2=CHCH 2Br CuCN•2LiCl + CH 3CH(ZnI) 2 R H 3C (CH 3) 3SiCl R' + O CH2CH=CH2 22a R =Ph, R' =Ph 22b =Me, =Ph 22c =Ph, =Me 22d =Ph, = t-Bu R CH 3 70% Ph OSiMe3 95% R H 3C O R' ZnI OSiMe3 23 R' CH 2CH=CH 2 24 25 24 / 25 86% (98 / 2) 81% (>95 /
8.2 gem-Dizincio Compounds As shown in Scheme 8.36, the copper reagent 26 reacted with cyclohexenone in the presence of chlorotrimethylsilane to give c-zincio silyl enol ether. CH 2 (ZnI) 2 + CuCN 2LiCl (1.0) (1.0) O + 26 Me 3 SiCl THF Cu H2C ZnI -50 ºC, 10 min 26 OSiMe 3 Mtl Mtl: ZnL n or CuL n Scheme 8.36 Copper-mediated 1,4-addition of bis(iodozincio)methane 8.2.8 Cyclopropanation Reaction Br OSiMe 3 We should note the high reactivity of bis(iodozincio)methane (4) with a-heteroatom substituted ketone [7,23]. This means that coordination of the substrate enhances the nucleophilicity of 4. It is assumed that 1,2-diketones may coordinate with 4 effectively. Actually, the reaction of 4 with 1,2-diketones showed a novel [2+1] reaction that formed cyclopropanediol diastereoselectively, as shown in Scheme 8.37 [41]. In all cases, the reaction proceeded stereoselectively to give cisdiol. CH 2 (ZnI) 2 + 4 R 1 O O THF 27a: R 1 , R 2 = Ph 27a: R 1 , R 2 = Ph 27c: R 1 = Ph, R 2 = CH3 27d: R 1 , R 2 = CH3CH2 El + R 1 R 2 R 2 25 ºC, 0.5 h ElO OEl 27 28 Scheme 8.37 Preparation of cis-Cyclopropane-1,2-diol. 28a: 69% (El + =Ac2O) 28b: 78% (El + = Me3SiCl ) 28c: 80% (El + =H3O +) 28d : 59% (El + =Ac 2 O) The reaction pathway of 4 and 2,3-diketobutane was profiled by ab initio calculation. It was rationalized that the initial complex of this transformation was a faceto-face complex. The sequential attack of 4 underwent to s-cis fixed 1,2-diketone. In this complex, 4 worked as a bidentate Lewis acid. The detailed structural information about the initial complex that was obtained by calculation is also shown in Scheme 8.38. The dihedral angle O(1)±C(1)±C(2)±O(2) is 47.7 . The distortion from a flat configuration (i.e. dihedral angle = 0 or 180 ) suppresses the deprotona- 367
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Organometallics. Paul Knochel Copyr
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Handbook of Functionalized Organome
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Contents Preface XV List of Authors
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Contents 3.3.9 Oxidation of Functio
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6.3.1 Nucleophilic Addition onto Ca
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9.2.3 Preparation of Functionalized
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13.6.4 Nickel-Catalyzed Cross-coupl
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Preface Since the pioneering work o
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XVIII List of Authors Corinne Gosmi
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1 Introduction Paul Knochel and Fel
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umorganic is directly generated in
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Et H 21 Et AlBu 2 + CO 2Et Cu(CN)Mg
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8 2 Polyfunctional Lithium Organome
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10 2 Polyfunctional Lithium Organom
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R R 12 2 Polyfunctional Lithium Org
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MeO MeO R 14 2 Polyfunctional Lithi
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N 16 2 Polyfunctional Lithium Organ
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Li LiO 20 2 Polyfunctional Lithium
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Li 22 2 Polyfunctional Lithium Orga
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26 Ph O Ni-Pr 2 2 Polyfunctional Li
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28 Li 2 Polyfunctional Lithium Orga
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Li 32 203 2 Polyfunctional Lithium
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36 Br 2 Polyfunctional Lithium Orga
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3 Functionalized Organoborane Deriv
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Br SSiMe 2tBu 4 3.2 Preparation and
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B O O 3.2 Preparation and Reaction
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3.2 Preparation and Reaction of Fun
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Ar H Ar = O HB O CF 3 CF 3 3.2 Prep
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X X Cl Cl TfO Cl 3.2 Preparation an
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HO HO Br OH O X N N O N 3.2 Prepara
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MOMO MOMO I CbzN O 3.2 Preparation
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(HO) 3B O NMe 3 N N O Br 3.2 Prepar
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H H O O N H N H O OEt O O OEt O 3.2
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t BuO2C O N H 3.2 Preparation and R
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R H2O R R B(OH) 2 B(OH) 2 3.3 Prepa
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3.3 Preparation and Reactions of Fu
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R 124 BF 3K Br 3.3 Preparation and
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B O O I OR O OR O O O O O OR 3.3 Pr
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S N O B O I O 133 3.4 Preparation a
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3.5 Synthesis and Reactions of Func
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R TrocO S N R 1 O S N 13 12 O 1 160
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22 H. Nakamura, M. Fujiwara, Y. Yam
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102 K. A. Scheidt, A. Tasaka, T. D.
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4 Polyfunctional Magnesium Organome
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crystallize with four-coordinated M
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4.2Methods of Preparation of Grigna
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NC Br Br 4.2Methods of Preparation
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N N Ph I 4.2Methods of Preparation
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Cl MgBr 4.2Methods of Preparation o
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O O O O 4.2Methods of Preparation o
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O Me Me O Pent I 4.2Methods of Prep
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4.3 Further Applications of Functio
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OTIPS I iPrMgCl OTIPS 4.3 Further A
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4.4 Application of Functionalized M
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I O O OBn Pd(t-Bu 3P) 2 (10 mol%) 4
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Me OTf CO2Et + Me 4.4 Application o
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12 a) F. Bickelhaupt in H. G. Riche
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56 G. Varchi, C. Kofink, D. M. Lind
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kin Trans. 1 1992, 1393; b) M. Sato
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31, 805; J. F. Hartwig, Angew. Chem
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5 Polyfunctional Silicon Organometa
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stereocontrol [5]. Similar chiral c
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5.2 Allylic Silanes seven-membered
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SiMe 3 33 Pr OH OSiMe 3 SiMe 3 34 O
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5.2 Allylic Silanes Although alkyl
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R O Si H 60a (R = H) 60b (R = Me) R
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Bpin SiMe 2Ph (CH 2) 2Ph 73 EtCH(OE
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BnO HO SiMe2Ph 2 BnO CHO BnO O BF3
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5.3 Alkenylsilanes When the same st
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HO I O Si Mo cat. : m n I O Si 111
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5.4Alkylsilanes Transition metal-ca
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5.4Alkylsilanes The fluoride-induce
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5.5 Miscellaneous Preparations and
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5.5 Miscellaneous Preparations and
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716. (c)I. E. Markó, J.-M. Planche
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6 Polyfunctional Tin Organometallic
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phine ligand or Pd II (PPh 3) 2Cl 2
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Bu 3 Sn Scheme 6.4 n-Pent + Me I O
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N N N H 2 I Scheme 6.8 N + Me Sn 3
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O O O NaO HO Me P O OH O OH (+)-Fos
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6.2 Metal-Catalyzed Coupling Reacti
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6.2 Metal-Catalyzed Coupling Reacti
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6.3 Nucleophilic Additions a-hydrox
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6.3 Nucleophilic Additions oxy alde
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6.3 Nucleophilic Additions found ap
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6.3 Nucleophilic Additions 6.3.1.5.
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6.3 Nucleophilic Additions ethylami
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N H 91% (ee:84%) Scheme 6.31 N CO 2
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6.4 Radical Reactions of Organotins
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TsN Scheme 6.37 + Bu 3Sn O Ph AIBN
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6.5.2 Tin-to-lithium Exchange 6.5.2
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Ar OR Scheme 6.42 N H SnBu 3 n-BuLi
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References 1 D. Azarian, S. S. Dua,
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Commun., 2002, 2608±2609; W. Su, S
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110 Y. Obora, M. Nakanishi, M. Toku
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178 Y. Yamamoto, H. Yatagai, Y. Nar
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J. Chem. Soc., Chem. Commun., 1995,
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301 D. P. G. Hamon, R. A. Massy-Wes
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371 I. D. Gridnev, O. L. Tok, N. A.
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252 7 Polyfunctional Zinc Organomet
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BnO H Me 37 :1:1mixtureof diastereo
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262 Me 3Si 7 Polyfunctional Zinc Or
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264 F F 7 Polyfunctional Zinc Organ
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Bu S O IZn(CH 2) 4ZnI 94 268 7 Poly
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OAc MeO I EtO 2C 272 CHO S C N 7 Po
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276 O 7 Polyfunctional Zinc Organom
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280 E 7 Polyfunctional Zinc Organom
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282 MeO 2C O I 7 Polyfunctional Zin
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H Ph 284 7 Polyfunctional Zinc Orga
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288 Ph N 214 O 7 Polyfunctional Zin
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294 IZn AcO 7 Polyfunctional Zinc O
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O 310 7 Polyfunctional Zinc Organom
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Page 394 and 395: 9 Polyfunctional Organocopper Reage
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418 10 Functional Organonickel Reag
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O 424 10 Functional Organonickel Re
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TIPSO R 1 Cp 2ClZr O H 426 O N 10 F
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O 438 O Br 10 Functional Organonick
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Cl 442 CN 10 Functional Organonicke
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11 Polyfunctional Metal Carbenes fo
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11.2 Chromium-Templated Cycloadditi
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11.2 Chromium-Templated Cycloadditi
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(CO) 5Cr O Ph 15 1) t Bu t BuOMe, 5
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O MeO O O O O MeO O OMe Cr(CO) 5 Me
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11.2.3 Cyclization of Chromium Olig
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(CO)5Cr OR * O S + OMe 11.2 Chromiu
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[2+2+1] R 1 R 1 OH (CO) 5Cr R 2 (CO
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11.3 Reactions of Higher Nuclearity
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Br O X Br O R 2 R 2 O 85: X = Si-tB
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11.3 Reactions of Higher Nuclearity
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11.4 Metathesis Reactions Catalyzed
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R 2 R 1 O R O 3 O 11.4 Metathesis R
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i Pr i Pr i Pr Me Me (R)-160 Ph O O
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11.5 Transmetallation The dimerizat
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11.6 Metal Carbenes in Peptide Chem
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11.7 Stereoselective Syntheses with
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O O O O 100% H 2N O O O O O 311a Cr
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11.8 Sugar Metal Carbenes as Organo
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References zation reactions that al
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35 (a) C.A. Merlic, Y. You, D.M. Mc
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D. R. Cefalo, P. J. Bonitatebus Jr.
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12 Functionalized Organozirconium a
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12.2 Functionalized Organozirconoce
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Ph O (H)ZrCp Ph O 2Cl Ph O O O 92 %
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i-PrO O OBu-t O H N Scheme 12.15 H
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BnO Scheme 12.19 O BnO + 27 28 Cp 2
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R 1 O O O R R1 R 2 Scheme 12.28 R P
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12.3 Functionalized Organotitanium
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t-BuOOC Scheme 12.44 O CH 3 7.5 mol
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H 13C 6 O R Scheme 12.52 SiMe 3 O T
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O O OEt 87 Scheme 12.59 Scheme 12.6
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40 A. M. Sun, X. Huang, Heteroatom
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13 Manganese Organometallics for th
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13.2.2 Preparation of Organomangane
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13.3 1,2-Addition to Aldehydes and
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13.3.2 Manganese-Mediated Barbier-
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HeptMnX + HeptMnX + Scheme 13.17 Cl
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13.4 Preparation of Ketones by Acyl
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Me 3Si Cl ( ) 3 R Li 80% 82% Scheme
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13.5 1,4-Addition of Organomanganes
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BuM BuMgCl BuMnCl BuMgCl BuCu BuCu
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13.6 Transition-Metal-Catalyzed Cro
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13.6 Transition-Metal-Catalyzed Cro
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I Cl Scheme 13.56 MeO MnCl (1.2 equ
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13.7 Manganese-Mediated Cross-coupl
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13 C. Boucley, G. Cahiez, unpublish
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570 14 Polyfunctional Electrophilic
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η5 η6 η4 η7 574 14 Polyfunction
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51 594 CO 2Me + Fe(CO)3 CO2Me 14 Po
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Table 14.1 Examples of synthetic ap
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602 Entry Target molecule Disconnec
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Entry Target molecule Disconnection
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Target molecule Disconnections Mult
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15 Polyfunctional Zinc, Cobalt and
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Trifluoromethylzinc compounds prepa
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15.3 Electrochemical Synthesis and
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15.3.2 Carbon±Carbon Bond Formatio
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Cl Cl NC + MeO2C 1eq 2eq e, CoX 2 c
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1eq Br FG + R 2eq OAc e, CoX 2 cat
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Cl O + O e, FeBr 2(Bpy) n DMF, Fe a
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15.4 Electrosynthesis of Compounds
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FG CuCN/LiCl ZnBr 0ºC CuZnBrCN 15.
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15.5 General Conclusion (industrial
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17 Durandetti, M.; Devaud, M.; Peri
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I2 Index b-alkoxyalkylidenemalonic,
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I4 Index boronic ester 47 4-boronyl
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I6 Index cyclohexadiene 415 cyclohe
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I8 Index fluoroalkenylstannane 206
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I10 Index iron-catalyzed carbolithi
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I12 Index nickel-catalyzed carbozin
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I14 Index psicosecarbene complexes
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I16 Index Suzuki-Miyaura reaction a
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