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1  Stille coupling with an appropriate pyridyl stannane.
2 pecific silver-mediated fluorination of aryl stannanes.
3 than by transmetalation of the corresponding stannanes.
4 s only with direct aryl radical reduction by stannane (0-10%).
5 tting the stage for the acquisition of vinyl stannane 13 and its subsequent palladium-catalyzed Still
6 ladium-catalyzed coupling of the vinyl 6'(E)-stannanes 14 with (E) and (Z) ethyl 3-iodoacrylate gave
7 ediated Stille cross-coupling of the vinylic stannane 4 and the alkenyl bromide 5 to produce a highly
8  which was coupled in a Stille reaction with stannane 68 to give 2 after cleavage of the TIPS ether.
9 ng showed that the alkyls originate from the stannane and not from ambient impurities, and that trial
10 tille coupling of an acetylene-derived vinyl stannane and vinyl iodide of approximate equal complexit
11 yl groups) can be generated from (2-azaallyl)stannanes and (2-azaallyl)silanes through an intramolecu
12  a mild copper-mediated fluorination of aryl stannanes and aryl trifluoroborates with N-fluoro-2,4,6-
13 or carbon-carbon bond formation between aryl stannanes and olefins via Pd(II) catalysis in the presen
14 rated by tin-lithium exchange of (2-azaallyl)stannanes and underwent [pi4s+pi2s] and [pi6s+pi4s] cycl
15 to both enantiomeric forms of an epoxy vinyl stannane, and a series of coupling reactions, including
16                          A bulky substituted stannane Ar*SnH3 (Ar*=2,6-(2',4',6'-triisopropylphenyl)p
17 substrate (C(1)-C(27) fragment) with a vinyl stannane as the main coupling processes to assemble the
18 ircumvents isomerization by the synthesis of stannanes as intermediates and their use in a Stille cou
19  (ee 99%) were generated from the respective stannanes by tin-lithium exchange at temperatures rangin
20 acetylenes into functionalized phenanthrenyl stannanes can be initiated via two potentially equilibra
21 whereas the double allylation of (2-azaallyl)stannanes cannot be stopped at monoallylation.
22 o depend on the codonor used to generate the stannane cation radical intermediates.
23 terodimer cation radicals formed between the stannane cation radicals and the neutral codonors, which
24      Kinetics show the fragmentations of the stannane cation radicals occur by a bimolecular, nucleop
25 eric effects on both the nucleophile and the stannane cation radicals were observed.
26 er, the first X-ray structure of a [Ru(sigma-stannane)] complex (12a) is presented, which indeed feat
27  epoxidation/enzymatic kinetic resolution of stannane-containing substrates that led selectively to b
28          We established that oligosaccharide stannanes could be prepared from monosaccharide stannane
29 des to the corresponding trifluoromethylated stannane ether intermediates at room temperature in high
30 with methacryloyl chloride and vinyltributyl stannane followed by Pd-catalyzed Heck annulation.
31  the functionalized five-membered ring vinyl stannane from the monoterpene R-(-)-carvone featuring a
32 se high E/Z 1-bromo-1-fluoroalkenes and aryl stannanes gave (Z)-alpha-fluorostilbenes in high stereos
33 rst, methods for the preparation of anomeric stannanes have been developed and optimized to afford bo
34 ce on the bulk solution concentration of the stannane, hinting that more than one alkyl can be transf
35  allylation of aldehydes with fluorous allyl stannanes illustrates the usefulness of the new fluorous
36 st provided cyclic nonstabilized (2-azaallyl)stannanes in moderate to good yields.
37 fonyl)vinyl AA-esters undergo smooth sulfone-stannane interchange to stereoselectively give the corre
38                         The same (2-azaallyl)stannanes may be transmetalated by n-butyllithium to gen
39 n one alkyl can be transferred from a single stannane molecule.
40 I)-mediated homodimerization of complex aryl stannane monomers.
41                   Pairs of diastereoisomeric stannanes of known stereochemistry bearing atropisomeric
42 s reactions between various olefins and aryl stannanes of varying electron density.
43 did not suffer from competitive reduction by stannane, offering an advantage over the use of diazo an
44  the double allylation of either (2-azaallyl)stannanes or (2-azaallyl)nitriles, both of which thereby
45 pper complexes deriving from the diphosphine-stannane [Ph2P(o-C6H4)Me2Sn-SnMe2(o-C6H4)PPh2] 1.
46 uch as allylic silanes, boronates, germanes, stannanes, pivalates, phosphonates, phthalimides, and to
47 ocol avoids usage of the arylboronic acid or stannane precursors for the synthesis of 5-(2-furyl, or
48                         The (trifluoromethyl)stannane reagent, Bu3SnCF3, was found to react under CsF
49 ) macrocyclic iodide with a C(29-46) oxazole stannane side chain to establish the complete phorboxazo
50  metal-catalyzed addition of metal hydrides (stannanes, silanes, and germanes) and bimetallic species
51  (Ge(4)H(10)), tetrasilane (Si(4)H(10)), and stannane (SnD(4)) hydride precursors, allowing the simul
52                   For one atropisomer of the stannanes, the tin-lithium exchange is fully stereospeci
53 s byproducts during the synthesis of the DHA stannanes, this approach allowed the regioselective inco
54 eta face directs deuterium transfer from the stannane to C2'(C3') on the alpha face of the furanose r
55 talyzed reactions with silanes, germanes and stannanes to form disiloxanes, and R(3)SiOER(3) E = Ge,
56                              The (2-azaallyl)stannanes tolerate enolizable hydrogens in these cycload
57 )methanethione, on treatment with silanes or stannane under heating or microwave irradiation undergoe
58 trate that configurationally stable anomeric stannanes undergo a stereospecific cross-coupling reacti
59 nnanes could be prepared from monosaccharide stannanes via O-glycosylation with Schmidt-type donors,
60 2-azaallyllithium species derived from these stannanes were shown to undergo efficient [3 + 2] cycloa
61 or the preparation of the cyclic (2-azaallyl)stannanes, which are precursors to the nonstabilized 2-a
62 9% ee) were generated from the corresponding stannanes, which themselves were prepared by Hoppe-Beak
63 in; and Stille coupling of a C(28) trimethyl stannane with a C(29) oxazole triflate.
64 tille cross-coupling reaction of propargylic stannanes with 5-iodo-1,3-oxazoles to produce 1,1-disubs
65 nesium reagents and (3-methylthio-2-azaallyl)stannanes with a Ni(0) catalyst provided cyclic nonstabi
66 ished rates of cross-couplings of 1,2-cis C1-stannanes with aryl halides.

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