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Synthesis selectivity

W. Kandehner in B. M. Trost and I. Fleming, eds.. Comprehensive Organic Synthesis Selectivity, Strategy andEfftcieny in Modem Organic Chemisty, Vol. 6, Pergamon Press, Inc., Ehnsford, N.Y., 1991, pp. 485—599. [Pg.398]

FORSTER - DECKER Amine Synthesis Selective monoalkylation of primary amines via imines An altemativa method is the reaction ol 1 and 2 in the preserve of NaCNBH4 or tnaceloxyborohydride (Borch reduction)/... [Pg.127]

Treatment of commercially available and symmetrical 3,4,5-tri-methoxytoluene (37) with iodine, periodic acid, and acetic acid under the conditions of Suzuki19 results in the formation of symmetrical diiodide 38 in 93 % yield. Although only one of these newly introduced iodine atoms is present in intermediate 13, both play an important role in this synthesis. Selective monodemethylation of 38 with boron trichloride furnishes phenol 39 in 53% yield together with 13 % of a regioisomer. Evidently, one of the Lewis-basic iodine substituents coordinates with the Lewis-acidic boron trichloride and directs the cleavage of the adjacent methyl ether... [Pg.535]

H. Hiemstra, W. N. Speckamp, in Comprehensive Organic Synthesis Selectivity, Strategy Efficiency in Modern Organic Chemistry, B. M. Trost, I. Fleming, Eds., Vol. 2, p 1047, Perga-mon, Oxford 1991. [Pg.856]

Sequencing and Synthesis. Selected Methods and Applications Schlesinger, D., Ed. Alan B. Liss Publishers, Ch 19, pp 243-250. [Pg.289]

As a general phenomenon, observed already by Fischer and coworkers, activity and FT synthesis selectivity develop in the initial time of a run in a process of Formierung (formation)16—in modem terms self-organization and catalyst restructuring. In order to achieve high performance of synthesis with cobalt as catalyst, the temperature had to be raised slowly up to the temperature of steady-state conversion. A distinct thermodynamically controlled state of the Co surface, populated with reactants and intermediates, can be assumed. This state depends on temperature and particularly on CO partial pressure, and its catalytic nature changes with changing conditions. [Pg.170]

Trost BM, Fleming I (1991) Comprehensive organic synthesis-selectivity, strategy and efficiency in modern organic chemistry. Elsevier, Oxford... [Pg.247]

Selective Reduction of the O-N-O Fragment in Cyclic and Bicyclic Fused Nitroso Acetals From the point of development of methodology of organic synthesis, selective reduction of the nitroso acetal fragment and associated processes are the most important reactions of nitroso acetals (also see Scheme 3.154). [Pg.577]

Trost, B.M., Fleming, I., Comprehensive Organic Synthesis Selectivity, Strategy, and Efficiency in Modern Organic Chemistry. Pergamon Press, New York, 1991, Vol. 8. [Pg.73]

This review article summarizes the broad area of electroorganic synthesis, (selected electroorganic synthetic reactions, with a special emphasis on those that have been commercialized or investigated in pilot plants) and selected applications of electrochemical techniques for waste-water and effluent treatment. There are a number of modern textbooks and updated reviews [4-53] of electroorganic chemistry that include much more detail on organic reactions and their mechanisms than it is appropriate to discuss here. [Pg.122]

CO pressure, secondary reactions and hydrocarbon synthesis selectivity effects, 39 257-260... [Pg.106]

T. Shiori, Degradation reactions , in Comprehensive Organic Synthesis, Selectivity, Strategy and Efficiency in Modern Organic Chemistry, Vol. 6 (Eds. B. M. Trost and 1. Heming), Chap. 4.4, Pergamon Press, Oxford, 1991, pp. 795-828. [Pg.497]

Trost, B. M., Fleming, L, Eds. Comprehensive Organic Synthesis Selectivity, Strateg , andEffidency in Modem Organic Chemistry, 1st ed. Pergamon New York, 1991 Vol. 3. [Pg.201]

Flucytosine Interferes with DNA and RNA synthesis selectively in fungi Synergistic with amphotericin systemic toxicity in host due to DNA and RNA effects Cryptococcus and chromoblastomycosis infections Oral duration, hours renal excretion Toxicity Myelosuppression... [Pg.1063]

Asymmetric synthesis selective electrolysis electrochemical polymerization... [Pg.137]


See other pages where Synthesis selectivity is mentioned: [Pg.28]    [Pg.64]    [Pg.19]    [Pg.110]    [Pg.14]    [Pg.627]    [Pg.19]    [Pg.71]    [Pg.227]    [Pg.377]    [Pg.379]    [Pg.381]    [Pg.383]    [Pg.385]    [Pg.387]    [Pg.389]    [Pg.391]    [Pg.393]   
See also in sourсe #XX -- [ Pg.81 ]

See also in sourсe #XX -- [ Pg.70 ]




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Alkenes, (£>selective synthesis

Alkenes, (£>selective synthesis trisubstituted

Aluminum Reagents in Selective Organic Synthesis

Amines selective synthesis

Ammonia synthesis pressure selection

Asymmetric and Selective Synthesis

Carbon monoxide hydrocarbon synthesis selectivity

Carbon selective synthesis

Catalysts selection, methanol synthesis

Catalytic asymmetric synthesis enzyme selection

Comparison of Selected Chemical and Electrochemical Synthesis

Diethyl ketone, selective synthesis

Enantiofacial selection asymmetric synthesis

Enantiomer-selective ester synthesis

Enantiomer-selective synthesis

Enantioselective synthesis substrate selection

Erythro/threo-Selective syntheses

Fatty acylated, selectively synthesis

Fermentative syntheses precursor selection

Fischer-Tropsch synthesis olefin selectivity

Fischer-Tropsch synthesis selectivity

Fischer-Tropsch synthesis selectivity control

From Concatenative Synthesis to Unit Selection

General Syntheses, and Selectivities of Reactions Therein

Glycoside synthesis anomeric selectivity

High Pressure in Organic Synthesis Influence on Selectivity

Hydrocarbon synthesis selectivity, catalyst structural

Ionic Liquids in Organic Synthesis Effects on Rate and Selectivity

Oligosaccharide synthesis by selective

Oligosaccharide synthesis by selective AgOTf, promoter

Oligosaccharide synthesis by selective Cu 2, promoter

Oligosaccharide synthesis by selective DAST)

Oligosaccharide synthesis by selective NodRM-IV factor

Oligosaccharide synthesis by selective Stability

Oligosaccharide synthesis by selective TOPCAT-MOP combinations

Oligosaccharide synthesis by selective advantages

Oligosaccharide synthesis by selective anomeric activation

Oligosaccharide synthesis by selective disaccharide glycosyl MOP donors

Oligosaccharide synthesis by selective elfamycin

Oligosaccharide synthesis by selective fluorides and sulfides

Oligosaccharide synthesis by selective globotriasolylceramide

Oligosaccharide synthesis by selective glycosyl fluoride donors

Oligosaccharide synthesis by selective glycosyl fluorides and sulfides

Oligosaccharide synthesis by selective glycosyl sulfone donors

Oligosaccharide synthesis by selective glycosyl sulfoxide donors

Oligosaccharide synthesis by selective hexasaccharide

Oligosaccharide synthesis by selective mechanism

Oligosaccharide synthesis by selective octasaccharide

Oligosaccharide synthesis by selective pentasaccharide

Oligosaccharide synthesis by selective single-electron transfer

Oligosaccharide synthesis by selective sulfated Le* tetrasaccharide

Oligosaccharide synthesis by selective thioglycoside donors

Oligosaccharide synthesis by selective thiophiles

Oligosaccharide synthesis by selective trisaccharide

Oligosaccharide synthesis by selective two-stage activation

Oligosaccharide synthesis by selective undecasaccharide

Optically selective synthesis

Organic Synthesis via Examination of Selected Natural Products

Organolithiums: Selectivity for Synthesis

Phenol selective synthesis

Phosphine selected syntheses

Phosphine-mediated selective synthesis

Protein synthesis inhibitors selective action

Pyridones selective synthesis

Reactivity-selectivity Synthesis

Regioselective and Site-Selective Syntheses of Oxetanes

STATE SELECT synthesis/optimization

Selected Applications in Synthesis

Selected Applications of Achiral Type II Allylmetal Reagents in Natural Product Synthesis

Selected Applications of Ylides in Synthesis

Selected Applications of the Catalytic Enantioselective Allylation Reaction in Natural Product Synthesis

Selected Examples of Industrial Electroorganic Synthesis

Selected Organic Syntheses

Selected Syntheses

Selected Syntheses

Selected Syntheses of Terpenes

Selected Total and Partial Syntheses

Selective Acetal Synthesis

Selective Hydrogenation for Fine Chemical Synthesis

Selective Stimulation Method for Tactile Synthesis

Selective Synthesis of Carbon Nanofibers as Better Catalyst Supports for Low-temperature Fuel Cells

Selective catalytic reduction direct synthesis

Selective catalytic reduction synthesis methods

Selective hydrogenation synthesis

Selective organic synthesis

Selective phosphorylation synthesis

Selective redox reaction chiral synthesis

Selective synthesis

Selective synthesis changing starting material

Selective synthesis isomer

Selective synthesis of acetophenones in batch reactors through acetylation with acetic anhydride

Selective synthesis of acetophenones in fixed bed reactors through acetylation with acetic anhydride

Selective synthesis of enethiols

Selective synthesis of pyridones

Selective synthesis substitution

Selectivity cumene synthesis

Selectivity fatty-ester synthesis

Selectivity in synthesis

Selectivity of Fischer-Tropsch synthesis

Separation flowsheet synthesis selection

Shape-Selective Particle Synthesis

Solid-Phase Synthesis of 1,3,4-Oxadiazoles and 1,3,4-Thiadiazoles via Selective Cyclization

Solid-phase synthesis selection, reaction conditions

Solid-phase synthesis target selection

Solution-phase synthesis target selection

Stereo- and regio-selective synthesis

Stereo-selective synthesi

Structure-selectivity relationships synthesis

Synthesis catalyst, highly selective

Synthesis chirally selective organic

Synthesis of antibodies and clonal selection

Synthesis process selection

Synthesis selective crystallization

Synthesis through selective activation

The role of water in biochemical selection and protein synthesis

The selective synthesis of diastereomers

The selective synthesis of enantiomers

Total Synthesis of Selected Macrolides

Trans effect selective synthesis

Triazoles 1,4-disubstituted, selective synthesis

Unit-selection synthesis

Unit-selection synthesis, features

Unit-selection synthesis, features base types

Unit-selection synthesis, features feature types

Unit-selection synthesis, searching

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