List of organic reactions
Appearance
Well-known reactions and reagents in organic chemistry include
0-9
[edit]A
[edit]- Acetalisation
- Acetoacetic ester condensation
- Achmatowicz reaction
- Acylation
- Acyloin condensation
- Adams' catalyst
- Adams decarboxylation
- Adkins catalyst
- Adkins–Peterson reaction
- Akabori amino acid reaction
- Alcohol oxidation
- Alder ene reaction[1][2][3][4]
- Alder–Stein rules
- Aldol addition
- Aldol condensation
- Algar–Flynn–Oyamada reaction
- Alkylimino-de-oxo-bisubstitution
- Alkyne trimerisation
- Alkyne zipper reaction
- Allan–Robinson reaction
- Allylic rearrangement
- Amadori rearrangement
- Amine alkylation
- Angeli–Rimini reaction
- Andrussov oxidation
- Appel reaction
- Arbuzov reaction, Arbusow reaction
- Arens–Van Dorp synthesis, Isler modification
- Aromatic nitration
- Arndt–Eistert synthesis
- Aston–Greenburg rearrangement[5][6][7][8]
- Auwers synthesis
- Aza-Cope rearrangement[9][10][11]
- Azo coupling
B
[edit]- Baeyer–Drewson indigo synthesis
- Baeyer–Villiger oxidation, Baeyer–Villiger rearrangement[12]
- Bakeland process (Bakelite)
- Baker–Venkataraman rearrangement, Baker–Venkataraman transformation[13][14][15][16]
- Baldwin's rules[17]
- Bally–Scholl synthesis
- Balz–Schiemann reaction[18]
- Bamberger rearrangement
- Bamberger triazine synthesis
- Bamford–Stevens reaction
- Barbier reaction
- Barbier–Wieland degradation
- Bardhan–Sengupta phenanthrene synthesis
- Barfoed's test
- Bargellini reaction
- Bartoli indole synthesis, Bartoli reaction[19][20][21]
- Barton decarboxylation
- Barton reaction[22][23]
- Barton–Kellogg reaction
- Barton–McCombie reaction, Barton deoxygenation
- Barton-Zard Synthesis
- Barton vinyl iodine procedure
- Baudisch reaction
- Bayer test
- Baylis–Hillman reaction
- Bechamp reaction
- Bechamp reduction
- Beckmann fragmentation
- Beckmann rearrangement
- Bellus–Claisen rearrangement
- Belousov–Zhabotinsky reaction
- Benary reaction
- Benedict's reagent
- Benkeser reaction
- Benzidine rearrangement
- Benzilic acid rearrangement
- Benzoin condensation
- Bergman cyclization
- Bergmann azlactone peptide synthesis
- Bergmann degradation
- Bergmann–Zervas carbobenzoxy method
- Bernthsen acridine synthesis
- Bestmann's reagent
- Betti reaction
- Biginelli pyrimidine synthesis
- Biginelli reaction
- Bingel reaction
- Birch reduction
- Bischler–Möhlau indole synthesis
- Bischler–Napieralski reaction
- Biuret test
- Blaise ketone synthesis
- Blaise reaction
- Blanc reaction
- Blanc chloromethylation
- Blum–Ittah aziridine synthesis
- Bodroux reaction
- Bodroux–Chichibabin aldehyde synthesis
- Bogert–Cook synthesis
- Bohlmann-Rahtz pyridine synthesis
- Bohn–Schmidt reaction
- Boord olefin synthesis
- Borodin reaction
- Borsche–Drechsel cyclization
- Bosch–Meiser urea process
- Bosch reaction
- Bouveault aldehyde synthesis
- Bouveault–Blanc reduction
- Boyland–Sims oxidation
- Boyer Reaction
- Bredt's rule
- Brook rearrangement
- Brown hydroboration
- Bucherer carbazole synthesis
- Bucherer reaction
- Bucherer–Bergs reaction
- Buchner ring enlargement
- Büchner–Curtius–Schlotterbeck reaction
- Buchwald–Hartwig amination
- Bunnett reaction
- Burgess reagent
C
[edit]- Cadiot–Chodkiewicz coupling
- Cadogan-Sundberg indole synthesis
- Camps quinoline synthesis
- Cannizzaro reaction
- Carbohydrate acetalisation
- Carbonyl reduction
- Carbonylation
- Carbylamine reaction
- Carroll reaction
- Castro–Stephens coupling
- Catalytic reforming
- Catellani Reaction
- CBS reduction
- Chan–Lam coupling
- Chapman rearrangement
- Cheletropic reaction
- Chichibabin pyridine synthesis
- Chichibabin reaction
- Chiral pool synthesis
- Chugaev elimination
- Ciamician–Dennstedt rearrangement
- Claisen condensation
- Claisen rearrangement
- Claisen–Schmidt condensation
- Clemmensen reduction
- Collins reagent
- Combes quinoline synthesis
- Conia reaction
- Conrad–Limpach synthesis
- Cook–Heilbron thiazole synthesis
- Cope elimination
- Cope rearrangement[24]
- Corey reagent
- Corey–Bakshi–Shibata reduction
- Corey–Fuchs reaction
- Corey–Gilman–Ganem oxidation
- Corey–Kim oxidation
- Corey-Nicolaou macrolactonization
- Corey–Posner, Whitesides–House reaction
- Corey-Seebach reaction
- Corey–Winter olefin synthesis
- Corey–Winter reaction
- Cornforth rearrangement
- Coupling reaction
- Crabbé reaction
- Craig method
- Cram's rule of asymmetric induction
- Creighton process
- Criegee reaction
- Criegee rearrangement
- Cross metathesis
- Crum Brown–Gibson rule
- Curtius degradation
- Curtius rearrangement, Curtius reaction
- Cyanohydrin reaction
D
[edit]- Dakin reaction (aka Dakin oxidation)
- Dakin–West reaction
- Danheiser annulation
- Danheiser benzannulation
- Darapsky degradation
- Darzens condensation, Darzens–Claisen reaction, Glycidic ester condensation
- Darzens halogenation
- Darzens synthesis of unsaturated ketones
- Darzens tetralin synthesis
- Davis' reagent, Davis oxidation
- Davis–Beirut reaction
- De Kimpe aziridine synthesis
- Dehydration reaction
- Dehydrogenation
- Delépine reaction
- DeMayo reaction
- Demjanov rearrangement
- Demjanow desamination
- Dess–Martin oxidation
- Diazoalkane 1,3-dipolar cycloaddition
- Diazotisation
- DIBAL-H selective reduction
- Dieckmann condensation
- Dieckmann reaction
- Diels–Alder reaction
- Diels–Reese reaction
- Dienol–benzene rearrangement
- Dienone–phenol rearrangement
- Dimroth rearrangement
- Di-π-methane rearrangement
- Directed ortho metalation
- Doebner modification
- Doebner reaction
- Doebner–Miller reaction, Beyer method for quinolines
- Doering–LaFlamme carbon chain extension
- Dötz reaction
- Dowd–Beckwith ring expansion reaction
- Duff reaction
- Dutt–Wormall reaction
- Dyotropic reaction
E
[edit]- E1cB elimination reaction
- Eder reaction
- Edman degradation
- Eglinton reaction
- Ehrlich–Sachs reaction
- Einhorn variant
- Einhorn–Brunner reaction
- Elbs persulfate oxidation
- Elbs reaction
- Electrochemical fluorination
- Electrocyclic reaction
- Electrophilic halogenation
- Electrophilic amination
- Elimination reaction
- Emde degradation
- Emmert reaction
- Enders SAMP/RAMP hydrazone-alkylation reaction
- Ene reaction
- Enyne metathesis
- Epoxidation
- Erlenmeyer synthesis, Azlactone synthesis
- Erlenmeyer–Plöchl azlactone and amino-acid synthesis
- Eschenmoser fragmentation
- Eschenmoser sulfide contraction
- Eschweiler–Clarke reaction
- Ester pyrolysis
- Ether cleavage
- Étard reaction
- Evans aldol
- Evans–Saksena reduction
- Evans–Tishchenko reaction
F
[edit]- Favorskii reaction
- Favorskii rearrangement
- Favorskii–Babayan synthesis
- Fehling test
- Feist–Benary synthesis
- Fenton reaction
- Ferrario reaction
- Ferrier carbocyclization
- Ferrier rearrangement
- Fétizon oxidation
- Fiesselmann thiophene synthesis
- Finkelstein reaction[25]
- Fischer indole synthesis
- Fischer oxazole synthesis
- Fischer peptide synthesis
- Fischer phenylhydrazine and oxazone reaction
- Fischer glycosidation
- Fischer–Hepp rearrangement
- Fischer–Speier esterification
- Fischer Tropsch synthesis
- Fleming–Tamao oxidation
- Flood reaction
- Folin–Ciocalteu reagent
- Formox process
- Forster reaction
- Forster–Decker method
- Fowler process
- Franchimont reaction
- Frankland synthesis
- Frankland–Duppa reaction
- Fráter–Seebach alkylation
- Free radical halogenation
- Freund reaction
- Friedel–Crafts acylation
- Friedel–Crafts alkylation
- Friedländer synthesis
- Fries rearrangement
- Fritsch–Buttenberg–Wiechell rearrangement
- Fujimoto–Belleau reaction
- Fujiwara–Moritani reaction
- Fukuyama coupling
- Fukuyama indole synthesis
- Fukuyama reduction
G
[edit]- Gabriel ethylenimine method
- Gabriel synthesis
- Gabriel–Colman rearrangement, Gabriel isoquinoline synthesis
- Gallagher–Hollander degradation
- Gassman indole synthesis
- Gastaldi synthesis
- Gattermann aldehyde synthesis
- Gattermann Koch reaction
- Gattermann reaction
- Geminal halide hydrolysis
- Gewald reaction
- Gibbs phthalic anhydride process
- Gilman reagent
- Glaser coupling
- Glycol cleavage
- Gomberg–Bachmann reaction
- Gomberg–Bachmann–Hey reaction
- Gomberg radical reaction
- Gould–Jacobs reaction
- Graebe–Ullmann synthesis
- Grignard degradation
- Griesbaum coozonolysis
- Grignard reaction
- Grob fragmentation
- Grubbs' catalyst in Olefin metathesis
- Grundmann aldehyde synthesis
- Gryszkiewicz–Trochimowski and McCombie method
- Guareschi–Thorpe condensation
- Guerbet reaction
- Gutknecht pyrazine synthesis
H
[edit]- Hajos–Parrish–Eder–Sauer–Wiechert reaction
- Haller–Bauer reaction
- Haloform reaction
- Halogen addition reaction
- Halohydrin formation reaction
- Hammick reaction
- Hammond principle or Hammond postulate
- Hantzsch pyrrole synthesis
- Hantzsch dihydropyridine synthesis, Hantzsch pyridine synthesis
- Hantzsch pyridine synthesis, Gattermann–Skita synthesis, Guareschi–Thorpe condensation, Knoevenagel–Fries modification
- Hantzsch–Collidin synthesis
- Harries ozonolysis
- Haworth methylation
- Haworth Synthesis
- Hay coupling
- Hayashi rearrangement
- Heck reaction
- Hegedus indole synthesis
- Helferich method
- Hell–Volhard–Zelinsky halogenation
- Hemetsberger indole synthesis
- Hemetsberger–Knittel synthesis
- Henkel reaction, Raecke process, Henkel process
- Henry reaction, Kamlet reaction
- Herz reaction, Herz compounds
- Herzig–Meyer alkimide group determination
- Heumann indigo synthesis
- Hiyama coupling
- Hydration reaction
- Hydroamination
- Hydrodesulfurization
- Hydrogenolysis
- Hydrosilylation
- Hinsberg indole synthesis
- Hinsberg oxindole synthesis
- Hinsberg reaction
- Hinsberg separation
- Hinsberg sulfone synthesis
- Hirao coupling
- Hoch–Campbell ethylenimine synthesis
- Hock rearrangement
- Hofmann bromamide reaction
- Hofmann degradation, Exhaustive methylation
- Hofmann elimination
- Hofmann Isonitrile synthesis, Carbylamine reaction
- Hofmann product
- Hofmann rearrangement
- Hofmann–Löffler reaction, Löffler–Freytag reaction, Hofmann–Löffler–Freytag reaction
- Hofmann–Martius rearrangement
- Hofmann's rule
- Hofmann–Sand reaction
- Homo rearrangement of steroids
- Hooker reaction
- Horner–Wadsworth–Emmons reaction
- Hoesch reaction
- Hosomi–Sakurai reaction
- Houben–Fischer synthesis
- Hudlicky fluorination
- Huisgen cycloaddition
- Hunsdiecker reaction, Hunsdiecker–Borodin reaction
- Hurd-Mori 1,2,3-thiadiazole synthesis
- Hydroboration
- Hydrocarbon cracking
- Hydrohalogenation
I
[edit]- Indium mediated allylation
- Ing–Manske procedure
- Ipso substitution
- Ireland–Claisen rearrangement
- Isay reaction
- Ishikawa reagent
- trans-cis isomerism
- Ivanov reagent, Ivanov reaction
J
[edit]- Jacobsen epoxidation
- Jacobsen rearrangement
- Janovsky reaction
- Japp–Klingemann reaction
- Japp–Maitland condensation
- Jocic reaction
- Johnson–Claisen rearrangement
- Johnson–Corey–Chaykovsky reaction[26][27]
- Jones oxidation[28][29]
- Jordan–Ullmann–Goldberg synthesis
- Julia olefination, Julia–Lythgoe olefination[30]
K
[edit]- Kabachnik–Fields reaction
- Kharasch–Sosnovsky reaction
- Keck asymmetric allylation
- Ketimine Mannich reaction
- Ketone halogenation
- Kiliani–Fischer synthesis
- Kindler reaction
- Kishner cyclopropane synthesis
- Knoevenagel condensation
- Knorr pyrazole synthesis
- Knorr pyrrole synthesis
- Knorr quinoline synthesis
- Koch–Haaf reaction
- Kochi reaction
- Koenigs–Knorr reaction
- Kolbe electrolysis
- Kolbe nitrile synthesis
- Kolbe–Schmitt reaction
- Kornblum oxidation
- Kornblum–DeLaMare rearrangement
- Kostanecki acylation
- Kowalski ester homologation
- Krapcho decarboxylation
- Krische allylation
- Kröhnke aldehyde synthesis
- Kröhnke oxidation
- Kröhnke pyridine synthesis
- Kucherov reaction
- Kuhn–Winterstein reaction
- Kulinkovich reaction
- Kumada coupling
L
[edit]- Larock indole synthesis
- Lawesson's reagent
- Lebedev process
- Lehmstedt–Tanasescu reaction
- Leimgruber–Batcho indole synthesis
- Letts nitrile synthesis
- Leuckart reaction
- Leuckart thiophenol reaction
- Leuckart–Wallach reaction
- Leuckart amide synthesis
- Levinstein process
- Ley oxidation
- Lieben iodoform reaction, Haloform reaction
- Liebeskind–Srogl coupling
- Liebig melamine synthesis
- Lindlar catalyst
- Lobry de Bruyn–Van Ekenstein transformation
- Lombardo methylenation
- Lossen rearrangement
- Lucas' reagent
- Luche reduction
M
[edit]- Maillard reaction
- Madelung synthesis
- Malaprade reaction, Periodic acid oxidation
- Malonic ester synthesis
- Mannich reaction
- Markó–Lam deoxygenation
- Markovnikov's rule, Markownikoff rule, Markownikow rule
- Marschalk reaction
- Martinet dioxindole synthesis
- McDougall monoprotection
- McFadyen–Stevens reaction
- McMurry reaction
- Meerwein arylation
- Meerwein–Ponndorf–Verley reduction
- Meisenheimer rearrangement
- Meissenheimer complex
- Menshutkin reaction
- Metal-ion-catalyzed σ-bond rearrangement
- Mesylation
- Merckwald asymmetric synthesis
- Metallo-ene reaction
- Methylation
- Meyer and Hartmann reaction
- Meyer reaction
- Meyer synthesis
- Meyer–Schuster rearrangement
- Michael addition
- Michael addition, Michael system
- Michael condensation
- Michaelis–Arbuzov reaction
- Midland Alpine borane reduction
- Mignonac reaction
- Milas hydroxylation of olefins
- Minisci reaction
- Mislow–Evans rearrangement
- Mitsunobu reaction
- Miyaura borylation
- Modified Wittig-Claisen tandem reaction
- Molisch's test
- Mozingo reduction
- Mukaiyama aldol addition (Mukaiyama reaction)
- Mukaiyama hydration
- Myers' asymmetric alkylation
N
[edit]- Nametkin rearrangement
- Narasaka–Prasad reduction
- Nazarov cyclization reaction
- Neber rearrangement
- Nef reaction
- Negishi coupling
- Negishi zipper reaction
- Nenitzescu indole synthesis
- Nenitzescu reductive acylation
- Newman–Kwart rearrangement
- Nicholas reaction
- Niementowski quinazoline synthesis
- Niementowski quinoline synthesis
- Nierenstein reaction
- NIH shift
- Ninhydrin test
- Nitroaldol reaction
- Nitrone-olefin 3+2 cycloaddition
- Normant reagents
- Noyori asymmetric hydrogenation
- Nozaki–Hiyama–Kishi reaction
- Nucleophilic acyl substitution
O
[edit]- Ohira–Bestmann reaction
- Olah reagent
- Olefin metathesis
- Oppenauer oxidation
- Ostromyslenskii reaction, Ostromisslenskii reaction
- Overman rearrangement
- Oxidative decarboxylation
- Oxo synthesis
- Oxy-Cope rearrangement
- Oxymercuration
- Oxidation of alcohols to carbonyl compounds
- Ozonolysis
P
[edit]- Paal–Knorr pyrrole synthesis
- Paal–Knorr synthesis
- Paneth technique
- Passerini reaction
- Paternò–Büchi reaction
- Pauson–Khand reaction
- Payne rearrangement
- Pechmann condensation
- Pechmann pyrazole synthesis
- Pellizzari reaction
- Pelouze synthesis
- Peptide synthesis
- Perkin alicyclic synthesis
- Perkin reaction
- Perkin rearrangement
- Perkow reaction
- Petasis reaction
- Petasis reagent
- Peterson olefination
- Peterson reaction
- Petrenko-Kritschenko piperidone synthesis
- Pfau–Plattner azulene synthesis
- Pfitzinger reaction
- Pfitzner–Moffatt oxidation
- Phosphonium coupling
- Photosynthesis
- Piancatelli rearrangement
- Pictet–Gams isoquinoline synthesis
- Pictet–Hubert reaction
- Pictet–Spengler tetrahydroisoquinoline synthesis
- Pictet–Spengler reaction
- Piloty–Robinson pyrrole synthesis
- Pinacol coupling reaction
- Pinacol rearrangement
- Pinner amidine synthesis
- Pinner method for ortho esters
- Pinner reaction
- Pinner triazine synthesis
- Pinnick oxidation
- Piria reaction
- Polonovski reaction
- Pomeranz–Fritsch reaction
- Ponzio reaction
- Prato reaction
- Prelog strain
- Prevost reaction
- Prileschajew reaction
- Prilezhaev reaction
- Prins reaction
- Prinzbach synthesis
- Protecting group
- Pschorr reaction
- Pummerer rearrangement
- Purdie methylation, Irvine–Purdie methylation
- PUREX
Q
[edit]R
[edit]- Ramberg–Bäcklund reaction
- Raney nickel
- Rap–Stoermer condensation
- Raschig phenol process
- Rauhut–Currier reaction
- Racemization
- Reductive amination
- Reductive dehalogenation of halo ketones
- Reed reaction
- Reformatskii reaction, Reformatsky reaction[31]
- Reilly–Hickinbottom rearrangement
- Reimer–Tiemann reaction
- Reissert indole synthesis
- Reissert reaction, Reissert compound
- Reppe synthesis
- Retropinacol rearrangement
- Rieche formylation
- Riemschneider thiocarbamate synthesis
- Riley oxidations
- Ring closing metathesis
- Ring opening metathesis
- Ritter reaction[32][33]
- Robinson annulation
- Robinson–Gabriel synthesis
- Robinson Schopf reaction
- Rosenmund reaction
- Rosenmund reduction
- Rosenmund–von Braun synthesis
- Roskamp reaction
- Rothemund reaction
- Rupe rearrangement
- Rubottom oxidation
- Ruff–Fenton degradation
- Ruzicka large-ring synthesis
S
[edit]- Saegusa–Ito oxidation
- Sakurai reaction
- Salol reaction
- Sandheimer
- Sandmeyer diphenylurea isatin synthesis
- Sandmeyer isonitrosoacetanilide isatin synthesis
- Sandmeyer reaction
- Sanger reagent
- Saponification
- Sarett oxidation
- Schiemann reaction[18]
- Schiff reaction
- Schiff test
- Schlenk equilibrium
- Schlosser modification
- Schlosser variant
- Schmidlin ketene synthesis
- Schmidt degradation
- Schmidt reaction
- Scholl reaction
- Schorigin Shorygin reaction, Shorygin reaction, Wanklyn reaction
- Schotten–Baumann reaction
- Seliwanoff's test
- Semidine rearrangement
- Semmler–Wolff reaction
- Seyferth–Gilbert homologation
- Shapiro reaction
- Sharpless asymmetric dihydroxylation
- Sharpless epoxidation[34]
- Sharpless oxyamination or aminohydroxylation
- Shenck ene reaction
- Shi epoxidation
- Shiina esterification
- Shiina macrolactonization or Shiina lactonization
- Sigmatropic reaction
- Simmons–Smith reaction
- Simonini reaction
- Simonis chromone cyclization
- Simons process
- Skraup chinolin synthesis
- Skraup reaction
- Smiles rearrangement
- SNAr nucleophilic aromatic substitution
- SN1
- SN2
- SNi
- Solvolysis
- Sommelet reaction
- Sonn–Müller method
- Sonogashira coupling
- Sørensen formol titration
- Staedel–Rugheimer pyrazine synthesis
- Stahl oxidation
- Staudinger reaction
- Staudinger synthesis
- Steglich esterification
- Stephen aldehyde synthesis
- Stetter reaction
- Stevens rearrangement
- Stieglitz rearrangement
- Stille coupling
- Stobbe condensation
- Stollé synthesis
- Stork acylation
- Stork enamine alkylation
- Strecker amino acid synthesis
- Strecker degradation
- Strecker sulfite alkylation
- Strecker synthesis
- Stereocontrolled 1,2-addition to carbonyl groups
- Suzuki coupling
- Swain equation
- Swarts reaction
- Swern oxidation
T
[edit]- Tamao oxidation
- Tafel rearrangement
- Takai olefination
- Tebbe olefination
- ter Meer reaction
- Thiele reaction
- Thiol-yne reaction
- Thorpe reaction
- Tiemann rearrangement
- Tiffeneau ring enlargement reaction
- Tiffeneau–Demjanov rearrangement
- Tischtschenko reaction
- Tishchenko reaction, Tishchenko–Claisen reaction
- Tollens reagent
- Transfer hydrogenation
- Trapp mixture
- Transesterification
- Traube purine synthesis
- Truce–Smiles rearrangement
- Tscherniac–Einhorn reaction
- Tschitschibabin reaction
- Tschugajeff reaction
- Tsuji–Trost reaction
- Tsuji–Wilkinson decarbonylation reaction
- Twitchell process
- Tyrer sulfonation process
U
[edit]- Ugi reaction
- Ullmann reaction
- Upjohn dihydroxylation
- Urech cyanohydrin method
- Urech hydantoin synthesis
V
[edit]- Van Leusen reaction
- Van Slyke determination
- Varrentrapp reaction
- Vilsmeier reaction
- Vilsmeier–Haack reaction
- Voight amination
- Volhard–Erdmann cyclization
- von Braun amide degradation
- von Braun reaction
- von Richter cinnoline synthesis
- von Richter reaction
W
[edit]- Wacker–Tsuji oxidation
- Wagner-Jauregg reaction
- Wagner–Meerwein rearrangement
- Waits–Scheffer epoxidation
- Walden inversion
- Wallach rearrangement
- Weerman degradation
- Weinreb ketone synthesis
- Wenker ring closure
- Wenker synthesis
- Wessely–Moser rearrangement
- Westphalen–Lettré rearrangement
- Wharton reaction
- Whiting reaction
- Wichterle reaction
- Widman–Stoermer synthesis
- Wilkinson catalyst
- Willgerodt rearrangement
- Willgerodt–Kindler reaction
- Williamson ether synthesis
- Winstein reaction
- Wittig reaction
- Wittig rearrangement:
- Wittig–Horner reaction
- Wohl degradation
- Wohl–Aue reaction
- Wohler synthesis
- Wohl–Ziegler reaction
- Wolffenstein–Böters reaction
- Wolff rearrangement
- Wolff–Kishner reduction
- Woodward cis-hydroxylation
- Woodward–Hoffmann rule
- Wulff–Dötz reaction
- Wurtz coupling, Wurtz reaction
- Wurtz–Fittig reaction
Y
[edit]Z
[edit]- Zaitsev's rule
- Zeisel determination
- Zerevitinov determination, Zerewitinoff determination
- Ziegler condensation
- Ziegler method
- Zimmermann reaction
- Zincke disulfide cleavage
- Zincke nitration
- Zincke reaction
- Zincke–Suhl reaction
- Zinin reduction
See also
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- Stigler's law of eponymy
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References
[edit]- ^ Treibs, Wilhelm; Schmidt, Harry (1927). "Zur katalytischen Dehydrierung hydro-aromatischer Verbindungen" [Catalytic dehydrogenation of hydroaromatic compounds]. Berichte der Deutschen Chemischen Gesellschaft (in German). 60 (10): 2335–2341. doi:10.1002/cber.187600901134.
- ^ Alder, Kurt; Nobel, Theo (1943). "Über die Anlagerung von Azodicarbonsäure-ester an Aldehyde" [Substituting additions. II. Addition of azodicarboxylic esters to aldehydes.]. Berichte der Deutschen Chemischen Gesellschaft (in German). 76 (1): 54–57. doi:10.1002/cber.19430760106.
- ^ Alder, Kurt; Pascher, Franz; Schmitz, Andreas (1943). "Über die Anlagerung von Maleinsäure-anhydrid und Azodicarbonsäure-ester an einfach ungesättigte Koh an einfach ungesättigte Kohlenwasserstoffe. Zur Kenntnis von Substitutionsvorgängen in der Allyl-Stellung" [Substituting additions. I. Addition of maleic anhydride and azodicarboxylic esters to singly unsaturated hydrocarbons. Substitution processes in the allyl position]. Berichte der Deutschen Chemischen Gesellschaft. 76 (1): 27–53. doi:10.1002/cber.19430760105.
- ^ Alder, Kurt; Schmidt, Carl-Heinz (1943). "Über die Kondensation des Furans und seiner Homologen mit α,β-ungesättigten Ketonen und Aldehyden†Aufbau von Di-, Tri- und Tetraketonen der Fettreihe" [Substituting additions. III. Condensation of furan and its homologs with α,β-unsaturated ketones and aldehydes. Synthesis of di-, tri-and tetraketones of the aliphatic series.]. Berichte der Deutschen Chemischen Gesellschaft (in German). 76 (3): 183–205. doi:10.1002/cber.19430760302.
- ^ Aston, J. G.; Greenburg, R. B. (1942). "alpha-Bromo Secondary Alkyl Ketones. I. Reaction with Sodium Alcoholates. A New Synthesis of Tertiary Acids by Rearrangement1,2". Journal of the American Chemical Society. 62 (10): 2590–2595. doi:10.1021/ja01867a003.
- ^ Wang, Zerong (2010). Comprehensive Organic Name Reactions and Reagents. doi:10.1002/9780470638859.conrr026. ISBN 9780471704508.
- ^ Sacks, Abraham A.; Aston, J. G. (1951). "α-Halo Ketones. V. The Preparation, Metathesis and Rearrangement of Certain α-Bromoketones". Journal of the American Chemical Society. 73 (8): 3902–3906. doi:10.1021/ja01152a103.
- ^ Wagner, R. B.; Moore, James A. (1950). "The Reaction of the Isomeric α-Bromomethyl Cyclohexyl Ketones with Sodium Methoxide". Journal of the American Chemical Society. 72 (7): 2884–2887. doi:10.1021/ja01163a022.
- ^ Oehlschlager, A. C.; Zalkow, L. H. (1965). "Bridged Ring Compounds. X.1,2 The Reaction of Benzenesulfonyl Azide with Norbornadiene, Dicyclopentadiene, and Bicyclo[2.2.2]-2-octene". The Journal of Organic Chemistry. 30 (12): 4205–4211. doi:10.1021/jo01023a051.
- ^ Hill, Richard K.; Gilman, Norman W. (1967). "A nitrogen analog of the Claisen rearrangement". Tetrahedron Letters. 8 (15): 1421–1423. doi:10.1016/S0040-4039(00)71596-6.
- ^ Lipkowitz, K. B.; Scarpone, S.; McCullough, D.; Barney, C. (1979). "The synthesis of N-substituted tetrahydropyridines using the hetero-cope rearrangement". Tetrahedron Letters. 20 (24): 2241–2244. doi:10.1016/S0040-4039(01)93686-X.
- ^ Baeyer, Adolf; Villiger, Victor (1899). "Einwirkung des Caro'schen Reagens auf Ketone" [The effect of Caro's reagent on ketones]. Berichte der Deutschen Chemischen Gesellschaft (in German). 32 (3): 3625–3633. doi:10.1002/cber.189903203151.
- ^ Baker, Wilson (1933). "Molecular rearrangement of some o-acyloxyacetophenones and the mechanism of the production of 3-acylchromones". Journal of the Chemical Society: 1381–1389. doi:10.1039/JR9330001381.
- ^ Baker, Wilson (1934). "Attempts to synthesise 5,6-dihydroxyflavone (primetin)". Journal of the Chemical Society: 1953–1954. doi:10.1039/JR9340001953.
- ^ Mahal, Harbhajan S.; Venkataraman, Krishnasami (1934). "Synthetical experiments in the chromone group. Part XIV. The action of sodamide on 1-acyloxy-2-acetonaphthones". Journal of the Chemical Society: 1767–1769. doi:10.1039/JR9340001767.
- ^ Bhalla, Diwan C.; Mahal, Harbhajan S.; Venkataraman, Krishnasami (1935). "Synthetical experiments in the chromone group. Part XVII. Further observations on the action of sodamide on o-acyloxyacetophenones". Journal of the Chemical Society: 868–870. doi:10.1039/JR9350000868.
- ^ Baldwin, Jack E. (1976). "Rules for ring closure". Journal of the Chemical Society, Chemical Communications (18): 734–736. doi:10.1039/C39760000734.
- ^ a b Balz, Günther; Schiemann, Günther (1927). "Über aromatische Fluorverbindungen, I.: Ein neues Verfahren zu ihrer Darstellung" [Aromatic fluorine compounds. I. A new method for their preparation]. Berichte der Deutschen Chemischen Gesellschaft (in German). 60 (5): 1186–1190. doi:10.1002/cber.19270600539.
- ^ Bartoli, Giuseppe; Leardini, Rino; Medici, Alessandro; Rosini, Goffredo (1978). "Reactions of nitroarenes with Grignard reagents. General method of synthesis of alkyl-nitroso-substituted bicyclic aromatic systems". Journal of the Chemical Society, Perkin Transactions 1 (7): 692–696. doi:10.1039/P19780000692.
- ^ Bartoli, Giuseppe; Palmieri, Gianni; Bosco, Marcella; Dalpozzo, Renato (1989). "The reaction of vinyl grignard reagents with 2-substituted nitroarenes: A new approach to the synthesis of 7-substituted indoles". Tetrahedron Letters. 30 (16): 2129–2132. doi:10.1016/S0040-4039(01)93730-X.
- ^ Bartoli, Giuseppe; Bosco, Marcella; Dalpozzo, Renato; Palmieri, Gianni; Marcantoni, Enrico (1991). "Reactivity of nitro- and nitroso-arenes with vinyl grignard reagents: synthesis of 2-(trimethylsilyl)indoles". Journal of the Chemical Society, Perkin Transactions 1 (11): 2757–2761. doi:10.1039/P19910002757.
- ^ Barton, D. H. R.; Beaton, J. M.; Geller, L. E.; Pechet, M. M. (1960). "A new photochemical reaction". Journal of the American Chemical Society. 82 (10): 2640–2641. doi:10.1021/ja01495a061.
- ^ Barton, D. H. R.; Beaton, J. M.; Geller, L. E.; Pechet, M. M. (1961). "A new photochemical reaction". Journal of the American Chemical Society. 83 (19): 4076–4083. doi:10.1021/ja01480a030.
- ^ Cope, Arthur C.; Hardy, Elizabeth M. (1940). "The Introduction of Substituted Vinyl Groups. V. A Rearrangement Involving the Migration of an Allyl Group in a Three-Carbon System". Journal of the American Chemical Society. 62 (2): 441–444. doi:10.1021/ja01859a055.
- ^ Finkelstein, Hans (1910). "Darstellung organischer Jodide aus den entsprechenden Bromiden und Chloriden" [Preparation of Organic Iodides from the Corresponding Bromides and Chlorides]. Berichte der Deutschen Chemischen Gesellschaft (in German). 43 (2): 1528–1532. doi:10.1002/cber.19100430257.
- ^ Corey, E. J.; Chaykovsky, Michael (1962). "Dimethylsulfoxonium Methylide". Journal of the American Chemical Society. 84 (5): 867–868. doi:10.1021/ja00864a040.
- ^ Corey, E. J.; Chaykovsky, Michael (1965). "Dimethyloxosulfonium Methylide ((CH3)2SOCH2) and Dimethylsulfonium Methylide ((CH3)2SCH2). Formation and Application to Organic Synthesis". Journal of the American Chemical Society. 87 (6): 1353–1364. doi:10.1021/ja01084a034.
- ^ Bowden, K.; Heilbron, I. M.; Jones, E. R. H.; Weedon, B. C. L. (1946). "Researches on acetylenic compounds. Part I. The preparation of acetylenic ketones by oxidation of acetylenic carbinols and glycols". Journal of the Chemical Society: 39–45. doi:10.1039/JR9460000039.
- ^ Bowers, A.; Halsall, T. G.; Jones, E. R. H.; Lemin, A. J. (1953). "The chemistry of the triterpenes and related compounds. Part XVIII. Elucidation of the structure of polyporenic acid C". Journal of the Chemical Society: 2548–2560. doi:10.1039/JR9530002548.
- ^ Julia, Marc; Paris, Jean-Marc (1973). "Syntheses a l'aide de sulfones v(+)- methode de synthese generale de doubles liaisons" [Syntheses with the help of sulfones. V. General method of synthesis of double bonds]. Tetrahedron Letters (in French). 14 (49): 4833–4836. doi:10.1016/S0040-4039(01)87348-2.
- ^ Reformatsky, Sergius (1887). "Neue Synthese zweiatomiger einbasischer Säuren aus den Ketonen". Berichte der Deutschen Chemischen Gesellschaft. 20 (1): 1210–1211. doi:10.1002/cber.188702001268.
- ^ Ritter, John J.; Kalish, Joseph (1948). "A New Reaction of Nitriles. II. Synthesis of t-Carbinamines". Journal of the American Chemical Society. 70 (12): 4048–4050. doi:10.1021/ja01192a023. PMID 18105933.
- ^ Ritter, John J.; Minieri, P. Paul (1948). "A New Reaction of Nitriles. I. Amides from Alkenes and Mononitriles". Journal of the American Chemical Society. 70 (12): 4045–4048. doi:10.1021/ja01192a022. PMID 18105932.
- ^ Katsuki, Tsutomu; Sharpless, K. Barry (1980). "The first practical method for asymmetric epoxidation". Journal of the American Chemical Society. 102 (18): 5974–5976. doi:10.1021/ja00538a077.