Phosphoric Acid Derivative-Catalyzed Carbonyl-Olefin Metathesis

References (44)

1. 1 Albright, 2021, Carbonyl–olefin metathesis [DOI]
2. 2 Zhang, X. (2024). Cyclization Strategies in Carbonyl–Olefin Metathesis: An Up-to-Date Review. Molecules, 29. [DOI]
3. 3 Omahen, B., Zheng, S., and de Azambuja, F. (2025). Carbonyl–Olefin Metathesis and Its Application in Natural Product Synthesis. Catalysts, 15. [DOI]
4. 4 Scharf, 1963, Photosensibilisierte Cyclodimerisierung von Norbornen [DOI]
5. 5 Pitzer, 2018, Carbonyl–Olefin Cross-Metathesis through a Visible-Light-Induced 1,3-Diol Formation and Fragmentation Sequence [DOI]
6. 6 Wittig, 1954, Über Triphenyl-phosphin-methylene Als Olefinbildende Reagenzien I. Mitteil [DOI]
7. 7 Peterson, 1968, Carbonyl Olefination Reaction Using Silyl-Substituted Organometallic Compounds [DOI]
8. 8 Julia, 1973, Syntheses a l’aide de Sulfones v(+)—Methode de Synthese Generale de Doubles Liaisons [DOI]
9. 9 Horner, 1958, Phosphororganische Verbindungen, XII. Phosphinoxyde Als Olefinierungsreagenzien [DOI]
10. 10 Wadsworth, 1961, The Utility of Phosphonate Carbanions in Olefin Synthesis [DOI]
11. 11 Tebbe, 1978, Olefin Homologation with Titanium Methylene Compounds [DOI]
12. 12 Petasis, 1990, Titanium-Mediated Carbonyl Olefinations. 1. Methylenations of Carbonyl Compounds with Dimethyltitanocene [DOI]
13. 13 Griffith, 2012, Organocatalytic Carbonyl-Olefin Metathesis [DOI]
14. 14 Ludwig, 2016, Iron(III)-Catalysed Carbonyl–Olefin Metathesis [DOI]
15. 15 Zhang, 2019, Synthesis of 2H-Chromenes via Hydrazine-Catalyzed Ring-Closing Carbonyl-Olefin Metathesis [DOI]
16. 16 Zhang, 2020, Synthesis of 1,2-dihydroquinolines via hydrazine-catalyzed ring-closing carbonyl-olefin metathesis [DOI]
17. 17 Ma, 2016, FeCl3-Catalyzed Ring-Closing Carbonyl–Olefin Metathesis [DOI]
18. 18 McAtee, 2017, Polycyclic Aromatic Hydrocarbons via Iron(III)-Catalyzed Carbonyl–olefin Metathesis [DOI]
19. 19 Groso, 2018, 3-Aryl-2,5-Dihydropyrroles via Catalytic Carbonyl Olefin-Metathesis [DOI]
20. 20 Riehl, 2019, Catalytic, Transannular Carbonyl-Olefin Metathesis Reactions [DOI]
21. 21 Rykaczewski, 2020, Tetrahydropyradines via FeCl3-catalyzed carbonyl-olefin metathesis [DOI]
22. 22 Albright, 2019, Catalytic Carbonyl-Olefin Metathesis of Aliphatic Ketones: Iron(III) Homo-Dimers as Lewis Acidic Superelectrophiles [DOI]
23. 23 Wang, 2020, AuCl3-Catalyzed Ring-Closing Carbonyl–olefin Metathesis [DOI]
24. 24 Tran, 2018, Tropylium-Promoted Carbonyl–Olefin Metathesis Reactions [DOI]
25. 25 Tran, 2018, Carbonyl–olefin Metathesis Catalyzed by Molecular Iodine [DOI]
26. 26 Ni, 2018, Carbocation Catalysed Ring Closing Aldehyde–Olefin Metathesis [DOI]
27. 27 Catti, 2018, Brønsted Acid-Catalyzed Carbonyl-Olefin Metathesis inside a Self-Assembled Supramolecular Host [DOI]
28. 28 Huck, 2022, Expanding the Protecting Group Scope for the Carbonyl Olefin Metathesis Approach to 2,5-Dihydropyrroles [DOI]
29. 29 Chen, 2022, Brønsted Acid-Catalyzed Carbonyl–Olefin Metathesis: Synthesis of Phenanthrenes via Phosphomolybdic Acid as a Catalyst [DOI]
30. 30 To, 2022, Toward Homogeneous Brønsted-Acid-Catalyzed Intramolecular Carbonyl–Olefin Metathesis Reactions [DOI]
31. 31 Pei, 2022, Hydrogen Bonding Networks Enable Brønsted Acid-Catalyzed Carbonyl-Olefin Metathesis [DOI]
32. 32 Parmar, 2014, Complete Field Guide to Asymmetric BINOL-Phosphate Derived Brønsted Acid and Metal Catalysis: History and Classification by Mode of Activation; Brønsted Acidity, Hydrogen Bonding, Ion Pairing, and Metal Phosphates [DOI]
33. 33 Goodman, 2021, N-Triflylphosphoramides: Highly acidic catalysts for asymmetric transformations [DOI]
34. 34 James, 2015, Development and Applications of Disulfonimides in Enantioselective Organocatalysis [DOI]
35. 35 Auk, 2021, Organocatalysis Emerging as a Technology [DOI]
36. 36 Akiyama, 2007, Stronger Brønsted acids [DOI]
37. 37 Akiyama, 2015, Stronger Brønsted Acids: Recent Progress [DOI]
38. 38 Dahlmann, H.A., McKinney, A.J., Santos, M.P., and Davis, L.O. (2016). Organocatalyzed intramolecular carbonyl-ene reactions. Molecules, 21. [DOI]
39. 39 Tolstikova, 2010, The Reaction of N-Sulfinyltrifluoromethanesulfonamide with Triethylphosphate and Triethylphosphite [DOI]
40. 40 Tomooka, 2011, Stereoselective Multimodal Transformations of Planar Chiral 9-Membered Diallylic Amides [DOI]
41. 41 Denmark, 1992, Inter- and Intramolecular [4 + 2] Cycloadditions of Nitroalkenes with Olefins. 2-Nitrostyrenes [DOI]
42. 42 Becker, 2020, Models for Understanding Divergent Reactivity in Lewis Acid-Catalyzed Transformations of Carbonyls and Olefins [DOI]
43. 43 Nakano, 2014, Scandium-Catalyzed Cascade Cyclization to Produce Cyclobutane-Fused Tetrahydroquinoline, Chromane, Thiochromane, and Tetrahydronaphthalene Derivatives [DOI]
44. 44 Cremlyn, 1972, Studies of Organophosphorochloridates. Part V. Some Derivatives of 2,4-Dichlorophenyl and Pentachlorophenyl Phosphorodichloridates [DOI]

Cited by 0

No indexed citations yet.

Related research

• A Novel Catalytic Synthesis of Flavones under Autoclave Conditions and Comparative Study of Anti-cancer Activity — shares topic coverage
• Thermostability and in-vitro Antibacterial Activity of Aqueous Extracts of Tetrapleura tetraptera Pods on Multidrug Resistant Clinical Isolates — shares topic coverage
• Acute Toxicity, Phytochemistry and Anti-diarrheal Effects of Celtis integrifolia Lam. Aqueous Leaf Extract in Wistar Albino Rats — shares topic coverage
• Understanding the Reactivity of Trimethylsilyldiazoalkanes Participating in [3+2] Cycloaddition Reactions towards Diethylfumarate with a Molecular Electron Density Theory Perspective — shares topic coverage
• Understanding the Origin of the Regioselectivity in Non-Polar [3+2] Cycloaddition Reactions through the Molecular Electron Density Theory — shares topic coverage