| # | Document title | Authors | Year | Source | Cited by |
| 1 | Kinetic mechanism of the dechlorinating flavin-dependent monooxygenase HadA | Pimviriyakul P., Thotsaporn K., Sucharitakul J., Chaiyen P. | 2017 | Journal of Biological Chemistry
292(12),pp. 4818-4832 | 39 |
| 2 | Microbial degradation of halogenated aromatics: molecular mechanisms and enzymatic reactions | Pimviriyakul P., Wongnate T., Tinikul R., Chaiyen P. | 2020 | Microbial Biotechnology
13(1),pp. 67-86 | 36 |
| 3 | Oxidative dehalogenation and denitration by a flavin-dependent monooxygenase is controlled by substrate deprotonation | Pimviriyakul P., Pimviriyakul P., Surawatanawong P., Chaiyen P. | 2018 | Chemical Science
9(38),pp. 7468-7482 | 21 |
| 4 | Identification of a Hotspot Residue for Improving the Thermostability of a Flavin-Dependent Monooxygenase | Pongpamorn P., Watthaisong P., Pimviriyakul P., Jaruwat A., Lawan N., Chitnumsub P., Chaiyen P. | 2019 | ChemBioChem
20(24),pp. 3020-3031 | 19 |
| 5 | A complete bioconversion cascade for dehalogenation and denitration by bacterial flavin– dependent enzymes | Pimviriyakul P., Pimviriyakul P., Chaiyen P. | 2018 | Journal of Biological Chemistry
293(48),pp. 18525-18539 | 19 |
| 6 | A Chemo-Enzymatic Cascade for the Smart Detection of Nitro- and Halogenated Phenols | Watthaisong P., Pongpamorn P., Pimviriyakul P., Maenpuen S., Ohmiya Y., Chaiyen P. | 2019 | Angewandte Chemie - International Edition
58(38),pp. 13254-13258 | 15 |
| 7 | Protonation status and control mechanism of flavin–oxygen intermediates in the reaction of bacterial luciferase | Tinikul R., Lawan N., Akeratchatapan N., Pimviriyakul P., Chinantuya W., Suadee C., Sucharitakul J., Chenprakhon P., Ballou D.P., Entsch B., Chaiyen P., Chaiyen P. | 2021 | FEBS Journal
288(10),pp. 3246-3260 | 10 |
| 8 | Overview of flavin-dependent enzymes | Pimviriyakul P., Pimviriyakul P., Chaiyen P. | 2020 | Enzymes
47,pp. 1-36 | 6 |
| 9 | Phenolic hydroxylases | Chenprakhon P., Pimviriyakul P., Pimviriyakul P., Tongsook C., Chaiyen P. | 2020 | Enzymes
47,pp. 283-326 | 5 |
| 10 | Flavin-dependent dehalogenases | Pimviriyakul P., Pimviriyakul P., Chaiyen P. | 2020 | Enzymes
47,pp. 365-397 | 4 |
| 11 | Structural insights into a flavin-dependent dehalogenase HadA explain catalysis and substrate inhibition via quadruple π-stacking | Pimviriyakul P., Jaruwat A., Chitnumsub P., Chaiyen P. | 2021 | Journal of Biological Chemistry
297(2) | 3 |
| 12 | Role of conserved arginine in HadA monooxygenase for 4-nitrophenol and 4-chlorophenol detoxification | Pimviriyakul P., Pholert P., Somjitt S., Choowongkomon K. | 2022 | Proteins: Structure, Function and Bioinformatics
| 2 |
| 13 | Dual Activities of Oxidation and Oxidative Decarboxylation by Flavoenzymes | Trisrivirat D., Sutthaphirom C., Pimviriyakul P., Chaiyen P. | 2022 | ChemBioChem
| 1 |
| 14 | Effect of supplemented sugar in lysogeny broth medium on growth of Escherichia coli BL21(DE3) and recombinant protein production | Muenwongtham S., Jaturapiree P., Pimviriyakul P. | 2022 | Agriculture and Natural Resources
56(3),pp. 537-546 | 0 |
| 15 | Formation and stabilization of C4a-hydroperoxy-FAD by the Arg/Asn pair in HadA monooxygenase | Pimviriyakul P., Chaiyen P. | 2022 | FEBS Journal
| 0 |
| 16 | Heterologous Expression and Characterization of a Full-length Protozoan Nitroreductase from Leishmania orientalis isolate PCM2 | Pimviriyakul P., Kapaothong Y., Tangsupatawat T. | 2022 | Molecular Biotechnology
| 0 |
| 17 | Mechanistic roles of the neighbouring cysteine in enhancing nucleophilicity of catalytic residue in a two-cysteine succinic semialdehyde dehydrogenase | Paladkong T., Pimviriyakul P., Phonbuppha J., Maenpuen S., Chaiyen P., Chaiyen P., Tinikul R. | 2022 | FEBS Journal
| 0 |