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New antimycobacterial leads from multicomponent hydrazino-ugi reaction. / Lakontseva, Ekaterina; Karapetian, Ruben; Krasavin, Mikhail.

в: Medicinal Chemistry, Том 12, № 2, 01.03.2016, стр. 191-199.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

Harvard

Lakontseva, E, Karapetian, R & Krasavin, M 2016, 'New antimycobacterial leads from multicomponent hydrazino-ugi reaction', Medicinal Chemistry, Том. 12, № 2, стр. 191-199.

APA

Lakontseva, E., Karapetian, R., & Krasavin, M. (2016). New antimycobacterial leads from multicomponent hydrazino-ugi reaction. Medicinal Chemistry, 12(2), 191-199.

Vancouver

Lakontseva E, Karapetian R, Krasavin M. New antimycobacterial leads from multicomponent hydrazino-ugi reaction. Medicinal Chemistry. 2016 Март 1;12(2):191-199.

Author

Lakontseva, Ekaterina ; Karapetian, Ruben ; Krasavin, Mikhail. / New antimycobacterial leads from multicomponent hydrazino-ugi reaction. в: Medicinal Chemistry. 2016 ; Том 12, № 2. стр. 191-199.

BibTeX

@article{3ae25b87138249eab75ddb958bdddd57,
title = "New antimycobacterial leads from multicomponent hydrazino-ugi reaction",
abstract = "Background: Previously, modification of isoniazide- and pyrazinamide-derived pharmacophores via the Ugi multicomponent reaction proved to be an effective strategy to obtain efficacious and non-cytotoxic antimycobacterial leads. Objective: To apply the hydrazino-Ugi reaction developed in our group toward modifying these pharmacophores with similar appendages as reported previously; to create hydrolytically more stable compounds which are based on acyl hydrazine, rather than diamide backbone. Method: Six hydrazino-Ugi products were synthesized and modified at the reactive nitrogen atom via reductive alkylation. Additionally, by conducting the hydrazino-Ugi reaction in methanol, three methyl ester by-products were obtained and tested alongside the main library. Compounds were screened against M. tuberculosis H37Rv strain and checked for cytotoxicity vs. HEK293 cells. Hydrolytic stability of a model Ugi and one of the newly synthesized hydrazino-Ugi products was compared in rat plasma stability experiments. Results: 6 out of 20 compounds prepared and tested, displayed potent inhibition of M. tuberculosis growth and virtually no cytotoxicity in the testing concentration range. The stability of a sample hydrazino-Ugi product in rat plasma was over 3 times higher compared to that of one of the Ugi products reported earlier. Conclusion: Hydrazino-Ugi reaction represents an effective way to modify classical antitubercular chemotypes and generate compounds endowed with specific antimycobacterial activity. These are new, hydrolytically stable leads for the future antitubercular therapy development.",
keywords = "Antitubercular chemotherapy, Hydrazino-Ugi reaction, Isocyanide-based multicomponent reactions, Isoniazid, Pyrazinamide, Therapeutic window",
author = "Ekaterina Lakontseva and Ruben Karapetian and Mikhail Krasavin",
year = "2016",
month = mar,
day = "1",
language = "English",
volume = "12",
pages = "191--199",
journal = "Future Medicinal Chemistry",
issn = "1756-8919",
publisher = "Future Science",
number = "2",

}

RIS

TY - JOUR

T1 - New antimycobacterial leads from multicomponent hydrazino-ugi reaction

AU - Lakontseva, Ekaterina

AU - Karapetian, Ruben

AU - Krasavin, Mikhail

PY - 2016/3/1

Y1 - 2016/3/1

N2 - Background: Previously, modification of isoniazide- and pyrazinamide-derived pharmacophores via the Ugi multicomponent reaction proved to be an effective strategy to obtain efficacious and non-cytotoxic antimycobacterial leads. Objective: To apply the hydrazino-Ugi reaction developed in our group toward modifying these pharmacophores with similar appendages as reported previously; to create hydrolytically more stable compounds which are based on acyl hydrazine, rather than diamide backbone. Method: Six hydrazino-Ugi products were synthesized and modified at the reactive nitrogen atom via reductive alkylation. Additionally, by conducting the hydrazino-Ugi reaction in methanol, three methyl ester by-products were obtained and tested alongside the main library. Compounds were screened against M. tuberculosis H37Rv strain and checked for cytotoxicity vs. HEK293 cells. Hydrolytic stability of a model Ugi and one of the newly synthesized hydrazino-Ugi products was compared in rat plasma stability experiments. Results: 6 out of 20 compounds prepared and tested, displayed potent inhibition of M. tuberculosis growth and virtually no cytotoxicity in the testing concentration range. The stability of a sample hydrazino-Ugi product in rat plasma was over 3 times higher compared to that of one of the Ugi products reported earlier. Conclusion: Hydrazino-Ugi reaction represents an effective way to modify classical antitubercular chemotypes and generate compounds endowed with specific antimycobacterial activity. These are new, hydrolytically stable leads for the future antitubercular therapy development.

AB - Background: Previously, modification of isoniazide- and pyrazinamide-derived pharmacophores via the Ugi multicomponent reaction proved to be an effective strategy to obtain efficacious and non-cytotoxic antimycobacterial leads. Objective: To apply the hydrazino-Ugi reaction developed in our group toward modifying these pharmacophores with similar appendages as reported previously; to create hydrolytically more stable compounds which are based on acyl hydrazine, rather than diamide backbone. Method: Six hydrazino-Ugi products were synthesized and modified at the reactive nitrogen atom via reductive alkylation. Additionally, by conducting the hydrazino-Ugi reaction in methanol, three methyl ester by-products were obtained and tested alongside the main library. Compounds were screened against M. tuberculosis H37Rv strain and checked for cytotoxicity vs. HEK293 cells. Hydrolytic stability of a model Ugi and one of the newly synthesized hydrazino-Ugi products was compared in rat plasma stability experiments. Results: 6 out of 20 compounds prepared and tested, displayed potent inhibition of M. tuberculosis growth and virtually no cytotoxicity in the testing concentration range. The stability of a sample hydrazino-Ugi product in rat plasma was over 3 times higher compared to that of one of the Ugi products reported earlier. Conclusion: Hydrazino-Ugi reaction represents an effective way to modify classical antitubercular chemotypes and generate compounds endowed with specific antimycobacterial activity. These are new, hydrolytically stable leads for the future antitubercular therapy development.

KW - Antitubercular chemotherapy

KW - Hydrazino-Ugi reaction

KW - Isocyanide-based multicomponent reactions

KW - Isoniazid

KW - Pyrazinamide

KW - Therapeutic window

UR - http://www.scopus.com/inward/record.url?scp=84958551407&partnerID=8YFLogxK

M3 - Article

C2 - 26427929

AN - SCOPUS:84958551407

VL - 12

SP - 191

EP - 199

JO - Future Medicinal Chemistry

JF - Future Medicinal Chemistry

SN - 1756-8919

IS - 2

ER -

ID: 9716781