Keywords
1
2-diamines.
bioactive compounds
biomass conversion
chiral drugs
diaza–Cope rearrangement
enantioselective synthesis
Abstract
A practical method for the synthesis of (S,S)- and (R,R)-1,2-di(furan-2-yl)ethane-1,2-diamine antipodes in a multigram scale is based on the stereoselective reaction of furfural, a biomass processing product, with commercially available enantiomers of 1,2-bis(2-hydroxyphenyl)ethane-1,2-diamine under green chemistry conditions. Simple chemical transformations of the (S,S)-enantiomer were not accompanied by racemization and did not require chromatographic purification of the products. In this way, chiral derivatives of 2,3-diaminosuccinic acid exhibiting antimicrobial properties, and ketopiperazine, a structural fragment of some biologically active compounds, were obtained.
Funders
Ministry of Education and Science of the Russian Federation
075-00277-24-00
References
1.
Zhang M., Wang N., Liu J., Wang C., Xu Y., Ma L.
Critical Reviews in Biotechnology,
2021
2.
Espro C., Paone E., Mauriello F., Gotti R., Uliassi E., Bolognesi M.L., Rodríguez-Padrón D., Luque R.
Chemical Society Reviews,
2021
3.
Agirrezabal-Telleria I., Gandarias I., Arias P.L.
Bioresource Technology,
2013
4.
Yong K.J., Wu T.Y., Lee C.B., Lee Z.J., Liu Q., Jahim J.M., Zhou Q., Zhang L.
Biomass and Bioenergy,
2022
5.
Nardi M., Costanzo P., De Nino A., Di Gioia M.L., Olivito F., Sindona G., Procopio A.
Green Chemistry,
2017
6.
Galkin K.I.
Mendeleev Communications,
2023
7.
Titov K.O., Sinelnikov A.N., Antoshkina E.P., Zaretskaya U.I., Ratnikov A.K., Khakina E.A., Aliev T.M.
Mendeleev Communications,
2024
8.
García-Zaragoza A., Cerezo-Navarrete C., Oña-Burgos P., Martínez-Prieto L.M.
Nanoscale,
2023
9.
Douthwaite M., Huang X., Iqbal S., Miedziak P.J., Brett G.L., Kondrat S.A., Edwards J.K., Sankar M., Knight D.W., Bethell D., Hutchings G.J.
Catalysis Science and Technology,
2017
10.
Yang Y., Wang Y., Li S., Shen X., Chen B., Liu H., Han B.
Green Chemistry,
2020
11.
Zhou M., Li K., Chen D., Xu R., Xu G., Tang W.
Journal of the American Chemical Society,
2020
12.
Sandoval C.A., Ohkuma T., Muñiz K., Noyori R.
Journal of the American Chemical Society,
2003
13.
Kucherenko A.S., Kostenko A.A., Zhdankina G.M., Kuznetsova O.Y., Zlotin S.G.
Green Chemistry,
2018
14.
Kostenko A.A., Kucherenko A.S., Zlotin S.G.
Tetrahedron,
2018
15.
Ozaki Y., Iwasaki T., Miyoshi M., Matsumoto K.
Journal of Organic Chemistry,
1979
16.
Hansen J.C., Bjørn-Yoshimoto W.E., Bisballe N., Nielsen B., Jensen A.A., Bunch L.
Journal of Medicinal Chemistry,
2016
17.
Morley R.M., Tse H., Feng B., Miller J.C., Monaghan D.T., Jane D.E.
Journal of Medicinal Chemistry,
2005
18.
19.
Begato F., Penasa R., Wurst K., Licini G., Zonta C.
Angewandte Chemie,
2023
20.
Kim H., Nguyen Y., Yen C.P., Chagal L., Lough A.J., Kim B.M., Chin J.
Journal of the American Chemical Society,
2008
21.
Kim H., Staikova M., Lough A.J., Chin J.
Organic Letters,
2008
22.
So S.M., Mui L., Kim H., Chin J.
Accounts of Chemical Research,
2012
23.
Kucherenko A.S., Kostenko A.A., Gerasimchuk V.V., Zlotin S.G.
Organic and Biomolecular Chemistry,
2017
24.
Puangsamlee T., Miljanić O.Š.
Organic Letters,
2020
25.
Cheng T., Ma W., Luo H., Ye Y., Yan K.
Molecules,
2022
26.
Kim M., Kim H., Kim H., Chin J.
Journal of Organic Chemistry,
2017
27.
28.
Dunn G.L.
Annual Reports in Medicinal Chemistry,
1986
29.
Craig W.A., Gerber A.U.
Drugs,
1981
30.
Lau L.M., Nugent J.K., Zhao X., Irwin M.S.
Oncogene,
2007
31.
Kovalevsky R.A., Kucherenko A.S., Zlotin S.G.
Advanced Synthesis and Catalysis,
2024
32.
Smirnov M.V., Zhanabaeva M., Kucherenko A.S., Kuznetsova O.Y., Zlotin S.G.
Journal of Organic Chemistry,
2024