TY - JOUR
T1 - Evaluation of glycosylated docetaxel-encapsulated liposomes prepared by remote loading under solubility gradient
AU - Shigehiro, Tsukasa
AU - Zhai, Wenjia
AU - Vaidyanath, Arun
AU - Masuda, Junko
AU - Mizutani, Akifumi
AU - Kasai, Tomonari
AU - Murakami, Hiroshi
AU - Hamada, Hiroki
AU - Salomon, David S.
AU - Mikuni, Katsuhiko
AU - Seno, Yuhki
AU - Mandai, Tadakatsu
AU - Seno, Masaharu
N1 - Publisher Copyright:
© 2016 Taylor and Francis.
Copyright:
Copyright 2017 Elsevier B.V., All rights reserved.
PY - 2016/2/17
Y1 - 2016/2/17
N2 - Docetaxel comprises one of the most effective anti-cancer drugs despite of serious side effects. Liposomes encapsulation is practically feasible to deliver the drug. However, due to the significant hydrophobicity, docetaxel will be integrated into the lipid bilayer resulting in poor encapsulation capacity. Here, we evaluated a remote loading strategy using a solubility gradient made between the two solvents for 7-glucosyloxyacetyldocetaxel, which has enhanced water solubility of docetaxel with a coupled glucose moiety. Therefore, 7-glucosyloxyacetyldocetaxel was more effectively encapsulated into liposomes with 71.0% of encapsulation efficiency than docetaxel. While 7-glucosyloxyacetyldocetaxel exhibited 90.9% of tubulin stabilisation activity of docetaxel, 7-glucosyloxyacetyldocetaxel encapsulated in liposomes significantly inhibited the growth of tumour in vivo with side effects less than unencapsulated drug. Collectively, the encapsulation of 7-glucosyloxyacetyldocetaxel into liposomes by remote loading under the solubility gradient is considered to be a promising application to prepare practical drug delivery system.
AB - Docetaxel comprises one of the most effective anti-cancer drugs despite of serious side effects. Liposomes encapsulation is practically feasible to deliver the drug. However, due to the significant hydrophobicity, docetaxel will be integrated into the lipid bilayer resulting in poor encapsulation capacity. Here, we evaluated a remote loading strategy using a solubility gradient made between the two solvents for 7-glucosyloxyacetyldocetaxel, which has enhanced water solubility of docetaxel with a coupled glucose moiety. Therefore, 7-glucosyloxyacetyldocetaxel was more effectively encapsulated into liposomes with 71.0% of encapsulation efficiency than docetaxel. While 7-glucosyloxyacetyldocetaxel exhibited 90.9% of tubulin stabilisation activity of docetaxel, 7-glucosyloxyacetyldocetaxel encapsulated in liposomes significantly inhibited the growth of tumour in vivo with side effects less than unencapsulated drug. Collectively, the encapsulation of 7-glucosyloxyacetyldocetaxel into liposomes by remote loading under the solubility gradient is considered to be a promising application to prepare practical drug delivery system.
KW - Docetaxel
KW - glycosylated docetaxel
KW - liposome
KW - remote loading method
KW - solubility gradient
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U2 - 10.3109/02652048.2016.1144815
DO - 10.3109/02652048.2016.1144815
M3 - Article
C2 - 26885749
AN - SCOPUS:84958527332
SN - 0265-2048
VL - 33
SP - 172
EP - 182
JO - Journal of Microencapsulation
JF - Journal of Microencapsulation
IS - 2
ER -