Improving regorafenib's organ target precision via nano-assembly to change its delivery mode abolishes chemoresistance and liver metastasis of colorectal cancer

A regorafenib nanodrug is prepared by self-assembly using regorafenib and clinically approved indocyanine green, which sufficiently delivers regorafenib into colorectal tumor and liver metastasis, markedly enhances regorafenib’s therapeutic efficacy. [Display omitted] •A regorafenib nanodrug (nanoRF...

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Published inJournal of colloid and interface science Vol. 607; no. Pt 1; pp. 229 - 241
Main Authors Liu, Jia, Fu, Daan, Wang, Kang, Yuan, Ye, Deng, Yan, Shi, Lin, Li, Mingyi, Zhou, Cheng, Lu, Xiaohuan, Lv, Qiying, Wang, Guobin, Wang, Lin, Wang, Zheng
Format Journal Article
LanguageEnglish
Published Elsevier Inc 01.02.2022
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Abstract A regorafenib nanodrug is prepared by self-assembly using regorafenib and clinically approved indocyanine green, which sufficiently delivers regorafenib into colorectal tumor and liver metastasis, markedly enhances regorafenib’s therapeutic efficacy. [Display omitted] •A regorafenib nanodrug (nanoRF) was fabricated by self-assembly.•NanoRF encapsulated regorafenib with a high loading content of 96%.•NanoRF exhibited excellent reproducibility and colloidal stability.•NanoRF effectively delivered regorafenib into tumor local and liver.•NanoRF enhanced regorafenib’s antitumor efficacy in advanced colorectal cancers. Distant metastases and chemotherapy repellency are the key causes of colorectal cancer (CRC)-related mortality. Regorafenib, an oral multi-kinase inhibitor approved for treating advanced CRC with distant metastases and/or chemo-resistance, however only improves median overall survival by 1.4 months. Such limited therapeutic effect is likely due to the low bioavailability of orally administered hydrophobic regorafenib. A regorafenib nanodrug is fabricated by one-step self-assembly with a clinically often-used fluorescent agent (indocyanine green) for overcoming regorafenib’s limitations, towards improving regorafenib’s therapeutic efficacy in advanced CRC. This nanodrug (nanoRF) was characterized, and its antitumor effects were assessed in three preclinical CRC models. NanoRF converts regorafenib’s delivery approach from oral to intravenous with a significantly high encapsulation efficacy of regorafenib (96%) and a long-time colloidal stability. Nanodrug (nanoRF) markedly prolongs regorafenib’s blood circulation by halving clearance rate, and enhances regorafenib’s tumor accumulation. Across three preclinical CRC models (xenografted tumor, chemodrug-resistant xenografted tumor, and liver metastasis), nanoRF drastically enhances regorafenib’s tumor inhibiting efficacy by 0.5–4 folds and effectively extends survival by 0.5–5 folds. This regorafenib nanodrug is a simple, safe, and efficient therapeutic nanodrug for treating advanced CRC with a ready-to-be-clinically-translated potential.
AbstractList A regorafenib nanodrug is prepared by self-assembly using regorafenib and clinically approved indocyanine green, which sufficiently delivers regorafenib into colorectal tumor and liver metastasis, markedly enhances regorafenib’s therapeutic efficacy. [Display omitted] •A regorafenib nanodrug (nanoRF) was fabricated by self-assembly.•NanoRF encapsulated regorafenib with a high loading content of 96%.•NanoRF exhibited excellent reproducibility and colloidal stability.•NanoRF effectively delivered regorafenib into tumor local and liver.•NanoRF enhanced regorafenib’s antitumor efficacy in advanced colorectal cancers. Distant metastases and chemotherapy repellency are the key causes of colorectal cancer (CRC)-related mortality. Regorafenib, an oral multi-kinase inhibitor approved for treating advanced CRC with distant metastases and/or chemo-resistance, however only improves median overall survival by 1.4 months. Such limited therapeutic effect is likely due to the low bioavailability of orally administered hydrophobic regorafenib. A regorafenib nanodrug is fabricated by one-step self-assembly with a clinically often-used fluorescent agent (indocyanine green) for overcoming regorafenib’s limitations, towards improving regorafenib’s therapeutic efficacy in advanced CRC. This nanodrug (nanoRF) was characterized, and its antitumor effects were assessed in three preclinical CRC models. NanoRF converts regorafenib’s delivery approach from oral to intravenous with a significantly high encapsulation efficacy of regorafenib (96%) and a long-time colloidal stability. Nanodrug (nanoRF) markedly prolongs regorafenib’s blood circulation by halving clearance rate, and enhances regorafenib’s tumor accumulation. Across three preclinical CRC models (xenografted tumor, chemodrug-resistant xenografted tumor, and liver metastasis), nanoRF drastically enhances regorafenib’s tumor inhibiting efficacy by 0.5–4 folds and effectively extends survival by 0.5–5 folds. This regorafenib nanodrug is a simple, safe, and efficient therapeutic nanodrug for treating advanced CRC with a ready-to-be-clinically-translated potential.
Distant metastases and chemotherapy repellency are the key causes of colorectal cancer (CRC)-related mortality. Regorafenib, an oral multi-kinase inhibitor approved for treating advanced CRC with distant metastases and/or chemo-resistance, however only improves median overall survival by 1.4 months. Such limited therapeutic effect is likely due to the low bioavailability of orally administered hydrophobic regorafenib. A regorafenib nanodrug is fabricated by one-step self-assembly with a clinically often-used fluorescent agent (indocyanine green) for overcoming regorafenib's limitations, towards improving regorafenib's therapeutic efficacy in advanced CRC. This nanodrug (nanoRF) was characterized, and its antitumor effects were assessed in three preclinical CRC models. NanoRF converts regorafenib's delivery approach from oral to intravenous with a significantly high encapsulation efficacy of regorafenib (96%) and a long-time colloidal stability. Nanodrug (nanoRF) markedly prolongs regorafenib's blood circulation by halving clearance rate, and enhances regorafenib's tumor accumulation. Across three preclinical CRC models (xenografted tumor, chemodrug-resistant xenografted tumor, and liver metastasis), nanoRF drastically enhances regorafenib's tumor inhibiting efficacy by 0.5-4 folds and effectively extends survival by 0.5-5 folds. This regorafenib nanodrug is a simple, safe, and efficient therapeutic nanodrug for treating advanced CRC with a ready-to-be-clinically-translated potential.Distant metastases and chemotherapy repellency are the key causes of colorectal cancer (CRC)-related mortality. Regorafenib, an oral multi-kinase inhibitor approved for treating advanced CRC with distant metastases and/or chemo-resistance, however only improves median overall survival by 1.4 months. Such limited therapeutic effect is likely due to the low bioavailability of orally administered hydrophobic regorafenib. A regorafenib nanodrug is fabricated by one-step self-assembly with a clinically often-used fluorescent agent (indocyanine green) for overcoming regorafenib's limitations, towards improving regorafenib's therapeutic efficacy in advanced CRC. This nanodrug (nanoRF) was characterized, and its antitumor effects were assessed in three preclinical CRC models. NanoRF converts regorafenib's delivery approach from oral to intravenous with a significantly high encapsulation efficacy of regorafenib (96%) and a long-time colloidal stability. Nanodrug (nanoRF) markedly prolongs regorafenib's blood circulation by halving clearance rate, and enhances regorafenib's tumor accumulation. Across three preclinical CRC models (xenografted tumor, chemodrug-resistant xenografted tumor, and liver metastasis), nanoRF drastically enhances regorafenib's tumor inhibiting efficacy by 0.5-4 folds and effectively extends survival by 0.5-5 folds. This regorafenib nanodrug is a simple, safe, and efficient therapeutic nanodrug for treating advanced CRC with a ready-to-be-clinically-translated potential.
Distant metastases and chemotherapy repellency are the key causes of colorectal cancer (CRC)-related mortality. Regorafenib, an oral multi-kinase inhibitor approved for treating advanced CRC with distant metastases and/or chemo-resistance, however only improves median overall survival by 1.4 months. Such limited therapeutic effect is likely due to the low bioavailability of orally administered hydrophobic regorafenib. A regorafenib nanodrug is fabricated by one-step self-assembly with a clinically often-used fluorescent agent (indocyanine green) for overcoming regorafenib’s limitations, towards improving regorafenib’s therapeutic efficacy in advanced CRC. This nanodrug (nanoRF) was characterized, and its antitumor effects were assessed in three preclinical CRC models. NanoRF converts regorafenib’s delivery approach from oral to intravenous with a significantly high encapsulation efficacy of regorafenib (96%) and a long-time colloidal stability. Nanodrug (nanoRF) markedly prolongs regorafenib’s blood circulation by halving clearance rate, and enhances regorafenib’s tumor accumulation. Across three preclinical CRC models (xenografted tumor, chemodrug-resistant xenografted tumor, and liver metastasis), nanoRF drastically enhances regorafenib’s tumor inhibiting efficacy by 0.5–4 folds and effectively extends survival by 0.5–5 folds. This regorafenib nanodrug is a simple, safe, and efficient therapeutic nanodrug for treating advanced CRC with a ready-to-be-clinically-translated potential.
Author Yuan, Ye
Wang, Kang
Wang, Zheng
Deng, Yan
Li, Mingyi
Fu, Daan
Lu, Xiaohuan
Zhou, Cheng
Lv, Qiying
Wang, Lin
Shi, Lin
Wang, Guobin
Liu, Jia
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Keywords Regorafenib
Self-assembly
Drug delivery
Nanodrug
Advanced colorectal cancer
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Snippet A regorafenib nanodrug is prepared by self-assembly using regorafenib and clinically approved indocyanine green, which sufficiently delivers regorafenib into...
Distant metastases and chemotherapy repellency are the key causes of colorectal cancer (CRC)-related mortality. Regorafenib, an oral multi-kinase inhibitor...
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SubjectTerms Advanced colorectal cancer
bioavailability
blood circulation
colorectal neoplasms
Drug delivery
encapsulation
fluorescent dyes
hydrophobicity
intravenous injection
liver
metastasis
mortality
Nanodrug
Regorafenib
Self-assembly
Title Improving regorafenib's organ target precision via nano-assembly to change its delivery mode abolishes chemoresistance and liver metastasis of colorectal cancer
URI https://dx.doi.org/10.1016/j.jcis.2021.08.179
https://www.proquest.com/docview/2571927121
https://www.proquest.com/docview/2636504741
Volume 607
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