Cancer Patient Tissueoid with Self-Homing Nano-Targeting of Metabolic Inhibitor
- Authors
- HYO-JIN YOON; YOUNG SHIN CHUNG; Yong Jae Lee; Seung-Eun Yu; SEWOOM BAEK; HYESEON KIM; SANG WUN KIM; JUNG-YUN LEE; SUNG HOON KIM; Hak-Joon Sung
- Issue Date
- Nov-2021
- Publisher
- Wiley-vch Verlag GmbH &Co
- Keywords
- cancer cell-derived nanovesicles; ovarian cancer; patient-specific treatments; , self-homing nano-targeting; tissueoid
- Citation
- Advanced Science, v.8, no.22, pp.1 - 13
- Journal Title
- Advanced Science
- Volume
- 8
- Number
- 22
- Start Page
- 1
- End Page
- 13
- URI
- https://yscholarhub.yonsei.ac.kr/handle/2021.sw.yonsei/6278
- DOI
- 10.1002/advs.202105264
- ISSN
- 2198-3844
- Abstract
- The current paradigm of cancer medicine focuses on patient- and/or cancer-specific treatments, which has led to continuous progress in the development of patient representatives (e.g., organoids) and cancer-targeting carriers for drug screening. As breakthrough concepts, i) living cancer tissues convey intact profiles of patient-specific microenvironmental signatures. ii) The growth mechanisms of cancer mass with intense cell-cell interactions can be harnessed to develop self-homing nano-targeting by using cancer cell-derived nanovesicles (CaNVs). Hence, a tissueoid model of ovarian cancer (OC) is developed by culturing OC patient tissues in a 3D gel chip, whose microchannel networks enable perfusion to maintain tissue viability. A novel model of systemic cancer responses is approached by xenografting OC tissueoids into ischaemic hindlimbs in nude mice. CaNVs are produced to carry general chemotherapeutics or new drugs under pre/clinical studies that target the BRCA mutation or energy metabolism, thereby increasing the test scope. This pioneer study cross-validates drug responses from the OC clinic, tissueoid, and animal model by demonstrating the alignment of results in drug type-specific efficiency, BRCA mutation-dependent drug efficiency, and metabolism inhibition-based anti-cancer effects. Hence, this study provides a directional foundation to accelerate the discovery of patient-specific drugs with CaNV application towards future precision medicine.
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Collections - College of Medicine > 의과대학 의학공학교실 > 1. Journal Articles
- College of Medicine > 의과대학 산부인과학교실 > 1. Journal Articles

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