Research Achievement
Patents
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NIR-responsive stem cell-derived inflammation attenuating complex and use thereof
It is about an inflammation-suppressing complex using infrared-responsive thermal stem cells, and more specifically, to an inflammation-inhibiting complex using infrared-responsive thermal stem cells and its uses (2023)
NIR-responsive stem cell-derived inflammation attenuating complex and use thereof
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An infrared-responsive thermogenic stem cell-based anti-inflammatory complex, exhibiting enhanced migratory ability toward inflammatory sites in vivo.
The complex enables efficient delivery of anti-inflammatory agents to inflamed tissues, providing effective treatment for inflammatory diseases, including but not limited to arthritis. (2024)
ENG. NIR-responsive stem cell-derived inflammation attenuating complex and ues thereof
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Method of strengthening the ability of stem cells to move to the inflammatory area
It is about how to strengthen the performance of new stem cells, and more specifically, how to strengthen the mobility of stem cells to the inflammatory site, including the step of culturing stem cells in the culture of inflammation-related cells. (2021)
Method of strengthening the ability of stem cells to move to the inflammatory area
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A method of manufacturing an ectosome-PLGA complex with enhanced target capability for lesions
It is about the manufacturing method of a new ectosome-biodegradable polymer nanoparticle complex, and more particularly, a manufacturing method of an ectosome-biodegradable polymer nanoparticle complex with enhanced targeting on tumors and inflammatory sites (2022)
A method of manufacturing an ectosome-PLGA complex with enhanced target capability for lesions
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Ectosome-Biodegradable Polymer Nanoparticle Complex with Enhanced Targeting Capability for Disease and Its Use
It is about a new ectosome-biodegradable polymer nanoparticle complex, and more particularly, the ectosome-biodegradable polymer nanoparticle complex (2022) with enhanced targeting on tumors and inflammatory sites
Ectosome-Biodegradable Polymer Nanoparticle Complex with Enhanced Targeting Capability for Disease and Its Use
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Stem cell-derived ecto-liposome fusion nanoparticles, in which ectosomes and liposomes are fused, form a novel drug delivery system with enhanced tumor-targeting ability compared to conventional carriers.
These nanoparticles enable efficient loading and delivery of anticancer agents for systemic or localized therapy, and can be used as a therapeutic platform for treating intractable and metastatic cancers. (2024)Stem cell-derived ecto-Liposome fusion nanoparticle complex and use thereof
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Ectosomes containing the SARS-CoV-2 spike protein were applied to lung cancer cells using ectosomes isolated from cells overexpressing the spike protein (HEK-S) as nanocarriers for targeted therapy. As a result, they exhibited high anticancer efficacy without side effects, suggesting their potential as a novel strategy for cancer-targeted treatment. (2025)
Ectosome containing coronavirus spike protein and use thereof
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Ectosomes containing the SARS-CoV-2 spike protein were applied to lung cancer cells using ectosomes isolated from cells overexpressing the spike protein (HEK-S) as nanocarriers for targeted therapy. As a result, they exhibited high anticancer efficacy without side effects, suggesting their potential as a novel strategy for cancer-targeted treatment. (2025)
Ectosome containing coronavirus spike protein and use thereof
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Fusion nanoparticles with enhanced targeting ability toward lesions, formed by the fusion of membrane vesicles derived from stem cells cultured with anti-inflammatory agents and liposomes, can be used as drug delivery carriers for systemic or localized release of therapeutic agents such as anticancer drugs, and may serve as therapeutics for the treatment of tumors. (2025)
Efficacy analysis of a stem cell-derived nano-anticancer drug delivery system with enhanced targeting ability induced by dexamethasone
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Fusion nanoparticles with enhanced targeting ability toward lesions, formed by the fusion of membrane vesicles derived from stem cells cultured with anti-inflammatory agents and liposomes, can be used as drug delivery carriers for systemic or localized release of therapeutic agents such as anticancer drugs, and may serve as therapeutics for the treatment of tumors. (2025)
[PCT] Efficacy analysis of a stem cell-derived nano-anticancer drug delivery system with enhanced targeting ability induced by dexamethasone