Kijoo Joo
Ewha Womans University
研究室紹介
Professor Kijoo Joo's research lab specializes in biomaterials engineering with a focus on developing advanced delivery systems and tissue engineering scaffolds for cancer therapy and regenerative medicine. The lab pioneers innovative strategies such as microneedle patches for localized drug delivery in melanoma treatment and bioinspired composite scaffolds for bone regeneration, emphasizing biodegradability, mechanical strength, and biocompatibility. A central theme in their work is the integration of natural adhesive proteins and polysaccharides—like mussel adhesive protein and levan—to enhance material performance and reduce systemic toxicity. Their research bridges materials science, oncology, and orthopedic tissue engineering to create smart, biologically inspired solutions for clinical challenges.
Research Overview
Research Output Trend
Figures are computed from collected data and may differ slightly.
Selected Papers
3Melanoma is one of the most threatening cancers due to its metastatic capacity and its incidence is recently increasing due to ozone depletion and excessive exposure to ultraviolet. Adjuvant therapy after primary surgical resection is commonly used to prevent tumor recurrence. However, its clinical outcome is not often satisfactory, mainly due to insufficient local accumulation and the systemic toxicity of antitumor drugs. Herein, we reported a self-biodegradable tissue adhesive microneedle (MN)
Among many treatment options to prevent cancer progression, cancer immunotherapy has become a powerful clinical strategy due to its favorable clinical outcomes. The number of clinical trials in immune checkpoint blockade (ICB) therapy and chimeric antigen receptor (CAR)-T cell therapy has been remarkably increasing in recent years. However, the currently available options for these treatments pose significant challenges related to immune-related adverse effects and limited therapeutic efficacy.
Biodegradable materials have been received great attention as bone graft substitutes for bone regeneration and tissue engineering. However, their low mechanical property remains a major challenge for the use in loadbearing applications. Here, we developed mechanically reinforced composite scaffold containing adhesive levan as a binder for sintered hydroxyapatite (sHAp) and then examined the mechanical and thermal properties of the composite scaffold. We found that sHAp-levan composite scaffold e