SNUEI

Perfusable micro-vascularized 3D tissue array for high-throughput vascular phenotypic screening

2022 · Nano Convergence

저자

James Yu, Somin Lee, Jiyoung Song, Byungjun Lee, Suryong Kim, Hyeri Choi, Habin Kang, Yunchan Hwang, Young‐Kwon Hong, 전누리 (Noo Li Jeon)

연구주제

3D Printing in Biomedical Research · Microfluidic and Capillary Electrophoresis Applications · Tissue Engineering and Regenerative Medicine

NTIS 과학기술표준분류

에너지/자원만에너지·환경·원자력 확장

가장 가까운 분류(기계 > 나노/마이크로기계시스템)가 에너지·환경·원자력 확장 범위 밖이다.

AI 연구 키워드·방법

공학적 미세혈관망 사출성형 미세유체 플랫폼 vascular phenotypic screening

사출 성형

키워드 (OpenAlex)

organ-on-a-chip injection molding 3D co-culture capillary flow human umbilical vein endothelial cells fibroblasts angiogenesis high-throughput phenotypic screening

초록

Microfluidic organ-on-a-chip technologies have enabled construction of biomimetic physiologically and pathologically relevant models. This paper describes an injection molded microfluidic platform that utilizes a novel sequential edge-guided patterning method based on spontaneous capillary flow to realize three-dimensional co-culture models and form an array of micro-vascularized tissues (28 per 1 × 2-inch slide format). The MicroVascular Injection-Molded Plastic Array 3D Culture (MV-IMPACT) platform is fabricated by injection molding, resulting in devices that are reliable and easy to use. By patterning hydrogels containing human umbilical endothelial cells and fibroblasts in close proximity and allowing them to form vasculogenic networks, an array of perfusable vascularized micro-tissues can be formed in a highly efficient manner. The high-throughput generation of angiogenic sprouts wa…

이 논문을 지원한 국가R&D 과제 (NTIS 성과)

연도과제부처사업수행기관NTIS 분류(1순위)
2022창의융합형 세계선도 기계공학 미래인재 교육연구단교육부4단계두뇌한국21사업(R&D)서울대학–
2022항암 임상시험을 위한 종양-면역 사이클 칩과학기술정보통신부개인기초연구(과기정통부)서울대학범위 밖

인접 그래프

노드 hover = 이웃 강조 · 1회 클릭 = 고정 · 고정된 노드 다시 클릭 = 페이지 이동

이 문서와 연결된 페이지

교수 1

전누리

연구주제 1

3D Printing in Biomedical Research

키워드 2

공학적 미세혈관망 · 사출성형 미세유체 플랫폼

방법 1

사출 성형