Next-Generation
Bioartificial
Organs

3D Printing
Biomaterials
Tissue Biomechanics
Mechanobiology

3D 프린팅과 생체재료 기술에
조직역학·기계생물학을 접목하여
기능성 인공조직과 바이오인공장기를 연구합니다.

Research Areas ↗About the Lab ↓

Concept illustration of a three-head bioprinter behind an engineered skin patch and a vascular graft with softly differentiated tissue layers — Bioprinted tissue & scaffold concepts AI-generated illustration

PaB LAB / YANGSAN CAMPUSSCROLL TO EXPLORE ↓

RECRUITMENT2027 전기 대학원생 · 연구원 모집View opportunities ↗

01 / What We Do

3D Printing-assisted
Biofabrication Lab.

부산대학교 3D 바이오가공기술 연구실

Our laboratory develops next-generation bioartificial organs by integrating 3D printing, biomaterials, biomechanics, bioelectronics and artificial intelligence.

At the core of our research is 3D Printing-assisted Biofabrication & Biomanufacturing. We use micro- and nano-scale printing technologies to engineer functional tissues, implantable regenerative constructs, mini-organs and organ-on-a-chip platforms.

The Lab at a Glance

We integrate biofabrication, biomechanics, medical devices, and AI to engineer
next-generation platforms for healthcare and regenerative medicine.

01MAKE

Biofabrication &Biomanufacturing

Micro/Nano 3D PrintingBiomaterials / Bioinks

핵심 연구

마이크로·나노 3D 프린팅
바이오잉크 · 생체재료

대표 응용

이식형 재생조직
미니장기
Organ-on-a-Chip

02MATURE

Biomechanics &Mechanobiology

Mechanical & ElectricalStimulation · Bioreactor

핵심 연구

물리적 자극(전단·인장·압축·전기)
바이오리액터 시스템

대표 응용

조직 성숙화
질환 모델링
대량 세포배양

03TREAT

PrintedMedical Devices

Microneedle · BioelectronicsBiosensor

핵심 연구

마이크로니들 · 바이오일렉트로닉스
바이오센서

대표 응용

약물전달
조직 자극
생체신호 측정

04DESIGN

AI-assistedInverse Design

AI · OptimizationVascular Network Design

핵심 연구

AI 기반 구조·물성 역설계
혈관 네트워크 설계

대표 응용

혈관 네트워크
맞춤형 조직공학 구조체

We investigate how mechanical and electrical microenvironments regulate cell and tissue behavior. By recreating physiologically relevant shear, stretch, compression and electrical stimulation, we develop bioreactor systems for tissue maturation, disease modeling and large-scale cell and tissue culture.

Beyond tissue fabrication, we translate printing technologies into medical devices, including microneedles for drug delivery, printed bioelectronics for tissue stimulation and biosensors for monitoring biological signals.

We are also expanding toward AI-assisted inverse design to determine tissue architectures and material properties from desired biological functions, with interests in vascular network design and tissue-specific mechanical property optimization.

02 / Research