Quantum Software Stack Development
Quantum software stack development is fundamental to enabling scalable and efficient quantum computing. We focus on building a layered architecture that bridges high-level quantum algorithms and low-level hardware instructions. By integrating advanced compiler technologies, simulation acceleration technologies, and error-aware optimizations, we aim to build a robust, modular software stack that maximizes the capabilities of quantum hardware while minimizing the impact of noise. This work lays the foundation for dependable and high-performance quantum systems.
Quantum Error Mitigation and Correction
Our research enhances quantum reliability by bridging the gap between the NISQ and FTQC eras. We develop compiler-based optimizations and specialized architectures to mitigate noise in current NISQ machines, ensuring higher computational accuracy. Simultaneously, we advance fault-tolerant systems by developing high-efficiency decoders and exploring magic-state distillation and cultivation. By optimizing these Quantum Error Correction (QEC) technologies, our work establishes the essential framework for scalable and stable large-scale quantum computing.
Quantum Circuit Simulation Acceleration
To mitigate the exponential overhead of vector-matrix multiplication in large-scale quantum simulations, we investigate acceleration techniques that leverage near- and in-memory computing based on emerging memory technologies. We also explore circuit-knitting methods to decompose large circuits into smaller, manageable subcircuits, effectively bypassing the memory limitations of classical hardware. By combining these hardware-driven optimizations with hybrid classical-quantum algorithms, we aim to significantly extend the boundaries of large-scale quantum circuit simulation.
Quantum Artificial Intelligence (Quantum AI)
Quantum AI is an exciting and innovative research field that integrates quantum computing and artificial intelligence to advance the capabilities of next-generation AI systems. Quantum AI has the potential to significantly improve the efficiency and effectiveness of AI algorithms by leveraging quantum computational advantages. We conduct research using compiler technology to optimize performance and minimize errors in Quantum AI applications across fields such as drug discovery, finance, and optimization.
결함허용 논리양자큐빗 컴퓨팅 환경을 제공하는 양자운영체제 원천기술 개발, 정보통신기획평가원 (IITP), 2021.05-2027.12
PIM 기반의 유연하고 확장 가능한 고속 양자오류정정 디코더 구조에 대한 연구 (글로컬 R&D), 한국연구재단 (NRF), 2025.09-2028.08
양자기술 대중화를 위한 GUI 기반 양자컴퓨팅 실습형 양자교육/사업화 플랫폼 QuEdu 개발, 서울경제진흥원 (SBA), 2025.10-2026.09
연결성극복 및 자원효율적 오류정정용 초전도 QPU 아키텍쳐 설계 및 실증 기술 개발 (양자과학기술플래그십프로젝트), 한국연구재단 (NRF), 2025.10-2029.12
혁신 항암제 개발에서의 양자 이득: 비정형 단백질 구조 예측을 위한 양자 소프트웨어 기술 개발 (한국연구재단 양자이득도전연구, 2023.04-2025.12)
금융문제 해결을 위한 양자-고전 하이브리드 시스템 연구 생태계 조성 및 고급인력 양성 사업 (부산테크노파크 RIS, 2024.03-2025.02)
인공지능 학습/추론 효율성 향상을 위한 서버용 SW 프레임워크 개발 (정보통신기획평가원, 2021.04-2024.12)
Micro-display Controller Design (한국산업기술평가관리원, 2021.04-2024.12)
EPS Monitoring System (강원테크노파크, 2021.03-2024.04)
Distributed Power Controller Management (한국에너지기술연구원, 2021.01-2022.10)
멤리스터 크로스바 기반의 양자컴퓨터 시뮬레이션 기술 연구 (한국연구재단 우수신진, 2019.03-2022.02)
AIX 인공지능 가속기를 위한 Frontend Compiler 기술 개발 (SK텔레콤, 2020.08-2020.12)
공동주택용 전기자동차 지능형 충전수요관리 시스템 (한국전력, 2017.05-2020.04)
하우징 터치 UI SoC용 소프트웨어 기술 개발 (Sentous, 2018.09-2019.08)
IoT를 활용한 전자식 다용도 스마트 발효용기 개발 (중소기업청, 2017.12-2018.11)
자연재해에 따른 대규모 발전단지 정지 시 전력계통영향 검토 (한국전력거래소, 2016.12-2017.05)
모바일기기 하우징 터치 UI SoC용 소프트웨어 환경 (Sentous, 2016.12-2017.06)
State Estimation (한국전력, 2016.08-2017.03)
Powerflow Analysis (한국전력, 2013.06-2015.09)
NFC Software Framework (Raontech, 2013.03-2014.09 )
EISC Compiler Optimization (ADChips, 2011.04-2012.03)
(우) (48513) 부산광역시 남구 용소로 45 국립 부경대학교 대연캠퍼스 누리관 (A13) #2309 Tel. : 051-629-6250 Fax : 051-629-6264
Nuri building (A13) #2309, Daeyeon Campus Pukyong National University, 45 Yongso-ro, Nam-gu, Busan, South Korea, 48513