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✦ QTFS 2026
By the Qiantang River · Painting a grand blueprint from outstanding principles to widespread applications
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📋 Schedule
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DAY 1
Registration
Oct 16, 9:00–23:00
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DAY 2
Conference Opening
Oct 17
Opening · Plenaries · Parallel Sessions · Banquet
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DAY 3
Conference Closing
Oct 18
Parallel Sessions · Closing Ceremony
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Visit
Lab Visit
Oct 18, 13:00–15:00
ZJU Hangzhou International Science and Technology Innovation Center – Zhejiang Provincial Integrated Circuit Innovation Platform
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⚛ Presidium Presidium
Yasuhiko Arakawa
The University of Tokyo
Member, Japan Academy of Engineering
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Yu Dapeng
Shenzhen International Quantum Research Institute
Academician, CAS
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Lu Jun
Quantum Technology Yangtze River Delta Industrial Innovation Center
Academician, CAE
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Yang Deren
Zhejiang University
Academician, CAS
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Chang Kai
Zhejiang University
Academician, CAS
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Lin Haiqing
Zhejiang University
Academician, CAS
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Wu Hanming
Zhejiang University
Academician, CAE
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Alexey Kavokin
Moscow Institute of Physics and Technology
Director of the Abrikosov Center for Theoretical Physics
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◈ Executive Chair Executive Chair
Jin Chaoyuan
Zhejiang University
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Shi Baosen
University of Science and Technology of China
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⚛ Co-Chairs Co-Chairs
Cai Dingping City University of Hong Kong |
Chen Jingbiao Peking University |
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Jin Xianmin Shanghai Jiao Tong University |
Liu Wuming Institute of Physics, CAS |
Lou Senyue Ningbo University |
Lu Zhongyi Renmin University of China |
Peng Liangyou Peking University |
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Quan Wei Beihang University |
Wang Shuming Nanjing University |
Weng Wenkang Huawei Technologies |
Yuan Zhiliang Beijing Academy of Quantum Information Sciences |
Zhang Jing Xi'an Jiaotong University |
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⚛ Session Co-Chairs Session Co-Chairs
Cao Zizheng Zhejiang University |
Gu Yongjian Ocean University of China |
Liu Zuoye Lanzhou University |
Xia Keyu Nanjing University |
Xiang Shuiying Xidian University |
Xiao Yanhong Fudan University |
Xie Zhenda Nanjing University |
Xiong Shijing Zhejiang University |
Xiu Xiaoming Bohai University |
Xu Haitian Nanjing University |
Xue Fei Zhejiang University |
Zhang Yuan Zhengzhou University |
Zhou Rigui Shanghai Maritime University |
Zhu Huihui ZJU Hangzhou International Science and Technology Innovation Center |
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◈ Co‑organizers |
ZJU Hangzhou International Science and Technology Innovation Center
ZJU School of Physics
ZJU School of Integrated Circuits
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◈ Supporting |
Shenzhen Quantum Information Society
Micro‑Optics Committee, Chinese Optical Society
Integrated Circuit Institute, CCID
Industrial Ecology Committee, Quantum Technology Innovation Alliance
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🎤 Plenary Talks
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Yasuhiko Arakawa
The University of Tokyo · Member, Japan Academy of Engineering
Title: Advances in quantum dot photonics: From the dawn to practical applications
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Yu Dapeng
Shenzhen International Quantum Research Institute · Academician, CAS
Title: Recent progress in solid‑state quantum computing at Shenzhen International Quantum Research Institute
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Alexey Kavokin
Moscow Institute of Physics and Technology · Director of the Abrikosov Center for Theoretical Physics
Title: 25‑qubit prototype of a polariton quantum processor
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Lu Jun
Quantum Technology Yangtze River Delta Industrial Innovation Center · Academician, CAE
Title: Supporting quantum technology industrial system and high‑quality development with higher‑level electronic industry and education systems
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Lu Chaoyang
University of Science and Technology of China
Title: Quantum computing with atoms and photons
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Chang Kai
Zhejiang University · Academician, CAS
Title: TBA
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Wu Hanming
Zhejiang University · Academician, CAE
Title: Zhejiang University 12‑inch CMOS advanced photonic and quantum manufacturing technology
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📌 Topics Topics
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Session 1
01 Quantum Computing and Quantum Simulation
Focusing on quantum processors, error correction codes, and simulation algorithms. Breakthroughs in hundred‑qubit processors across multiple platforms, with error correction moving toward experimental demonstration. The market is estimated to reach hundreds of billions of dollars, initially empowering finance, drug discovery, and materials design. Future directions include AI integration and quantum machine learning, facilitating fundamental research in chemical reactions and high‑temperature superconductivity.
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Session 2
02 Quantum Communication and Quantum Networks
Covering quantum key distribution, repeaters, and satellite‑ground networks. Satellite‑ground networks have been established, with direct communication reaching kilometre‑scale. The market is driven by both policy and demand, with telecom operators and financial institutions expanding capacity. Future efforts will build a quantum internet, achieving intercity backbone interconnection and satellite‑ground networking to secure government, financial, and defence communications.
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Session 3
03 Quantum Precision Measurement and Quantum Sensing
Based on entanglement, squeezed states, and atom interferometry, applied to navigation, time‑frequency, and bio‑imaging. The market is expected to reach several hundred million dollars by 2026. Future developments will move toward chip‑scale, low‑cost solutions, expanding into unmanned‑system navigation, underground resource exploration, and brain‑magnetic‑field detection.
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Session 4
04 Quantum Optics and Quantum Information Processing
Investigating quantum effects of light‑matter interactions, providing single‑photon and entangled‑photon sources. Industrial demand for devices is growing. Future focus on integrated quantum photonic chips and broadband network nodes, promoting cross‑disciplinary research between quantum optics and topological photonics, laying the foundation for large‑scale quantum information processing.
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Session 5
05 Novel Quantum Materials, Devices and Integration Technologies
Focusing on topological materials, superconductors, 2D materials, and micro‑nano integration. As the upstream of the industry chain, specialized materials and equipment will see growth. Future will explore room‑temperature materials, CMOS‑compatible processes, and 3D integrated chips, facilitating the transition of quantum technologies from laboratory to large‑scale commercial use.
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★ Special Forum
06 Young Scientists Forum
A platform for young scholars under 45 to present innovative achievements and exchange frontier ideas, fostering the next generation of talent in quantum technology.
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