years of optical quantum computer technology developed at U-Tokyo. Lab HP→ http://www.alice.t.u-tokyo.ac.jp/index.php • Rapidly growing with big fundraising and selection for national projects. • Multinational team by top talents from Japan and around the world. Name OptQC Corp. Established 2024/9/2 Funding 2.15B JPY Location IT tower TOKYO 15F, 3-28-13 Nishi-Ikebukuro, Toshima-ku, Tokyo Employee* 63 (foreign national:14) Business Development and sale of optical quantum computers HP https://www.optqc.com/ As of 2026/8/1 *including contractors, excluding directors 3
Director, CTO Warit Asavanant Ph.D. in Applied Physics from U-Tokyo (Furusawa Lab) 10+ years of experience in hardware for quantum computers Specialized in generation of logical optical qubit Board member of Q-STAR ⚫ ⚫ ⚫ ⚫ Director, COO Noriaki Iwata ⚫ ⚫ ⚫ Ph.D. in Applied Physics from U-Tokyo (Furusawa Lab) 10+ years of experience in hardware for quantum computers Specialized in large-scale entangled state and optical quantum processor Recipient of MIT Innovators Under 35 Japan 2024 Director Takuji Hiraoka M.E. in Applied Physics from U-Tokyo (Furusawa Lab) 15+ years of experiences in strategy and biz-dev Ex-Accenture(Strategy), Rakuten(Strategy), NS Group(Strategy) ⚫ ⚫ ⚫ ⚫ M.E. in Applied Physics from U-Tokyo (Furusawa Lab) 20+ years of experiences in software and biz-dev. Ex-CEO of Fixstars Amplify Core member of Q-STAR Director Akira Furusawa Director Hidehiro Yonezawa Authority of quantum optics for 25+ years Professor in U-Tokyo, Deputy Director of RIKEN Center for Quantum Computing ⚫ Recipient of Medal with Purple Ribbon, Toray Science and Technology Prize, and Palacky University medal ⚫ Citations* : Q-Teleportation** 4,000+ / Total 25,000+ Executive Officer, CFO Outside Director Michihiro Maeda Keiji Niizu ⚫ ⚫ ⚫ ⚫ ⚫ ⚫ ⚫ Finance leader in global companies and healthcare startups Extensive hands-on experience in fundraising, IR, M&A, and IPOs ⚫ ⚫ ⚫ Team Leader of RIKEN Center for Quantum Computing Lead the first optical QC machine project in RIKEN Citations* : Total 5,500+ Global Brain (Fellow) Focused on investing in deep tech startups with hands-on support. Currently focused on quantum computing and IoT Outside Statutory Auditor Makoto Uchida ⚫ ⚫ ⚫ * Google Scholar (As of 2026/8/1) ** A. Furusawa et al., “Unconditional quantum teleportation“ Science 282, 706 (1998) iCraft law office (Lawyer, Patent Attorney) Specializing in AI/data/IT based on science background Selected “Top 25 Lawyers” 4 in the IP category
Professor in the group 2000 ≈ 1998 Deterministic quantum teleportation* @Caltech (Akira Furusawa) 2020 2021 Furusawa Team and Yonezawa Team @ RIKEN Quantum Computing Center Finished Ph.D. And start working as Assistant Professor in the group 2022 2023 2024 OptQC as a “vehicle” that integrates tech, talent, and capital for societal implementation Furusawa lab@UTokyo Moonshot Project for quantum computation by Japanese cabinet (5years, 5,000M JPY) basic researches * A. Furusawa et al., ”Unconditional quantum teleportation“ Science 282, 706 (1998) 6
limit 2000 Energy production 2035 Year DX consumes all the energy of the world Source: Rebooting the IT Revolution, SIA, Sep 2015 • For many years scaling and integration of classical computer has been more and more difficult • With the development of technology such as AI, humankind require information processing capacity more than ever • However, with the current technology, information processing will consume all energy production Our vision To solve energy issue by optical quantum computer 7
at room temp and pressure. Super conducting1) Atom2) Ion Trap3) Light Conditoin Super Low Temp, Vacuum Vacuum Super Low Temp, Vacuum Room Temp, Pressure Energy4) 25 kW 7 kW 2 kW 4 kW → 0.X kW Ref:v.s.GPU 5) 17~ 5~ 1~ ~1 External Equipment Large Large Large cooling system optical control system ion control system Not necessary 1) https://www.ibm.com/quantum/blog/goldeneye-cryogenic-concept-system 2) https://www.quera.com/media-kit 3) https://investors.ionq.com/news/news-details/2022/Introducing-IonQ-Forte-Improving-Quantum-Performance-with-a-Software-Configurable-Dynamic-Laser-System/ 4) https://www.jri.co.jp/MediaLibrary/file/advanced/advanced-technology/pdf/15330.pdf 5)B300, 1.4kW/unit 8
attracting significant global attention as a dream new technology, with countries around the world competing intensely in their development. Japanese government settled 2025 as “first year of QC industrialization”. Council for Japan's Growth Strategy incorporated Quantum into “17 Strategic Sectors (❶)” and “6 National Strategic Technology Fields (❷)”. In 2026, upon the launch of the second cabinet, an official directive from Prime Minister Takaichi to METI Minister Akazawa explicitly stated that “150+ trillion JPY in GX investments including optical QC over next decade according to GX2024 vision (❸)”. It is expected to accelerate commercialization of QC through expansion of basic research, national quantum research centers and support for startups. Obtained grants(JPY) • • • • ❶ 17 Strategic Sectors Shipbuilding Security Medical Material Contents Port logistics Food Energy Defense IT Disaster prevention Marin ❷ 6 National Strategic Technologies AI Semiquantum conductor Semiconductor (PEC) quantum (optical) Biotech Space Fusion ❸GX related investment sectors CEO Takase made a company’s introduction to Prime Minister Takaichi and Minister Kiuchi “Opinion Exchange Meeting with entrepreneurs (2026/5/25)” BRIDGE (0.32B) https://www.qst.go.jp/site/bridge/r6-02-bridge-r6.html NEDO (7.0B) https://www.nedo.go.jp/koubo/CD3_100396.html Moonshot PJT (5.0B) https://www.jst.go.jp/moonshot/program/goal6/index.html SusHi Tech Global Startups Acceleration Program (0.2B) https://sushitech-global.metro.tokyo.lg.jp/news/6 9
energy efficient computers than ever before. • Today’s computers consume enormous power and bring a serious risk of accelerating the depletion of energy resources caused by adoption of DX/AI. • Quantum computers are widely expected globally to solve these issues. OptQC aims to revolutionize information technology through an optical approach, an area in which Japan excels. Utilization Optical QC Power Supercomputer/ Data Center Noisy! Heat! Switch! Quiet and Eco! Next Gen Computing Infrastructure 10
across various industries including workshops and hands-on lectures.(*As of 2026/8/1) Credentials World’s largest-scale commercial optical computer in 2026 July at G-QuAT. Alliance with NTT to develop scalable and highly reliable practical optical quantum computers in Nov 2025. 12
machine in G-QuAT G-QuAT (Global Research and Development Center for Business by Quantum-AI technology) OptQC 1st machine QCs at G-QuAT Super conducting Fujitsu Atom Light QuEra OptQC • G-QuAT is a Japanese center that is aim to be a central hub for development of quantum computer in Japan and global business • This center will have many different types of quantum computers • We are going to provide cloud-based quantum computing services Specifications, applications • 100 inputs (qumodes)100 MHz clock • Optimization, neural network 100 pulses … processor 13
communication (Quantum light source, optical multiplexing etc.) Toward Real-World Implementation of Optical Quantum Computers by 2030 Business Technologies Use Case Development Supply Chain Development Press conference featuring NTT President Shimada and OptQC CEO Takase (18th, Nov. 2025, NTT R&D FORUM 2025) Qubit Scaling Through Wavelength-Division Multiplexing FTQC Design 2030: World-leading 1M qubits 2027: Japan-leading 10k qubits 【benchimarks in 2025】 Japan: ~X00 qubits、World: ~X,000 qubits Press release of New Capital and Business Alliance Agreement with NTT 14 (3rd, Aug. 2026)
by scalable and reliable optical quantum computer qubits Creatable Value OptQC×NTT 100M qubits Computation time 1) (Conventional→quantum) Personalizing new Infinite years → medicines for 8B people 12days 100M 1M qubits Competitor 1M 10K qubits Adaptive optimization of telecom, transportation, and energy distribution 10K 100 2025 Low-Energy2) fertilizer 10T×1T years → production from air, 4days solving global food issue few days → few minutes 2030 1) Conventional computing assumes exhaustive calculation of all combinations. For 10K qubits, calculations are also based on conventional benchmark data. 2) Current Haber–Bosch process requires massive energy consumption, making it one of the largest CO₂-emitting industries, accounting for 1–2% of global energy use. 15