Striving to lead in quantum computing Making quantum computing as accessible as electricity
From one core, infinite possibilities
From design to complete systems,
explore new computing possibilities.
Superconducting Quantum Computing System
Built around a superconducting quantum chip, the system integrates millikelvin dilution refrigeration, microwave control and measurement, magnetic shielding and cryogenic cabling. It connects quantum state preparation, manipulation and readout in a complete quantum computing system.
Explore our products
Concept image temporarily unavailable
Connecting quantum technology with industry challenges.
Explore industry applicationsBringing computation closer to real industry challenges.
From molecules and materials to intelligence and decision-making, explore applications of quantum computing.
Exploring life, molecule by molecule.
Molecular structure, electronic problems and local interactions offer computational perspectives for research into life-related mechanisms.
Using glycine to connect molecular structure with electronic models.
Explore Biomedicine- Molecular structure
- Build molecular models from atom types and connectivity
- Electronic problems
- Study bonding and changes in molecular energy
- Local interactions
- Explore how the surrounding environment affects structure and energy
New ways to represent data.
From quantum feature maps to parameterized circuits, we explore different research paths for data representation and machine learning models.
Predictive performance, generalization and total computational cost must be evaluated together.
Explore Artificial intelligence- Feature representation
- Explore how data is encoded into quantum circuits
- Quantum models
- Study collaboration between parameterized circuits and classical models
- Generalization assessment
- Compare performance on unseen data and total overhead
From microscopic structures,explore material possibilities.
From periodic lattices and local defects to electron interactions, we study how microscopic structures shape material properties.
Combine quantum simulation, classical computation and experimental characterization to validate material models step by step.
Explore Advanced materials- Lattices and defects
- Examine changes caused by atomic arrangements, vacancies and doping
- Electron interactions
- Explore local electronic states and correlation effects
- Properties and validation
- Connect model predictions with experimental observables
Exploring decisions under uncertainty.
We study computational problems in optimization and statistical estimation through portfolios, risk measures and scenario valuation.
Compare computational methods under consistent model assumptions, accuracy and cost.
Explore Financial technology- Portfolio selection
- Construct candidate portfolios under budget and risk constraints
- Scenario valuation
- Analyze scenarios within the model's assumptions
- Tail risk
- Examine loss distributions under extreme scenarios
Start with industry questions. Give every computation a testable goal.
Follow our quantum journeyEvery breakthrough, a step forward
Starting with quantum chip design tools, we continue research in integrated control and readout and quantum error correction, advancing toward chip R&D and industrial development.
-
Large-scale quantum chip design
Developing EDA tools for large-scale quantum chip design.
-
First EDA release
Schematic simulation introduced.
-
Second EDA release
Layout generation introduced.
-
Integrated control and readout research
-
Zhengyuan Quantum founded
-
Development of the Zhengyuan Logic V1.0 quantum chip completed
Seed funding completedSupports surface-code quantum error correction for fault-tolerant quantum computing validation.
-
Became a member of the Shenzhen Quantum Information Society with vice-chair status