China has developed the first artificial intelligence chip that integrates programmable computing and three-dimensional near-memory computing technologies. This chip demonstrated a performance of 520 trillion floating-point operations per second (TFLOPS) using a 14nm process technology.
Architectural Innovations Over Process Scaling
The achievement of high performance was realized through architectural innovations rather than by transitioning to cutting-edge manufacturing nodes. The software-defined architecture allows for dynamic reconfiguration of hardware resources for various computational tasks, significantly increasing the utilization rate of computing power compared to fixed-function accelerators.
Functionality and Memory
Thanks to this flexibility, the same chip can efficiently handle a wide range of AI tasks, including image recognition, natural language processing, and scientific computing, while avoiding the efficiency losses inherent in general-purpose hardware. Furthermore, the near-memory 3D computing approach uses vertical stacking to tightly integrate compute blocks with memory, providing a memory bandwidth of 6.4 TB/s.
Solving the 'Memory Wall' Problem
This method fundamentally eliminates the 'memory wall' problem, which has long limited processor performance. In traditional architectures, moving data between separate compute and memory chips creates a bottleneck in terms of both performance and power consumption. By stacking memory directly above the compute blocks, the physical distance the signal must travel is drastically reduced.
Ecosystem and Market Significance
Along with the chip itself, a complete software suite compatible with major deep learning frameworks was released. The product portfolio includes accelerator cards, AI servers, liquid-cooled supernodes, and large-scale intelligent computing clusters, forming a complete ecosystem for deploying and training large models. The architecture is designed to scale from edge devices to data center-level clusters.
Strategic Importance for China
Industry analysts view this achievement as important proof that architectural innovations can partially compensate for lags in manufacturing technology. Moving away from dependence on the most advanced fabrication nodes makes the chip supply chain more stable and controllable, which is critically important amid ongoing export controls on semiconductor manufacturing equipment to China. This approach represents a fundamentally different philosophy compared to both the NVIDIA GPU approach and the process scaling race led by leading chip manufacturers.
Comparison with Competitors
Although the chip does not match the raw performance of the NVIDIA H100 or B200 on leading nodes, its demonstrated capability on 14nm indicates that architectural enhancements can substantially narrow the performance gap while ensuring supply chain resilience. This dual focus on architecture-driven performance and supply chain stability is becoming a defining characteristic of the strategy for developing domestic AI chips in China.