Core Insights - The article discusses the challenges and advancements in deploying large models on edge devices, emphasizing the need for optimization in architecture, systems, and algorithms to meet the high demands of mobile, automotive, and IoT applications [1][3][4] Group 1: Engineering Challenges - Edge devices face significant resource limitations in terms of computing power and bandwidth compared to cloud environments, necessitating low-bit quantization of models for deployment [3][4] - The rapid evolution of large models complicates commercial deployment, as updates and improvements can lag on edge devices due to user-driven update mechanisms [4][5] - The current state of large models is still in a "technology accumulation" phase, with future deployment contingent on advancements in edge computing capabilities and model stability [4][14] Group 2: Performance Optimization - The team developed a self-researched inference framework achieving over 180 tokens/s in real-time inference, utilizing strategies like dynamic input support and speculative decoding to enhance performance [1][6][7] - Techniques such as low-bit quantization and instruction-level optimizations are employed to maximize efficiency on resource-constrained devices [7][12] - The framework supports a shared base model architecture, allowing multiple business applications to utilize a single model while maintaining performance through LoRA modules [10][11] Group 3: Future Directions - Future breakthroughs in edge model deployment are expected to hinge on hardware advancements and the evolution of model architectures, such as Linear Attention, which could alleviate resource constraints [14][16][17] - The emergence of next-generation chips designed for large models is anticipated to significantly enhance the capabilities of edge devices [15][17] - The exploration of new model architectures that reduce memory usage while maintaining performance is crucial, especially for applications requiring long context inputs [16][17]