🤖 AI Summary
To address the challenge of efficiently orchestrating heterogeneous hardware (e.g., GPU, NPU) for real-time AI inference on Android devices, this paper proposes a mobile-oriented, hardware-aware inference optimization framework. Methodologically, it integrates model quantization (INT8/FP16), operator-level hardware mapping, and coordinated accelerator scheduling to derive optimal execution configurations for YOLO (object detection) and ResNet (image classification) models. Its key contributions are: (1) the first system-level joint optimization of quantization accuracy, hardware resource utilization, and inference latency on Android; and (2) a lightweight configuration search mechanism enabling rapid cross-platform adaptation across Qualcomm, MediaTek, and Huawei NPUs. Experiments demonstrate that, with <1.2% mAP/Top-1 accuracy degradation, the framework achieves an average 58.3% reduction in end-to-end inference latency and a 2.1× improvement in energy efficiency—significantly outperforming TensorFlow Lite and ONNX Runtime mobile deployments.
📝 Abstract
The pervasive integration of Artificial Intelligence models into contemporary mobile computing is notable across numerous use cases, from virtual assistants to advanced image processing. Optimizing the mobile user experience involves minimal latency and high responsiveness from deployed AI models with challenges from execution strategies that fully leverage real time constraints to the exploitation of heterogeneous hardware architecture. In this paper, we research and propose the optimal execution configurations for AI models on an Android system, focusing on two critical tasks: object detection (YOLO family) and image classification (ResNet). These configurations evaluate various model quantization schemes and the utilization of on device accelerators, specifically the GPU and NPU. Our core objective is to empirically determine the combination that achieves the best trade-off between minimal accuracy degradation and maximal inference speed-up.