MAS-ISP: A Proxy-Free Online Hyperparameter Optimization Framework for ISP Hardware System

The rapid advancement of visual autonomous systems, especially in autonomous driving, underscores the critical role of Image Signal Processors (ISPs) as they convert RAW sensor data into RGB images suited for visual interpretation. Traditional ISPs rely on tuning hyperparameters to adapt to varying imaging conditions; however, the vast parameter space and intricate tuning process pose significant challenges for realtime autonomous applications. Existing autonomous ISP hyperparameter optimization methods rely largely on offline or proxybased online tuning, limiting their accuracy and responsiveness to real-time environmental changes. In response, we propose an online ISP hyperparameter optimization framework based on Deep Reinforcement Learning (DRL), marking the first proxyfree, real-time optimization approach. Our design exhibits a master-slave Multi-Agent System (MAS), enabling rapid and cooperative parameter optimization with improved inter-frame consistency. Furthermore, we design the MAS-ISP automated visual system, incorporating innovative hardware designs such as Strip Convolution Kernel and Stride-Aware Dual-Buffer Memory, which drastically reduce resource consumption in CNN hardware. MAS-ISP achieves 1080P@75FPS/240FPS on FPGA/ASIC platforms, supporting real-time and reliable visual systems.

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Published
2025-06-22
DOI
https://doi.org/10.1109/dac63849.2025.11132763
Primary Topic
Parallel Computing and Optimization Techniques
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article
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article

MAS-ISP: A Proxy-Free Online Hyperparameter Optimization Framework for ISP Hardware System

Zhijian Hao, Shuocheng Wang, Jun Tao, Yibo Fan et al.
Parallel Computing and Optimization Techniques
article

MAS-ISP: A Proxy-Free Online Hyperparameter Optimization Framework for ISP Hardware System

Zhijian Hao, Shuocheng Wang, Jun Tao, Yibo Fan, Qi Zheng, Jiaming Liu, Ruoxi Zhu, Chang Liu, Shushi Chen, Xuan Huang, Leilei Huang
article en

Abstract

The rapid advancement of visual autonomous systems, especially in autonomous driving, underscores the critical role of Image Signal Processors (ISPs) as they convert RAW sensor data into RGB images suited for visual interpretation. Traditional ISPs rely on tuning hyperparameters to adapt to varying imaging conditions; however, the vast parameter space and intricate tuning process pose significant challenges for realtime autonomous applications. Existing autonomous ISP hyperparameter optimization methods rely largely on offline or proxybased online tuning, limiting their accuracy and responsiveness to real-time environmental changes. In response, we propose an online ISP hyperparameter optimization framework based on Deep Reinforcement Learning (DRL), marking the first proxyfree, real-time optimization approach. Our design exhibits a master-slave Multi-Agent System (MAS), enabling rapid and cooperative parameter optimization with improved inter-frame consistency. Furthermore, we design the MAS-ISP automated visual system, incorporating innovative hardware designs such as Strip Convolution Kernel and Stride-Aware Dual-Buffer Memory, which drastically reduce resource consumption in CNN hardware. MAS-ISP achieves 1080P@75FPS/240FPS on FPGA/ASIC platforms, supporting real-time and reliable visual systems.

Xidian University (CN), Shanghai Fudan Microelectronics (China) (CN), East China Normal University (CN)
Openalex Percentile: Top 73%
Parallel Computing and Optimization Techniques
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