SPEED: Scalable and Predictable EnhancEments for Data Handling in Autonomous Systems

Scalable and predictable disk I/O management is critical for autonomous applications that must handle realtime sensor data streams. Existing ROS-based architectures for end-to-end autonomous compute pipelines suffer from lack of scalability and performance predictability that can compromise safety. We present SPEED, an approach leveraging a multi-queue architecture and a context-aware I/O scheduler to achieve scalability and performance predictability. We demonstrate SPEED's ability to reduce single I/O latency in rosbag by 84%, and improve by over 1.5 × the scalability of existing camera sensors. Furthermore, SPEED's context-aware I/O scheduler improves the predictability of multitask application pipelines by over a 3.08× reduction in performance standard deviation. Our results demonstrate significant improvements in I/O management, making SPEED well suited for the stringent I/O demands of modern end-to-end autonomous applications that must execute sensor-to-actuator compute pipelines while meeting realtime performance requirements.

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Publication Details

Published
2025-04-23
DOI
https://doi.org/10.1109/isqed65160.2025.11014394
Primary Topic
Parallel Computing and Optimization Techniques
Type
article
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article

SPEED: Scalable and Predictable EnhancEments for Data Handling in Autonomous Systems

Nikil Dutt, Dongjoo Seo, Bryan Donyanavard, Ping-Xiang Chen et al.
Parallel Computing and Optimization Techniques
article

SPEED: Scalable and Predictable EnhancEments for Data Handling in Autonomous Systems

Nikil Dutt, Dongjoo Seo, Bryan Donyanavard, Ping-Xiang Chen, Jun‐Seok Park, Changhoon Sung
article en

Abstract

Scalable and predictable disk I/O management is critical for autonomous applications that must handle realtime sensor data streams. Existing ROS-based architectures for end-to-end autonomous compute pipelines suffer from lack of scalability and performance predictability that can compromise safety. We present SPEED, an approach leveraging a multi-queue architecture and a context-aware I/O scheduler to achieve scalability and performance predictability. We demonstrate SPEED's ability to reduce single I/O latency in rosbag by 84%, and improve by over 1.5 × the scalability of existing camera sensors. Furthermore, SPEED's context-aware I/O scheduler improves the predictability of multitask application pipelines by over a 3.08× reduction in performance standard deviation. Our results demonstrate significant improvements in I/O management, making SPEED well suited for the stringent I/O demands of modern end-to-end autonomous applications that must execute sensor-to-actuator compute pipelines while meeting realtime performance requirements.

Kookmin University (KR), University of California, Irvine (US), San Diego State University (US)
Openalex Percentile: Top 89%
Parallel Computing and Optimization Techniques
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