Operating System Support for Safe and Efficient Auxiliary Execution
Yuzhuo Jing, Peng Huang
Abstract
Modern applications run various auxiliary tasks. These tasks gain high observability and control by executing in the application address space, but doing so causes safety and performance issues. Running them in a separate process offers strong isolation but poor observability and control.
In this paper, we propose special OS support for auxiliary tasks to address this challenge with an abstraction called orbit. An orbit task offers strong isolation. At the same time, it conveniently observes the main program with an automatic state synchronization feature. We implement the abstraction in the Linux kernel. We use orbit to port 7 existing auxiliary tasks and add one new task in 6 large applications. The evaluation shows that the orbit-version tasks have strong isolation with comparable performance of the original unsafe tasks.
Ask about this paper
Your agent reads all of it.
Lune indexed this paper to the last equation, along with the top-tier papers that cite it. Ask a question and the answer quotes them.
Your agent calls
Luneget_paper_fulltext
Free to start. No credit card required.
Terminal
Install the CLIlune papers fulltext d992653e-157b-4526-9d38-73676c64fa13Cited by top-tier papers4
- Extending Applications Safely and EfficientlyYusheng Zheng, Tong Yu, Yiwei Yang, Yanpeng Hu et al.OSDI 2025 · 7 citations
- Pushing Performance Isolation Boundaries into Application with pBoxYigong Hu, Gongqi Huang, Peng HuangSOSP 2023 · 2 citations
- Optimistic Recovery for High-Availability Software via Partial Process State PreservationYuzhuo Jing, Yuqi Mai, Angting Cai, Yi Chen et al.SOSP 2025 · 1 citation
- Continuation-Centric Computing with ArcaAkshay Srivatsan, Yuhan Deng, Katherine Mohr, Emma Sudo et al.OSDI 2026
Builds on7
- ERIM: Secure, Efficient In-process Isolation with Protection Keys (MPK)Anjo Vahldiek-Oberwagner, Eslam Elnikety, Nuno O. Duarte, Michael Sammler et al.USENIX Security 2019 · 247 citations
- Designing New Operating Primitives to Improve Fuzzing PerformanceWen Xu, Sanidhya Kashyap, Changwoo Min, Taesoo KimCCS 2017 · 139 citations
- Shreds: Fine-Grained Execution Units with Private MemoryYaohui Chen, Sebassujeen Reymondjohnson, Zhichuang Sun, Long LuS&P 2016 · 116 citations
- Evolution of Development Priorities in Key-value Stores Serving Large-scale Applications: The RocksDB ExperienceSiying Dong, Andrew Kryczka, Yanqin Jin, Michael StummFAST 2021 · 110 citations
- Understanding, Detecting and Localizing Partial Failures in Large System SoftwareChang Lou, Peng Huang, Scott SmithNSDI 2020 · 88 citations
Related papers
- Fast, Flexible, and Practical Kernel ExtensionsKumar Kartikeya Dwivedi, Rishabh R. Iyer, Sanidhya KashyapSOSP 2024 · 7 citations
- Application-Informed Kernel Synchronization PrimitivesSujin Park, Diyu Zhou, Yuchen Qian, Irina Calciu et al.OSDI 2022
- μSwitch: Fast Kernel Context Isolation with Implicit Context SwitchesDinglan Peng, Congyu Liu, Tapti Palit, Pedro Fonseca et al.S&P 2023
- KSplit: Automating Device Driver IsolationYongzhe Huang, Vikram Narayanan, David Detweiler, Kaiming Huang et al.OSDI 2022 · 26 citations
- Verified programs can party: optimizing kernel extensions via post-verification mergingHsuan-Chi Kuo, Kai-Hsun Chen, Yicheng Lu, Dan Williams et al.EuroSys 2022 · 17 citations
