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ARXIV CS OS 202601 SUMMARY

arXiv cs.OS 20260101 到 20260131 论文分析报告

arXiv cs.OS 20260101 到 20260131 论文分析报告

📊 数据统计概览

📈基本统计

  • 论文总数: 22
  • 分析分类: cs.OS
  • 时间范围: 20260101 到 20260131
  • 独立作者数: 101

👥高产作者 Top 10

  1. Juan José Martín (1 篇)
  2. José Flich (1 篇)
  3. Carles Hernández (1 篇)
  4. Wei Wei (1 篇)
  5. Jingye Xu (1 篇)
  6. Sahidul Islam (1 篇)
  7. Dakai Zhu (1 篇)
  8. Chen Pan (1 篇)
  9. Mimi Xie (1 篇)
  10. Nick Lindsay (1 篇)

🔍热门关键词 Top 10

  1. memory (13 次)
  2. hardware (7 次)
  3. cache (7 次)
  4. mechanisms (6 次)
  5. data (6 次)
  6. workloads (6 次)
  7. operating (6 次)
  8. access (6 次)
  9. inference (5 次)
  10. nvidia (5 次)

🤖 AI 深度分析

arXiv cs.OS Research Analysis

A Report on Papers Published from 2026-01-01 to 2026-01-31

1. Introduction

This report provides a detailed analysis of 22 research papers published in the Computer Science - Operating Systems (cs.OS) category on arXiv between January 1, 2026, and January 31, 2026. The goal is to identify emerging research hotspots, understand the author collaboration landscape, and summarize key technological innovations. The analysis reveals a strong focus on optimizing systems for AI/LLM workloads, enhancing security, and developing next-generation operating systems for specialized domains like autonomous vehicles and IoT.

2. Research Hotspots and Trends

The papers analyzed cluster around several key areas. We identified six major research hotspots, which highlight the current priorities and future directions of operating systems research.

Optimizing AI/LLM Systems

5 Papers

Core Focus: This is the most dominant theme, concentrating on enhancing the performance, efficiency, and scalability of Large Language Model (LLM) inference and training. Research addresses bottlenecks in GPU memory management, KV Cache, and latency.

Key Innovations: Techniques like "Sawtooth Wavefront Reordering" for improving GPU cache performance, "ProphetKV" and "ContiguousKV" for intelligent KV Cache management in Retrieval-Augmented Generation (RAG) and conversational AI, and "LatencyPrism" for guaranteeing Service Level Objectives (SLOs) in LLM inference services.

Future Trend: The deep integration of AI workloads into systems software is here to stay. Expect continued co-design of OS schedulers, memory managers, and hardware to create highly specialized, AI-native systems. The focus will shift from raw performance to predictable, low-latency, and cost-effective inference.

Next-Generation OS & Middleware

5 Papers

Core Focus: Re-imagining the role of operating systems and middleware for modern hardware and application paradigms, including IoT, robotics, and complex multi-runtime workloads.

Key Innovations: "DAVOS" proposes a dedicated OS for autonomous vehicles that manages both safety-critical and data-centric tasks. "Meta-ROS" offers a new middleware for robotics to simplify development. "AERO" enables reliable over-the-air (OTA) updates for energy-harvesting IoT devices. Other work explores user-space thread scheduling for HPC/AI convergence and a novel standard for diskless booting ("/dev/SDB").

Future Trend: A move away from general-purpose operating systems toward domain-specific OS architectures that provide tailored abstractions, schedulers, and data management primitives for fields like robotics, autonomous systems, and massive IoT deployments.

System Security and Isolation

4 Papers

Core Focus: Defending against sophisticated modern threats and reinforcing security boundaries within the OS kernel and hardware.

Key Innovations: "Rhea" introduces a format-aware validation technique to detect advanced evasive ransomware. "OAMAC" (Origin-Aware Mandatory Access Control) extends kernel-level access control to consider the origin of a process, reducing post-compromise attack surfaces. "Ringmaster" secures high-throughput system calls from trusted execution environments (TEEs) like TrustZone. WebAssembly is explored as a portable and secure interface for IoT sensors.

Future Trend: Security is shifting from a perimeter-based model to a zero-trust, context-aware enforcement model deep within the kernel. Expect more hardware-assisted security mechanisms and fine-grained access control policies that understand application-level context.

Efficient Resource Management for Edge & Consumer Devices

3 Papers

Core Focus: Managing resources like GPU memory and CPU threads efficiently on consumer-grade hardware and resource-constrained edge devices, which are increasingly running demanding AI workloads.

Key Innovations: "Nixie" enables transparent sharing of consumer GPUs between multiple applications by avoiding memory thrashing. Research on "Mitigating GIL Bottlenecks" presents adaptive runtimes for Python-based edge AI agents. "Performance Isolation for Inference Processes" evaluates different isolation mechanisms on NVIDIA GPUs for predictable performance in safety-critical edge applications.

Future Trend: The "edge" will become a primary compute platform. OS and runtime research will focus on lightweight virtualization, efficient resource multiplexing, and adapting datacenter-grade optimization techniques to the constraints of consumer and edge hardware.

Innovations in Storage, Memory, and Communication

3 Papers

Core Focus: Improving the efficiency of fundamental system components: storage indexing, inter-process communication (IPC), and log data management.

Key Innovations: "RASK" ("Range as a Key") proposes a novel indexing scheme for cloud block stores that dramatically reduces memory footprint by indexing block ranges instead of individual blocks. "DeLog" presents a log compression framework that achieves better ratios by improving parsing accuracy. Another paper rethinks IPC by offloading memory operations to hardware.

Future Trend: As data volumes grow, efficiency at the lowest levels of the system stack becomes critical. The trend is toward smarter data structures and co-designing software with hardware offload capabilities to minimize CPU overhead for data movement and management.

Foundational System Design & Theory

3 Papers

Core Focus: Addressing fundamental principles of system design, verification, and fairness.

Key Innovations: "CounterPoint" is a framework to validate or refute microarchitectural assumptions using hardware event counters, bridging the gap between hardware behavior and software models. "Credit Fairness" explores online fairness algorithms for shared resource pools. Finally, a study reviews the 15-year evolution of the Android permission model, highlighting persistent challenges.

Future Trend: A continued need for rigorous, verifiable system design. As systems become more complex and opaque, tools and frameworks that allow developers to reason about and validate system behavior will become increasingly vital. The evolution of security models like Android's shows that usability and security remain a challenging but critical trade-off.

3. Author Relationship Graph

The analysis of authorship in this dataset reveals a landscape of distinct, non-overlapping research teams. No single author published more than one paper within this specific timeframe and collection. The following Mermaid diagram visualizes these collaborations as separate clusters, where each cluster represents the team behind a single paper. This structure highlights the specialized nature of the research presented, with each team focusing on a unique problem.

graph TD; subgraph "Peformance Isolation for Inference Processes..." P1A1["Juan José Martín"] --- P1A2["José Flich"]; P1A1 --- P1A3["Carles Hernández"]; P1A2 --- P1A3; end
graph TD; subgraph "AERO: Adaptive and Efficient Runtime-Aware OTA Updates..." P2A1["Wei Wei"] --- P2A2["Jingye Xu"]; P2A1 --- P2A3["Sahidul Islam"]; P2A1 --- P2A4["Dakai Zhu"]; P2A1 --- P2A5["Chen Pan"]; P2A1 --- P2A6["Mimi Xie"]; P2A2 --- P2A3; P2A2 --- P2A4; P2A2 --- P2A5; P2A2 --- P2A6; P2A3 --- P2A4; P2A3 --- P2A5; P2A3 --- P2A6; P2A4 --- P2A5; P2A4 --- P2A6; P2A5 --- P2A6; end
graph TD; subgraph "CounterPoint: Using Hardware Event Counters..." P3A1["Nick Lindsay"] --- P3A2["Caroline Trippel"]; P3A1 --- P3A3["Anurag Khandelwal"]; P3A1 --- P3A4["Abhishek Bhattacharjee"]; P3A2 --- P3A3; P3A2 --- P3A4; P3A3 --- P3A4; end
graph TD; subgraph "Credit Fairness: Online Fairness..." P4A1["Seyed Majid Zahedi"] --- P4A2["Rupert Freeman"]; end
graph TD; subgraph "Rethinking Thread Scheduling under Oversubscription..." P5A1["Aleix Roca"] --- P5A2["Vicenç Beltran"]; end
graph TD; subgraph "Sawtooth Wavefront Reordering..." P6A1["Yifan Zhu"] --- P6A2["Yekai Pan"]; P6A1 --- P6A3["Chen Ding"]; P6A2 --- P6A3; end
graph TD; subgraph "Meta-ROS: A Next-Generation Middleware..." P7A1["Anshul Ranjan"] --- P7A2["Anoosh Damodar"]; P7A1 --- P7A3["Neha Chougule"]; P7A1 --- P7A4["Dhruva S Nayak"]; P7A1 --- P7A5["Anantharaman P. N"]; P7A1 --- P7A6["Shylaja S S"]; P7A2 --- P7A3; P7A2 --- P7A4; P7A2 --- P7A5; P7A2 --- P7A6; P7A3 --- P7A4; P7A3 --- P7A5; P7A3 --- P7A6; P7A4 --- P7A5; P7A4 --- P7A6; P7A5 --- P7A6; end
graph TD; subgraph "Rethinking Inter-Process Communication..." P8A1["Misun Park"] --- P8A2["Richi Dubey"]; P8A1 --- P8A3["Yifan Yuan"]; P8A1 --- P8A4["Nam Sung Kim"]; P8A1 --- P8A5["Ada Gavrilovska"]; P8A2 --- P8A3; P8A2 --- P8A4; P8A2 --- P8A5; P8A3 --- P8A4; P8A3 --- P8A5; P8A4 --- P8A5; end
graph TD; subgraph "ProphetKV: User-Query-Driven Selective Recomputation..." P9A1["Shihao Wang"] --- P9A2["Jiahao Chen"]; P9A2 --- P9A3["Yanqi Pan"]; end
graph TD; subgraph "/dev/SDB: Software Defined Boot..." P10A1["Aditya Mitra"] --- P10A2["Hamza Haroon"]; P10A1 --- P10A3["Amaan Rais Shah"]; end
graph TD; subgraph "Nixie: Efficient, Transparent Temporal Multiplexing..." P11A1["Yechen Xu"] --- P11A2["Yifei Wang"]; P11A1 --- P11A3["Nathanael Ren"]; P11A1 --- P11A4["Yiran Chen"]; P11A1 --- P11A5["Danyang Zhuo"]; end
graph TD; subgraph "DeLog: An Efficient Log Compression Framework..." P12A1["Siyu Yu"] --- P12A2["Yifan Wu"]; end
graph TD; subgraph "DAVOS: An Autonomous Vehicle Operating System..." P13A1["Yuxin Wang"] --- P13A2["Yuankai He"]; P13A1 --- P13A3["Boyang Tian"]; P13A1 --- P13A4["Lichen Xian"]; P13A1 --- P13A5["Weisong Shi"]; end
graph TD; subgraph "Rhea: Detecting Privilege-Escalated Evasive Ransomware..." P14A1["Beom Heyn Kim"] --- P14A2["Seok Min Hong"]; P14A1 --- P14A3["Mohammad Mannan"]; end
graph TD; subgraph "\"Range as a Key\" is the Key!..." P15A1["Haoru Zhao"] --- P15A2["Mingkai Dong"]; P15A1 --- P15A3["Erci Xu"]; P15A1 --- P15A4["Zhongyu Wang"]; P15A1 --- P15A5["Haibo Chen"]; end
graph TD; subgraph "OAMAC: Origin-Aware Mandatory Access Control..." P16A1["Omer Abdelmajeed Idris Mohammed"] --- P16A2["Ilhami M. Orak"]; end
graph TD; subgraph "WebAssembly Based Portable and Secure Sensor Interface..." P17A1["Botong Ou"] --- P17A2["Baijian Yang"]; end
graph TD; subgraph "Ringmaster: How to juggle high-throughput host OS system calls..." P18A1["Richard Habeeb"] --- P18A2["Man-Ki Yoon"]; P18A1 --- P18A3["Hao Chen"]; P18A1 --- P18A4["Zhong Shao"]; end
graph TD; subgraph "Evolution of Android's Permission-based Security Model..." P19A1["Rajendra Kumar Solanki"] --- P19A2["Vijay Laxmi"]; P19A1 --- P19A3["Manoj Singh Gaur"]; end
graph TD; subgraph "Mitigating GIL Bottlenecks in Edge AI Systems" P20A1["Mridankan Mandal"] --- P20A2["Smit Sanjay Shende"]; end
graph TD; subgraph "ContiguousKV: Accelerating LLM Prefill..." P21A1["Jing Zou"] --- P21A2["Shangyu Wu"]; P21A1 --- P21A3["Hancong Duan"]; P21A1 --- P21A4["Qiao Li"]; P21A1 --- P21A5["Chun Jason Xue"]; end
graph TD; subgraph "LatencyPrism: Online Non-intrusive Latency Sculpting..." P22A1["Yin Du"] --- P22A2["Jiayi Ren"]; end

4. Key Technical Innovations

Across the diverse research topics, several specific, named technologies and frameworks stand out as significant contributions.

AERO (Adaptive and Efficient Runtime-Aware OTA Updates)
A mechanism for reliable over-the-air updates on intermittently powered IoT devices, ensuring consistency without costly reboots.
CounterPoint
A framework that uses hardware event counters to empirically test, validate, and refine software models of microarchitectural behavior.
DAVOS (Autonomous Vehicle Operating System)
A specialized OS for vehicle computing that securely and efficiently co-schedules real-time driving tasks and data-intensive applications.
DeLog
A high-performance log compression framework that improves compression ratios by synthesizing pattern signatures for more accurate log parsing.
LatencyPrism
A non-intrusive system for managing and "sculpting" latency in distributed LLM inference environments to guarantee SLOs without service interruption.
Meta-ROS
A next-generation middleware for robotics designed to simplify integration and improve performance over existing frameworks like ROS2.
Nixie
A runtime system that enables efficient temporal multiplexing of consumer GPUs, allowing multiple ML applications to run concurrently without performance degradation from memory thrashing.
OAMAC (Origin-Aware Mandatory Access Control)
A kernel-level security model that enhances Mandatory Access Control by considering a process's origin (e.g., remote vs. local), thus reducing the post-compromise attack surface.
ProphetKV & ContiguousKV
Two distinct but related techniques for optimizing the LLM KV Cache. ProphetKV uses query-driven recomputation for RAG, while ContiguousKV aligns cache management with storage granularity to accelerate prefill.
RASK (Range as a Key)
A memory-efficient indexing scheme for cloud block stores that indexes contiguous ranges of blocks, leveraging write patterns to significantly reduce memory overhead.
Rhea
A novel ransomware detection system that uses format-aware file validation to identify evasive ransomware that tampers with I/O traces or uses low-entropy encryption.
Sawtooth Wavefront Reordering
A programming technique specifically for NVIDIA's GB10 GPU architecture that reorders memory access patterns to reduce L2 cache misses in Flash Attention kernels.

5. Conclusion

The research landscape of operating systems in January 2026 is vibrant and clearly driven by the demands of modern computing. The overwhelming influence of artificial intelligence is pushing the boundaries of GPU management, scheduling, and memory systems. Simultaneously, the expansion of computing into specialized domains like autonomous vehicles and IoT is forcing a rethinking of the traditional, one-size-fits-all OS model. Security remains a paramount concern, with a clear trend towards more granular, context-aware defense mechanisms embedded deep within the system. The innovations presented in this collection of papers demonstrate a healthy and adaptive field of research, actively solving the critical systems-level challenges of today and tomorrow.

6. Full Paper Index

Title Authors Link
Peformance Isolation for Inference Processes in Edge GPU SystemsJuan José Martín, José Flich, Carles Hernández2601.07600v2
AERO: Adaptive and Efficient Runtime-Aware OTA Updates for Energy-Harvesting IoTWei Wei, Jingye Xu, Sahidul Islam, Dakai Zhu, Chen Pan, Mimi Xie2601.16935v1
CounterPoint: Using Hardware Event Counters to Refute and Refine Microarchitectural AssumptionsNick Lindsay, Caroline Trippel, Anurag Khandelwal, Abhishek Bhattacharjee2601.01265v2
Credit Fairness: Online Fairness In Shared Resource PoolsSeyed Majid Zahedi, Rupert Freeman2601.17944v1
Rethinking Thread Scheduling under OversubscriptionAleix Roca, Vicenç Beltran2601.20435v1
Sawtooth Wavefront Reordering: Enhanced CuTile FlashAttention on NVIDIA GB10Yifan Zhu, Yekai Pan, Chen Ding2601.16032v2
Meta-ROS: A Next-Generation Middleware Architecture for Adaptive and Scalable Robotic SystemsAnshul Ranjan, Anoosh Damodar, Neha Chougule, Dhruva S Nayak, Anantharaman P. N, Shylaja S S2601.21011v1
Rethinking Inter-Process Communication with Memory Operation OffloadingMisun Park, Richi Dubey, Yifan Yuan, Nam Sung Kim, Ada Gavrilovska2601.06331v1
ProphetKV: User-Query-Driven Selective Recomputation for Efficient KV Cache ReuseShihao Wang, Jiahao Chen, Yanqi Pan, Hao Huang, Yichen Hao, Xiangyu Zou, Wen Xia, Wentao Zhang, Chongyang Qiu, Pengfei Wang2602.02579v3
/dev/SDB: Software Defined Boot -- A novel standard for diskless bootingAditya Mitra, Hamza Haroon, Amaan Rais Shah, Mohammad Elham Rasooli, Bogdan Itsam Dorantes Nikolaev, Tuğçe Ballı2601.20629v1
Nixie: Efficient, Transparent Temporal Multiplexing for Consumer GPUsYechen Xu, Yifei Wang, Nathanael Ren, Yiran Chen, Danyang Zhuo2601.11743v1
DeLog: An Efficient Log Compression Framework with Pattern Signature SynthesisSiyu Yu, Yifan Wu, Junjielong Xu, Ying Fu, Ning Wang, Maoyin Liu, Pancheng Jiang, Xiang Zhang, Tong Jia, Pinjia He, Ying Li2601.15084v2
DAVOS: An Autonomous Vehicle Operating System in the Vehicle Computing EraYuxin Wang, Yuankai He, Boyang Tian, Lichen Xian, Weisong Shi2601.05072v3
Rhea: Detecting Privilege-Escalated Evasive Ransomware AttacksBeom Heyn Kim, Seok Min Hong, Mohammad Mannan2601.18216v1
"Range as a Key" is the Key! Fast and Compact Cloud Block Store Index with RASKHaoru Zhao, Mingkai Dong, Erci Xu, Zhongyu Wang, Haibo Chen2601.14129v1
OAMAC: Origin-Aware Mandatory Access Control for Practical Post-Compromise Attack Surface ReductionOmer Abdelmajeed Idris Mohammed, Ilhami M. Orak2601.14021v1
WebAssembly Based Portable and Secure Sensor Interface for Internet of ThingsBotong Ou, Baijian Yang2601.14555v1
Ringmaster: How to juggle high-throughput host OS system calls from TrustZone TEEsRichard Habeeb, Man-Ki Yoon, Hao Chen, Zhong Shao2601.16448v2
Evolution of Android's Permission-based Security Model and ChallengesRajendra Kumar Solanki, Vijay Laxmi, Manoj Singh Gaur2601.00252v1
Mitigating GIL Bottlenecks in Edge AI SystemsMridankan Mandal, Smit Sanjay Shende2601.10582v2
ContiguousKV: Accelerating LLM Prefill with Granularity-Aligned KV Cache ManagementJing Zou, Shangyu Wu, Hancong Duan, Qiao Li, Chun Jason Xue2601.13631v1
LatencyPrism: Online Non-intrusive Latency Sculpting for SLO-Guaranteed LLM InferenceYin Du, Jiayi Ren, Xiayu Sun, Tianyao Zhou, Haizhu Zhou, Ruiyan Ma, Danyang Zhang2601.09258v2

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