Jul 2026· Annual International ACM SIGIR Conference on Research and Development in Information Retrieval· pp. 5151-5155· 0 citations· 27 references
Computer Science
TL;DR
C3Flow (Concurrent Claude Code Workflow), a framework that transforms Claude Code from an interactive assistant into a SIMD-style SIMD-style concurrent compute engine, is introduced, demonstrating its effectiveness for production-scale deep research pipelines.
Abstract
Deep research is a retrieval-intensive task that requires iteratively retrieving evidence, reading across sources, and synthesizing source-grounded outputs. In practice, real-world deep research applications are of high workloads that require generating massive reports or conducting large-scale literature surveys. Such applications increasingly require batch processing capabilities, which are missing from traditional chat-oriented agents, limiting throughput when processing large volumes of structurally similar jobs. We introduce C3Flow (Concurrent Claude Code Workflow), a framework that transforms Claude Code from an interactive assistant into a SIMD-style (Single Instruction, Multiple Data) concurrent compute engine. C³Flow treats each agent instance as an isolated, schedulable unit capable of handling declarative multi-step tasks, multi-model routing, and comprehensive trajectory logging. On BrowseComp-zh, C³Flow improves pass@1 from 48.44% to 61.59% and pass@3 from 70.24% to 77.51% compared to standard function calling, while reducing average latency. For multi-hop fact verification, C3Flow achieves a 5.9 speedup over human annotators while maintaining 87.5% accuracy, demonstrating its effectiveness for production-scale deep research pipelines. Code is available at~ https://github.com/RAGenius/C3Flow.
RAILS is presented, a retrieval-augmented incremental LLM clusterer that turns clustering into a simple loop over a growing label pool and scales through document batching with bounded concurrency.
Armin Oliya, Aleksandra Sawczuk, Radosław Białobrzeski· 0 citations
EPIC mitigates imbalance via performance-aware expert migration and runtime expert activation, and then improves communication with topology-adaptive transport kernels and fine-grained computation-communication overlap.
Jia-Min Cao, Qingxu Li, Yaozhong Liu et al.· Conference on Applications,...· 2 citations· ⚡1
This work presents vla.simd, a CPU inference engine that combines shared SIMD micro-kernels, reusable computation, and target-specific optimization, and introduces IMPACT, an ACT-based policy with cached text representations and language-modulated visual features.
Khanh Duy Nguyen, Hoang M. Truong, A. T. Le· 0 citations
Orthrus is a serving system that performs heterogeneous batching within a unified inference loop that addresses the primary challenge lies in unifying embedding and generation workloads with conflicting computational patterns while optimizing batch composition for high performance.
Dohyun Park, Hubertus Franke, Daniel G. Waddington et al.· 0 citations
PeakBench is a benchmark of executable multi-tool workflows with execution-grounded dependency annotations and measured resource profiles that shows that strong logical planning does not reliably translate into safe or efficient execution under resource constraints, and exposes resource information to reduce avoidable...
Zhi-Kai Chen, Xu-Xiang Zhong, Song-Yan Li et al.· 2 citations
A platform-agnostic CPU baseline is established by evaluating five open-weight models below two billion parameters and revealing a reliability-resource trade-off for edge deployment.
Abrar Shahriar Qurat-Ul-Ain Mastoi· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.