Online Linear Programming for Multi-Objective Routing in LLM Serving
📰 ArXiv cs.AI
Learn to optimize multi-objective routing in LLM serving using online linear programming for better latency-throughput trade-offs
Action Steps
- Formulate the routing problem as an online linear program using constraints such as batch-size and KV-cache limits
- Implement a multi-objective optimization framework to balance latency and throughput
- Solve the online linear program using a suitable algorithm to obtain optimal routing decisions
- Test and evaluate the performance of the optimized routing strategy using metrics such as latency and throughput
- Compare the results with existing routing heuristics to demonstrate the improvement
Who Needs to Know This
This benefits devops and software engineers working on large language model serving, as it provides a framework for optimizing routing decisions under tight constraints
Key Insight
💡 Online linear programming can be used to optimize multi-objective routing in LLM serving, providing better control over latency-throughput trade-offs
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Optimize LLM serving routing using online linear programming #LLM #Routing #Optimization
Key Takeaways
Learn to optimize multi-objective routing in LLM serving using online linear programming for better latency-throughput trade-offs
Full Article
Title: Online Linear Programming for Multi-Objective Routing in LLM Serving
Abstract:
arXiv:2607.03948v1 Announce Type: new Abstract: We study the online routing problem in large language model serving, where requests arrive sequentially and must be dispatched to parallel decode workers under tight batch-size and KV-cache constraints. Unlike widely used routing heuristics that are not tied to explicit service-level objectives (SLOs) and offer limited control over latency-throughput trade-offs, we introduce a multi-objective optimization framework that formulates routing as an onl
Abstract:
arXiv:2607.03948v1 Announce Type: new Abstract: We study the online routing problem in large language model serving, where requests arrive sequentially and must be dispatched to parallel decode workers under tight batch-size and KV-cache constraints. Unlike widely used routing heuristics that are not tied to explicit service-level objectives (SLOs) and offer limited control over latency-throughput trade-offs, we introduce a multi-objective optimization framework that formulates routing as an onl
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