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DynamicKV: Task-Aware Adaptive KV Cache Compression for Long Context LLMs
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Efficient KV cache management in LLMs is crucial for long-context tasks like RAG and summarization. Existing KV cache compression methods enforce a fixed pattern, neglecting task-specific characteristics and reducing the retention of essential information. However, we observe distinct activation patterns across layers in various tasks, highlighting the need for adaptive strategies tailored to each task's unique demands. Based on this insight, we propose DynamicKV, a method that dynamically optimizes token retention by adjusting the number of tokens retained at each layer to adapt to the specific task. DynamicKV establishes global and per-layer maximum KV cache budgets, temporarily retaining the maximum budget for the current layer, and periodically updating the KV cache sizes of all preceding layers during inference. Our method retains only 1.7% of the KV cache size while achieving ~85% of the Full KV cache performance on LongBench. Notably, even under extreme compression (0.9%), DynamicKV surpasses state-of-the-art (SOTA) methods by 11% in the Needle-in-a-Haystack test using Mistral-7B-Instruct-v0.2. The code will be released.
Forward citations
Cited by 4 Pith papers
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MemDecay: Region-Aware KV Cache Eviction for Efficient LLM Agent Inference
Region-labeled tokens in LLM agent traces have order-of-magnitude different attention lifetimes, and a decay-plus-pinning eviction policy preserves system facts under fixed KV budgets while recency collapses as context grows.
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CompilerKV: Risk-Adaptive KV Compression via Offline Experience Compilation
Offline-learned head-reliability and risk-threshold tables make prefill-only KV compression recover about 97.7% of uncompressed LongBench accuracy at a 512-token-per-layer memory budget.
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CaliDrop: KV Cache Compression with Calibration
CaliDrop adds a stale-query calibration term on top of token eviction, improving accuracy at high KV compression ratios with modest throughput overhead.
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TPLA: Tensor Parallel Latent Attention for Efficient Disaggregated Prefill and Decode Inference
TPLA splits the latent KV cache across tensor-parallel GPUs while keeping every head's full view, yielding 1.79x and 1.93x decode speedups on DeepSeek-V3 and Kimi-K2 at 32K context with modest accuracy loss.
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