OmniPack: Unified Token Compression for Efficient Omni-modal Large Language Models
Summary
OmniPack proposes a training-free token compression framework for omni-modal LLMs, combining structural pre-LLM compression with task-relevant inner-LLM semantic refinement, achieving strong performance-efficiency trade-offs on multiple benchmarks.
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Paper page - OmniPack: Unified Token Compression for Efficient Omni-modal Large Language Models
Source: https://huggingface.co/papers/2608.03812 Authors:
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Abstract
Omni-modallargelanguagemodels(Omni-LLMs)haveachievedremarkableperformanceonaudio-visualunderstandingtasks,butprocessinglongandhighlyredundantvisualandaudiotokensequencesincurssubstantialcomputationaloverhead,demandingaggressivetokencompressionforefficientdeployment.Existingmethodsoftendegradeatlowtokenbudgets:pre-LLMcompressionmaydiscardstructurallyimportantandgloballydistributedevidence,whereasinner-LLMcompressionoftenunderexploitsquery-conditionedaudio-visualcollaboration.Toaddresstheselimitations,weproposeOmniPack,atraining-freeframeworkthatcoordinatesstructuralcompressionbeforetheLLMwithtask-relevantsemanticrefinementwithintheLLM.BeforetheLLM,OmniPackremovesstructuralredundancythroughmodality-specificimportance,globalcoverage,andsimilarity-awaremerging.Aftersufficientmultimodalinteraction,itfurtherconsolidatesdiverse,task-relevantrepresentationsthroughtextualguidanceandaudio-visualcollaboration.ExtensiveexperimentsonfivebenchmarkswiththreeOmni-LLMbackbonesdemonstratethatOmniPackconsistentlyachievesthebestperformance-efficiencytrade-offacrossdiverseretentionratios,outperformingallexistingmethods.Notably,onQwen2.5-Omni-7B,OmniPackpreserves98.0%oftheoriginalperformancewhilereducingFLOPsto16.7%,andstillretains92.9%oftheoriginalperformancewithonly6.8%oftheoriginalFLOPs.
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