Read the prologue · Text version / 阅读序言 · 文字版
English
The universe is vast. Our pockets are small.
In Douglas Adams’s The Hitchhiker’s Guide to the Galaxy, a traveller reaches for a guide in the midst of a bewildering universe. In Jorge Luis Borges’s On Exactitude in Science, a map as large as an empire is eventually left to the wind and rain. Between the guide that can accompany us and the map that cannot, a question takes shape: how much of the world must we carry to find our way through it?
For Large Vision-Language Models (LVLMs), the world arrives in images, in pages, in the passing frames of a video. On the other side of the screen, someone is waiting to understand. Their time is finite. So are the memory of a device and the energy it can spare. We hope to make room for that encounter: to keep the detail on which an answer depends, and to bring the answer within reach.
May the tools we build be light enough to travel with us, and attentive enough to help us see.
中文
宇宙很大,旅人的口袋很小。
在《银河系漫游指南》里,面对一个令人困惑的宇宙,旅人仍可以伸手取出一本指南。博尔赫斯则在《论科学的精确性》中写过一张与帝国同样辽阔的地图:它一寸寸贴合大地,最终却被留在风雨之中。在可以随身带走的指南与无法携带的地图之间,一个问题渐渐浮现:我们究竟需要带上多少世界,才能找到自己的路?
对大型视觉语言模型(LVLMs)而言,世界从图像、书页和不断流逝的视频画面中抵达。而在屏幕的另一端,有一个人正在等待理解。他的时间有限,手边设备的记忆与电量也有限。我们希望为这场相遇留出空间:保存一个回答赖以成立的细节,让理解来得及抵达。
愿我们造出的工具,轻得足以随人远行,也细致得足以帮助人看见。
Artwork adapted with AI from The Grand Tour, NASA/JPL; original poster design by Invisible Creature.
A stage-wise map of methods, benchmarks, and open-source resources for faster LVLM inference.
Survey · Proceedings · News · Research Hub · Encoding · Prefilling · Decoding · Benchmarks · Contribute
🎉 Our survey is published in Findings of ACL 2026! Read the proceedings paper · Cite the survey.
- 🧩 New papers: 3DZip (code, merged in #10) and AgilePruner (code, merged in #10).
- 🤝 Community contributions: Hi-Lo Prune (PR #7) and Jag (original PR #8, catalog update #9).
- 📚 Fresh catalog exports: JSON · YAML · CSV · BibTeX · searchable Research Hub.
🗓️ Earlier milestones · April–September 2026
- 2026-09-21 · 🚀 Introduced the interactive Research Hub with searchable paper filters and downloadable JSON, YAML, CSV, and BibTeX catalogs.
- 2026-07 · 📖 Our survey is published in Findings of ACL 2026! Read the ACL Anthology paper or download the proceedings PDF.
- 2026-04 · 🎉 Our survey, Efficient Inference for Large Vision-Language Models: Bottlenecks, Techniques, and Prospects, was accepted to ACL 2026 Findings!
- 2026-04-07 · 📝 Released the survey preprint on arXiv, presenting a taxonomy across encoding, prefilling, and decoding.
- Understand the field: read our ACL 2026 Findings survey and follow the stage-wise taxonomy.
- Find a method for your bottleneck: explore visual encoding, long-context prefilling, KV-cache memory, or speculative decoding.
- Prepare experiments: browse methods with code repositories, check the benchmarks, and use each paper’s Cite / BibTeX button in the Hub.
| Stage | Main bottleneck | Representative directions | Jump |
|---|---|---|---|
| Encoding | Vision-encoder FLOPs and redundant visual inputs | Efficient encoders, keyframes, adaptive resolution, encoding-side compression | Browse |
| Prefilling | Long visual sequences and quadratic attention | Token compression and sparse attention | Browse |
| Decoding | KV-cache memory traffic and serial generation | KV compression, attention reuse, speculative decoding, efficient reasoning | Browse |
Large Vision-Language Models process high-resolution images, long videos, and multimodal contexts, making inference expensive in different ways at different stages. This repository organizes methods by where redundancy is removed in the inference lifecycle, so readers can move from a deployment bottleneck to the most relevant family of techniques.
The taxonomy organizes representative methods by inference stage and optimization mechanism. Updated paper links, code resources, and concise contributions are maintained in the tables below.
Need faster lookup? The Research Hub offers bottleneck shortcuts, clickable taxonomy paths, separate code/project filters, recent-addition sorting, and single-paper BibTeX and share links. Download the full catalog as JSON, YAML, CSV, or BibTeX.
- Stage indicates when an optimization acts: before the LLM, during context prefilling, or during autoregressive generation.
- Training-free methods can be applied without updating model parameters; training-aware methods learn a selector, compressor, or draft model.
- Methods spanning multiple stages are listed at their primary intervention point and cross-referenced when useful.
Optimization techniques targeted at the encoding stage to reduce visual token count and encoding time.
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| FastViT: A fast hybrid vision transformer using structural reparameterization | ICCV 2023 | Novel token mixing operators and structural reparameterization | |
| ConvLLaVA: Hierarchical backbones as visual encoder for large multimodal models | arXiv 2024 | Compresses high-resolution images into information-rich visual features | |
| FastVLM: Efficient vision encoding for vision language models | CVPR 2025 | Hybrid vision encoder outputting fewer tokens and reducing encoding time | |
| Glyph: Scaling Context Windows via Visual-Text Compression | arXiv 2025 | DeepEncoder maintaining low activations under high-resolution input |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| STC: Accelerating Streaming Video Large Language Models via Hierarchical Token Compression | CVPR 2026 | Jointly accelerates ViT encoding through cross-frame feature caching and LLM prefilling through spatiotemporal token pruning | |
| Qwen2-VL: Enhancing vision-language model's perception of the world at any resolution | arXiv 2024 | Native Dynamic Resolution framework enabling adaptive visual token generation | |
| Video-ChatGPT: Towards detailed video understanding via large vision and language models | ACL 2024 | Applies pooling over visual tokens to obtain compact visual representations | |
| MovieChat: From dense token to sparse memory for long video understanding | CVPR 2024 | Vision encoder explicitly trained for long video scenarios | |
| Long context transfer from language to vision | arXiv 2024 | - | Vision encoder explicitly trained for long video scenarios |
| LongVLM: Efficient long video understanding via large language models | ECCV 2024 | Vision encoder explicitly trained for long video scenarios | |
| LongVU: Spatiotemporal Adaptive Compression for Long Video-Language Understanding | ICML 2025 | Preserves full features for query-relevant frames while applying spatial pooling |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| BLIP-2: Bootstrapping Language-Image Pre-training | ICML 2023 | Bridges modality gap with lightweight Querying Transformer (Q-Former) | |
| Video-LLaMA: An instruction-tuned audio-visual language model | arXiv 2023 | Proposes Video Q-Former for multi-modality video comprehension | |
| Dynamic-VLM: Simple Dynamic Visual Token Compression for VideoLLM | arXiv 2024 | - | Dynamic visual token compression architecture adapting to different lengths |
| TokenPacker: Efficient Visual Projector for Multimodal LLM | IJCV 2025 | - | Coarse-to-fine scheme injecting enriched characteristics |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| SeViLA: Self-chained image-language model for video localization | NeurIPS 2023 | Uses frozen models as plug-and-play selectors for frame localization | |
| KeyVideoLLM: Towards large-scale video keyframe selection | arXiv 2024 | - | Employs frozen models as plug-and-play selectors for keyframe localization |
| Q-Frame: Query-aware Frame Selection and Multi-Resolution Adaptation | arXiv 2025 | - | Text-image matching network with Gumbel-Max trick |
| VideoTree: Adaptive tree-based video representation | CVPR 2025 | - | Multi-granularity tree-based representation extracting query-relevant details |
| FOCUS: Efficient Keyframe Selection for Long Video Understanding | arXiv 2025 | - | Formulates keyframe selection as combinatorial pure-exploration |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| VILA: Efficient video-language alignment for video question answering | ECCV 2024 | - | Text-guided Frame-Prompter learning to extract question-related frames |
| Frame-Voyager: Learning to query frames for video LLMs | arXiv 2024 | - | Learns to query informative frame combinations |
| M-LLM based video frame selection for efficient video understanding | CVPR 2025 | - | Uses spatial and temporal signals as supervision to train frame selector |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| VisionThink: Smart and efficient vision language model via reinforcement learning | arXiv 2025 | - | Dynamically processes distinct samples with different resolutions |
| ViCO: A Training Strategy towards Semantic Aware Dynamic High-Resolution | arXiv 2025 | - | Multiple MLP connectors with different compression ratios |
| Q-Frame: Query-aware Frame Selection and Multi-Resolution Adaptation | arXiv 2025 | - | Text-image matching network with Gumbel-Max trick |
| LongVU: Spatiotemporal Adaptive Compression | ICML 2025 | Preserves full features for query-relevant frames |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| EvoComp: Learning Visual Token Compression via Semantic-Guided Evolutionary Labeling | CVPR 2026 | - | Learns a lightweight visual token compressor from semantic-guided evolutionary token labels |
| LLaVA-PruMerge: Adaptive Token Reduction | ICCV 2025 | Reduces visual tokens according to similarities between class and spatial tokens | |
| PVC: Progressive Visual Token Compression | arXiv 2024 | - | Progressive compression strategy extending images as static videos |
| Less is More: A Simple yet Effective Token Reduction Method | arXiv 2024 | - | Token reduction using both CLIP metric and similarity (TRIM) |
| FOLDER: Accelerating Multi-modal Large Language Models | arXiv 2025 | - | Plug-and-play module in final vision backbone blocks for merging operations |
| Dynamic-VLM: Simple Dynamic Visual Token Compression | arXiv 2024 | - | Dynamic visual token compression architecture adapting to different lengths |
| Beyond Text-Visual Attention: Exploiting Visual Cues for Effective Token Pruning | arXiv 2025 | - | Selects informative tokens using visual attention (VisPruner) |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| AgilePruner: An Empirical Study of Attention and Diversity for Adaptive Visual Token Pruning in Large Vision-Language Models | ICLR 2026 | Combines CLS-attention selection with erank-based diversity pruning, adapting the balance to image complexity | |
| Semantic-Guided Slow-Fast Pruning of Visual Tokens for Vision-Language Models | ICASSP 2026 | - | Semantic-guided slow-fast pruning of visual tokens for VLMs |
| VisionZip: Longer is Better but Not Necessary | CVPR 2025 | Selects informative tokens using visual attention from encoder | |
| HIVTP: Hierarchical Visual Token Pruning | arXiv 2025 | - | Attention maps from middle encoder layers to estimate visual token importance |
| ToSA: Token Merging with Spatial Awareness | arXiv 2025 | - | Token merging combining semantic and spatial awareness |
| SparseVILA: Decoupling Visual Sparsity for Efficient VLM Inference | ICCV 2025 | - | Estimates token importance from visual encoder's self-attention maps |
Techniques to reduce computational and memory overhead during the prefilling stage.
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| 3DZip: Spatial-Aware Feature Diversity-Guided Token Compression for 3D Question Answering | ECCV 2026 | Combines coarse voxelization, DPP-based feature-diverse anchor selection, and spatially constrained merging for 3D VLM tokens | |
| Unified Spatiotemporal Token Compression for Video-LLMs at Ultra-Low Retention | CVPR 2026 | - | Globally allocates a unified spatiotemporal token budget using contribution and redundancy signals |
| CoverPruner: Who Speaks for the Pruned? Visual Token Pruning as Coverage Optimization | arXiv 2026 | - | Formulates pruning as query-weighted representational coverage maximization |
| FrameFusion: Combining similarity and importance | arXiv 2024 | - | Merges tokens in shallow layers and prunes in deep layers |
| G-Prune: Training-free visual token pruning from graph perspective | AAAI 2025 | - | Similarity graph and information flow to retain representative tokens |
| DART: Stop looking for important tokens, duplication matters more | arXiv 2025 | - | Pivot-based duplication pruning selecting tokens with low duplication |
| AIM: Adaptive Inference of Multi-Modal LLMs | arXiv 2024 | - | Spatiotemporal token merging to reduce video redundancy |
| DivPrune: Diversity-based visual token pruning | CVPR 2025 | - | Max-Min diversity optimization for token subset selection |
| FastVID: Dynamic density pruning for fast video LLMs | arXiv 2025 | Temporal segmentation and density spatiotemporal pruning | |
| DyCoke: Dynamic Compression of Tokens for Fast Video LLMs | CVPR 2025 | - | Plug-and-play temporal compression module minimizing temporal redundancy |
| CDPruner: Maximizing Conditional Diversity for Token Pruning | arXiv 2025 | - | Determinantal Point Processes (DPP) maximizing conditional diversity |
| PruneVid: Visual token pruning for efficient video LLMs | ACL 2025 | - | Spatiotemporal token merging before LLMs |
| HoliTom: Holistic Token Merging for Fast Video LLMs | arXiv 2025 | - | Global redundancy-aware segmentation followed by spatiotemporal merging |
| VidCom2: Video Compression Commander | arXiv 2025 | - | Dynamic compression based on frame uniqueness |
| STTM: Multi-granular spatio-temporal token merging | ICCV 2025 | - | Quadtree spatial transformation with directed pairwise merging |
| StreamingTOM: Streaming Token Compression | arXiv 2025 | - | Causal temporal reduction with fixed per-frame budget |
| Dynamic-VLM: Simple Dynamic Visual Token Compression | arXiv 2024 | - | Dynamic visual token compression architecture adapting to different lengths |
| TimeChat-Online: 80% Visual Tokens are Naturally Redundant | arXiv 2025 | - | Differential token drop module filtering redundant content in streaming videos |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| Hi-Lo Prune: Look at What You'll Lose before Pruning with Hierarchical Token Selection | CVPR 2026 | Hierarchically selects pruning candidates and transfers their information to retained tokens before early-layer removal | |
| SwiftVLM: Efficient Vision-Language Model Inference via Cross-Layer Token Bypass | arXiv 2026 | - | Bypasses rather than permanently discards unselected tokens, enabling later-layer re-evaluation |
| ICCTP: Instruction-Guided Cross-Modal Clustering for Training-Free Visual Token Pruning | AAAI 2026 | - | Uses instruction noun anchors for cross-modal clustering and high-ratio token pruning |
| OccamToken: Efficient VLM Inference with Training-Free and Budget-Adaptive Token Pruning | arXiv 2026 | - | Uses register-anchored relative evidence tests for image- and query-adaptive pruning |
| SIEVE: When Vision Becomes Text | arXiv 2026 | - | Retains visual information unexplained by the text subspace using cross-modal residual guidance |
| AVTP: Multi-Image Visual Token Pruning in Large Visual Language Models | EMNLP Findings 2026 | Adaptively assigns token budgets across images and supports diverse VLM architectures | |
| FastV: An image is worth 1/2 tokens after layer 2 | ECCV 2024 | Learns attention patterns in early layers to prune visual tokens in deeper layers | |
| PyramidDrop: Accelerating via pyramid visual redundancy reduction | arXiv 2024 | Multi-stage pruning using attention score ranking | |
| FrameFusion: Combining similarity and importance | arXiv 2024 | - | Merges tokens in shallow layers and prunes in deep layers |
| SparseVLM: Visual token sparsification for efficient inference | arXiv 2024 | - | Sparsifies visual tokens based on question prompt through text-visual attention scores |
| BTP: Balanced Token Pruning | arXiv 2025 | - | Multi-stage pruning with diversity and attention ranking objectives |
| Fit and Prune: Fast and training-free visual token pruning | AAAI 2025 | - | Minimizes divergence of attention distributions before and after pruning |
| ATP-LLaVA: Adaptive token pruning for LVLMs | CVPR 2025 | - | Learnable adaptive token pruning module computing importance score |
| Video-XL-2: Towards Very Long-Video Understanding Through Task-Aware KV Sparsification | arXiv 2025 | - | Chunk-based attention with historical context for video processing |
| StreamingVLM: Real-time understanding for infinite video streams | arXiv 2025 | - | Maintains compact token subset by reusing attention sinks and recent token windows |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| VideoNSA: Native Sparse Attention Scales Video Understanding | arXiv 2025 | - | End-to-end training with sparse attention preserving dense attention for text |
| SpargeAttn: Accurate sparse attention accelerating any model inference | arXiv 2025 | - | Two-stage online filter to skip unimportant regions in sparse attention |
| XAttention: Block sparse attention with antidiagonal scoring | arXiv 2025 | - | Block sparse attention with antidiagonal scoring for efficient block estimation |
| MMInference: Modality-Aware Permutation Sparse Attention | arXiv 2025 | - | Identifies three distinct attention patterns in LVLMs with modality-aware permutation |
Optimization techniques for the autoregressive decoding stage.
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| DSTP: Why and When Visual Token Pruning Fails? | arXiv 2026 | - | Tracks decoding-stage relevant visual information shift to adapt token pruning during complex reasoning |
| LOOK-M: Look-once optimization in KV cache | arXiv 2024 | - | Text-prior compression policy prioritizing textual KVs while evicting visual tokens |
| Elastic Cache: Efficient inference of vision instruction-following models | ECCV 2024 | - | Cache merging strategy fusing less important KVs guided by distinct metrics |
| ReKV: Streaming video QA with in-context video KV-cache retrieval | arXiv 2025 | - | Retrieval-based framework offloading video chunks to external memory |
| LiveVLM: Efficient Online Video Understanding via Streaming-Oriented KV Cache | arXiv 2025 | - | Dual-memory approach with short-term sliding window and compressed long-term memory |
| FastCache: Optimizing multimodal LLM serving | arXiv 2025 | - | Lightweight modality-specific compressor learning compression patterns |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| AirCache: Activating Inter-modal Relevancy KV Cache Compression | arXiv 2025 | - | Models stable inter-modal relevance and adaptively allocates visual KV budgets across layers |
| VL-Cache: Sparsity and modality-aware KV cache compression | arXiv 2024 | - | Dynamically sets each layer's cache size according to measured attention sparsity |
| Meda: Dynamic KV cache allocation for efficient multimodal inference | arXiv 2025 | - | Cross-modal attention entropy guiding cache allocation to layers with complex interactions |
| ST3: Accelerating MLLM by spatial-temporal visual token trimming | AAAI 2025 | - | Progressive pruning of visual tokens in deeper layers based on decreasing visual importance |
| MadaKV: Adaptive Modality-Perception KV Cache Eviction | ACL 2025 | - | Inter-layer compensation mechanism dynamically adjusting budgets |
| InfiniPot-V: Memory-Constrained KV Cache Compression | arXiv 2025 | - | Layer-wise adaptive pooling with varying kernel sizes to balance abstraction and detail |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| HybridKV: Hybrid KV Cache Compression for Efficient Multimodal Large Language Model Inference | ACL 2026 | - | Classifies attention heads as static or dynamic and applies head-specific pruning or chunk retrieval |
| SparseMM: Head Sparsity Emerges from Visual Concept Responses | arXiv 2025 | - | Identifies vital visual heads and allocates asymmetric budgets based on visual relevance |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| AKVQ-VL: Attention-Aware KV Cache Adaptive 2-Bit Quantization | arXiv 2025 | - | Adaptive mixed-precision quantization with high bit-width for critical tokens and 2-bit for others |
| CalibQuant: 1-Bit KV Cache Quantization for Multimodal LLMs | arXiv 2025 | - | Channel-wise 1-bit quantization with post-calibration for extreme values |
| VidKV: Plug-and-Play 1.x-Bit KV Cache Quantization | arXiv 2025 | - | Sub-2-bit quantization with differential treatment for K and V |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| Q Cache: Visual Attention is Valuable in Less than Half of Decode Layers for Multimodal Large Language Model | arXiv 2026 | - | Reuses similar attention queries across adjacent layers through a lightweight layer-shared cache |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| MMSpec: Benchmarking Speculative Decoding for Vision-Language Models | arXiv 2026 | Benchmarks ten speculative decoding methods and introduces vision-adaptive ViSkip | |
| SpecVLM: Enhancing speculative decoding via verifier-guided token pruning | EMNLP 2025 | - | Verifier-guided staged pruning removing up to 90% of vision tokens from draft model input |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| MASSV: Multimodal Adaptation and Self-Data Distillation for Speculative Decoding of VLMs | arXiv 2025 | - | Converts small language models into multimodal drafters using a vision projector and self-distillation |
| Spec-LLaVA: Accelerating VLMs with Dynamic Tree-Based Speculative Decoding | arXiv 2025 | - | Compact distilled draft model paired with tree-based verification algorithm |
| MSD: Speculative Decoding Reimagined for Multimodal Large Language Models | arXiv 2025 | - | Two-stage training enabling draft model to acquire language modeling and visual perception |
| ViSpec: Accelerating VLMs with Vision-Aware Speculative Decoding | arXiv 2025 | - | Lightweight vision adaptor to compress image tokens for draft model |
| FastVLM: Self-Speculative Decoding for Fast Vision-Language Model Inference | arXiv 2025 | - | Imitation-based draft model learning from deeper representations (self-speculative decoding) |
| Glyph: Scaling Context Windows via Visual-Text Compression | arXiv 2025 | Introduces DeepEncoder maintaining low activations under high-resolution input | |
| SpecVLM: Fast Speculative Decoding in Vision-Language Models | arXiv 2025 | - | Elastic visual compressor adaptively selecting from multiple compression primitives |
| FLASH: Latent-Aware Semi-Autoregressive Speculative Decoding | arXiv 2025 | - | Visual token compression mechanism and semi-autoregressive head for draft model optimization |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| Jag: Direct Box Prediction for Efficient Visual Grounding | arXiv 2026 | Adapts a compact multimodal model to predict a continuous bounding box from an existing input-token state in one forward pass, avoiding autoregressive coordinate generation. |
| Paper | Venue | Code | Key Contribution |
|---|---|---|---|
| Adaptive Fast-and-Slow Visual Program Reasoning for Long-Form VideoQA | arXiv 2025 | - | Fast-slow reasoning framework routing simple queries to VideoLLM and complex ones to visual program workflow |
| PixelThink: Towards Efficient Chain-of-Pixel Reasoning | arXiv 2025 | - | Reinforcement learning to regulate reasoning chain length based on task difficulty and model confidence |
| Prolonged reasoning is not all you need: Certainty-based adaptive routing | arXiv 2025 | - | Certainty-based routing triggering long thought chains only when initial answer exhibits high uncertainty |
| Benchmark | Description | Resources |
|---|---|---|
| MME | Comprehensive evaluation for multimodal LLMs | [Paper] [Leaderboard] |
| SEED-Bench | Benchmarking multimodal LLMs | [Paper] [Code] |
| MMMU | Massive multi-discipline multimodal understanding | [Paper] [Website] |
| Benchmark | Description | Resources |
|---|---|---|
| Video-MME | First comprehensive video analysis benchmark | [Paper] [Website] |
| LongVideoBench | Long-context interleaved video-language understanding | [Paper] [Code] |
| MVBench | Comprehensive multi-modal video understanding | [Paper] [Code] |
| Benchmark | Description | Resources |
|---|---|---|
| VTC-Bench | Compression-sensitive evaluation framework that denoises existing benchmarks using image downsampling | [Paper] |
| MMSpec | Unified benchmark of ten speculative decoding algorithms across six multimodal task categories | [Paper] [Website] |
| Survey | Description | Year |
|---|---|---|
| Token Compression Survey | Survey on token compression in LLMs | 2025 |
| Efficient LLMs Survey | Comprehensive survey on efficient LLMs | 2024 |
| MLLM Survey | Survey on multimodal LLMs | 2024 |
This repository accompanies our survey, Efficient Inference for Large Vision-Language Models: Bottlenecks, Techniques, and Prospects, published in Findings of ACL 2026.
Authors and affiliations
Jun Zhang*, Yicheng Ji*, Feiyang Ren*, Yihang Li*, Bowen Zeng*, Zonghao Chen*, Ke Chen, Lidan Shou, Gang Chen, and Huan Li (* equal contribution).
- The State Key Laboratory of Blockchain and Data Security, Zhejiang University
- Hangzhou High-Tech Zone (Binjiang) Institute of Blockchain and Data Security
If you find the survey or repository useful, please consider citing:
@inproceedings{zhang-etal-2026-efficient,
title = {Efficient Inference for Large Vision-Language Models: Bottlenecks, Techniques, and Prospects},
author = {Zhang, Jun and Ji, Yicheng and Ren, Feiyang and Li, Yihang and Zeng, Bowen and Chen, Zonghao and Chen, Ke and Shou, Lidan and Chen, Gang and Li, Huan},
booktitle = {Findings of the Association for Computational Linguistics: ACL 2026},
month = jul,
year = {2026},
pages = {21036--21066},
publisher = {Association for Computational Linguistics},
doi = {10.18653/v1/2026.findings-acl.1057},
url = {https://aclanthology.org/2026.findings-acl.1057/}
}
We welcome contributions! If you find a relevant paper or resource, use the paper submission form or:
- Fork this repository
- Add the paper to the appropriate category
- Submit a pull request
For inclusion criteria and formatting conventions, see CONTRIBUTING.md.
Disclaimer: This is a living document and will be continuously updated. If you notice any missing papers or have suggestions for better categorization, feel free to open an issue or submit a pull request.
Last Updated: 2026-10-20

