Visual Question Answering
Also known as VQA
Overview
The field asks how machines can connect a question to relevant visual evidence, read text and diagrams, and combine perception with commonsense or specialized knowledge. Approaches range from vision-language encoders and multimodal large language models to region and crop grounding, OCR and scene graphs, retrieval-augmented agents, and fine-tuning or reinforcement learning. Benchmarks cover everyday images and compositional reasoning, knowledge-based and text-rich questions, and document, video, medical, scientific, and multi-view settings. A central challenge is that correct-sounding answers may lack reliable visual grounding: models still miss small details and spatial relations, struggle to combine evidence across views or long documents, and may fail to recognize when they should abstain.
Latest papers
253 papers36 papers in the last four weeks, up 13% on the four weeks before. 0.2% of all new papers.
Hidden Clones: Exposing and Fixing Family Bias in Vision-Language Model Ensembles
360° Image Perception with MLLMs: A Comprehensive Benchmark and a Training-Free Method
Visual Set Program Synthesizer
SEA-Vision: A Multilingual Benchmark for Comprehensive Document and Scene Text Understanding in Southeast Asia
LLMind: Bio-inspired Training-free Adaptive Visual Representations for Vision-Language Models
AgroOmni: A Large-Scale Multi-view Agricultural Dataset for Cross-Scale Multimodal Reasoning
Deeper Thought, Weaker Aim: Understanding and Mitigating Perceptual Impairment during Reasoning in Multimodal Large Language Models
AgriChat: A Multimodal Large Language Model for Agriculture Image Understanding
MaterialFigBENCH: benchmark dataset with figures for evaluating college-level materials science problem-solving abilities of multimodal large language models
Taking Shortcuts for Categorical VQA Using Super Neurons
AutoViVQA: A Large-Scale Automatically Constructed Dataset for Vietnamese Visual Question Answering
More than the Sum: Panorama-Language Models for Adverse Omni-Scenes
Hospitality-VQA: Decision-Oriented Informativeness Evaluation for Vision-Language Models
AQuA: Toward Strategic Response Generation for Ambiguous Visual Questions
PatchCue: Enhancing Vision-Language Model Reasoning with Patch-Based Visual Cues
Wiki-R1: Incentivizing Multimodal Reasoning for Knowledge-based VQA via Data and Sampling Curriculum
Through the Lens of Contrast: Self-Improving Visual Reasoning in VLMs
ORCA: Orchestrated Reasoning with Collaborative Agents for Document Visual Question Answering
SUPERGLASSES: Benchmarking Vision Language Models as Intelligent Agents for AI Smart Glasses
ConFoThinking: Consolidated Focused Attention Driven Thinking for Visual Question Answering
SimpleOCR: Rendering Visualized Questions to Teach MLLMs to Read
read'' text embedded in images, or do they merely rely on parametric shortcuts in the text prompt? In this work, we diagnose this issue by introducing the Visualized-Question (VQ) setting, where text queries are rendered directly onto images to structurally mandate visual engagement. Our diagnostic experiments on Qwen2.5-VL reveal a startling capability-utilization gap: despite possessing strong OCR capabilities, models suffer a performance degradation of up to 12.7% in the VQ setting, exposing a deep-seated modality laziness.'' To bridge this gap, we propose SimpleOCR, a plug-and-play training strategy that imposes a structural constraint on the learning process. By transforming training samples into the VQ format with randomized styles, SimpleOCR effectively invalidates text-based shortcuts, compelling the model to activate and optimize its visual text extraction pathways. Empirically, SimpleOCR yields robust gains without architectural modifications. On four representative OOD benchmarks, it surpasses the base model by 5.4% and GRPO based on original images by 2.7%, while exhibiting extreme data efficiency, achieving superior performance with 30x fewer samples (8.5K) than recent RL-based methods. Furthermore, its plug-and-play nature allows seamless integration with advanced RL strategies like NoisyRollout to yield complementary improvements. Code is available at https://github.com/aiming-lab/SimpleOCR.