ECCV 2026 · Dataset & Benchmark · Initial Release

Read the Object: A Dataset and Task for Text-Grounded Object Understanding in Real-World Images

Arpita Chowdhury1,†, Hyojin Park2, Hoang Le2, Wei-Lun Chao3, Munawar Hayat2, Fatih Porikli2, Shweta Mahajan4,5,†
1Ohio State University  /  2Qualcomm AI Research  /  3Boston University  /  4York University  /  5Vector Institute for AI
† core contribution
chowdhury.150@osu.edu · shwemaha@yorku.ca
Comparison of GPT-5, DeepSeek-OCR, and Florence-2 against the Read the Object benchmark on a traffic sign and a jersey referring-expression example.
Scene-text based referring expression task. State-of-the-art models — GPT‑5, DeepSeek‑OCR, Florence‑2 — fail to localize objects by their associated scene text, for lack of a joint scene-text and object localization benchmark. Read the Object supplies dense annotations linking every object to its inscribed text.
Abstract

Objects in the real world are often distinguished not only by their visual appearance, but also by the text printed on them. Locating players by their jersey numbers in sports, navigating highways with traffic signs, or identifying medicine vials based on the dosage, all require linking textual cues with the correct object instance for robust perception. Recent progress in vision and language considers scene-text recognition and object recognition as two independent tasks and overlooks a critical capability of object–text binding. To address this gap, we introduce Read the Object, a carefully curated benchmark for evaluating instance-level associations between text and objects in natural, real-world images. The proposed benchmark explicitly and rigorously annotates each object with its corresponding text, including visual attributes and spatial cues to disambiguate multi-instance scenes. Within this unified framework, we define six complementary tasks for evaluating text-grounded perception and reasoning. Experiments on state-of-the-art models reveal a clear binding gap: despite strong performance on isolated text recognition and global reasoning, they struggle to associate text with the correct object instance in complex scenes. Read the Object establishes a new standard for bridging reading, perception, and reasoning in vision–language research.

Dataset by the Numbers

Built from OpenImages V5, MS COCO & NuScenes

25,208
RefExp samples
34,085
object instances
137,246
text instances
6,000+
source images
97
object classes
6
tasks

Average of 5.44 text regions and 1.35 objects per sample — over 90% of samples contain more than one scene-text instance, with a long tail to 11–50 regions per image. Per-class imbalance factor stays ≤4.

Task Taxonomy

Six Complementary Tasks

One dataset, six views on the same underlying capability — associating text with the correct object instance.

01

Text–Object Grounding

Given a text string, find all objects in the image that contain or are associated with that text.

In · image, target textOut · object name(s) + bbox(es)
02

Referring Expression Comprehension

Given a natural-language expression combining text and visual attributes, locate the described object and its text region.

In · image, expressionOut · object bbox + text bbox
03

OCR

Detect and recognize all visible text regions in the image.

In · imageOut · text regions + transcriptions
04

Text–Region Grounding

Given a query text string, localize the corresponding text region(s) within the image.

In · image, query textOut · text bbox(es)
05

Visual Question Answering

Answer questions that require reading text and understanding its relation to the visual context.

In · image, questionOut · answer text
06

Multi-Text Captioning

Generate a caption that jointly describes objects and the visible text on them.

In · imageOut · caption text
Representative samples for each of the six Read the Object tasks: referring expression comprehension, text-object grounding, OCR, captioning, text-region grounding, and visual question answering.
Representative referring expressions, questions, and captions across all six task types.
Prior Work

Compared to Referring Expression Benchmarks

Prior REC datasets ground objects only by appearance and spatial cues. Read the Object additionally annotates scene-text regions and links them explicitly to object instances.

DatasetImagesSamplesAvg. Expr. Len.Scene-text bboxObject–text assoc.Visual attr.
RefCOCO3,0007,5963.6———
RefCOCO+3,0007,5783.6———
RefCOCOg3,9007,5968.4———
Ref-Adv2,8335,00011.5——✓
Read the Object6,00025,20817.6✓✓✓
Side-by-side referring-expression examples from Read the Object, Ref-L4, RefCOCO, RefCOCOg, and Ref-Adv.
Prior datasets ground objects through appearance and spatial relations alone; Read the Object leverages scene text on the object itself (e.g. “Penn State Police”) as an additional grounding signal.
Construction

Data Curation Pipeline

Open-vocabulary detection, segmentation, and OCR extract candidates; text is linked to objects via mask-guided association, then verified through multi-round human review.

01Data Collection
02Annotation Curation
03Processing
04Attribute Curation
05Quality Control
06Data Taxonomy
Six-stage data curation pipeline: data collection, annotation curation, processing, attribute curation, quality control, and data taxonomy.
Mask-guided text–object linking resolves ambiguous cases where a coarse object box would otherwise attach text to the wrong instance.
Conclusion

We present the importance of joint understanding of scene-text and objects for real-world visual reasoning. Read the Object introduces dense scene-text and object annotations that establish relationships between objects and their associated scene text. Our comprehensive analysis — evaluating diverse vision, OCR, and multimodal models across six complementary tasks — reveals that current object grounding and vision-language models struggle significantly with text–object association, especially in cluttered environments. We believe this benchmark will steer research toward multimodal models that can navigate and understand the text-rich complexity of the real world.

Citation
@inproceedings{chowdhury2026readtheobject,
  title     = {Read the Object: A Dataset and Task for Text-Grounded Object Understanding in Real-World Images},
  author    = {Chowdhury, Arpita and Park, Hyojin and Le, Hoang and Chao, Wei-Lun and Hayat, Munawar and Porikli, Fatih and Mahajan, Shweta},
  booktitle = {European Conference on Computer Vision (ECCV)},
  year      = {2026}
}