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m.nexdata.datatang.com

New Dataset Release

From:Nexdata Date: 07/30/2026

1.5 Million Image Editing Data Pairs Redefining the Boundaries of Image Editing

Retouching photos for social media, replacing product backgrounds for e-commerce, and frame-by-frame restoration in the film industry—these visual editing tasks, once heavily dependent on manual work, are now being rapidly transformed by instruction-driven image editing technologies.

From single-image object removal to multi-image object transfer, and from localized attribute modification to large-scale scene editing, the boundaries of image editing capabilities continue to expand. Behind every leap in performance lies the same foundation: training data that is sufficiently large in scale, diverse in task types, and precisely annotated.

Pixel-Level Manipulation vs. Semantic-Level Generation

Instruction-driven image editing differs fundamentally from traditional image editing software in its underlying paradigm. Conventional editing tools operate through direct pixel-level manipulation. Using brushes, selection tools, layers, and masks, users explicitly modify pixels to achieve the desired visual result. This is a deterministic "what you see is what you get" workflow, where every modification is directly controlled by the user.

Instruction-driven image editing, by contrast, operates through semantic understanding. When a user provides a natural language instruction such as "replace the background with a beach," the model must first understand the semantic meaning of the instruction—identify which region belongs to the background, what constitutes the beach, and reason about the spatial and semantic relationships between them. Based on this understanding, the model determines what should be modified and how, ultimately generating an entirely new pixel distribution that aligns with the instruction.

Because the entire editing pipeline is generated end-to-end, the model's generalization capability and semantic understanding directly determine editing quality. This cross-modal transformation from language to image also places significantly higher demands on the scale, diversity, and annotation quality of training data than traditional image editing software.

1.5 Million Image Editing Data Pairs, Ready to Use

Existing open-source image editing datasets typically provide limited editing task diversity, relatively simple instruction complexity, and insufficient consideration of background consistency and fine-grained detail preservation. More importantly, as diffusion models have become the dominant architecture for image editing, the scale, diversity, and annotation quality of training data increasingly determine the upper bound of model performance.

With more than fifteen years of experience in AI data services, Nexdata has accumulated over 1.5 million single-image and multi-image image editing data pairs, providing a solid data foundation for the development and deployment of image editing models.

The dataset contains more than 1.5 million data pairs, primarily consisting of high-aesthetic-quality images with resolutions of no less than 2K. The dataset is available with commercial licensing, supported by clear intellectual property ownership and traceability.

Key highlights include:

✦ Rare Multi-Image Editing Data

Nearly all publicly available image editing datasets focus on single-image editing tasks. This dataset systematically introduces multi-image editing scenarios, including cross-image object transfer, multi-element image fusion, and collaborative editing with multiple reference images.

These data directly address the growing demand for multi-image understanding and cross-image reasoning in multimodal foundation models, making them an exceptionally valuable and scarce training resource.

✦ Diverse Target Categories

The dataset covers a broad range of target categories, including animals, objects, plants, landscapes, and many other visual scenarios, providing extensive diversity across editing targets.

✦ Highly Complex Image Editing Tasks

Unlike conventional image editing datasets that primarily focus on simple tasks such as object removal or background replacement, this dataset is built around large-scale instruction-driven semantic image editing.

Compared with traditional editing tasks, these instruction-driven tasks require substantially more modifications across both target objects and surrounding contextual regions, significantly increasing task complexity.

Supported editing tasks include, but are not limited to:

  • Multi-object and background consistency editing
  • Multi-object compositional editing
  • Style transfer
  • Object relocation
  • Spatial reasoning
  • Physical attribute transformation
  • Camera viewpoint changes
  • Knowledge-based reasoning

These tasks systematically enhance a model's capability for image-text contextual understanding while improving consistency preservation in non-edited regions.

Application Scenarios: From Academic Research to Industrial Deployment

The dataset can be broadly applied across the following research and development areas:

Instruction-Guided Image Editing Model Training and Fine-Tuning

Provides large-scale, high-quality supervised data for training and fine-tuning diffusion-based instruction-guided image editing models.

Enhancing Visual Reasoning for Multimodal Large Language Models

Complex editing instructions naturally require advanced capabilities such as spatial reasoning, object relationship understanding, and instruction decomposition, making the dataset highly valuable for improving multimodal reasoning performance.

Automated Image Processing for E-commerce and Advertising

Consistency editing and multi-image composition data can directly support commercial applications such as automated product background replacement, multi-product composition, and marketing image generation.

Benchmark Construction for Image Editing Model Evaluation

The dataset's large scale and diverse task coverage make it suitable for building comprehensive evaluation benchmarks across multiple dimensions, including instruction following, editing quality, and detail preservation.

Continuous Expansion of Image Editing Data

Nexdata continues to expand its image editing dataset portfolio, covering additional directions such as multi-step reasoning-based editing, multi-subject consistency editing, and large-scale global scene editing.

All planned datasets will maintain the same high-quality data specifications while providing commercial licensing and transparent intellectual property traceability.

To request sample data or learn more about our image editing datasets, please contact your Nexdata account manager.

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