Depth-Anything-V2-Base-hf
| Property | Value |
|---|---|
| Parameters | 97.5M |
| License | CC-BY-NC-4.0 |
| Architecture | DPT with DINOv2 backbone |
| Paper | Depth Anything V2 |
What is Depth-Anything-V2-Base-hf?
Depth-Anything-V2-Base-hf is a state-of-the-art monocular depth estimation model that represents a significant advancement in computer vision technology. Trained on an extensive dataset of 595K synthetic labeled images and over 62M real unlabeled images, this model excels at predicting depth from single images with remarkable accuracy and efficiency.
Implementation Details
The model leverages a DPT (Dense Prediction Transformer) architecture combined with a DINOv2 backbone, utilizing 97.5M parameters to achieve superior depth estimation results. It operates using F32 tensor types and is fully compatible with the transformers library, making it easily deployable in various applications.
- 10x faster processing compared to Stable Diffusion-based models
- More fine-grained detail capture than V1
- Enhanced robustness compared to both V1 and SD-based alternatives
- Efficient architecture optimized for production deployment
Core Capabilities
- Zero-shot depth estimation from single images
- Fine-grained depth detail preservation
- Robust performance across diverse scenarios
- Efficient processing with lower computational requirements
- Support for both relative and absolute depth estimation
Frequently Asked Questions
Q: What makes this model unique?
This model stands out due to its hybrid training approach combining synthetic and real-world data, resulting in superior depth estimation accuracy while maintaining computational efficiency. The combination of DPT architecture with DINOv2 backbone enables robust performance across diverse scenarios.
Q: What are the recommended use cases?
The model is ideal for applications requiring accurate depth estimation from single images, including robotics, augmented reality, computer vision systems, and 3D reconstruction tasks. It's particularly suitable for scenarios requiring real-time processing due to its efficiency advantages over SD-based alternatives.
