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Transform single photographs into spatially accurate metric depth maps with smooth physical volume and real-world distance gradients
Convert 2D source photography into calibrated depth maps through an automated metric workflow.
From dynamic metric binning to granular distance gradients, explore how ZoeDepth resolves true spatial volume.
Browse high-fidelity visual scenes demonstrating smooth depth gradients across varied creative disciplines.
See how 3D artists, visual effects teams, and photographers use metric depth maps across production pipelines.
ZoeDepth predicts actual physical distance in meters rather than just relative foreground-to-background order. By combining the MiDaS backbone with a dynamic metric bins module, it generates continuous, volumetrically accurate depth gradients while maintaining zero-shot generalization across diverse environments.
ZoeDepth is ideal for 3D scene reconstruction, point cloud generation, precise displacement mapping, parallax camera moves, and synthetic depth-of-field blur. Its calibrated metric gradients provide smooth spatial volume without stepped edges, making it well-suited for export into 3D software like Blender, Unity, or Unreal Engine.
Avoid ZoeDepth when conditioning diffusion models for stylized generation, as relative depth models provide sharper, high-contrast silhouettes that ControlNet latches onto more effectively. It is also unsuitable for real-time or latency-critical applications due to heavier computational requirements, and it can miscalculate depth on mirrors, water, or transparent glass.
ZoeDepth was developed by Intel Labs and published on February 23, 2023.
High-contrast, well-lit photographs with clear depth separation between foreground and background yield the highest metric accuracy. For indoor scenes, keeping subjects within a 0.5 to 10-meter range leverages the model's metric precision. Avoid heavily compressed images with blocky compression artifacts or scenes dominated by heavy specular reflections.
Transform single photographs into spatially accurate metric depth maps with smooth physical volume and real-world distance gradients