CodedStereo: Learned Phase Masks for Large Depth-of-field Stereo
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Abstract (arXiv)
Conventional stereo suffers from a fundamental trade-off between imaging volume and signal-to-noise ratio (SNR) -- due to the conflicting impact of aperture size on both these variables. Inspired by the extended depth of field cameras, we propose a novel end-to-end learning-based technique to overcome this limitation, by introducing a phase mask at the aperture plane of the cameras in a stereo imaging system. The phase mask creates a depth-dependent point spread function, allowing us to recover sharp image texture and stereo correspondence over a significantly extended depth of field (EDOF) than conventional stereo. The phase mask pattern, the EDOF image reconstruction, and the stereo disparity estimation are all trained together using an end-to-end learned deep neural network. We perform theoretical analysis and characterization of the proposed approach and show a 6x increase in volume that can be imaged in simulation. We also build an experimental prototype and validate the approach using real-world results acquired using this prototype system.
Key facts. Cited by 10 papers in the map (data through 7 Oct 2026). Builds on 14 of its 38 references that are in the map. First posted on arXiv 9 Apr 2021.
Builds on
14 of 38 references.
References · 14
- 2015U-Net: Convolutional Networks for Biomedical Image Segmentationcited by 19,604
- 2015A Large Dataset to Train Convolutional Networks for Disparity, Optical Flow, and Scene Flow Estimationcited by 878
- 2018Pyramid Stereo Matching Networkcited by 486
- 2018Learning to See in the Darkcited by 459
- 2019GA-Net: Guided Aggregation Net for End-to-end Stereo Matchingcited by 242
- 2019DeepPruner: Learning Efficient Stereo Matching via Differentiable PatchMatchcited by 114
- 2019Deep Optics for Monocular Depth Estimation and 3D Object Detectioncited by 65
- 2017Cascade Residual Learning: A Two-stage Convolutional Neural Network for Stereo Matchingcited by 63
- 2019Deep Optics for Single-shot High-dynamic-range Imagingcited by 62
- 2019Handheld Mobile Photography in Very Low Lightcited by 56
- 2016Learning Sensor Multiplexing Design through Back-propagationcited by 28
- 2020Polka Lines: Learning Structured Illumination and Reconstruction for Active Stereocited by 21
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Citing papers per year: 2021: 1; 2022: 1; 2023: 1; 2024: 2; 2025: 4; 2026: 1.
10 papers.
- 2024A Differentiable Wave Optics Model for End-to-End Computational Imaging System Optimizationcited by 6
- 2021Video Reconstruction from a Single Motion Blurred Image using Learned Dynamic Phase Codingcited by 5
- 2024Learning to See Through Dazzlecited by 3
- 2022Diffractive optical system design by cascaded propagationcited by 1
- 2025Collaborative On-Sensor Array Camerascited by 1
- 2025Learned Off-aperture Encoding for Wide Field-of-view RGBD Imagingcited by 1
- 2023Neural Lithography: Close the Design-to-Manufacturing Gap in Computational Optics with a 'Real2Sim' Learned Photolithography Simulatorcited by 0
- 2025Large-Area Fabrication-Aware Computational Diffractive Opticscited by 0
- 2025Learning to See Through Flarecited by 0
- 2026Depth from Dual Differential Defocus and Stereo Consensuscited by 0
- 2026Depth from Dual Differential Defocus and Stereo Consensus1 Jun 2026
- 2025Learning to See Through Flare19 Aug 2025
- 2025Learned Off-aperture Encoding for Wide Field-of-view RGBD Imaging30 Jul 2025
- 2025Collaborative On-Sensor Array Cameras4 Jun 2025
- 2025Large-Area Fabrication-Aware Computational Diffractive Optics28 May 2025
- 2024A Differentiable Wave Optics Model for End-to-End Computational Imaging System Optimization13 Dec 2024
- 2024Learning to See Through Dazzle24 Feb 2024
- 2023Neural Lithography: Close the Design-to-Manufacturing Gap in Computational Optics with a 'Real2Sim' Learned Photolithography Simulator29 Sep 2023
- 2022Diffractive optical system design by cascaded propagation23 Feb 2022
- 2021Video Reconstruction from a Single Motion Blurred Image using Learned Dynamic Phase Coding28 Dec 2021