The Computational Photography Lab at Northwestern University develops imaging and display systems that combine a creative use of optical devices, sensor technology, and image processing algorithms to enable new functionality in cameras and displays. Our research is focused in the following areas:
- Computational Imaging for leveraging novel optical designs and image processing together to enable new capabilities in conventional cameras, such as extended depth-of-field, digital refocusing, super-resolution, and measuring high dimensional appearance.
- Computer Vision for measuring depth or spectral characteristics that inform a higher-level understanding about a scene, such as geometry or material properties.
- Computational Displays for displaying images with an unprecedented sense of realism by allowing viewers to observe the appearance of objects in a natural and intuitive manner.
We are always looking for exceptional researchers to join our group with interest and experience in any of the following areas:
Computational cameras:
- High dynamic range capture
- Light field / camera array / multi-aperture imaging
- Extended DOF imaging (e.g. focal sweep, wavefront coding)
- Depth imaging (e.g. using focus / defocus, stereo, holography)
- Hyperspectral / multispectral imaging
- High resolution and super-resolution imaging (e.g. spatial, temporal, depth, spectral)
- High-dimensional appearance / material capture (e.g. BRDF, 6D/8D reflectance)
Image processing:
- Motion / defocus deblurring
- Tomographic reconstruction
- Image priors and regularization
- Compressed sensing / sparse representations / convex optimization
- Material recognition from hyperspectral data
- Noise analysis of computational cameras
- Image quality metrics for computational cameras
Camera engineering:
- Camera design with exotic optical elements (e.g. coded aperture, lens array, diffuser, hologram)
- Programmable imaging with DMD, LCD, custom sensor, etc.
- Programmable imaging with mechanical motion (e.g. actuators, deformable lenses)
- Computational correction of lens aberrations
Computational display / projection:
- Autostereo 3D Display (e.g. light field, holographic)
- Computational illumination / structured light / light transport analysis
Computer vision and machine learning:
- Learning efficient data models for appearance (e.g. dictionary learning)
- Detection, recognition, segmentation, and tracking
Scientific and Medical Applications:
- Computational Microscopy and Biological Imaging
- X-Ray Imaging
- Remote sensing
Please send inquiries to: ollie(Replace this parenthesis with the @ sign)eecs.northwestern.edu