Learned holographic light transport: invited
Koray Kavaklı, Hakan Urey, Kaan Akşit
Abstract
Computer-generated holography algorithms often fall short in matching simulations with results from a physical holographic display. Our work addresses this mismatch by learning the holographic light transport in holographic displays. Using a camera and a holographic display, we capture the image reconstructions of optimized holograms that rely on ideal simulations to generate a dataset. Inspired by the ideal simulations, we learn a complex-valued convolution kernel that can propagate given holograms to captured photographs in our dataset. Our method can dramatically improve simulation accuracy and image quality in holographic displays while paving the way for physically informed learning approaches.
Topics & Concepts
HolographyOpticsHolographic displayComputer scienceConvolution (computer science)Image qualityDigital holographyArtificial intelligencePhysicsKernel (algebra)Computer visionMatching (statistics)Ideal (ethics)Holographic interferometryDigital holographic microscopyIterative reconstructionGlobal illuminationPhysical opticsImage processingStray lightQuality (philosophy)Computer-generated holographyAdvanced Optical Imaging TechnologiesDigital Holography and MicroscopyAdvanced Vision and Imaging