In this paper we present an efficient image based rendering system that renders multiple frames per second on a PC. Our method performs warping from an intermediate representation called a layered depth image (LDI). An LDI is a view of the scene from a single input camera view, but with multiple

We propose a new method to quickly and accurately predict 3D positions of body joints from a single depth image, using no temporal information. We take an object recognition approach, designing an intermediate body parts representation that maps the difficult pose estimation problem into a simpler

Purpose: To describe the pathoanatomy of diabetic choroidopathy (DC) in pre-diagnosed diabetic retinopathy (DR) cases and to provide angiographic and optical evidence for DC using indocyanine green angiography (ICGA) and enhanced depth imaging spectral-domain optical coherence tomography (EDI SD

Gabor depth imaging using a new adaptive partitioning algorithm

Abstract—A layered depth image (LDI) is a new popular repre-sentation and rendering method for objects with complex geome-tries. Similar to a two-dimensional (2-D) image, the LDI consists of an array of pixels. However, unlike the 2-D image, an LDI pixel has depth information

In this chapter we present a stereo panoramic depth imaging system, which builds depth panoramas from multiperspective panoramas while using only one standard camera. The basic system is mosaic-based, which means that we use a single standard rotating camera and assemble the captured images in a

1 What is this thing? It’s a Perceived Depth Image (PDI). It looks like a random mess, but it isn’t. It’s a three dimensional plot of the graph of sin |z|, z = x + iy, in the range −10 ≤ x, y ≤ 10. To see it, stare straight through the page, as if the journal you are holding weren’t there, and let

In this paper we present a novel and efficient depthimage warping technique based on a piece-wise linear approximation of the depth-image as a textured and simplified triangle mesh. We describe the application of a hierarchical triangulation method to generate triangulated depthmeshes efficiently

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ABSTRACT: Several field examples of Kirchhoff depth imaging, tomography, and wavefield-extrapolation imaging are presented. These examples illustrate how compensation for anelastic attenuation, multiple attenuation, tomography, and wavefield extrapolation can be used in a complementary fashion