Abstract: In one implementation, a system includes a multi-core processor and an optical display with a plurality of hogels. Each hogel is configured to radiate light in a plurality of directions, with controllable intensities in each of the plurality of directions. The multi-core processor is coupled to the optical display and configured to control the hogels. The multi-core processor includes at least two cores, an on-chip memory, and a master processor in a single integrated circuit package. The master processor may be a general-purpose on-chip processor, such as a core in the multi-core processor, that is used to coordinated operations of the other cores. Each of the cores is configured to receive hogel data and to generate signals for a corresponding subset of the plurality of hogels.

Abstract: Pre-sensitization techniques can be used in conjunction with holographic recording materials to allow high quality holographic stereograms to be recorded in those holographic recording materials using pulsed lasers. Various hologram production system hardware and software designs for use with pulsed lasers can be used with the pre-sensitization techniques.

Abstract: Methods and systems for rendering hogels, including notifying one or more rendering nodes that all rendering is complete in response to determining that each of the one or more rendering nodes completes rendering of corresponding one or more subsets of hogel data from 3D data, the rendering nodes being configured to convert the 3D data to the one or more subsets of hogel data.

Abstract: A display module having one or more outer walls configured to house an array of optical component stacks, where the one or more outer walls are configured to support a transparent support structure spanning the array of optical component stacks, and where an upper portion of the one or more outer walls in contact with the transparent support structure is tapered.

Abstract: Methods and systems for generating a holographic light field, the method including converting provided hogel data into optical beam oscillator data, and generating a plurality of light beams using a plurality of optical beam oscillators. The optical beam oscillators are configured to receive the optical beam oscillator data and to oscillate in corresponding oscillating patterns to generate a light field such as a representation of a 3D image. The optical beam oscillator data is adapted to match the oscillating patterns of the optical beam oscillators, and the optical beam oscillators are configured to generate at least subsets of the light beams serially in time.

Abstract: Methods and systems for displaying 3D imaging data, including providing 3D imaging sensor data, processing the 3D imaging sensor data, the processing being configured to modify the 3D imaging sensor data into a modified format suitable for a hogel light modulator, and providing the modified 3D imaging data to the hogel light modulator.

Abstract: User input is facilitated through gestural inputs with displayed two and three-dimensional objects using a holographic device and film that displays a static, digitally generated, three-dimensional, autostereoscopic, full-parallax, real image and a digital projector that displays dynamic images. A system includes computer-detectable tags mounted on a user-wearable glove, and on a base plate that holds the holographic device. The system determines the locations of the tags, and calculates a location of a feature of the image based on the locations of the tags. The system also determines the location, pose, and gestural motion of the input device based on the location of the tags. The system further calculates a distance and direction between the input device and the feature of the image.

Abstract: Methods and systems for duplicating holograms, including illuminating a master hologram using a first portion of a beam to generate a data beam, recording a copy hologram using a second portion of the beam and the data beam, where the master hologram and the copy hologram are arranged such that the second portion of the beam avoids the master hologram.

Abstract: Hologram recording devices and techniques can be employed to produce wide field-of-view holograms. A lens can be used to couple an object beam into a holographic recording material without substantially changing the angle of incidence of the object beam. When displayed, images from holograms recorded using this technique can have a field-of-view greater than that of the object beam. One or more aspheric reflective surfaces can be used to couple an object beam into a holographic recording material at relatively steep angles.

Abstract: Methods and systems for optimizing hologram duplication, including illuminating a first master hologram to generate a first data beam modulated by the first master hologram, recording a first copy hologram using the first data beam and a reference beam, analyzing a light field generated by the first copy hologram, and generating a second master hologram to be used in recording a second copy hologram according to the light field generated and a desired light field.

Abstract: Methods and devices are described for creating and printing holographic stereograms and holographic optical elements using computer rendered images or using computer processed images. Various embodiments of the system may utilize interchangeable band-limited diffusers and reference-beam masking plates.

Abstract: Methods and systems for rendering 3D scenes, including rendering a portion of the 3D scene to a corresponding pixel to determine a pixel value, determining a designated-next multisample of the corresponding pixel, and storing the pixel value at the designated-next multisample in response to determining that a depth value of the portion of the 3D scene is less than a depth value stored at the designated-next multisample.

Abstract: A display module having one or more outer walls configured to house an array of optical component stacks, where the one or more outer walls are configured to support a transparent support structure spanning the array of optical component stacks, and where an upper portion of the one or more outer walls in contact with the transparent support structure is tapered.

Abstract: A display module having an optical component stack array, where each optical component stack within the optical component stack array comprises a delivery device and a light delivery system, where the delivery device is offset by a first amount from an optical axis associated with the optical component stack, and where the light delivery system is offset by a second amount from the optical axis.

Abstract: Methods and systems for determining lighting values, including providing a set of points around a 3D geometry, the set of points being independent of the 3D geometry, determining a depth map of the 3D geometry with respect to a view point by projecting the 3D geometry according to the view point, and determining visibility values for the set of points by comparing the set of points to the depth map of the 3D geometry.

Abstract: Methods and devices for creating and printing variable size and variable resolution holographic stereograms and holographic optical elements can generate one-step, full-color, full-parallax holographic stereograms using a reference beam-steering system that allows a reference beam to expose a holographic recording material from different angles. One method includes selecting, for each of a plurality of viewing zones, a respective scene; generating a computer model of each scene; and determining, for each of a plurality of elemental holograms for a holographic stereogram, viewing zone mask volumes. For each elemental hologram and for each viewing zone mask volume, an image is rendered of the selected scene enclosed by the viewing zone mask volume. The rendering is based at least in part on the computer model of the selected scene. After the rendering is complete for each of the viewing zone mask volumes, a composite rendered image is generated for the elemental holograms.

Abstract: An apparatus is disclosed that includes a transparent support structure having an upper surface and a lower surface. The lower surface is configured to be supported by one or more outer walls of a display module. The upper surface is configured to support imaging optics associated with the display module. The upper surface coincides with an imaging plane associated with the display module. The thickness of the transparent support structure is selected to permit light entering the lower surface proximate to the one or more outer walls to pass through to the upper surface and reach the outer edge of the one or more outer walls without being substantially blocked.

Abstract: Holographic stereograms and holographic optical elements are printed using computer rendered images of three-dimensional computer models or using computer processed images. A coherent beam is split into object and reference beams that interfere with each other at an elemental hologram on a holographic recording material. A voxel-control lens placed in the path of the object beam and in close proximity to the holographic recording material can be used to control the resolution of a holographic stereogram. Interchangable band-limited diffusers and reference-beam masking plates can assist exposure of the elemental hologram and avoid exposing portions of the holographic recording material that are not part of the elemental hologram.

Abstract: Methods and systems for processing graphics primitives, including determining whether a graphics primitive is, at least partially, within an epsilon view volume, the epsilon view volume being a substantially small volume about a view point; and adding one or more additional graphics primitives in response to determining that the graphics primitive is, at least partially, in the epsilon view volume, the one or more additional graphics primitives being an approximation of the graphics primitive.

Abstract: Methods and systems for processing graphics primitives, including point-reflecting a graphics primitive about a point to generate a reflected graphics primitive, the reflected graphics primitive maintaining a depth information of the graphics primitive.