Disney Enterprises, Inc.

Henry Allen Driskill

Sean Jenkins

Donald Adolph Lusinsky

John T Murrah

Brent Burley

Robert M Neuman

Christian Eisenacher

Andrew Selle

Gregory Nichols

Joseph W Longson

Lewis Nathaniel Siegel

Jonathan Geibel

Charles Tappan

Jeffrey M Jordan

Scott Lane Burris

Kevin Christopher Constantine

Dmitriy Pinskiy

Ernest Petti

Adrienne Othon

Colin Eckart

Patrick Dalton

Brett W Achorn

There is provided a method for ray-mediated illumination control. The method includes identifying a first activation region corresponding to one of an origin and a destination of a ray, where the ray is described by a ray data associated with the ray. The method further includes identifying a second activation region corresponding to the other one of the origin and the destination of the ray, interpreting an illumination rule for the ray based on at least one of the first activation region and the second activation region, and modifying an illumination in one of the first activation region and the second activation region based on the illumination rule and the ray data.

Ray-mediated illumination control

A request from a client to perform a task is received. The client has a predetermined limit of compute resources. The task is dispatched from a batch scheduler to a compute node as a non-speculative task if a quantity of compute resources is available at the compute node to process the task, and the quantity of compute resources in addition to a total quantity of compute resources being utilized by the client is less than or equal to the predetermined limit, such that the non-speculative task is processed without being preempted by an additional task requested by an additional client. The task is dispatched, from the batch scheduler to the compute node, as a speculative task if the quantity of compute resources is available to process the task, and the quantity of compute resources in addition to the total quantity of compute resources is greater than the predetermined limit.

Batch scheduler management of speculative and non-speculative tasks based on conditions of tasks and compute resources

A method for performing stereo composition using multiple camera pairs. The method includes positioning first and second pairs of virtual cameras for imaging an animated scene. The method includes, with the first and second pairs of the cameras, obtaining 3D data for each camera for the animated scene. Then, a blending region is selected by defining a first boundary surface for the first pair of the cameras and a second boundary surface, spaced a distance apart from the first boundary surface, for the second pair of the cameras, with the blending region being the space between the first and second boundary surfaces. The method includes, with a blending module or function, combining the 3D data from a number of consequent cameras. The blending module monotonically increases the stereoscopic disparity function in a viewing direction and combines the 3D data in a continuous manner, e.g., to insure C1 continuity.

Stereo composition based on multiple camera rigs

Objects are modeled and rendered using multiple surfaces to provide attributes used in rendering. In some embodiments, a reference surface for an object is defined, e.g., using conventional modeling techniques. One or more auxiliary surfaces are associated with portions of the reference surface. Some of the surface attributes (e.g., color, surface normal, texture, lighting) are associated with the reference surface, while other attributes (e.g., transparency) are associated with the cards. To render an image, a ray associated with a pixel is traced to its intersection with the reference surface and to its intersection with one of the auxiliary surfaces. The attributes associated with the reference surface are determined based on the intersection point of the ray with the reference surface, and the attributes associated with the auxiliary surface are determined based on the intersection point of the ray with the auxiliary surface.

Surface shading of computer-generated object using multiple surfaces

A computer system comprises a memory configured to store a geometric description of an object, wherein the memory is configured to store a first set of parameters associated with a first artistic look, and wherein the memory is configured to store a second set of parameters associated with a second artistic look, and a processor coupled to the memory, wherein the processor is configured to determine a first set of rendered data in response to the first set of parameters and to the geometric description of the object, wherein the processor is configured to determine a second set of rendered data in response to the second set of parameters and to the geometric description of the object, and wherein the processor is configured to determine a visual representation for the object in response to the first set of rendered data and in response to the second set of rendered data.

Multiple artistic look rendering methods and apparatus

Growing community of inventors

Valencia, CA, United States of America

Henry Allen Driskill