Abstract: Techniques for virtual production based on production element pose and pose error correction are disclosed. In an example method, a computing system receives physical and virtual pose data of multiple display elements arranged in a display assembly. The computing system identifies a first subset of the multiple display elements within a field of view of a camera device. The computing system excludes a second subset of the multiple display elements from transformation calculation, in which the second subset is outside the field of view of the camera device. The computing system generates a localized transformation using only the physical and virtual pose data associated with the first subset. The computing system applies the localized transformation to thereby correct pose errors for the first subset of the multiple display elements. The computing system renders content on the first subset of the multiple display elements using the corrected poses.

Abstract: Systems, apparatus, and methods for rendering content based on production element pose are disclosed. In an example, motion capture data of a production element is received, the production element moving from a first physical pose to a second physical pose. The motion capture data is processed to determine the coordinates of the second physical pose. A transformation of the second physical pose of the production element to a virtual pose of the production element is generated. A virtual model of the production element is updated, the virtual model comprising the virtual pose of the production element. The content is rendered based on the updated virtual model.

Abstract: Systems, apparatus, and methods for rendering content based on production element pose are disclosed. In an example, motion capture data of a production element is received, the production element moving from a first physical pose to a second physical pose. The motion capture data is processed to determine the coordinates of the second physical pose. A transformation of the second physical pose of the production element to a virtual pose of the production element is generated. A virtual model of the production element is updated, the virtual model comprising the virtual pose of the production element. The content is rendered based on the updated virtual model.

Abstract: Systems, apparatus, and methods for rendering content based on display assembly pose are disclosed. In an example, motion capture data of a display of a plurality of displays is received, the display moving from a first physical pose to a second physical pose. The motion capture data is processed to determine the coordinates of the second physical pose. A transformation of the second physical pose of the display to a virtual pose of the display is generated. A virtual model of the plurality of displays is updated, the virtual model comprising the virtual pose of the display. The content is rendered on the updated virtual model.

Abstract: Systems, apparatus, and methods for rendering content based on display assembly pose are disclosed. In an example, motion capture data of a display of a plurality of displays is received, the display moving from a first physical pose to a second physical pose. The motion capture data is processed to determine the coordinates of the second physical pose. A transformation of the second physical pose of the display to a virtual pose of the display is generated. A virtual model of the plurality of displays is updated, the virtual model comprising the virtual pose of the display. The content is rendered on the updated virtual model.