Abstract: A virtual camera and lens system in a three dimensional computer graphic modeling environment is set using a nominal focal length and a focus distance. A true focal length is calculated. An optical axis object that represents the optical axis of the virtual camera and lens system is created in the three dimensional computer graphic modeling environment. An object is attached to the optical axis at a location that visualizes the setting of the virtual camera and lens system as determined from the true focal length. The focal length of the virtual camera and lens system is set to the calculated true focal length. The focus distance and f-stop may be determined from near and far focus points.

Abstract: A virtual camera and lens system in a three dimensional computer graphic modeling environment is set using a nominal focal length and a focus distance. A true focal length is calculated. An optical axis object that represents the optical axis of the virtual camera and lens system is created in the three dimensional computer graphic modeling environment. An object is attached to the optical axis at a location that visualizes the setting of the virtual camera and lens system as determined from the true focal length. The focal length of the virtual camera and lens system is set to the calculated true focal length. The focus distance and f-stop may be determined from near and far focus points.

Abstract: A virtual camera and lens system in a three dimensional computer graphic modeling environment is set using a nominal focal length and a focus distance. A true focal length is calculated. An optical axis object that represents the optical axis of the virtual camera and lens system is created in the three dimensional computer graphic modeling environment. An object is attached to the optical axis at a location that visualizes the setting of the virtual camera and lens system as determined from the true focal length. The focal length of the virtual camera and lens system is set to the calculated true focal length. The focus distance and f-stop may be determined from near and far focus points.

Abstract: A system and process for replacing unwanted geometry (for example, tracking markers) in a recorded scene with new geometry. A 3-D matchmove process creates a 3-D map. The 3-D map is used to determine the 3-D coordinates of objects within the recorded scene. The 3-D coordinates of the tracking markers (and/or other objects) and the replacement portions are converted by a conversion means to 2D screen space coordinates of pixels that make up both the tracking markers (and/or other objects) and the replacement portions. A list comprising the 2D screen space pixel coordinates is then exported from the conversion means into a compositing application which reads the list of 2D pixel coordinates and makes the desired replacement automatically from frame-to-frame. Tracking markers (and/or other unwanted objects) are replaced with replacement portions with suitable characteristics.

Abstract: A virtual camera and lens system in a three dimensional computer graphic modeling environment is set using a nominal focal length and a focus distance. A true focal length is calculated. An optical axis object that represents the optical axis of the virtual camera and lens system is created in the three dimensional computer graphic modeling environment. An object is attached to the optical axis at a location that visualizes the setting of the virtual camera and lens system as determined from the true focal length. The focal length of the virtual camera and lens system is set to the calculated true focal length. The focus distance and f-stop may be determined from near and far focus points.

Abstract: A system and process for replacing unwanted geometry (for example, tracking markers) in a recorded scene with new geometry. A 3-D matchmove process creates a 3-D map. The 3-D map is used to determine the 3-D coordinates of objects within the recorded scene. The 3-D coordinates of the tracking markers (and/or other objects) and the replacement portions are converted by a conversion means to 2D screen space coordinates of pixels that make up both the tracking markers (and/or other objects) and the replacement portions. A list comprising the 2D screen space pixel coordinates is then exported from the conversion means into a compositing application which reads the list of 2D pixel coordinates and makes the desired replacement automatically from frame-to-frame. Tracking markers (and/or other unwanted objects) are replaced with replacement portions with suitable characteristics.

Abstract: A system and process for replacing unwanted geometry (for example, tracking markers) in a recorded scene with new geometry. A 3-D matchmove process creates a 3-D map. The 3-D map is used to determine the 3-D coordinates of objects within the recorded scene. The 3-D coordinates of the tracking markers (and/or other objects) and the replacement portions are converted by a conversion means to 2D screen space coordinates of pixels that make up both the tracking markers (and/or other objects) and the replacement portions. A list comprising the 2D screen space pixel coordinates is then exported from the conversion means into a compositing application which reads the list of 2D pixel coordinates and makes the desired replacement automatically from frame-to-frame. Tracking markers (and/or other unwanted objects) are replaced with replacement portions with suitable characteristics.

Abstract: A system and process for replacing unwanted geometry (for example, tracking markers) in a recorded scene with new geometry. A 3-D matchmove process creates a 3-D map. The 3-D map is used to determine the 3-D coordinates of objects within the recorded scene. The 3-D coordinates of the tracking markers (and/or other objects) and the replacement portions are converted by a conversion means to 2D screen space coordinates of pixels that make up both the tracking markers (and/or other objects) and the replacement portions. A list comprising the 2D screen space pixel coordinates is then exported from the conversion means into a compositing application which reads the list of 2D pixel coordinates and makes the desired replacement automatically from frame-to-frame. Tracking markers (and/or other unwanted objects) are replaced with replacement portions with suitable characteristics.