Apple Inc.

Tim Cherna

Nikhil M Bhatt

Alexander David Wallace

Eric Hanson

Mark Lee Kawano

Joshua Fagans

Russell Mackay Reid

Jean-Michel Berthoud

Jeff Moore

James David Batson

Sean Matthew Gies

Methods, systems, and apparatus, including computer programs encoded on computer storage media, are described for combining the crop function with zoom, pan and straighten functions as part of a single cropping environment, such that a user can select a portion of an image for cropping, apply zoom, pan and straighten transformations to the selected image portion and then crop the transformed image portion in a single utility. In one aspect, the methods include the actions of receiving user input defining a crop region within a displayed image. The methods also include the actions of displaying a user interface including a cropping panel that is configured to display a subset of the image corresponding to the defined crop region. Further, the methods include the actions of receiving user input requesting to perform at least one of a zoom, rotate or translate operation on the crop region displayed in the cropping panel.

Multifunctional environment for image cropping

Methods and systems are disclosed for identifying waypoints. In one aspect, a method performed by an application executing on a computer system, includes receiving at least two sets of digital images including a first set of digital images for which image acquisition times are known and a second set of digital images for which image acquisition times and image acquisition locations are known. The method further includes overlaying waypoint identifiers over a map image. The waypoint identifiers correspond to geographical coordinates and to time acquisitions of one or more of the second set of images. Furthermore, the method includes receiving from a user associated with the application a waypoint selection of the overlaid waypoint identifiers and one or more image selections of the first set of images. In response to receiving the selections, the method includes associating the selected ones of the first set of images with the selected waypoint, and generating a trip-descriptor including the first set of images associated with the overlaid waypoint identifiers.

Associating digital images with waypoints

Methods and systems are disclosed for associating non-geographical information to track paths. Among other things, meaningful labels for the track paths can be formulated. In one aspect, a method performed by an application executing on a computer system includes receiving a set of images taken during a trip, a corresponding set of acquisition times, and a track path of the trip. The method further contains identifying landmarks near the received track path. Furthermore, the method includes receiving from a human user of the application a landmark selection from the identified landmarks and one or more image selections from the received set of images. In response to receiving the human user's selections, the method can associate the one or more selected images with the selected landmark. Additionally, the method included matching the received set of images to the received track path based on the association.

Reverse geo-coding for track path

A computing device includes a memory configured to store position data and images. The computing device also includes a processor configured to execute instructions to perform a method that includes receiving position data that represents the positions of a position tracking device over a period of time. The position data includes a group of position coordinates that represent a location. The method also includes receiving images that include a group of images associated with the location. The method also includes aligning the group of position coordinates that represent the location and the group of images associated with the location. The method also includes presenting a representation of the alignment of the group of position coordinates and the group of images.

Tracking device movement and captured images

A computing device includes a memory configured to store images and associated timing data. The computing device also includes a processor configured to execute instructions to perform a method that includes producing a graphical path on a digital map that represents positions associated with the images. The positions are estimated from the timing data associated with the images. The method also includes modifying the graphical path based upon data that represents user provided adjustments to the estimated positions of the images. The method also includes presenting the modified path.

Modifying graphical paths

Methods, systems, and apparatus are presented for associating a point of interest with a captured image. In one aspect, metadata associated with a digital image can be accessed, the metadata identifying an image capture location. Further, a depth of field corresponding to the digital image can be determined and one or more points of interest can be identified that are located within the determined depth of field. Additionally, one of the one or more identified points of interest can be selected as an image subject and the metadata associated with the digital image can be edited to include data identifying the selected point of interest.

Landmark identification using metadata

A computer-implemented method for detecting a red-eye artifact that includes receiving an image depicting a first eye and a second eye corresponding to a human face, and coordinates corresponding to a location of the first eye and the second eye in the image; calculating a distance between the first eye and the second eye using the received coordinates; obtaining a skin tone sample from the image based on the calculated distance and the received coordinates; generating a skin tone color region in a color space based on the obtained skin tone sample; classifying a pixel corresponding to the first eye as a red-eye pixel by comparing the pixel with the generated skin tone color region and a predetermined red-eye color region; and storing an indication of the classifying relative to the pixel.

Red-eye reduction using facial detection

A method performed by one or more computers programmed to enhance images, the method including receiving an image and a face region associated with the image, sampling pixels from the face region, generating, based on the sampled pixels, a face-region evaluation, identifying a modification to the image based on the face-region evaluation, and modifying the image in accordance with the identified modification.

Enhancing images using known characteristics of image subjects

A synchronization manager synchronizes multiple media streams. The synchronization manager queries a media stream output device associated with each media stream to synchronize, and in response receives the current device clock time of each device, each device's next available media stream output time, and each device's delta between available media stream output times. The synchronization manager uses this timing information to determine an earliest available media stream output time common to each media stream output device, and synchronizes the output of the media streams by providing each stream to its associated output device at the earliest available common output time.

Media stream synchronization using device and host clocks

A system which utilizes the processing capabilities of the graphics processing unit (GPU) in the graphics controller. Each frame of each video stream or track is decoded into a buffer and a color profile indicating parameters of the color space of the video source is associated with the buffer. The compositor uses the color profile to convert each buffer to a defined working color space from the source color space. This conversion and rendering of the buffer is performed using the fragment processing capabilities of the GPU. The compositor then instructs the GPU to convert the buffer to the final color space of the display device and the frame is rendered to the frame buffer for final display. Each of these operations is done in real time for each frame of the video.

Growing community of inventors

San Francisco, CA, United States of America

Tim Cherna