Abstract: Methods and systems for simulating light interaction and physical materials in a graphical user interface (GUI) of a resource-constrained device are provided. Simulating physical materials, such as glass and metal, in a GUI can allow a user to feel more natural in interacting with the GUI. The user experience can be further enhanced if the simulated physical materials in the GUI can interact with the device's environment in a manner similar to how the actual physical materials would interact. However, continually polling various sensors can be resource-intensive, especially for resource-constrained mobile devices. Accordingly, a mobile device can intelligently determine whether to begin a reduced detail mode, and then render user interface objects in the reduced detail mode to conserve resources.

Abstract: Methods and systems for simulating light interaction and physical materials in a graphical user interface (GUI) of a resource-constrained device are provided. Simulating physical materials, such as glass and metal, in a GUI can allow a user to feel more natural in interacting with the GUI. The user experience can be further enhanced if the simulated physical materials in the GUI can interact with the device's environment in a manner similar to how the actual physical materials would interact. However, continually polling various sensors can be resource-intensive, especially for resource-constrained mobile devices. Accordingly, a mobile device can intelligently determine whether to begin a reduced detail mode, and then render user interface objects in the reduced detail mode to conserve resources.

Abstract: A camera capable of capturing still images and video and included in a portable media device can be controlled remotely using an accessory. The accessory can register with the PMD to automatically receive notifications whenever there is a change in the camera state. The camera states can include mode, operation status, and configuration settings. The accessory can send instructions to a camera application that interfaces with the camera to control the camera. The accessory can remotely activate the camera, change camera mode, and send instructions to operate the camera. The accessory and the PMD can concurrently control the camera. The PMD can send the captured still images and recorded video to the accessory for preview and receive instructions from the accessory on disposition of the still images and the video.

Abstract: A camera capable of capturing still images and video and included in a portable media device can be controlled remotely using an accessory. The accessory can register with the PMD to automatically receive notifications whenever there is a change in the camera state. The camera states can include mode, operation status, and configuration settings. The accessory can send instructions to a camera application that interfaces with the camera to control the camera. The accessory can remotely activate the camera, change camera mode, and send instructions to operate the camera. The accessory and the PMD can concurrently control the camera. The PMD can send the captured still images and recorded video to the accessory for preview and receive instructions from the accessory on disposition of the still images and the video.

Abstract: A camera capable of capturing still images and video and included in a portable media device can be controlled remotely using an accessory. The accessory can register with the PMD to automatically receive notifications whenever there is a change in the camera state. The camera states can include mode, operation status, and configuration settings. The accessory can send instructions to a camera application that interfaces with the camera to control the camera. The accessory can remotely activate the camera, change camera mode, and send instructions to operate the camera. The accessory and the PMD can concurrently control the camera. The PMD can send the captured still images and recorded video to the accessory for preview and receive instructions from the accessory on disposition of the still images and the video.

Abstract: Methods and systems for simulating light interaction and physical materials in a graphical user interface (GUI) of a resource-constrained device are provided. Simulating physical materials, such as glass and metal, in a GUI can allow a user to feel more natural in interacting with the GUI. The user experience can be further enhanced if the simulated physical materials in the GUI can interact with the device's environment in a manner similar to how the actual physical materials would interact. However, continually polling various sensors can be resource-intensive, especially for resource-constrained mobile devices. Accordingly, a mobile device can intelligently determine whether to begin a reduced detail mode, and then render user interface objects in the reduced detail mode to conserve resources.

Abstract: A technique for managing memory allocation in an electronic device is provided. In one embodiment, a method includes loading a memory allocation strategy for an application executed by a processor of a device, and requesting memory for the application from various memory locations in accordance with the memory allocation strategy. In one embodiment, the device includes multiple sets of contiguous memory blocks and a memory heap, memory may be requested from at least one of these memory locations, and memory may then be allocated to the application in response to the request. In some embodiments, the memory allocation strategy may be stored in the device prior to execution of the application. Various other methods, devices, and manufactures are also provided.

Abstract: Systems and methods of displaying a user interface in a portable electronic device are provided. In one embodiment, a method includes creating a first clone and a second clone of a user interface element. The method also includes displaying the first clone of the user interface element on a display of the portable electronic device, modifying the second clone of the user interface element, and transitioning between the first clone of the user interface element and the second clone of the user interface element. In another embodiment, a method includes displaying an initial user interface element and displaying a transition between the initial user interface element and a final user interface element, wherein the transition is selected based on a classification of the initial user interface element and a classification of the final user interface element.

Abstract: A camera capable of capturing still images and video and included in a portable media device can be controlled remotely using an accessory. The accessory can register with the PMD to automatically receive notifications whenever there is a change in the camera state. The camera states can include mode, operation status, and configuration settings. The accessory can send instructions to a camera application that interfaces with the camera to control the camera. The accessory can remotely activate the camera, change camera mode, and send instructions to operate the camera. The accessory and the PMD can concurrently control the camera. The PMD can send the captured still images and recorded video to the accessory for preview and receive instructions from the accessory on disposition of the still images and the video.

Abstract: A technique for managing memory allocation in an electronic device is provided. In one embodiment, a method includes loading a memory allocation strategy for an application executed by a processor of a device, and requesting memory for the application from various memory locations in accordance with the memory allocation strategy. In one embodiment, the device includes multiple sets of contiguous memory blocks and a memory heap, memory may be requested from at least one of these memory locations, and memory may then be allocated to the application in response to the request. In some embodiments, the memory allocation strategy may be stored in the device prior to execution of the application. Various other methods, devices, and manufactures are also provided.

Abstract: Systems and methods of displaying a user interface in a portable electronic device are provided. In one embodiment, a method includes creating a first clone and a second clone of a user interface element. The method also includes displaying the first clone of the user interface element on a display of the portable electronic device, modifying the second clone of the user interface element, and transitioning between the first clone of the user interface element and the second clone of the user interface element. In another embodiment, a method includes displaying an initial user interface element and displaying a transition between the initial user interface element and a final user interface element, wherein the transition is selected based on a classification of the initial user interface element and a classification of the final user interface element.