Abstract: A system, method, and computer program are provided for receiving face models based on face nodal points. In use, a real-time face model is received, wherein the real-time face model includes one or more face nodal points. Real-time face nodal points are received, including additional one or more face nodal points. The real-time face model is manipulated based on the real-time face nodal points.

Abstract: A system, method, and computer program product are provided for rendering a combined image. In use, two or more source images including at least one strobe image and at least one ambient image are loaded. A pixel-level correction is estimated for at least one of the two or more source images based on a pixel level correction function. At least one pixel of the two or more source images is color-corrected based on the pixel-level correction. A first blend weight associated with the two or more source images is initialized, and a first combined image from the two or more source images is rendered based on the color-correction and the first blend weight. Additional systems, methods, and computer program products are also presented.

Abstract: A system, method, and computer program product are provided for capturing digital images. In use, an ambient image comprising a plurality of ambient pixels and a flash image comprising a plurality of flash pixels is captured, via a camera module. Next, at least one de-noised pixel based on the ambient image is generated. Additionally, a resulting image is generated by combining the at least one de-noised pixel and a corresponding flash pixel. Additional systems, methods, and computer program products are also presented.

Abstract: A system and method are provided for capturing a flash image based on ambient and flash metering. In use, a first ambient condition is metered for a first ambient frame. Next, a first ambient capture time is determined based on the metering of the first ambient condition. Further, a first flash condition is metered for a first flash frame, and a first flash capture time is determined based on the metering of the first flash condition. Next, a first ambient frame is captured based on the first ambient capture time. After capturing the first ambient frame, a flash circuit is enabled during an active period and, a first flash frame is captured based on a combination of the first ambient capture time and the first flash capture time. Finally, a final image is generated based on the first ambient frame and the first flash frame.

Abstract: Traditional home-automation systems utilize a single hub for controlling secondary devices within a home. The techniques described herein, meanwhile, utilize multiple hubs within the environment and/or located remotely from the environment. For instance, an environment may include multiple electronic devices, each configured to control one or more secondary devices within the environment. In addition, a remote service may be configured to control one or more secondary devices within the environment. As such, each controlling device stores and executes an instance of a control engine, rather than relying on a single instance of a control engine located at a single controlling hub.

Abstract: A system and method are provided for optimizing histogram cumulative distribution function curves. In use, a first cumulative distribution function for a first histogram of a first pixel region of a first image is computed, and a first set of parameters for the first cumulative distribution function is extracted. A second cumulative distribution function for a second histogram of a second pixel region of the first image is computed, and a second set of parameters for the second cumulative distribution function is extracted. An interpolated cumulative distribution function comprising interpolated parameters calculated by interpolating between the first set of parameters and the second set of parameters is created. Additionally, a first equalized pixel in a second image based on a first input pixel in the first image and the interpolated cumulative distribution function is generated.

Abstract: This disclosure is directed to facilitating voice and video communication between users independent of a location or a device. A communication request can specify users, who may be identified and located in their respective environments. For example, users can be identified and located using facial recognition imaging techniques and/or by monitoring a radio frequency (RF) signal associated with a device that is carried or worn by a user. After determining a location of a user, individual devices can be configured as a functionally grouped device to allow the users to communicate. For example, capabilities of a television, microphone, speaker, and imaging device can be combined to allow a video communication between users. Further, as a user moves around his or her environment, the location of the user can be tracked and additional functionally grouped devices can be provided for seamless communication.

Abstract: A system, method, and computer program product are provided for rendering a combined image. In use, two or more source images including at least one strobe image and at least one ambient image are loaded. A pixel-level correction is estimated for at least one of the two or more source images based on a pixel level correction function. At least one pixel of the two or more source images is color-corrected based on the pixel-level correction. A first blend weight associated with the two or more source images is initialized, and a first combined image from the two or more source images is rendered based on the color-correction and the first blend weight. Additional systems, methods, and computer program products are also presented.

Abstract: A system, method, and computer program product for displaying representative images is disclosed. In use, a first relationship between each of two or more representative images is configured. A view panel including the two or more representative images is displayed, and a notification indicating a new orientation for the view panel is received. In response to the new orientation, an in-place rotation animation for each of the two or more representative images of the view panel is generated, and the first relationship between each of the two or more representative images is maintained.

Abstract: A system, method, and computer program product are provided for generating an image stack. In use, one or more exposure parameters for an image stack are configured. Next, a capture command is received. Further, a pixel array is initialized within an image sensor of the camera module. Moreover, one or more ambient images are sampled within one or more corresponding analog storage planes. Next, if it is determined whether a strobe unit is enabled, where, if it is determined that the strobe unit is enabled, one or more strobe images are sampled within the corresponding analog storage planes.

Abstract: A system and method are provided for optimizing histogram cumulative distribution function curves. In use, a first image is received and divided into two or more pixel regions. For at least one of the two or more pixel regions, a first histogram is computed, and based on the first histogram, at least one cumulative distribution function is computed for the at least one of the two or more pixel regions. Next, based on the at least one cumulative distribution function, two or more curve fit coefficients are extracted and interpolated. Further, an interpolated cumulative distribution function is created based on the interpolation and the interpolated cumulative distribution function is applied to the at least one of the two or more pixel regions.

Abstract: A system, method, and computer program are provided for receiving face models based on face nodal points. In use, a real-time face model is received, wherein the real-time face model includes one or more face nodal points. Real-time face nodal points are received, including additional one or more face nodal points. The real-time face model is manipulated based on the real-time face nodal points.

Abstract: A system, method, and computer program product for displaying representative images within a collection viewer is disclosed. The method comprises displaying two or more representative images within a collection viewer at a first orientation, receiving an indication of a second orientation for the collection viewer, in response to the indication, displaying a clockwise animation sequence for each of the two or more representative images, and displaying the two or more representative images within a collection viewer at the second orientation.

Abstract: A system, method, and computer program product for displaying representative images is disclosed. In use, a first relationship between each of two or more representative images is configured. A subpanel including the two or more representative images is displayed, and a notification indicating a new orientation for the subpanel is received. In response to the new orientation, an in-place rotation animation for each of the two or more representative images of the subpanel is generated, and the first relationship between each of the two or more representative images is maintained.

Abstract: A system, method, and computer program product are provided for generating an image stack. In use, one or more exposure parameters for an image stack are configured. Next, a capture command is received. Further, a pixel array is initialized within an image sensor of the camera module. Moreover, one or more ambient images are sampled within one or more corresponding analog storage planes. Next, if it is determined whether a strobe unit is enabled, where, if it is determined that the strobe unit is enabled, one or more strobe images are sampled within the corresponding analog storage planes.

Abstract: A system, method, and computer program product are provided for generating a focus sweep to produce a focus stack. In use, an image is sampled as image data. Next, a first focus region is identified and a second focus region is identified. Next, first focus target information corresponding to the first focus region is determined and second focus target information corresponding to the second focus region is determined. Further, a focus is adjusted, based on the first focus target information and at least one first image is captured based on the first focus target information. Additionally, the focus is adjusted, based on the second focus target information and at least one second image is captured based on the second focus target information. Lastly, the at least one first image and the at least one second image are saved to an image stack. Additional systems, methods, and computer program products are also presented.

Abstract: A hub is configured to provide voice control without assistance from a remote system, which allows the hub to provide a user with the ability to control second devices in an environment by issuing voice commands, even when the hub is unable to communicate with the remote system over a wide area network (e.g., the Internet). The hub is also configured to execute rules without assistance from the remote system, which allows the hub to execute rules, even when the hub is unable to communicate with the remote system over a wide area network (e.g., the Internet).

Abstract: A system, method, and computer program are provided for receiving face models based on face data points. In use, a real-time face model is received, wherein the real-time face model includes one or more face data points. Real-time face data points are received, including additional one or more face data points. The real-time face model is manipulated based on the real-time face data points.

Abstract: A system, method, and computer program product for displaying representative images within a collection viewer is disclosed. The method comprises receiving an indication of a new orientation for the collection viewer, displaying a sequence of animation frames that depict an in-place rotation animation for the representative images, generating a rotation angle in a sequence of rotation angles, and displaying a rendered representative image for each of the two or more representative images by rendering the two or more representative images, wherein each rendered representative image is rotated according to the rotation angle.

Abstract: A system, method, and computer program product are provided for generating a focus sweep to produce a focus stack. In use, an image is sampled as image data. Next, a first focus region is identified and a second focus region is identified. Next, first focus target information corresponding to the first focus region is determined and second focus target information corresponding to the second focus region is determined. Further, a focus is adjusted, based on the first focus target information and at least one first image is captured based on the first focus target information. Additionally, the focus is adjusted, based on the second focus target information and at least one second image is captured based on the second focus target information. Lastly, the at least one first image and the at least one second image are saved to an image stack. Additional systems, methods, and computer program products are also presented.