Abstract: The invention relates to method and system for automatically generating and labelling reference images. In some embodiments, the method includes tracking a plurality of highlighted objects in a set of input images along with audio data associated with the plurality of highlighted objects. The method further includes cropping each of the plurality of highlighted objects from each of the set of images based on tracking, contemporaneously capturing an audio clip associated with each of the plurality of highlighted objects from the audio data based on tracking, and labelling each of the plurality of highlighted objects based on text data generated from the audio clip associated with each of the plurality of objects to generate a labelled reference image.

Abstract: A soluble cascara powder product with improved compositional and sensory characteristics, for use in food and beverage products is provided, as well as methods of preparing the soluble cascara powder. The soluble cascara powder may be a blend of powders derived from coffee cherry fruit to create a highly palatable and novel soluble cascara powder product, and one with desirable compositional characteristics such as phenolic content and bioactive compound content. Example methods of processing of the coffee fruit to prepare the soluble cascara powder may also result in soluble cascara powder that will result in advantageously low turbidity levels when used in beverage compositions.

Abstract: Mechanisms, methods, and systems are provided for establishing safe-driving quotients. Output of one or more sensors oriented toward an exterior of a vehicle (such as front-facing cameras) may be used to detect events. Output of one or more sensors oriented toward an interior of the vehicle (such as driver-facing cameras) may be captured, then analyzed to determine behavioral results corresponding with the events. Safe-driving quotients may then be established based on a ratio of the behavioral results to the events.

Abstract: A system, method, apparatus, and article of manufacture provide the ability to configuring out-of-home streaming between a mobile device and a set top box (STB). Internet connectivity establishment (ICE) agents, installed on the mobile device and the STB, determine telemetry information via communication with network address translator (NAT) servers. Communication agents, installed on the mobile device and the STB, translate the telemetry information into a format acceptable to a communication server. The communication server exchanges the telemetry information between the mobile device and the STB and maintains a persistent connection with the STB. The communication agents connect the mobile device to the same communication server that the STB is persistently connected to. Media content is streamed directly from the STB to the mobile device if a direct connection between the STB and mobile device is established and via the NAT servers if a direct connection cannot be established.

Abstract: A system, a method and a computer-readable medium are disclosed for generating an infrared code from an envelope waveform of an infrared signal on a computing device. An envelope waveform is created by reflections of the original infrared signal between the emitter of the infrared signal and the receiver of the computing device. The computing device generates an intermediate signal from the received IR signal and then determines a digital envelope waveform from the intermediate signal. The computing device queries a database storing known pairs of digital envelope waveforms and IR codes and receives an IR code.

Abstract: A codeset identifier for an infrared codeset that is compatible with an electronic device can be determined without requiring the user to manually input information about the electronic device. The user points an infrared device that is configured to control the electronic device at a computing device and presses a button, which causes the infrared device to emit an infrared signal that encodes a command representing the button that was pressed. Because the infrared device is configured to control the electronic device, an infrared code associated with the emitted infrared signal is part of the codeset that controls the electronic device and can be used to identify other infrared codes that are also compatible with the electronic device. The computing device extracts the infrared code from the received infrared signal and sends a query based on the infrared code to a server, which accesses an association table to find the codeset identifier corresponding to the infrared code.

Abstract: A system, method, apparatus, and article of manufacture provide the ability to configuring out-of-home streaming between a mobile device and a set top box (STB). Internet connectivity establishment (ICE) agents, installed on the mobile device and the STB, determine telemetry information via communication with network address translator (NAT) servers. Communication agents, installed on the mobile device and the STB, translate the telemetry information into a format acceptable to a communication server. The communication server exchanges the telemetry information between the mobile device and the STB and maintains a persistent connection with the STB. The communication agents connect the mobile device to the same communication server that the STB is persistently connected to. Media content is streamed directly from the STB to the mobile device if a direct connection between the STB and mobile device is established and via the NAT servers if a direct connection cannot be established.

Abstract: A codeset identifier for an infrared codeset that is compatible with an electronic device can be determined without requiring the user to manually input information about the electronic device. The user points an infrared device that is configured to control the electronic device at a computing device and presses a button, which causes the infrared device to emit an infrared signal that encodes a command representing the button that was pressed. Because the infrared device is configured to control the electronic device, an infrared code associated with the emitted infrared signal is part of the codeset that controls the electronic device and can be used to identify other infrared codes that are also compatible with the electronic device. The computing device extracts the infrared code from the received infrared signal and sends a query based on the infrared code to a server, which accesses an association table to find the codeset identifier corresponding to the infrared code.

Abstract: An addressing format, or intelligent Uniform Resource Locator (IURL), is used to direct users amongst content across disparate sources. Information about media content items available across the disparate sources is managed by a server which relates the media content items and the different sources from which a media content item may be accessed in a database. When a user desires to share media content, an iURL referencing the media content is generated for the user to share. When a given user selects the iURL, information about the content sources available to the given user in conjunction with the content referenced by the iURL are processed to determine a configuration of the content sources available to the given user (which often differs from the user having shared the content) to effect playback the media content.

Abstract: A system, a method and a computer-readable medium are disclosed for generating an infrared code from an envelope waveform of an infrared signal on a computing device. An envelope waveform is created by reflections of the original infrared signal between the emitter of the infrared signal and the receiver of the computing device. The computing device generates an intermediate signal from the received IR signal and then determines a digital envelope waveform from the intermediate signal. The computing device queries a database storing known pairs of digital envelope waveforms and IR codes and receives an IR code.

Abstract: A system and a method are disclosed for compensating for discontinuous clock signals, default-high data buses, when generating and receiving an infrared signal on a mobile device with minimal hardware. The system can compensate for clock signals that are discontinuous using an effective bitrate in place of a nominal bitrate when processing signals. The effective bitrate can be determined by determining the length of a break in the clock signal that is discontinuous and adjusting the nominal bitrate based on the length and recurrence frequency of the break in the clock signal. Additionally, processed signals transferred on default-high data buses can be inverted to ensure the correct IR signal is output or received.

Abstract: A system and a method are disclosed for generating an infrared signal on a mobile device. The infrared signal is generated on a mobile device by generating a bitstream based on information to be transmitted as an infrared signal. The bitstream is modulated and output on a bus to an infrared-emitting diode. The bitstream is processed in a software layer configured on the computing device, enabling the computing device to generate and process signals without additional hardware configured on the device.

Abstract: A system and a method are disclosed for receiving an infrared signal on a mobile device. The mobile device receives an infrared signal by creating an intermediate bitstream based on the received infrared signal. The intermediate bitstream is trimmed, downsampled, and demodulated in the time domain. The intermediate bitstream is then converted into a raw infrared code. The received bitstream is processed in a software layer, enabling the mobile device to process infrared signals without the use of additional hardware configured on the mobile device.

Abstract: A system and a method are disclosed for generating an infrared signal on a mobile device. The infrared signal is generated on a mobile device by generating a bitstream based on information to be transmitted as an infrared signal. The bitstream is modulated and output on a bus to an infrared-emitting diode. The bitstream is processed in a software layer configured on the computing device, enabling the computing device to generate and process signals without additional hardware configured on the device.

Abstract: A system and a method are disclosed for receiving an infrared signal on a mobile device. The mobile device receives an infrared signal by creating an intermediate bitstream based on the received infrared signal. The intermediate bitstream is trimmed, downsampled, and demodulated in the time domain. The intermediate bitstream is then converted into a raw infrared code. The received bitstream is processed in a software layer, enabling the mobile device to process infrared signals without the use of additional hardware configured on the mobile device.

Abstract: Methods and systems are provided for providers on a health care team to engage with a patient before, during and after an acute care event. The methods include providing an interactive checklist of action items to the patient to be completed by the user before, during or after the acute care event and providing an interface for communication and notification among the plurality of providers and the patient about one or more of the action items on the interactive checklist.

Abstract: A system and a method are disclosed for generating an infrared signal on a mobile device. The infrared signal is generated on a mobile device by generating a bitstream based on information to be transmitted as an infrared signal. The bitstream is modulated and output on a bus to an infrared-emitting diode. The bitstream is processed in a software layer configured on the computing device, enabling the computing device to generate and process signals without additional hardware configured on the device.

Abstract: A system and a method are disclosed for receiving an infrared signal on a mobile device. The mobile device receives an infrared signal by creating an intermediate bitstream based on the received infrared signal. The intermediate bitstream is trimmed, downsampled, and demodulated in the time domain. The intermediate bitstream is then converted into a raw infrared code. The received bitstream is processed in a software layer, enabling the mobile device to process infrared signals without the use of additional hardware configured on the mobile device.

Abstract: A network architecture enables the data flow of packets to be dynamically modified depending upon the operational needs of the packet being processed. This allows for separate processing of control and data path operations, as well as providing a mechanism for functions that require high computational support, such as encryption functions for example, to be offloaded onto processing devices that can support such functions. Other, less computationally intensive or lower priority functions can be forwarded to PEs having lower operation capacity. With such an arrangement, a dynamic mechanism is provided for customizing the data path of a network device to accommodate the computation needs of any application.

Abstract: A network architecture enables the data flow of packets to be dynamically modified depending upon the operational needs of the packet being processed. This allows for separate processing of control and data path operations, as well as providing a mechanism for functions that require high computational support, such as encryption functions for example, to be offloaded onto processing devices that can support such functions. Other, less computationally intensive or lower priority functions can be forwarded to PEs having lower operation capacity. With such an arrangement, a dynamic mechanism is provided for customizing the data path of a network device to accommodate the computation needs of any application.