Abstract: The present disclosure relates to a detection system for detecting a failure in a fluid path of a fluid system, the detection system including: at least one pipe comprising a pipe wall which defines a fluid path for the transfer of fluid and at least one electrically conductive element extending along the at least one pipe and which forms an electrical signal path for a first electrical signal which indicates a state of the at least one pipe; and, an electrical terminal electrically connected to the at least one electrically conductive element so that the first electrical signal is transmitted to the electrical terminal via the electrical signal path.

Abstract: Methods and systems are disclosed for executing a voice command based on and association of the voice command and one or more identifiers. Audio data associated with a content asset may be received at a user device such as a voice activated device. A voice command may also be received at the user device. One or more identifiers associated with the audio data, such as a content or product identifier, may be determined. The identifiers may be determined based on playback of the content asset or may be received in response to a request generated by the user device. One or more operations capable of being executed by the user device may be determined and initiated or executed by the user device based on the one or more identifiers and the received voice command.

Abstract: Methods and systems are disclosed for executing a voice command based on and association of the voice command and one or more identifiers. Audio data associated with a content asset may be received at a user device such as a voice activated device. A voice command may also be received at the user device. One or more identifiers associated with the audio data, such as a content or product identifier, may be determined. The identifiers may be determined based on playback of the content asset or may be received in response to a request generated by the user device. One or more operations capable of being executed by the user device may be determined and initiated or executed by the user device based on the one or more identifiers and the received voice command.

Abstract: According to certain embodiments, the present disclosure includes a method for generating a knowledge graph of clinical information for use as a reference model to semantically represent relevant information from clinical encounters. In certain embodiments, the method includes representing a clinical concern as a module of the knowledge graph. In some examples, the method includes associating at least one section node with the module, wherein each section node of the at least one section node corresponds to a clinical concept relevant to the clinical concern and associating at least one topic node with the at least one section node, wherein each topic node of the at least one topic node corresponds to a clinical topic relevant to the clinical concept. And, in certain embodiments the method includes outputting the knowledge graph of clinical information to semantically represent the relevant information from a clinical encounter associated with the clinical concern.

Abstract: An emergency event detection and response system detects an occurrence of an event associated with a user and initiates an emergency response flow. A user may be associated with a wearable device and have in his home a base station and portable or stationary wireless devices containing sensors capable of detecting an emergency event. The emergency event may be detected based on voice or non-voice audio input from the user, data monitoring by the wearable device, base station, and/or portable or stationary wireless device, or by physical button press. Responsive to determining that an emergency event has occurred, the system triggers an emergency response flow by notifying a call center and contacting one or more caregivers associated with the user. Caregivers may access a response system application to receive updates regarding the detected emergency and to contact the user and/or a provider associated with the call center.

Abstract: An emergency event detection and response system detects an occurrence of an event associated with a user and initiates an emergency response flow. A user may be associated with a wearable device and have in his home a base station and portable or stationary wireless devices containing sensors capable of detecting an emergency event. The emergency event may be detected based on voice or non-voice audio input from the user, data monitoring by the wearable device, base station, and/or portable or stationary wireless device, or by physical button press. Responsive to determining that an emergency event has occurred, the system triggers an emergency response flow by notifying a call center and contacting one or more caregivers associated with the user. Caregivers may access a response system application to receive updates regarding the detected emergency and to contact the user and/or a provider associated with the call center.

Abstract: According to certain embodiments, the present disclosure includes a method for generating a knowledge graph of clinical information for use as a reference model to semantically represent relevant information from clinical encounters. In certain embodiments, the method includes representing a clinical concern as a module of the knowledge graph. In some examples, the method includes associating at least one section node with the module, wherein each section node of the at least one section node corresponds to a clinical concept relevant to the clinical concern and associating at least one topic node with the at least one section node, wherein each topic node of the at least one topic node corresponds to a clinical topic relevant to the clinical concept. And, in certain embodiments the method includes outputting the knowledge graph of clinical information to semantically represent the relevant information from a clinical encounter associated with the clinical concern.

Abstract: Methods and systems are disclosed for executing a voice command based on and association of the voice command and one or more identifiers. Audio data associated with a content asset may be received at a user device such as a voice activated device. A voice command may also be received at the user device. One or more identifiers associated with the audio data, such as a content or product identifier, may be determined. The identifiers may be determined based on playback of the content asset or may be received in response to a request generated by the user device. One or more operations capable of being executed by the user device may be determined and initiated or executed by the user device based on the one or more identifiers and the received voice command.

Abstract: Methods and systems are disclosed for executing a voice command based on and association of the voice command and one or more identifiers. Audio data associated with a content asset may be received at a user device such as a voice activated device. A voice command may also be received at the user device. One or more identifiers associated with the audio data, such as a content or product identifier, may be determined. The identifiers may be determined based on playback of the content asset or may be received in response to a request generated by the user device. One or more operations capable of being executed by the user device may be determined and initiated or executed by the user device based on the one or more identifiers and the received voice command.

Abstract: A traction battery thermal management system is provided. The thermal management system includes a battery loop for regulating the traction battery temperature. A motor loop is provided for regulating a motor temperature. The thermal management system also includes a radiator. A radiator valve selectively controls fluid flow through the radiator. A battery valve selectively couples the battery loop and the motor loops. The battery loop, the motor loop are in fluid communication and arranged in parallel to be cooled by the radiator.

Abstract: An emergency event detection and response system detects an occurrence of an event associated with a user and initiates an emergency response flow. A user may be associated with a wearable device and have in his home a base station and portable or stationary wireless devices containing sensors capable of detecting an emergency event. The emergency event may be detected based on voice or non-voice audio input from the user, data monitoring by the wearable device, base station, and/or portable or stationary wireless device, or by physical button press. Responsive to determining that an emergency event has occurred, the system triggers an emergency response flow by notifying a call center and contacting one or more caregivers associated with the user. Caregivers may access a response system application to receive updates regarding the detected emergency and to contact the user and/or a provider associated with the call center.

Abstract: An emergency event detection and response system detects an occurrence of an event associated with a user and initiates an emergency response flow. A user may be associated with a wearable device and have in his home a base station and portable or stationary wireless devices containing sensors capable of detecting an emergency event. The emergency event may be detected based on voice or non-voice audio input from the user, data monitoring by the wearable device, base station, and/or portable or stationary wireless device, or by physical button press. Responsive to determining that an emergency event has occurred, the system triggers an emergency response flow by notifying a call center and contacting one or more caregivers associated with the user. Caregivers may access a response system application to receive updates regarding the detected emergency and to contact the user and/or a provider associated with the call center.

Abstract: Methods and systems are provided for exhaust heat recovery and EGR cooling via a single heat exchanger. In one example, a method may include selecting a specific mode of operation of an engine exhaust system with the heat exchanger based on engine operating conditions and an estimated fuel efficacy factor. The fuel efficiency factor may take into account fuel efficacy benefits from EGR and exhaust heat recovery.

Abstract: An emergency event detection and response system detects an occurrence of an event associated with a user and initiates an emergency response flow. A user may be associated with a wearable device and have in his home a base station and portable or stationary wireless devices containing sensors capable of detecting an emergency event. The emergency event may be detected based on voice or non-voice audio input from the user, data monitoring by the wearable device, base station, and/or portable or stationary wireless device, or by physical button press. Responsive to determining that an emergency event has occurred, the system triggers an emergency response flow by notifying a call center and contacting one or more caregivers associated with the user. Caregivers may access a response system application to receive updates regarding the detected emergency and to contact the user and/or a provider associated with the call center.

Abstract: Methods and systems are provided for a single heat exchanger coupled to a main exhaust passage upstream of one or more exhaust catalysts or in between two exhaust catalysts for exhaust heat recovery and exhaust gas recirculation (EGR) cooling. In one example, in the pre-catalyst configuration of the heat exchanger, during exhaust heat recovery, a portion of exhaust may be routed via the heat exchanger while the remaining portion of exhaust may be routed directly to the exhaust catalysts, and fueling may be adjusted on a per-cylinder basis to maintain a target exhaust air-fuel-ratio at the exhaust catalysts.

Abstract: A system for optimizing power consumption of a vehicle includes a cooling fan, an active grille shutter (AGS) system, and a plurality of heat exchangers. At least one controller is provided including a processor including computer-executable instructions for selecting a pairing of a cooling fan speed and AGS system position to provide a required airflow to a dominant one of the plurality of heat exchangers, or to an entire vehicle component system, at a minimum total combined cooling fan and AGS system power consumption. Methods for optimizing vehicle power consumption are described utilizing the system.

Abstract: An exemplary electrified vehicle includes a passenger cabin, and an infrared heater configured to radiate heat for conditioning the passenger cabin. The vehicle further includes a heating device configured to heat airflow for conditioning the passenger cabin. Further, the vehicle includes a controller configured to selectively command a change in an output of the heating device based on an amount of power available to the infrared heater.