Abstract: An autonomous driving controller includes a plurality of parallel processors operating on common input data. Each of the plurality of parallel processors includes a general processor, a security processor subsystem (SCS), and a safety subsystem (SMS). The general processors, the SCSs, and the SMSs of the plurality of parallel processors are configured to first, boot the plurality of SCSs from ROM second, boot the plurality of SMSs of the plurality of parallel processors from RAM or ROM, and, third, boot the plurality of general processors of the plurality of parallel processors from RAM. Between booting of the SCSs and the SMSs, at least one of the plurality of SCSs may load SMS boot code into the RAM that is dedicated to the plurality of SMSs.

Abstract: A system includes a processor configured to determine an applicable pre-defined vehicle system state set, defining preferred vehicle system states when a driver is away from a vehicle. The processor is also configured to determine a driver exit-event while a vehicle state in the state set varies from a preferred setting and notify a driver mobile device of the variance, responsive to the exit event.

Abstract: A system includes a processor configured to determine an applicable pre-defined vehicle system state set, defining preferred vehicle system states when a driver is away from a vehicle. The processor is also configured to determine a driver exit-event while a vehicle state in the state set varies from a preferred setting and notify a driver mobile device of the variance, responsive to the exit event.

Abstract: A system includes a processor configured to determine an applicable pre-defined vehicle system state set, defining preferred vehicle system states when a driver is away from a vehicle. The processor is also configured to determine a driver exit-event while a vehicle state in the state set varies from a preferred setting and notify a driver mobile device of the variance, responsive to the exit event.

Abstract: A fluid heat exchanger has an impeller assembly with first and second impeller bodies mated together, each having a substantially circular shape and at least one opening therethrough. Impeller vanes extend axially from the first impeller body and away from the second impeller body. Impeller vanes extend axially from the second impeller body away from the first impeller body. A thermoelectric module is disposed between the first impeller body and the second impeller body. Heat sinks are connected to each side of the thermoelectric module and extend through at least one opening in the first and second impeller bodies, where the impeller vanes are configured to move a fluid through the heat sinks during rotation of the first and second impeller bodies. Electrically-conductive windings disposed in the impeller assembly are configured to deliver induced electric current to the thermoelectric module(s).

Abstract: A vehicle includes one or more controllers, programmed to responsive to detecting an accident event and an unavailability of a telematics controller, generate an emergency message to broadcast by a radio-frequency identification (RFID) transceiver, and responsive to detecting a digital entity within a predetermined range from the vehicle, send the emergency message to the digital entity.

Abstract: A system includes a processor configured to determine an applicable pre-defined vehicle system state set, defining preferred vehicle system states when a driver is away from a vehicle. The processor is also configured to determine a driver exit-event while a vehicle state in the state set varies from a preferred setting and notify a driver mobile device of the variance, responsive to the exit event.

Abstract: A fluid heat exchanger has an impeller assembly with first and second impeller bodies mated together, each having a substantially circular shape and at least one opening therethrough. Impeller vanes extend axially from the first impeller body and away from the second impeller body. Impeller vanes extend axially from the second impeller body away from the first impeller body. A thermoelectric module is disposed between the first impeller body and the second impeller body. Heat sinks are connected to each side of the thermoelectric module and extend through at least one opening in the first and second impeller bodies, where the impeller vanes are configured to move a fluid through the heat sinks during rotation of the first and second impeller bodies. Electrically-conductive windings disposed in the impeller assembly are configured to deliver induced electric current to the thermoelectric module(s).

Abstract: A fluid heat exchanger has an impeller assembly with first and second impeller bodies mated together, each having a substantially circular shape and at least one opening therethrough. Impeller vanes extend axially from the first impeller body and away from the second impeller body. Impeller vanes extend axially from the second impeller body away from the first impeller body. A thermoelectric module is disposed between the first impeller body and the second impeller body. Heat sinks are connected to each side of the thermoelectric module and extend through at least one opening in the first and second impeller bodies, where the impeller vanes are configured to move a fluid through the heat sinks during rotation of the first and second impeller bodies. Electrically-conductive windings disposed in the impeller assembly are configured to deliver induced electric current to the thermoelectric module(s).

Abstract: A fluid heat exchanger has an impeller assembly with first and second impeller bodies mated together, each having a substantially circular shape and at least one opening therethrough. Impeller vanes extend transversely from the first impeller body and away from the second impeller body. Impeller vanes extend transversely from the second impeller body away from the first impeller body. A thermoelectric module is disposed between the first impeller body and the second impeller body. Heat sinks are connected to each side of the thermoelectric module and extend through at least one opening in the first and second impeller bodies, where the impeller vanes are configured to move a fluid through the heat sinks during rotation of the first and second impeller bodies. Electrically-conductive windings disposed in the impeller assembly are configured to deliver induced electric current to the one or more thermoelectric modules.

Abstract: Computer program products, methods, systems, apparatus, and computing entities are provided for sessions with participants and providers. For example, in one embodiment, a provider can interact with multiple participants to conduct interactive treatment sessions. Further, a participant can interact with multiple providers to conduct interactive treatment sessions. For the interactive treatment sessions, motion data and video data of the participant can be simultaneously displayed to the provider.

Abstract: Computer-implemented integrated health systems and methods related to organs of the human body and to cancer. For example, a method and a system can be configured for choosing a strategy for an organ condition that maximizes a life score.

Abstract: Computer program products, methods, systems, apparatus, and computing entities are provided for sessions with participants and providers. For example, in one embodiment, a provider can interact with multiple participants to conduct interactive treatment sessions. Further, a participant can interact with multiple providers to conduct interactive treatment sessions. For the interactive treatment sessions, motion data and video data of the participant can be simultaneously displayed to the provider.

Abstract: A fluid heat exchanger has an impeller assembly with first and second impeller bodies mated together, each having a substantially circular shape and at least one opening therethrough. Impeller vanes extend axially from the first impeller body and away from the second impeller body. Impeller vanes extend axially from the second impeller body away from the first impeller body. A thermoelectric module is disposed between the first impeller body and the second impeller body. Heat sinks are connected to each side of the thermoelectric module and extend through at least one opening in the first and second impeller bodies, where the impeller vanes are configured to move a fluid through the heat sinks during rotation of the first and second impeller bodies. Electrically-conductive windings disposed in the impeller assembly are configured to deliver induced electric current to the thermoelectric module(s).

Abstract: A fluid heat exchanger has an impeller assembly with first and second impeller bodies mated together, each having a substantially circular shape and at least one opening therethrough. Impeller vanes extend transversely from the first impeller body and away from the second impeller body. Impeller vanes extend transversely from the second impeller body away from the first impeller body. A thermoelectric module is disposed between the first impeller body and the second impeller body. Heat sinks are connected to each side of the thermoelectric module and extend through at least one opening in the first and second impeller bodies, where the impeller vanes are configured to move a fluid through the heat sinks during rotation of the first and second impeller bodies. Electrically-conductive windings disposed in the impeller assembly are configured to deliver induced electric current to the one or more thermoelectric modules.

Abstract: Computer program products, methods, systems, apparatus, and computing entities are provided for sessions with participants and providers. For example, in one embodiment, a provider can interact with multiple participants to conduct interactive treatment sessions. Further, a participant can interact with multiple providers to conduct interactive treatment sessions. For the interactive treatment sessions, motion data and video data of the participant can be simultaneously displayed to the provider.

Abstract: Computer-implemented integrated health systems and methods related to organs of the human body and to cancer. For example, a method and a system can be configured for choosing a strategy for an organ condition that maximizes a life score.

Abstract: A thermoelectric module capable of minimizing thermally and physically induced stress includes a pair of substrates having a plurality of electrically conductive contacts disposed on opposing faces, a plurality of P-type and N-type thermoelectric elements interposed between the pair of substrates forming a thermoelectric element circuit, and one or more of a stress minimizing structural element interposed between the pair of substrates where the stress minimizing structural element has a first surface fixed to one of the pair of substrates and a second surface fixed to the other of the pair of substrates in locations between the pair of substrates that minimize the effects of physical and thermal stresses on the plurality of P-type and N-type thermoelectric elements.

Abstract: The present invention provides methods and systems for dynamic screening of disease in a subject. The information provided by the methods and systems can be used for many purposes including disease diagnosis and screening, disease treatment, and education the subject of life choices.

Abstract: Computer-implemented integrated health systems and methods related to organs of the human body and to cancer. For example, a method and a system can be configured for choosing a strategy for an organ condition that maximizes a life score.