Abstract: In one example, an apparatus includes a shoe having a sole with at least a portion of foam replaced with a composite polymeric foam, at least one probe disposed in the composite polymeric foam, a voltage detector coupled to the probe that detects voltage data generated by the composite polymeric foam, and a transformation module that converts voltage data generated by the composite polymeric foam in response to deformation events into GRF, acceleration, or pressure data. In another example, a method includes receiving voltage data produced by composite polymeric foam, the composite polymeric foam providing support and padding in the sole of a shoe, converting the voltage data to force data, comparing the force data to a profile, and transmitting, when the force data fails to fall within a threshold of the profile, a feedback signal to a physical feedback device, the feedback signal indicating a difference with the profile.

Abstract: Some embodiments may provide a vehicle-based ventilation system for an accessory. The system may include a source of climate-controlled airflow, a duct, and an accessory climate sensor. The duct may include a source-end and an accessory-end. The source end may be configured to couple to the source of the climate-controlled airflow. The accessory-end may be configured to couple to an accessory. The accessory climate sensor may be positioned within the accessory.

Abstract: Particular embodiments may provide an airflow control system including a movable air duct, a lower vent, and an upper vent. The movable air duct may be configured to move with adjustments to a steering column. The lower vent may be adjustable in connection with the steering column. The lower vent may include a curvature that directs a lower airflow stream from the movable air duct. The upper vent may be above the lower vent. The upper vent may direct an upper airflow stream. The upper airflow stream may intersect the lower airflow stream to form a merged airflow stream.

Abstract: An HVAC system includes a blower housing including a blower inlet and a blower outlet, the blower housing having a plastic skeleton structure. The HVAC system further includes a foam blower liner disposed within and coupled to the blower housing.

Abstract: An HVAC system for a vehicle includes a housing, an evaporator disposed in the housing, and a heater disposed in the housing. The HVAC system further includes a bypass opening defined between an upper end of the evaporator and an upper end of the heater and an intermediate chamber defined by the evaporator, the heater, the housing, and the bypass opening. The HVAC system further includes an upper outlet passage configured to direct air from the HVAC system into a passenger compartment of a vehicle. The evaporator is configured to output a first stream of air into the intermediate chamber and the HVAC system is configured to operate in a first operating condition in which a first portion of the first stream of air will pass through the heater and a second portion of the first stream will bypass the heater by passing from the intermediate chamber through the bypass opening and into the upper outlet passage.

Abstract: An HVAC system includes a blower housing including a blower inlet and a blower outlet, the blower housing having a plastic skeleton structure. The HVAC system further includes a foam blower liner disposed within and coupled to the blower housing.

Abstract: An HVAC system for a vehicle includes a housing, an evaporator disposed in the housing, and a heater disposed in the housing. The HVAC system further includes a bypass opening defined between an upper end of the evaporator and an upper end of the heater and an intermediate chamber defined by the evaporator, the heater, the housing, and the bypass opening. The HVAC system further includes an upper outlet passage configured to direct air from the HVAC system into a passenger compartment of a vehicle. The evaporator is configured to output a first stream of air into the intermediate chamber and the HVAC system is configured to operate in a first operating condition in which a first portion of the first stream of air will pass through the heater and a second portion of the first stream will bypass the heater by passing from the intermediate chamber through the bypass opening and into the upper outlet passage.

Abstract: In one embodiment, a method includes receiving at a thread scheduler data that indicates a first thread is to execute next a particular instruction path in software to access a particular portion of a shared computational resource. The thread scheduler determines whether a different second thread is exclusively eligible to execute the particular instruction path on any processor of a set of one or more processors to access the particular portion of the shared computational resource. If so, then the thread scheduler prevents the first thread from executing any instruction from the particular instruction path on any processor of the set of one or more processors. This enables several threads of the same software to share a resource without obtaining locks on the resource or holding a lock on a resource while a thread is not running.

Abstract: In one embodiment, a method includes receiving at a thread scheduler data that indicates a first thread is to execute next a particular instruction path in software to access a particular portion of a shared computational resource. The thread scheduler determines whether a different second thread is exclusively eligible to execute the particular instruction path on any processor of a set of one or more processors to access the particular portion of the shared computational resource. If so, then the thread scheduler prevents the first thread from executing any instruction from the particular instruction path on any processor of the set of one or more processors. This enables several threads of the same software to share a resource without obtaining locks on the resource or holding a lock on a resource while a thread is not running.