Abstract: An electric vehicle braking system including a braking controller, a front braking system, and a rear braking system. The front braking system includes a front friction brake and a front regenerative braking system. The rear braking system includes a rear regenerative braking system and excludes a friction brake. The braking controller is configured to detect the front regenerative braking has reached a maximum force, detect additional deceleration is required, and, in response to detecting the front regenerative braking has reached the maximum force and detecting additional deceleration is required, apply the front friction brake.

Abstract: Embodiments include a method for pre-conditioning a cabin of a vehicle, the method comprising: collecting, by a climate control system of the vehicle, a set of current conditions related to the vehicle; sending, by the climate control system of the vehicle, to a cloud-based climate control service, the collected set of current conditions related to the vehicle; receiving, by the climate control system of the vehicle from the cloud-based climate control service, a set of pre-conditioning instructions defining operation of the climate control system of the vehicle without input from a user of the vehicle and before the user enters the vehicle; and controlling, by the climate control system of the vehicle, a Heating, Ventilating, and Air Conditioning (HVAC) system of the vehicle based on the received pre-conditioning instructions.

Abstract: Embodiments are directed to controlling a thermal environment inside a cabin of a vehicle by detecting a user in the cabin of the vehicle and retrieving a profile for the detected user. The profile can define settings for each of one or more features of the vehicle influencing the thermal environment inside the cabin of the vehicle. A set of current environmental conditions can be detected and a setting for each of the one or more features of the vehicle influencing the thermal environment inside the cabin of the vehicle can be determined based on the retrieved user profile and the detected set of current environmental conditions. The determined settings can then be applied to each of the one or more features of the vehicle influencing the thermal environment inside the cabin of the vehicle.

Abstract: Embodiments include a method for controlling a thermal environment inside of a vehicle, the method comprising: determining, by a processor of a climate control system of the vehicle, a plurality of factors influencing the thermal environment inside of the vehicle; calculating, by the processor of the climate control system, an equivalent temperature for each of a plurality of zones inside of the vehicle based on the plurality of factors, each equivalent temperature comprising an indication of a user's perception of the thermal environment at each of the plurality of zones inside of the vehicle; and controlling, by the processor of the climate control system, a Heating, Ventilation, and Air Conditioning (HVAC) system of the vehicle based on the calculated equivalent temperatures for each of the plurality of zones inside of the vehicle.

Abstract: Embodiments include a method for pre-conditioning a cabin of a vehicle, the method comprising: collecting, by a climate control system of the vehicle, a set of current conditions related to the vehicle; sending, by the climate control system of the vehicle, to a cloud-based climate control service, the collected set of current conditions related to the vehicle; receiving, by the climate control system of the vehicle from the cloud-based climate control service, a set of pre-conditioning instructions defining operation of the climate control system of the vehicle without input from a user of the vehicle and before the user enters the vehicle; and controlling, by the climate control system of the vehicle, a Heating, Ventilating, and Air Conditioning (HVAC) system of the vehicle based on the received pre-conditioning instructions.

Abstract: A brake system for a vehicle comprises a braking control unit comprising a first electronic control unit (ECU), a second ECU, and an actuator in communication with the first ECU and the second ECU. The ECUs each receive identical braking signals. On receiving a braking signal, the first ECU causes an actuator to activate a plunger to apply pressure to brake fluid in a hydraulic braking system, causing friction brakes to decelerate road wheels. The second ECU is configured to determine whether the first ECU is in a failure state. If the first ECU is in a failure state, the second ECU causes the actuator to activate a plunger to apply pressure to brake fluid in a hydraulic braking system, causing friction brakes to decelerate road wheels. The actuator and ECUs are disposed within a single unit.

Abstract: An electric vehicle braking system including a braking controller, a front braking system, and a rear braking system. The front braking system includes a front friction brake and a front regenerative braking system. The rear braking system includes a rear regenerative braking system and excludes a friction brake. The braking controller is configured to detect the front regenerative braking has reached a maximum force, detect additional deceleration is required, and, in response to detecting the front regenerative braking has reached the maximum force and detecting additional deceleration is required, apply the front friction brake.

Abstract: A vehicle seat includes a moveable structure supported by a fixed frame. The moveable structure includes a bottom portion configured to slide forward and rearward relative to the fixed frame, a back portion connected to the bottom portion and configured to both pivot and slide relative to the fixed frame, and an upper portion that, in some embodiments, is configured to rotate relative to the back portion.

Abstract: A vehicle seat includes a moveable structure supported by a fixed frame. The moveable structure includes a bottom portion configured to slide forward and rearward relative to the fixed frame, a back portion connected to the bottom portion and configured to both pivot and slide relative to the fixed frame, and an upper portion that, in some embodiments, is configured to rotate relative to the back portion.

Abstract: A vehicle seat includes a moveable structure supported by a fixed frame. The moveable structure includes a bottom portion configured to slide forward and rearward relative to the fixed frame, a back portion connected to the bottom portion and configured to both pivot and slide relative to the fixed frame, and an upper portion that, in some embodiments, is configured to rotate relative to the back portion.

Abstract: A large volume between a vehicle occupant and a vehicle structure positioned in front of the vehicle occupant can be filled by two airbags, the first arranged to deploy between the vehicle occupant and the vehicle structure and the second arranged to deploy between the first airbag and the vehicle structure. One or both of the airbags can be configured to deploy in a non-linear path that reduces the risk of injury to the vehicle occupant (particularly if the vehicle occupant is out of position) by the deployment itself.

Abstract: A vehicle seat includes a moveable structure supported by a fixed frame. The moveable structure includes a bottom portion configured to slide forward and rearward relative to the fixed frame, a back portion connected to the bottom portion and configured to both pivot and slide relative to the fixed frame, and an upper portion that, in some embodiments, is configured to rotate relative to the back portion.

Abstract: A vehicle canopy includes a vehicle body defining a roof opening. A roof is connected to the vehicle body across the roof opening. A headliner is supported by at least one of the vehicle body and the roof. A frame is supported by the vehicle body. A fabric partition is engaged with the frame and extends across the roof opening between the headliner and the roof. The fabric partition may assist in preventing occupant test dummies and/or other objects from moving through the roof opening.

Abstract: A vehicle assembly includes a side view mirror housing mountable to a vehicle exterior. A first LIDAR sensor is disposed in the side view mirror housing, has a first field of view, and is pointed in a first direction. A second LIDAR sensor is disposed in the side view mirror housing, has a second field of view, and is pointed in a second direction opposite the first direction. A camera is also disposed in the side view mirror housing, and the camera is spaced from the second LIDAR sensor. The camera has a third field of view and is pointed in the second direction.

Abstract: A vehicle canopy includes a vehicle body defining a roof opening. A roof is connected to the vehicle body across the roof opening. A headliner is supported by at least one of the vehicle body and the roof. A frame is supported by the vehicle body. A fabric partition is engaged with the frame and extends across the roof opening between the headliner and the roof. The fabric partition may assist in preventing occupant test dummies and/or other objects from moving through the roof opening.

Abstract: A vehicle canopy includes a vehicle body defining a roof opening. A roof is connected to the vehicle body across the roof opening. A headliner is supported by at least one of the vehicle body and the roof. A frame is supported by the vehicle body. A fabric partition is engaged with the frame and extends across the roof opening between the headliner and the roof. The fabric partition may assist in preventing occupant test dummies and/or other objects from moving through the roof opening.

Abstract: A vehicle roof frame includes an adhering structure having an adhesive carrier and an expanding structural adhesive coupled to at least a portion of an outer surface of the adhesive carrier. The expanding structural adhesive includes an installation state and a structural state, and the structural state has a larger volume than the installation state. The vehicle roof frame also includes a plurality of vehicle frame members that cooperate to form a frame joint and a joint cavity defined within the frame joint. The adhering structure is disposed within the joint cavity and the adhesive carrier and the expanding structural adhesive in the structural state substantially occupies the joint cavity and fixably couples the plurality of framing members such that the frame joint is free of supplemental mechanical connections proximate the joint cavity.

Abstract: A vehicle having a roof panel connectedly extending inwardly from a body structure and a tether connectedly extending between the roof panel and body structure. The vehicle may be a pickup truck having a side body structure with an aluminum alloy internal panel and roof panel connected together to make up a portion of a passenger compartment of a cab. The tether assembly may have a mounting component adhesively connected to the roof panel and a tether rope connected to the mounting component and to the internal panel. The mounting component of the tether assembly may be taped to the roof panel. The mounting component may have a heat curing adhesive. The connector of the tether assembly may be fastened to the side body structure using a threaded fastener. The heat curing adhesive may be activated with an oven to secure the mounting component to the roof panel.

Abstract: One of more cross members of a pickup bed structure include a hole in a flange in a location that is advantageous for installation of aftermarket accessories. The hole does not extend through the floorpan itself. When customers install aftermarket accessories that require holes through the floorpan, the customers are encouraged to align the new holes with the holes in the cross members. Consequently, loads applied by the aftermarket accessories are efficiently transferred to the frame rails.

Abstract: A fender for a vehicle includes a body portion and a seal portion. The body portion presents an outer surface and an inner surface facing opposite the outer surface. The seal portion extends from the inner surface and is flexible relative to the body portion. The body portion is formed of a first material and the seal portion is formed of a second material different than the first material. The seal portion is integral with the body portion.