Abstract: An underbody structure for supporting an adjustable seating assembly for a motor vehicle comprises a rotatable turntable operably coupled to an underbody of the motor vehicle and a brace operably coupled with the rotatable turntable and the underbody of the motor vehicle and extending substantially across the rotatable turntable, wherein the adjustable seating assembly is operably coupled to the brace and the underbody of the motor vehicle.

Abstract: A vehicle includes a body and a door moveable relative to the body between the open and closed position. The vehicle includes a seat fixed relative to the door. The seat includes a seat back and a seat bottom. The body has a longitudinal axis, and the seat bottom extends from the seat back toward the longitudinal axis along a cross-vehicle direction perpendicular to the longitudinal axis when the door is in the closed position.

Abstract: A vehicle includes first and second roof rails spaced from each other, and a forward member and rearward member connected to each other and each extending from the first roof rail to the second roof rail. The forward member includes a beam and a finger. The finger is on the first roof rail and extends from the beam away from the rearward member.

Abstract: A method includes processing near infrared spectroscopy (NIR) spectra and pure spectra, to obtain a preprocessed NIR spectra, wherein the preprocessed NIR spectra includes any one or any combination of a training data of a plurality of subjects, a calibration data of a test subject and a validation data of the test subject, extracting a dominant feature set from the preprocessed NIR spectra, wherein the dominant feature set includes at least one preprocessed NIR spectrum corresponding to each of the training data, the calibration data and the validation data, and determining a blood glucose concentration of the test subject, using the training data of the plurality of subjects and based on the extracted dominant feature set.

Abstract: Systems, apparatus, and methods are disclosed for controlling internet-connected devices having embedded systems with dedicated functions. A lightweight software that protects the internet-connected devices from security breaches and security threat is installed on the internet-connected devices. The lightweight software sends network traffic data to a management server via one or more rendezvous servers. The management server analyzes the network traffic data and generates a security update. The security update is posted on a blockchain. The lightweight software obtains the security update in the form of a blockchain transaction.

Abstract: A turntable assembly for a vehicle includes a base that couples to a support structure, a network of rails that includes lateral rails, longitudinal rails, and diagonal rails, and a locking mechanism that is coupled to the base and is actuatable between engaged and disengaged positions with the support structure.

Abstract: A vehicle includes first and second roof rails spaced from each other, and a forward member and rearward member connected to each other and each extending from the first roof rail to the second roof rail. The forward member includes a beam and a finger. The finger is on the first roof rail and extends from the beam away from the rearward member.

Abstract: A vehicle includes a roof, a floor spaced from the roof, and sides spaced from each other in a cross-vehicle direction. The sides extend from the roof to the floor. Front seats and rear seats are supported by the floor. A beam is spaced from the roof and the floor and extends between the front and rear seats from one side to the other side in the cross-vehicle direction.

Abstract: A vehicle includes a rail, a bumper, and an impact absorber. The rail defines a keyed orifice. The impact absorber has a primary tube secured to the rail and bumper. The impact absorber also has a secondary tube that is rotatably secured and concentric to the primary tube. The secondary tube has a radially extending protrusion. The secondary tube is configured to slide into the orifice during an impact when the protrusion and orifice are aligned and to engage the rail during an impact when the protrusion and orifice are not aligned.

Abstract: An underbody structure for supporting an adjustable seating assembly for a motor vehicle comprises a rotatable turntable operably coupled to an underbody of the motor vehicle and a brace operably coupled with the rotatable turntable and the underbody of the motor vehicle and extending substantially across the rotatable turntable, wherein the adjustable seating assembly is operably coupled to the brace and the underbody of the motor vehicle.

Abstract: A seating assembly includes a seat and one or more slide rails that slidably engage an underside of the seat and permit longitudinal movement of the seat along the slide rail. The seating assembly further includes one or more load-dissipating assemblies operably coupled to an underside of the slide rail.

Abstract: A vehicle is provided. The vehicle may include at least one crush can, a controller and a pump. The crush can may include front and rear chambers. The controller may receive a first signal indicative of a loading condition generated at the time of an impact, and the pump may displace a nano-porous liquid in response to a second signal from the controller into at least one of the front and rear chambers of the crush can.

Abstract: In various embodiments, a sketching application generates models of three-dimensional (3D) objects. In operation, the sketching application generates a first virtual geometry based on a first free-form gesture. Subsequently, the sketching application generates a second virtual geometry based on a first constrained gesture associated with a two-dimensional (2D) physical surface. The sketching application then generates a model of a 3D object based on the first virtual geometry and the second virtual geometry. Advantageously, because the sketching application generates virtual geometries based on a combination of free-form and constrained gestures, the sketching application efficiently generates accurate models of detailed 3D objects.

Abstract: A vehicle structure including a roof beam and a first pillar and a second pillar each fixed relative to the roof beam. The first pillar and the second pillar are spaced from each other defining a door opening extending from the first pillar to the second pillar. A front door and a rear door are both disposed in the door opening. A panel is pivotally connected to the roof beam and pivotable relative to the roof beam to a lowered position. The panel, in the lowered position, extends across the door opening from the first pillar to the second pillar.

Abstract: A vehicle is provided. The vehicle may include at least one crush can, a controller and a pump. The crush can may include front and rear chambers. The controller may receive a first signal indicative of a loading condition generated at the time of an impact, and the pump may displace a nano-porous liquid in response to a second signal from the controller into at least one of the front and rear chambers of the crush can.

Abstract: A vehicle structure including a first rocker, a second rocker, and a reinforcement. The first rocker is spaced from the second rocker. The reinforcement has a forward beam and a rearward beam spaced from each other. The reinforcement includes a first side member and a second side member each extending from the forward beam to the rearward beam. The first side member abuts the first rocker, and the second side member abuts the second rocker.

Abstract: A rear collision guard for a vehicle having a battery disposed on an underbody wall that is supported by longitudinal rails. The guard comprises a pair of sidewalls that attach to the longitudinal rails through the underbody wall and extend longitudinally on right and left lateral sides of the battery. A channel is attached to a back-end of each of the sidewalls and is spaced behind the battery. An airbag is attached to a rearwardly facing surface of the channel and is operatively connected to an inflation system that inflates the airbag to expand rearwardly in a rear end collision.

Abstract: A seating assembly includes a seat and one or more slide rails that slidably engage an underside of the seat and permit longitudinal movement of the seat along the slide rail. The seating assembly further includes one or more load-dissipating assemblies operably coupled to an underside of the slide rail.

Abstract: A vehicle B-pillar assembly is provided. The vehicle B-pillar assembly includes a steel T-bracket and a B-pillar outer assembly. The steel T-bracket includes an upper portion secured to a roof rail and a lower portion extending perpendicular therefrom and below a beltline. The B-pillar outer assembly includes an upper carbon fiber portion extending from the roof rail to a location above the beltline and a lower steel portion extending from a vehicle rocker to a location above the beltline and secured to the lower portion of the T-bracket. The beltline may be defined by an axis extending between a shotgun joint on a vehicle A-pillar and a latch reinforcement on a vehicle C-pillar. The beltline may extend fore and aft along the vehicle and through a substantially central region of the B-pillar assembly.

Abstract: An autonomous vehicle can include a front seat facing rearward, and a rear seat facing forward. This provides a common foot or leg area between the seats that face each other. The vehicle includes a body that has a pair of opposing B-pillars. A support beam extends through the common leg area, between the front and rear seats, and mounts to the B-pillars. The support beam provides direct structural support to the B-pillars. A luggage compartment is coupled to the support beam and extends between the B-pillars. The luggage compartment has access openings that face forward and rearward, allowing the forward and rearward passengers to store luggage.