Abstract: A vaneless ventilation system includes a rigid duct and a vent assembly in fluid communication with the duct. The vent assembly includes a rigid housing defining an outlet, a bendable duct disposed inside the rigid housing, a linkage assembly coupled to the bendable duct to allow deflection of the bendable duct upon movement of the linkage assembly, and an actuation mechanism coupled to the linkage assembly, wherein actuation of the actuation mechanism causes the linkage assembly to move, thereby deflecting the bendable duct.

Abstract: An inflatable control apparatus and deployment method thereof are provided. The apparatus includes an inflatable unit configured to receive and hold air pressure, a first rigid planar cap disposed at a first end of the inflatable unit, and a second rigid planar cap disposed at a second end of the inflatable unit.

Abstract: A drying system includes an assembly with a housing defining an interior space. The housing has an inner wall with a first opening through which the inner chamber communicates with the outer chamber. The housing has an outer wall with a second opening. A rechargeable desiccant and a door are disposed in the outer chamber, and the door is movable between a first position and a second position. The door at least partially seals the second opening and unseals the first opening when in the first position, and at least partially seals the first opening and unseals the second opening when in the second position. A shape memory alloy actuator moves the door between the first position and the second position in response to a change in temperature of the shape memory alloy.

Abstract: A fluid flow control device includes a resilient substrate translatable between a first flattened position and a second extended position, and an actuator attached to the resilient substrate. The actuator is configured for translating the resilient substrate from the first flattened position to the second extended position. The actuator is formed from a shape memory alloy transitionable between a first state and a second state in response to a change in temperature of the shape memory alloy. A fluid flow control system includes a rotor shield and the fluid flow control device attached to the rotor shield.

Abstract: A closure release device includes a housing fixedly attached to a closure and an actuating lever rotatably disposed on an axis of rotation on the housing. A crank lever is rotatably disposed on the axis of rotation. A coupling member is to selectively couple the actuating lever to the crank lever for rotation together. A shape memory alloy (SMA) actuator is to selectively cause the coupling member to selectively couple the actuating lever to the crank lever. The SMA actuator is electrically actuated. The crank lever is to connect to a latch to selectively release or engage the latch in response to a coupling state of the actuating lever with the crank lever and an actuation state of the actuating lever.

Abstract: A fabric assembly includes a knitted fabric and a filament. The knitted fabric is adapted to move between a stretched state extended along a direction of an applied force, and a relaxed state. The filament is disposed in the knitted fabric, and includes a plurality of loops longitudinally spaced apart from one-another. Each loop of the plurality of loops are adapted to project outward from the knitted fabric when in the stretched state, and substantially retract into the knitted fabric when in the relaxed state.

Abstract: A knitted structure is configured for heat generation and distribution. In some embodiments, the knitted structure includes a knitted fabric including a first knitted layer and a second knitted layer opposite the first knitted layer. The first knitted layer has a first thermal conductivity. The second knitted layer has a second thermal conductivity. The second thermal conductivity is greater than the first thermal conductivity to faciliate heat transfer toward the first knitted layer. The knitted structure may further include a plurality of electrodes at least partially disposed inside the knitted fabric. Each of the plurality of electrodes is configured to generate heat within the knitted fabric upon receipt of electrical energy in order to distribute heat along the knitted structure and toward the first knitted layer.

Abstract: The knitted textiles include a knitted structure including a plurality of hollow yarns. Each hollow yarn includes a yarn body and defines a yarn hole extending through the yarn body to allow expansion of the yarn body upon inflation of each hollow yarn through the yarn hole. The knitted structure is configured to transition from an unexpanded state to an expanded state in response to the inflation of the hollow yarns through the yarn hole. The knitted structure has a first porosity in the unexpanded state, and the knitted structure has a second porosity in the expanded state. The second porosity is less than the first porosity such that a visibility through the knitted structure is greater when the knitted structure is in the unexpanded state than when the knitted structure is in the expanded state.

Abstract: A vehicle seat includes a first knitted fabric layer defining an outer surface and a second knitted fabric layer defining an inner surface. The inner surface is opposite the outer surface. The vehicle seat further includes a knitted spacer fabric interconnecting the first knitted fabric layer and the second knitted fabric layer. The knitted spacer fabric resiliently biases the first knitted fabric layer and the second knitted fabric layer away from one another. The knitted spacer fabric is configured to buckle when a seated occupant exerts an occupant load on the vehicle seat. The first knitted fabric layer is more elastic than the second knitted fabric layer to conform to the seated occupant when the seated occupant exerts the occupant load on the vehicle seat.

Abstract: A structural member includes an inflatable bladder. The structural member may include a fabric shell disposed about an exterior surface of the bladder, or a spacer element attached to an interior surface of the bladder. The fabric shell or spacer element restrains the shape of the bladder to contour the bladder into a desired shape and increase the load carrying capacity of the bladder.

Abstract: A motion sickness mitigation device includes a textile material having a first surface, a second surface disposed opposite the first surface, and a first raised portion extending from the first surface and configured for contacting a skin of a user. The textile material defines a first pocket and a second pocket therein between the first surface and the second surface, and the second pocket is spaced apart from the first pocket. The device further includes a controller disposed within the first pocket and configured for transmitting an electrical signal. The device also includes a first electrical excitation pad disposed within the second pocket, covered by the first raised portion, and disposed in electrical communication with the controller. The first electrical excitation pad is configured for receiving the electrical signal and electrically stimulating the skin of the user through the textile material to thereby mitigate motion sickness.

Abstract: Presented are deployable structures having multi-stable-state characteristics using skeletal architectures mounted onto textile backings, methods for making/using such structures, and vehicle components having bistable characteristics provided by polymeric exoskeletons printed onto textile substrates. A multi-stable-state deployable structure includes an elastic substrate fabricated from a (knitted) textile sheet, and an articulating (polymeric) framework mounted on the knitted textile sheet. The articulating framework and textile sheet structurally cooperate to transition from a first stable state, in which the deployable structure maintains a substantially planar shape, to a second stable state, in which the deployable structure maintains a first multidimensional topography, and from the second state to a third stable state, in which the deployable structure maintains a second multidimensional topography distinct from the first multidimensional topography.

Abstract: Presented herein are active textile structures with selectively variable surface friction characteristics, methods for making/using such structures, and vehicle components fabricated with electronically controlled textile structures with modifiable surface friction characteristics. An active textile system for governing frictional force levels at an interface with a user or object is presented. The system includes a textile structure that is fabricated from interlaced first and second textile filaments. Each textile filament has a respective texture that exhibits a distinct coefficient of friction. The textile structure has an outer and/or upper contact surface at the interface with the user/object. An actuating element, which is connected to the textile structure, is operable to selectively transition the textile structure between first and second states.

Abstract: A tonneau cover for a cargo bed of a truck includes a rail system, and a panel secured to the rail system. At least a portion of the rail system or the panel is a layer jamming member having a layer jamming material operable to exhibit a first stiffness in response to a first confining pressure and a second stiffness in response to a second confining pressure. The layer jamming member may include all or a portion of the panel to provide specific regions of the cover, and/or may include portions of the rail system.

Abstract: A roof panel includes a first member and a second member. A panel is attached to and interconnects the first member and the second member. The panel is configurable between a deployed configuration for attachment to a vehicle, and a stowed configuration for storage. The panel has a planar form when in the deployed configuration, and a rolled up form when in the stowed configuration. The panel may include an adjustable stiffness panel, such as a layer jamming panel, controllable in response to a control signal to exhibit a first stiffness when in the deployed configuration or the stowed configuration, or a second stiffness for reforming the panel between the deployed configuration and the stowed configuration.

Abstract: A resettable sensor assembly includes a body having a axis and defining a cavity therein. The body includes a first plurality of threads disposed about the axis. The assembly includes a housing mated to the body and including at least one electrical contact. The assembly further includes a plate. The assembly also includes an actuator element configured for translating the plate along the axis between a first position in which the plate contacts the at least one electrical contact and a second position in which the plate is spaced apart from the at least one electrical contact. The element is formed from a shape memory alloy that is transitionable between an austenite crystallographic phase and a martensite crystallographic phase in response to a thermal activation signal to thereby translate the plate between the first position and the second position.

Abstract: A tonneau cover for a cargo bed of a truck includes a rail system, and a panel secured to the rail system. At least a portion of the rail system or the panel is a layer jamming member having a layer jamming material operable to exhibit a first stiffness in response to a first confining pressure and a second stiffness in response to a second confining pressure. The layer jamming member may include all or a portion of the panel to provide specific regions of the cover, and/or may include portions of the rail system.

Abstract: A roof panel includes a first member and a second member. A panel is attached to and interconnects the first member and the second member. The panel is configurable between a deployed configuration for attachment to a vehicle, and a stowed configuration for storage. The panel has a planar form when in the deployed configuration, and a rolled up form when in the stowed configuration. The panel may include an adjustable stiffness panel, such as a layer jamming panel, controllable in response to a control signal to exhibit a first stiffness when in the deployed configuration or the stowed configuration, or a second stiffness for reforming the panel between the deployed configuration and the stowed configuration.

Abstract: An occupant support structure and a method of customizing an occupant support structure. The occupant support structure may comprise a base and a reconfigurable cushion carried by the base. The reconfigurable cushion may include an occupant support surface and a bladder. The bladder may include an outer wall that defines an inner cavity underlying the occupant support surface and two or more overlapping material layers disposed within the cavity. The overlapping material layers may be adapted to selectively transition from a compliant state to a rigid state and vice versa by selective control of a pressure condition across the outer wall of the bladder to reconfigure or conform the occupant support surface of the cushion to a contour of a portion of an occupant supported by the cushion.

Abstract: A stretchable adjustable-stiffness assembly includes a casing and first and second friction layers. The casing can be fluidly sealed and includes an interior compartment containing a fluid. The fluid can shift between a first interior pressure and a second interior pressure less than the first interior pressure and an exterior pressure. The first and second friction layers are disposed within the interior compartment. The assembly can shift between relaxed and fixed configurations. In the relaxed configuration, the fluid has the first interior pressure, the casing is stretchable between a first dimension and a second dimension greater than the first dimension, and the assembly has a first stiffness. In the fixed configuration, the first fluid has the second interior pressure, the casing length is fixed, the first and second friction layers are engaged, and the assembly has a second stiffness greater than the first stiffness.