Abstract: A rapidly deployable structure that includes a first and second hub, a plurality of legs and a rod connected to the first hub. The first hub includes first recesses. The second hub includes second recesses and an alignment guide. Each leg is connected to the first hub and the second hub. The rod connected is to the first hub and includes pins that are movable between an extended state, where pins protrude from the rod, and a retracted state where the pins are retracted within the rod. The first hub is movable relative to the second hub between a first state in which the rod is disposed above the alignment guide in an axial direction defined by an opening in the alignment guide and a second state in which a portion of the rod comprising the pins is below the alignment guide in the axial direction.

Abstract: A mud flap assembly for a vehicle includes a mud flap and a mud flap bracket. The mud flap is attached to the mud flap bracket. The mud flap bracket is in turn attached to the vehicle by an attachment means so that when the mud flap is pinched between a tire of the vehicle and a fixed object resting on the ground, the mud flap bracket and the mud flap are moved and/or deflected substantially uniformly downwardly toward the ground in order to prevent damage to the mud flap, the mud flap bracket and the vehicle.

Abstract: A mud flap assembly for a vehicle includes a mud flap and a mud flap bracket. The mud flap is attached to the mud flap bracket. The mud flap bracket is in turn attached to the vehicle by an attachment means so that when the mud flap is pinched between a tire of the vehicle and a fixed object resting on the ground, the mud flap bracket and the mud flap are moved and/or deflected substantially uniformly downwardly toward the ground in order to prevent damage to the mud flap, the mud flap bracket and the vehicle.

Abstract: A frame for a heavy-duty vehicle trailer includes a pair of elongated, spaced-apart parallel main members, each one having a pair of spaced apart parallel vertical walls. At least one cross member extends between and attaches to the main members, and includes a pair of spaced apart parallel transversely-extending vertical walls. Each one of a first pair of hangers includes a pair of spaced-apart parallel vertical walls that generally align and attach to the main member vertical walls. Each hanger includes a hanger support having a pair of spaced apart parallel vertical webs integrally formed with a diagonally extending side member. The hanger support attaches to the inboard hanger wall and also to the cross member. The frame reduces weight and provides improved reaction of longitudinal and side loads, yet still efficiently reacts vertical and racking loads imparted on the frame during operation of the vehicle.

Abstract: A frame for a heavy-duty vehicle trailer includes a pair of elongated, spaced-apart parallel main members, each one having a pair of spaced apart parallel vertical walls. At least one cross member extends between and attaches to the main members, and includes a pair of spaced apart parallel transversely-extending vertical walls. Each one of a first pair of hangers includes a pair of spaced-apart parallel vertical walls that generally align and attach to the main member vertical walls. Each hanger includes a hanger support having a pair of spaced apart parallel vertical webs integrally formed with a diagonally extending side member. The hanger support attaches to the inboard hanger wall and also to the cross member. The frame reduces weight and provides improved reaction of longitudinal and side loads, yet still efficiently reacts vertical and racking loads imparted on the frame during operation of the vehicle.

Abstract: An axle/suspension system for a heavy-duty vehicle, in which the vehicle has a frame that includes a pair of hangers. The axle/suspension system is attached to the hangers, and includes an axle and a pair of suspension assemblies. Each of the suspension assemblies includes an air spring and at least one spring member. The spring member includes a first attachment portion and a second attachment portion. The first attachment portion is generally rigidly connected to the hanger via a clamped connection, and the second attachment portion is operatively connected to the axle. The spring member, connected in this manner, reduces or eliminates dock walk when a cargo transfer vehicle enters the heavy-duty vehicle, and also reduces or eliminates rebound when the cargo transfer vehicle exits the vehicle. The spring member is also capable of being tuned to a predetermined stiffness that is sufficient to control heavy-duty vehicle roll forces.

Abstract: Methods for treatment of peripheral nerve sensory loss are disclosed. The methods involve treating a patient with a compound having nicotinic acetylcholine receptor activity.

Abstract: A method of assisting a driver in aligning a vehicle hitch with a trailer hitch and electronic trailer alignment system includes providing a stereoscopic-imaging system and positioning the imaging system at one of the vehicle hitch or the trailer hitch. The imaging system includes at least two image sensors. At least two different images of a surface at the other of the vehicle hitch or the trailer hitch are captured with the at least two image sensors. Position data is captured from the at least two different images of the surface at the other of the vehicle hitch or the trailer hitch. The position data defines a position of the other of the vehicle hitch or the trailer hitch with respect to the one of the vehicle hitch or the trailer hitch. Steering data that will cause the vehicle hitch to approach the position of the trailer hitch is determined.

Abstract: An axle/suspension system for a heavy-duty vehicle, in which the vehicle has a frame that includes a pair of hangers. The axle/suspension system is attached to the hangers, and includes an axle and a pair of suspension assemblies. Each of the suspension assemblies includes an air spring and at least one spring member. The spring member includes a first attachment portion and a second attachment portion. The first attachment portion is generally rigidly connected to the hanger via a clamped connection, and the second attachment portion is operatively connected to the axle. The spring member, connected in this manner, reduces or eliminates dock walk when a cargo transfer vehicle enters the heavy-duty vehicle, and also reduces or eliminates rebound when the cargo transfer vehicle exits the vehicle. The spring member is also capable of being tuned to a predetermined stiffness that is sufficient to control heavy-duty vehicle roll forces.

Abstract: An axle/suspension system for a heavy-duty vehicle, in which the vehicle includes a frame that extends in a longitudinal direction relative to the vehicle. The axle/suspension system is attached to the vehicle frame via at least one hanger and includes at least one beam, which includes a first end and a second end. The first end of the beam is connected to the hanger, and the second end of the beam immovably captures an axle, which extends in a transverse direction relative to the vehicle. The beam is formed of a composite material and has a substantially constant cross section in the transverse direction to provide sufficient strength to control roll forces encountered by the vehicle during operation.

Abstract: A frame for a heavy-duty vehicle includes a pail of spaced-apart, parallel, elongated, and longitudinally-extending main members. At least a pair of transverse cross members extend between and are attached to the main members, and each one of at least a pair of hangers is attached to and depends from a respective one of the main members and/or the cross members. A component is disposed between each one of the hangers and its respective main member, or alternatively is incorporated into the hangers, for absorbing the energy that is created by an extreme event during vehicle operation, to reduce the possibility of damage to the main members and/or the cross members caused by movement of at least one of the hangers during the extreme event.

Abstract: A frame for a heavy-duty vehicle includes a pair of spaced-apart and longitudinally-extending main members. At least two cross members extend between and are attached to the main members. Each one of at least a pair of hangers is attached to and depends from a respective one of the main members for suspending an axle/suspension system from the frame. A force distribution assembly is attached to the main members and the hangers and includes a component that deforms or shears in an extreme event. The force distribution assembly extends perpendicularly between the main members and interrupts the transmission of forces encountered by the axle/suspension system that move through each one of the hangers to its respective main member, and redirects at least a portion of such forces across said force distribution assembly and into the other one of the main members.

Abstract: A sensor system for actuating the lifting of a steerable axle of a wheeled vehicle includes at least one proximity switch mounted on a first structure of the wheeled vehicle and at least one magnet mounted on a second structure of the wheeled vehicle, wherein at least one of the first and second structures pivots relative to the other structure. When at least one of the first and second structures moves to a predetermined position relative to the other structure, the at least one proximity switch and the at least one magnet are aligned in close proximity, thereby activating the proximity switch to, in turn, actuate a lift mechanism for the steerable axle.

Abstract: A frame or subframe for a tractor-trailer for supporting one or more axle/suspension systems includes a pair of spaced-apart, parallel, elongated, and longitudinally extending main members. At least one cross member structure extends between and is connected to the longitudinal main members using structural nodes. A bonding adhesive, or other suitable means of attachment, connects the cross member structure and the structural nodes to one another and to the main members. The structural nodes distribute loads encountered during vehicle operation generally over a relatively large area thereby generally reducing the concentration of such loadings at the connections, and assist in generally evenly distributing loads between the cross member structure and the main members to effectively react lateral, longitudinal, vertical, and racking loads. The combination of greater load distribution and reduced loading concentrations allows the structure to be constructed from lighter weight materials.

Abstract: A tank for containing compressed air for supplying the air to one or more pneumatically-operated components, devices, or systems of a heavy-duty vehicle such as a tractor-trailer or straight truck, also serves as part of the structure of the frame or subframe of the vehicle. The frame or subframe includes a pair of spaced-apart, parallel, elongated and longitudinally extending main members. One or more of the tanks also serve as interconnecting cross members of the frame or subframe structure. Each tank/cross member generally extends between and is perpendicular to the main members and is secured to the main members and/or suspension hangers and/or the air springs to form a rigid, integrated frame or subframe structure having reduced weight, yet which is capable of reacting the loads imparted to the structure by the axle/suspension system during operation of the vehicle.

Abstract: A distributed compliance air-ride axle/suspension system includes an integral structure preferably formed of a lightweight composite material, replacing traditional beams and an axle. The composite structure includes a plurality of plates of various sizes and shapes, with the size, shape and arrangement of the plates being determined by the load capacity model of a specific vehicle application. Traditional axle spindle ends are mounted on the integral plate structure, together with pivot bushings, air springs, and shock absorbers, to complete the air-ride axle/suspension system. The system in turn is pivotally mounted on frame brackets of a heavy-duty vehicle such as a semi-trailer or dump truck. Forces, loads and/or stresses imposed on the axle/suspension system during vehicle operation are distributed generally throughout the composite structure to achieve the desired structural roll compliance of the axle/suspension system for the particular application.

Abstract: An axle/suspension system for a wheeled vehicle, in which the vehicle has a frame, includes an integral arm structure that includes an attachment member for connecting the integral arm structure to the vehicle frame. A flexible transition member is connected to and extends from the attachment member and a body is connected to and extends from the transition member The flexible transition member may be generally curved or angular and enables pivotal movement of the integral arm structure and cooperates with the body to distribute forces encountered by the axle/suspension system The body may be a truss structure or a solid body, which may include a member that replaces a conventional axle tube. Optionally, two axle/suspension integral arm structures may be used to capture a conventional axle tube.

Abstract: A trailer hitch alignment device which allows a user to easily align a hitch of a vehicle with a trailer hitch of a trailer. The trailer hitch alignment device includes a control unit with a display that is viewable by the driver of a vehicle, a sensor releasably positioned on a ball hitch of the vehicle, and another sensor releasably positioned over a socket hitch of the trailer. At least one of the sensor and the another sensor communicates with the control unit. The control unit display displays the relative position of the sensor to the another sensor.

Abstract: A movable subframe or slider box for tractor-trailers includes a pair of elongated, longitudinally-extending, spaced-apart, parallel main members, and a plurality of cross members which extend between and are attached to the main members to form a rigid slider box structure. The slider box includes a retractable pin mechanism for selectively positioning the slider box beneath the trailer. The slider box supports one or more axle/suspension systems which in turn support the vehicle wheels and tires. The slider box is free of hangers for pivotally mounting beams of the axle/suspension systems on the slider box. The beams instead are pivotally mounted directly on the main members. Each main member has an inverted generally U-shaped configuration which forms a channel, so that a bushing assembly end of each beam nests within the channel of its respective main member and is pivotally attached thereto.

Abstract: A frame for a heavy-duty vehicle includes a pair of spaced-apart and longitudinally-extending main members. At least two cross members extend between and are attached to the main members. Each one of at least a pair of hangers is attached to and depends from a respective one of the main members for suspending an axle/suspension system from the frame. A force distribution assembly is attached to the main members and the hangers and includes a component that deforms or shears in an extreme event. The force distribution assembly extends perpendicularly between the main members and interrupts the transmission of forces encountered by the axle/suspension system that move through each one of the hangers to its respective main member, and redirects at least a portion of such forces across said force distribution assembly and into the other one of the main members.