Abstract: A collapsible shelter includes an inwardly folding hinge configured to fold into a substantially flat configuration when the collapsible shelter is closed or collapsed for transport. The hinge may be configured to fold or pull flexible shelter walls inwardly as the shelter is opened or closed. The inward folding prevents or reduces interference of the flexible shelter walls with the closing or latching of the collapsible shelter in the closed configuration. A collapsible shelter may also require multiple latches to secure it in the closed configuration during transportation on a vehicle. A collapsible shelter may also be provided with an actuator configured to release or disengage all the latches with a single operation.

Abstract: Multiple rear sections can be pivotably coupled and foldable between a deployed arrangement in which a forward section and the rear sections are generally planar, and a storage arrangement in which the rear sections are folded into a stack. The forward section can be mounted to the cargo box and pivotably coupled to an adjacent rear section to support the stack in an upward angled position. The forward section can be formed of an extruded panel having an upper wall member and a lower wall member spaced apart from the upper wall member. The lower wall member can at least partially define a channel. An internal rib can extend between the upper wall member and the lower wall member.

Abstract: A belt tensioner includes a support housing at least in part defining a spring cavity and an arm pivotally attached to the support housing. A spring is located in the spring cavity and is operatively connected to the arm and the support housing to bias the arm about a pivot axis toward an unloaded position relative to the support housing. A damping member includes a hub and deflectable, force-applying elements that are connected to and spaced apart about a periphery of the hub. The force-applying elements are biased toward a contact surface of the arm to apply a frictional force between the contact surface and the force-applying elements to impede rotation of the arm relative to the support housing.

Abstract: A tensioner for tensioning a belt includes a support housing at least in part defining a spring cavity. A damping member having a first friction bearing surface is at least partially disposed in the spring cavity. An arm pivotally attached to the support housing has a second friction bearing surface. A spring is located in the spring cavity and operatively connected to the arm and damping member to pivot the damping member about a pivot location such that the first friction bearing surface of the damping member is biased against the second friction bearing surface of the arm to dampen relative movement between the arm and the support housing.

Abstract: A belt tensioner system includes a belt tensioner and a bumper idler pulley. The belt tensioner includes an arm which is adapted to be rotatably-biased and includes a tensioner idler pulley which is supported by the arm and which travels in an arcuate path when the arm rotates. The bumper idler pulley is positioned at least partially in the arcuate path to stop the travel of the tensioner idler pulley when the arm rotates to a predetermined rotational position. In one application, the belt tensioner system is for an automotive vehicle.

Abstract: A belt tensioner includes an arm, a spring case, and a helical spring having inwardly projecting first and second end portions. Another belt tensioner includes a spring, an arm, a spring case, and a pivot bushing surrounding the spring. An additional belt tensioner includes an idler pulley having a bearing with a mounting hole and includes an arm having a post. The post is positioned in the mounting hole, and an annular rim of the post is deformed radially outward and over the bearing. A method for manufacturing an arm and a spring case of a belt-tensioner includes obtaining a belt-tensioner-arm casting mold including a first section and a second section and obtaining a belt-tensioner-spring-case casting mold including a first segment and a second segment.

Abstract: A first belt tensioner includes an arm, spring case, coil spring, and arm plate. The arm is adapted to support an idler pulley and has a hook portion. The spring case is disposed in the arm and has a first spring seat. The spring is disposed in the spring case. The arm plate has a second spring seat. The spring is longitudinally compressed between the arm plate and the spring case. The spring is in torsion with the end portions of the spring seated against a corresponding spring seat and with the arm plate rotationally positioned under the hook portion. A method for assembling the first belt tensioner includes using the arm plate to longitudinally compress the spring and rotating the arm plate. A second belt tensioner includes an arm, spring case, coil spring, arm plate, and pivot bushing.

Abstract: A belt tensioner is provided for mounting on a mounting surface of a structure. The tensioner comprises a body, which defines a cavity, and a drain hole that is in communication with the cavity. The drain hole is located on the body so as to be facing the mounting surface of the structure when the tensioner is mounted on the structure. In this manner it is more difficult for contaminants to enter the body than to exit the body.

Abstract: A new asymmetrically damped tensioner is provided utilizing a one-way clutch connected to a tensioner arm through a frictional damper. The frictional damper is in frictional contact with the arm and the one-way clutch is coupled to the frictional damper for movement therewith. The tensioner arm is pivotable in a first direction to take up belt slack and a second direction. The clutch is pivotable in the first direction but not the second direction. Because the one-way clutch is operatively engaged with the arm through the frictional damper, the tensioner is able to respond to high belt tension once the frictional force between the arm and the damper is overcome.