Abstract: The present disclosure generally relates to a venting system including a lid or base comprising a center wall that defines a central longitudinal axis, and a total radius measured from the longitudinal axis to an outermost surface of the lid or base. The venting system includes a pressure relief feature disposed along the lid or base. The pressure relief feature includes at least a first venting feature defining a thinned region of the lid or base.

Abstract: The present disclosure generally relates to a venting system that includes a lid or base with a center wall that defines a central longitudinal axis, and a total radius that is measured from the longitudinal axis to an outermost surface of the lid or base. The venting system further includes a pressure relief feature that is disposed along the lid or base. The pressure relief feature includes at least a first venting feature defining a thinned region of the lid or base, a venting radius is measured from the longitudinal axis to an outermost extent of the first venting feature, and the venting radius is between about 5% and about 25% of the total radius of the lid or base.

Abstract: A cell enclosure includes an inner enclosure configured to include a battery cell, an outer enclosure, and a pocket between the inner enclosure and the outer enclosure. The pocket includes a phase change material to control a temperature of the battery cell.

Abstract: The present disclosure generally relates to a venting system that includes a lid or base with a center wall that defines a central longitudinal axis, and a total radius that is measured from the longitudinal axis to an outermost surface of the lid or base. The venting system further includes a pressure relief feature that is disposed along the lid or base. The pressure relief feature includes at least a first venting feature defining a thinned region of the lid or base, a venting radius is measured from the longitudinal axis to an outermost extent of the first venting feature, and the venting radius is between about 5% and about 25% of the total radius of the lid or base.

Abstract: An electrical contact assembly includes a first component and a second component having a stem with a first end and a second end opposite the first end. A flange extends from the first end and defines an electrical contact surface area. The second end is permanently joined to the first component at a mating surface. The mating surface defines a first surface area at the second end and the electrical surface area is equal to or greater than the first surface area.

Abstract: A wirelessly electrically-coupled deployable apparatus comprising a deployable structure supported on a supporting structure for motion between a stowed position and a deployed position, an electrically-powered device carried by the deployable structure, a wireless electrical power receiving circuit carried by the deployable structure and connected between the device and a wireless electrical power receiver, and a wireless electrical power transmitting circuit carried by the supporting structure and connected between an electrical power supply and a wireless electrical power transmitter. The wireless electrical power transmitter is carried by the supporting structure, and the wireless electrical power receiver is carried by the deployable structure, in respective positions where wireless electrical power transfer between the wireless electrical power transmitter and receiver powers the device via the receiving circuit when the deployable structure is in its deployed position.

Abstract: A wirelessly electrically-coupled deployable apparatus comprising a deployable structure supported on a supporting structure for motion between a stowed position and a deployed position, an electrically-powered device carried by the deployable structure, a wireless electrical power receiving circuit carried by the deployable structure and connected between the device and a wireless electrical power receiver, and a wireless electrical power transmitting circuit carried by the supporting structure and connected between an electrical power supply and a wireless electrical power transmitter. The wireless electrical power transmitter is carried by the supporting structure, and the wireless electrical power receiver is carried by the deployable structure, in respective positions where wireless electrical power transfer between the wireless electrical power transmitter and receiver powers the device via the receiving circuit when the deployable structure is in its deployed position.

Abstract: A fifth wheel pin box includes a torsion axle having an outer tube connected to a towed vehicle mounting bracket and an inner bar connected by pivot arms to a coupler plate bearing a coupler pin. The pin box may be connected between a towed vehicle and a tow vehicle in an orientation in which both chucking loads and bounce loads cause the inner bar to rotate with respect to the outer tube. Resilient, compressible members disposed between the inner bar and outer tube absorb the loads.

Abstract: A wirelessly electrically-coupled deployable apparatus comprising a deployable structure supported on a supporting structure for motion between a stowed position and a deployed position, an electrically-powered device carried by the deployable structure, a wireless electrical power receiving circuit carried by the deployable structure and connected between the device and a wireless electrical power receiver, and a wireless electrical power transmitting circuit carried by the supporting structure and connected between an electrical power supply and a wireless electrical power transmitter. The wireless electrical power transmitter is carried by the supporting structure, and the wireless electrical power receiver is carried by the deployable structure, in respective positions where wireless electrical power transfer between the wireless electrical power transmitter and receiver powers the device via the receiving circuit when the deployable structure is in its deployed position.