Abstract: A camshaft phaser arrangement configured for a concentric camshaft assembly having inner and outer camshafts is provided. The camshaft phaser arrangement includes a first camshaft phaser, a second camshaft phaser, a coupling, and at least one timing wheel connected to at least one of the first or second camshaft phaser. Each of the camshaft phasers is configured to be connected to either the inner or the outer camshaft. The at least one timing wheel defines at least one cutout that is configured to receive at least a portion of the coupling.

Abstract: Operations related to establishing a first communication session between a first first-end device and a first second-end device. The first first-end device may obtain first device audio during the first communication session. The operations also include establishing a second communication session between a second first-end device and a second second-end device. In addition, the operations may include communicating the first device audio to the second second-end device as second session audio of the second communication session.

Abstract: A camshaft phaser arrangement configured for a concentric camshaft assembly having inner and outer camshafts is provided. The camshaft phaser arrangement includes a first camshaft phaser, a second camshaft phaser, and a coupling that non-rotatably connects the first camshaft phaser to the concentric camshaft assembly. Each of the camshaft phasers is configured to be connected to either the inner or the outer camshaft. The coupling accommodates for radial and axial offset between the first camshaft phaser and the second camshaft phaser.

Abstract: A camshaft phaser arrangement configured for a concentric camshaft assembly having an inner camshaft and an outer camshaft is provided. The camshaft phaser arrangement can facilitate independent phasing of intake and exhaust valves. The camshaft phaser arrangement includes a first driven wheel and a second driven wheel, both configured to be driven by a driving wheel. A first camshaft phaser is connected to the first driven wheel and configured to be connected to either the inner or outer camshaft. A second camshaft phaser is connected to the second driven wheel and configured to be connected to either the inner or outer camshaft which is not connected to the first driven wheel. A motion transfer assembly can connect the second camshaft phaser to the concentric camshaft assembly. One or both of the camshaft phasers can be an electric camshaft phaser or a hydraulic camshaft phaser.

Abstract: Lower back braces and materials for braces having an elastic base and inelastic strands or tightening mechanism(s) are provided. An elastic base material could be made effectively inelastic by tightening an inelastic cord that extends across the elastic base material. Additionally or alternatively, an elastic base material could include one or more inelastic strands that define one or more inelastic compression zones in an otherwise elastic base.

Abstract: A camshaft phaser arrangement configured for a concentric camshaft assembly having an inner camshaft and an outer camshaft is provided. The camshaft phaser arrangement can facilitate independent phasing of intake and exhaust valves. The camshaft phaser arrangement includes a first driven wheel and a second driven wheel, both configured to be driven by a driving wheel. A first camshaft phaser is connected to the first driven wheel and configured to be connected to either the inner or outer camshaft. A second camshaft phaser is connected to the second driven wheel and configured to be connected to either the inner or outer camshaft which is not connected to the first driven wheel. A motion transfer assembly can connect the second camshaft phaser to the concentric camshaft assembly. One or both of the camshaft phasers can be an electric camshaft phaser or a hydraulic camshaft phaser.

Abstract: Lower back braces and materials for braces having an elastic base and inelastic strands or tightening mechanism(s) are provided. An elastic base material could be made effectively inelastic by tightening an inelastic cord that extends across the elastic base material. Additionally or alternatively, an elastic base material could include one or more inelastic strands that define one or more inelastic compression zones in an otherwise elastic base.

Abstract: A cam phasing control motor assembly, including: an electric motor with a hollow drive shaft; an actuating pin passing through the hollow drive shaft; an engagement feature; and a displacement assembly. For a camshaft locking mode: the displacement assembly displaces the actuating pin in a first axial direction to non-rotatably connect the engagement feature with a bolt non-rotatably connected to a camshaft; and the camshaft is arranged to non-rotatably connect to an input gear for a gearbox phasing unit, the input gear arranged to receive torque from an engine. For a phase adjusting mode: the displacement assembly displaces the actuating pin in a second axial direction, opposite the first axial direction, to disconnect the engagement feature from the bolt; and the camshaft is arranged to rotate with respect to the input gear.

Abstract: A brace comprises a belt and removably attachable vertical strut(s). Each vertical strut can comprise one or more of a strut(s), thoracic pad(s), hip pad(s), lumbar support pad(s), chest support pad(s), de-rotation pad(s), or any other component suitable to assist or restrict movement of a wearer's body, reduce or apply a force to a wearer's body, correct the shape of a wearer's body, reduce pain, or provide support to a wearer's body. It is contemplated that each component can be removable or adjustable from a vertical strut or belt.

Abstract: Tightening systems for braces and other objects are provided. One or more housings can be provided, each of which includes a top surface, a set of lobes positioned on and along the top surface, and a set of sheaves that are sized and dimensioned to be rotatably secured between the top surface and the set of lobes.

Abstract: A cam phasing control motor assembly, including: an electric motor with a hollow drive shaft; an actuating pin passing through the hollow drive shaft; an engagement feature; and a displacement assembly. For a camshaft locking mode: the displacement assembly displaces the actuating pin in a first axial direction to non-rotatably connect the engagement feature with a bolt non-rotatably connected to a camshaft; and the camshaft is arranged to non-rotatably connect to an input gear for a gearbox phasing unit, the input gear arranged to receive torque from an engine. For a phase adjusting mode: the displacement assembly displaces the actuating pin in a second axial direction, opposite the first axial direction, to disconnect the engagement feature from the bolt; and the camshaft is arranged to rotate with respect to the input gear.

Abstract: An electric cam phasing system is provided. The electric cam phasing system includes an electric motor including a center shaft; a camshaft; a center fastener extending into a center of the camshaft and a gearbox including a sprocket and a drive unit. The drive unit includes an input shaft coupling connected to the center shaft. The drive unit is configured for coupling the camshaft to the sprocket in a manner such that relative phasing of the camshaft with respect to sprocket is adjustable via the electric motor driving the drive unit. The electric cam phasing system also includes a lock positioned axially between the center shaft and the camshaft, the lock being configured for selectively engaging the center fastener to lock the gearbox.

Abstract: A back brace is designed to custom fit a wearer in a multitude of different configurations. First, the back brace could have a lumbar support that is split into upper and lower sections that are connected to a flexible joint, allowing the lumbar support to bend towards the spine of the user. The lumbar support is also generally split into left and right sections that are drawn towards one another while the joint bends towards the lumbar curve. This allows the back brace to conform to the lumbar curve of the wearer as a custom fit. Second, the brace could have optional extenders that alter the support length, width, and height of lumbar and lateral supports about the wearer. Third, the brace could have reinforcement support mechanisms that alter the rigidity of various lumbar and lateral supports about the wearer.

Abstract: A cam shaft phaser, including: a stator including stops; a rotor rotatable with respect to the stator and including a plurality vanes extending radially outward from a body; a plurality of channels, each channel passing through a respective vane included in the plurality of vanes; and a plurality of pairs of advance and retard chambers at least partially formed by the plurality of radially inwardly extending stops and the plurality of vanes. Advance and retard chambers for each pair of advance and retard chambers are separated in a first circumferential direction by a respective vane from the plurality of vanes. Each channel connects the advance and retard chambers for said each pair of advance and retard chambers. The first plurality of channels are arranged to enable fluid flow through the first plurality of channels to displace the rotor from at least one circumferential position to a mid-lock or retard-lock position.

Abstract: Braces having elastic portions that can be made effectively inelastic, based on a level of comfort or support desired by a user, via an inelastic tightening mechanism are disclosed. Some contemplated braces have lumbar supports that are at made at least in part of an elastic material, and inelastic tightening systems that extend across the elastic material and can decrease the effective elasticity of the elastic material to provide greater support.

Abstract: Braces having elastic portions that can be made effectively inelastic, based on a level of comfort or support desired by a user, via an inelastic tightening mechanism are disclosed. Some contemplated braces have lumbar supports that are at made at least in part of an elastic material, and inelastic tightening systems that extend across the elastic material and can decrease the effective elasticity of the elastic material to provide greater support.

Abstract: Lower back braces and materials for braces having an elastic base and inelastic strands or tightening mechanism(s) are provided. An elastic base material could be made effectively inelastic by tightening an inelastic cord that extends across the elastic base material. Additionally or alternatively, an elastic base material could include one or more inelastic strands that define one or more inelastic compression zones in an otherwise elastic base.

Abstract: Tightening systems for braces and other objects are provided. One or more housings can be provided, each of which includes a top surface, a set of lobes positioned on and along the top surface, and a set of sheaves that are sized and dimensioned to be rotatably secured between the top surface and the set of lobe.

Abstract: An electric cam phasing system is provided. The electric cam phasing system includes an electric motor including a center shaft; a camshaft; a center fastener extending into a center of the camshaft and a gearbox including a sprocket and a drive unit. The drive unit includes an input shaft coupling connected to the center shaft. The drive unit is configured for coupling the camshaft to the sprocket in a manner such that relative phasing of the camshaft with respect to sprocket is adjustable via the electric motor driving the drive unit. The electric cam phasing system also includes a lock positioned axially between the center shaft and the camshaft, the lock being configured for selectively engaging the center fastener to lock the gearbox.