A boom clamp attachment has a gib frame, a boom quick-connect, a shaft arm axle, a shaft arm torque assembly, and at least one gib clamp assembly. The gib clamp assembly has a clamp support member having a first gib clamp at a first end and second gib clamp at a second end. The gib clamp has a fixed finger and a moveable finger, the moveable finger controlled via hydraulics. The boom clamp may hoist, tilt, and position an assembled section of panels.

A tower for a material handler includes a housing surrounding an interior space. The tower has an interior mounting system including a base plate through which a plurality of interior mount openings pass. The interior mount openings are located at positions of the base plate that are interior of the housing. In some embodiments, the tower is part of a material handler that also includes two stabilizers located on opposite sides of the tower, a platform located above the tower, and a boom projecting away from the platform.

A work machine extending in a fore-aft direction includes a frame, a ground-engaging mechanism, a boom assembly to the frame, and a traction assist apparatus. The ground-engaging mechanism is configured to support the frame on a surface. The traction assist apparatus is coupled to the boom assembly. The traction assist apparatus has an attachment point for securing a tether.

A control device equipped with a first acquisition unit for acquiring information pertaining to the location of the center of gravity of cargo transported by a work machine, a second acquisition unit for acquiring information pertaining to the location of a first section of the cargo which differs from the location of the center of gravity thereof, and a calculation unit for calculating information pertaining to the orientation of the cargo on the basis of the information pertaining to the location of the center of gravity of the cargo and the information pertaining to the location of the first section.

A mounting bracket a generally C-shaped arrangement for receiving a fork carrier beam of a drywall crane fork assembly. A removable sidewall carried by the mounting bracket for enclosing the mounting bracket around the fork carrier beam. A tensioning member carried by the removable sidewall for biasing against the fork carrier beam. An extension arm carried in an extension arm port, wherein the extension arm has a generally L-shaped arrangement with a first arm portion adjustably carried in the extension arm port, and a second arm portion disposed at a distal end of the first arm portion and extending perpendicular to the first arm portion. Accordingly, the mounting bracket is removably mountable around the fork carrier beam and provides the extension arm extending in an adjustable arrangement perpendicular to lifting forks of the drywall crane fork assembly to assist with sliding drywall off the fork assembly over an extended distance.

An attachment is described that is configured for attachment to an arm of a piece of heavy construction equipment. The attachment is configured to rotate a section of pipe during break out (i.e. disconnection or disassembly) from another section of pipe and/or make up (i.e. connection or assembly) with another section of pipe. The attachment is configured to break the joint or torque the joint to a predetermined torque value, unthread or thread pipe, and lift the pipe under the power of the heavy construction equipment.

An attachment is described that is configured for attachment to an arm of a piece of heavy construction equipment. The attachment is configured to rotate a section of pipe during break out (i.e. disconnection or disassembly) from another section of pipe and/or make up (i.e. connection or assembly) with another section of pipe. The attachment is configured to break the joint or torque the joint to a predetermined torque value, unthread or thread pipe, and lift the pipe under the power of the heavy construction equipment.

A boom clamp attachment has a gib frame, a boom quick-connect, a shaft arm axle, a shaft arm torque assembly, and at least one gib clamp assembly. The gib clamp assembly has a clamp support member having a first gib clamp at a first end and second gib clamp at a second end. The gib clamp has a fixed finger and a moveable finger, the moveable finger controlled via hydraulics. The boom clamp may hoist, tilt, and position an assembled section of panels.

A pipe handling attachment for a working machine is configured to support a pipe and includes a mounting component configured to couple the pipe handling attachment to the working machine. A boom includes a first support arrangement for supporting a first portion of the pipe, and a second support arrangement, spaced apart from the first support arrangement, for supporting a second portion of the pipe. A distance between the first support arrangement and the second support arrangement is variable, and including adjusting mechanism configured to adjust the distance between the first support arrangement and the second support arrangement. The adjusting mechanism is configured to be operated manually.

An object of the present disclosure is to provide a utility pole rotation apparatus and a position control method that can reduce not only the number of workers for adjusting an orientation of a scaffold bolt (an orientation of a side surface of the utility pole) but also the number of workers for stopping swinging of the utility pole, which cannot be simultaneously reduced in the related art.

The utility pole rotation apparatus according to the present disclosure includes a gripping portion that grips a utility pole, and a roller having a cylindrical shape that contacts the utility pole at an inner side of the gripping portion and rotates the utility pole with a longitudinal direction serving as an axis due to rotation of the roller.