A core end piece collector for handling cut off end pieces during processing of tubular cores with a hollow centre portion includes a carrying member. At least a portion of the carrying member is configured to be arranged inside of a core during cutting of the core. The collector further includes a catcher being arranged on the carrying member, said catcher protruding from the carrying member at an angle in relation to the longitudinal direction of said carrying member such that the catcher is insertable into a cut in the core. The core end piece collector further comprises means for moving at least the carrying member in relation to the core.

Present invention teaches a notcher having primary structures of a base plate with a mounting plate set in a vertical orientation. A square plate carries a pivotable trapezoidal plate that carries the notcher assembly. The square plate is slidably connected to said mounting plate wedges on the square plate where those wedges match to v-grooves on the side of the mounting plate. A T-post clamp serves to provide the holding structure to hold work pieces in place for the notcher assembly to do the needed work of cutting/notching out a hole.

A method for processing glass tube ends is provided. The method includes providing a glass tube blank that has at least two tube end portions; actively cooling at least one tube end portion by a cooling station; and processing the at least one of the tube end portion.

A rod slicer includes a receiving vessel, a cover vessel, and a rod mount. The rod mount may releasably couple with the cover vessel. At least one blade is mounted to or within the cover vessel. The rod mount has openings for one or more rods. The rod mount can be rotated, causing any rods in the openings to pass across from the rod mount into the cover vessel. In the cover vessel, a slicing edge of the blade, thus cutting a segment of a desired length from the rod. A pump may be connected to an opening in the vessel to vacuum the cut segments into the vessel. In some configurations, the blade is adjustable to change the length of the segments.

A facer facing the ends of polyolefin pipes for butt fusion is modular in the sense that it employs three types of modules, a drive unit, two blade holders and a motor assembly, that are separable from one another and each independently light enough to be hand-lifted along walls and up to ceilings. The drive unit module is adjustable to accommodate different guide rail spacings. The blade holder modules are interchangeable to accommodate different diameters of pipe. The motor assembly module has multispeed capability to accommodate the total area of material to be faced. Each module can be exchanged or modified without use of tools to change the geometry of the assembled facer to accommodate different fusion machines and/or diameters of pipe within working spaces dictated by the diameter of the pipe and not by a fixed geometry of a facer.

Example split frame pipe cutting tools include a frame and a slide tool configured to position a cutting edge in contact with the workpiece to performing cutting or boring on the workpiece, the slide tool comprising: a radial advancement mechanism configured to provide radial advancement of the cutting edge based on circumferential advancement of the slide tool by the frame; and an axial guide rail; a recirculating bearing carriage configured to slide in an axial direction along the axial guide rail and to couple the cutting edge to the axial guide rail; an axial advancement mechanism configured to advance the cutting edge in the axial direction with respect to the workpiece by translating radial advancement by the radial advancement mechanism to axial advancement based on a cutting template coupled to the radial advancement mechanism.

A tool is configured for preparing an end of a pre-insulated tubing bundle having a central tube having a diameter and an outer insulation covering have a diameter. The tool includes a body having first and second body sections joined to one another and movable between an open position and a closed position. The body sections, when joined to one another define a circular central opening. The circular central opening has a diameter about equal to the diameter of the outer insulation covering. A cutting blade is positioned in one of the first and second section sections extending inwardly of the circular central opening a distance equal to one-half of a difference between the diameter of the outer insulation covering and the diameter of the central tube.

A rod slicer includes a receiving vessel, a cover vessel, and a rod mount. The rod mount may releasably couple with the cover vessel. At least one blade is mounted to or within the cover vessel. The rod mount has openings for one or more rods. The rod mount can be rotated, causing any rods in the openings to pass across from the rod mount into the cover vessel. In the cover vessel, a slicing edge of the blade, thus cutting a segment of a desired length from the rod. A pump may be connected to an opening in the vessel to vacuum the cut segments into the vessel. In some configurations, the blade is adjustable to change the length of the segments.

A peeling apparatus for at least partially removing an external circumferential surface of an approximately cylindrical body is provided. The peeling apparatus includes: a C-shaped or C-like shaped base body, which has two free ends to form a peripheral opening, the cylindrical body being insertable between the two free ends and positionable concentrically in relation to a center of an incircle defined by the internal face of the base body; at least one external bearing mounted on an external axis positioned at each of the free ends, the external bearing abutting the cylindrical body when the body is positioned concentrically in relation to the center of the incircle; at least one central bearing attached to or positioned on the base body, spaced apart from the free ends and on a central axis; and a blade holder into which a blade is insertable so that the blade extends beyond the incircle.

A device for inhibiting rotational motion of an article to be processed comprises a pressure plate assembly including a generally ring-shaped guide assembly. The guide assembly has and at least two guide pins extending from a first side in a transverse direction. The guide assembly further includes at least two resilient devices positioned over a respective one of the at least two guide pins and a container guide having an aperture for receiving an open end of a container moving in a first direction and for aligning the open end with a processing device. The container guide is positioned adjacent to the first side of the pressure plate assembly. At least two resilient devices are configured to be compressed in response to movement of the container guide in a first direction and are configured to decompress in response to movement of the container guide in a second, generally opposite direction.