Method for cutting media from a multi-roll printing system, comprising the steps of: selecting one of a first medium and a second medium, which first medium and second medium are output in parallel with respect to one another from the multi-roll printing system; transporting the selected medium to a cutting media transport path spaced apart from a further media transport path in a traverse direction perpendicular to a plane of the cutting media transport path; and cutting the selected medium positioned at the cutting media transport path.

The present invention further relates to a cutting assembly and a multi-roll printing system.

Systems and methods according to one or more embodiments are provided for forming canted holes in materials. In one example, a forming angle and a central axis for a vent through a panel is determined. A vent is formed in the panel about the central axis along the forming angle. The angled vent is formed with a circular shape at a first opening of the vent on a first surface of the panel when viewed at an angle perpendicular to the first surface of the panel. Additional systems and methods are also provided.

A method for manufacturing a lamp shade cover includes feeding a planar sheet of plastic material to a printer. The method may include printing a design for one or more lampshade covers on the planar sheet of plastic material using the printer and die cutting the planar sheet to create one or more cut-out portions shaped to be bent, folded, or rolled into a three-dimensional lamp shade cover shape. The cut-out portions may include a portion of the design printed using the printer. The method may also include attaching a fastener to a first end and a second end for selectively fastening the first end to the second end to hold the cut-out portions in the three-dimensional lamp shade cover shape.

A cutting unit includes a spindle housing, a spindle, a mounter fixed to the front end portion of the spindle for supporting a cutting blade, and a fixing flange for fixing the cutting blade to the mounter. The mounter includes a boss portion for axially slidably supporting the fixing flange, the boss portion being fitted to an engaging hole formed in a central portion of the fixing flange, a flange portion projecting radially outward from the outer circumference of the boss portion, the flange portion having a supporting surface for supporting the cutting blade on the front side opposed to the fixing flange, and a cylindrical portion formed on the rear side of the flange portion. The flange portion has a suction hole opening. The cylindrical portion has a communication passage communicating with the suction hole. The communication passage is connected through a rotary joint to a suction unit.

Portioning system 10 includes a scanner 200 for scanning work products 13 being carried on the conveyor 12. A cutter system 17 includes an array or manifold cutter 18 and single cutter 19 for cutting the work products into desired sized end pieces. The cutter assemblies 18 and 19 are carried on respective carriages 16 and 26 to move the cutters as required along predetermined cutting paths as controlled by control system 220.

The present invention relates to a device for separating medication packages from a strip of medication packages. The device comprises a cutting base along which the strip of medication packages is to be moved, a circular cutting blade arranged perpendicularly against the cutting base, and an actuator connected to the circular cutting blade and configured to move the circular cutting blade in opposite first and second directions for cutting the strip between two successive medication packages. In the device the actuator is connected to the circular cutting blade with a spring suspension allowing the circular cutting blade to move in opposite third and fourth directions perpendicular to the cutting base.

The present invention relates to a device for separating medication packages from a strip of medication packages. The device comprises a cutting base along which the strip of medication packages is to be moved, a circular cutting blade arranged perpendicularly against the cutting base, and an actuator connected to the circular cutting blade and configured to move the circular cutting blade in opposite first and second directions for cutting the strip between two successive medication packages. In the device the actuator is connected to the circular cutting blade with a spring suspension allowing the circular cutting blade to move in opposite third and fourth directions perpendicular to the cutting base.

A core end piece collector for handling cut off end pieces during processing of tubular cores has a carrying member and a catcher arranged on the carrying member. The catcher protrudes from the carrying member at an angle in relation to the longitudinal direction of the carrying member.

Various embodiments include a cutting control system for the Li-ion battery high-speed winding machine. The system includes: a cutter; a controller; and two sensors set on a path through which electrode material passes. The first sensor detects electrode leads. The second sensor detects a mark hole on the electrode material at the cutting position. The controller receives the signals, determines the last two electrode leads according to the number of detected electrode lead signals, determines whether the last electrode lead is correct according to the distance value between the last two electrode leads, and determines the distance between the mark hole on the electrode material and the cutter assembly according to the last correct electrode lead and/or received mark signal. Based on the distance between the mark hole and the cutter assembly the controller directs the cutter assembly to position and cut the electrode material.

Various embodiments include a cutting control system for the Li-ion battery high-speed winding machine. The system includes: a cutter; a controller; and two sensors set on a path through which electrode material passes. The first sensor detects electrode leads. The second sensor detects a mark hole on the electrode material at the cutting position. The controller receives the signals, determines the last two electrode leads according to the number of detected electrode lead signals, determines whether the last electrode lead is correct according to the distance value between the last two electrode leads, and determines the distance between the mark hole on the electrode material and the cutter assembly according to the last correct electrode lead and/or received mark signal. Based on the distance between the mark hole and the cutter assembly the controller directs the cutter assembly to position and cut the electrode material.