A magnetic cutting and stamping pad (33), comprising a magnetic layer (331), and the magnetic layer (331) is connected to a pad layer (332) at a side facing a pattern medium (4); the magnetic field generated by the magnetic layer (331) penetrates the pad layer (332) and the pattern medium (4), attracts a cutting blade (5); during cutting and stamping, the cutting blade (5) completely penetrates the pattern medium (4) and enters above the pad layer (332), thereby ensuring that during the cutting and stamping the cutting blade (5) completely cuts out the pattern desired. The magnetic cutting and stamping pad (33) can position the relative locations of the cutting blade (5) and the pattern medium (4). The present invention also relates to a pattern cutting and stamping machine comprising the magnetic cutting and stamping pad (33), and a cutting and stamping method.

A magnetic cutting and stamping pad (33), comprising a magnetic layer (331), and the magnetic layer (331) is connected to a pad layer (332) at a side facing a pattern medium (4); the magnetic field generated by the magnetic layer (331) penetrates the pad layer (332) and the pattern medium (4), attracts a cutting blade (5); during cutting and stamping, the cutting blade (5) completely penetrates the pattern medium (4) and enters above the pad layer (332), thereby ensuring that during the cutting and stamping the cutting blade (5) completely cuts out the pattern desired. The magnetic cutting and stamping pad (33) can position the relative locations of the cutting blade (5) and the pattern medium (4). The present invention also relates to a pattern cutting and stamping machine comprising the magnetic cutting and stamping pad (33), and a cutting and stamping method.

The bristle brush comprises a support plate (1), a plurality of bristles (2) emerging from one of the surfaces thereof, the distal ends of the bristles (2), the ones further from the support plate (1), defining a support surface intended to receive a piece to be transported and/or cut or handled, wherein the distal ends of the plurality of bristles (2) have a semi-spherical or conical shape ending in a tip. It enables a bristle brush to be provided wherein the distal ends of said bristles have a shape which enables the bristles to move when a cutting blade or any other element comes into contact with them, without damaging them.

The bristle brush comprises a support plate (1), a plurality of bristles (2) emerging from one of the surfaces thereof, the distal ends of the bristles (2), the ones further from the support plate (1), defining a support surface intended to receive a piece to be transported and/or cut or handled, wherein the distal ends of the plurality of bristles (2) have a semi-spherical or conical shape ending in a tip. It enables a bristle brush to be provided wherein the distal ends of said bristles have a shape which enables the bristles to move when a cutting blade or any other element comes into contact with them, without damaging them.

A machining apparatus is disclosed including a workbench to support at least one article to be machined; at least one machining device to perform machining on said article by removing material, the machining device being movable with respect to the workbench, in which the workbench includes a base including two or more plate-like elements arranged vertically and spaced apart from each other, each plate-like element extending in length along a horizontal longitudinal axis and including a jagged upper edge; support member arranged on the base, in contact with the jagged upper edges of the plate-like elements, the support member being sacrificial, i.e. configured to undergo material removal together with the article, defining a support horizontal martyr plane for the article.

A die press system includes a die press device including a fixed platen and a moving platen, and accessory parts to be installed on the die press device. The accessory parts include a cutting blade set comprising a first cutting blade having a first tooth profile, and a second cutting blade having a second tooth profile, wherein one of the first cutting blade or the second cutting blade is to be installed on the fixed platen, and a pad set comprising a first padding block comprising a first padding layer composed of a first padding material having a first Shore value, and a second padding block comprising a second padding layer composed of a second padding material having a second Shore value, where the first Shore value is different from the second Shore value.

A die press system includes a die press device including a fixed platen and a moving platen, and accessory parts to be installed on the die press device. The accessory parts include a cutting blade set comprising a first cutting blade having a first tooth profile, and a second cutting blade having a second tooth profile, wherein one of the first cutting blade or the second cutting blade is to be installed on the fixed platen, and a pad set comprising a first padding block comprising a first padding layer composed of a first padding material having a first Shore value, and a second padding block comprising a second padding layer composed of a second padding material having a second Shore value, where the first Shore value is different from the second Shore value.

A support for enabling cutting of a linear product, such as an eavestrough debris guard, is disclosed. The eavestrough debris guard has a top, two sides, a bottom, and a non-linear profile. The support includes a contoured top complementary to a bottom portion of the non-linear profile. The support includes a plurality of surfaces extending from the contoured top positioned to engage with the two sides of the linear product. The support includes a plurality of contoured portions each coupled to one of the surfaces positioned to engage with the top of the linear product. The support includes a gap passing through the contoured top and the plurality of surfaces shaped and dimensioned to allow passage of at least a portion of a cutting tool.

A packaging line station having a frame, a die assembly, a drive motor, and an anvil roller. The frame has a base with two vertical stanchions extending upwardly from sides thereof and a top cross-member affixed across the stanchions. The die assembly includes a yoke affixed to the cross-member, a die wheel rotatably affixed to side arms of the yoke, a drive shaft affixed to the die wheel and a cutting die affixed to the die wheel. The drive motor is connected to the drive shaft. The drive shaft and the anvil roller extend between the stanchions. The cutting die and the anvil roller and spaced apart by a nip for receiving a traveling web. As the web passes through the nip the web is cut by blades of the rotating die to form a slit. An adhesive resealable tape or label is then applied over the slit.

This application relates to an amplifier selectively operable in first or second modes. The first mode is a BTL mode with first and second output drivers (103p, 103n) both active to generate respective driving signals that vary with an input signal. The second mode is an SE mode, where the first output driver (103p) is active to generate a driving signal at and the output of the second driver (103n) is held constant. A controller (201) selectively controls the mode based on an indication of output signal amplitude. In the first mode, a ratio of magnitude of the two driving signals varies with the indication of output signal amplitude, i.e. the magnitudes of the two driving signals may vary so as to be not equal.