Abstract: A line for producing a cast film is disclosed having a slot die, a chill roll, an electrode assembly, an insulator assembly, a sensor device, and a control device. The electrode assembly is arranged between an impingement area of the cast film on the chill roll and a removal area. The insulator assembly is arranged between the electrode assembly and the chill roll shell. The sensor device continuously determines the left and right cast film edge. According to the determined left and right cast film edge the control device moves the insulator assembly in such a way that the insulator assembly is arranged: a) between the left end face of the chill roll and the left cast film edge; and b) between the right end face of the chill roll and the right cast film edge.

Abstract: A line for producing a cast film is disclosed having a slot die, a chill roll, an electrode assembly, an insulator assembly, a sensor device, and a control device. The electrode assembly is arranged between an impingement area of the cast film on the chill roll and a removal area. The insulator assembly is arranged between the electrode assembly and the chill roll shell. The sensor device continuously determines the left and right cast film edge. According to the determined left and right cast film edge the control device moves the insulator assembly in such a way that the insulator assembly is arranged: a) between the left end face of the chill roll and the left cast film edge; and b) between the right end face of the chill roll and the right cast film edge.

Abstract: A method for forming a semiconductor device includes forming a laser marking buried within a semiconductor substrate and thinning the semiconductor substrate from a backside of the semiconductor substrate. For example, a semiconductor device includes a semiconductor substrate located in a semiconductor package. A laser marking is buried within the semiconductor substrate. For example, another semiconductor device includes a semiconductor substrate. A laser marking is located at a backside surface of the semiconductor substrate. Further, a portion of the backside surface located adjacent to the laser marking is free of recast material.

Abstract: A method of dicing a wafer may include forming a plurality of active regions in a wafer, each active region including at least one electronic component, the active regions extending from a first surface of the wafer into the wafer by a height and being separated by separation regions, forming at least one trench in the wafer by plasma etching in at least one separation region from the first surface of the wafer. The at least one trench is extending into the wafer farther than the plurality of active regions. The method may further include processing a remaining portion of the wafer in the separation region to separate the wafer into individual chips.

Abstract: A method for forming a semiconductor device includes forming a laser marking buried within a semiconductor substrate and thinning the semiconductor substrate from a backside of the semiconductor substrate. For example, a semiconductor device includes a semiconductor substrate located in a semiconductor package. A laser marking is buried within the semiconductor substrate. For example, another semiconductor device includes a semiconductor substrate. A laser marking is located at a backside surface of the semiconductor substrate. Further, a portion of the backside surface located adjacent to the laser marking is free of recast material.

Abstract: A method of processing a semiconductor substrate is provided. The method may include forming a film over a first side of a semiconductor substrate, forming at least one separation region in the semiconductor substrate between a first region and a second region of the semiconductor substrate, arranging the semiconductor substrate on a breaking device, wherein the breaking device comprises a breaking edge, and wherein the semiconductor substrate is arranged with the film facing the breaking device and in at least one alignment position with the at least one separation region aligned with the breaking edge, and forcing the semiconductor substrate to bend the first region with respect to the second region over the breaking edge until the film separates between the breaking edge and the at least one separation region.

Abstract: A method of dicing a wafer may include forming a plurality of active regions in a wafer, each active region including at least one electronic component, the active regions extending from a first surface of the wafer into the wafer by a height and being separated by separation regions, forming at least one trench in the wafer by plasma etching in at least one separation region from the first surface of the wafer. The at least one trench is extending into the wafer farther than the plurality of active regions. The method may further include processing a remaining portion of the wafer in the separation region to separate the wafer into individual chips.

Abstract: A method of dicing a wafer may include forming a plurality of active regions in a wafer, each active region including at least one electronic component, the active regions extending from a first surface of the wafer into the wafer by a height and being separated by separation regions, the separation regions being free from metal, forming at least one trench in the wafer by plasma etching in at least one separation region from the first surface of the wafer. The at least one trench is extending into the wafer farther than the plurality of active regions. The method may further include processing a remaining portion of the wafer in the separation region to separate the wafer into individual chips.

Abstract: A method of dicing a wafer may include forming a plurality of active regions in a wafer, each active region including at least one electronic component, the active regions extending from a first surface of the wafer into the wafer by a height and being separated by separation regions, the separation regions being free from metal, forming at least one trench in the wafer by plasma etching in at least one separation region from the first surface of the wafer. The at least one trench is extending into the wafer farther than the plurality of active regions. The method may further include processing a remaining portion of the wafer in the separation region to separate the wafer into individual chips.

Abstract: A device includes a semiconductor chip including a dicing edge. The device further includes an active structure arranged in a semiconductor material of the semiconductor chip, and a protection structure arranged between the dicing edge and the active structure.

Abstract: A method of processing a semiconductor substrate is provided. The method may include forming a film over a first side of a semiconductor substrate, forming at least one separation region in the semiconductor substrate between a first region and a second region of the semiconductor substrate, arranging the semiconductor substrate on a breaking device, wherein the breaking device comprises a breaking edge, and wherein the semiconductor substrate is arranged with the film facing the breaking device and in at least one alignment position with the at least one separation region aligned with the breaking edge, and forcing the semiconductor substrate to bend the first region with respect to the second region over the breaking edge until the film separates between the breaking edge and the at least one separation region.