Abstract:
A method for forming a plurality of semiconductor devices includes forming a plurality of trenches extending from a first lateral surface of a semiconductor wafer towards a second lateral surface of the semiconductor wafer. The method further includes filling a portion of the plurality of trenches with filler material. The method further includes thinning the semiconductor wafer from the second lateral surface of the semiconductor wafer to form a thinned semiconductor wafer. The method further includes forming a back side metallization layer structure on a plurality of semiconductor chip regions of the semiconductor wafer after thinning the semiconductor wafer. The method further includes removing a part of the filler material from the plurality of trenches after forming the back side metallization layer structure to obtain the plurality of semiconductor devices.
Abstract:
The description discloses a method for use in manufacturing integrated circuit chips. The method comprises providing a wafer having a plurality of integrated circuits each provided in an separate active areas, and, for each active area, outside the active area, providing a code pattern that is associated with the integrated circuit. A computer-readable medium is also disclosed. Further, a manufacturing apparatus configured to receive a wafer and to remove material from the wafer so as to provide a scribe line to the wafer formed as a trench for use in separation of the wafer into dies is also disclosed. The description also discloses a wafer, an integrated circuit chip die substrate originating from a wafer of origin and carrying an integrated circuit, and an integrated circuit chip.
Abstract:
The semiconductor processing system includes a reactor chamber that has an upper wall and a lower wall. A hold member is disposed in the reactor chamber to hold a semiconductor substrate in such a way that it faces the lower wall of the reactor chamber.
Abstract:
In one embodiment, a method of forming a current sensor device includes forming a device region comprising a magnetic sensor within and/or over a semiconductor substrate. The device region is formed adjacent a front side of the semiconductor substrate. The back side of the semiconductor substrate is attached over an insulating substrate, where the back side is opposite the front side. Sidewalls of the semiconductor substrate are exposed by dicing the semiconductor substrate from the front side without completely dicing the insulating substrate. An isolation liner is formed over all of the exposed sidewalls of the semiconductor substrate. The isolation liner and the insulating substrate include a different material. The method further includes separating the insulating substrate to form diced chips, removing at least a portion of the isolation liner from over a top surface of the device region, and forming contacts over the top surface of the device region.
Abstract:
Various methods and apparatuses are provided relating to separation of a substrate into a plurality of parts. For example, first a partial separation is performed and then the partially separated substrate is completely separated into a plurality of parts.
Abstract:
According to an embodiment of a semiconductor device, the semiconductor device includes a micro-mechanical structure and a semiconductor material arranged over the micro-mechanical structure. A side surface of the semiconductor material includes a first region and a second region. The first region has an undulation, and the second region is a peripheral region of the side surface and decreases towards the micro-mechanical structure.
Abstract:
A method for separating a layer from a substrate. The method includes providing a plurality of trenches extending from a first main surface of the substrate into the substrate. A heat treatment of the substrate is performed such that edges of the trenches grow together at the first main surface to form a closed layer at the first main surface, wherein lower portions of the trenches form one or more cavities within the substrate. After that the closed layer is separated from the substrate along the one or more cavities.
Abstract:
A CVD reactor, including a deposition chamber housing a first susceptor and a second susceptor, the first susceptor having a cavity for receiving a first substrate, the first substrate having a front surface and a back surface, the second susceptor having a cavity for receiving a second substrate, the second substrate having a front surface and a back surface, and the first susceptor and the second susceptor are disposed so that the front surface of the first substrate is opposite to the front surface of the second substrate thereby forming a portion of a gas flow channel.
Abstract:
An integrated circuit substrate and a method for manufacturing the same are disclosed. In an embodiment a method includes providing a wafer having a plurality of active areas, each active area being provided in a separate die area and for each active area, providing a code pattern outside the active area, the code pattern being associated with the die area.
Abstract:
A method of forming a semiconductor device includes forming an active region in a first side of a silicon carbide substrate, the silicon carbide substrate having a second side opposite the first side and forming a contact pad at the first side. The contact pad is coupled to the active region. The method further includes forming an etch stop layer over the contact pad and plasma dicing the silicon carbide substrate from the second side. The plasma dicing etches through the silicon carbide substrate and stops on the etch stop layer. The diced silicon carbide substrate is held together by the etch stop layer. The diced silicon carbide substrate is attached on a carrier. The diced silicon carbide substrate is separated into silicon carbide dies by cleaving the etch stop layer.