Abstract: A method and system for creating 3D laser-induced images of a body or bodies suspended in air within a transparent material by way of using a scanner (e.g., a laser scanner) to optically scan an environment and stop action. The same 3D data may be utilized construct portraits of individuals through 3D laser etching, 3D laser cutting, 3D printing/rendering (or any form of rapid prototyping). Multiple scanners such as scanners 102, 104, 106 and 108 can be utilized to capture a complete person three dimensionally—laser scans on all X, Y, Z planes, thereby enabling synchronizing scans. Such an approach further enables the construction of a complete three-dimensional data model from multiple data.

Abstract: A method of manufacturing a semiconductor wafer having at least one device trench extending to a first depth position includes providing a semiconductor substrate having first and second main surfaces and a semiconductor material layer having first and second main surfaces disposed on the first main surface of the semiconductor substrate and determining an etch ratio. The least one device trench and at least one monitor trench are simultaneously formed in the first main surface of the semiconductor material layer. The at least one monitor trench is monitored to detect when it extends to a second depth position. A ratio of the first depth position to the second depth position is generally equal to the etch ratio.

Abstract: Methods for manufacturing trench type semiconductor devices containing thermally unstable refill materials are provided. A disposable material is used to fill the trenches and is subsequently replaced by a thermally sensitive refill material after the high temperature processes are performed. Trench type semiconductor devices manufactured according to method embodiments are also provided.

Abstract: In one embodiment, a high voltage semiconductor device is formed with a first dielectric layer and a charge stabilization layer comprising a flowable glass formed over the first dielectric layer.

Abstract: A method of manufacturing a semiconductor wafer having at least one device trench extending to a first depth position includes providing a semiconductor substrate having first and second main surfaces and a semiconductor material layer having first and second main surfaces disposed on the first main surface of the semiconductor substrate and determining an etch ratio. The least one device trench and at least one monitor trench are simultaneously formed in the first main surface of the semiconductor material layer. The at least one monitor trench is monitored to detect when it extends to a second depth position. A ratio of the first depth position to the second depth position is generally equal to the etch ratio.

Abstract: A method of manufacturing a semiconductor device includes providing a semiconductor wafer and forming at least one first trench in the wafer having first and second sidewalls and a first orientation on the wafer. The first sidewall of the at least one first trench is implanted with a dopant of a first conductivity at a first implantation direction. The first sidewall of the at least one first trench is implanted with the dopant of the first conductivity at a second implantation direction. The second implantation direction is orthogonal to the first implantation direction. The first and second implantation directions are non-orthogonal to the first sidewall.

Abstract: A method of manufacturing a superjunction device includes providing a semiconductor wafer having at least one die. At least one first trench having a first orientation is formed in the at least one die. At least one second trench having a second orientation that is different from the first orientation is formed in the at least one die.

Abstract: A method of manufacturing a superjunction device includes providing a semiconductor wafer having a plurality of dies. A first plurality of trenches having a first orientation are formed in a first die. A second plurality of trenches having a second orientation are formed in a second die. The second orientation is different from the first orientation.

Abstract: Superjunction semiconductor devices having narrow surface layout of terminal structures and methods of manufacturing the devices are provided. The narrow surface layout of terminal structures is achieved, in part, by connecting a source electrode to a body contact region within a semiconductor substrate at a body contact interface comprising at least a first side of the body contact region other than a portion of a first main surface of the semiconductor substrate.

Abstract: Methods for manufacturing trench type semiconductor devices involve refilling the trenches after high temperature processing steps are performed. The methods allow thermally unstable materials to be used as refill materials for the trenches of the device. Trench type semiconductor devices containing thermally unstable refill materials are also provided. In particular, methods of manufacturing and devices of a trench type semiconductor devices containing organic refill materials are provided.

Abstract: Methods for manufacturing trench type semiconductor devices containing thermally unstable refill materials are provided. A disposable material is used to fill the trenches and is subsequently replaced by a thermally sensitive refill material after the high temperature processes are performed. Trench type semiconductor devices manufactured according to method embodiments are also provided.

Abstract: A supercritical fluid chromatography using a column using a column having an optical isomer separating agent containing a polysaccharide derivative capable of optical isomer separation, wherein use is made of a mobile phase containing a supercritical fluid and wherein as the optical isomer separating agent received in the column to conduct optical isomer separation, an optical separating agent containing a polysaccharide derivative capable of optical isomer separation in an amount of 50% by mass or more based on the entirety of the optical isomer separating agent is used to thereby, even in the use of optical isomer separating agent with a multiplicity of identification sites, enable accomplishing excellent separation of optical isomers.

Abstract: In one embodiment, a high voltage semiconductor device is formed with a first dielectric layer and a charge stabilization layer comprising a flowable glass formed over the first dielectric layer.

Abstract: In one embodiment, a lateral FET structure (30) is formed in a body of semiconductor material (32). The structure (30) includes a plurality non-interdigitated drain regions (39) that are coupled together with a conductive layer (57), and a plurality of source regions (34) that are coupled together with a different conductive layer (51). One or more interlayer dielectrics (53,54) separate the two conductive layers (51,57). The individual source regions (34) are absent small radius fingertip regions.

Abstract: In one embodiment, a lateral FET structure (30) is formed in a body of semiconductor material (32). The structure (30) includes a plurality non-interdigitated drain regions (39) that are coupled together with a conductive layer (57), and a plurality of source regions (34) that are coupled together with a different conductive layer (51). One or more interlayer dielectrics (53,54) separate the two conductive layers (51,57). The individual source regions (34) are absent small radius fingertip regions.

Abstract: A semiconductor device (10, 40) is formed to have a well (19) in a substrate (11). The well and the substrate have the same doping type, for example both P-type or both N-type. Low resistance contact regions (26, 27) of a second conductivity type are formed to at least abut the well. A drain (17) is formed within one low resistance contact region. A source (12) is formed in the substrate and laterally displaced from the other low resistance contact region. A buried layer (21, 22, 23) is formed laterally across the well.

Abstract: A method of forming a semiconductor device (10, 40, 45, 50) forms a plurality of P and N stripes (16,17) within a first region (12) that is formed with an opposite conductivity to a substrate (11). The plurality of P and N stripes assist in providing a low on-resistance. A portion (15) of the first region underlies the P and N stripes and protects the semiconductor device from high voltages applied to the drain. A base layer (41) and a cap layer (48) further reduce the on-resistance of the semiconductor device.

Abstract: A semiconductor device (10,50) is disclosed which can accommodate a negative voltage on its source using a P-type substrate (12) which is connected to ground potential. A first embodiment illustrates a device which can handle high voltage applications as well as a negative voltage applied to the source. A drain contact region (29) is recessed by a dimension (X) from a first insulated region (18). The dimension (X) provides for an optimum distance for high voltage applications while avoiding lateral surface punch-through. A second embodiment illustrates a gate structure (52) having a shape which surrounds a drain contact region (62) and accommodates a high voltage application while also eliminating the lateral surface punch-through. The drain contact region (62) is formed in a P-type region (20) centered inside the gate structure (52).

Abstract: A semiconductor device (10,50) is disclosed which can accommodate a negative voltage on its source using a P-type substrate (12) which is connected to ground potential. A first embodiment illustrates a device which can handle high voltage applications as well as a negative voltage applied to the source. A drain contact region (29) is recessed by a dimension (X) from a first insulated region (18). The dimension (X) provides for an optimum distance for high voltage applications while avoiding lateral surface punch-through. A second embodiment illustrates a gate structure (52) having a shape which surrounds a drain contact region (62) and accommodates a high voltage application while also eliminating the lateral surface punch-through. The drain contact region (62) is formed in a P-type region (20) centered inside the gate structure (52).