Abstract: When a memory cell is formed over a first fin and a low breakdown voltage transistor is formed over a second fin, the depth of a first trench for dividing the first fins in a memory cell region is made larger than that of a second trench for dividing the second fins in a logic region. Thereby, in the direction perpendicular to the upper surface of a semiconductor substrate, the distance between the upper surface of the first fin and the bottom surface of an element isolation region in the memory cell region becomes larger than that between the upper surface of the second fin and the bottom surface of the element isolation region in the logic region.

Abstract: A semiconductor device includes a vertical FET device and a Schottky bypass diode. The vertical FET device includes a gate contact, a source contact, and a drain contact. The gate contact and the source contact are separated from the drain contact by at least a drift layer. The Schottky bypass diode is coupled between the source contact and the drain contact and monolithically integrated adjacent to the vertical FET device such that a voltage placed between the source contact and the drain contact is distributed throughout the drift layer by the Schottky bypass diode in such a way that a voltage across each one of a plurality of P-N junctions formed between the source contact and the drain contact within the vertical FET device is prevented from exceeding a barrier voltage of the respective P-N junction.

Abstract: A first oxide semiconductor region serving as a channel region of a TFT is formed on a first insulating region of a gate insulating film whose hydrogen content is comparatively low, and a second oxide semiconductor region that contacts with a source electrode and a drain electrode is formed on a second insulating region of a gate insulating film whose hydrogen content is comparatively high. For this reason, sheet resistance R1 of the first oxide semiconductor region is comparatively high, and sheet resistance R3 of the second oxide semiconductor region is comparatively low so that R1>R3.

Abstract: A method for producing a microelectronic device with one or more transistor(s) including forming a first gate on a region of a semiconductor layer, forming a first cavity in the semiconductor layer, the first cavity having a wall contiguous with the given region, filling the first cavity in such a way as to form a first semiconductor block wherein a source or drain region of the first transistor is capable of being produced, by epitaxial growth of a first semiconductor material in the first cavity, the growth being carried out such that a first zone of predetermined thickness of the layer of first semiconductor material lines the wall contiguous with the given region, epitaxial growth of a second zone made of a second semiconductor material on the first zone.

Abstract: A semiconductor device includes a first laminated body and a second laminated body. The first laminated body includes sequentially a first element, a first wiring layer, and a first connection layer that includes a first junction electrode, on a main surface of a first substrate. The second laminated body includes sequentially a second element, a second wiring layer, and a second connection layer that includes a second junction electrode, on a main surface of a semiconductor substrate. The first laminated body and the second laminated body are bonded by directly bonding the first junction electrode and the second junction electrode with the two junction electrodes facing each other. A space region is formed at a part of a junction interface between the first laminated body and the second laminated body.

Abstract: Apparatuses relating generally to a vertically integrated microelectronic package are disclosed. In an apparatus thereof, a substrate has an upper surface and a lower surface opposite the upper surface. A first microelectronic device is coupled to the upper surface of the substrate. The first microelectronic device is a passive microelectronic device. First wire bond wires are coupled to and extend away from the upper surface of the substrate. Second wire bond wires are coupled to and extend away from an upper surface of the first microelectronic device. The second wire bond wires are shorter than the first wire bond wires. A second microelectronic device is coupled to upper ends of the first wire bond wires and the second wire bond wires. The second microelectronic device is located above the first microelectronic device and at least partially overlaps the first microelectronic device.

Abstract: A semiconductor device includes a substrate having a semiconductor surface doped a second dopant type with a buried layer (BL) doped a first dopant type. First, second and third well regions doped the second dopant type are on top of the BL. Second doped regions doped the first dopant type on top of and contacting the BL arraigned as a first well ring and second well ring are around the first and third well regions respectively. At least one high-injection component including the first well region is surrounded by the first well ring. At least one component including the third well region is surrounded by the second well ring. An npn or pnp guard wall pocket including a wall of the first and second well rings, and the second well region is between the high-injection component and the component.

Abstract: A vertical memory device includes a plurality of stacked structures, at least one inter-structure layer, and a channel structure. The plurality of stacked structures comprises a plurality of gate electrodes and a plurality of insulation film patterns that are alternately and repeatedly stacked on a substrate. At least one inter-structure layer is positioned between the two stacked structures adjacent to each other from among the plurality of stacked structures. A channel structure penetrates the plurality of stacked structures and the at least one inter-structure layer, the channel structure extending in the first direction, the channel structure being connected to the substrate.

Abstract: Field-effect transistor (FET) devices are described herein that include one or more body contacts implemented near source, gate, drain (S/G/D) assemblies to improve the influence of a voltage applied at the body contact on the S/G/D assemblies. For example, body contacts can be implemented between S/G/D assemblies rather than on the ends of such assemblies. This can advantageously improve body contact influence on the S/G/D assemblies while maintaining a targeted size for the FET device.

Abstract: A semiconductor device includes an active device of a transistor disposed in a semiconductor substrate. An isolation layer is disposed at the semiconductor substrate, and a polysilicon substrate layer is disposed over the isolation layer and the semiconductor substrate. The polysilicon substrate layer includes a semiconductor device region of an interface protection circuit of the transistor.

Abstract: A display panel includes a substrate with a plurality of color sub pixel regions and a white sub pixel region constituting a unit pixel; a color filter layer with a color filter provided in each of the plurality of color sub pixel regions; and a reflection reduction layer provided in the white sub pixel region. The reflection reduction layer includes at least one color filter selected from the color filter layer, and a thickness of the reflection reduction layer is smaller than a thickness of the selected color filter.

Abstract: An integrated circuit is provided. The integrated circuit includes a substrate, a first FinFET device supported by the substrate, the first FinFET device having a first fin with a non-tiered fin profile, and a second FinFET supported by the substrate, the second FinFET having a second fin with a tiered fin profile.

Abstract: Mechanisms for forming a semiconductor device are provided. The semiconductor device includes a contact pad over a substrate. The semiconductor device also includes a passivation layer over the substrate and a first portion of the contact pad, and a second portion of the contact pad is exposed through an opening. The semiconductor device further includes a post-passivation interconnect layer over the passivation layer and coupled to the second portion of the contact pad. In addition, the semiconductor device includes a bump over the post-passivation interconnect layer and outside of the opening. The semiconductor device also includes a diffusion barrier layer physically insulating the bump from the post-passivation interconnect layer while electrically connecting the bump to the post-passivation interconnect layer.

Abstract: A method of forming a semiconductor structure includes forming outer spacers surrounding a dummy gate, the dummy gate being disposed over a channel stack comprising two or more nanosheet channels and sacrificial layers formed above and below each of the two or more nanosheet channels. The method also includes forming an oxide surrounding the outer spacers, the oxide being disposed over source/drain regions surrounding the channel stack. The method further includes removing the dummy gate, removing the outer spacers, and performing a channel release to remove the sacrificial layers in the channel stack following removal of the outer spacers. The method further includes performing conformal deposition of a dielectric layer and a work function metal on exposed portions of the oxide, and filling a gate metal over the channel stack, the gate metal being surrounded by the work function metal.

Abstract: According to one embodiment, a semiconductor device includes a substrate and a semiconductor layer. The device further includes a first electrode layer that is provided on a side surface of the semiconductor layer with a first insulating film interposed therebetween. The device further includes a charge storage layer provided on a side surface of the first electrode layer with the second insulating film interposed therebetween.

Abstract: A robust electrostatic (ESD) protection device is provided. In one example, the ESD protection device is configured to accommodate three nodes. When used with a differential signal device, the first and second nodes may be coupled with the differential signal device's BP and BM signal lines, respectively, and the third node may be coupled to a voltage source. This allows for a single ESD protection device to be used to protect the signal lines of the differential signal device, thus providing significant substrate area savings as compared to the conventional means of using three dual-node ESD protection devices to accomplish substantially the same protection mechanism. Moreover, the ESD protection device may be structurally designed to handle high voltage ESD events, as required by the FlexRay standard.

Abstract: A three-dimensional (3D) semiconductor device includes a stack structure including first and second stacks stacked on a substrate. Each of the first and second stacks includes a first electrode and a second electrode on the first electrode. A sidewall of the second electrode of the first stack is horizontally spaced apart from a sidewall of the second electrode of the second stack by a first distance. A sidewall of the first electrode is horizontally spaced apart from the sidewall of the second electrode by a second distance in each of the first and second stacks. The second distance is smaller than a half of the first distance.

Abstract: Over a semiconductor substrate, a memory gate electrode for a nonvolatile memory cell is formed via a first insulating film having an internal charge storage portion. A dummy control gate electrode is formed so as to be adjacent to the memory gate electrode via a second insulating film. The memory and the dummy control gate electrodes are made of different materials. A third insulating film is formed so as to cover the memory and the dummy control gate electrodes and then polished to expose the memory and the dummy control gate electrodes. Then, etching is performed under a condition in which the memory gate electrode is less likely to be etched than the dummy control gate electrode to remove the dummy control gate electrode. Then, in a trench as a region from which the dummy control gate electrode is removed, a control gate electrode for the memory cell is formed.

Abstract: A low voltage transient voltage suppressing (TVS) device supported on a semiconductor substrate supporting an epitaxial layer to form a bottom-source metal oxide semiconductor field effect transistor (BS-MOSFET) that comprises a trench gate surrounded by a drain region encompassed in a body region disposed near a top surface of the semiconductor substrate. The drain region interfaces with the body region constituting a junction diode. The drain region on top of the epitaxial layer constituting a bipolar transistor with a top electrode disposed on the top surface of the semiconductor functioning as a drain/collector terminal and a bottom electrode disposed on a bottom surface of the semiconductor substrate functioning as a source/emitter electrode. The body regions further comprises a surface body contact region electrically connected to a body-to-source short-connection thus connecting the body region to the bottom electrode functioning as the source/emitter terminal.

Abstract: An illumination device including a light source positioned at the distal end of a reflecting unit and a heat sink light transmissive substrate including quantum dots positioned at the proximal end of the reflecting unit with the reflecting unit having one or more reflecting side walls and a reflecting bottom wall and with the light source being separated a distance from the light transmissive substrate including quantum dots. In certain embodiments, the light source is an LED.