Abstract: A semiconductor structure includes a semiconductor substrate and a gate structure embedded in the semiconductor substrate. The gate structure includes a gate electrode layer, a barrier layer disposed over the gate electrode layer, and a semiconductor layer disposed over the barrier layer. The semiconductor structure also includes an air gap in the semiconductor substrate and exposing the barrier layer and the semiconductor layer.

Abstract: A semiconductor device capable of performing product-sum operation is provided. The semiconductor device includes a first memory cell, a second memory cell, and an offset circuit. The semiconductor device retains first analog data and reference analog data in the first memory cell and the second memory cell, respectively. A potential corresponding to second analog data is applied to each of them as a selection signal, whereby current depending on the sum of products of the first analog data and the second analog data is obtained. The offset circuit includes a constant current circuit comprising a transistor and a capacitor. A first terminal of the transistor is electrically connected to a first gate of the transistor and a first terminal of the capacitor. A second gate of the transistor is electrically connected to a second terminal of the capacitor.

Abstract: A CMOS device with a plurality of PMOS transistors each having a PMOS drain and a plurality of NMOS transistors each having an NMOS drain includes a first interconnect and a second interconnect. The first interconnect is on an interconnect level extending in a length direction to connect the PMOS drains together, and the second interconnect is on the interconnect level extending in the length direction to connect the NMOS drains together. A set of interconnects on at least one additional interconnect level physically couple the first interconnect and the second interconnect to an output of the CMOS device. A third interconnect on the interconnect level extends perpendicular to the length direction and offset from the set of interconnects. The third interconnect is capable of flowing current from the PMOS drains or from the NMOS drains to the output of the CMOS device.

Abstract: A substrate for a SIP is that has a portion of its top surface covered with spaced apart electrically conductive landing pads for electrical connection to components located on the surface and the landing pads serve as interconnection pads for making electrical connections between at least a portion of said pads when interconnected by a segment of bond wire to form at least a portion of the SIP. Methods for use of the universal substrate in SIP system design and manufacture of a SIP.

Abstract: Disclosed is a method of manufacturing a polyorganosiloxane-based stamp comprising providing a master including a transfer pattern surface; forming a first layer of a first curable composition onto the transfer pattern surface such that the first layer includes a relief pattern of said transfer pattern; partially curing the first layer; depositing a second layer of a second curable composition onto the partially cured first layer; co-curing the partially cured first layer and the second layer to form a cured first layer having a first Young's modulus, adhered to a cured second layer having a second Young's modulus smaller than the first Young's modulus; depositing a third layer of a third curable composition onto the second layer, and curing the third layer to form a cured third layer adhered to the cured second layer. Further disclosed is a polyorganosiloxane-based stamp obtainable from the method; use of the same for printing process; and an imprinting method using the same.

Abstract: There is disclosed in one example a microprocessor, including: a decoder; an execution unit; an instruction set flag vector; and logic to decode an instruction, read a binary disable flag for the instruction within the instruction set flag vector, and execute the instruction within the execution unit only if the disable flag for the instruction is not set.

Abstract: A method for manufacturing a semiconductor device includes a step of reducing a thickness of a silicon oxide film embedded in an element isolation trench including fins in order to form protruded fins. In the step, the silicon oxide film is etched while covering part of an upper surface of the silicon oxide film with a resist pattern. At this time, the resist pattern is formed such that a distance between the fin and the resist pattern is equal to or less than a predetermined interval which is an arrangement interval of the plurality of fins.

Abstract: A semiconductor structure is disclosed. The semiconductor structure includes a staircase structure disposed over a substrate. The staircase structure includes a plurality of layer stacks, where each layer stack is made of a first material layer over a portion of a second material layer. The staircase structure further includes a plurality of landing pads, where each landing pad is disposed over another portion of the second material layer of a respective layer stack.

Abstract: A semiconductor device capable of performing product-sum operation is provided. The semiconductor device includes a first memory cell, a second memory cell, and an offset circuit. The semiconductor device retains first analog data and reference analog data in the first memory cell and the second memory cell, respectively. A potential corresponding to second analog data is applied to each of them as a selection signal, whereby current depending on the sum of products of the first analog data and the second analog data is obtained. The offset circuit includes a constant current circuit comprising a transistor and a capacitor. A first terminal of the transistor is electrically connected to a first gate of the transistor and a first terminal of the capacitor. A second gate of the transistor is electrically connected to a second terminal of the capacitor.

Abstract: A memory array comprising strings of memory cells comprises laterally-spaced memory blocks individually comprising a vertical stack comprising alternating insulative tiers and conductive tiers. Operative channel-material strings of memory cells extend through the insulative tiers and the conductive tiers. First dummy pillars in the memory blocks extend through at least a majority of the insulative tiers and the conductive tiers through which the channel-material strings extend. Second dummy pillars are laterally-between and longitudinally-spaced-along immediately-laterally-adjacent of the memory blocks. The second dummy pillars extend through at least a majority of the insulative tiers and the conductive tiers through which the operative channel-material strings extend laterally-between the immediately-laterally-adjacent memory blocks. Other embodiments, including method, are disclosed.

Abstract: Method and apparatus for authenticating analog mixed-signal integrated circuits using process-specific functions (PSF) comprising: presenting wafer having plurality of dies, each die having circuit with identical design but having inherent physical differences due to process variation in their manufacture, each circuit designed to enhance the effects of the inherent differences; defining selected number of inputs/stimuli for authenticating and identifying each integrated circuit; defining expected response for each circuit, wherein the expected response for each circuit is the same due to the identical design; defining statistical window for analog response by the circuit to the inputs/stimuli; applying the inputs/stimuli to each circuit; receiving analog response corresponding to the applied inputs/stimuli, wherein the analog response falls outside statistical window when there are functional or physical changes to the circuit; separating from plurality of dies each die providing a response outside the stati

Abstract: In some embodiments, a memory array comprising strings of memory cells comprise laterally-spaced memory blocks individually comprising a vertical stack comprising alternating insulative tiers and conductive tiers. Operative channel-material strings of memory cells extend through the insulative tiers and the conductive tiers. Insulative pillars are laterally-between and longitudinally-along immediately-laterally-adjacent of the memory blocks. The pillars comprise vertically-spaced and radially-projecting insulative rings in the conductive tiers as compared to the insulative tiers. Other embodiments, including methods, are disclosed.

Abstract: A method for fabricating semiconductor device is disclosed. First, a substrate is provided, and first fuse branches and second fuse branches are formed in the substrate, in which the first fuse branches and the second fuse branches are separated by a shallow trench isolation (STI) and the second fuse branches include different sizes. Next, fuse elements are formed to connect the first fuse branches and the second fuse branches.

Abstract: Active-on-active microelectronic devices are described. For example, a first die is on a second die with a bottom surface of a first substrate facing a top surface of a second substrate, respectively, to provide a die stack. The first and second dies each have metal layers in ILD layers to provide a first stack structure and a second stack structure, respectively. The first stack structure is interconnected to an upper end of a TSV of the first die. A metal layer of the second stack structure near a bottom surface of the first substrate is interconnected to a lower end of the TSV. A power distribution network layer of the second stack structure is located between lower and upper layers of the metal layers thereof. A transistor located at least in part in the second substrate is interconnected to the power distribution network layer to receive supply voltage or ground.

Abstract: A mesh interconnect interface includes a dielectric slice; first micro-bumps aligned along a longitudinal axis and positioned closest to a driver bank, which is to be coupled to a first mesh stop of a first chiplet; second micro-bumps similarly aligned and positioned farthest from the first driver bank; third micro-bumps similarly aligned and positioned closest to a second driver bank, which is to be coupled to a second mesh stop of a second chiplet; fourth micro-bumps similarly aligned and positioned farthest from the second driver bank, wherein the longitudinal axis is orthogonal to a gap between the chiplets. The groups of micro-bumps are disposed on the slice. A first group of wires are embedded in the slice to couple the first and second micro-bumps. A second group of wires are interleaved with the first group of wires and embedded in the slice to couple the second and third micro-bumps.

Abstract: A trench MOSFET layout with multiple trenched floating gates and at least one trenched channel stop gate in termination area shorted with drain region is disclosed to make it feasibly achieved after die sawing. The layout consisted of multiple trench MOSFETs connected together with multiple sawing trenched gates across a space between two trench MOSFETs having a width same as scribe line. Dummy cells formed between an edge trench and active area act as buffer cells to absorb avalanche energy when gate bias is increasing for turning on channel, therefore, the UIS failure issue is avoided and the avalanche capability of the trench MOSFET is enhanced.

Abstract: A semiconductor device according to an embodiment includes a first electrode pad containing copper as a main component and having a thickness equal to or more than 5 ?m and less than 50 ?m; an electrode layer containing copper as a main component and having a thickness equal to or more than 5 ?m and less than 50 ?m; and a semiconductor layer provided between the first electrode pad and the electrode layer.

Abstract: According to one embodiment, a nonvolatile memory device includes first and second word lines, first and second bit lines, memory cells each including a resistance change memory element, a global word line including a first global word line portion including a first end portion, a global bit line including a first global bit line portion including a second end portion. The first and second word lines and the first global bit line portion have a first line width and a first line thickness, the first and second bit lines and the first global word line portion have a second line width and a second line thickness.

Abstract: A power module includes a power circuit which includes one or more power semiconductors; and a control circuit which supplies a gate signal to each of the one or more power semiconductors. The control circuit includes one or more gate drivers which generate the gate signal in accordance with a control signal and in which a side to which the control signal is input and a side on which the gate signal is generated are insulated, a control input circuit to which the control signal is input and which supplies the control signal to the one or more gate drivers, and a control output circuit which supplies the gate signal to each of the power semiconductors.

Abstract: The subject in the past is that there are a large number of data wirings in a semiconductor device including multiple memory cell arrays and that the area occupied by the data wirings is large. In a selected memory cell array among multiple memory cell arrays, a data wiring functions as a local wiring that transmits the data of the selected memory cell. In a memory cell array that is not selected among the memory cell arrays and is located between a data circuit and the selected memory cell array, the data wiring functions as a global wiring that transmits the data of a memory cell of the selected memory cell array.

Abstract: A display device includes a substrate having a pixel area and a peripheral area, a plurality of pixels disposed on the substrate in the pixel area, a plurality of data lines that supply a plurality of data signals to the pixels, a plurality of scan lines that supply a plurality of scan signals to the pixels, a plurality of power supply lines that supply a first voltage to the pixels, and first through third insulating layers. The first insulating layer is disposed on the substrate, the second insulating layer is disposed on the first insulating layer, and the third insulating layer is disposed on the second insulating layer. The scan lines are disposed below the third insulating layer on the substrate in the pixel area, and are disposed on the third insulating layer in the peripheral area.

Abstract: A recessed access device comprises a conductive gate in a trench in semiconductor material. A gate insulator is along sidewalls and a base of the trench between the conductive gate and the semiconductor material. A pair of source/drain regions is in upper portions of the semiconductor material on opposing sides of the trench. A channel region is in the semiconductor material below the pair of source/drain regions along the trench sidewalls and around the trench base. At least some of the channel region comprises GaP.

Abstract: Some embodiments include an integrated assembly having a semiconductor-containing structure with a body region vertically between an upper region and a lower region. The upper region includes a first source/drain region. The lower region is split into two legs which are both joined to the body region. One of the legs includes a second source/drain region and the other of the legs includes a body contact region. The first and second source/drain regions are of a first conductivity type, and the body contact region is of a second conductivity type which is opposite to the first conductivity type. An insulative material is adjacent to the body region. A conductive gate is adjacent to the insulative material. A transistor includes the semiconductor-containing structure, the conductive gate and the insulative material. Some embodiments include methods of forming integrated assemblies.

Abstract: Memory devices for facilitating pattern matching and having an array of memory cells, a plurality of key registers to store a representation of a key word, and a plurality of multiplexers, each multiplexer of the plurality of multiplexers to select a representation of a bit from a key register of the plurality of key registers to compare to data stored in the array of memory cells.

Abstract: Aspects of the present disclosure address systems and methods for shortening clock tree wirelength based on target offsets in connected routes. A method may include accessing a clock tree comprising routes that interconnect a plurality of pins. Each pin corresponds to a terminal of a clock tree instance. The method further includes identifying a first and second terminal of a clock tree instance in the clock tree. The method further includes determining a first offset based on a distance between the first terminal and a branch in a first route connected to the first terminal and determining a second offset based on a distance between the second terminal and a branch in a second route connected to the second terminal. The method further includes moving the clock tree instance from a first location to a second location based on a target offset determined by comparing the first and second offsets.

Abstract: One illustrative device disclosed herein includes a first pull-up transistor positioned in a first P-type nano-sheet and a first pull-down transistor and a first pass gate transistor positioned in a first N-type nano-sheet. The device further includes a second pull-up transistor positioned in a second P-type nano-sheet and a second pull-down transistor and a second pass gate transistor positioned in a second N-type nano-sheet. The device further includes a read pull-down transistor and a read pass gate transistor positioned in a third N-type nano-sheet. The device also includes a first shared gate structure positioned adjacent the first pull-up transistor and the first pull-down transistor and a second shared gate structure positioned adjacent the second pull-up transistor, the second pull-down transistor and the read pull-down transistor.

Abstract: A semiconductor device includes a multilayer wiring structure on a substrate. The multilayer wiring structure includes: a top wiring; a fuse element, which is located on a lower layer-side of the top wiring, and is made of metal having a melting point that is higher than that of the top wiring; and a lower-layer wiring, which is connected to each of ends of the fuse element. Provided is a semiconductor device in which fuse elements made of the high-melting point metal are arranged at high density.

Abstract: A method of forming a semiconductor device assembly comprises forming tiers comprising conductive structures and insulating structures in a stacked arrangement over a substrate. Portions of the tiers are selectively removed to form a stair step structure comprising a selected number of steps exhibiting different widths corresponding to variances in projected error associated with forming the steps. Contact structures are formed on the steps of the stair step structure. Semiconductor device structures and semiconductor devices are also described.

Abstract: The semiconductor device includes a first inserter and a second inverter which is connected thereto in series. Each of the first and the second inserters includes a p-channel transistor and an n-channel transistor, respectively. The number of projection semiconductor layers each as the active region of the p-channel and the n-channel transistors of the second inverter is smaller than the number of the projection semiconductor layers each as the active region of the p-channel and the n-channel transistors of the first inverter.

Abstract: Some embodiments include a method of forming integrated circuitry. A structure has first conductive lines over a dielectric bonding region, has semiconductor material pillars extending upwardly from the first conductive lines, and has second conductive lines over the first conductive lines and extending along sidewalls of the semiconductor material pillars. The first conductive lines extend along a first direction, and the second conductive lines extend along a second direction which intersects the first direction. The structure includes semiconductor material under the dielectric bonding region. Memory structures are formed over the semiconductor material pillars. The memory structures are within a memory array. Third conductive lines are formed over the memory structures. The third conductive lines extend along the first direction. Individual memory structures of the memory array are uniquely addressed through combinations of the first, second and third conductive lines.

Abstract: A first metal layer of a semiconductor device includes a plurality of first metal lines that each extend along a first axis, and a first rail structure that extends along the first axis. The first rail structure is physically separated from the first metal lines. A second metal layer is located over the first metal layer. The second metal layer includes a plurality of second metal lines that each extend along a second axis orthogonal to the first axis, and a second rail structure that extends along the first axis. The second rail structure is physically separated from the second metal lines. The second rail structure is located directly over the first rail structure. A plurality of vias is located between the first metal layer and the second metal layer. A subset of the vias electrically interconnects the first rail structure to the second rail structure.

Abstract: The present invention provides electronic systems, including device arrays, comprising functional device(s) and/or device component(s) at least partially enclosed via one or more fluid containment chambers, such that the device(s) and/or device component(s) are at least partially, and optionally entirely, immersed in a containment fluid. Useful containment fluids for use in fluid containment chambers of electronic devices of the invention include lubricants, electrolytes and/or electronically resistive fluids. In some embodiments, for example, electronic systems of the invention comprise one or more electronic devices and/or device components provided in free-standing and/or tethered configurations that decouple forces originating upon deformation, stretching or compression of a supporting substrate from the free standing or tethered device or device component.

Abstract: In one embodiment, a system comprises: a global clock input for receiving a global clock, a plurality of partitions; and a skew tolerant interface configured to compensate for clock skew differences between a global clock from outside at least one of the partitions and a balanced local clock within at least one of the partitions. The partitions can be test partitions. The skew tolerant interface can cross a mesochronous boundary. In one exemplary implementation, the skew tolerant interface includes a deskew ring buffer on communication path of the at least one partition. pointers associated with the ring buffer can be free-running and depend only on clocks being pulsed when out of reset. The scheme can be fully synchronous and deterministic. The scheme can be modeled for the ATPG tools using simple pipeline flops. The depth of the pipeline can be dependent on the pointer difference for the read/write interface. The global clock input can be part of a scan link.

Abstract: A semiconductor device includes a first interlayer film formed on an upper surface of a substrate, a first metal wiring line, a second interlayer film, a second metal wiring line, a first via electrically connecting the first metal wiring line and the second metal wiring line, a landing pad embedded in an upper portion of the first interlayer film and penetrating the second interlayer film, and a second via penetrating the substrate and the first interlayer film from a back side of the substrate and connected to the landing pad. The lower surface position of the landing pad is different from that of the first metal wiring line.

Abstract: A cell circuit and corresponding layout is disclosed to include linear-shaped diffusion fins defined to extend over a substrate in a first direction so as to extend parallel to each other. Each of the linear-shaped diffusion fins is defined to project upward from the substrate along their extent in the first direction. A number of gate level structures are defined to extend in a conformal manner over some of the number of linear-shaped diffusion fins. Portions of each gate level structure that extend over any of the linear-shaped diffusion fins extend in a second direction that is substantially perpendicular to the first direction. Portions of each gate level structure that extend over any of the linear-shaped diffusion fins form gate electrodes of a corresponding transistor. The diffusion fins and gate level structures can be placed in accordance with a diffusion fin virtual grate and a gate level virtual grate, respectively.

Abstract: An array substrate, a display panel and a display device. The array substrate includes a base substrate including a plurality of pixel areas and a first data line on the base substrate and between adjacent pixel areas; a side slope angle of the first data line is not greater than about 60°.

Abstract: The present invention generally relates to a MEMS DVC having a shielding electrode structure between the RF electrode and one or more other electrodes that cause a plate to move. The shielding electrode structure may be grounded and, in essence, block or shield the RF electrode from the one or more electrodes that cause the plate to move. By shielding the RF electrode, coupling of the RF electrode to the one or more electrodes that cause the plate to move is reduced and capacitance modulation is reduced or even eliminated.

Abstract: Some embodiments include a method of forming an integrated assembly. Conductive lines are formed to extend along a first direction, and are spaced from one another by a first pitch. Protective knobs are formed over the conductive lines and are arranged in rows. The protective knobs within each row are spaced along a second pitch which is greater than the first pitch. The protective knobs protect regions of the conductive lines while leaving other regions of the conductive lines unprotected. The unprotected regions are recessed so that the protected regions become tall regions and the unprotected regions become short regions. The protective knobs are removed. Conductive structures are formed over the conductive lines. The conductive structures are spaced along the second pitch. Each of the conductive lines is uniquely coupled to only one of the conductive structures. Some embodiments include integrated assemblies.

Abstract: A method for manufacturing a semiconductor element includes forming a first region in a semiconductor region by ion-implanting impurities using a first mask; forming an interconnect including a gate portion extending in a first direction over the first region; and forming a source/drain region by ion-implanting impurities into a second region. A gate threshold voltage of the semiconductor element has first to third correlations dependent respectively on distances between an inner wall of the first mask and an outer edge of the second region, between the gate portion and the outer edge of the second region and between the outer edge of the second portion and a portion of the interconnect other than the gate portion. At least one of the distances is determined based on the first to third correlations to obtain a prescribed gate threshold voltage of the semiconductor element.

Abstract: A semiconductor device includes a fin structure, first and second gate structures, a source/drain region, a source/drain contact layer and a separation layer. The fin structure protrudes from an isolation insulating layer disposed over a substrate and extends in a first direction. The first and second gate structures are formed over the fin structure and extend in a second direction crossing the first direction. The source/drain region is disposed between the first and second gate structures. The interlayer insulating layer is disposed over the fin structure, the first and second gate structures and the source/drain region. The first source/drain contact layer is disposed on the first source/drain region. The separation layer is disposed adjacent to the first source/drain contact layer. Ends of the first and second gate structures and an end of the source drain contact layer are in contact with a same face of the separation layer.

Abstract: An integrated circuit is provided. In one implementation, the integrated circuit includes a first standard cell, comprising at least one first PMOS transistor disposed in a first row in a semiconductor substrate and at least one first NMOS transistor disposed in a first area of a second row in the semiconductor substrate, and a second standard cell, comprising a plurality of second PMOS transistors disposed in the first row and a third row in the semiconductor substrate and a plurality of second NMOS transistors disposed in a second area of the second row in the semiconductor substrate, wherein the second row is adjacent to the first and third rows and arranged between the first and third rows.

Abstract: Methods of integrating a HV ESD PNP bipolar transistor in a VFET process and the resulting devices are provided. Embodiments include forming a DNW region in a portion of a p-sub; forming a HVPDDD region in a portion of the DNW region; forming a first and a second NW in a portion of the DNW region, the second NW between the first NW and the HVPDDD region and laterally separated from the HVPDDD region; forming a PW in a portion of the HVPDDD region; forming an N+ implant in a portion of the first NW and a P+ implant in a portion of the PW; forming a first, a second and a third fin structures over the first and the second NW and the PW, respectively; and forming a N+ S/D, a P+ S/D and a P+ S/D over the first, the second and the third fin structures, respectively.

Abstract: An integrated circuit chip includes a substrate, a first type memory cell, and a second type memory cell. The first type memory cell is disposed over the substrate and includes an N-type transistor. The N-type transistor of the first type memory cell includes a gate electrode including a first work function layer having a first thickness. The second type memory cell is disposed over the substrate and includes an N-type transistor. The N-type transistor of the second type memory cell includes a gate electrode including a second work function layer having a second thickness different from the first thickness. The first type memory cell and the second type memory cell substantially have the same cell size.

Abstract: A method for structure design including a processor performing error processing of an initial design file layout. The processor detects a structure design violation at a design cell boundary for a metal layer above (Ma) a via (Vx) at a tip of the Ma for the initial design file layout for a semiconductor structure based on a library of pattern rules. Upon detection of the structure design violation, the processor retargets the Vx for generating a resulting design file layout of the semiconductor structure. A physical semiconductor structure is generated based on the resulting design file layout of the semiconductor structure.

Abstract: A three-dimensional (3D) semiconductor memory device may include a substrate including a cell array region and a connection region, an electrode structure including pluralities of first and second electrodes that are vertically and alternately stacked on a surface of the substrate, extending in a first direction that is parallel to the surface of the substrate, and may include a stair step structure on the connection region, first and second string selection electrodes that extend in the first direction on the electrode structure and spaced apart from each other in a second direction that is parallel to the surface of the substrate and perpendicular to the first direction. The first and second string selection electrodes may each include an electrode portion on the cell array region and a pad portion that extends from the electrode portion in the first direction and on the connection region.

Abstract: A method for defining a structure of a photovoltaic system on a system surface with a local topology is provided, including: first placement of a block at a location on the system surface with the local topology; placing additional blocks at additional locations on the system surface without overlapping previously placed blocks, wherein prior to each placement, row spacing of the solar panels of each additional block is adapted to the topology at the location at which the respective additional block was placed, resulting in a change in the extension of the additional block in the direction of the column of solar panels of the additional block, and ending the placement of additional blocks if, by the placement of an additional block, the nominal capacity of a photovoltaic system corresponding to the structure were to be exceeded, or if no additional block can be placed without overlapping previously placed blocks.

Abstract: According to one embodiment, a semiconductor device includes a stacked body, a columnar portion, and a first air gap. The stacked body includes a plurality of conductive layers stacked with an insulator interposed. The columnar portion extends through the stacked body in a stacking direction of the stacked body. The first air gap extends through the stacked body in the stacking direction. The insulator includes an insulating layer provided at a periphery of a side surface of the columnar portion, and a second air gap communicating with the first air gap and being provided between the insulating layer and the first air gap. The insulating layer has a protrusion at an end adjacent to the second air gap.

Abstract: A pad formed in a semiconductor chip is formed such that a thickness of an aluminum film in a wire bonding portion is smaller than that of an aluminum film in a peripheral portion covered with a protective film. On the other hand, a thickness of a wiring formed in the same step as the pad is larger than that of the pad in the wire bonding portion. The main conductive film of the pad in the wire bonding portion is comprised of only one layer of a first aluminum film, while the main conductive film of the wiring is comprised of at least two layers of aluminum films (the first aluminum film and a second aluminum film) in any region of the wiring.

Abstract: A semiconductor memory having a memory cell structure capable of reducing soft error without complicating a circuit configuration. Specifically, an inverter (I1) consists of a NMOS transistor (N1) and a PMOS transistor (P1), and an inverter (I2) consists of a NMOS transistor (N2) and a PMOS transistor (P2). The inverters (I1, I2) are subjected to cross section. The NMOS transistor (N1) is formed within a P well region (PW0), and the NMOS transistor (N2) is formed within a P well region (PW1). The P well regions (PW0, PW1) are oppositely disposed with an N well region (NW) interposed therebetween.

Abstract: A semiconductor memory having a memory cell structure capable of reducing soft error without complicating a circuit configuration. Specifically, an inverter (I1) consists of a NMOS transistor (N1) and a PMOS transistor (P1), and an inverter (I2) consists of a NMOS transistor (N2) and a PMOS transistor (P2). The inverters (I1, I2) are subjected to cross section. The NMOS transistor (N1) is formed within a P well region (PW0), and the NMOS transistor (N2) is formed within a P well region (PW1). The P well regions (PW0, PW1) are oppositely disposed with an N well region (NW) interposed therebetween.