Abstract: An integrated circuit includes a substrate, at least one n-type semiconductor device, and at least one p-type semiconductor device. The n-type semiconductor device is present on the substrate. The n-type semiconductor device includes a gate structure having a bottom surface and at least one sidewall. The bottom surface of the gate structure of the n-type semiconductor device and the sidewall of the gate structure of the n-type semiconductor device intersect to form an interior angle. The p-type semiconductor device is present on the substrate. The p-type semiconductor device includes a gate structure having a bottom surface and at least one sidewall. The bottom surface of the gate structure of the p-type semiconductor device and the sidewall of the gate structure of the p-type semiconductor device intersect to form an interior angle smaller than the interior angle of the gate structure of the n-type semiconductor device.

Abstract: Three-dimensional (3D) semiconductor memory devices are provided. A 3D semiconductor memory device includes an electrode structure on a substrate. The electrode structure includes gate electrodes stacked on the substrate. The gate electrodes include electrode pad regions. The 3D semiconductor memory device includes a dummy vertical structure penetrating one of the electrode pad regions. The dummy vertical structure includes a dummy vertical semiconductor pattern and a contact pattern extending from a portion of the dummy vertical semiconductor pattern toward the substrate.

Abstract: An integrated circuit structure includes a first material block comprising a first block insulator layer and a first multilayer stack on the first block insulator layer, the first multilayer stack comprising interleaved pillar electrodes and insulator layers. A second material block is stacked on the first material block and comprises a second block insulator layer, and a second multilayer stack on the second block insulator layer, the second multilayer stack comprising interleaved pillar electrodes and insulator layers. At least one pillar extends through the first material block and the second material block, wherein the at least one pillar has a top width at a top of the first and second material blocks that is greater than a bottom width at a bottom of the first and second material blocks.

Abstract: A vertical memory device includes gate electrodes disposed on a substrate and spaced apart from each other in a vertical direction. A channel extends in the vertical direction and is positioned adjacent to the gate electrodes. A tunnel insulation pattern is disposed on a portion of an outer sidewall of the channel that is adjacent to each of the gate electrodes. Charge trapping pattern structures are disposed between the tunnel insulation pattern and each of the gate electrodes. Each of the charge trapping pattern structures includes upper and lower charge trapping patterns spaced apart from each other in the vertical direction. Blocking pattern structures are between the charge trapping patterns and each of the gate electrodes. A first portion of the channel that is adjacent to the tunnel insulation pattern has a thickness in a horizontal direction that is smaller than a thickness of other portions of the channel.

Abstract: A method of forming circuitry components includes forming a stack of horizontally extending and vertically overlapping features. The features extend horizontally though a primary portion of the stack with at least some of the features extending farther in the horizontal direction in an end portion. Operative structures are formed vertically through the features in the primary portion and dummy structures are formed vertically through the features in the end portion. Openings are formed through the features to form horizontally elongated and vertically overlapping lines from material of the features. The lines individually extend laterally about sides of vertically extending portions of both the operative structures and the dummy structures. Sacrificial material that is elevationally between the lines is at least partially removed in the primary and end portions laterally between the openings. Other aspects and implementations are disclosed.

Abstract: Apparatuses and methods for stair step formation using at least two masks, such as in a memory device, are provided. One example method can include forming a first mask over a conductive material to define a first exposed area, and forming a second mask over a portion of the first exposed area to define a second exposed area, the second exposed area is less than the first exposed area. Conductive material is removed from the second exposed area. An initial first dimension of the second mask is less than a first dimension of the first exposed area and an initial second dimension of the second mask is at least a second dimension of the first exposed area plus a distance equal to a difference between the initial first dimension of the second mask and a final first dimension of the second mask after a stair step structure is formed.

Abstract: Various embodiments, disclosed herein, include methods and apparatus having charge trap structures, where each charge trap structure includes a dielectric harrier between a gate and a blocking dielectric on a charge trap region of the charge trap structure. In various embodiments, material of the dielectric harrier of each of the charge trap structures may have a dielectric constant greater than that of aluminum oxide. Additional apparatus, systems, and methods are disclosed.

Abstract: The disclosed technology generally relates to semiconductor devices, and more particularly to three-dimensional semiconductor devices. In one aspect, a method of manufacturing a three-dimensional (3D) semiconductor device includes providing a horizontal layer structure above a substrate and forming an opening that extends vertically through the horizontal layer structure to the substrate. The method additionally includes lining an inside vertical surface of the opening with a gate stack and lining the inside vertical surface of the opening having the gate stack formed thereon with a sacrificial material layer. The method additionally includes filling the opening with a filling material and removing the sacrificial material layer to form a recess. The method further includes forming the channel by epitaxially growing, in the recess, a channel material upwards from the substrate.

Abstract: A semiconductor structure and a method for manufacturing the same are provided. The semiconductor structure includes a source line structure. The source line structure includes a composite material formed in a trench. The composite material includes an oxide portion and a metal portion.

Abstract: A semiconductor device is disclosed. A semiconductor device according to an example of the present disclosure includes a gate electrode of a ring shape having an opening area on a substrate; a P-type deep well region formed in the opening area; a drain region formed on the P-type deep well region; an N-type well region overlapping with the gate electrode; a source region formed in the N-type well region; a bulk tab region formed by being isolated from the source region by a first isolation region; a P-type drift region formed in contact with the N-type well region; and a second isolation region formed near the bulk tab region.

Abstract: A thin film transistor includes an active layer, a source electrode and a drain electrode. The active layer includes a conductive region and the conductive region is between the source electrode and the drain electrode and is spaced apart from at least one of the source electrode and the drain electrode.

Abstract: A semiconductor device includes a substrate including a memory cell region and a connection region, a plurality of gate electrodes stacked on the substrate, a channel structure penetrating the plurality of gate electrodes and including a channel layer extending in a vertical direction perpendicular to an upper surface of the substrate in the memory cell region, a dummy channel structure penetrating the plurality of gate electrodes and including a dummy channel layer extending in the vertical direction in the connection region, a first semiconductor layer disposed between the substrate and a lowermost one of the plurality of gate electrodes and surrounding the channel structure in the memory cell region, and an insulating separation structure disposed between the substrate and the lowermost one of the plurality of gate electrodes and surrounding the dummy channel layer.

Abstract: A memory device includes: first and second bit lines on a dielectric layer; first and second word lines between the first and second bit lines; a source line between the first and second word lines; a channel pillar penetrating through the first word line, the source line and the second word line, and connected to the first bit line, the source line, and the second bit line; a first charge storage structure surrounding a top surface and a bottom surface of the first word line and between a sidewall of the first word line and a lower portion of a sidewall of the channel pillar; and a second charge storage structure, surrounding a top surface and a bottom surface of the second word line and between a sidewall of the second word line and an upper portion of the sidewall of the channel pillar.

Abstract: A semiconductor memory device is provided. The semiconductor memory device includes a memory cell array disposed on a substrate, a bit line connected to the memory cell array, a peripheral circuit disposed between the memory cell array and the substrate, the peripheral circuit including a transistor, a conductive line disposed between the memory cell array and the transistor, a lower connection structure connecting the conductive line and the transistor, and two or more upper connection structures connecting the bit line and the conductive line, the two or more upper connection structures being spaced apart from each other.

Abstract: Methods, systems, and devices for a capacitive pillar architecture for a memory array are described. An access line within a memory array may be, include, or be coupled with a pillar. The pillar may include an exterior electrode, such as a hollow exterior electrode, surrounding an inner dielectric material that may further surround an interior, core electrode. The interior electrode may be maintained at a voltage level during at least a portion of an access operation for a memory cell coupled with the pillar. Such a pillar structure may increase a capacitance of the pillar, for example, based on a capacitive coupling between the interior and exterior electrodes. The increased capacitance may provide benefits associated with operating the memory array, such as increased memory cell programming speed, programming reliability, and read disturb immunity.

Abstract: A vertical memory device includes a lower circuit pattern on a substrate, a plurality of gate electrodes spaced apart from another in a first direction substantially perpendicular to an upper surface of the substrate on the lower circuit pattern, a channel extending through the gate electrodes in the first direction, a memory cell block including a first common source line (CSL) extending in a second direction substantially parallel to the upper surface of the substrate, and a first contact plug connected to the lower circuit pattern and the first CSL and overlapping the first CSL in the first direction.

Abstract: The disclosure provides transistor cells for integrated circuits and methods to form the same. A transistor cell according to the disclosure may include a substrate region including width between a first end and a second end, and a length between a third end and a fourth end in a direction orthogonal to the width. A first doped well (FDW) within the substrate region may be oppositely doped and may extend from the first end to a first interior boundary between the first and second ends of the substrate region, and from the third end to a second interior boundary between the third and fourth ends. A second doped well (SDW) within the substrate region may extend from the second end to a third interior boundary between the first and second ends, and the fourth end to a fourth interior boundary between the third and fourth ends.

Abstract: A method used in forming a memory array comprises forming a stack comprising vertically-alternating insulative tiers and wordline tiers. The stack comprises an insulator tier above the wordline tiers. The insulator tier comprises first insulator material comprising silicon, nitrogen, and one or more of carbon, oxygen, boron, and phosphorus. The first insulator material is patterned to form first horizontally-elongated trenches in the insulator tier. Second insulator material is formed in the first trenches along sidewalls of the first insulator material. The second insulator material is of different composition from that of the first insulator material and narrows the first trenches. After forming the second insulator material, second horizontally-elongated trenches are formed through the insulative tiers and the wordline tiers. The second trenches are horizontally along the narrowed first trenches laterally between and below the second insulator material.

Abstract: A three-dimensional semiconductor device is disclosed. The device may include first and second stacks separated from each other in a first direction, with each of the stacks including electrodes vertically stacked on a substrate. The device may also include vertical channel structures that penetrate the electrodes and are connected to the substrate, an interlayered insulating layer on top surfaces of the vertical channel structures, and a support pattern located between opposite sidewalls of the first and second stacks, in the interlayered insulating layer. A bottom surface of the support pattern may be positioned at a higher level than a top surface of an uppermost electrode of the electrodes.

Abstract: A semiconductor device includes a ring-shaped gate electrode having an opening area disposed on a substrate, a source region and a bulk tap region disposed in the opening area, a well region disposed to overlap the ring-shaped gate electrode, a drift region disposed to be in contact with the well region, a first insulating isolation region disposed, on the drift region, to partially overlap the gate electrode, a second insulating isolation region enclosing the bulk tap region, a drain region disposed to be spaced apart from the ring-shaped gate electrode, and a deep trench isolation region disposed adjacent to the drain region.

Abstract: Quantum dot devices, and related systems and methods, are disclosed herein. In some embodiments, a quantum dot device may include a quantum well stack; a plurality of first gate lines above the quantum well stack; a plurality of second gate lines above the quantum well stack, wherein the second gate lines are perpendicular to the first gate lines; and an array of regularly spaced magnet lines.

Abstract: A semiconductor storage device according to an embodiment includes: an array chip having a memory cell array; a circuit chip having a circuit electrically connected to a memory cell; and a metal pad bonding the array chip and the circuit chip together. The metal pad includes an impurity. A concentration of the impurity is lowered as separating in a depth direction apart from a surface in a thickness direction of the metal pad.

Abstract: A semiconductor device includes a stack structure including conductive layers and insulating layers, which are alternately stacked; an opening including a first opening penetrating the stack structure and second openings protruding from the first opening; and a channel layer including channel regions located in the second openings and impurity regions located in the first opening, the impurity regions having an impurity concentration higher than that of the channel regions.

Abstract: A three-dimensional semiconductor device includes a stacked structure including a plurality of conductive layers stacked on a substrate, a distance along a first direction between sidewalls of an upper conductive layer and a lower conductive layer being smaller than a distance along a second direction between sidewalls of the upper conductive layer and the lower conductive layer, the first and second directions crossing each other and defining a plane parallel to a surface supporting the substrate, and vertical channel structures penetrating the stacked structure.

Abstract: The present technology provides a semiconductor device and a method of manufacturing the same. The semiconductor device includes a channel structure, insulating structures surrounding the channel structure and stacked to be spaced apart from each other, interlayer insulating films surrounding the insulating structures, respectively, and a gate electrode extending from between the interlayer insulating films to between the insulating structures and surrounding the channel structure. The insulating structures may include protrusion portions extending to cover edges of the interlayer insulating films facing the channel structure, and the gate electrode may extend between the protrusion portions which are adjacent to each other.

Abstract: Embodiments of a channel hole plug structure of 3D memory devices and fabricating methods thereof are disclosed. The memory device includes an alternating layer stack disposed on a substrate, an insulating layer disposed on the alternating dielectric stack, a channel hole extending vertically through the alternating dielectric stack and the insulating layer, a channel structure including a channel layer in the channel hole, and a channel hole plug in the insulating layer and above the channel structure. The channel hole plug is electrically connected with the channel layer. A projection of the channel hole plug in a lateral plane covers a projection of the channel hole in the lateral plane.

Abstract: A NOR-type three-dimensional memory device includes a vertically alternating stack of insulating layers and electrically conductive layers located over a substrate, and laterally alternating sequences of respective active region pillars and respective memory stack structures. Each laterally alternating sequence is electrically isolated from the electrically conductive layers by a respective blocking dielectric layer at each level of the electrically conductive layers. Each memory stack structures include a memory film and a semiconductor channel material portion that vertically extend through the vertically alternating stack. The active region pillars include an alternating sequence of source pillar and drain pillars.

Abstract: A method used in forming integrated circuitry comprises forming a stack comprising vertically-alternating first tiers and second tiers. The stack comprises a cavity therein that comprises a stair-step structure. At least a portion of sidewalls of the cavity is lined with sacrificial material. Insulative material is formed in the cavity radially inward of the sacrificial material. At least some of the sacrificial material is removed from being between the cavity sidewalls and the insulative material to form a void space there-between. Insulator material is formed in at least some of the void space. Other embodiments, including structure independent of method, are disclosed.

Abstract: In one embodiment, a semiconductor device includes a first interconnection including a first extending portion extending in a first direction, and a first curved portion curved with respect to the first extending portion. The device further includes a second interconnection including a second extending portion extending in the first direction and adjacent to the first extending portion in a second direction, and a second curved portion curved with respect to the second extending portion. The device further includes a first plug provided on the first curved portion, or on a first non-opposite portion included in the first extending portion and not opposite to the second extending portion in the second direction. The device further includes a second plug provided on the second curved portion, or on a second non-opposite portion included in the second extending portion and not opposite to the first extending portion in the second direction.

Abstract: Some embodiments include a method of forming an assembly (e.g., a memory array). A first opening is formed through a stack of alternating first and second levels. The first levels contain silicon nitride, and the second levels contain silicon dioxide. Some of the silicon dioxide of the second levels is replaced with memory cell structures. The memory cell structures include charge-storage regions adjacent charge-blocking regions. Tunneling material is formed within the first opening, and channel material is formed adjacent the tunneling material. A second opening is formed through the stack. The second opening extends through remaining portions of the silicon dioxide, and through the silicon nitride. The remaining portions of the silicon dioxide are removed to form cavities. Conductive regions are formed within the cavities. The silicon nitride is removed to form voids between the conductive regions. Some embodiments include memory arrays.

Abstract: Embodiments of three-dimensional (3D) memory devices having a memory layer that confines electron transportation and methods for forming the same are disclosed. The 3D memory device can include a structure of a plurality of gate electrodes insulated by a sealing structure over a substrate. The sealing structure can include an airgap between adjacent gate electrodes along a direction perpendicular to a top surface of the substrate. The 3D memory device can also include a semiconductor channel extending from a top surface of the structure to the substrate. The semiconductor channel can include a memory layer that has two portions extending along different directions. The 3D memory device can further include a source structure extending from the top surface of the structure to the substrate and between adjacent gate electrodes along a direction parallel to the top surface the substrate.

Abstract: An integrated circuit device includes a plurality of word lines, a string selection line structure stacked on the plurality of word lines, and a plurality of channel structures extending in a vertical direction through the plurality of word lines and the string selection line structure. The string selection line structure includes a string selection bent line including a lower horizontal extension portion extending in a horizontal direction at a first level higher than the plurality of word lines, an upper horizontal extension portion extending in the horizontal direction at a second level higher than the first level, and a vertical extension portion connected between the lower horizontal extension portion and the upper horizontal extension portion.

Abstract: A nonvolatile memory device includes a mold structure including a plurality of insulating patterns and a plurality of gate electrodes alternately stacked on a substrate, a semiconductor pattern penetrating through the mold structure and contacting the substrate, a first charge storage film, and a second charge storage film separated from the first charge storage film. The first and second charge storage films are disposed between each of the gate electrodes and the semiconductor pattern. Each of the gate electrodes includes a first recess and a second recess which are respectively recessed inward from a side surface of the gate electrodes. The first charge storage film fills at least a portion of the first recess, and the second charge storage film fills at least a portion of the second recess.

Abstract: Embodiments of a memory finger structure and architecture for a three-dimensional memory device and fabrication method thereof are disclosed. The memory device includes an alternating layer stack disposed on a first substrate, the alternating layer stack including a plurality of conductor/dielectric layer pairs. The memory device further includes a first column of vertical memory strings extending through the alternating layer stack, and a first plurality of bitlines displaced along a first direction and extending along a second direction. The first column of vertical memory strings is disposed at a first angle relative to the second direction. Each of the first plurality of bitlines is connected to an individual vertical memory string in the first column.

Abstract: Disclosed is a semiconductor memory device including a stack structure including layers which are vertically stacked on a substrate and each of which includes a bit line extending in a first direction and a semiconductor pattern extending in a second direction from the bit line, a gate electrode which is in a hole penetrating the stack structure and extending along a stack of semiconductor patterns, a vertical insulating layer covering the gate electrode and filling the hole, and a data storage element electrically connected to the semiconductor pattern. The data storage element includes a first electrode, which is in a first recess of the vertical insulating layer and has a cylindrical shape whose one end is opened, and a second electrode, which includes a first protrusion in a cylinder of the first electrode and a second protrusion in a second recess of the vertical insulating layer.

Abstract: A semiconductor memory device includes a stacked structure and a memory pillar. The stacked structure includes electrode layers and insulating layers alternately provided on a substrate. The memory pillar extends through the stacked structure in a thickness direction. The memory pillar includes a semiconductor layer extending along the thickness direction, and a first insulating film, a charge storage layer, and a second insulating film provided around the semiconductor layer. The charge storage layer contains fluorine, and a fluorine concentration in the charge storage layer has a gradient along a plane direction of the substrate with a peak. A first distance from an inner end of the charge storage layer to the peak in the plane direction is shorter than a second distance from an outer end of the charge storage layer to the peak in the plane direction.

Abstract: According to one embodiment, a semiconductor memory device includes a base layer, conductive layers, an insulation layer, a semiconductor layer and a charge storage layer. The conductive layers are stacked above the base layer in a first direction. The insulation layer is extending in the conductive layers in the first direction. The semiconductor layer is arranged between the insulation layer and the conductive layers. The charge storage layer is arranged between the semiconductor layer and the conductive layers. The insulation layer includes a first insulation layer arranged on a side of the base layer and containing polysilazane and a second insulation layer arranged on the first insulation layer on a side opposite from the base layer.

Abstract: A memory device includes a floating gate, a control gate, a spacer structure, a dielectric layer, and an erase gate. The floating gate is above a substrate. The floating gate has a curved sidewall. The control gate is above the floating gate. The spacer structure is in contact with the control gate and the floating gate. The spacer structure is spaced apart from the curved sidewall of the floating gate. The dielectric layer is in contact with the spacer structure and the curved sidewall of the floating gate. The erase gate is above the dielectric layer.

Abstract: Semiconductor device and the manufacturing method thereof are disclosed. An exemplary semiconductor device comprises a dielectric layer formed over a power rail; a bottom semiconductor layer formed over the dielectric layer; a backside spacer formed along a sidewall of the bottom semiconductor layer; a conductive feature contacting a sidewall of the dielectric layer and a sidewall of the backside spacer; channel semiconductor layers over the bottom semiconductor layer, wherein the channel semiconductor layers are stacked up and separated from each other; a metal gate structure wrapping each of the channel semiconductor layers; and an epitaxial source/drain (S/D) feature contacting a sidewall of each of the channel semiconductor layers, wherein the epitaxial S/D feature contacts the conductive feature, and the conductive feature contacts the power rail.

Abstract: An MIM capacitor or an MIS capacitor in semiconductor devices is formed of a thin dielectric layer having a total film thickness less than 100-nm and including a high-dielectric-constant amorphous insulating film, high-breakdown-voltage amorphous films such as of SiO2, and high-dielectric-constant amorphous buffer films between an upper electrode and a lower electrode. The thin high-dielectric-constant amorphous insulation film is formed of a material having a property resistant to fracture although having properties of a large leakage current and a low breakdown voltage, to enhance reliability of the thin dielectric layer and to reduce the footprint thereof in the semiconductor device.

Abstract: In some embodiments, a semiconductor substrate includes first and second source/drain regions which are separated from one another by a channel region. The channel region includes a first portion adjacent to the first source/drain region and a second portion adjacent the second source/drain region. A select gate is spaced over the first portion of the channel region and is separated from the first portion of the channel region by a select gate dielectric. A memory gate is spaced over the second portion of the channel region and is separated from the second portion of the channel region by a charge-trapping dielectric structure. The charge-trapping dielectric structure extends upwardly alongside the memory gate to separate neighboring sidewalls of the select gate and memory gate from one another. An oxide spacer or nitride-free spacer is arranged in a sidewall recess of the charge-trapping dielectric structure nearest the second source/drain region.

Abstract: Embodiments of source structure of a three-dimensional (3D) memory device and method for forming the source structure of the 3D memory device are disclosed. In an example, a NAND memory device includes a substrate, an alternating conductor/dielectric stack, a NAND string, a source conductor layer, and a source contact. The alternating conductor/dielectric stack includes a plurality of conductor/dielectric pairs above the substrate. The NAND string extends vertically through the alternating conductor/dielectric stack. The source conductor layer is above the alternating conductor/dielectric stack and is in contact with an end of the NAND string. The source contact includes an end in contact with the source conductor layer. The NAND string is electrically connected to the source contact by the source conductor layer. In some embodiments, the source conductor layer includes one or more conduction regions each including one or more of a metal, a metal alloy, and a metal silicide.

Abstract: A vertical memory device includes a substrate having a peripheral circuit structure, first gate patterns having first gate pad regions stacked vertically from the substrate, vertical channel structures penetrating the first gate patterns, first gate contact structures each extending vertically to a corresponding first gate pad region, mold patterns stacked vertically from the substrate, the mold patterns each being positioned at the same height from the substrate with a corresponding gate pattern, peripheral contact structures penetrating the mold patterns to be connected to the peripheral circuit structure, a first block separation structure disposed between the first gate contact structures and the peripheral contact structures, and a first peripheral circuit connection wiring extending across the first block separation structure to connect one of the first gate contact structures to one of the peripheral contact structures.

Abstract: A semiconductor device and method of manufacturing the same are provided. In one embodiment, method includes forming a first oxide layer over a substrate, forming a silicon-rich, oxygen-rich, oxynitride layer on the first oxide layer, forming a silicon-rich, nitrogen-rich, and oxygen-lean nitride layer over the oxynitride layer, and forming a second oxide layer on the nitride layer. Generally, the nitride layer includes a majority of charge traps distributed in the oxynitride layer and the nitride layer. Optionally, the method further includes forming a middle oxide layer between the oxynitride layer and the nitride layer. Other embodiments are also described.

Abstract: Provided is a memory device including a substrate, a plurality of stack structures, a spacer, a dielectric layer, and a plurality of contact plugs. The stack structures are disposed on the substrate. The spacer is embedded in the stack structures, so that a width of an upper portion of the stack structures is less than a width of a lower portion thereof. The dielectric layer conformally covers the stack structures and the spacer. The contact plugs are respectively disposed on the substrate between the stack structures.

Abstract: Disclosed is a capacitor having a high dielectric constant and low leakage current and a method for fabricating the same wherein the capacitor may include a first conductive layer a second conductive layer, a dielectric layer stack between the first conductive layer and the second conductive layer, a dielectric interface layer between the dielectric layer stack and the second conductive layer, and a high work function interface layer between the dielectric interface layer and the second conductive layer.

Abstract: Techniques herein include methods for fabricating three-dimensional (3D) logic or memory stack integrated with 3D metal routing. The methods can include stacking metal layers within existing 3D silicon stacks. A first portion can be masked while a second, uncovered portion is etched. Predetermined layers in a bottom portion (disposed closer to the substrate) of the multilayer stack can be replaced with a conductor. The second portion can be masked while the first portion is uncovered and processed. This can enable higher density 3D circuits by having multiple metal lines contained within a multilayer 3D nano-sheet. Advantageously, this facilitates easier connections for 3D logic and memory. Moreover, better speed performance can be achieved by having reduced distance for signals to travel to transistor connections.

Abstract: A method for producing a component is provided, a base of which is formed by transistors on a substrate, including: forming a gate area, spacers, and a protective coating partly covering the spacers and a sidewall portion of a cavity without covering a top face of the gate area and a base portion of the cavity; forming a contact module, the gate located in beneath the module; and removing part of the coating with an isotropic light-ion implantation to form modified superficial parts in a thickness, respectively, of the contact module, of the coating, and of the base portion, and with an application of a plasma to: etch the modified superficial parts to only preserve, in the coating, a residual part of the coating, and to form a silicon oxide-based film on exposed surfaces, respectively, of the contact module, of the cavity, and of the coating.

Abstract: A semiconductor memory device includes a substrate including a logic circuit, a memory cell array disposed over the substrate, a first conductive group including a plurality of bit lines and a first upper source line that are coupled to the memory cell array and spaced apart from each other and a first upper wire that is coupled to the logic circuit, an insulating structure covering the first conductive group.

Abstract: A semiconductor device and a manufacturing method thereof includes a source contact structure, a gate stack structure including a side region adjacent to the source contact structure, and a center region extending from the side region. The semiconductor device further includes a source gate pattern disposed under the side region of the first gate stack structure. The source gate pattern has an inclined surface facing the source contact structure. The semiconductor device also includes a channel pattern penetrating the center region of the gate stack structure, the channel pattern extending toward and contacting the source contact structure.