Abstract: A structure of a capacitor set is described, including at least two capacitors that are disposed at the same position on a substrate and include a first capacitor and a second capacitor. The first capacitor includes multiple first capacitor units electrically connected with each other in parallel. The second capacitor includes multiple second capacitor units electrically connected with each other in parallel. The first and the second capacitor units are arranged spatially intermixing with each other to form an array.

Abstract: An integrated circuit system is provided including forming a substrate, forming a first contact having multiple conductive layers over the substrate and a layer of the multiple conductive layers on other layers of the multiple conductive layers, forming a dielectric layer on the first contact, and forming a second contact on the dielectric layer and over the first contact.

Abstract: A conductive film is formed to extend from a bottom and a sidewall of a recess formed in an interlayer insulating film onto a top surface of the interlayer insulating film. Dry etching of the conductive film is performed such that a portion of the conductive film remains on the bottom and sidewall of the recess. The dry etching is also performed such that a deposition film is formed on a top portion of the recess.

Abstract: A method for fabricating a semiconductor device includes forming a plurality of first trenches by etching a substrate, forming a plurality of buried bit lines in the first trenches, forming a plurality of second trenches to expose at least one sidewall of the buried bit lines by etching the substrate, and forming a plurality of one-sidewall contact plugs which fill the second trenches.

Abstract: A METAL-INSULATOR-METAL structured capacitor is formed with polysilicon instead of an oxide film as a sacrificial layer material that defines a storage electrode region. A MPS (Meta-stable Poly Silicon) process is performed to increase the surface area of the sacrificial layer that defines the storage electrode region and also increase the area of the storage electrode formed over sacrificial layer. This process results in increasing the capacity of the capacitor in a stable manner.

Abstract: A method of forming a plurality of capacitors includes an insulative material received over a capacitor array area and a circuitry area. The array area comprises a plurality of capacitor electrode openings within the insulative material received over individual capacitor storage node locations. The intervening area comprises a trench. Conductive metal nitride-comprising material is formed within the openings and against a sidewall portion of the trench to less than completely fill the trench. Inner sidewalls of the conductive material within the trench are annealed in a nitrogen-comprising atmosphere. The insulative material within the array area is etched with a liquid etching solution effective to expose outer sidewall portions of the conductive material within the array area. The conductive material within the array area is incorporated into a plurality of capacitors.

Abstract: Provided is a semiconductor device, including a silicon substrate, a first insulating film formed on the silicon substrate, a first conductive plug formed in an inside of a first contact hole of the first insulating film, an underlying conductive film having a flat surface formed on the first conductive plug and in the circumference thereof, a crystalline conductive film formed on the underlying conductive film, and a capacitor in which a lower electrode, a dielectric film made of a ferroelectric material, and an upper electrode are laminated in this order on the crystalline conductive film.

Abstract: The present invention discloses a method for integrating DRAM and NVM, which comprises steps: sequentially forming on a portion of surface of a DRAM semiconductor substrate a first gate insulation layer and a first gate layer functioning as a floating gate; and implanting ion into regions of the semiconductor substrate, which are at two sides of the first gate insulation layer, to form two heavily-doped areas that are adjacent to the first gate insulation layer and respectively function as a drain and a source; respectively forming over the first gate layer a second gate insulation layer and a second gate layer functioning as a control gate. The present invention not only increases the transmission speed but also reduces the power consumption, the fabrication cost and the package cost.

Abstract: A structure of a capacitor set is described, including at least two capacitors that are disposed at the same position on a substrate and include a first capacitor and a second capacitor. The first capacitor includes multiple first capacitor units electrically connected with each other in parallel. The second capacitor includes multiple second capacitor units electrically connected with each other in parallel. The first and the second capacitor units are arranged spatially intermixing with each other to form an array.

Abstract: A method of fabricating an organic memory device is provided. In the method, a bottom electrode is formed on a substrate. A first surface treatment is performed on the bottom electrode to form a bottom surface treatment layer on a surface thereof. A polymer thin film is formed on the bottom surface treatment layer, and a top electrode is formed on the polymer thin film.

Abstract: A method for fabricating a cylinder type capacitor includes forming connection contacts passing through a lower layer over a semiconductor substrate; forming a mold layer covering the connection contacts; forming a first floated pinning layer with a stress in a first direction over the mold layer; forming a second floated pinning layer for stress relief with a stress in a second direction over the first floated pinning layer, said second direction being opposite to the first direction; forming opening holes passing through the first and second floated pinning layers and the mold layer and exposing the connection contacts; forming storage nodes following a profile of the opening holes; removing portions of the first and second floated pinning layers to form a floated pinning layer pattern, the floated pinning layer pattern exposing a portion of the mold layer and contacting upper tips of the storage nodes; exposing outer walls of the storage nodes by selectively removing the exposed mold layer; and forming a d

Abstract: Methods and compositions for the deposition of ternary oxide films containing ruthenium and an alkali earth metal.

Abstract: An integrated circuit including a storage capacitor suitable for use in a DRAM cell, as well as to a method of manufacturing such a storage capacitor is disclosed. The storage capacitor is formed at least partially above a semiconductor substrate surface. The invention also includes a memory array employing the storage capacitor.

Abstract: Methods for fabricating a capacitor are provided. In the methods, a dielectric may be formed on a metal (e.g. nickel) substrate, and a copper electrode is formed thereon, followed by the thinning of the metal substrate from its non-coated face, and subsequently forming a copper electrode on the thinned, non-coated face of the substrate.

Abstract: The present method of fabricating a memory device includes the steps of providing a dielectric layer, providing an opening in the dielectric layer, providing a first conductive body in the opening in the dielectric layer, providing a switching body in the opening, and providing a second conductive body in the opening.

Abstract: The invention provides a method for forming a stack capacitor of a memory device, including providing a substrate, forming a patterned sacrificial layer with a plurality of first openings over the substrate, conformally forming a first conductive layer on the patterned sacrificial layer and in the first openings, forming a second conductive layer on the first conductive layer to seal the first openings with a void formed therein, removing a portion of the first and second conductive layers to expose the patterned sacrificial layer, and removing at least a portion of the patterned sacrificial layer to form bottom cell plates.

Abstract: Methods and apparatus for providing a memory array fabrication process that concurrently forms memory array elements and peripheral circuitry. The invention relates to a method for fabricating memory arrays using a process that concurrently forms memory array elements and peripheral circuitry and results in a reduction in pitch.

Abstract: Memory devices and methods for manufacturing are described herein. A memory device as described herein includes a first electrode layer, a second electrode layer, and a thermal isolation structure including a layer of thermal isolation material between the first and second electrode layers. The first and second electrode layers and the thermal isolation structure define a multi-layer stack having a sidewall. A sidewall conductor layer including a sidewall conductor material is on the sidewall of the multi-layer stack. The sidewall conductor material has an electrical conductivity greater than that of the thermal isolation material. A memory element including memory material is on the second electrode layer.

Abstract: The invention includes methods for selectively etching insulative material supports relative to conductive material. The invention can include methods for selectively etching silicon nitride relative to metal nitride. The metal nitride can be in the form of containers over a semiconductor substrate, with such containers having upwardly-extending openings with lateral widths of less than or equal to about 4000 angstroms; and the silicon nitride can be in the form of a layer extending between the containers. The selective etching can comprise exposure of at least some of the silicon nitride and the containers to Cl2 to remove the exposed silicon nitride, while not removing at least the majority of the metal nitride from the containers. In subsequent processing, the containers can be incorporated into capacitors.

Abstract: Provided are variable resistance memory devices and methods of forming the variable resistance memory devices. The methods can include forming an etch stop layer on an electrode, forming a molding layer on the etch stop layer, forming a recess region including a lower part having a first width and an upper part having a second width by recessing the etch stop layer and the molding layer, and forming a layer of variable resistance material in the recess region.

Abstract: Some embodiments include methods of forming transistor gates. A gate stack is placed within a reaction chamber and subjected to at least two etches, and to one or more depositions to form a transistor gate. The transistor gate may comprise at least one electrically conductive layer over a semiconductor material-containing layer. At least one of the one or more depositions may form protective material. The protective material may extend entirely across the at least one electrically conductive layer, and only partially across the semiconductor material-containing layer to leave unlined portions of the semiconductor material-containing layer. The unlined portions of the semiconductor material-containing layer may be subsequently oxidized.

Abstract: A method of manufacturing a ferroelectric memory device includes: forming a hydrogen barrier film which covers a ferroelectric capacitor including a lower electrode, a ferroelectric film, and an upper electrode, wherein a thickness of an area of the hydrogen barrier film provided on the upper electrode is made greater than a thickness of an area of the hydrogen barrier film provided on a sidewall of the ferroelectric capacitor by forming the area of the hydrogen barrier film provided on the upper electrode in a plurality of layers.

Abstract: A method of fabricating a CMOS device is provided. First, first and second gates, first and second offset spacers and first and second lightly-doped regions are respectively formed in first and second type metal-oxide-semiconductor regions. A mask layer is respectively formed on the first and second gates. Next, an epitaxial layer is formed in the substrate on two sides of the second gate. Next, first and second spacers, first and second doped regions are formed. Next, a portion of the first spacer is removed to expose a portion of a surface of the first lightly-doped region, thereby forming a first slimmed spacer. Next, a coating layer containing silicon is formed to cover the exposed first lightly-doped region, the first and second doped regions. Next, the mask layer is removed. Next, a metal silicide layer is formed on the first and second gates and the silicon layer.

Abstract: A method of manufacturing semiconductor memory device comprises forming a first wiring layer and a memory cell layer above a semiconductor substrate; forming a plurality of first trenches extending in a first direction in the first wiring layer and the memory cell layer, thereby forming first wirings and separating the memory cell layer; burying a first interlayer film in the first trenches to form a stacked body; forming a second wiring layer above the stacked body; forming a plurality of second trenches, extending in a second direction intersecting the first direction and reaching an upper surface of the first interlayer film in depth, in the first stacked body with the second wiring layer formed thereabove, thereby forming second wirings; removing the first interlayer film isotropically; and digging the second trenches down to an upper surface of the first wirings, thereby forming memory cells.

Abstract: A stacked capacitor for double-poly flash memory is provided. The stacked capacitor is formed by a lower electrode, a lower dielectric layer, a central electrode, an upper dielectric layer, and an upper electrode, wherein the lower electrode is a doped region in a substrate. The manufacturing process of this stacked capacitor can be fully integrated in to the manufacturing process of the double-poly flash memory cell.

Abstract: Methods of forming semiconductor devices that include one or more container capacitors include anchoring an end of a conductive member to a surrounding lattice material using an anchor material, which may be a dielectric. The anchor material may extend over at least a portion of an end surface of the conductive member, at least a portion of the lattice material, and an interface between the conductive member and the lattice material. In some embodiments, the anchor material may be formed without significantly covering an inner sidewall surface of the conductive member. Furthermore, in some embodiments, a barrier material may be provided over at least a portion of the anchor material and over at least a portion of an inner sidewall surface of the conductive member. Novel semiconductor devices and structures are fabricated using such methods.

Abstract: In a method of fabricating a semiconductor device on a substrate having a pillar pattern, a gate electrode is formed on the pillar pattern without etching the latter. A conductive pattern is filled between adjacent pillar patterns, a spacer is formed above the conductive pattern and surrounding sidewalls of each pillar pattern, and the gate electrode is formed by etching the conductive pattern using the spacer as an etch barrier.

Abstract: The present invention provides a dielectric film having a high permittivity and a high heat resistance. An embodiment of the present invention is a dielectric film (103) including a composite oxynitride containing an element A made of Hf, an element B made of Al or Si, and N and O, wherein mole fractions of the element A, the element B, and N expressed as B/(A+B+N) range from 0.015 to 0.095 and N/(A+B+N) equals or exceeds 0.045, and has a crystalline structure.

Abstract: A method for forming a cylindrical stack capacitor structure. A semiconductor substrate is provided. Storage node structures are formed in a memory cell region. A dielectric layer is formed overlying the storage node structures. A patterning and a first etching process expose the storage nodes. A polysilicon layer and a rugged polysilicon layer are formed overlying the exposed storage nodes. The memory cell region is masked, exposing a peripheral region. A chemical dry etch process removes the rugged polysilicon and the polysilicon layers in the peripheral region. The rugged polysilicon and the polysilicon layers are planarized followed by a dielectric recess. The resulting cylindrical stack capacitor structures are substantially free of defects from rugged polysilicon remaining in the peripheral region thereby improving device yield and process window.

Abstract: A capacitor has an MIM (Metal Insulator Metal) structure comprising a lower electrode formed in the interior of an electrode trench which is formed in an interlayer insulating film, a dielectric film formed over the lower electrode, and an upper electrode formed over the dielectric film. The upper electrode and the dielectric film are each formed with an area larger than the area of the lower electrode so that the whole of the lower electrode is positioned inside the upper electrode and the dielectric film. The reliability and production yield of the capacitor are improved.

Abstract: By forming metal capacitors in the metallization structures of semiconductor devices, complex manufacturing sequences in the device level may be avoided. The process of manufacturing the metal capacitors may be performed on the basis of well-established patterning regimes of modern metallization systems by using appropriately selected etch stop materials, which may enable a high degree of compatibility for forming via openings in a metallization layer while providing a capacitor dielectric of a desired high dielectric constant in the capacitor.

Abstract: The invention relates to a semiconductor device and a method of fabricating the same, wherein a storage node contact hole is made large to solve any problem caused during etching a storage node contact hole with a small CD, a landing plug is formed to lower plug resistance, and the SAC process is eliminated at the time of the bit line formation. A method of fabricating a semiconductor device according to the invention comprises: forming a device isolation film for defining a multiplicity of active regions in a semiconductor substrate; forming a multiplicity of buried word lines in the semiconductor substrate; forming a storage node contact hole for exposing a storage node contact region of two adjoining active regions; filling the storage node contact hole with a storage node contact plug material; forming a bit-line groove for exposing a bit-line contact region of the active region and splitting the storage node contact plug material into two; and burying the bit line into the bit-line groove.

Abstract: A memory cell with surrounding word line structures includes an active area; a plurality of first trenches formed on the active area in a first direction, each first trench has a bit line on a sidewall therein; a plurality of second trenches formed on the active area in a second direction, each second trench has two word lines formed correspondingly on the sidewalls in the second trench; and a plurality of transistors formed on the active area. The word line pairs are arranged into a surrounding word line structure. The transistor is controlled by the bit line and the two word lines, thus improving the speed of the transistor.

Abstract: The present application discloses a memory device and a method for manufacturing the same.

Abstract: The present invention relates to a method for producing a vertical interconnect structure, a memory device and an associated production method, in which case, after the formation of a contact region in a carrier substrate a catalyst is produced on the contact region and a free-standing electrically conductive nanoelement is subsequently formed between the catalyst and the contact region and embedded in a dielectric layer.

Abstract: A method of forming a phase change material layer includes preparing a substrate having an insulator and a conductor, loading the substrate into a process housing, injecting a deposition gas into the process housing to selectively form a phase change material layer on an exposed surface of the conductor, and unloading the substrate from the process housing, wherein a lifetime of the deposition gas in the process housing is shorter than a time the deposition gas takes to react by thermal energy.

Abstract: The invention includes methods of electrically interconnecting different elevation conductive structures, methods of forming capacitors, methods of forming an interconnect between a substrate bit line contact and a bit line in DRAM, and methods of forming DRAM memory cells. In one implementation, a method of electrically interconnecting different elevation conductive structures includes forming a first conductive structure comprising a first electrically conductive surface at a first elevation of a substrate. A nanowhisker is grown from the first electrically conductive surface, and is provided to be electrically conductive. Electrically insulative material is provided about the nanowhisker. An electrically conductive material is deposited over the electrically insulative material in electrical contact with the nanowhisker at a second elevation which is elevationally outward of the first elevation, and the electrically conductive material is provided into a second conductive structure.

Abstract: Semiconductor devices are provided including a semiconductor substrate and a first interlayer insulating layer on the semiconductor substrate. A contact pad is provided in the first interlayer insulating layer and a second insulating layer is provided on the first interlayer insulating layer. A contact hole is provided in the second interlayer insulating layer. The contact hole exposes the contact pad and a lower portion of the contact hole has a protrusion exposing the contact pad. The protrusion is provided on the second interlayer insulating layer. A contact spacer is provided on inside sidewalls of the contact hole and fills the protrusion. A contact plug is provided in the contact hole. Related methods are also provided herein.

Abstract: A semiconductor device comprises MOS transistors sequentially arranged in the plane direction of a substrate, wherein a gate electrode and a wiring portion for connecting between the gate electrodes to each other are implanted into a layer that is lower than a surface of the substrate in which a diffusion layer has been formed. A first device isolation area with a STI structure for separating the diffusion layers that function as a source/drain area is formed on the surface of the substrate. A second device isolation area with the STI structure for separating channel areas of the MOS transistors adjacent to each other is formed in a layer that is lower than a layer that has the first device isolation area.

Abstract: Provided are methods of fabricating capacitors of semiconductor devices, the methods including: forming a lower electrode on a semiconductor substrate, performing a pre-process operation on the lower electrode for suppressing deterioration of the lower electrode during a process, forming a dielectric layer on the lower electrode using a source gas and an ozone gas, and forming an upper electrode on the dielectric layer, wherein the pre-process operation and the forming of the dielectric layer may be performed in one device capable of atomic layer deposition.

Abstract: Semiconductor devices and methods for fabricating the same are provided. An exemplary embodiment of a semiconductor device comprises a substrate with a plurality of isolation structures formed therein, defining first and second areas over the substrate. A transistor is formed on a portion of the substrate in the first and second areas, respectively, wherein the transistor in the second area is formed with merely a pocket doping region in the substrate adjacent to a drain region thereof. A first dielectric layer is formed over the substrate, covering the transistor formed in the first and second areas. A plurality of first contact plugs is formed through the first dielectric layer, electrically connecting a source region and a drain region of the transistor in the second area, respectively. A second dielectric layer is formed over the first dielectric layer with a capacitor formed therein, wherein the capacitor electrically connects one of the first contact plugs.

Abstract: A method and circuit for implementing an embedded dynamic random access memory (eDRAM), and a design structure on which the subject circuit resides are provided. The embedded dynamic random access memory (eDRAM) circuit includes a stacked field effect transistor (FET) and capacitor. The capacitor is fabricated directly on top of the FET to build the eDRAM.

Abstract: A process using oxide supporter for manufacturing a capacitor lower electrode of a micron stacked DRAM is disclosed. First, form a stacked structure. Second, form a photoresist layer on an upper oxide layer and then etch them. Third, deposit a polysilicon layer onto the upper oxide layer and the nitride layer. Fourth, deposit a nitrogen oxide layer on the polysilicon layer and the upper oxide layer. Sixth, partially etch the nitrogen oxide layer, the polysilicon layer and the upper oxide layer to form a plurality of vias. Seventh, oxidize the polysilicon layer to form a plurality of silicon dioxides surround the vias. Eighth, etch the nitride layer, the dielectric layer and the lower oxide layer beneath the vias. Ninth, form a metal plate and a capacitor lower electrode in each of the vias. Tenth, etch the nitrogen oxide layer, the polysilicon layer, the nitride layer and the dielectric layer.

Abstract: A semiconductor device having a high aspect cylindrical capacitor and a method for fabricating the same is presented. The high aspect cylindrical type capacitor is a stable structure which is not prone to causing bunker defects and losses in a guard ring. The semiconductor device includes the cylindrical type capacitor structure, a storage node oxide, a guard ring hole, a conductive layer, and a capping oxide. The cylindrical type capacitor structure in a cell region includes a cylindrical type lower electrode, a dielectric and an upper electrode. The storage node oxide is in a peripheral region over the semiconductor substrate. The conductive layer coating the guard ring hole. The guard ring hole at a boundary of the peripheral region that adjoins the cell region over the semiconductor substrate. The capping oxide partially fills in a part of the conductive layer. The gapfill film filling in the rest of the conductive layer.

Abstract: A method for fabricating a semiconductor device includes: forming a stack structure including pillar regions whose upper portion has a wider width than a lower portion over a substrate, the lower portion including at least a conductive layer; forming a gate insulation layer on sidewalls of the pillar regions; forming active pillars to gap-fill the pillar regions; and forming vertical gates that serve as both gate electrode and word lines by selectively etching the conductive layer.

Abstract: The semiconductor device comprises a first region, a guard ring surrounding the first region, and a second region outside of the guard ring. The first region includes a first electrode made of a first film which has conductivity. A surface of the first electrode in the first region is not covered with the second film. The guard ring includes the first film covering an inner wall of a groove having a recess shape, and a second film as an insulating film covering at least one portion of a surface of the first film in the groove.

Abstract: A vertical transistor having a wrap-around-gate and a method of fabricating such a transistor. The wrap-around-gate (WAG) vertical transistors are fabricated by a process in which source, drain and channel regions of the transistor are automatically defined and aligned by the fabrication process, without photolithographic patterning.

Abstract: A method for fabricating a metal/insulator/metal (MIM) structure capacitor includes forming a nitride film that is an insulating layer on a bottom electrode metal layer; forming titanium/titanium nitride (Ti/TiN) that is a top electrode metal layer on the nitride film; coating photo-resist on the top electrode metal layer and patterning a photo-resist layer; selectively etching the top metal electrode layer so that the nitride film remains using the patterned photo-resist layer as an etching mask and using the nitride film as an end point; and removing the remaining nitride film.

Abstract: A method for fabricating a semiconductor substrate includes defining an active region by forming a device isolation layer over the substrate, forming a first trench dividing the active region into a first active region and a second active region, forming a buried bit line filling a portion of the first trench, forming a gap-filling layer gap-filling an upper portion of the first trench over the buried bit line, forming second trenches by etching the gap-filling layer and the device isolation layer in a direction crossing the buried bit line, and forming a first buried word line and a second buried word line filling the second trenches, wherein the first buried word line and the second buried word line are shaped around sidewalls of the first active region and the second active region, respectively.

Abstract: A semiconductor device may include plugs disposed in a zigzag pattern, interconnections electrically connected to the plugs and a protection pattern which is interposed between the plugs and the interconnections to selectively expose the plugs. The interconnections may include a connection portion which is in contact with plugs selectively exposed by the protection pattern. A method of manufacturing a semiconductor device includes, after forming a molding pattern and a mask pattern, selectively etching a protection layer using the mask pattern to form a protection pattern exposing a plug.