Abstract: An electronic device comprising a stack structure comprising one or more stacks of materials and one or more silicon carbide materials adjacent to the one or more stacks of materials. The materials of the one or more stacks comprise a single chalcogenide material and one or more of a conductive carbon material, a conductive material, and a hardmask material. The one or more silicon carbide materials comprises silicon carbide, silicon carboxide, silicon carbonitride, silicon carboxynitride, and also comprise silicon-carbon covalent bonds. The one or more silicon carbide materials is configured as a liner or as a seal. Additional electronic devices are disclosed, as are related systems and methods of forming an electronic device.

Abstract: A method of manufacturing a printed circuit board includes: forming first and second resist films, respectively having first and second openings exposing a first metal layer disposed on one surface of an insulating layer; forming a second metal layer on the first metal layer, exposed through the first and second openings, to fill at least a portion of each of the first and second openings; and removing the first and second resist films. The first and second openings have different widths in a cross-section.

Abstract: Methods and systems for processing a plurality of sample reads for genome sequencing include, for each sample read of the plurality of sample reads, comparing substring sequences from the sample read to reference sequences representing different portions of a reference genome. One or more reference sequences are identified that match one or more of the compared substring sequences, and a probabilistic location within the reference genome is determined for the sample read based on the one or more identified reference sequences. The plurality of sample reads is sorted into a plurality of sample groups based on the determined probabilistic locations of the respective sample reads.

Abstract: A method includes forming a metal seed layer over a first conductive feature of a wafer, forming a patterned photo resist on the metal seed layer, forming a second conductive feature in an opening in the patterned photo resist, and heating the wafer to generate a gap between the second conductive feature and the patterned photo resist. A protection layer is plated on the second conductive feature. The method further includes removing the patterned photo resist, and etching the metal seed layer.

Abstract: A semiconductor device includes a semiconductor substrate, a dielectric structure, an electrical insulating and thermal conductive layer and a circuit layer. The electrical insulating and thermal conductive layer is disposed over the semiconductor substrate. The dielectric structure is disposed over the electrical insulating and thermal conductive layer, wherein a thermal conductivity of the electrical insulating and thermal conductive layer is substantially greater than a thermal conductivity of the dielectric structure. The circuit layer is disposed in the dielectric structure.

Abstract: Methods and apparatuses for processing semiconductor substrates in an integration scheme to form chamferless vias are provided herein. Methods include bifurcating etching of dielectric by depositing a conformal removable sealant layer having properties for selective removal relative to dielectric material without damaging dielectric material. Some methods include forming an ashable conformal sealant layer. Methods also include forming hard masks including a Group IV metal and removing conformal removable sealant layers and hard masks in one operation using same etching chemistries.

Abstract: Some embodiments relate to a method for forming an integrated chip, the method includes forming a first conductive wire and a second conductive wire over a substrate. A dielectric structure is formed laterally between the first conductive wire and the second conductive wire. The dielectric structure comprises a first dielectric liner, a dielectric layer disposed between opposing sidewalls of the first dielectric liner, and a void between an upper surface of the first dielectric liner and a lower surface of the dielectric layer. A dielectric capping layer is formed along an upper surface of the dielectric structure. Sidewalls of the dielectric capping layer are aligned with sidewalls of the dielectric structure.

Abstract: Embodiments of the present disclosure are related to improved methods for forming an interconnect structure in a substrate. In one implementation, the method includes forming a barrier layer on exposed surfaces of a feature in a dielectric layer, forming a liner layer on the barrier layer, forming a seed layer on the liner layer, forming a metal fill on the seed layer by a metal fill process and overburdening the feature using an electroplating process, performing a planarization process to expose a top surface of the dielectric layer, and selectively forming a cobalt-aluminum alloy cap layer on the barrier layer, the liner layer, the seed layer, and the metal fill by exposing the substrate to a cobalt-containing precursor and an aluminum-containing precursor.

Abstract: According to various embodiments of the disclosure, an electronic device may include a housing, a non-conductive supporting member disposed in the housing and including a first area, a second area spaced apart from the first area, and a third area connecting the first area and the second area, a conductive pattern portion disposed over the first area of the supporting member, a heat dissipation member disposed to at least partially overlap the conductive pattern portion, and an antenna including a circuit board, a conductive portion, and a ground portion. The conductive portion of the antenna may be disposed over the second area. The heat dissipation member may extend from the first area to the third area, and the ground portion of the antenna may extend from the second area to the third area to contact at least a portion of the heat dissipation member.

Abstract: A semiconductor device includes a first conductive structure. The semiconductor device includes a first dielectric structure. The semiconductor device includes a second conductive structure. The first dielectric structure is positioned between a first surface of the first conductive structure and a surface of the second conductive structure. The semiconductor device includes an etch stop layer overlaying the first conductive structure. The semiconductor device includes a first spacer structure overlaying the first dielectric structure. The semiconductor device includes a second dielectric structure overlaying the first spacer structure and the etch stop layer.

Abstract: An integrated circuit includes a first pair of power rails and a second pair of power rails that are disposed in a first layer, conductive lines disposed in a second layer above the first layer, and a first active area disposed in a third layer above the second layer. The first active area is arranged to overlap the first pair of power rails. The first active area is coupled to the first pair of power rails through a first line of the conductive lines and a first group of vias, and the first active area is coupled to the second pair of power rails through at least one second line of the conductive lines and a second group of vias different from the first group of vias.

Abstract: A semiconductor device includes a peripheral circuit structure including a first substrate and circuit elements on the first substrate; and a memory cell structure including a second substrate on the first substrate, a first horizontal conductive layer on the second substrate, a second horizontal conductive layer on the first horizontal conductive layer, gate electrodes spaced apart from each other and stacked on the second horizontal conductive layer, channel structures penetrating through the gate electrodes, and separation regions penetrating the gate electrodes, extending, and spaced apart from each other.

Abstract: The present disclosure provides a semiconductor device package including a first substrate and an adhesive layer. The first substrate has a first surface and a conductive pad adjacent to the first surface. The conductive pad has a first surface exposed from the first substrate. The adhesive layer is disposed on the first surface of the first substrate. The adhesive layer has a first surface facing the first substrate. The first surface of the adhesive layer is spaced apart from the first surface of the conductive pad in a first direction substantially perpendicular to the first surface of the first substrate. The conductive pad and the adhesive layer are partially overlapping in the first direction.

Abstract: An integrated circuit device includes a fin-type active region protruding from a top surface of a substrate and extending in a first direction parallel to the top surface of the substrate, a gate structure intersecting with the fin-type active region and extending on the substrate in a second direction perpendicular to the first direction, a source/drain region on a first side of the gate structure, a first contact structure on the source/drain region, and a contact capping layer on the first contact structure. A top surface of the first contact structure has a first width in the first direction, a bottom surface of the contact capping layer has a second width greater than the first width stated above in the first direction, and the contact capping layer includes a protruding portion extending outward from a sidewall of the first contact structure.

Abstract: An integrated circuit interconnect level including a lower metallization line vertically spaced from upper metallization lines. Lower metallization lines may be self-aligned to upper metallization lines enabling increased metallization line width without sacrificing line density for a given interconnect level. Combinations of upper and lower metallization lines within an interconnect metallization level may be designed to control intra-layer resistance/capacitance of integrated circuit interconnect. Dielectric material between two adjacent co-planar metallization lines may be recessed or deposited selectively to the metallization lines. Supplemental metallization may then be deposited and planarized. A top surface of the supplemental metallization may either be recessed to form lower metallization lines between upper metallization lines, or planarized with dielectric material to form upper metallization lines between lower metallization lines.

Abstract: A method of forming an interconnect structure for semiconductor devices is described. The method comprises depositing an etch stop layer on a substrate by physical vapor deposition followed by in situ deposition of a metal layer on the etch stop layer. The in situ deposition comprises flowing a plasma processing gas into the chamber and exciting the plasma processing gas into a plasma to deposit the metal layer on the etch stop layer on the substrate. The substrate is continuously under vacuum and is not exposed to ambient air during the deposition processes.

Abstract: An interconnect structure and a method of forming an interconnect structure are disclosed. The interconnect structure includes a conductive plug over a substrate; a conductive feature over the conductive plug, wherein the conductive feature has a first sidewall, a second sidewall facing the first sidewall, and a bottom surface; and a carbon-containing barrier layer having a first portion along the first sidewall of the conductive feature, a second portion along the second sidewall of the conductive feature, and a third portion along the bottom surface of the conductive feature.

Abstract: Embodiments of the invention include a subtractive top via as a bottom electrode contact for an embedded memory structure. Forming the bottom electrode contact includes depositing a conductive material on an underlayer and etching the conductive material to form an extended via and a conductive pad as an integral unit. The extended via extends from the conductive pad such that the extended via is adjacent to a memory structure, the extended via being formed as a first contact for the memory structure.

Abstract: In certain aspects, a chip includes a pad, and a first passivation layer, wherein a first portion of the first passivation layer extends over a first portion of the pad. The chip also includes a first metal layer between the first portion of the pad and the first portion of the first passivation layer. The chip further includes an under bump metallization (UBM) electrically coupled to a second portion of the pad.

Abstract: A method for manufacturing a semiconductor device structure includes forming a first metallization line and a second metallization line extending along a first direction; forming a first isolation feature and a second isolation feature between the first metallization line and the second metallization line, wherein the first metallization line, the second metallization line, the first isolation feature and the second isolation feature define an aperture; forming a profile modifier within the aperture, wherein the profile modifier comprises a plurality of segments spaced apart from each other, wherein each of the segments are located at corners of the aperture; and forming a contact feature surrounded by the plurality of segments.

Abstract: A semiconductor package includes a first semiconductor device on a first redistribution substrate, a first mold layer that covers the first semiconductor device and the first redistribution substrate, and a second redistribution substrate on the first mold layer, the second redistribution substrate including a first opening that exposes a top surface of the first mold layer, a sidewall of the second redistribution substrate that is exposed to the first opening having a stepwise structure.

Abstract: A semiconductor package includes a first redistribution substrate, a first semiconductor chip mounted on the first redistribution substrate, a second semiconductor chip disposed on a top surface of the first semiconductor chip, an insulating layer surrounding the first and second semiconductor chips on the first redistribution substrate, a second redistribution substrate disposed on the second semiconductor chip and on which the second semiconductor chip is mounted, and a connection terminal disposed at a side of the first and second semiconductor chips and connected to the first and second redistribution substrates. An inactive surface of the second semiconductor chip is in contact with an inactive surface of the first semiconductor chip. At an interface of the first and second semiconductor chips, an upper portion of the first semiconductor chip and a lower portion of the second semiconductor chip constitute one body formed of a same material.

Abstract: A method for producing electronic devices includes fixing a die that includes an electronic component with integral contacts to a dielectric substrate. After fixing the die, a conductive trace is printed over both the dielectric substrate and at least one of the integral contacts, so as to create an ohmic connection between the conductive trace on the substrate and the electronic component.

Abstract: A method for preparing a semiconductor device includes providing an integrated circuit die having a bond pad. The bond pad includes aluminum (Al). The method also includes etching a top portion of the bond pad to form a recess, and bonding a wire bond to the recess in the bond pad. The wire bond includes copper (Cu).

Abstract: The present disclosure, in some embodiments, relates to a method of forming an integrated chip structure. The method may be performed by forming a plurality of interconnect layers within a first interconnect structure disposed over an upper surface of a first semiconductor substrate. An edge trimming process is performed to remove parts of the first interconnect structure and the first semiconductor substrate along a perimeter of the first semiconductor substrate. The edge trimming process results in the first semiconductor substrate having a recessed surface coupled to the upper surface by way of an interior sidewall disposed directly over the first semiconductor substrate. A dielectric capping structure is formed onto a sidewall of the first interconnect structure after performing the edge trimming process.

Abstract: Memory devices and methods of forming the same are provided. A memory device of the present disclosure includes a bottom dielectric layer, a gate structure extending vertically from the bottom dielectric layer, a stack structure, and a dielectric layer extending between the gate structure and the stack structure. The stack structure includes a first silicide layer, a second silicide layer, an oxide layer extending between the first and second silicide layers, a channel region over the oxide layer and extending between the first and second silicide layers, and an isolation layer over the second silicide layer. The first and second silicide layers include cobalt, titanium, tungsten, or palladium.

Abstract: A method includes depositing a first dielectric layer over a first conductive feature, depositing a first mask layer over the first dielectric layer, and depositing a second mask layer over the first mask layer. A first opening is patterned in the first mask layer and the second mask layer, the first opening having a first width. A second opening is patterned in a bottom surface of the first opening, the second opening extending into the first dielectric layer, the second opening having a second width. The second width is less than the first width. The first opening is extended into the first dielectric layer and the second opening is extended through the first dielectric layer to expose a top surface of the first conductive feature.

Abstract: Methods and systems for processing a plurality of sample reads for genome sequencing include, for each sample read of the plurality of sample reads, comparing substring sequences from the sample read to reference sequences representing different portions of a reference genome. One or more reference sequences are identified that match one or more of the compared substring sequences, and a probabilistic location within the reference genome is determined for the sample read based on the one or more identified reference sequences. The reference genome is partitioned for reference-aligned genome sequencing based on the determined probabilistic locations of the respective sample reads.

Abstract: A capacitor includes: a lower electrode including a metal nitride represented by MM?N, wherein M is a metal element, M? is an element different from M, and N is nitrogen; a dielectric layer on the lower electrode; an interfacial layer between the lower electrode and the dielectric layer and including a metal nitrate represented by MM?ON, wherein M is a metal element, M? is an element different from M, N is nitrogen, and O is oxygen; and an upper electrode on the dielectric layer.

Abstract: A method includes providing a layered structure on a substrate, the layered structure including a bottom layer formed over the substrate, a hard mask layer formed over the bottom layer, a material layer formed over the hard mask layer, and a photoresist layer formed over the material layer, exposing the photoresist layer to a radiation source, developing the photoresist layer, where the developing removes portions of the photoresist layer and the material layer in a single step without substantially removing portions of the hard mask layer, and etching the hard mask layer using the photoresist layer as an etch mask. The material layer may include acidic moieties and/or acid-generating molecules. The material layer may also include photo-sensitive moieties and crosslinking agents.

Abstract: The semiconductor structure includes a substrate; a dielectric layer formed on the substrate; an opening, formed through the dielectric layer; a contact layer formed at bottom of the opening; a blocking layer formed on a sidewall surface of the opening; and a plug formed in the opening. The plug is formed on a sidewall surface of the blocking layer and in contact with the contact layer.

Abstract: The present disclosure provides a method for preparing a semiconductor device structure with fine patterns at different levels. The method includes forming a hard mask material over a substrate; etching the hardmask material to form hard mask pillars; forming spacers over sidewall surfaces of the hard mask pillars; etching the hard mask pillars and the target material by using the spacers as a mask to integrally forming a plurality of target structures, a high-level recesses in one of the plurality of target structures and a low-level recess between two target structures; and integrally forming a high-level conductive pattern in the high-level conductive pattern and a low-level conductive pattern in the low-level recess.

Abstract: A semiconductor device structure and a method for fabricating the same. The semiconductor device structure includes an embedded memory device and an electrode in contact with a top surface of the memory embedded device. A metal encapsulation layer is in contact with a top surface of the electrode and a portion of sidewalls of the electrode. The metal encapsulation layer comprises one or more materials that are chemical etch resistant and are conductive when oxidized. The method includes forming an insulating layer over a memory device and an electrode in contact with the memory device. Portions of the insulating layer are etched. The etching exposes a top surface and a portion of sidewalls of the electrode. A metal encapsulation layer is formed over and in contact with the top surface and the portion of sidewalls of the electrode.

Abstract: The present disclosure pertains to a barrier stack for thin film and/or printed electronics on substrates having a diffusible element and/or species, methods of manufacturing the same, and methods of inhibiting or preventing diffusion of a diffusible element or species in a substrate using the same. The barrier stack includes a first barrier layer on the substrate, an insulator layer on the first barrier layer, a second barrier layer on the insulator layer in a first region of the substrate, and a third barrier layer on the insulator layer in a second region of the substrate and on the second barrier layer in the first region. Each of the second and third barrier layers has a thickness less than that of the first barrier layer.

Abstract: A semiconductor memory device includes a stack structure and a slit structure. The stack structure includes insulation layers and conductive layers alternately stacked with the insulation layers. The slit structure is configured to divide the stack structure into memory blocks. A part of the slit structure configured to define one memory block has a dashed shape including a slit region and a bridge region.

Abstract: A package substrate has a dielectric layer and a redistribution metal layer. The dielectric layer has a first dielectric material and a second dielectric material. The first dielectric material is different than the second dielectric material. The second dielectric material may have a dielectric constant that is either greater than or less than the dielectric constant of the first dielectric material. The second dielectric may be selected based on a specific target application such as single-ended signal routing or serializer/deserializer (SERDES) routing.

Abstract: A printed circuit board includes a first insulating layer; a first wiring layer buried in the first insulating layer, exposed to one surface of the first insulating layer, and including a plurality of first wiring patterns; a second wiring layer including a plurality of second wiring patterns spaced apart from the plurality of first wiring patterns on the one surface of the first insulating layer; and a second insulating layer disposed on the one surface of the first insulating layer and covering the plurality of second wiring layers. At least a portion of the plurality of second wiring patterns on the one surface of the first insulating layer is disposed in regions between adjacent first wiring patterns among the plurality of first wiring patterns.

Abstract: Semiconductor devices may include an active pattern, a gate structure in an upper portion of the active pattern, a bit line structure on the active pattern, a lower spacer structure on a lower portion of a sidewall of the bit line structure, and an upper spacer structure on an upper portion of the sidewall of the bit line structure. The lower spacer structure includes first and second lower spacers sequentially stacked, the first lower spacer contacts the lower portion of the sidewall of the bit line structure and does not include nitrogen, and the second lower spacer includes a material different from the first lower spacer. A portion of the upper spacer structure contacting the upper portion of the sidewall of the bit line structure includes a material different from the first lower spacer.

Abstract: A semiconductor device includes: a plurality of vertical conductive structures, wherein each of the plurality of vertical conductive structures extends through an isolation layer; and an insulated extension disposed horizontally between a first one and a second one of the plurality of vertical conductive structures.

Abstract: An electronic device package includes an encapsulated electronic component, a redistribution layer (RDL) and a conductive via. The RDL is disposed above the encapsulated electronic component. The RDL includes a circuit layer comprising a conductive pad including a pad portion having a curved edge and a center of curvature, and an extension portion protruding from the pad portion and having a curved edge and a center of curvature. The circuit layer further includes a dielectric layer above the RDL. The conductive via is disposed in the dielectric layer and connected to the conductive pad of the RDL. A center of the conductive via is closer to the center of curvature of the edge of the extension portion than to the center of curvature of the edge of the pad portion.

Abstract: The present application provides a method for fabricating a semiconductor device including providing a substrate, concurrently forming a first conductive line and a bottom contact on the substrate, concurrently forming a first conductive line spacer on a sidewall of the first conductive line and a bottom contact spacer on a sidewall of the bottom contact, forming a first insulating layer over the substrate and concurrently forming an air gap between the first conductive line spacer and the bottom contact spacer.

Abstract: According to one embodiment, a semiconductor wafer is formed with a plurality of first regions each provided with a circuit element and a second region between the first regions. The semiconductor wafer includes a first structure in which a first embedding material is embedded in a first recess extending in a first direction perpendicular to a surface of a substrate. The first structure is between edges of the first regions and a third region that is cut in the second region when the first regions are separated.

Abstract: A semiconductor device and method of manufacture are provided which utilize an air gap to help isolate conductive structures within a dielectric layer. A first etch stop layer is deposited over the conductive structures, and the first etch stop layer is patterned to expose corner portions of the conductive structures. A portion of the dielectric layer is removed to form an opening. A second etch stop layer is deposited to line the opening, wherein the second etch stop layer forms a stepped structure over the corner portions of the conductive structures. Dielectric material is then deposited into the opening such that an air gap is formed to isolate the conductive structures.

Abstract: A method includes forming an insulating layer over a conductive feature; etching the insulating layer to expose a first surface of the conductive feature; covering the first surface of the conductive feature with a sacrificial material, wherein the sidewalls of the insulating layer are free of the sacrificial material; covering the sidewalls of the insulating layer with a barrier material, wherein the first surface of the conductive feature is free of the barrier material, wherein the barrier material includes tantalum nitride (TaN) doped with a transition metal; removing the sacrificial material; and covering the barrier material and the first surface of the conductive feature with a conductive material.

Abstract: A semiconductor package including a redistribution substrate with a first insulating layer, one or more second insulating layers on the first insulating layer, and a plurality of redistribution layers. The first insulating layer includes a first photosensitive resin having an elongation of 60% or more and toughness of 70 mJ/mm3 or more. The one or more second insulating layers include a second photosensitive resin having an elongation in a range of 10% to 40% and toughness of 40 mJ/mm3.

Abstract: A semiconductor device includes: a first conductive structure having sidewalls and a bottom surface, the first conductive structure extending through one or more isolation layers formed on a substrate; and an insulation layer disposed between at least one of the sidewalls of the first conductive structure and respective sidewalls of the one or more isolation layers, wherein the first conductive structure is electrically coupled to a second conductive structure through at least the bottom surface.

Abstract: An example embodiment of the present disclosure involves a method for semiconductor device fabrication. The method comprises providing a structure that includes a conductive component and an interlayer dielectric (ILD) that includes silicon and surrounds the conductive component, and forming, over the conductive component and the ILD, an etch stop layer (ESL) that includes metal oxide. The ESL includes a first portion in contact with the conductive component and a second portion in contact with the ILD. The method further comprises baking the ESL to transform the metal oxide located in the second portion of the ESL into metal silicon oxide, and selectively etching the ESL so as to remove the first portion of the ESL but not the second portion of the ESL.

Abstract: An array substrate, a display device and a fabrication method are provided. The array substrate includes a first metal layer at one side of a base substrate, the first metal layer including a light shielding part, a source, a drain in a display area; a second metal layer at a side, facing away from an active layer, of gate insulating layer, the second metal layer includes a gate, a source-landing electrode a drain-landing electrode in the display area, the source-landing electrode is in contact with the active layer and the source through a first via hole penetrating through the gate insulating layer and a buffer layer and exposing one end of the active layer, the drain-landing electrode is in contact with the active layer and the drain through a second via hole penetrating through the gate insulating layer and the buffer layer and exposing other end of the active layer.

Abstract: The present disclosure, in some embodiments, relates to a method of forming an integrated chip structure. The method may be performed by forming a plurality of interconnect layers within a first interconnect structure disposed over an upper surface of a first semiconductor substrate. An edge trimming process is performed to remove parts of the first interconnect structure and the first semiconductor substrate along a perimeter of the first semiconductor substrate. The edge trimming process results in the first semiconductor substrate having a recessed surface coupled to the upper surface by way of an interior sidewall disposed directly over the first semiconductor substrate. A dielectric capping structure is formed onto a sidewall of the first interconnect structure after performing the edge trimming process.

Abstract: An interconnection structure, along with methods of forming such, are described. The structure includes a dielectric material and a conductive feature extending through the dielectric material. The conductive feature includes a conductive material and has a first top surface. The structure further includes a dummy conductive feature disposed adjacent the conductive feature in the dielectric material, and the dummy conductive feature has a second top surface substantially co-planar with the first top surface. An air gap is formed in the dummy conductive feature.