Abstract: The present invention has an object to perform a peeling treatment in a short time. Peeling is performed while a peeling layer is exposed to an atmosphere of an etching gas. Alternatively, peeling is performed while an etching gas for a peeling layer is blown to the peeling layer in an atmosphere of an etching gas. Specifically, an etching gas is blown to a part to be peeled while a layer to be peeled is torn off from a substrate. Alternatively, peeling is performed in an etchant for a peeling layer while supplying an etchant to the peeling layer.

Abstract: Provided is a photoelectric conversion device including: a semiconductor substrate having a photoelectric conversion unit; a first conductive layer formed over the semiconductor substrate; a first diffusion prevention layer formed over the first conductive layer; and a light guide that guides an incident light into the photoelectric conversion unit, in which the first diffusion prevention layer contains hydrogen atoms and carbon atoms, and a composition ratio of the hydrogen atoms is greater than or equal to 46 at % and less than or equal to 50 at %.

Abstract: The present invention provides a semiconductor device manufacturing method that can sense the atmospheric air leakage more precisely and that can prevent too many defective products from being manufactured. The semiconductor device manufacturing method according to the embodiment includes the steps of: forming a barrier layer over an interlayer insulating film over a semiconductor substrate; forming a wiring layer over the barrier layer; forming a mask having an opening and configured by a photosensitive organic film over the wiring layer; patterning the wiring layer by etching the wiring layer through the opening; and removing the mask by a plasma processing using an ashing gas. The step of removing the mask includes the step of sensing an atmospheric air leakage that is mixture of the atmospheric air into the ashing gas by measuring an emission intensity of nitrogen in the ashing gas using an ultraviolet photometer.

Abstract: An interconnect structure for use in semiconductor devices and a method for fabricating the same is described. The method includes positioning a substrate in a vacuum processing chamber, wherein the substrate comprises a copper layer having an exposed surface and a low-k dielectric layer having an exposed surface, forming a metal layer over the exposed surface of the copper layer, wherein the exposed surface of the low-k dielectric layer is free from the metal layer, and forming a metal-based dielectric layer over the metal layer and over at least part of the exposed low-k dielectric surface, wherein the metal-based dielectric layer comprises an aluminum compound.

Abstract: Interconnect structures and methods of fabricating an interconnect structure. A first section of a mandrel is covered with a feature of an etch mask. A top surface of a second section of the mandrel is exposed by the feature of the etch mask and is recessed with an etching process. A conductive via is formed that reproduces a shape of the first section of the mandrel, and a conductive line is formed that reproduces a shape of the second section of the mandrel. The mandrel is removed to release the conductive via and the conductive line.

Abstract: An integrated circuit includes a first conductive line on a first metal level of the integrated circuit. The integrated circuit further includes a second conductive line on a second metal level of the integrated circuit. The integrated circuit further includes a slot via electrically connecting the first conductive line with the second conductive line. The slot via overlaps with the first conductive line and the second conductive line. The slot via extends beyond a periphery of at least one of the first conductive line or the second conductive line.

Abstract: Methods of forming a semiconductor device are provided. A method of forming a semiconductor device may include forming a capping layer on a metal pattern and on an adjacent portion of an insulating layer, the capping layer comprising a first etch selectivity, with respect to the insulating layer, on the metal pattern and a second etch selectivity, with respect to the insulating layer, on the portion of the insulating layer. Moreover, the method may include forming a recess region adjacent the metal pattern by removing the capping layer from the portion of the insulating layer. At least a portion of the capping layer may remain on an uppermost surface of the metal pattern after removing the capping layer from the portion of the insulating layer. Related semiconductor devices are also provided.

Abstract: A method utilizing a chemical mechanical polishing process to remove a patterned material stack comprising at least one pattern transfer layer and a template layer during a rework process or during a post pattern transfer cleaning process is provided. The pattern in the patterned material stack is formed by pattern transfer of a directed self-assembly pattern generated from microphase separation of a self-assembly material.

Abstract: An object of the invention is to provide a semiconductor device having less cracking or peeling and a method of manufacturing the same. A fuse portion of a semiconductor device has bit lines electrically coupled to a SRAM memory cell. The bit lines are covered by an interlayer insulating film. As the interlayer insulating film, a boron-doped BPTEOS film is formed. The bit lines have thereabove a fuse. The fuse and the bit lines are electrically coupled to each other via contact plugs. The interlayer insulating film that covers the bit lines therewith is separated from the contact plugs.

Abstract: There is provided a cleaner composition for a process of manufacturing a semiconductor and a display. The cleaner composition includes 0.01 to 5.0 wt % of amino acid-based chelating agent, 0.01 to 1.5 wt % of organic acid, 0.01 to 1.0 wt % of inorganic acid, 0.01 to 5.0 wt % of alkali compound, and the balance of deionized water and is based on acidic water with pH levels of 1 to 5. The cleaner composition may enhance metal contaminants removal capability and have a function to remove particles and organic contaminants, and prevent corrosion of copper and reverse adsorption of copper. Thus, cleaner composition may be used for various purposes of etching copper, removing residues, and a cleaner by adjusting an etch rate.

Abstract: The disclosed technology generally relates to integrated circuit devices and methods of forming the same, and more particularly to metal electrodes whose effective work function can be tuned. In one aspect, a method of forming a metal electrode of a semiconductor structure includes providing a semiconductor substrate having at least a region covered with a dielectric. The semiconductor substrate is introduced into a chamber configured for atomic layer deposition (ALD). A metal for the metal electrode is deposited at least on the dielectric by performing an ALD cycle. Performing the ALD cycle includes pulsing a Ti-containing precursor gas followed by pulsing a Ta-containing precursor gas, and further includes pulsing NH3 gas.

Abstract: A structure and a formation method of a semiconductor device structure are provided. The semiconductor device structure includes a semiconductor substrate and a conductive feature over the semiconductor substrate. The semiconductor device structure also includes a dielectric layer over the conductive feature and the semiconductor substrate and a via hole in the dielectric layer. The via hole has an oval cross section. The semiconductor device structure further includes a trench in the dielectric layer, and the via hole extends from a bottom portion of the trench. The trench has a trench width wider than a hole width of the via hole. In addition, the semiconductor device structure includes one or more conductive materials filling the via hole and the trench and electrically connected to the conductive feature.

Abstract: Disclosed herein is a semiconductor device including: a substrate having a first conductive layer and a second conductive layer arranged deeper than the first conductive layer; a large-diameter concave portion having, on a main side of a substrate, an opening sized to overlap the first and second conductive layers, with the first conductive layer exposed in part of the bottom of the large-diameter concave portion; a small-diameter concave portion extended from the large-diameter concave portion and formed by digging into the bottom of the large-diameter concave portion, with the second conductive layer exposed at the bottom of the small-diameter concave portion; and a conductive member provided in a connection hole made up of the large- and small-diameter concave portions to connect the first and second conductive layers.

Abstract: Integrated circuit (IC) structure embodiments and methods of forming them with middle of the line (MOL) contacts that incorporate a protective cap, which provides protection from damage during back end of the line (BEOL) processing. Each MOL contact has a main body in a lower portion of a contact opening. The main body has a liner (e.g., a titanium nitride layer) that lines the lower portion and a metal layer on the liner. The MOL contact also has a protective cap in an upper portion of the contact opening above the first metal layer and extending laterally over the liner to the sidewalls of the contact opening. The protective cap has an optional liner, which is different from the liner in the lower portion, and a metal layer, which is either the same or different than the metal in the main body.

Abstract: Methods of forming conductive interconnect structures are described. Those methods/structures may include providing a package substrate comprising a substrate core, and forming at least one conductive interconnect structure disposed on the substrate core. The conductive interconnect structure may comprise a first side that is directly disposed on a surface of the substrate core, and a second side opposite the first side, wherein the second side comprises a greater length than a length of the first side.

Abstract: A substrate structure and a manufacturing method thereof are provided. The substrate structure comprises a dielectric material layer, a conductive wiring layer, a metal core layer, and a conductive pillar layer. The conductive wiring layer is disposed on a surface of the dielectric material layer. The metal core layer having a metal part is disposed inside the dielectric material layer. The conductive pillar layer is disposed inside the dielectric material layer and between the metal core layer and the conductive wiring layer. The metal part has a first side and a second side opposite the first side. One of the first side and the second side is electrically connected to the conductive pillar layer. A width of the first side is different from a width of the second side.

Abstract: A device relates to a semiconductor device. The semiconductor device includes a narrow-line bamboo microstructure integrated within a metal layer of the semiconductor device and a narrow-line polycrystalline microstructure. The narrow-line polycrystalline microstructure is integrated within the same metal layer as the narrow-line bamboo microstructure.

Abstract: A semiconductor device includes a first conductive pattern on a substrate, an insulating diffusion barrier layer conformally covering a surface of the first conductive pattern, the insulation diffusion barrier layer exposed by an air gap region adjacent to a sidewall of the first conductive pattern, and a second conductive pattern on the first conductive pattern, the second conductive pattern penetrating the insulating diffusion barrier layer so as to be in contact with the first conductive pattern.

Abstract: The present invention is directed to a memory device having a via landing pad in the peripheral circuit that minimizes the memory cell size. A device having features of the present invention comprises a peripheral circuit region and a magnetic memory cell region including at least a magnetic tunnel junction (MTJ) element. The peripheral circuit region comprises a substrate and a bottom contact formed therein; a landing pad including a first magnetic layer structure formed on top of the bottom contact and a second magnetic layer structure separated from the first magnetic layer structure by an insulating tunnel junction layer, wherein each of the insulating tunnel junction layer and the second magnetic layer structure has an opening aligned to each other; and a via partly embedded in the landing pad and directly coupled to the first magnetic layer structure through the openings.

Abstract: Method for producing one or more connection elements for integrated circuit including the formation of sacrificial elements passing through a porous layer formed between two superimposed levels of transistors, then the removal of the sacrificial elements through the porous layer and their replacement by a conductor material before or after having produced a higher level transistor.

Abstract: A method of manufacturing a semiconductor device includes forming a first via having a first diameter in a first main surface of a semiconductor substrate having a first thickness, after forming a first insulating film on a bottom surface and a side surface of the first via, forming a first through electrode inside the first via a first barrier metal film, after forming the first through electrode, processing the semiconductor substrate from a second main surface on an opposite side of the first main surface to reduce the first thickness of the semiconductor substrate to a second thickness thinner than the first thickness, after processing the semiconductor substrate, forming a third insulating film on the second main surface of the semiconductor substrate, and after forming the third insulating film, sequentially processing the third insulating film and the semiconductor substrate.

Abstract: A resistive random access memory device includes a bottom electrode, a plurality of memory stacks separately formed over the bottom electrode, a third oxygen diffusion barrier layer formed between the memory stacks, and a top electrode formed over the plurality of memory stacks and the third oxygen diffusion barrier layer. Each of the plurality of memory stacks includes a resistive switching layer formed over the bottom electrode, a first oxygen diffusion barrier layer formed over the resistive switching layer, a conductive oxygen reservoir layer formed over the first oxygen diffusion barrier layer, and a second oxygen diffusion barrier layer formed over the conductive oxygen reservoir layer.

Abstract: Methods of forming a semiconductor device are provided. A method of forming a semiconductor device may include forming a capping layer on a metal pattern and on an adjacent portion of an insulating layer, the capping layer comprising a first etch selectivity, with respect to the insulating layer, on the metal pattern and a second etch selectivity, with respect to the insulating layer, on the portion of the insulating layer. Moreover, the method may include forming a recess region adjacent the metal pattern by removing the capping layer from the portion of the insulating layer. At least a portion of the capping layer may remain on an uppermost surface of the metal pattern after removing the capping layer from the portion of the insulating layer. Related semiconductor devices are also provided.

Abstract: Methods of fabricating a semiconductor device are described. The method includes forming a patterned oxide layer having a plurality of openings over a substrate, depositing a metal layer in the openings to form metal plugs, depositing a global transformable (GT) layer on the oxide layer and the metal plugs, and depositing a capping layer directly on the GT layer without exposing the GT layer to ambient air. The GT layer on the oxide layer transforms into a dielectric oxide and the GT layer on the metal plugs remains conductive during deposition of the capping layer.

Abstract: Aspects include a method of manufacturing a flexible electronic structure that includes a metal or doped silicon substrate. Aspects include depositing an insulating layer on a silicon substrate. Aspects also include patterning a metal on a silicon substrate. Aspects also include selectively masking the structure to expose the metal and a portion of the silicon substrate. Aspects also include depositing a conductive layer including a conductive metal on the structure. Aspects also include plating the conductive material on the structure. Aspects also include spalling the structure.

Abstract: A method of forming a non-volatile resistive oxide memory cell includes forming a first conductive electrode of the memory cell as part of a substrate. Metal oxide-comprising material is formed over the first conductive electrode. Etch stop material is deposited over the metal oxide-comprising material. Conductive material is deposited over the etch stop material. A second conductive electrode of the memory cell which comprises the conductive material received is formed over the etch stop material. Such includes etching through the conductive material to stop relative to the etch stop material and forming the non-volatile resistive oxide memory cell to comprise the first and second conductive electrodes having both the metal oxide-comprising material and the etch stop material therebetween. Other implementations are contemplated.

Abstract: After forming a source/drain contact including a source/drain contact liner and a source/drain contact conductor surrounded by the source/drain contact liner to contact one of source/drain regions formed on opposite sides of a functional gate structure, vertical portions of the source/drain contact liner are recessed partially or completely to provide a cavity between the functional gate structure and the source/drain contact conductor. An etch resistant layer is deposited over the functional gate structure, each source/drain contact and each cavity to pinch off each cavity, thus forming an airgap between the functional gate structure and each source/drain contact.

Abstract: A method of fabricating a substrate includes forming spaced first features over a substrate. An alterable material is deposited over the spaced first features and the alterable material is altered with material from the spaced first features to form altered material on sidewalls of the spaced first features. A first material is deposited over the altered material, and is of some different composition from that of the altered material. The first material is etched to expose the altered material and spaced second features comprising the first material are formed on sidewalls of the altered material. Then, the altered material is etched from between the spaced second features and the spaced first features. The substrate is processed through a mask pattern comprising the spaced first features and the spaced second features. Other embodiments are disclosed.

Abstract: A method for forming an interconnect structure includes forming a dielectric material layer on a semiconductor substrate. The dielectric material layer is patterned to form a plurality of vias therein. A first metal layer is formed on the dielectric material layer, wherein the first metal layer fills the plurality of vias. The first metal layer is planarized so that the top thereof is co-planar with the top of the dielectric material layer to form a plurality of first metal features. A stop layer is formed on top of each of the plurality of first metal features, wherein the stop layer stops a subsequent etch from etching into the plurality of the first metal features.

Abstract: The invention relates to a contact structure of a semiconductor device. An exemplary structure for a contact structure for a semiconductor device comprises a substrate comprising a major surface and a trench below the major surface; a strained material filling the trench, wherein a lattice constant of the strained material is different from a lattice constant of the substrate; an inter-layer dielectric (ILD) layer having an opening over the strained material, wherein the opening comprises dielectric sidewalls and a strained material bottom; a dielectric layer coating the sidewalls and bottom of the opening, wherein the dielectric layer has a thickness ranging from 1 nm to 10 nm; and a metal layer filling a coated opening of the dielectric layer.

Abstract: An apparatus relating generally to a substrate is disclosed. In such an apparatus, the substrate has a first surface and a second surface opposite the first surface. The first surface and the second surface define a thickness of the substrate. A via structure extends from the first surface of the substrate to the second surface of the substrate. The via structure has a first terminal at or proximate to the first surface and a second terminal at or proximate to the second surface provided by a conductive member of the via structure extending from the first terminal to the second terminal. A barrier layer of the via structure is disposed between at least a portion of the conductive member and the substrate. The barrier layer has a conductivity configured to offset a capacitance between the conductive member and the substrate when a signal is passed through the conductive member of the via structure.

Abstract: A method for forming an interconnect device is provided by the present disclosure. The method includes providing a dielectric layer on a substrate, forming openings in the dielectric layer to expose a portion of a surface of the substrate at a bottom of each opening and forming a metal layer to fill up the openings. The method also includes forming a semiconductor cover layer on the metal layer and on the dielectric layer, and performing a thermal annealing reaction to convert portions of the semiconductor cover layer that are on the metal layer into a metal capping layer. The method further includes performing a nitridation process on the metal capping layer and a remaining semiconductor cover layer to convert the metal capping layer into a metal nitride capping layer and the remaining semiconductor cover layer into a semiconductor nitride layer.

Abstract: To improve productivity of a transistor that includes an oxide semiconductor and has good electrical characteristics. In a top-gate transistor including a gate insulating film and a gate electrode over an oxide semiconductor film, a metal film is formed over the oxide semiconductor film, oxygen is added to the metal film to form a metal oxide film, and the metal oxide film is used as a gate insulating film. After an oxide insulating film is formed over the oxide semiconductor film, a metal film may be formed over the oxide insulating film. Oxygen is added to the metal film to form a metal oxide film and added also to the oxide semiconductor film or the oxide insulating film.

Abstract: A vertical three dimensional (3D) microstrip line structure for improved tunable characteristic impedance, methods of manufacturing the same and design structures are provided. More specifically, a method is provided that includes forming a first microstrip line structure within a back end of the line (BEOL) stack. The method further includes forming a second microstrip line structure separated from the BEOL stack by a predetermined horizontal distance.

Abstract: In accordance with an embodiment of the present invention, a semiconductor device includes a first bond pad disposed at a first side of a substrate. The first bond pad includes a first plurality of pad segments. At least one pad segment of the first plurality of pad segments is electrically isolated from the remaining pad segments of the first plurality of pad segments.

Abstract: Embodiments of the present disclosure are directed toward interconnect routing configurations and associated techniques. In one embodiment, an apparatus includes a substrate, a first routing layer disposed on the substrate and having a first plurality of traces, and a second routing layer disposed directly adjacent to the first routing layer and having a second plurality of traces, wherein a first trace of the first plurality of traces has a width that is greater than a width of a second trace of the second plurality of traces. Other embodiments may be described and/or claimed.

Abstract: A method of forming an interconnect structure includes providing a first dielectric layer, patterning a wire opening in a first dielectric layer, lining the wire opening with a metal liner and includes filling the wire opening with a first conductive material. The method also includes depositing a first cap on the first dielectric layer, depositing a second dielectric layer, and patterning a via trench in the second dielectric layer. The method also includes depositing a metal liner, removing the metal liner from a via junction, and enlarging the contact area. The method also includes filling the via trench with a second conductive material to form a via.

Abstract: Methods of depositing highly conformal and pure titanium films at low temperatures are provided. Methods involve exposing a substrate to titanium tetraiodide, purging the chamber, exposing the substrate to a plasma, purging the chamber, and repeating these operations. Titanium films are deposited at low temperatures less than about 450° C.

Abstract: Contact holes are constrained to their designated active areas by etch-resistant walls so that they cannot contact adjacent active areas. Etch-resistant walls provide outer limits for any contact hole bending that may occur and thus keep contact holes substantially vertical. Mask openings for contact hole formation may be large so that they overlap etch-resistant walls.

Abstract: According to one embodiment, a semiconductor analysis microchip configured to detect a fine particle in a sample liquid, including a semiconductor substrate, a first flow channel provided in the semiconductor substrate, to which the sample liquid is introduced, and a pore provided in the first flow channel and configured to pass the fine particle in the sample liquid.

Abstract: Methods of fabricating a capped interconnect for a microelectronic device which includes a sealing feature for any gaps between a capping layer and an interconnect and structures formed therefrom. The sealing features improve encapsulation of the interconnect, which substantially reduces or prevents electromigration and/or diffusion of conductive material from the capped interconnect.

Abstract: Disclosed herein is a semiconductor device including: a substrate having a first conductive layer and a second conductive layer arranged deeper than the first conductive layer; a large-diameter concave portion having, on a main side of a substrate, an opening sized to overlap the first and second conductive layers, with the first conductive layer exposed in part of the bottom of the large-diameter concave portion; a small-diameter concave portion extended from the large-diameter concave portion and formed by digging into the bottom of the large-diameter concave portion, with the second conductive layer exposed at the bottom of the small-diameter concave portion; and a conductive member provided in a connection hole made up of the large- and small-diameter concave portions to connect the first and second conductive layers.

Abstract: An integrated circuit structure includes a first dielectric layer, an etch stop layer over the first dielectric layer, and a second dielectric layer over the etch stop layer. A via is disposed in the first dielectric layer and the etch stop layer. A metal line is disposed in the second dielectric layer, wherein the metal line is connected to the via. The etch stop layer includes a first portion having an edge contacting an edge of the via, wherein the first portion has a first chemical composition, and a second portion in contact with the first portion. The second portion is spaced apart from the via by the first portion, and wherein the second portion has a second chemical composition different from the first composition.

Abstract: A method for forming an interconnect device is provided by the present disclosure. The method includes providing a dielectric layer on a substrate, forming openings in the dielectric layer to expose a portion of a surface of the substrate at a bottom of each opening and forming a metal layer to fill up the openings. The method also includes forming a semiconductor cover layer on the metal layer and on the dielectric layer, and performing a thermal annealing reaction to convert portions of the semiconductor cover layer that are on the metal layer into a metal capping layer. The method further includes performing a nitridation process on the metal capping layer and a remaining semiconductor cover layer to convert the metal capping layer into a metal nitride capping layer and the remaining semiconductor cover layer into a semiconductor nitride layer.

Abstract: One or more semiconductor arrangements are provided. A semiconductor arrangement includes a first dielectric layer defining a first recess, a first contact in the first dielectric layer, a first metal cap over at least part of the first contact and a second dielectric layer over the first dielectric layer within the first recess and defining an air gap proximate the first contact.

Abstract: A semiconductor device and methods of forming a semiconductor device are disclosed. In the methods, a layer, such as an insulating interlayer, is formed on a substrate. A first trench is formed in the layer, and a mask layer is formed in the first trench. The mask layer has a first thickness from a bottom surface of the first trench to the top of the mask layer. The mask layer is patterned to form a mask that at least partially exposes a sidewall of the first trench. A portion of the mask adjacent to the exposed sidewall of the first trench has a second thickness smaller than the first thickness. The layer is etched to form a second trench using the mask as an etching mask. The second trench is in fluid communication with the first trench. A conductive pattern is formed in the first trench and the second trench.

Abstract: A method for creating a pattern on a substrate (101) is presented, the method comprises: providing a substrate (101) comprising silicon; creating a sacrificial layer (102) on the substrate (101), wherein the sacrificial layer is formed on a first surface area (101a) of the substrate thereby leaving a second surface area (101b) exposed; depositing a first functional layer (103) at least on the second surface area (101b) of the substrate (101); removing the sacrificial layer (102); wherein: removing the sacrificial layer (102) is performed by etching the sacrificial layer (102) with an acidic aqueous solution that does not adversely affect the first functional layer (103) and the substrate (101).

Abstract: The present disclosure describes methods for transferring a desired layout into a target layer on a semiconductor substrate. An embodiment of the methods includes forming a first desired layout feature as a first line over the target layer; forming a spacer around the first line; depositing a spacer-surrounding material layer; removing the spacer to form a fosse pattern trench surrounding the first line; and transferring the fosse pattern trench into the target layer to form a fosse feature trench in the target layer, wherein the fosse feature trench surrounds a first portion of the target layer that is underneath a protection layer. In some embodiments, the method further includes patterning a second desired layout feature of the desired layout into the target layer wherein the fosse feature trench and the protection layer serve to self-align the second desired layout feature with the first portion of the target layer.

Abstract: A method of forming a non-volatile memory device. The method forms a vertical stack of first polysilicon material and a second polysilicon material layer isolated by a dielectric material. The polysilicon material layers and the dielectric material are subjected to a first pattern and etch process to form a first wordline associated with a first switching device and a second wordline associated with a second switching device from the first polysilicon material layer, and a third wordline associated with a third switching device and a fourth wordline associated with a fourth switching device from the second polysilicon material. A via opening is formed to separate the first wordline from the second wordline and to separate the third wordline from the fourth wordline. An amorphous silicon switching material is deposited conformably overlying the via opening. A metal material fills the via opening and connects to a common bitline.

Abstract: A method for forming conductive contacts in a dielectric layer is provided. Partial vias are etched into the dielectric layer through a via mask. Trenches are etched into the dielectric layer through a trench mask, wherein the etching the trenches completes and over etches the vias to widen bottoms of the vias. Tops of the trenches or vias are rounded.