Abstract: A method of forming a redistribution structure includes providing a dielectric layer. The dielectric layer is patterned to form a plurality of via openings. A seed layer is formed on the dielectric layer and filling in the plurality of via openings. A patterned conductive layer is formed a on the seed layer, wherein a portion of the seed layer is exposed by the patterned conductive layer. The portion of the seed layer is removed by using an etching solution, thereby forming a plurality of conductive lines and a plurality of vias. During the removing the portion of the seed layer, an etch rate of the patterned conductive layer is less than an etch rate of the seed layer.

Abstract: A method of forming a vertical transistor comprising a top source/drain region, a bottom source/drain region, a channel region vertically between the top and bottom source/drain regions, and a gate operatively laterally-adjacent the channel region comprises, in multiple time-spaced microwave annealing steps, microwave annealing at least the channel region. The multiple time-spaced microwave annealing steps reduce average concentration of elemental-form H in the channel region from what it was before start of the multiple time-spaced microwave annealing steps. The reduced average concentration of elemental-form H is 0.005 to less than 1 atomic percent. Structure embodiments are disclosed.

Abstract: An operation method of a multi-bits read only memory includes a step of applying a gate voltage to a conductive gate, a first voltage to a first electrode, and a second voltage to a second electrode. The multi-bits read only memory of the present invention includes a substrate and a transistor structure with the conductive gate mounted between the first electrode and the second electrode, a first oxide located between the first electrode and the conductive gate, and a second oxide located between the second electrode and the conductive gate. The present invention creates an initial state wherein the transistor structure is not conducting, an intermediate state wherein the first oxide is punched through by the first voltage, and a fully opened state wherein both the first oxide and the second oxide are punched through. The aforementioned states allow storage of multiple bits on the read only memory.

Abstract: A semiconductor device includes a first semiconductor chip that includes a first conductive pad whose top surface is exposed; and a second semiconductor chip that includes a second conductive pad whose top surface is exposed and in contact with at least a portion of the top surface of the first conductive pad. The first semiconductor chip may include a first diffusion barrier in contact with a bottom surface of the first conductive pad, and a second diffusion barrier in contact with a lateral surface of the first conductive pad, and the first diffusion barrier and the second diffusion barrier may include different materials from each other.

Abstract: Provided is a long laminate for a printed wiring board, which has reduced thickness of a resin layer and increased signal transmission speed, and which, while being excellent in dimensional stability and folding endurance, has no wrinkles in a fluororesin layer. The long laminate contains a metal layer of a long metal foil, a fluororesin layer containing a fluororesin and contacting the metal layer, and a heat-resistant resin layer containing a heat-resistant resin and contacting the fluororesin layer. Each fluororesin layer is 1 to 10 ?m thick. The ratio of the total thickness of the fluororesin layer to the total thickness of the heat-resistant resin layer is 0.3 to 3.0. The sum of the total thickness of the fluororesin layer and the total thickness of the heat-resistant resin layer is at most 50 ?m. Also provided are a method for producing the long laminate, and the printed wiring board.

Abstract: A substrate processing apparatus which can remove foreign matters attached to the entire upper surface of a substrate such as a wafer is disclosed. The substrate processing apparatus includes: a substrate holding apparatus; and a processing head configured to scrub an upper surface of a substrate. The substrate holding apparatus includes: a substrate holder configured to hold the substrate; and a substrate rotating mechanism configured to rotate the substrate held by the substrate holder. The substrate holder is disposed below the upper surface of the substrate so as not to project above the upper surface of the substrate in a state where the substrate is held by the substrate holder.

Abstract: A method for forming an interconnect structure is provided. The method for an interconnect structure includes forming a first metal material over a semiconductor substrate, and forming a first mask element over the first metal material. The first mask element has an opening through the first mask element. The method for forming the interconnect structure also includes forming a second metal material over the first mask element and the first metal material and in the opening, and forming a second mask element corresponding to the opening and over the second metal material. The method for forming the interconnect structure also includes etching the second metal material and the first metal material using the second mask element and the first mask element to form a via and a first metal line respectively.

Abstract: An object of the present invention is to provide a treatment liquid for manufacturing a semiconductor and a pattern forming method, in which the formation of particles including metal atoms can be reduced and an excellent pattern can be formed. A treatment liquid for manufacturing a semiconductor according to an embodiment of the present invention includes: a quaternary ammonium compound represented by Formula (N); at least one additive selected from the group consisting of an anionic surfactant, a nonionic surfactant, a cationic surfactant, and a chelating agent; and water. The treatment liquid for manufacturing a semiconductor includes one kind or two or more kinds of metal atoms selected from the group consisting of Na, K, Ca, Fe, Cu, Mg, Mn, Li, Al, Cr, Ni, and Zn, and a total mass of the metal atoms is 1 mass ppt to 1 mass ppm with respect to the sum of a total mass of the additive and the total mass of the metal atoms.

Abstract: Integrated circuit structures including device terminal interconnect pillar structures, and fabrication techniques to form such structures. Following embodiments herein, a small transistor terminal interconnect footprint may be achieved by patterning recesses in a gate interconnect material and/or a source or drain interconnect material. A dielectric deposited over the gate interconnect material and/or source or drain interconnect material may be planarized to expose portions of the gate interconnect material and/or drain interconnect material that were protected from the recess patterning. An upper level interconnect structure, such as a conductive line or via, may contact the exposed portion of the gate and/or source or drain interconnect material.

Abstract: A method for forming a layer comprising SiOC on a substrate is disclosed. An exemplary method includes selectively depositing a layer comprising silicon nitride on the first material relative to the second material and depositing the layer comprising SiOC overlying the layer comprising silicon nitride.

Abstract: The present disclosure provides methods for forming a conductive fill material (e.g., a conductive feature) by a physical vapor deposition (PVD) process. In one embodiment, a method of forming a conductive fill material on a substrate includes maintaining a first substrate temperature at a first range for a first period of time while forming a pre-layer of a conductive fill material on a substrate, providing a thermal energy to the substrate to maintain the substrate at a second substrate temperature at a second range for a second period of time, wherein the second substrate temperature is higher than the first substrate temperature, and continuously providing the thermal energy to the substrate to maintain the substrate a third substrate temperature at a third range for a third period of time to form a bulk layer of the conductive fill material on the substrate.

Abstract: A semiconductor device includes an insulating layer, a barrier electrode layer formed on the insulating layer, a Cu electrode layer that includes a metal composed mainly of copper and that is formed on a principal surface of the barrier electrode layer, and an outer-surface insulating film that includes copper oxide, that coats an outer surface of the Cu electrode layer, and that is in contact with the principal surface of the barrier electrode layer.

Abstract: According to embodiments of the present invention, a semiconductor wafer includes a substrate and an interlayer dielectric located on the substrate. The interlayer dielectric includes an interconnect. A barrier layer is located in between the interconnect and the interlayer dielectric. A semi-liner layer is located in between the interconnect and the barrier layer. The interlayer dielectric, the interconnect, and barrier layer form a substantially planar surface opposite the substrate. The interconnect has an interconnect height from a base to the substantially planar surface and a semi-liner height of the semi-liner layer is less than the interconnect height such that liner layer does not extend to the planar surface.

Abstract: A method of forming fully aligned vias in a semiconductor device, the method including recessing a first level interconnect line below a first interlevel dielectric (ILD), laterally etching the exposed upper portion of the first interlevel dielectric bounding the recess, depositing a dielectric cap layer and a second level interlevel dielectric on top of the first interlevel dielectric, and forming a via opening.

Abstract: According to one embodiment, a semiconductor device includes a substrate, a first conductive layer, a second conductive layer, and a contact plug. The first conductive layer is disposed on the substrate and contains a metal silicide. The second conductive layer is disposed on the first conductive layer and contains a metal having bond dissociation energy larger than bond dissociation energy of the metal silicide. The contact plug is disposed on the second conductive layer and includes a main body portion, and a peripheral portion disposed on the surface of the main body portion and containing titanium.

Abstract: Embodiments of the invention describe a method of forming an integrated circuit. The method includes forming an active semiconductor device region over a substrate. A first contact structure is formed over the active semiconductor device region, wherein the first contact structure includes a first contact liner material and a first contact body material. A conductive gate structure is formed over the active semiconductor device region, and a first gate cap material is formed on the conductive gate structure. The first contact liner material includes a first etch selectivity responsive to a first etch composition, the first contact body material includes a second etch selectivity responsive to the first etch composition, and the first gate cap material includes a third etch selectivity responsive to the first etch composition. The first etch selectivity is greater than each of the second and third etch selectivies.

Abstract: A semiconductor device having a composite barrier structure over a transistor and a method for manufacturing the same is disclosed. The method includes a series of steps including: forming a transistor having source/drain regions within a fin structure and adjacent to a gate structure across over the fin structure; forming first source/drain contacts right above and electrically connected to the source/drain regions; depositing a composite barrier structure over the transistor and the first source/drain contacts; and forming second source/drain contacts right above and electrically connected to the first source/drain contacts. The method further includes depositing a second etch-stop layer before depositing the composite barrier structure and forming second source/drain contacts right above and electrically connected to the first source/drain contacts. The method also includes forming contacts over and electrically connected to the second source/drain contacts.

Abstract: Interconnects and methods for forming interconnects are described and disclosed herein. The interconnect contains a stack formed on a substrate having a via and a trench formed therein, a first metal formed from a first material of a first type deposited in the via, and a second metal formed from a second material of a second type deposited in the trench.

Abstract: A high resistance virtual anode for an electroplating cell includes a first layer and a second layer. The first layer includes a plurality of first holes through the first layer. The second layer is over the first layer and includes a plurality of second holes through the second layer.

Abstract: A semiconductor device includes an insulating layer, a barrier electrode layer formed on the insulating layer, a Cu electrode layer that includes a metal composed mainly of copper and that is formed on a principal surface of the barrier electrode layer, and an outer-surface insulating film that includes copper oxide, that coats an outer surface of the Cu electrode layer, and that is in contact with the principal surface of the barrier electrode layer.

Abstract: Semiconductor devices and methods of forming are provided. In some embodiments the method includes forming a dielectric layer over a substrate and patterning the dielectric layer to form a first recess. The method may also include depositing a first layer in the first recess and depositing a second layer over the first layer, the second layer being different than the first layer. The method may also include performing a first chemical mechanical polish (CMP) process on the second layer using a first oxidizer and performing a second CMP process on remaining portions of the second layer and the first layer using the first oxidizer. The method may also include forming a first conductive element over the remaining portions of the first layer after the second CMP polish is performed.

Abstract: Embodiments of methods and structures for forming a 3D integrated wiring structure are disclosed. The method can include forming a dielectric layer in a contact hole region at a front side of a first substrate; forming a semiconductor structure at the front side of the first substrate and the semiconductor structure having a first conductive contact, forming a recess at a backside of the first substrate to expose at least a portion of the dielectric layer; and forming a second conductive layer above the exposed dielectric layer to connect the first conductive contact. The 3D integrated wiring structure can include a first substrate having a contact hole region; a dielectric layer disposed in the contact hole region; a semiconductor structure formed at the front side of the first substrate, having a first conductive contact; a recess formed at the backside of the first substrate to expose at least a portion of the dielectric layer; and a second conductive layer above the exposed dielectric layer.

Abstract: A non-porous dielectric barrier is provided between a porous portion of a dielectric region and an electrically conductive element of an interconnect portion of an integrated circuit. This non-porous dielectric barrier protects the integrated circuit from breakdown of the least one dielectric region caused by electrical conduction assisted by the presence of defects located in the at least one dielectric region.

Abstract: Some embodiments include methods of forming integrated assemblies. First conductive structures are formed within an insulative support material and are spaced along a first pitch. Upper regions of the first conductive structures are removed to form first openings extending through the insulative support material and over lower regions of the first conductive structures. Outer lateral peripheries of the first openings are lined with spacer material. The spacer material is configured as tubes having second openings extending therethrough to the lower regions of the first conductive structures. Conductive interconnects are formed within the tubes. Second conductive structures are formed over the spacer material and the conductive interconnects. The second conductive structures are spaced along a second pitch, with the second pitch being less than the first pitch. Some embodiments include integrated assemblies.

Abstract: The present disclosure relates to a method for selectively forming a dielectric material on a first area of a top surface of a substrate. In an embodiment, the method involves providing the substrate including the top surface, the top surface including the first area and a second area, the first area having a hydrophilicity characterized by a water contact angle of at least 45° and the second area having a hydrophilicity characterized by a water contact angle of less than 40°. The method also involves providing a precursor aqueous solution on the substrate, the precursor aqueous solution including: a solvent, a dielectric material precursor, a catalyst for forming a dielectric material from the dielectric material precursor, and an ionic surfactant. Further, the method involves removing the solvent.

Abstract: A conductive route structure may be formed comprising a conductive trace and a conductive via, wherein the conductive via directly contacts the conductive trace. In one embodiment, the conductive route structure may be formed by forming a dielectric material layer on the conductive trace. A via opening may be formed through the dielectric material layer to expose a portion of the conductive trace and a blocking layer may be from only on the exposed portion of the conductive trace. A barrier line may be formed on sidewalls of the via opening and the blocking layer may thereafter be removed. A conductive via may then be formed within the via opening, wherein the conductive via directly contacts the conductive trace.

Abstract: A semiconductor device includes an insulating layer, a barrier electrode layer formed on the insulating layer, a Cu electrode layer that includes a metal composed mainly of copper and that is formed on a principal surface of the barrier electrode layer, and an outer-surface insulating film that includes copper oxide, that coats an outer surface of the Cu electrode layer, and that is in contact with the principal surface of the barrier electrode layer.

Abstract: An integrated circuit device includes an insulating film on a substrate, a lower wiring layer penetrating at least a portion of the insulating film, the lower wiring layer including a first metal, a lower conductive barrier film surrounding a bottom surface and a sidewall of the lower wiring layer, the lower conductive barrier film including a second metal different from the first metal, a first metal silicide capping layer covering a top surface of the lower wiring layer, the first metal silicide capping layer including the first metal, and a second metal silicide capping layer contacting the first metal silicide capping layer and disposed on the lower conductive barrier film, the second metal silicide capping layer including the second metal.

Abstract: A memory device includes a substrate, an etch stop layer, a protective layer, and a resistance switching element. The substrate has a memory region and a logic region, and includes a metallization pattern therein. The etch stop layer is over the substrate, and has a first portion over the memory region and a second portion over the logic region. The protective layer covers the first portion of the etch stop layer. The protective layer does not cover the second portion of the etch stop layer. The resistance switching element is over the memory region, and the resistance switching element is electrically connected to the metallization pattern through the etch stop layer and the protective layer.

Abstract: The present disclosure relates to semiconductor structures and, more particularly, to a contact scheme for landing on different contact area levels of a semiconductor structure and methods of manufacture. The structure includes a first contact at a first level of the structure; a jumper contact at a second, upper level of the structure; an etch stop layer having an opening over the first contact and partially encapsulating the jumper contact with an opening exposing the jumper contact; and contacts in electrical contact with the first contact at the first level and the jumper contact at the second, upper level, through the openings.

Abstract: A method of forming a semiconductor device, includes forming a first work function metal and sacrificial layer on an n-type field effect transistor (nFET) and on a p-type field effect transistor (pFET), removing the sacrificial layer and the first work function metal from one of the nFET and the pFET, forming a second work function metal on the one of the nFET and the pFET, a thickness of the second work function metal being substantially the same as a thickness of the first work function metal, and removing the sacrificial layer from the other of the nFET and the pFET.

Abstract: A method for fabricating semiconductor device first includes providing a substrate and a shallow trench isolation (STI) in the substrate, in which the substrate includes a first metal gate and a second metal gate thereon, a first hard mask on the first metal gate and a second hard mask on the second metal gate, and a first interlayer dielectric (ILD) layer around the first metal gate and the second metal gate. Next, the first hard mask and the second hard mask as mask are utilized to remove part of the first ILD layer for forming a recess, and a patterned metal layer is formed in the recess and on the STI.

Abstract: A gravimetric detector including a nanoelectronic structure including: a fixed part, at least one part suspended from the fixed part, an excitation device to vibrate the suspended part relative to the fixed part, a detector to detect variations in vibration of the suspended part, and a porous functionalization layer at least partially covering the suspended part, porosity of the functionalization layer being between 3% and 50%.

Abstract: A method for forming a semiconductor device structure is provided. The method includes forming a first dielectric layer and a first conductive structure over a substrate. The first dielectric layer surrounds the first conductive structure. The method includes forming a second dielectric layer over the first dielectric layer. The second dielectric layer has an opening exposing the first conductive structure. The method includes forming a seal layer over the first conductive structure and an inner wall of the opening. The seal layer is in direct contact with the first dielectric layer and the second dielectric layer, and the seal layer includes a dielectric material comprising an oxygen compound. The method includes removing the seal layer over the first conductive structure. The method includes filling a second conductive structure into the opening.

Abstract: A method for filling vias formed in a dielectric layer with a metal or metal alloy that has a low solubility with copper over copper containing interconnects, wherein the vias are part of a dual damascene structure with trenches and vias is provided. A sealing layer of a first metal or metal alloy that has a low solubility with copper is selectively deposited directly on the copper containing interconnects in at bottoms of the vias, wherein sidewalls of the dielectric layer forming the vias are exposed to the depositing the sealing layer, and wherein the first metal or metal alloy that has a low solubility is selectively deposited to only form a layer on the copper containing interconnects. A via fill of a second metal or metal alloy that has a low solubility with copper is electrolessly deposited over the sealing layer, which fills the vias.

Abstract: In accordance with some embodiments, a method for forming via holes is provided. The method includes providing a substrate with an etch stop layer and a dielectric layer sequentially formed thereon. The method also includes etching the dielectric layer to form a first via hole of a first size and a second via hole of a second size within the dielectric layer by a plasma generated from an etch gas, until both the first via hole and the second via hole are reaching the etch stop layer. The etch gas includes CH2F2 and an auxiliary gas of N2 or O2.

Abstract: A method of forming photo masks having rectangular patterns and a method for forming a semiconductor structure using the photo masks is provided. The method for forming the photo masks includes determining a minimum spacing and identifying vertical conductive feature patterns having a spacing less than the minimum spacing value. The method further includes determining a first direction to expand and a second direction to shrink, and checking against design rules to see if the design rules are violated for each of the vertical conductive feature patterns identified. If designed rules are not violated, the identified vertical conductive feature pattern is replaced with a revised vertical conductive feature pattern having a rectangular shape. The photo masks are then formed. The semiconductor structure can be formed using the photo masks.

Abstract: A polymer, an organic layer composition including the polymer, an organic layer formed from the organic layer composition, and a method of forming patterns using the organic layer composition, the polymer including a moiety represented by Chemical Formula 1: *-A1-A3A2-A4n*.

Abstract: One or more openings in an organic mask layer deposited on a first insulating layer over a substrate are formed. One or more openings in the first insulating layer are formed through the openings in the organic mask using a first iodine containing gas. An antireflective layer can be deposited on the organic mask layer. One or more openings in the antireflective layer are formed down to the organic mask layer using a second iodine containing gas. The first insulating layer can be deposited on a second insulating layer over the substrate. One or more openings in the second insulating layer can be formed using a third iodine containing gas.

Abstract: An electrical connection structure includes a variable-composition nickel alloy layer with a minor constituent selected from a group consisting of boron, carbon, phosphorus, and tungsten, wherein at least over a portion of a conductive substrate, the concentration of the minor constituent decreases throughout the variable-composition nickel alloy layer in a direction from the bottom surface of the variable-composition nickel alloy layer to the top surface of the variable-composition nickel alloy layer.

Abstract: An interconnect structure includes a first dielectric layer and a second dielectric layer each extending along a first axis to define a height and a second axis opposite the first axis to define a length. A capping layer is interposed between the first dielectric layer and the second dielectric layer. At least one electrically conductive feature is embedded in at least one of the first dielectric layer and the second dielectric layer. At least one electrically conductive via extends through the second dielectric layer and the capping layer. The via has an end that contacts the conductive feature. The end includes a flange having at least one portion extending laterally along the first axis to define a contact area between the via and the at least one conductive feature.

Abstract: Provided are a semiconductor device and semiconductor-device manufacturing method that make it possible to improve the contact between an insulating film and a wiring member and the reliability thereof. This method for manufacturing a semiconductor device (100) includes a step in which a CF film (106) is formed on top of a semiconductor substrate (102), a step in which grooves (C) corresponding to a wiring pattern (P) are formed in the CF film (106), and a step in which a copper wiring member (114) is embedded in the grooves (C).

Abstract: A copper alloy layer is blanket deposited over a low k dielectric layer and in via openings within the low k dielectric layer. The blanket deposited layer is then anisotropically etch to form horizontal interconnects. The interconnects are annealed to form a metal oxide barrier lining. A second low k dielectric layer is then depositing over the horizontal interconnects. Air gaps can be formed between adjacent interconnects to lower parasitic capacitance therebetween.

Abstract: A method of manufacturing a semiconductor device includes forming a gate structure through a first insulating interlayer on a substrate such that the gate structure includes a spacer on a sidewall thereof, forming a first hard mask on the gate structure, partially removing the first insulating interlayer using the first hard mask as an etching mask to form a first contact hole such that the first contact hole exposes a top surface of the substrate, forming a metal silicide pattern on the top surface of the substrate exposed by the first contact hole, and forming a plug electrically connected to the metal silicide pattern.

Abstract: According to an embodiment, a manufacturing method of a semiconductor device includes: forming a first film on a processing target by using a first material; forming a second film on the first film by using a second material; selectively removing the second and first films to provide an opening pierced in the second and first films; selectively forming a metal film on an inner surface of the opening in the first film; and processing the processing target by using the metal film as a mask.

Abstract: Embodiments of the present disclosure include interconnect structures and methods of forming interconnect structures. An embodiment is a method of forming an interconnect structure, the method including forming a first post-passivation interconnect (PPI) over a first substrate, forming a second PPI over the first substrate, and forming a first conductive connector on the first PPI. The method further includes forming a second conductive connector on the second PPI, and forming a molding compound on top surfaces of the first and second PPIs and surrounding portions of the first and second connectors, a first section of molding compound being laterally between the first and second connectors, the first section of molding compound having a curved top surface.

Abstract: A method of manufacturing a laminated substrate, the method includes: forming a first diameter hole to a first surface of a first substrate so as not to penetrate the first substrate; forming a second diameter hole to a second surface of the first substrate so as to communicate with the first diameter hole; plating the first substrate to block the second diameter hole without blocking the first diameter hole; and laminating a second substrate on the second surface of the first substrate.

Abstract: A semiconductor device includes a substrate, a plurality of first conductive patterns disposed on the substrate and a plurality of second conductive patterns disposed on the first conductive patterns. Respective air gaps are disposed between adjacent ones of the first conductive patterns overlying a first region of the substrate, while adjacent ones of the first conductive patterns overlying a second region of the substrate do not have air gaps disposed therebetween. The air gaps may include first air gaps, and the device may further include second air gaps disposed between adjacent ones of the second conductive patterns in the second region. Adjacent ones of the second conductive patterns overlying a second region of the substrate may not have air gaps disposed therebetween.

Abstract: There is provided a Cu wiring forming method for forming a Cu wiring by filling Cu in a recess, which is formed in a predetermined pattern in a Si-containing film of a substrate. The Cu wiring forming method includes forming a Mn film, which becomes a self-aligned barrier film by reaction with an underlying base, at least on a surface of the recess by chemical vapor deposition, forming a Cu film by a physical vapor deposition to fill the recess with the Cu film, and forming a Cu wiring in the recess by polishing the entire surface of the substrate by a chemical mechanical polishing.

Abstract: A semiconductor structure is formed to include a non-conductive layer with at least one metal line, a first dielectric layer, a first stop layer, a second dielectric layer, a second stop layer, a third stop layer and a fourth stop layer. A first photoresist layer is formed over the upper stop layer to develop at least one via pattern. The structure is selectively etched to form the via pattern in the third stop layer through the fourth stop layer. The first photoresist layer is then removed. A second photoresist layer is formed over the upper stop layer to develop a plurality of trench patterns, each of the trench pattern comprising a via-trench portion in which the trench pattern is formed above the via pattern, and a trench portion that is remaining part of the trench pattern.