Abstract: A manufacture includes a first electrode having an upper surface and a side surface, a resistance variable film over the first electrode, and a second electrode over the resistance variable film. The resistance variable film extends along the upper surface and the side surface of the first electrode. The second electrode has a side surface. A portion of the side surface of the first electrode and a portion of the side surface of the second electrode sandwich a portion of the resistance variable film.

Abstract: A method for forming a pellicle apparatus involves forming a device substrate by depositing one or more pellicle layers defined over a base device layer, where a release layer is formed thereover. An adhesive layer is formed over a transparent carrier substrate. The adhesive layer is bonded to the release layer, defining a composite substrate comprised of the device and carrier substrates. The base device layer is removed from the composite structure and a pellicle frame is attached to an outermost one of the pellicle layers. A pellicle region is isolated from a remainder of the composite structure, and an ablation of the release layer is performed through the transparent carrier substrate, defining the pellicle apparatus comprising a pellicle film attached to the pellicle frame. The pellicle apparatus is then from a remaining portion of the composite substrate.

Abstract: The present disclosure, in some embodiments, relates to a method of forming a memory cell. The method may be performed by forming a select gate on a side of a sacrificial spacer that is disposed over an upper surface of a substrate. The select gate has a non-planar top surface. An inter-gate dielectric layer is formed on the select gate and a memory gate is formed on the inter-gate dielectric layer. The inter-gate dielectric layer extends under the memory gate and defines a recess between sidewalls of the memory gate and select gate. The recess is filled with a first dielectric material.

Abstract: A semiconductor structure comprises a substrate comprising an interlayer dielectric (ILD) and a silicon layer disposed over the ILD, wherein the ILD comprises a conductive structure disposed therein, a dielectric layer disposed over the silicon layer, and a conductive plug electrically connected with the conductive structure and extended from the dielectric layer through the silicon layer to the ILD, wherein the conductive plug has a length extending from the dielectric layer to the ILD and a width substantially consistent along the length.

Abstract: A photo-sensitive device includes a uniform layer, a gradated buffer layer over the uniform layer, a silicon layer over the gradated buffer layer, a photo-sensitive light-sensing region in the uniform layer and the silicon layer, a device layer on the silicon layer, and a carrier wafer bonded to the device layer.

Abstract: Hybrid bonding systems and methods for semiconductor wafers are disclosed. In one embodiment, a hybrid bonding system for semiconductor wafers includes a chamber and a plurality of sub-chambers disposed within the chamber. A robotics handler is disposed within the chamber that is adapted to move a plurality of semiconductor wafers within the chamber between the plurality of sub-chambers. The plurality of sub-chambers includes a first sub-chamber adapted to remove a protection layer from the plurality of semiconductor wafers, and a second sub-chamber adapted to activate top surfaces of the plurality of semiconductor wafers prior to hybrid bonding the plurality of semiconductor wafers together. The plurality of sub-chambers also includes a third sub-chamber adapted to align the plurality of semiconductor wafers and hybrid bond the plurality of semiconductor wafers together.

Abstract: An integrated circuit structure includes a package component, which further includes a non-porous dielectric layer having a first porosity, and a porous dielectric layer over and contacting the non-porous dielectric layer, wherein the porous dielectric layer has a second porosity higher than the first porosity. A bond pad penetrates through the non-porous dielectric layer and the porous dielectric layer. A dielectric barrier layer is overlying, and in contact with, the porous dielectric layer. The bond pad is exposed through the dielectric barrier layer. The dielectric barrier layer has a planar top surface. The bond pad has a planar top surface higher than a bottom surface of the dielectric barrier layer.

Abstract: An integrated circuit or semiconductor structure of a resistive random access memory (RRAM) cell is provided. The RRAM cell includes a bottom electrode and a data storage region having a variable resistance arranged over the bottom electrode. Further, the RRAM cell includes a diffusion barrier layer arranged over the data storage region, an ion reservoir region arranged over the diffusion barrier layer, and a top electrode arranged over the ion reservoir region. A method for manufacture the integrated circuit or semiconductor structure of the RRAM cell is also provided.

Abstract: A semiconductor structure including a substrate and a nucleation layer over the substrate. The semiconductor structure further includes a first III-V layer over the nucleation layer, wherein the first III-V layer includes a first dopant type. The semiconductor structure further includes one or more sets of III-V layers over the first III-V layer. Each set of the one or more sets of III-V layers includes a lower III-V layer, wherein the lower III-V layer has a second dopant type opposite the first dopant type, and an upper III-V layer on the lower III-V layer, wherein the upper III-V layer has the first dopant type. The semiconductor structure further includes a second III-V layer over the one or more sets of III-V layers, the second III-V layer having the second dopant type.

Abstract: A magnetoresistive random access memory (MRAM) structure includes a bottom electrode structure. A magnetic tunnel junction (MTJ) element is over the bottom electrode structure. The MTJ element includes an anti-ferromagnetic material layer. A ferromagnetic pinned layer is over the anti-ferromagnetic material layer. A tunneling layer is over the ferromagnetic pinned layer. A ferromagnetic free layer is over the tunneling layer. The ferromagnetic free layer has a first portion and a demagnetized second portion. The MRAM also includes a top electrode structure over the first portion.

Abstract: The present disclosure relates to a method of forming a resistive random access memory (RRAM) cell having a reduced leakage current, and an associated apparatus. In some embodiments, the method is performed by forming a bottom electrode layer over a lower metal interconnect layer. A dielectric data storage layer having a variable resistance is formed onto the bottom electrode layer in-situ with forming at least a part of the bottom electrode layer. A top electrode layer is formed over the dielectric data storage layer. By forming the dielectric data storage layer in-situ with forming at least a part of the bottom electrode layer, leakage current, leakage current distribution and device yield of the RRAM cell are improved.

Abstract: A method of forming a semiconductor image sensing device includes: providing a semiconductor substrate; forming a radiation sensitive region and a peripheral region in the semiconductor substrate, wherein the peripheral region surrounds the radiation sensitive region and includes a top surface projected from a backside of the semiconductor substrate and a sidewall coplanar with a sidewall of the semiconductor substrate and perpendicular to the top surface; forming a photon blocking spacer in the peripheral region, wherein the photon blocking spacer covers a portion of the sidewall of the peripheral region; and forming an anti reflective coating adjacent to the photon blocking layer.

Abstract: A memory structure includes a first dielectric layer, having a first top surface, over a conductive structure. A first opening in the first dielectric layer exposes an area of the conductive structure, and has an interior sidewall. A first electrode structure, having a first portion and a second portion, is over the exposed area of the conductive structure. The second portion extends upwardly along the interior sidewall. A resistance variable layer is disposed over the first electrode. A second electrode structure, having a third portion and a fourth portion, is over the resistance variable layer. The third portion has a second top surface below the first top surface of the first dielectric layer. The fourth portion extends upwardly along the resistance variable layer. A second opening is defined by the second electrode structure. At least a part of a second dielectric layer is disposed in the second opening.

Abstract: An inductor structure is provided. The inductor structure includes a first dielectric layer formed over a substrate and a magnetic layer formed over the first dielectric layer. The magnetic layer has a planar top surface, a planar bottom surface, a protruding portion surrounding the planar top surface, and the protruding portion is higher than the planar top surface.

Abstract: A manufacture includes a first electrode having an upper surface and a side surface, a resistance variable film over the first electrode, and a second electrode over the resistance variable film. The resistance variable film extends along the upper surface and the side surface of the first electrode. The second electrode has a side surface. A portion of the side surface of the first electrode and a portion of the side surface of the second electrode sandwich a portion of the resistance variable film.

Abstract: A novel integrated circuit and method thereof are provided. The integrated circuit includes a plurality of first interconnect pads, a plurality of second interconnect pads, a first inter-level dielectric layer, a thin film resistor, and at least two end-caps. The end-caps, which are connectors for the thin film resistor, are positioned at the same level with the plurality of second interconnect pads. Therefore, an electrical connection between the end-caps and the plurality of second interconnect pads can be formed by directly connection of them. An integrated circuit with a thin film resistor can be made in a cost benefit way accordingly, so as to overcome disadvantages mentioned above.

Abstract: A getter is provided. The getter consists essentially of from about 0% to 50% of titanium, from about 0% to 50% zirconium, and from about 5% to 50% of tantalum. A MEMS device is provided. The MEMS device includes a substrate and a getter over the substrate. The getter consists essentially of from about 0% to 50% of titanium, from about 0% to 50% zirconium, and from about 5% to 50% of tantalum. A method of forming a MEMS device is provided. The method includes the following operations: providing a substrate; and providing a getter over the substrate, wherein the getter consists essentially of from about 0% to 50% of titanium, from about 0% to 50% zirconium, and from about 5% to 50% of tantalum, and wherein all of the percentages are atomic percentages.

Abstract: A semiconductor structure includes a first III-V compound layer. A second III-V compound layer is disposed on the first III-V compound layer and is different from the first III-V compound layer in composition. A dielectric passivation layer is disposed on the second III-V compound layer. A source feature and a drain feature are disposed on the second III-V compound layer, and extend through the dielectric passivation layer. A gate electrode is disposed over the second III-V compound layer between the source feature and the drain feature. The gate electrode has an exterior surface. An oxygen containing region is embedded at least in the second III-V compound layer under the gate electrode. A gate dielectric layer has a first portion and a second portion. The first portion is under the gate electrode and on the oxygen containing region. The second portion is on a portion of the exterior surface of the gate electrode.

Abstract: The present disclosure relates to a split gate memory device. In some embodiments, the split gate memory device includes a memory gate arranged over a substrate, and a select gate arranged over the substrate. An inter-gate dielectric layer is arranged between sidewalls of the memory gate and the select gate that face one another. The inter-gate dielectric layer extends under the memory gate. A first dielectric is disposed above the inter-gate dielectric layer and is arranged between the sidewalls of the memory gate and the select gate.

Abstract: An integrated circuit (IC) device is provided. The IC device includes a first die including a first substrate and a second die including a second substrate. A plasma-reflecting layer is included on an upper surface of the first die. The plasma-reflecting layer is configured to reflect a plasma therefrom. The second substrate is bonded to the first die so as to form a cavity, wherein a lower surface of the cavity is lined by the plasma-reflecting layer. A dielectric protection layer is present on a lower surface of the second die and lines the upper surface of the cavity. A material of the second substrate has a first etch rate for the plasma and a material of the dielectric protection layer has a second etch rate for the plasma. The second etch rate is less than the first etch rate.