Abstract: A semiconductor wafer has first and second opposing surfaces. A plurality of conductive vias is formed partially through the first surface of the semiconductor wafer. The semiconductor wafer is singulated into a plurality of first semiconductor die. The first semiconductor die are mounted to a carrier. A second semiconductor die is mounted to the first semiconductor die. A footprint of the second semiconductor die is larger than a footprint of the first semiconductor die. An encapsulant is deposited over the first and second semiconductor die and carrier. The carrier is removed. A portion of the second surface is removed to expose the conductive vias. An interconnect structure is formed over a surface of the first semiconductor die opposite the second semiconductor die. Alternatively, a first encapsulant is deposited over the first semiconductor die and carrier, and a second encapsulant is deposited over the second semiconductor die.

Abstract: A method for assembling a flip chip ball grid array package includes mounting solder spheres to a ball grid array substrate, applying flux to a plurality of flip chip solder bumps provided on a diced wafer, aligning the ball grid array substrate over a chip on the diced wafer, picking and separating the chip from the diced wafer by urging the chip upwards towards the ball grid array substrate until the flip chip solder bumps on the chip come in contact with the ball grid array substrate, whereby the chip attaches to the ball grid array substrate in an upside-down orientation, and subjecting the chip and the ball grid array substrate to a thermal process whereby the solder spheres reflow and form solder balls and the flip chip solder bumps reflow and form solder joints between the chip and the ball grid array.

Abstract: A method of forming a chip stack is provided and includes arraying solder pads along a plane of a major surface of a substrate forming walls of electrically insulating material between adjacent ones of the solder pads.

Abstract: Provided is a chip package structure and a method for forming the chip package. The method includes bonding a plurality of first dies on a carrier, encapsulating in a first molding compound the first dies on the carrier, coupling a plurality of second dies on the first dies using conductive elements, adding an underfill between the second dies and the first dies surrounding the conductive elements, and encapsulating in a second molding compound the second dies and the underfill. The chip package comprises a chip encapsulated in a molding compound, and a larger chip coupled to the first chip via conductive elements, wherein the conductive elements are encapsulated in an underfill between the chip and the larger chip without an interposer, and wherein the larger chip and the underfill are encapsulated in a second molding compound in contact with the molding compound.

Abstract: A method for forming a thin semiconductor device is disclosed. In one embodiment, a lead frame is provided over a carrier. At least one semiconductor chip is provided on the lead frame and the at least one semiconductor chip is enclosed with an encapsulating material. The thickness of the at least one semiconductor chip and the encapsulating material are reduced. At least one through connection is formed in the encapsulating material and at least one electrical contact element is formed over the at least one semiconductor chip and the at least one through connection.

Abstract: A process fabricates a fin field-effect-transistor by forming a dummy fin structure on a semiconductor substrate. A dielectric layer is formed on the semiconductor substrate. The dielectric layer surrounds the dummy fin structure. The dummy fin structure is removed to form a cavity within the dielectric layer. The cavity exposes a portion of the semiconductor substrate thereby forming an exposed portion of the semiconductor substrate within the cavity. A dopant is implanted into the exposed portion of the semiconductor substrate within the cavity thereby creating a dopant implanted exposed portion of the semiconductor substrate within the cavity. A semiconductor layer is epitaxially grown within the cavity atop the dopant implanted exposed portion of the semiconductor substrate.

Abstract: A method for manufacturing a thin-film transistor, includes: preparing a substrate; forming a gate electrode above the substrate; forming a gate insulating layer above the gate electrode; forming a semiconductor film above the gate insulating layer; forming, above the semiconductor film, a protective layer comprising an organic material; forming a source electrode and a drain electrode above the protective layer; forming a semiconductor layer patterned, by performing dry etching on the semiconductor film; removing at least a portion of a region of an altered layer, the region contacting the semiconductor layer, the altered layer being a surface layer of the protective layer that is altered by the dry etching; and forming a passivation layer having a major component identical to a major component of the protective layer so as to contact the semiconductor layer in a region in which the altered layer has been removed.

Abstract: A semiconductor device includes a fin structure, an isolation structure, a gate structure and an epitaxial structure. The fin structure protrudes from the surface of the substrate and includes a top surface and two sidewalls. The isolation structure surrounds the fin structure. The gate structure overlays the top surface and the two sidewalls of a portion of the fin structure, and covers a portion of the isolation structure. The isolation structure under the gate structure has a first top surface and the isolation structure at two sides of the gate structure has a second top surface, wherein the first top surface is higher than the second top surface. The epitaxial layer is disposed at one side of the gate structure and is in direct contact with the fin structure.

Abstract: A method to construct a semiconductor device, the method including: forming a first layer including mono-crystallized semiconductor and first logic circuits; forming a second layer including a mono-crystallized semiconductor layer, the second layer overlying the first logic circuits; forming transistors on the second layer; forming connection paths from the second transistors to the first transistors, where the connection paths include a through layer via of less than 200 nm diameter; and connecting the first logic circuits to an external device using input/output (I/O) circuits, the input/output (I/O) circuits are constructed on the second mono-crystallized semiconductor layer.

Abstract: An object is to provide a semiconductor device including a semiconductor element which has favorable characteristics. A manufacturing method of the present invention includes the steps of: forming a first conductive layer which functions as a gate electrode over a substrate; forming a first insulating layer to cover the first conductive layer; forming a semiconductor layer over the first insulating layer so that part of the semiconductor layer overlaps with the first conductive layer; forming a second conductive layer to be electrically connected to the semiconductor layer; forming a second insulating layer to cover the semiconductor layer and the second conductive layer; forming a third conductive layer to be electrically connected to the second conductive layer; performing first heat treatment after forming the semiconductor layer and before forming the second insulating layer; and performing second heat treatment after forming the second insulating layer.

Abstract: There is provided a method for manufacturing a flexible semiconductor device.

Abstract: A method of manufacturing a liquid crystal display having a touch sensor, the method including forming a plurality of thin film transistors on a first substrate, forming a plurality of pixel electrodes each coupled to a corresponding one of the thin film transistors, forming an insulating layer on the pixel electrodes, and forming, on the insulating layer, a plurality of first touch electrodes each having openings formed therein and a plurality of driving lines coupled to the first touch electrodes.

Abstract: A method of forming a semiconductor device comprising a dummy gate interconnect includes forming a dummy gate on a substrate, the dummy gate comprising a dummy gate metal layer located on the substrate, and a dummy gate polysilicon layer located on the dummy gate metal layer; forming an active gate on the substrate, the active gate comprising an active gate metal layer located on the substrate, and an active gate polysilicon layer located on the active gate metal layer; and etching the dummy gate polysilicon layer to remove at least a portion of the dummy gate polysilicon layer to form the dummy gate interconnect, wherein the active gate polysilicon layer is not etched during the etching of the dummy gate polysilicon layer.

Abstract: A manufacturing method of a semiconductor device comprises the following steps. First, a substrate is provided, at least one fin structure is formed on the substrate, and a metal layer is then deposited on the fin structure to form a salicide layer. After depositing the metal layer, the metal layer is removed but no RTP is performed before the metal layer is removed. Then a RTP is performed after the metal layer is removed.

Abstract: A method for fabricating a semiconductor device includes forming a conductive layer over first and second regions of a semiconductor substrate, forming a trench extended in the first region of the semiconductor substrate through the conductive layer, forming a recessed gate electrode in the trench, doping the conductive layer and the recessed first gate electrode, and forming a second gate electrode by etching the doped conductive layer.

Abstract: A vertically stacked, planar junction Zener diode is concurrently formed with epitaxially grown FET raised S/D terminals. The structure and process of the Zener diode are compatible with Gate-Last high-k FET structures and processes. Lateral separation of diode and transistor structures is provided by modified STI masking. No additional photolithography steps are required. In some embodiments, the non-junction face of the uppermost diode terminal is silicided with nickel to additionally perform as a copper diffusion barrier.

Abstract: A structure and method for providing a multiple silicide integration is provided. An embodiment comprises forming a first transistor and a second transistor on a substrate. The first transistor is masked and a first silicide region is formed on the second transistor. The second transistor is then masked and a second silicide region is formed on the first transistor, thereby allowing for device specific silicide regions to be formed on the separate devices.

Abstract: Micro-electromechanical system (MEMS) devices and methods of manufacture thereof are disclosed. In one embodiment, a MEMS device includes a semiconductive layer disposed over a substrate. A trench is disposed in the semiconductive layer, the trench with a first sidewall and an opposite second sidewall. A first insulating material layer is disposed over an upper portion of the first sidewall, and a conductive material disposed within the trench. An air gap is disposed between the conductive material and the semiconductive layer.

Abstract: A semiconductor structure and method for forming dielectric spacers and epitaxial layers for a complementary metal-oxide-semiconductor field effect transistor (CMOS transistor) are disclosed. Specifically, the structure and method involves forming dielectric spacers that are disposed in trenches and are adjacent to the silicon substrate, which minimizes leakage current. Furthermore, epitaxial layers are deposited to form source and drain regions, wherein the source region and drain regions are spaced at a distance from each other. The epitaxial layers are disposed adjacent to the dielectric spacers and the transistor body regions (i.e., portion of substrate below the gates), which can minimize transistor junction capacitance. Minimizing transistor junction capacitance can enhance the switching speed of the CMOS transistor.

Abstract: A method for fabricating a capacitor includes forming a mold structure over a substrate, wherein the mold structure has a plurality of open parts and has a mold layer stacked with a support layer; forming cylinder type lower electrodes in the open parts; forming a first upper electrode over an entire surface of a structure including the cylinder type lower electrodes to fill the cylinder type lower electrodes; defining a through hole that passes through portions of the first upper electrode and the support layer; removing the mold layer through the through hole and exposing the cylinder type lower electrodes; forming a second upper electrode to fill the through hole and spaces between the cylinder type lower electrodes; and forming a third upper electrode to connect the second upper electrode and the first upper electrode with each other.

Abstract: A method of forming a memory device. The method provides a semiconductor substrate having a surface region. A first dielectric layer is formed overlying the surface region of the semiconductor substrate. A bottom wiring structure is formed overlying the first dielectric layer and a second dielectric material is formed overlying the top wiring structure. A bottom metal barrier material is formed to provide a metal-to-metal contact with the bottom wiring structure. The method forms a pillar structure by patterning and etching a material stack including the bottom metal barrier material, a contact material, a switching material, a conductive material, and a top barrier material. The pillar structure maintains a metal-to-metal contact with the bottom wiring structure regardless of the alignment of the pillar structure with the bottom wiring structure during etching. A top wiring structure is formed overlying the pillar structure at an angle to the bottom wiring structure.

Abstract: Methods and apparatuses directed to high density holes and metallization are described herein. A method may include providing a dielectric layer including a plurality of holes, forming a fill material over a top surface of the dielectric layer and in the plurality of holes, and reflowing the fill material to substantially remove any voids in the plurality of holes. Other embodiments are also described.

Abstract: A finned structure is fabricated using a bulk silicon substrate having a carbon doped epitaxial silicon layer. A pFET region of the structure includes silicon germanium fins. Such fins are formed by annealing the structure to mix a germanium containing layer with an adjoining crystalline silicon layer. The structure further includes an nFET region including silicon fins formed from the crystalline silicon layer. The germanium containing layer in the nFET region is removed to create a space beneath the crystalline silicon layer in the nFET region. An insulating material is provided within the space. The pFET and nFET regions are electrically isolated by a shallow trench isolation region.

Abstract: A nonvolatile charge trap memory device with deuterium passivation of charge traps and method of manufacture. Deuterated gate layer, deuterated gate cap layer and deuterated spacers are employed in various combinations to encapsulate the device with deuterium sources proximate to the interfaces within the gate stack and on the surface of the gate stack where traps may be present.

Abstract: An apparatus includes a first device with a metal gate and a drain well that experiences a series resistance that drops a drain contact voltage from 10 V to 4-6 V at a junction between the drain well and a channel under the gate. The apparatus includes an interlayer dielectric layer (ILD0) disposed above and on the drain well and a salicide drain contact in the drain well. The apparatus also includes a subsequent device that is located in a region different from the first device that operates at a voltage lower than the first device.

Abstract: A semiconductor structure including a body-contacted finFET device and methods form manufacturing the same. The method may include forming one or more semiconductor fins on a SOI substrate, forming a semiconductive body contact region connected to the bottom of the fin(s) in the buried insulator region, forming a sacrificial gate structure over the body region of the fin(s), forming a source region on one end of the fin(s), forming a drain region on the opposite end of the fin(s), replacing the sacrificial gate structure with a metal gate, and forming electrical contacts to the source, drain, metal gate, and body contact region. The method may further include forming a body contact fin contemporaneously with the finFET fins that is in contact with the body contact region, through which electrical contact to the body contact region is made.

Abstract: The present invention provides a socket by which a capacitor element can be produced without causing contamination of chemical conversion treatment liquid or semiconductor layer forming liquid even if the chemical conversion treatment liquid or the semiconductor layer forming liquid has a corrosive property, and a lead wire of a positive electrode can be stably retained even if diameters of the lead wires are difference. The socket (1) of the present invention is provided with a conductive socket body portion (2) having an insertion port, a resin insulation portion (5) covering a part of the socket body portion (2) so as not to close an insertion port (37), and a resin coating portion (3) coating at least the insertion portion (37) of the socket body portion (2).

Abstract: Techniques and structure are disclosed for providing a MIM capacitor having a generally corrugated profile. The corrugated topography is provisioned using sacrificial, self-organizing materials that effectively create a pattern in response to treatment (heat or other suitable stimulus), which is transferred to a dielectric material in which the MIM capacitor is formed. The self-organizing material may be, for example, a layer of directed self-assembly material that segregates into two alternating phases in response to heat or other stimulus, wherein one of the phases then can be selectively etched with respect to the other phase to provide the desired pattern. In another example case, the self-organizing material is a layer of material that coalesces into isolated islands when heated. As will be appreciated in light of this disclosure, the disclosed techniques can be used, for example, to increase capacitance per unit area, which can be scaled by etching deeper capacitor trenches/holes.

Abstract: Embodiments of MIM capacitors may be embedded into a thick IMD layer with enough thickness (e.g., 10 K?˜30 K?) to get high capacitance, which may be on top of a thinner IMD layer. MIM capacitors may be formed among three adjacent metal layers which have two thick IMD layers separating the three adjacent metal layers. Materials such as TaN or TiN are used as bottom/top electrodes & Cu barrier. The metal layer above the thick IMD layer may act as the top electrode connection. The metal layer under the thick IMD layer may act as the bottom electrode connection. The capacitor may be of different shapes such as cylindrical shape, or a concave shape. Many kinds of materials (Si3N4, ZrO2, HfO2, BST . . . etc.) can be used as the dielectric material. The MIM capacitors are formed by one or two extra masks while forming other non-capacitor logic of the circuit.

Abstract: A method for manufacturing a fin field-effect transistor (FinFET) device, comprises forming a plurality of fins on a substrate, forming a plurality of gate regions on portions of the fins, wherein the gate regions are spaced apart from each other, forming spacers on each respective gate region, epitaxially growing a first epitaxy region on each of the fins, stopping growth of the first epitaxy regions prior to merging of the first epitaxy regions between adjacent fins, forming a dielectric layer on the substrate including the fins and first epitaxy regions, removing the dielectric layer and first epitaxy regions from the fins at one or more portions between adjacent gate regions to form one or more contact area trenches, and epitaxially growing a second epitaxy region on each of the fins in the one or more contact area trenches, wherein the second epitaxy regions on adjacent fins merge with each other.

Abstract: An RRAM is disclosed with a vertical BJT selector. Embodiments include defining a STI region in a substrate, implanting dopants in the substrate to form a first polarity well around and below a bottom portion of the STI region, a second polarity channel over the well on opposite sides of the STI region, and a first polarity active area over each channel at the surface of the substrate, forming an RRAM liner on the active area and STI region, forming a sacrificial top electrode on the RRAM liner, forming spacers on opposite sides of the sacrificial top electrode, implanting a second polarity dopant in the active area on opposite sides of the sacrificial top electrode, forming a silicon oxide adjacent the spacers, removing at least a portion of the sacrificial top electrode forming a cavity, forming in the cavity inner spacers adjacent the spacers and a top electrode.

Abstract: A process for detaching a silicon thin film from a donor substrate by cleaving, includes implanting species within the donor substrate to form a weak layer. The species are implanted at a depth at least equal to the thickness of the thin film to be detached. There is a heat treatment at 450° C. or more and cleaving is along the weak layer. The implanting species includes implanting boron, helium and hydrogen with implantation energies such that: helium and boron concentration maxima are obtained at substantially the same depth, separated by at most 10 nm; and a hydrogen concentration maximum is obtained at a depth at least 20 nm greater than that of the helium and boron concentration maxima. The implantation dose of boron is at least equal to 5×1013 B/cm2 and the dose of helium and hydrogen is at least 1016 atoms/cm2 and at most 4×1016 atoms/cm2.

Abstract: A method for fabricating air media layer within the semiconductor optical device is provided. The step of method includes a substrate is provided, a GaN thin film is formed on the substrate, a sacrificial layer is formed on the GaN thin film, and a nitride-containing semiconductor layer is formed on the sacrificial layer. The semiconductor optical device is immersed with an acidic solution to remove the portion of sacrificial layer to form an air media layer around the residual sacrificial layer.

Abstract: A thickness of material may be detached from a substrate along a cleave plane, utilizing a cleaving process controlled by a releasable constraint plate. In some embodiments this constraint plate may comprise a plate that can couple side forces (the “P-plate”) and a thin, softer compliant layer (the “S-layer”) situated between the P-plate and the substrate. In certain embodiments a porous surface within the releasable constraint plate and in contact to the substrate, allows the constraint plate to be secured to the substrate via a first pressure differential. Application of a combination of a second pressure differential within a pre-existing cleaved portion, and a linear force to a side of the releasable constraint plate bound to the substrate, generates loading that results in controlled cleaving along the cleave plane.

Abstract: A method for forming a pad in a wafer with a three-dimensional stacking structure is disclosed. The method includes bonding a device wafer that includes an Si substrate and a handling wafer, thinning a back side of the Si substrate, depositing an anti-reflective layer on the thinned back side of the Si substrate, depositing a back side dielectric layer on the anti-reflective layer, defining a space for a pad in the back side dielectric layer and forming vias that pass through the back side dielectric layer and the anti-reflective layer and contact back sides of super contacts which are formed on the Si substrate, filling one or more metals in the vias and the defined space for the pad, and removing a remnant amount of the metal filled in the space for the pad through planarization by a CMP (chemical mechanical polishing) process.

Abstract: In one aspect of the present invention, a method of sawing a semiconductor wafer will be described. A semiconductor wafer is positioned in a wafer sawing apparatus that includes a sawing blade and a movable support structure that physically supports the semiconductor wafer. The semiconductor wafer is coupled with the support structure with various layers, including a dicing tape and an anchoring material. The anchoring material and the wafer are cut with the sawing blade. During the cutting operation, the anchoring material reduces backside chipping of the die and eliminates fly-away die. Various aspects of the present invention relate to arrangements and a wafer sawing apparatus that involve the aforementioned sawing method.

Abstract: A method of manufacturing a semiconductor device includes the steps of preparing a semiconductor wafer having a thick portion in an outer circumferential end portion and a thin portion in a central portion, attaching a support material to one surface of the semiconductor wafer, dividing the semiconductor wafer into the thick portion and the thin portion, and cutting the thin portion, after the division, while supporting the thin portion by the support material.

Abstract: In embodiments, a hybrid wafer or substrate dicing process involving an initial laser scribe and subsequent plasma etch is implemented for die singulation. The laser scribe process may be used to cleanly remove a mask layer, organic and inorganic dielectric layers, and device layers. The laser etch process may then be terminated upon exposure of, or partial etch of, the wafer or substrate. In embodiments, a multi-plasma etching approach is employed to dice the wafers where an isotropic etch is employed to improve the die sidewall following an anisotropic etch. The isotropic etch removes anisotropic etch byproducts, roughness, and/or scalloping from the anisotropically etched die sidewalls after die singulation.

Abstract: In a method, a gate dielectric film is formed on a semiconductor substrate. A gate electrode is formed on the gate dielectric film. Impurities of a first conduction-type are introduced into a drain-layer formation region. The impurities of the first conduction-type in the drain-layer formation region are activated by performing heat treatment. Single crystals of the semiconductor substrate in a source-layer formation region are amorphized by introducing inert impurities into the source-layer formation region. Impurities of a second conduction-type is introduced into the source-layer formation region. At least an amorphous semiconductor in the source-layer formation region is brought into a single crystal semiconductor and the impurities of the second conduction-type in the source-layer formation region is activated by irradiating the semiconductor substrate with microwaves.

Abstract: A method of manufacturing a semiconductor device includes growing a first GaN layer on a SiC substrate, and forming a second GaN layer on the first GaN layer, the second GaN layer being grown under such conditions that a ratio of a vertical growth rate to a horizontal growth rate is lower than that in the growth of the first GaN layer.

Abstract: An embodiment method of controlling fin bending in a fin field-effect transistor (FinFET) includes forming an isolation region over a substrate, performing a first annealing process, the first annealing process including a first wet anneal, the first wet anneal removing impurities from the isolation region; a second wet anneal, the second wet anneal forming silanol in the isolation region; and a first dry anneal, the first dry anneal dehydrating the isolation region. In an embodiment, the first annealing process is followed by a chemical mechanical planarization (CMP) process, an etching process, and a second annealing process for the isolation region.

Abstract: The deposition method comprises providing a substrate with a first mono-crystalline zone made of a semiconductor material and a second zone made of an insulating material. During a passivation step, a passivation atmosphere is applied on the substrate so as to cover the first zone with doping impurities. During a deposition step, gaseous silicon and/or germanium precursors are introduced and a doped semiconductor film is formed. The semiconductor film is mono-crystalline over the first zone and has a different texture over the second zone. During an etching step, a chloride gaseous precursor is applied on the substrate so as to remove the semiconductor layer over the second zone.

Abstract: Embodiments described herein generally relate to methods of forming sub-10 nm node FinFETs. Various processing steps may be performed on a substrate to provide a trench over which a dielectric layer is conformally deposited. The dielectric layer is subsequently etched within the trench to expose the underlying substrate and a semiconductive material is deposited in the trench to form a fin structure. The processes of forming the trench, depositing the dielectric layer, and forming the fin structure can achieve sub-10 nm node dimensions and provide increasingly smaller FinFETs.

Abstract: A method of forming an epitaxial layer includes forming a plurality of first insulation patterns in a substrate, the plurality of first insulation patterns spaced apart from each other, forming first epitaxial patterns on the plurality of first insulation patterns, forming second insulation patterns between the plurality of first insulation patterns to contact the plurality of first insulation patterns, and forming second epitaxial patterns on the second insulation patterns and between the first epitaxial patterns to contact the first epitaxial patterns, the first epitaxial patterns and the second epitaxial patterns forming a single epitaxial layer.

Abstract: In the present invention, each laser light emitted from a plurality of lasers is divided, and laser light including at least one laser light that is emitted from a different laser and that has different energy distribution is synthesized with another such laser light, or laser light including at least one laser light that has different energy distribution is synthesized with another such laser light through a convex lens that is set at an angle to the direction each laser light travels, to form laser light having excellent uniformity in energy distribution.

Abstract: In accordance with an embodiment of the present invention, a process tool includes a chuck configured to hold a substrate. The chuck is disposed in a chamber. The process tool further includes a shielding unit with a central opening. The shielding unit is disposed in the chamber over the chuck.

Abstract: A method of manufacturing a solar cell is disclosed. The method includes forming a dielectric film on a semiconductor substrate doped with a first conductive type impurity, exposing a high concentration doping region of a predetermined selective emitter by partially removing the dielectric film, and ion-implanting a second conductive type impurity into a front surface of the semiconductor substrate with the dielectric film formed thereon to form a high concentration doping layer in the semiconductor substrate to correspond to the high concentration doping region and to form a low concentration doping layer in the semiconductor substrate to correspond to a region in which the dielectric film is formed.

Abstract: Provided is a transistor and a method for forming a transistor in a semiconductor device. The method includes performing at least one implantation operation in the transistor channel area, then forming a silicon carbide/silicon composite film over the implanted area prior to introducing further dopant impurities. A halo implantation operation with a very low tilt angle is used to form areas of high dopant concentration at edges of the transistor channel to alleviate short channel effects. The transistor structure so-formed includes a reduced dopant impurity concentration at the substrate interface with the gate dielectric and a peak concentration about 10-50 nm below the surface. The dopant profile also includes the transistor channel having high dopant impurity concentration areas at opposed ends of the transistor channel.

Abstract: An embodiment integrated circuit device and a method of making the same. The embodiment method includes forming a first nitride layer over a gate stack supported by a substrate, implanting germanium ions in the first nitride layer in a direction forming an acute angle with a top surface of the substrate, etching away germanium-implanted portions of the first nitride layer to form a first asymmetric nitride spacer confined to a first side of the gate stack, the first asymmetric nitride spacer protecting a first source/drain region of the substrate from a first ion implantation, and implanting ions in a second source/drain region of the substrate on a second side of the gate stack unprotected by the first asymmetric nitride spacer to form a first source/drain.

Abstract: The invention provides a semiconductor device with a junction termination extension structure on a mesa and a method of fabricating the same. The device comprises: a type-I semiconductor substrate having a first surface and a second surface; a type-I epitaxial layer disposed on the first surface; at least one depression disposed on the type-I epitaxial layer; a mesa-type junction termination extension structure surrounding the at least one depression wherein the mesa-type junction termination extension structure is of type-II; and at least one semiconductor component formed one the depression.