Abstract: A semiconductor substrate has a front face with a first dielectric region. A capacitive element includes, on a surface of the first dielectric region at the front face, a stack of layers which include a first conductive region, a second conductive region and a third conductive region. The second conductive region is electrically insulated from the first conductive region by a second dielectric region. The second conductive region is further electrically insulated from the third conductive region by a third dielectric region. The first and third conductive regions form one plate of the capacitive element, and the second conductive region forms another plate of the capacitive element.

Abstract: Provided is a memory device including a substrate, a plurality of first stack structures, and a plurality of second stack structures. The substrate includes an array region and a periphery region. The first stack structures are disposed on the substrate in the array region. Each first stack structure sequentially includes: a first tunneling dielectric layer, a first floating gate, a first inter-gate dielectric layer, a first control gate, a first metal layer, a first cap layer, and the first stop layer. The second stack structures are disposed on the substrate in the periphery region. Each second stack structure sequentially includes: a second tunneling dielectric layer, a second floating gate, a second inter-gate dielectric layer, a second control gate, a second metal layer, a second cap layer, and the second stop layer. The first stack structures have a pattern density greater than a pattern density of the second stack structures.

Abstract: A method of manufacturing a semiconductor device includes steps of (i) forming a buffer layer of an insulating material on a substrate, (ii) forming a seed layer of catalyst material containing Ni on the buffer layer, (iii) forming, on the buffer layer, an amorphous intrinsic silicon layer for forming a channel, (iv) forming, on the amorphous intrinsic silicon layer, a non-intrinsic silicon layer for forming a source and/or drain, (v) forming a metal layer on the non-intrinsic silicon layer, and (vi) performing metal induced crystallization (MIC) process for crystallization of the amorphous intrinsic silicon layer and the amorphous non-intrinsic silicon layer, and activation of the amorphous non-intrinsic silicon layer to form a conductive area.

Abstract: A semiconductor device include a substrate, a buffer layer formed on the substrate, a channel layer formed by an intrinsic polycrystalline silicon layer on the buffer layer, polycrystalline source and drain by non-intrinsic silicon formed on both sides of the polycrystalline silicon layer, a source electrode and a drain electrode formed on the polycrystalline source and the drain, a gate electrode corresponding to the channel layer, and an NiSi2 contact layer located between the source and the source electrode and between the drain and the drain electrode.

Abstract: A method for manufacturing a dynamic random access memory device includes providing a semiconductor substrate and forming a highly doped diffusion region in a surface of the semiconductor substrate. A wordline structure is then deposited on the surface of the semiconductor substrate, where the wordline structure includes an electrically conductive gate layer. An opening is further formed in the wordline structure, where the opening is located at a first end of and extending to the highly doped diffusion region. A semiconductor pillar is then formed in the opening by selective epitaxial growth. An end of the semiconductor pillar is then doped and the doped end is connected with a memory element.

Abstract: The invention relates to an optoelectronic device (100) comprising a semiconductor layer sequence (1) on a carrier (7), the semiconductor layer sequence (1) comprising at least one n-doped semiconductor layer (11), at least one p-doped semiconductor layer (12) and an active layer (13) sandwiched between the p- and n-doped semiconductor layers (11, 12), an reconnecting contact (2), which is configured for electrically contacting the n-doped semiconductor layer (11), a p-connecting contact (3), which is configured for electrically contacting the p-doped semiconductor layer (12), the n-connecting contact (2) being arranged on the side of the semiconductor layer sequence (1) facing away from the carrier (7), the n-connecting contact (2) having a first side (4) which is arranged facing the semiconductor layer sequence (1), wherein the first side (4) has two outer regions (43) and an inner region (44), viewed in lateral cross-section, which is delimited by the outer regions (43), wherein the outer regions (43) of t

Abstract: Methods of dicing semiconductor wafers, each wafer having a plurality of integrated circuits, are described. A method includes forming a mask above the semiconductor wafer, the mask including a layer covering and protecting the integrated circuits. The mask and a portion of the semiconductor wafer are patterned with a laser scribing process to provide a patterned mask and to form trenches partially into but not through the semiconductor wafer between the integrated circuits. Each of the trenches has a width. The semiconductor wafer is plasma etched through the trenches to form corresponding trench extensions and to singulate the integrated circuits. Each of the corresponding trench extensions has the width.

Abstract: Various aspects relate to a functional layer and the formation thereof. A method for manufacturing a functional layer of an electronic device may include: forming a plurality of sublayers of the functional layer by a plurality of consecutive sublayer processes, each sublayer process of the plurality of consecutive sublayer processes comprising: forming a sublayer of the plurality of sublayers by vapor deposition, the sublayer comprising one or more materials, and, subsequently, crystallizing the one or more materials comprised in the sublayer.

Abstract: A method of manufacturing a capacitor structure of memory, including forming a patterned photoresist layer on a hard mask layer and spacers on sidewalls of the patterned photoresist layer, perform a first etch process to remove uncovered hard mask layer so as to form first patterned hard mask layer and expose first portion of the dielectric layer, lowering a surface of the first portion of dielectric layer, perform a second etch process to remove uncovered first patterned hard mask layer so as to form second patterned hard mask layer and expose second portion of the dielectric layer, and performing a hole etching process to form first holes and second holes respectively in the first portion and the second portion of dielectric layer, wherein sidewalls of the first holes and second holes have wavelike cross-sections, and the wavelike cross-sections of first holes and second holes are shifted vertically by a distance.

Abstract: A layered structure (100) for transmission of an acoustic wave, the layered structure (100) comprising: a substrate layer (102); and a second layer (104) over the substrate layer (102), wherein the second layer (104) comprises a plurality of discrete portions (105) adjacent to each other, each discrete portion (105) of the plurality of discrete portions (105) comprising a first subregion (104A) and a second subregion (104B). Also an epitaxial layer (108), grown over the second layer (104), for transmission of the acoustic wave in a major plane of the epitaxial layer (108), wherein a periodicity (?) of a wavelength of the acoustic wave to be transmitted through the epitaxial layer (108) is approximately equal to a sum of a width (dA) of the first subregion (104A) and a width (dB) of the second subregion (104B).

Abstract: Semiconductor devices and methods of manufacturing the same are provided. The semiconductor devices may have a memory array having two transistor (2T) memory cells, each including a non-volatile memory (NVM) transistor and a high voltage (HV) field-effect transistor (FET) as a select transistor. The devices further include a logic area in which HV FETs, input/output (I/) FETs, and low voltage (LV)/core FETs are formed thereon. Other embodiments are also described.

Abstract: There is provided a nonvolatile storage element having excellent charge holding characteristics capable of reducing variations in electric characteristics and an analog circuit provided with the same. A nonvolatile storage element is provided with a charge holding region and an insulator surrounding the entire surface of the charge holding region and having halogen distributed in at least one part of a region surrounding the entire surface.

Abstract: Disclosed herein is a new and improved system and method for fabricating diamond semiconductors. The method may include the steps of selecting a diamond semiconductor material having a surface, exposing the surface to a source gas in an etching chamber, forming a carbide interface contact layer on the surface; and forming a metal layer on the interface layer.

Abstract: Some embodiments include integrated memory having an array of access transistors. Each access transistor includes an active region which has a first source/drain region, a second source/drain region and a channel region. The active regions of the access transistors include semiconductor material having elements selected from Groups 13 and 16 of the periodic table. First conductive structures extend along rows of the array and have gating segments adjacent the channel regions of the access transistors. Heterogenous insulative regions are between the gating segments and the channel regions. Second conductive structures extend along columns of the array, and are electrically coupled with the first source/drain regions. Storage-elements are electrically coupled with the second source/drain regions. Some embodiments include a transistor having a semiconductor oxide channel material. A conductive gate material is adjacent to the channel material.

Abstract: Solar cells having emitter regions composed of wide bandgap semiconductor material are described. In an example, a method includes forming, in a process tool having a controlled atmosphere, a thin dielectric layer on a surface of a semiconductor substrate of the solar cell. The semiconductor substrate has a bandgap. Without removing the semiconductor substrate from the controlled atmosphere of the process tool, a semiconductor layer is formed on the thin dielectric layer. The semiconductor layer has a bandgap at least approximately 0.2 electron Volts (eV) above the bandgap of the semiconductor substrate.

Abstract: Implementations of methods of singulating a plurality of die included in a substrate may include forming a groove through a backside metal layer through laser ablating a backside metal layer at a die street of a substrate and singulating a plurality of die included in the substrate through removing substrate material of the substrate in the die street.

Abstract: The present disclosure provides a method of forming a semiconductor device including an nFET structure and a pFET structure where each of the nFET and pFET structures include a semiconductor substrate and a gate trench. The method includes depositing an interfacial layer in each gate trench; depositing a first metal oxide layer over the interfacial layer; removing the first metal oxide layer from the pFET structure; depositing a ferroelectric layer in each gate trench; depositing a second metal oxide layer over the ferroelectric layer; removing the second metal oxide layer from the nFET structure; and depositing a gate electrode in each gate trench.

Abstract: A grinding control method and device for a wafer, and a grinding device are provided. A grinder is controlled to grind a mass production wafer with a set grinding parameter. In a case that it is determined to perform a test using a test wafer, the grinder may be controlled to grind the test wafer with the set grinding parameter. A first total thickness variation of the grinded test wafer is acquired by a dedicated measurement device, and an updated grinding parameter is acquired based on the first total thickness variation. The grinder is controlled to grind the mass production wafer with the updated grinding parameter. In this way, a wafer with a uniform thickness can be obtained, thereby improving flatness of the grinded wafer.

Abstract: An integrated circuit (IC) includes a substrate and a first capacitor on the substrate. The first capacitor has a first width. A first dielectric layer is provided on a side of the first capacitor opposite the substrate. Further, a second capacitor is present on a side of the first dielectric layer opposite the first capacitor. The second capacitor has a second width that is smaller than the first width. The IC also has a second dielectric layer and a first metal layer. The second dielectric layer is on a side of the second capacitor opposite the first dielectric layer. The first metal layer is on a side of the second dielectric layer opposite the second capacitor.

Abstract: In various embodiments, controlled heating and/or cooling conditions are utilized during the fabrication of aluminum nitride single crystals and aluminum nitride bulk polycrystalline ceramics. Thermal treatments may also be utilized to control properties of aluminum nitride crystals after fabrication.