Abstract: A semiconductor MOS device having an epitaxial layer with a first conductivity type formed by a drain region and by a drift region. The drift region accommodates a plurality of first columns with a second conductivity type and a plurality of second columns with the first conductivity type, the first and second columns alternating with each other and extending on the drain region. Insulated gate regions are each arranged on top of a respective second column; body regions having the second conductivity type extend above and at a distance from a respective first column, thus improving the output capacitance Cds of the device, for use in high efficiency RF applications.

Abstract: A semiconductor MOS device having an epitaxial layer with a first conductivity type formed by a drain region and by a drift region. The drift region accommodates a plurality of first columns with a second conductivity type and a plurality of second columns with the first conductivity type, the first and second columns alternating with each other and extending on the drain region. Insulated gate regions are each arranged on top of a respective second column; body regions having the second conductivity type extend above and at a distance from a respective first column, thus improving the output capacitance Cds of the device, for use in high efficiency RF applications.

Abstract: A semiconductor MOS device having an epitaxial layer with a first conductivity type formed by a drain region and by a drift region. The drift region accommodates a plurality of first columns with a second conductivity type and a plurality of second columns with the first conductivity type, the first and second columns alternating with each other and extending on the drain region. Insulated gate regions are each arranged on top of a respective second column; body regions having the second conductivity type extend above and at a distance from a respective first column, thus improving the output capacitance Cds of the device, for use in high efficiency RF applications.

Abstract: Embodiments are directed to super-junction semiconductor devices having an inactive region positioned between active cells. In one embodiment, a semiconductor device is provided that includes a substrate and a drain region on the substrate. The drain region has a first conductivity type. A plurality of first columns is disposed on the drain region, with the first columns having the first conductivity type. A plurality of second columns is disposed on the drain region, with the second columns having a second conductivity type. The first and second columns are alternately arranged such that each of the second columns is positioned between respective first columns. First and second gate structures are included that overlie respective first columns, and a body region is included that has the second conductivity type. The body region abuts at least two second columns and at least one first column positioned between the at least two second columns.

Abstract: A MOS semiconductor device of a vertical type has: a functional layer, having a first type of conductivity; gate structures, which are formed above the functional layer and have a region of dielectric material and an electrode region; body wells, which have a second type of conductivity, are formed within the functional layer, and are separated by a surface separation region; source regions, which have the first type of conductivity and are formed within the body wells. Each gate structure extends laterally above just one respective body well and does not overlap the surface separation region of the functional layer. The device may further have: at least one shield structure, arranged between adjacent gate structures above the surface separation region; and/or at least one doped control region, having the second type of conductivity, arranged within the surface separation region, which are both set at the source potential.

Abstract: A MOS semiconductor device of a vertical type has: a functional layer, having a first type of conductivity; gate structures, which are formed above the functional layer and have a region of dielectric material and an electrode region; body wells, which have a second type of conductivity, are formed within the functional layer, and are separated by a surface separation region; source regions, which have the first type of conductivity and are formed within the body wells. Each gate structure extends laterally above just one respective body well and does not overlap the surface separation region of the functional layer. The device may further have: at least one shield structure, arranged between adjacent gate structures above the surface separation region; and/or at least one doped control region, having the second type of conductivity, arranged within the surface separation region, which are both set at the source potential.

Abstract: A method for integrating a bipolar injunction transistor in a semiconductor chip includes the steps of forming an intrinsic base region of a second type of conductivity extending in the collector region from a main surface through an intrinsic base window of the sacrificial insulating layer, forming an emitter region of the first type of conductivity extending in the intrinsic base region from the main surface through an emitter window of the sacrificial insulating layer, removing the sacrificial insulating layer, forming an intermediate insulating layer on the main surface, and forming an extrinsic base region of the second type of conductivity extending in the intrinsic base region from the main surface through an extrinsic base window of the intermediate insulating layer.

Abstract: A process for exothermic treatment and recovery of masses including: urban solid waste (USW), including differentiated and non-differentiated damp waste and non-differentiated waste of vegetable origin; sludge generated by industrial and non-industrial water treatment; solid, semi-solid, pasty residue and/or sludge residue coming from industrial, agricultural and food-processing operations; soils and inert materials contaminated by organic matrices; solid, semi-solid, pasty residue and/or sludge residue of hydrocarbon compounds, including asphalt and organic-chemical compounds; contaminating animal excrements, such as those of poultry and/or swine. In particular, the process envisages the use of an exothermic reaction produced by mixing the mass to be treated with a mixture of calcium oxides (CaO) and/or calcium hydroxides Ca(OH)2, in the presence of an inert catalyst moistened with water, in the absence of oxygen using the charcoal-pile technique.

Abstract: A method for integrating a bipolar injunction transistor in a semiconductor chip includes the steps of forming an intrinsic base region of a second type of conductivity extending in the collector region from a main surface through an intrinsic base window of the sacrificial insulating layer, forming an emitter region of the first type of conductivity extending in the intrinsic base region from the main surface through an emitter window of the sacrificial insulating layer, removing the sacrificial insulating layer, forming an intermediate insulating layer on the main surface, and forming an extrinsic base region of the second type of conductivity extending in the intrinsic base region from the main surface through an extrinsic base window of the intermediate insulating layer

Abstract: The present invention refers to a process for exothermal treatment and recovery of masses comprising: urban solid waste (USW—), including differentiated and non-differentiated damp waste and non-differentiated waste of vegetable origin; sludge generated by industrial and non-industrial water treatment; solid, semi-solid, pasty residue and/or sludge residue coming from industrial, agricultural and food-processing operations; soils and inert materials contaminated by organic matrices; solid, semi-solid, pasty residue and/or sludge residue of hydrocarbon compounds, including asphalt and organic-chemical compounds; contaminating animal excrements, such as those of poultry and/or swine. In particular, said process envisages the use of an exothermal reaction produced by mixing the mass to be treated with a mixture of calcium oxides (CaO) and/or calcium hydroxides Ca(OH)2, in the presence of an inert catalyst moistened with water, in the absence of oxygen using the charcoal-pile technique.

Abstract: An LDMOS device includes elementary MOS cells. The gate structure of the elementary cell includes a first conductor material finger. The LDMOS device includes first metal stripes for contacting source regions, second metal stripes for contacting drain regions, and third metal stripes placed on inactive zones for contacting a material finger by forming a contact point. The contact point is formed by a first prolongation of the material finger for connecting with one of the third stripes. The third metal stripe includes at least one fourth metal stripe placed on a separation zone. The material finger has a second prolongation and the fourth metal stripe has a first prolongation to form an additional contact point.

Abstract: An LDMOS device includes elementary MOS cells. The gate structure of the elementary cell includes a first conductor material finger. The LDMOS device includes first metal stripes for contacting source regions, second metal stripes for contacting drain regions, and third metal stripes placed on inactive zones for contacting a material finger by forming a contact point. The contact point is formed by a first prolongation of the material finger for connecting with one of the third stripes. The third metal stripe includes at least one fourth metal stripe placed on a separation zone. The material finger has a second prolongation and the fourth metal stripe has a first prolongation to form an additional contact point.

Abstract: An LDMOS device includes elementary MOS cells. The gate structure of the elementary cell includes a first conductor material finger. The LDMOS device includes first metal stripes for contacting source regions, second metal stripes for contacting drain regions, and third metal stripes placed on inactive zones for contacting a material finger by forming a contact point. The contact point is formed by a first prolongation of the material finger for connecting with one of the third stripes. The third metal stripe includes at least one fourth metal stripe placed on a separation zone. The material finger has a second prolongation and the fourth metal stripe has a first prolongation to form an additional contact point.

Abstract: A MOS semiconductor device formed on a substrate of a first conductivity type is provided. The device includes active zones for elementary active elements, and at least one inactive zone suitable for electric signal input or output. The substrate is connected with the drain terminal of the device, and at least one of the elementary active elements includes a body region of a second conductivity type that is connected with the source terminal of the device. The at least one inactive zone includes a semiconductor region of the second conductivity type formed in the substrate and adjacent a surface of the substrate, a conductive layer located over the semiconductor region, and a silicon oxide layer located between the semiconductor region and the conductive layer. The silicon oxide layer has alternating first zones and second zones that are contiguous to each other, with the first zones having a greater thickness than the second zones.

Abstract: A MOS semiconductor device formed on a substrate of a first conductivity type is provided. The device includes active zones for elementary active elements, and at least one inactive zone suitable for electric signal input or output. The substrate is connected with the drain terminal of the device, and at least one of the elementary active elements includes a body region of a second conductivity type that is connected with the source terminal of the device. The at least one inactive zone includes a semiconductor region of the second conductivity type formed in the substrate and adjacent a surface of the substrate, a conductive layer located over the semiconductor region, and a silicon oxide layer located between the semiconductor region and the conductive layer. The silicon oxide layer has alternating first zones and second zones that are contiguous to each other, with the first zones having a greater thickness than the second zones.

Abstract: A MOS semiconductor device formed on a substrate of a first conductivity type is provided. The device includes active zones for elementary active elements, and at least one inactive zone suitable for electric signal input or output. The substrate is connected with the drain terminal of the device, and at least one of the elementary active elements includes a body region of a second conductivity type that is connected with the source terminal of the device. The at least one inactive zone includes a semiconductor region of the second conductivity type formed in the substrate and adjacent a surface of the substrate, a conductive layer located over the semiconductor region, and a silicon oxide layer located between the semiconductor region and the conductive layer. The silicon oxide layer has alternating first zones and second zones that are contiguous to each other, with the first zones having a greater thickness than the second zones.

Abstract: An LDMOS device includes elementary MOS cells. The gate structure of the elementary cell includes a first conductor material finger. The LDMOS device includes first metal stripes for contacting source regions, second metal stripes for contacting drain regions, and third metal stripes placed on inactive zones for contacting a material finger by forming a contact point. The contact point is formed by a first prolongation of the material finger for connecting with one of the third stripes. The third metal stripe includes at least one fourth metal stripe placed on a separation zone. The material finger has a second prolongation and the fourth metal stripe has a first prolongation to form an additional contact point.

Abstract: A MOS semiconductor device formed on a substrate of a first conductivity type is provided. The device includes active zones for elementary active elements, and at least one inactive zone suitable for electric signal input or output. The substrate is connected with the drain terminal of the device, and at least one of the elementary active elements includes a body region of a second conductivity type that is connected with the source terminal of the device. The at least one inactive zone includes a semiconductor region of the second conductivity type formed in the substrate and adjacent a surface of the substrate, a conductive layer located over the semiconductor region, and a silicon oxide layer located between the semiconductor region and the conductive layer. The silicon oxide layer has alternating first zones and second zones that are contiguous to each other, with the first zones having a greater thickness than the second zones.

Abstract: Semiconductor device for high voltages including at least one power component and at least one edge termination. The edge termination includes a voltage divider including a plurality of MOS transistors in series, and the edge termination is connected between non-driveble terminals of said power component.

Abstract: A MOS-technology power device integrated structure includes a first plurality of elongated doped semiconductor stripes of a first conductivity type formed in a semiconductor layer of a second conductivity type, each including an elongated source region of the first conductivity type, an annular doped semiconductor region of the first conductivity type formed in the semiconductor layer and surrounding and merged with the elongated stripes, insulated gate stripes extending over the semiconductor layer between adjacent elongated stripes, a plurality of conductive gate fingers extending over and electrically connected to the insulated gate stripes, and a plurality of source metal fingers, each one extending over a respective elongated stripe and contacting the elongated stripe and the respective elongated source region, so that the source metal fingers and the conductive gate fingers are interdigitated.