Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask o form self-aligned trenches in microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask to form self-aligned trenches in a microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask o form self-aligned trenches in microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask to form self-aligned trenches in a microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask to form self-aligned trenches in a microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask to form self-aligned trenches in a microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: In some embodiments, a gate structure with a spacer on its side may be used as a mask to form self-aligned trenches in a microelectronic memory, such as a flash memory. A first portion of the gate structure may be used to form the mask, together with sidewall spacers, in some embodiments. Then, after forming the shallow trench isolations, a second portion of the gate structure may be added to form a mushroom shaped gate structure.

Abstract: A process manufactures an array of cells in a body of semiconductor material wherein a common conduction region of a first conductivity type and a plurality of shared control regions, of a second conductivity type, are formed in the body. The shared control regions extend on the common conduction region and are laterally delimited by insulating regions. Then, a grid-like layer is formed on the body to delimit a first plurality of empty regions directly overlying the body and conductive regions of semiconductor material and the first conductivity type are formed by filling the first plurality of empty regions, each conductive region forming, together with the common conduction region and an own shared control region, a bipolar junction transistor.

Abstract: A test chip performs measurements to evaluate the performances of interconnects. In particular, the statistical failure distribution, the electromigration and the leakage current are measured. An algorithm detects a via failure at any of the available n metal layers. The test chip includes a ROM memory array. The vias to be measured are formed in the columns of the array. Via or contact failures are detected by forcing a predetermined current through both an array column and a reference column. The failure analysis is obtained by comparing the resulting voltage drops.

Abstract: An integrated transistor device is formed in a chip of semiconductor material having an electrical-insulation region delimiting an active area accommodating a bipolar transistor of vertical type and a MOSFET of planar type, contiguous to one another. The active area accommodates a collector region; a bipolar base region contiguous to the collector region; an emitter region within the bipolar base region; a source region, arranged at a distance from the bipolar base region; a drain region; a channel region arranged between the source region and the drain region; and a well region. The drain region and the bipolar base region are contiguous and form a common base structure shared by the bipolar transistor and the MOSFET. Thereby, the integrated transistor device has a high input impedance and is capable of driving high currents, while only requiring a small integration area.

Abstract: A method for manufacturing electrically non-active structures for an electronic circuit integrated on a semiconductor substrate is provided, with the electronic circuit including first and second electrically active structures. The method includes inserting the electrically non-active structures in the electronic circuit to make uniform a surface above the semiconductor substrate. The inserting includes identifying, among the electrically non-active structures, a first group of electrically non-active structures to be adjacent the first and second electrically active structures, and identifying, among the electrically non-active structures, a second group of electrically non-active structures not adjacent to the first and second electrically active structures. The method further includes defining, on the semiconductor substrate, the first and second groups of electrically non-active structures through different photolithographic steps.

Abstract: A magnetic random access memory (MRAM) device has increased ?R/R for sensing a state of a pin-dependent tunneling (SDT) device. The MRAM device includes plural transistors connected to a read line for sensing the state of the SDT device. Plural transistors lower an underlying resistance during reading, increasing ?R/R. The plural transistors can share a source region.

Abstract: An integrated non-volatile memory device may include a first matrix of memory cells organized into rows (or word lines) and columns (or bit lines), corresponding row and column decoding circuits, and read, modify and erase circuits for reading and modifying data stored in the memory cells. Furthermore, the memory device may also include a test structure including a second matrix of memory cells smaller than the first. The second memory matrix may include word line couplings each having a different contact to gate distance. That is, each coupling is aligned a different distance from its respective gate than adjacent couplings.

Abstract: An electrically erasable and programmable memory cell is provided. The memory cell includes a floating gate MOS transistor and a bipolar transistor for injecting an electric charge into the floating gate. The floating gate transistor has a source region and a drain region formed in a first well with a channel defined between the drain and source regions, a control gate region, and a floating gate extending over the channel and the control gate region. The bipolar transistor has an emitter region formed in the first well, a base region consisting of the first well, and a collector region consisting of the channel. The memory cell includes a second well that is insulated from the first well, and the control gate region is formed in the second well. Further embodiments of the present invention provide a memory including at least one such memory cell, an electronic device including such a memory, and methods of integrating a memory cell and erasing a memory cell.

Abstract: A method for manufacturing electrically non-active structures for an electronic circuit integrated on a semiconductor substrate is provided, with the electronic circuit including first and second electrically active structures. The method includes inserting the electrically non-active structures in the electronic circuit to make uniform a surface above the semiconductor substrate. The inserting includes identifying, among the electrically non-active structures, a first group of electrically non-active structures to be adjacent the first and second electrically active structures, and identifying, among the electrically non-active structures, a second group of electrically non-active structures not adjacent to the first and second electrically active structures. The method further includes defining, on the semiconductor substrate, the first and second groups of electrically non-active structures through different photolithographic steps.

Abstract: A non-volatile memory cell of the type which includes at least one floating gate transistor and which is realized over a semiconductor substrate includes a source region, and a drain region, separated by a channel region which is overlaid by a thin layer of gate oxide. The gate oxide isolates a floating gate region from the substrate. The floating gate region is coupled to a control gate terminal. The floating gate region of the memory cell develops a first potential barrier between the semiconductor substrate and the gate oxide layer, and a second different potential barrier between the floating gate region and the gate oxide.

Abstract: A test chip performs measurements to evaluate the performances of interconnects. In particular, the statistical failure distribution, the electromigration and the leakage current are measured. An algorithm detects a via failure at any of the available n metal layers. The test chip includes a ROM memory array. The vias to be measured are formed in the columns of the array. Via or contact failures are detected by forcing a predetermined current through both an array column and a reference column. The failure analysis is obtained by comparing the resulting voltage drops.

Abstract: A non-volatile memory cell of the type which includes at least one floating gate transistor and which is realized over a semiconductor substrate includes a source region, and a drain region, separated by a channel region which is overlaid by a thin layer of gate oxide. The gate oxide isolates a floating gate region from the substrate. The floating gate region is coupled to a control gate terminal. The floating gate region of the memory cell develops a first potential barrier between the semiconductor substrate and the gate oxide layer, and a second different potential barrier between the floating gate region and the gate oxide.

Abstract: An electrically erasable and programmable memory cell is provided. The memory cell includes a floating gate MOS transistor and a bipolar transistor for injecting an electric charge into the floating gate. The floating gate transistor has a source region and a drain region formed in a first well with a channel defined between the drain and source regions, a control gate region, and a floating gate extending over the channel and the control gate region. The bipolar transistor has an emitter region formed in the first well, a base region consisting of the first well, and a collector region consisting of the channel. The memory cell includes a second well that is insulated from the first well, and the control gate region is formed in the second well. Further embodiments of the present invention provide a memory including at least one such memory cell, an electronic device including such a memory, and methods of integrating a memory cell and erasing a memory cell.

Abstract: A non-volatile memory cell of the type which includes at least one floating gate transistor and which is realized over a semiconductor substrate includes a source region, and a drain region, separated by a channel region which is overlaid by a thin layer of gate oxide. The gate oxide isolates a floating gate region from the substrate. The floating gate region is coupled to a control gate terminal. The floating gate region of the memory cell develops a first potential barrier between the semiconductor substrate and the gate oxide layer, and a second different potential barrier between the floating gate region and the gate oxide.