Abstract:
Electronic component including a ternary content-addressable memory component, configured to compare the input data items with a set of pre-recorded reference data words; the memory component incorporates a matrix of elementary cells arranged in lines and columns; each line incorporates cells in each of which is recorded one bit of one of the reference data words; the cells of a given column are dedicated to the comparison of the same bit of the input data word; each cell incorporates: two memory points storing the data representing the reference data bit; a comparison circuit connected to the memory points, with a comparison point of which the potential represents the comparison if the input data bit and the data stored in the memory points, and also incorporating a common comparison circuit to which are connected the comparison circuits of all or part of the cells of a given column; the comparison circuit incorporates terminals to which the bit from the input data word and its complement are applied.
Abstract:
A method for manufacturing components on an SOI layer coated with a silicon-germanium layer formed by epitaxial deposition, wherein the heat balance of the anneals performed after the epitaxial deposition is such that the germanium concentration remains higher in the silicon-germanium layer than in the SOI layer.
Abstract:
A reconfigurable hierarchical computer architecture having N levels, where N is an integer value greater than one, wherein said N levels include a first level including a first computation block including a first data input, a first data output and a plurality of computing nodes interconnected by a first connecting mechanism, each computing node including an input port, a functional unit and an output port, the first connecting mechanism capable of connecting each output port to the input port of each other computing node; and a second level including a second computation block including a second data input, a second data output and a plurality of the first computation blocks interconnected by a second connecting means for selectively connecting the first data output of each of the first computation blocks and the second data input to each of the first data inputs and for selectively connecting each of the first data outputs to the second data output.
Abstract:
A method for manufacturing a fin MOS transistor from an SOI-type structure including a semiconductor layer on a silicon oxide layer coating a semiconductor support, this method including the steps of: a) forming, from the surface of the semiconductor layer, at least one trench delimiting at least one fin in the semiconductor layer and extending all the way to the surface of the semiconductor support; b) etching the sides of a portion of the silicon oxide layer located under the fin to form at least one recess under the fin; and c) filling the recess with a material selectively etchable over silicon oxide.
Abstract:
A MOS transistor including, above a gate insulator, a conductive gate stack having a height, a length, and a width, this stack having a lower portion close to the gate insulator and an upper portion, wherein the stack has a first length in its lower portion, and a second length shorter than the first length in its upper portion.
Abstract:
The component incorporates, in topological terms, a scalable number of triac structures in a concentric annular arrangement. The component can be used with an electronic device to protect against electrostatic discharges. For example, the components can be used to protect the input/output pad, the first power supply terminal, and the second power supply terminal of an integrated circuit against electrostatic discharges.
Abstract:
A method of fabricating a semiconductor device including providing a gate structure on a channel portion of a semiconductor substrate, wherein the gate structure includes at least one gate dielectric on the channel portion of the semiconductor substrate and at least one gate conductor on the at least one gate dielectric. An edge portion of the at least one gate dielectric is removed on each side of the gate structure, wherein the removing of the edge portion of the gate dielectric provides an exposed base edge of the at least one gate conductor and an exposed channel surface of the semiconductor substrate underlying the gate structure. The sidewall of the gate structure is oxidized, which also oxidizes at least one of the exposed base edge of the at least one gate conductor and the exposed channel surface of the semiconductor substrate that is underlying the gate structure.
Abstract:
The three-dimensional integrated structure including a support element, an interface device connected to the support element by first electrically conductive connection, an integrated circuit arranged between the support element and the interface device and connected to the interface device by second electrically conductive connection, a filler region between the second electrically conductive connection and between the interface device and the integrated circuit, and an antenna, having a radiating element in electromagnetic coupling with an excitation element through the interconnection of a slot, the antenna being distributed over the interface device and the integrated circuit.
Abstract:
A method for forming gate, source, and drain contacts on a MOS transistor having an insulated gate including polysilicon covered with a metal gate silicide, this gate being surrounded with at least one spacer made of a first insulating material, the method including the steps of a) covering the structure with a second insulating material and leveling the second insulating material to reach the gate silicide; b) oxidizing the gate so that the gate silicide buries and covers the a silicon oxide; c) selectively removing the second insulating material; and d) covering the structure with a first conductive material and leveling the first conductive material all the way to a lower level at the top of the spacer.
Abstract:
A method for forming a via connecting a first upper level layer to a second lower level layer, both layers being surrounded with an insulating material, the method including the steps of: a) forming an opening to reach an edge of the first layer, the opening laterally continuing beyond said edge; b) forming a layer of a protection material on said edge only; c) deepening said opening by selectively etching the insulating material to reach the second lower level layer; and d) filling the opening with at least one conductive contact material.