Abstract:
A method for manufacturing an integrated circuit includes forming in a substrate a measuring circuit sensitive to mechanical stresses and configured to supply a measurement signal representative of mechanical stresses exerted on the measuring circuit. The measuring circuit is positioned such that the measurement signal is also representative of mechanical stresses exerted on a functional circuit of the integrated circuit. A method of using the integrated circuit includes determining from the measurement signal the value of a parameter of the functional circuit predicted to mitigate an impact of the variation in mechanical stresses on the operation of the functional circuit, and supplying the functional circuit with the determined value of the parameter.
Abstract:
An integrated circuit includes a substrate and at least one component unfavorably sensitive to compressive stress which is arranged at least partially within an active region of the substrate limited by an insulating region. To address compressive stress in the active region, the circuit further includes at least one electrically inactive trench located at least in the insulating region and containing an internal area configured to reduce compressive stress in the active region. The internal area is filled with polysilicon. The polysilicon filled trench may further extend through the insulating region and into the substrate.
Abstract:
An integrated circuit, comprising a capacitive device having a thermally variable capacitive value and comprising a thermally deformable assembly disposed within an enclosure, and comprising an electrically-conducting fixed body and a beam held at at least two different locations by at least two arms rigidly attached to edges of the enclosure, the beam and the arms being metal and disposed within the first metallization level. A part of the said thermally deformable assembly may form a first electrode of the capacitive device and a part of the said fixed body may form a second electrode of the capacitive device. The thermally deformable assembly has a plurality of configurations corresponding respectively to various temperatures of the said assembly and resulting in a plurality of distances separating the two electrodes and various capacitive values in the capacitive device corresponding to the plurality of distances.
Abstract:
Method of wireless communication between a first device and a second device, in which, the first device and the second device comprising respectively a first thermoelectric generator and a second thermoelectric generator, the two thermoelectric generators being in thermal coupling, a first signal is generated within the first device, the first thermoelectric generator is electrically powered as a function of the first signal so as to create a first thermal gradient in the said first generator and a second thermal gradient in the second generator, and a second signal is generated within the second device on the basis of the electrical energy produced by the second thermoelectric generator in response to the said second thermal gradient.
Abstract:
An integrated circuit includes a substrate, an interconnection part, and an isolating region located between the substrate and the interconnection part. A decoy structure is located within the isolating region and includes a silicided sector which is electrically isolated from the substrate.
Abstract:
An integrated circuit includes a substrate, an interconnection part, and an isolating region located between the substrate and the interconnection part. A decoy structure is located within the isolating region and includes a silicided sector which is electrically isolated from the substrate.
Abstract:
A stack including a dual-passivation is etched locally so as to reveal contact pads of an integrated circuit which are situated above a last metallization level of an interconnection part of the integrated circuit. This stack serves to protect the integrated circuit against a breakdown of at least one dielectric region, at least in part porous, separating two electrically conducting elements of the interconnection part of the integrated circuit. Such a breakdown may occur due to electrical conduction assisted by the presence of defects within the at least one dielectric region.
Abstract:
An integrated electronic circuit includes a semiconductor substrate with a semiconductor well that is isolated by a buried semiconductor region located under the semiconductor well. A vertical MOS transistor formed in the semiconductor well includes a source-drain region provided by the buried semiconductor region. Backside thinning of the semiconductor substrate is detected by biasing the vertical MOS transistor into an on condition to supply a current and then comparing that current to a threshold. Current less than a threshold is indicative that the semiconductor substrate has been thinned from the backside.
Abstract:
A device includes a thermally deformable assembly accommodated in a cavity of the interconnection part of an integrated circuit. The assembly can bend when there is a variation in temperature, so that its free end zone is displaced vertically. The assembly can be formed in the back end of line of the integrated circuit.
Abstract:
A MOS transistor is produced on and in an active zone which includes a source region and a drain region. The active zone is surrounded by an insulating region. A conductive gate region of the transistor has two flanks which extend transversely to a source-drain direction, and the conductive gate region overlaps two opposite edges of the active zone act overlap zones. The conductive gate region includes, at a location of at least one overlap zone, at least one conductive tag which projects from at least one flank at a foot of the conductive gate region. The conductive tag covers a part of the active zone and a part of the insulating region.