Abstract: An electronic circuit includes a first electronic component formed above a buried insulating layer of a substrate and a second electronic component formed under the buried insulating layer. The insulating layer is thoroughly crossed by a semiconductor well. The semiconductor well electrically couples a terminal of the first electronic component to a terminal of the second electronic component.

Abstract: An integrated circuit is formed by a semiconductor part with a semiconductor substrate and an interconnection part including levels of metals. An electrostatic-discharge sensor includes a semiconductor structure in the semiconductor part and a network of metal antennas in the interconnection part. The electrostatic-discharge sensor has at least one pair of two nodes having one of a resistive link or a capacitive link or a PN-junction link in the semiconductor structure. The antennas of the network of antennas coupled to the nodes of the least one pair of two nodes exhibit an asymmetry in one or more of shape and size.

Abstract: A silicon-on-insulator semiconductor substrate supports rows extending in a direction. Each row includes complementary MOS transistors and associated contact regions allowing back gate of the complementary MOS transistors to be biased. All transistors and associated contact regions of a given row are mutually isolated by a first trench isolation. Each row is bordered on opposed edges extending parallel to said direction by corresponding second trench isolations that are shallower than the first trench isolation.

Abstract: A BiMOS-type transistor includes a gate region, a channel under the gate region, a first channel contact region and a second channel contact region. The first channel contact region is electrically coupled to the gate region to receive a first potential. The second channel contact region is electrically coupled to receive a second potential.

Abstract: A transistor includes a quasi-intrinsic region of a first conductivity type that is covered with an insulated gate. The quasi-intrinsic region extends between two first doped regions of a second conductivity type. A main electrode is provided on each of the two first doped regions. A second doped region of a second conductivity type is position in contact with the quasi-intrinsic region, but is electrically and physically separated by a distance from the two first doped regions. A control electrode is provided on the second doped region.

Abstract: An artificial-neuron device includes an integration-generation circuit coupled between an input at which an input signal is received and an output at which an output signal is delivered, and a refractory circuit inhibiting the integrator circuit after the delivery of the output signal. The refractory circuit is formed by a first MOS transistor having a first conduction-terminal coupled to a supply node, a second conduction-terminal coupled to a common node, and a control-terminal coupled to the output, and a second MOS transistor having a first conduction-terminal coupled to the input, a second conduction-terminal coupled to a reference node at which a reference voltage is received, and a control-terminal coupled to the common node. A resistive-capacitive circuit is coupled between the supply node and the reference node and having a tap coupled to the common node, with the inhibition duration being dependent upon a time constant of the resistive-capacitive circuit.

Abstract: An artificial neuron includes a first capacitive node of application of a membrane potential of the neuron. A first transistor is configured to discharge the first capacitive node. A second capacitive node is driven according to the membrane potential and delivers a potential for controlling the first transistor. A second transistor is configured to discharge the second capacitive node. The second transistor is controlled according to a potential present at the second capacitive node.

Abstract: A semiconductor substrate includes a doped region having an upper surface. The doped region may comprise a conduction terminal of a diode (such as cathode) or a transistor (such as a drain). A silicide layer is provided at the doped region. The silicide layer has an area that only partially covers an area of the upper surface of the doped region. The partial area coverage facilitates modulating the threshold voltage and/or leakage current of an integrated circuit device.

Abstract: An integrated artificial neuron device includes an input signal node, an output signal node and a reference supply node. An integrator circuit receives and integrates an input signal to produce an integrated signal. A generator circuit receives the integrated signal and, when the integrated signal exceeds a threshold, delivers the output signal. The integrator circuit includes a main capacitor coupled between the input signal node and the reference supply node. The generator circuit includes a main MOS transistor coupled between the input signal node and the output signal node. The main MOS transistor has a gate that is coupled to the output signal node, and a substrate that is mutually coupled to the gate.

Abstract: A cell includes a Z2-FET-type structure that is formed with two front gates extending over an intermediate region between an anode region and a cathode region. The individual front gates of the two front gates are spaced apart by a distance that is shorter than 40% of a width of each individual front gate.

Abstract: Binary data is processed through a differential pre-encoder, which includes a simple modulo-2 addition. This step is used to cancel the propagation error that can be introduced by duo-binary modulation and to simplify demodulation. Next the duo-binary encoder introduces controlled Inter Symbol Interference between a previously sent bit and a present bit to compress the spectral density closer to the DC. Next a 60-GHz carrier is modulated and transmitted over differential transmission lines.

Abstract: A method includes generating, by a first spiking neuron, an event detection signal indicating a time of detection of an event in a data flow. The event detection signal is transmitted from the first spiking neuron to a second spiking neuron. The second spiking neuron generates a spike delayed, with respect to the time of detection of the event, according to an amplitude of the event. The delayed spike is included in a coded signal.

Abstract: An electronic device includes a module that delivers a positive temperature coefficient output voltage at an output terminal. A thermistor includes a first MOS transistor operating in weak inversion mode and having a negative temperature coefficient drain-source resistance and whose source is coupled to the output terminal. A current source coupled to the output terminal operates to impose the drain-source current of the first transistor.

Abstract: An electronic device includes a module that delivers a positive temperature coefficient output voltage at an output terminal. A thermistor includes a first MOS transistor operating in weak inversion mode and having a negative temperature coefficient drain-source resistance and whose source is coupled to the output terminal. A current source coupled to the output terminal operates to impose the drain-source current of the first transistor.

Abstract: An electronic device includes a module that delivers a positive temperature coefficient output voltage at an output terminal. A thermistor includes a first MOS transistor operating in weak inversion mode and having a negative temperature coefficient drain-source resistance and whose source is coupled to the output terminal. A current source coupled to the output terminal operates to impose the drain-source current of the first transistor.

Abstract: An exemplary semiconductor memory includes a channel region disposed in a semiconductor body, a gate region overlying the channel region, a first and a second source/drain region disposed in the semiconductor body, where the first source/drain region is spaced from the second source/drain region by the channel region. The exemplary memory further includes a first contact electrically contacting the first source/drain region, a second contact electrically contacting the first source/drain region and spaced from the second contact, and a third contact electrically contacting the second source/drain region. The first and second contacts are configured so that a resistivity of the first source/drain region can be irreversibly increased by application of an electric current between the first and second contacts. The first contact extends over a first width, the third contact extends over a third width, where the first width is smaller than the third width.

Abstract: A silicon-on-insulator semiconductor substrate supports rows extending in a direction. Each row includes complementary MOS transistors and associated contact regions allowing back gate of the complementary MOS transistors to be biased. All transistors and associated contact regions of a given row are mutually isolated by a first trench isolation. Each row is bordered on opposed edges extending parallel to said direction by corresponding second trench isolations that are shallower than the first trench isolation.

Abstract: An integrated circuit includes a MOS transistor that is located in and on a semiconductor film of a silicon-on-insulator (SOI) substrate. The SOI substrate has, below a buried insulator layer, a first back gate region and two first auxiliary regions that are located, respectively, below source and drain contact regions of the MOS transistor. The conductivity type of the two first auxiliary regions is the opposite the conductivity type of the first back gate region. The conductivity type of the two first auxiliary regions is identical to the conductivity type of the source and drain contact regions of the MOS transistor.

Abstract: An integrated device, for generating a random signal, includes: a first terminal; a pulse signal generator configured to generate a current pulse train on the first terminal; and a first control circuit coupled to the first terminal and configured to convert the current pulse train into a voltage signal randomly including voltage pulses greater than a threshold, the random signal containing the voltage pulses greater than the threshold.

Abstract: Binary data is processed through a differential pre-encoder, which includes a simple modulo-2 addition. This step is used to cancel the propagation error that can be introduced by duo-binary modulation and to simplify demodulation. Next the duo-binary encoder introduces controlled Inter Symbol Interference between a previously sent bit and a present bit to compress the spectral density closer to the DC. Next a 60-GHz carrier is modulated and transmitted over differential transmission lines.