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 device for generating a signal, including: a balun; and a circuit capable of summing up, on a first access terminal of the balun, currents representative of signals received on first input terminals of the device, and on a second access terminal of the balun, currents representative of signals received on second input terminals of the device.
Abstract:
A method for forming a back-side illuminated image sensor, including the steps of: a) forming, from the front surface, doped polysilicon regions, of a conductivity type opposite to that of the substrate, extending in depth orthogonally to the front surface and emerging into the first layer; b) thinning the substrate from its rear surface to reach the polysilicon regions, while keeping a strip of the first layer; c) depositing, on the rear surface of the thinned substrate, a doped amorphous silicon layer, of a conductivity type opposite to that of the substrate; and d) annealing at a temperature capable of transforming the amorphous silicon layer into a crystallized layer.
Abstract:
An image sensor arranged inside and on top of a semiconductor substrate, having a plurality of pixels, each including: a photosensitive area, a read area, and a storage area extending between the photosensitive area and the read area; at least one first insulated vertical electrode extending in the substrate between the photosensitive area and the storage area; and at least one second insulated vertical electrode extending in the substrate between the storage area and the read area.
Abstract:
A pixel circuit including: a differential detection circuit having first and second transistors coupled in series between differential output nodes of an antenna, the antenna being configured to be sensitive to terahertz radiation, and wherein: a first main conducting node of the first transistor is coupled to a first of the differential output nodes of the antenna; and a first main conducting node of the second transistor is coupled to a second of said differential output nodes of the antenna, wherein second main conducting nodes of the first and second transistors are formed by a common semiconductor region.
Abstract:
A duty cycle protection circuit including a first synchronous device adapted to receive a first clock signal on an input line and to generate a first clock transition of a second clock signal in response to a first clock transition of the first clock signal; and reset circuitry coupled to the input line and adapted to generate a second clock transition of the second clock signal by resetting the first synchronous device a time delay after the first clock transition of the first clock signal.
Abstract:
A nanoprojector panel formed of an array of cells, each cell including a liquid crystal layer between upper and lower transparent electrodes, a MOS control transistor being arranged above the upper electrode, each transistor being covered with at least three metallization levels. The transistor of each cell extends in a corner of the cell so that the transistors of an assembly of four adjacent cells are arranged in a central region of the assembly. The upper metallization level extends above the transistors of each the assembly of four adjacent cells. The panel includes, for each assembly of four adjacent cells, a first conductive ring surrounding the transistors, the first ring extending from the lower metallization level to the upper electrode of each cell, with an interposed insulating material.
Abstract:
A variable capacitance device including: first and second transistors coupled in series by their main current nodes between first and second nodes of the device, a control node of the first transistor being adapted to receive a first control signal, and a control node of the second transistor being adapted to receive a second control signal; and control circuitry adapted to generate the first and second control signals from a selection signal.
Abstract:
The invention concerns a scanning circuit, comprising a power supply providing a negative voltage on a first terminal (Tdown), an intermediate voltage on a second terminal (Gnd) and a positive voltage on a terminal of a switch (S), the other terminal of the switch being connected to a third terminal (Tup), a control circuit (6) supplied by connections to the second and third terminals, a differential amplifier receiving a positive and a negative input signal provided by the control circuit, a power amplifier controlled by the differential amplifier, both amplifiers being supplied by connections to the first and third terminals, a deflection coil (Ly) connected between the output of the power amplifier and the second terminal, biasing means setting, when the switch is open, the output of the differential amplifier so that the possible current paths through the power amplifier between the deflection coil and the first terminal are cut.
Abstract:
A CAM cell with masking made in the form of an integrated circuit, including a first storage cell including a first transistor, first and second inverters in anti-parallel, and a second transistor; a comparison cell, including third and fourth transistors controlling a fifth transistor, connected in series with a sixth inhibiting transistor to a result line; and a second storage cell, including a seventh transistor in series with two inverters in anti-parallel and an eighth transistor, the second storage cell controlling the inhibiting transistor. The first, second, seventh, and eighth transistors may be N-channel transistors, and the third, fourth, fifth, and sixth transistors may be P-channel transistors.