Abstract: Provided is a battery assembly that includes an electrically-conductive housing (510A, 510B), one or more battery modules (512) electrically coupled to a busbar (522), the one or more battery modules and busbar being received in the housing. A non-woven core layer (506) is disposed between the busbar and electrically-conductive housing, the non-woven core layer comprising a plurality of fibers, the plurality of fibers comprising 60-100 wt % of oxidized polyacrylonitrile fibers. The non-woven core layer can exhibit a breakdown voltage of at least 0.9 kV at ambient conditions after exposure to 500° C. for 5 minutes.

Abstract: A cell includes at least two semiconductor structures of the same nature, these two structures both employing voltages and currents that are unidirectional, each structure having an anode (10), a cathode (14) and optionally a gate (16). The structures are integrated into the volume of one and the same semiconductor substrate (4). The cathodes (14), and possibly the gates (16), are arranged on a first side of the semiconductor substrate (4). The anodes (10) are each arranged on a second side of the semiconductor substrate (4), which side is opposite the first side, facing the cathodes and possibly the corresponding gates. Two electrodes, anodes or cathodes, of two separate structures, are electrically connected to each other.

Abstract: A cell includes at least two semiconductor structures of the same nature, these two structures both employing voltages and currents that are unidirectional, each structure having an anode (10), a cathode (14) and optionally a gate (16). The structures are integrated into the volume of one and the same semiconductor substrate (4). The cathodes (14), and possibly the gates (16), are arranged on a first side of the semiconductor substrate (4). The anodes (10) are each arranged on a second side of the semiconductor substrate (4), which side is opposite the first side, facing the cathodes and possibly the corresponding gates. Two electrodes, anodes or cathodes, of two separate structures, are electrically connected to each other.

Abstract: The invention concerns the control of thyristor-type semiconductor power components (Sw) powered by an alternating current network (VS). The control signal is a pulse (Ie). It is stored in the form of magnetic induction (B), positive or negative, in a core (T) made of ferromagnetic material. At each current alternation of the network, the interrogation of the magnetic state of the strand results in the presence, or not, of a control signal on the power device (Sw).

Abstract: The invention concerns an anode voltage sensor of a vertical power component selected from the group consisting of components called thyristor, MOS, IGBT, PMCT, EST, BRT transistor, MOS thyristor, turn-off MOS thyristor, formed by a lightly doped N-type substrate (1) whereof the rear surface (2) having a metallizing coat corresponds to the component anode. Said sensor comprises, on the front surface side, a substrate zone (12) surrounded at least partly by a P-type region with low potential in front of an anode potential, said zone (12) being coated with a metallizing coat (M) in ohmic contact with it, whereon is provided an image of the anode voltage.

Abstract: The invention concerns a variable capacitance capacitor comprising a periodic structure of raised zones (5) separated by recesses (6) formed in a type N semiconductor substrate (1). The walls of the raised zones and the base of the recesses are coated with a conductive layer (9, 10). The substrate is connected to a first terminal (A) of the capacitor and the conductive layer to a second terminal (B) of the capacitor. At least the base of the recesses or the side of the raised zones comprises type P regions (8), the pitch of the raised parts being selected so that the space charging zones linked to the type P regions are joined when the voltage difference between said terminals exceeds a predetermined threshold. The zones not comprising type P regions are coated with an insulant (7) and a highly doped N region (10) is formed beneath the insulant.

Abstract: The invention concerns the control of thyristor-type semiconductor power components (Sw) powered by an alternating current network (VS). The control signal is a pulse (Ie). It is stored in the form of magnetic induction (B), positive or negative, in a core (T) made of ferromagnetic material. At each current alternation of the network, the interrogation of the magnetic state of the strand results in the presence, or not, of a control signal on the power device (Sw).

Abstract: The invention concerns a variable capacitance capacitor comprising a periodic structure of raised zones (5) separated by recesses (6) formed in a type N semiconductor substrate (1). The walls of the raised zones and the base of the recesses are coated with a conductive layer (9, 10). The substrate is connected to a first terminal (A) of the capacitor and the conductive layer to a second terminal (B) of the capacitor. At least the base of the recesses or the side of the raised zones comprises type P regions (8), the pitch of the raised parts being selected so that the space charging zones linked to the type P regions are joined when the voltage difference between said terminals exceeds a predetermined threshold. The zones not comprising type P regions are coated with an insulant (7) and a highly doped N region (10) is formed beneath the insulant.

Abstract: The invention concerns an anode voltage sensor of a vertical power component selected from the group consisting of components called thyristor, MOS, IGBT, PMCT, EST, BRT transistor, MOS thyristor, turn-off MOS thyristor, formed by a lightly doped N-type substrate (1) whereof the rear surface (2) having a metallizing coat corresponds to the component anode. Said sensor comprises, on the front surface side, a substrate zone (12) surrounded at least partly by a P-type region with low potential in front of an anode potential, said zone (12) being coated with a metallizing coat (M) in ohmic contact with it, whereon is provided an image of the anode voltage.

Abstract: A peripheral structure for a monolithic power device, preferably planar, includes front and rear surfaces, connected respectively to a cathode and an anode, two junctions respectively reverse-biased and forward-biased when a direct and adjacent voltage is respectively applied to the two surfaces and at least an insulating box connecting the front and rear surfaces. The structure is such that when a direct voltage or a reverse voltage is applied, generating equipotential voltage lines, the insulating box enables to distribute the equipotential lines in the substrate.

Abstract: The present invention relates to a static and monolithic current limiter and circuit-breaker component including, between two terminals, a one-way conduction current limiter, a sensor of the voltage between the terminals, and a mechanism for inhibiting the conduction of the current limiter when the voltage sensed exceeds a given threshold.

Abstract: A monolithic power switch with a controlled di/dt including the parallel assembly of a MOS or IGBT type component with a thyristor type component, including means for inhibiting the thyristor type component during the closing phase of the switch, which is ensured by the IGBT type component. The IGBT type component has a vertical multicell structure and the component of thyristor type has a vertical monocell structure.

Abstract: The present invention relates to a component forming a normally on dual thyristor, which can be turned off by a voltage pulse on the control electrode, including a thyristor, a first depletion MOS transistor, the gate of which is connected to the source, connected between the anode gate and the cathode of the thyristor, and a second enhancement MOS transistor, the gate of which is connected to a control terminal.

Abstract: A static self-locking micro-circuit-breaker includes a first MOS depletion transistor of a first type connected by its drain to a first main terminal and by its gate to a second main terminal, a second MOS depletion transistor of second type connected by its drain to the second main terminal and by its source to the source of the first transistor, a third MOS depletion transistor of the first type connected by its drain to the first main terminal, by its gate to the second main terminal, and by its source to the gate of the second transistor.

Abstract: A two-terminal current limiting component, includes a substrate of a first conductivity type; separated wells of the second conductivity type; a first annular region of the first conductivity type in each well; a second annular region of the first conductivity type having a low doping level between the periphery of each first annular region and the periphery of each well; an insulating layer over the second annular region and the surface portions of the substrate; a first metallization coating the upper surface of the component; and a second metallization coating the lower surface of the component.

Abstract: The present invention relates to a static and monolithic current limiter and circuit-breaker component including, between two terminals, a one-way conduction current limiter, a sensor of the voltage between the terminals, and a mechanism for inhibiting the conduction of the current limiter when the voltage sensed exceeds a given threshold.