mhurhangee/ep-ind-claims huggingface dataset:
A load driving device driving a load by controlling ON/OFF of a switching element connected to the load, by applying voltage to a gate terminal of the switching element, the load driving device comprising: the switching element; a gate driving circuit configured to apply a gate voltage to the switching element; and a current measurement circuit connected between a power source and a power input of the gate driving circuit, and configured to measure current flowing from the power source via the gate terminal to the switching element, wherein the gate driving circuit comprises a voltage application circuit, where the voltage application circuit is connected to the power input of the gate driving circuit and to a reference power source provided as a reference; and the voltage application circuit is configured to output a voltage having a potential equal or lower to that of the reference voltage; wherein the power source has a higher voltage than that of the reference voltage; and wherein the gate voltage is restricted by the voltage of the output of the voltage application circuit. the switching element; a gate driving circuit configured to apply a gate voltage to the switching element; and a current measurement circuit connected between a power source and a power input of the gate driving circuit, and configured to measure current flowing from the power source via the gate terminal to the switching element, wherein the gate driving circuit comprises a voltage application circuit, where the voltage application circuit is connected to the power input of the gate driving circuit and to a reference power source provided as a reference; and the voltage application circuit is configured to output a voltage having a potential equal or lower to that of the reference voltage; wherein the power source has a higher voltage than that of the reference voltage; and wherein the gate voltage is restricted by the voltage of the output of the voltage application circuit.
A set of floor panels (1, 1') provided with a locking system comprising a tongue at an edge of a first floor panel and a tongue groove in an adjacent edge of a similar second floor panel for connecting the edges vertically, wherein the tongue and the tongue groove are displaceable in relation to each other, wherein the tongue is a displaceable tongue in a displacement groove of the first panel, characterised in that the tongue comprises protrusions extending horizontally beyond the upper part of the edge and the tongue groove comprises protrusions and cavities the tongue with the protrusions and the tongue groove with the protrusions and cavities configured such that the adjacent edges can obtain a vertically unlocked position where the protrusions of the tongue match the cavities of the tongue groove and a vertically locked position where the protrusions of said tongue vertically overlap the protrusions of said tongue groove, and in that the tongue is displaceable essentially along and parallel with the adjacent edges.
A profile for fastening a lower panel to a longitudinal side panel (206,208) of a body structure of a passenger public transport land vehicle, in particular of the bus or tyred tram type, having a closed cross-section, said profile comprising: - a first face for fastening the lower panel, and - a second face for fastening the side panel (206,208); one (102,104) of said faces being offset with respect to the other (104,102) of said faces in a direction perpendicular to said one face (102,104), so that said other face (104,102) stops before and at a distance from said one face (102,104) in said perpendicular direction; characterized in that it is carried out by folding and welding a single sheet of metal, the welding being carried out at the level of said first face, or of said second face, or of a face, called inner face, located between said first face and said second face, and in use, on the side of a passenger compartment of the vehicle. - a first face for fastening the lower panel, and - a second face for fastening the side panel (206,208);
An electronic ink cartridge of an electromagnetic induction type, the electronic ink cartridge including: a resonance circuit, the resonance circuit having a coil, whose inductance varies in response to pressure applied to a core member, and a capacitor circuit, which has predetermined capacitance and which is connected in parallel to the coil, the electronic ink cartridge being configured to detect the pressure applied to the core member based on a variation of a resonance frequency of the resonance circuit, wherein at least the core member and the coil are accommodated in a tubular member such that the coil is positioned between the core member, which extends outwardly from a first end of the tubular member, and the capacitor circuit along a direction of a center axis of the tubular member, a connection member, which electrically connects a first end and a second end of the coil to a first terminal and a second terminal of the capacitor circuit, respectively, is accommodated in the tubular member and is engaged with the tubular member in a position between the coil and the capacitor circuit, and two connection terminals (172, 173) provided on one end of the connection member opposing the capacitor circuit are electrically connected to the first terminal and the second terminal of the capacitor circuit, respectively, to electrically connect the coil and the capacitor circuit through the connection member, to which the first end and the second end of the coil are electrically connected. a resonance circuit, the resonance circuit having a coil, whose inductance varies in response to pressure applied to a core member, and a capacitor circuit, which has predetermined capacitance and which is connected in parallel to the coil, the electronic ink cartridge being configured to detect the pressure applied to the core member based on a variation of a resonance frequency of the resonance circuit, wherein at least the core member and the coil are accommodated in a tubular member such that the coil is positioned between the core member, which extends outwardly from a first end of the tubular member, and the capacitor circuit along a direction of a center axis of the tubular member, a connection member, which electrically connects a first end and a second end of the coil to a first terminal and a second terminal of the capacitor circuit, respectively, is accommodated in the tubular member and is engaged with the tubular member in a position between the coil and the capacitor circuit, and two connection terminals (172, 173) provided on one end of the connection member opposing the capacitor circuit are electrically connected to the first terminal and the second terminal of the capacitor circuit, respectively, to electrically connect the coil and the capacitor circuit through the connection member, to which the first end and the second end of the coil are electrically connected.
A food product processing plant including: • a food product loading unit, one or more food product processing units, and a food product unloading unit arranged successively and connected via a food product conveying device; wherein the conveying device includes • a rail defining a conveyance path through said one or more processing units; • a plurality of carriages movably supported on said rail, each carriage including a hook configured for hanging food items for the conveyance thereof; and • an actuating device configured for driving said plurality of carriages along the conveyance path; wherein • the conveying device includes multiple independent and successive trains of carriages along said rail, each train of carriages being intended for supporting a batch of food product; • the actuating device includes multiple independently actuated actuating units, configured for driving different trains of carriages located at different positions of the conveyance path, allowing independent and distinct actuation of the multiple trains of carriages; and • the rail includes at least one passive rail segment devoid of actuating units characterized in that each train of carriages is formed by a cluster of a portion of said carriages arranged in succession and attached to one another by articulated attachments. • a food product loading unit, one or more food product processing units, and a food product unloading unit arranged successively and connected via a food product conveying device; • a rail defining a conveyance path through said one or more processing units; • a plurality of carriages movably supported on said rail, each carriage including a hook configured for hanging food items for the conveyance thereof; and • an actuating device configured for driving said plurality of carriages along the conveyance path; • the conveying device includes multiple independent and successive trains of carriages along said rail, each train of carriages being intended for supporting a batch of food product; • the actuating device includes multiple independently actuated actuating units, configured for driving different trains of carriages located at different positions of the conveyance path, allowing independent and distinct actuation of the multiple trains of carriages; and • the rail includes at least one passive rail segment devoid of actuating units
A method for granting permission for a machine action comprising: receiving a machine generated request, associated with a source, where the machine generated request comprises request parameters that include a requested machine action, a target recipient of the requested machine action, and the source of the requested machine action; accessing a stored set of capabilities where each of the one or more capabilities comprises permission parameters that include a permissible action, a specified recipient of the permissible action, and a specified source of the permissible action; for each of the one or more capabilities in the stored set of capabilities: determining whether the request parameters associated with the machine generated request match the permission parameters associated with the capability; and granting permission to apply the machine generated request to the target recipient when a match is determined. receiving a machine generated request, associated with a source, where the machine generated request comprises request parameters that include a requested machine action, a target recipient of the requested machine action, and the source of the requested machine action; accessing a stored set of capabilities where each of the one or more capabilities comprises permission parameters that include a permissible action, a specified recipient of the permissible action, and a specified source of the permissible action; for each of the one or more capabilities in the stored set of capabilities: determining whether the request parameters associated with the machine generated request match the permission parameters associated with the capability; and granting permission to apply the machine generated request to the target recipient when a match is determined. determining whether the request parameters associated with the machine generated request match the permission parameters associated with the capability; and granting permission to apply the machine generated request to the target recipient when a match is determined.
A core for a high-frequency acceleration cavity, having a shape formed by winding an Fe-based nanocrystalline alloy ribbon by a single-roll process with an insulating layer interposed, the Fe-based nanocrystalline alloy ribbon having a roll contact surface and a free surface, wherein the free surface of the Fe-based nanocrystalline alloy ribbon has dispersed thereon crater-like projections with a concave, and the projections each have a top part that is ground and blunted.
A semiconductor device, comprising: two electrodes (12a, 12b) with opposite faces; a semiconductor wafer sandwiched between the two electrodes (12a, 12b); an outer insulating ring attached to the two electrodes (12a, 12b) and surrounding the semiconductor wafer; a middle insulating ring inside the outer insulating ring and surrounding the semiconductor wafer, whereby the middle insulating ring is made of a plastics material; an inner insulating ring inside the middle insulating ring, whereby the inner insulating ring is made of ceramics and/or glass material; wherein either the middle insulating ring or the inner insulating ring has a tongue and the other thereof has a groove such that the tongue fits into the groove for their rotational alignment and wherein the middle insulating ring and the inner insulating ring have a radial opening for receiving a gate connection of the semiconductor device. two electrodes (12a, 12b) with opposite faces; a semiconductor wafer sandwiched between the two electrodes (12a, 12b); an outer insulating ring attached to the two electrodes (12a, 12b) and surrounding the semiconductor wafer; a middle insulating ring inside the outer insulating ring and surrounding the semiconductor wafer, whereby the middle insulating ring is made of a plastics material; an inner insulating ring inside the middle insulating ring, whereby the inner insulating ring is made of ceramics and/or glass material; wherein either the middle insulating ring or the inner insulating ring has a tongue and the other thereof has a groove such that the tongue fits into the groove for their rotational alignment and wherein the middle insulating ring and the inner insulating ring have a radial opening for receiving a gate connection of the semiconductor device.
A moving assist apparatus for assisting a vehicle which includes an internal combustion engine and an electric motor as a driving source to move from a current position to a destination, the moving assist apparatus comprising: a mode planning unit configured to, for each section obtained by dividing a traveling route from the current position to the destination, plan regularly or, when a condition for irregularly replanning a traveling mode is met, irregularly one traveling mode from a first mode of not maintaining a charge storage amount of a battery and a second mode of maintaining the charge storage amount of the battery, based on a traveling load associated with the section; and an information generation unit configured to generate periodically traveling load information that is referenced by the mode planning unit, characterized in that the mode planning unit is configured to, when replanning the traveling mode based on the traveling load information generated by the information generation unit, defer an execution of the replanning of the traveling mode until a period from an execution of the previous planning reaches a predetermined period (β). a mode planning unit configured to, for each section obtained by dividing a traveling route from the current position to the destination, plan regularly or, when a condition for irregularly replanning a traveling mode is met, irregularly one traveling mode from a first mode of not maintaining a charge storage amount of a battery and a second mode of maintaining the charge storage amount of the battery, based on a traveling load associated with the section; and an information generation unit configured to generate periodically traveling load information that is referenced by the mode planning unit, characterized in that the mode planning unit is configured to, when replanning the traveling mode based on the traveling load information generated by the information generation unit, defer an execution of the replanning of the traveling mode until a period from an execution of the previous planning reaches a predetermined period (β).
A turbine assembly comprising: a radial turbine wheel that comprises a base, a nose, blades, and a rotational axis that extends from the base to the nose; a stepped shroud component that comprises an axis aligned with the rotational axis of the turbine wheel, an inner shroud surface, a lower axial face, an upper axial face and an outer seal surface that extends between the lower axial face and the upper axial face; a stepped turbine housing that comprises an axis aligned with the rotational axis of the turbine wheel, a lower axial face, an upper axial face and an inner seal surface that extends between the lower axial face and the upper axial face, wherein the lower axial face of the stepped shroud component faces the lower axial face of the stepped turbine housing and wherein the upper axial face of the stepped shroud component faces the upper axial face of the stepped turbine housing; and an expansion seal comprising an axis aligned with the rotational axis of the turbine wheel and a lower lip disposed between the lower axial face of the shroud component and the lower axial face of the turbine housing, and characterized in that the expansion seal further comprises an upper lip disposed between the upper axial face of the shroud component and the upper axial face of the turbine housing, and a wall that extends between the lower lip and the upper lip, the wall disposed between the outer seal surface of the shroud component and the inner seal surface of the turbine housing. a radial turbine wheel that comprises a base, a nose, blades, and a rotational axis that extends from the base to the nose; a stepped shroud component that comprises an axis aligned with the rotational axis of the turbine wheel, an inner shroud surface, a lower axial face, an upper axial face and an outer seal surface that extends between the lower axial face and the upper axial face; a stepped turbine housing that comprises an axis aligned with the rotational axis of the turbine wheel, a lower axial face, an upper axial face and an inner seal surface that extends between the lower axial face and the upper axial face, wherein the lower axial face of the stepped shroud component faces the lower axial face of the stepped turbine housing and wherein the upper axial face of the stepped shroud component faces the upper axial face of the stepped turbine housing; and an expansion seal comprising an axis aligned with the rotational axis of the turbine wheel and a lower lip disposed between the lower axial face of the shroud component and the lower axial face of the turbine housing, and characterized in that the expansion seal further comprises an upper lip disposed between the upper axial face of the shroud component and the upper axial face of the turbine housing, and a wall that extends between the lower lip and the upper lip, the wall disposed between the outer seal surface of the shroud component and the inner seal surface of the turbine housing.
An autonomous pipeline tool comprising; a device having a first part and a second part, the first and second parts being separable from each other; a hydraulic system (A, B) comprising at least one hydraulic piston (140, 150, 160) and means for operating the piston, the hydraulic system being operable to returnably separate the first and second part of the device; the hydraulic system having a plurality of pipeline engaging means positioned along an exterior surface of the device, the pipeline engaging means being operable by the hydraulic system to be engagable with the interior surface of the pipeline; and a control unit, the control unit being in communication with the hydraulic system to control the movement of the pipeline engaging means and the first and second parts such that the autonomous pipeline tool is moveable within a pipeline, characterised in that the hydraulic system (A, B) comprises independently operable primary and backup hydraulic systems, wherein the longitudinal rams of each hydraulic system (A, B) are arranged such that they are parallel to each other, wherein the hydraulic ram of the backup hydraulic system remains recessed when not in use, wherein the hydraulic ram of the backup hydraulic system is slightly shorter than the hydraulic ram of the primary hydraulic system.
An electrostatic protection circuit, connected with an internal circuit that includes an input buffer connected to an internal circuit input terminal, comprising: a first circuit, a first diode connected in parallel with the first circuit, a second circuit, and a second diode connected in parallel with the second circuit, wherein the first circuit is connected between a power supply pad and the internal circuit input terminal, and the second circuit is connected between the internal circuit input terminal and a ground pad; and the first circuit and the second circuit are diode-triggered silicon controlled rectifier, DTSCR, circuits; characterized in that the first circuit comprises at least two third diodes, the second circuit comprises at least two fourth diodes, and the number of the third diode and the fourth diodes is adjusted such that conduction voltages of the first circuit and the second circuit are greater than an operating voltage of an input pad and less than a breakdown voltage of an oxide layer of a Metal Oxide Semiconductor, MOS, device in the input buffer; wherein the electrostatic protection circuit further comprises: a fifth diode (Dp) connected between the power supply pad and the input pad, and a sixth diode (Dn) connected between the input pad and the ground pad, wherein a positive electrode of the fifth diode (Dp) is connected with the input pad, and a positive electrode of the sixth diode (Dn) is connected with the ground pad. a first circuit, a first diode connected in parallel with the first circuit, a second circuit, and a second diode connected in parallel with the second circuit, wherein the first circuit is connected between a power supply pad and the internal circuit input terminal, and the second circuit is connected between the internal circuit input terminal and a ground pad; and the first circuit and the second circuit are diode-triggered silicon controlled rectifier, DTSCR, circuits; characterized in that the first circuit comprises at least two third diodes, the second circuit comprises at least two fourth diodes, and the number of the third diode and the fourth diodes is adjusted such that conduction voltages of the first circuit and the second circuit are greater than an operating voltage of an input pad and less than a breakdown voltage of an oxide layer of a Metal Oxide Semiconductor, MOS, device in the input buffer; wherein the electrostatic protection circuit further comprises: a fifth diode (Dp) connected between the power supply pad and the input pad, and a sixth diode (Dn) connected between the input pad and the ground pad, wherein a positive electrode of the fifth diode (Dp) is connected with the input pad, and a positive electrode of the sixth diode (Dn) is connected with the ground pad.