mhurhangee/ep-ind-claims huggingface dataset:
A High Electron Mobility Transistor, HEMT, device, comprising: a semiconductor body including a heterojunction structure that forms a main conductive channel of the HEMT device and includes a channel layer and a barrier layer over the channel layer; a dielectric layer on the semiconductor body; a gate region extending in a trench through the dielectric layer and the barrier layer as far as the channel layer, the gate region including a gate electrode and a gate dielectric that extends between the gate electrode and the semiconductor body facing bottom and side walls of the trench; a drain electrode, and a source electrode aligned to one another in a direction, wherein the drain electrode extends to the channel layer facing a first side of the gate region, and the source electrode extends to the channel layer facing a second side (8"), opposite to the first side in said direction, of the gate region, and an auxiliary channel layer, which extends over the heterojunction structure between the gate electrode and the drain electrode, in electrical contact with the drain electrode, is in direct contact with the source electrode and the second side (8") of the gate region, wherein the auxiliary channel layer is separated from the first side of the gate region by the dielectric layer so that it is not in direct contact with the first side of the gate region, is at a distance from the gate dielectric at the first side of the gate region, and forms a conductive path additional to the main conductive channel for charge carriers that flow between the source electrode and the drain electrode. a semiconductor body including a heterojunction structure that forms a main conductive channel of the HEMT device and includes a channel layer and a barrier layer over the channel layer; a dielectric layer on the semiconductor body; a gate region extending in a trench through the dielectric layer and the barrier layer as far as the channel layer, the gate region including a gate electrode and a gate dielectric that extends between the gate electrode and the semiconductor body facing bottom and side walls of the trench; a drain electrode, and a source electrode aligned to one another in a direction, wherein the drain electrode extends to the channel layer facing a first side of the gate region, and the source electrode extends to the channel layer facing a second side (8"), opposite to the first side in said direction, of the gate region, and an auxiliary channel layer, which extends over the heterojunction structure between the gate electrode and the drain electrode, in electrical contact with the drain electrode, is in direct contact with the source electrode and the second side (8") of the gate region, wherein the auxiliary channel layer is separated from the first side of the gate region by the dielectric layer so that it is not in direct contact with the first side of the gate region, is at a distance from the gate dielectric at the first side of the gate region, and forms a conductive path additional to the main conductive channel for charge carriers that flow between the source electrode and the drain electrode.
A conductive structure comprising: a substrate; a metal layer provided on the substrate; and a light reflection reducing layer comprising a copper-nickel oxide provided on at least one surface of the metal layer, characterized in that the light reflection reducing layer has copper content of 15 at% or more and 55 at% or less; the light reflection reducing layer has nickel content of 1 at% or more and 30 at% or less, and in the light reflection reducing layer, a ratio of the nickel content to the copper content (Ni (at%)/Cu (at%)) is 0.01 or more and 1.8 or less. a substrate; a metal layer provided on the substrate; and a light reflection reducing layer comprising a copper-nickel oxide provided on at least one surface of the metal layer, characterized in that the light reflection reducing layer has copper content of 15 at% or more and 55 at% or less; the light reflection reducing layer has nickel content of 1 at% or more and 30 at% or less, and in the light reflection reducing layer, a ratio of the nickel content to the copper content (Ni (at%)/Cu (at%)) is 0.01 or more and 1.8 or less.
Coupling assembly for railbound vehicles having a coupling head, which can be coupled or decoupled as needed to/from a coupling head of a counter coupling to change its coupling state, wherein the coupling assembly is assigned a monitoring system for state monitoring of components of the coupling assembly on the basis of strain data of components of the coupling assembly, wherein the monitoring system is designed to record different strain data and/or strain data of different components of the coupling assembly in dependence on both a coupling state of the coupling and also a coupling state transition of the coupling, characterized in that the monitoring system has a sensor system, which is designed upon the transition of the coupling head from its uncoupled state into its coupled state, with the aid of at least one vibration and/or structure-borne sound measurement, to acquire a transition of components of the coupling assembly into their coupling-ready state, in particular over a previously defined or definable period of time, and to record the number and type of the coupling state changes of the coupling head over a previously defined or definable period of time.
A disposable injection needle for injection of insulin, which injection needle comprises a base and a needle fastened in the base and protruding from said base, and a protective cover comprising a hood pivotably fastened on the base, said hood being arranged to be pivotable, with the one and the same hand that holds a syringe on which the injection needle is arranged, between an inactive position at the side of the needle of the injection needle and an active position in front of the needle, seen in the longitudinal direction of the needle, characterized in that the hood has the form of a yoke having two arms (5,6), which at one end carry the hood and at their opposite ends are pivotably connected to the base of the injection needle, and in that the length of the arms (5, 6) is so dimensioned that when bringing the hood to its active position it is swung up at a height over the base being lower than the protrusion of the needle beyond the base such that the needle will be deformed, i.e. curved/bent, while at the same time the extension of the hood is such that the needle is completely covered by the hood, wherein the hood is arranged to be locked irreversibly in the active position wherein the hood in the active position is locked with the aid of two locking shoulders arranged on the base, and wherein the shoulders have a first ramp-like inclined side which acts as a straight, on which the arms (5, 6) of the yoke can slide up when raising the hood from the inactive position to the active position, and with a second side standing perpendicularly out from the base, against which side the respective arm (5, 6) of the yoke rests when the hood is in the active position in which it covers the needle.
Back plate for a brake pad of a disc brake assembly, comprising a plate body provided with a pair of opposite surfaces (28,30) and lateral flanks, an engaging portion for a friction material being defined on a first one of said surfaces and being delimited by a corresponding perimeter which coincides with the perimeter of the layer of friction material when the latter is applied to the back plate, said engaging portion being provided with at least a first series of rectilinear rows of retaining elements for said friction material, said rows being arranged along a transverse direction perpendicular to a longitudinal direction tangent to the direction of the circular motion of the disc to be braked and each row comprising a plurality of grooves associated to corresponding protrusions, said protrusions being provided with a proximal end integrally connected to the material of the plate body and a free distal end, characterized in that for each row of said at least first series of rows the distance ("d3") measured along the axis ("S") of each row between the mutually adjacent retaining elements closest to the perimeter of said engaging portion and said perimeter is constant, and in that said rows are mutually parallel.
An engine system for a working machine, the engine system comprising: an engine disposed in a main body of the working machine; an exhaust manifold disposed in the main body and coupled to the engine; a tail pipe disposed in the main body; and an exhaust-gas purification device disposed in the main body and comprising an exhaust-gas inlet-side housing comprising an exhaust-gas inlet coupled to the exhaust manifold, and an exhaust-gas outlet-side housing comprising an exhaust-gas outlet coupled to the tail pipe, the exhaust-gas purification device being configured to purify exhaust gas discharged from the engine and cause the purified exhaust gas to be discharged from the tail pipe to an outside of the engine system; a silencer housing disposed as needed in any one or both of the exhaust-gas inlet-side housing and the exhaust-gas outlet-side housing to attenuate exhaust sound of the engine; characterized in that a sound-absorbing flange is formed integrally with the exhaust-gas exhaust side of the sound-absorbing case; the sound-absorbing flange is caused to be pinched between the exhaust-gas outlet-side housing and an exhaust-gas outlet cover. an engine disposed in a main body of the working machine; an exhaust manifold disposed in the main body and coupled to the engine; a tail pipe disposed in the main body; and an exhaust-gas purification device disposed in the main body and comprising an exhaust-gas inlet-side housing comprising an exhaust-gas inlet coupled to the exhaust manifold, and an exhaust-gas outlet-side housing comprising an exhaust-gas outlet coupled to the tail pipe, the exhaust-gas purification device being configured to purify exhaust gas discharged from the engine and cause the purified exhaust gas to be discharged from the tail pipe to an outside of the engine system; a silencer housing disposed as needed in any one or both of the exhaust-gas inlet-side housing and the exhaust-gas outlet-side housing to attenuate exhaust sound of the engine; characterized in that a sound-absorbing flange is formed integrally with the exhaust-gas exhaust side of the sound-absorbing case; the sound-absorbing flange is caused to be pinched between the exhaust-gas outlet-side housing and an exhaust-gas outlet cover.
A motorized concealment device comprising, on the one hand, a movable concealment element and, on the other hand, a low-voltage, even very low voltage, direct-current motor for driving the movable concealment element in displacement, wherein it includes, yet on the other hand, a low-power speed controller for supplying electrical power to the direct-current motor, the speed controller consisting of a device for supplying electrical power and with a direct voltage of a direct-current load consisting of the direct-current motor, said supply device including: - a switching power supply system, the output voltage of which is continuous and regulated, and including a feedback loop incorporating a voltage divider designed to divide, according to a division ratio, an input voltage (Ue) of this voltage divider, in order to obtain an output voltage (Us) of this voltage divider; - means for dynamically changing the division ratio of the voltage divider incorporated in the feedback loop. - a switching power supply system, the output voltage of which is continuous and regulated, and including a feedback loop incorporating a voltage divider designed to divide, according to a division ratio, an input voltage (Ue) of this voltage divider, in order to obtain an output voltage (Us) of this voltage divider; - means for dynamically changing the division ratio of the voltage divider incorporated in the feedback loop.
A method for operating a multi-channel LED module, wherein the light emitted from the multi-channel LED module is regulated to a predetermined color coordinate by independently activating the individual channels, wherein a radiated color coordinate is fed back, wherein each of the channels of the multi-channel LED module activates a first specific color, wherein each of the channels of the multi-channel LED module has at least one LED of a second specific color, characterized in that - in a first step, a rough control of the light emitted from the multi-channel LED module takes place to a pre-defined color coordinate with a first step width, in which only a subset of the channels is adjusted independently of one another, until the emitted color coordinate lies within a predetermined tolerance range around a pre-defined color coordinate, and - in a second step, a fine control of the light emitted from the multi-channel LED module takes place to the pre-defined color coordinate with a second step width, in which all channels are adjusted, wherein the first step width is larger than the second step width, wherein the fine control takes place until the emitted color coordinate corresponds to the pre-defined color coordinate to the extent that a permitted error value is not exceeded. - in a first step, a rough control of the light emitted from the multi-channel LED module takes place to a pre-defined color coordinate with a first step width, in which only a subset of the channels is adjusted independently of one another, until the emitted color coordinate lies within a predetermined tolerance range around a pre-defined color coordinate, and - in a second step, a fine control of the light emitted from the multi-channel LED module takes place to the pre-defined color coordinate with a second step width, in which all channels are adjusted, wherein the first step width is larger than the second step width, wherein the fine control takes place until the emitted color coordinate corresponds to the pre-defined color coordinate to the extent that a permitted error value is not exceeded.
Electric motor, in particular for a motor vehicle, comprising: - an internal rotor, which is rotatably mounted about a rotation axis, relative to an external stator, - wherein the rotor has a pot-like rotor receiving sleeve arranged around a rotor shaft for receiving an armature unit, which has a multi-layered sheet metal assembly with multiple permanent magnets, - wherein the rotor receiving sleeve is closed with a cover in a fluid-tight manner, - wherein the permanent magnets are arranged spaced apart from one another in a peripheral direction at a radial outer side of the sheet metal assembly, - wherein first retention devices are arranged in intermediate spaces of adjacent permanent magnets on the sheet metal assembly and prevent slippage in a peripheral direction, - wherein the first retention devices are constructed integrally on the sheet metal assembly, - wherein the cover for the rotor receiving sleeve is arranged to be radially spaced apart from the rotor shaft or the bearing bush, characterized in that, - the cover is formed as a pump running wheel for conveying a liquid. - an internal rotor, which is rotatably mounted about a rotation axis, relative to an external stator, - wherein the rotor has a pot-like rotor receiving sleeve arranged around a rotor shaft for receiving an armature unit, which has a multi-layered sheet metal assembly with multiple permanent magnets, - wherein the rotor receiving sleeve is closed with a cover in a fluid-tight manner, - wherein the permanent magnets are arranged spaced apart from one another in a peripheral direction at a radial outer side of the sheet metal assembly, - wherein first retention devices are arranged in intermediate spaces of adjacent permanent magnets on the sheet metal assembly and prevent slippage in a peripheral direction, - wherein the first retention devices are constructed integrally on the sheet metal assembly, - wherein the cover for the rotor receiving sleeve is arranged to be radially spaced apart from the rotor shaft or the bearing bush, characterized in that, - the cover is formed as a pump running wheel for conveying a liquid.
Composition comprising, in a physiologically acceptable medium, at least adapalene and dispersed benzoyl peroxide, characterized in that it is provided in the form of an emulsion and in that it comprises, as percentage by weight: - from 0.001% to 5% of adapalene; - from 0.025% to 10% of benzoyl peroxide; - from 30% to 95% of water; - from 0.01% to 15% of gelling agents and/or of suspending agents and/or of pH-independent gelling agents; - from 3% to 15% of emulsifiers; - from 5% to 50% of fatty phase; - from 0% to 1.5% of one or more chelating agents; - from 0% to 10% of one or more wetting agents; - from 0.1% to 20% of one or more humectants and/or emollients; - from 0% to 3% of preservatives; - from 0% to 3% of stabilizing agents; - from 0% to 10% of neutralizing agents. - from 0.001% to 5% of adapalene; - from 0.025% to 10% of benzoyl peroxide; - from 30% to 95% of water; - from 0.01% to 15% of gelling agents and/or of suspending agents and/or of pH-independent gelling agents; - from 3% to 15% of emulsifiers; - from 5% to 50% of fatty phase; - from 0% to 1.5% of one or more chelating agents; - from 0% to 10% of one or more wetting agents; - from 0.1% to 20% of one or more humectants and/or emollients; - from 0% to 3% of preservatives; - from 0% to 3% of stabilizing agents; - from 0% to 10% of neutralizing agents.
A separation chamber for a meat processing machine for separating soft material from a hard material carrier to which the soft material attached, the separation chamber having an internal volume sized for receiving and passing a mass, and comprising: an upstream chamber section defining a first feed end and a first discharge end and having an annular side wall defining a first internal passage, wherein the annular side wall includes a first plurality of perforations; and a downstream chamber section removably connected to the upstream chamber section and defining a second feed end and a second discharge end and having an annular side wall defining a second internal passage; the annular side wall of the downstream chamber section including a second plurality of perforations (42"); and the first plurality of perforations (42") and the second plurality of perforations (42") establishing communication between the first and second internal passages (28, 32) defined by the upstream and downstream chamber sections (12, 14), respectively, and an exterior of the separation chamber formed by the connected upstream and downstream chamber sections (12, 14), wherein the annular side wall of the upstream chamber section and the annular side wall of the downstream chamber section generally align with each other when the upstream and downstream chamber sections (12, 14) are connected together. an upstream chamber section defining a first feed end and a first discharge end and having an annular side wall defining a first internal passage, wherein the annular side wall includes a first plurality of perforations; and a downstream chamber section removably connected to the upstream chamber section and defining a second feed end and a second discharge end and having an annular side wall defining a second internal passage; the annular side wall of the downstream chamber section including a second plurality of perforations (42"); and the first plurality of perforations (42") and the second plurality of perforations (42") establishing communication between the first and second internal passages (28, 32) defined by the upstream and downstream chamber sections (12, 14), respectively, and an exterior of the separation chamber formed by the connected upstream and downstream chamber sections (12, 14), wherein the annular side wall of the upstream chamber section and the annular side wall of the downstream chamber section generally align with each other when the upstream and downstream chamber sections (12, 14) are connected together.
A method of wireless communication performed by a user equipment, UE, the method comprising: establishing at least one of first and second communication links (708, 714) with at least a first cell, the first communication link for receiving transmissions and the second communication link for sending transmissions; performing a handover of the first communication link to at least a second cell; determining a value of a power control parameter and/or a timing parameter associated with the second communication link after the handover of the first communication link is performed, wherein the determining the value of the parameter is based on a value of the parameter associated with the second communication link prior to the handover; maintaining a transmit power control setting and/or a timing advance setting associated with the second communication link when the handover of the first communication link is performed; and performing a configuration operation, wherein the configuration operation includes adjusting at least one of the transmit power control setting and/or the timing advance setting associated with the second communication link after the handover of the first communication link is performed, wherein the adjustment is based on an offset from the determined power control parameter and/or a timing parameter. establishing at least one of first and second communication links (708, 714) with at least a first cell, the first communication link for receiving transmissions and the second communication link for sending transmissions; performing a handover of the first communication link to at least a second cell; determining a value of a power control parameter and/or a timing parameter associated with the second communication link after the handover of the first communication link is performed, wherein the determining the value of the parameter is based on a value of the parameter associated with the second communication link prior to the handover; maintaining a transmit power control setting and/or a timing advance setting associated with the second communication link when the handover of the first communication link is performed; and performing a configuration operation, wherein the configuration operation includes adjusting at least one of the transmit power control setting and/or the timing advance setting associated with the second communication link after the handover of the first communication link is performed, wherein the adjustment is based on an offset from the determined power control parameter and/or a timing parameter.
A lid closure for a wound capacitor that is arrangeable in a can, the lid closure comprising: at least one electrical connector configured as an insulated conductor that extends through the lid and a disc shaped synthetic material element that supports the electrical connector, wherein a centering pin arranged at a bottom side of the plate shaped synthetic material element extends towards a winding of the capacitor or towards a base of the can, characterized in that the bottom side of the synthetic material element includes plural flexible tongue shaped spring elastic arcuate elements that fix a capacitor winding and compensate tolerances. at least one electrical connector configured as an insulated conductor that extends through the lid and a disc shaped synthetic material element that supports the electrical connector, wherein a centering pin arranged at a bottom side of the plate shaped synthetic material element extends towards a winding of the capacitor or towards a base of the can, characterized in that the bottom side of the synthetic material element includes plural flexible tongue shaped spring elastic arcuate elements that fix a capacitor winding and compensate tolerances.