mhurhangee/ep-ind-claims huggingface dataset:
A light emitting diode comprising: a semiconductor layer including an active region for emitting light and a first electrode; a second electrode on the semiconductor layer; and a first layer bonded to a surface of the first electrode and formed of a metal; and a bonding substrate under the first layer, and the first layer comprises at least one selected from the group consisting of chrome (Cr), nickel (Ni), tin (Sn), molybdenum (Mo), titanium (Ti), copper (Cu), and an alloy thereof, and characterized in that the first layer is a stress relaxation layer, and is formed to have a thickness in the range of about 10 μ m to about 1 mm; further characterised by a bonding material layer of a eutectic bonding material between the first electrode and the first layer; and a bonding metal layer disposed on both side portions of the semiconductor layer and electrically connected to the first electrode through the bonding material layer.. a semiconductor layer including an active region for emitting light and a first electrode; a second electrode on the semiconductor layer; and a first layer bonded to a surface of the first electrode and formed of a metal; and a bonding substrate under the first layer, and the first layer comprises at least one selected from the group consisting of chrome (Cr), nickel (Ni), tin (Sn), molybdenum (Mo), titanium (Ti), copper (Cu), and an alloy thereof, and characterized in that the first layer is a stress relaxation layer, and is formed to have a thickness in the range of about 10 μ m to about 1 mm; further characterised by a bonding material layer of a eutectic bonding material between the first electrode and the first layer; and a bonding metal layer disposed on both side portions of the semiconductor layer and electrically connected to the first electrode through the bonding material layer..
A method for transmitting aperiodic channel state information, A-CSI, the method performed by a user equipment, UE, and comprising: receiving a higher-layer signal configuring a plurality of physical uplink control channel, PUCCH, resource sets for transmitting the A-CSI; receiving downlink control information, DCI, indicating one of PUCCH resources among the plurality of PUCCH resource sets; and transmitting A-CSI using a PUCCH resource determined based on the higher-layer signal and the DCI, wherein the plurality of PUCCH resource sets are configured per a channel state information, CSI, process, wherein the UE selects one PUCCH resource set from among the plurality of PUCCH resource sets based on a payload size of the A-CSI and the CSI process for which the A-CSI is transmitted, and transmits the A-CSI using the PUCCH resource indicated by the DCI among PUCCH resources among the selected one PUCCH resource set, wherein based on the PUCCH resource on which the A-CSI is transmitted overlapping with a PUCCH resource on which another A-CSI is transmitted, the UE transmits A-CSI having a largest number of time-axis resources allocated, and wherein based on the PUCCH resource on which the A-CSI is transmitted overlapping with a resource for physical uplink shared channel, PUSCH, the A-CSI is dropped. receiving a higher-layer signal configuring a plurality of physical uplink control channel, PUCCH, resource sets for transmitting the A-CSI; receiving downlink control information, DCI, indicating one of PUCCH resources among the plurality of PUCCH resource sets; and transmitting A-CSI using a PUCCH resource determined based on the higher-layer signal and the DCI, wherein the plurality of PUCCH resource sets are configured per a channel state information, CSI, process, wherein the UE selects one PUCCH resource set from among the plurality of PUCCH resource sets based on a payload size of the A-CSI and the CSI process for which the A-CSI is transmitted, and transmits the A-CSI using the PUCCH resource indicated by the DCI among PUCCH resources among the selected one PUCCH resource set, wherein based on the PUCCH resource on which the A-CSI is transmitted overlapping with a PUCCH resource on which another A-CSI is transmitted, the UE transmits A-CSI having a largest number of time-axis resources allocated, and wherein based on the PUCCH resource on which the A-CSI is transmitted overlapping with a resource for physical uplink shared channel, PUSCH, the A-CSI is dropped.
Method for producing components for electrical contacts or electrical connecting elements, which are provided with a partial noble-network coating in the area of the contact surfaces, characterized in that the components are first of all provided overall with an electrical/electrically insulating passivation layer and/or are chemically coated using the sol-gel process or with a plastic coating, and in that this passivation is then chemically or mechanically removed at the contact points, and the entire component is then passed to an electrolytic bath, in which, in this way, the noble metal is deposited only on those parts of the component from which the passivation has been removed.
A processor comprising: fetch circuitry to fetch a single instruction to access a compressed list; decode circuitry to decode the fetched single instruction; and execution circuitry to execute the decoded single instruction to cause access to the compressed list by: receiving, from a load store queue, at a first op-engine associated with a first data location, an indirection request, wherein the first op-engine is to retrieve a first pointer from the first data location, and compute the second data location associated with a second pointer; computing, via the first op-engine, a second data location associated with a second op-engine, wherein the second op-engine is to retrieve the second pointer from the second data location, and compute the third data location associated with a third pointer; computing, via the second op-engine, a third data location associated with a third op-engine responsive to the indirection request; and providing, via the third op-engine, a data response to the load store queue responsive to receiving data from the third data location. fetch circuitry to fetch a single instruction to access a compressed list; decode circuitry to decode the fetched single instruction; and execution circuitry to execute the decoded single instruction to cause access to the compressed list by: receiving, from a load store queue, at a first op-engine associated with a first data location, an indirection request, wherein the first op-engine is to retrieve a first pointer from the first data location, and compute the second data location associated with a second pointer; computing, via the first op-engine, a second data location associated with a second op-engine, wherein the second op-engine is to retrieve the second pointer from the second data location, and compute the third data location associated with a third pointer; computing, via the second op-engine, a third data location associated with a third op-engine responsive to the indirection request; and providing, via the third op-engine, a data response to the load store queue responsive to receiving data from the third data location. receiving, from a load store queue, at a first op-engine associated with a first data location, an indirection request, wherein the first op-engine is to retrieve a first pointer from the first data location, and compute the second data location associated with a second pointer; computing, via the first op-engine, a second data location associated with a second op-engine, wherein the second op-engine is to retrieve the second pointer from the second data location, and compute the third data location associated with a third pointer; computing, via the second op-engine, a third data location associated with a third op-engine responsive to the indirection request; and providing, via the third op-engine, a data response to the load store queue responsive to receiving data from the third data location.
Method for reliably deactivating a drive system having a converter, which is connected to a supply system and comprises a DC intermediate circuit for providing an intermediate circuit voltage (U ZK) for a number of electric motors each having a motor power converter connected to the intermediate circuit, and having a disconnecting circuit, which is connected into the intermediate circuit and which is fed with a deactivation signal (A, A 1, A 2) by a control unit for reliably interrupting the intermediate circuit, - wherein the connecting and disconnecting circuit has a first semiconductor switch (S 1) in the positive path and a second semiconductor switch (S 2) in the negative path of the intermediate circuit, which semiconductor switches are deactivated as a result of the deactivation signal (A, A 1, A 2), - characterized in that a respective evaluation circuit (44a, 44b), which is coupled to the control unit, for detecting a voltage value (U 1, U 2) in the intermediate circuit is associated with the first semiconductor switch (S 1) and the second semiconductor switch (S 2), - wherein the evaluation circuits (44a, 44b) transmit an output signal (B, C), which triggers the deactivation signal (A, A 1, A 2), to the control unit depending on a comparison of the respective voltage value (U 1, U 2) with a reference voltage (U ref), and - wherein the intermediate circuit is disconnected in a two-channel manner. - wherein the connecting and disconnecting circuit has a first semiconductor switch (S 1) in the positive path and a second semiconductor switch (S 2) in the negative path of the intermediate circuit, which semiconductor switches are deactivated as a result of the deactivation signal (A, A 1, A 2), - characterized in that a respective evaluation circuit (44a, 44b), which is coupled to the control unit, for detecting a voltage value (U 1, U 2) in the intermediate circuit is associated with the first semiconductor switch (S 1) and the second semiconductor switch (S 2), - wherein the evaluation circuits (44a, 44b) transmit an output signal (B, C), which triggers the deactivation signal (A, A 1, A 2), to the control unit depending on a comparison of the respective voltage value (U 1, U 2) with a reference voltage (U ref), and - wherein the intermediate circuit is disconnected in a two-channel manner.
A drying apparatus comprising: a main body to introduce air from outside the main body into the main body and to discharge the air to the outside of the main body; a fan disposed at the main body to be rotated such that the air is introduced into the main body; a fan motor to rotate the fan; a moving bar movably mounted to a front surface of the main body to introduce air from outside the moving bar and to discharge the air from the moving bar; a bar fan disposed in the moving bar to be rotated such that the air is introduced into the moving bar; a bar fan motor to rotate the bar fan; a first sensor disposed at the main body to detect a presence of a user located in front of the main body; and a controller configured to control the fan motor and the bar fan motor, wherein when at least one drying condition of a discharge position, an air volume, and a drying area of air is selected, the controller is configured to operate at least one of the fan motor and the bar fan motor such that the air is discharged corresponding to the selected at least one drying condition, wherein when the first sensor detects the user for a preset period of time, the controller is configured to allow at least one of the air volume, the discharge position, and the drying area which are preset to be automatically selected. a main body to introduce air from outside the main body into the main body and to discharge the air to the outside of the main body; a fan disposed at the main body to be rotated such that the air is introduced into the main body; a fan motor to rotate the fan; a moving bar movably mounted to a front surface of the main body to introduce air from outside the moving bar and to discharge the air from the moving bar; a bar fan disposed in the moving bar to be rotated such that the air is introduced into the moving bar; a bar fan motor to rotate the bar fan; a first sensor disposed at the main body to detect a presence of a user located in front of the main body; and a controller configured to control the fan motor and the bar fan motor, wherein when at least one drying condition of a discharge position, an air volume, and a drying area of air is selected, the controller is configured to operate at least one of the fan motor and the bar fan motor such that the air is discharged corresponding to the selected at least one drying condition, wherein when the first sensor detects the user for a preset period of time, the controller is configured to allow at least one of the air volume, the discharge position, and the drying area which are preset to be automatically selected.
Hydraulic turbine comprising: a runner comprising a runner crown, a runner band and a plurality of runner blades extending between the runner crown and the runner band; and a stator which surrounds the runner, the stator comprising an upper stator ring, a lower stator ring and a plurality of guide vanes extending between the upper stator ring and the lower stator ring, whereby a clearance (C, C1, C2, CB, CC) between the runner and the stator is arranged to minimize pressure pulsations developing in a vane-less gap between the runner blades of the runner and the guide vanes of the stator, whereby the clearance (C, C1, C2, CB, CC) comprises: a first clearance between the runner crown and the upper stator ring, and a first ratio (CC/RC) is defined between the first clearance and the radius of the runner crown; characterized in that the first ratio (CC/RC) is greater than or equal to 0.02. a runner comprising a runner crown, a runner band and a plurality of runner blades extending between the runner crown and the runner band; and a stator which surrounds the runner, the stator comprising an upper stator ring, a lower stator ring and a plurality of guide vanes extending between the upper stator ring and the lower stator ring, whereby a clearance (C, C1, C2, CB, CC) between the runner and the stator is arranged to minimize pressure pulsations developing in a vane-less gap between the runner blades of the runner and the guide vanes of the stator, whereby the clearance (C, C1, C2, CB, CC) comprises: a first clearance between the runner crown and the upper stator ring, and a first ratio (CC/RC) is defined between the first clearance and the radius of the runner crown; characterized in that the first ratio (CC/RC) is greater than or equal to 0.02. a first clearance between the runner crown and the upper stator ring, and a first ratio (CC/RC) is defined between the first clearance and the radius of the runner crown; characterized in that the first ratio (CC/RC) is greater than or equal to 0.02.
Active damper system for damping high-frequency vibration excitation of a vehicle body, whereby a damper mounting is provided to attach a suspension component to the vehicle body and the damper mounting comprises a first mounting element for attachment to the vehicle body and a second mounting element for attachment to the suspension component, and furthermore an active adjusting element is provided with a controller unit and an acceleration sensor for measuring the acceleration of the vehicle body, the vertical acceleration (a D) of the vehicle body being an input variable for the controller unit, for which purpose the controller unit is connected to the acceleration sensor, and furthermore the active adjusting element is influenced by the controller unit in that the first mounting element and the second mounting element are connected by the active adjusting element, characterised in that the second mounting element is coupled to the suspension component by an elastomer connection and the acceleration sensor is arranged on the second mounting element, which is connected with the controller unit
Fitting (2, 3) for the treatment of aqueously suspended fibrous material in a treatment gap bounded by two treatment surfaces rotating relative to each other and formed by fittings (2, 3), comprising a base body with elongated treatment elements facing the gap and at least one directional component extending radially, wherein the treatment elements are applied at least partly as layers of a liquid or solid material and are subjected to a physical or chemical curing or fusing process, wherein at least part, preferably the whole, of the surface of the treatment elements respectively formed by two side surfaces and the upper side located in between and directed towards the gap consists of a material which differs from the material of the base body, characterized in that at least the upper side of the treatment elements, facing the gap, has a profile that is formed by recesses, which are bounded by webs extending between them and, at the edge, also by webs forming part of the side surface of the treatment elements and the outer region of the treatment elements, lying below the profile, is filled completely with the appropriate material over a thickness of at least 2 mm, the density of this material in the sections with the webs (21, 22) located above being higher than in sections with recesses located above.
A method executed at a server device for distribution and verification of transaction integrity keys, comprising: generating a Transaction Integrity Key TIK; generating an identifier which is unique for a cryptographic key, wherein K has been previously shared with a predetermined client device; generating an encrypted value by encrypting the TIK based on K and the identifier; generating a Message Authentication Code MAC, wherein a MAC key comprises the TIK and MAC data includes the encrypted value and the identifier; generating a message including a message header and a message body, said message header including the identifier and the MAC, and said message body including the encrypted value; and transmitting the message to the client device. generating a Transaction Integrity Key TIK; generating an identifier which is unique for a cryptographic key, wherein K has been previously shared with a predetermined client device; generating an encrypted value by encrypting the TIK based on K and the identifier; generating a Message Authentication Code MAC, wherein a MAC key comprises the TIK and MAC data includes the encrypted value and the identifier; generating a message including a message header and a message body, said message header including the identifier and the MAC, and said message body including the encrypted value; and transmitting the message to the client device.
A fuel feed system for a rotary-winged aircraft comprising: a fuel feed line extending from a fuel source to an engine; an engine fuel suction pump disposed at the fuel feed line to urge a flow of fuel through the fuel feed line to the engine; a collector connected to the fuel feed line between the fuel source and the engine to collect air-vapor in the flow of fuel; and an air-vapor line extending from the collector to flow the air-vapor from the collector to the engine fuel suction pump, wherein the air-vapor line extending from the upper portion of the collector, provides air-vapor to the fuel feed line between the collector and the engine fuel suction pump, and characterized in that a vapor line exit from the collector is positioned vertically below the engine fuel suction pump and vertically below a merge of the air-vapor line into an upper portion of the fuel feed line so as to provide a natural upward flowpath for the air-vapor. a fuel feed line extending from a fuel source to an engine; an engine fuel suction pump disposed at the fuel feed line to urge a flow of fuel through the fuel feed line to the engine; a collector connected to the fuel feed line between the fuel source and the engine to collect air-vapor in the flow of fuel; and an air-vapor line extending from the collector to flow the air-vapor from the collector to the engine fuel suction pump, wherein the air-vapor line extending from the upper portion of the collector, provides air-vapor to the fuel feed line between the collector and the engine fuel suction pump, and characterized in that a vapor line exit from the collector is positioned vertically below the engine fuel suction pump and vertically below a merge of the air-vapor line into an upper portion of the fuel feed line so as to provide a natural upward flowpath for the air-vapor.
Method for loading or reloading a decomposition unit of a vehicular system, the decomposition unit being configured to receive an ammonia precursor and to decompose the ammonia precursor into a product that is used in or by one or several consuming units mounted on board a vehicle, the consuming unit being a fuel cell, the vehicular system comprising: - a filler pipe connected to the decomposition unit, wherein at least one capsule containing at least one protein component adapted to decompose the ammonia precursor is introduced through the filler pipe and is then guided through the filler pipe towards the decomposition unit. - a filler pipe connected to the decomposition unit,
A preform comprising a laminate comprising at least two or more layers of a carbon fiber reinforced substrate (21, 41), wherein the carbon fiber reinforced substrate (21, 41) comprises a fabric (25, 45) composed of carbon fiber bundles and a first resin (24, 44) adhering to said fabric (25, 45), wherein said carbon fiber bundles respectively comprise numerous continuous carbon filaments, the tensile modulus of said carbon fiber bundles is 210 GPa or more, the fracture strain energy of said carbon fiber bundles is 40 MJ/m 3 or more, and the amount of said first resin (24, 44) adhering to said fabric (25, 45) is in a range from 1 to 20 parts by weight per 100 parts by weight of said fabric (25, 45), characterized in that said fabric (25, 45) is a uni-directional woven fabric (51, 61) which is in a form of a plain weave and said first resin (24, 44) is adhered relatively more densely on a surface of said uni-directional woven fabric (51, 61) than in the inside of said carbon fiber bundles, in such a state that said first resin (24, 44) is studded discontinuously on the surface of said uni-directional woven fabric (51, 61) in form of dots, wherein the layers of the carbon fiber reinforced substrate (21, 41) are integrally bonded to each other by means of said first resin (24, 44), and wherein said fabric (25, 45) has a carbon fiber unit weight ranging from 50 to 500 g/m 2 and comprises warp yarns (22, 52) and auxiliary weft yarns, the warp yarns (22, 52) having a fineness ranging from 300 to 5,000 tex, formed of carbon fiber bundles comprising 5,000 to 50,000 continuous carbon filaments wherein the number of the auxiliary weft yarns ranges from 0.3 to 6 ends/cm and the fineness of the auxiliary weft yarns is not more than 1/5 of the fineness of the warp yarns (22, 52), and wherein the thickness of the carbon fiber substrate (21, 41) is in a range from 0.1 to 0.8 mm.