mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting device comprising: a reflective layer comprising a plurality of nanostructures that are periodically two-dimensionally arranged; a planarization layer disposed on the reflective layer; a first electrode disposed on the planarization layer; an organic emission layer disposed on the first electrode; and a second electrode disposed on the organic emission layer, wherein the planarization layer is conductive and transparent, with respect to light emitted by the organic emission layer, and comprises a conductive material that is transparent with respect to light emitted by the organic emission layer, and wherein the planarization layer is disposed on upper surfaces of the plurality of nanostructures such that an air gap is provided between adjacent nanostructures of the plurality of nanostructures, and characterized in that the planarization layer further comprises an organic-inorganic hybrid layer in which reduced graphene oxide is dispersed, and in that the organic-inorganic hybrid layer comprises an organic silicon compound. a reflective layer comprising a plurality of nanostructures that are periodically two-dimensionally arranged; a planarization layer disposed on the reflective layer; a first electrode disposed on the planarization layer; an organic emission layer disposed on the first electrode; and a second electrode disposed on the organic emission layer, wherein the planarization layer is conductive and transparent, with respect to light emitted by the organic emission layer, and comprises a conductive material that is transparent with respect to light emitted by the organic emission layer, and wherein the planarization layer is disposed on upper surfaces of the plurality of nanostructures such that an air gap is provided between adjacent nanostructures of the plurality of nanostructures, and characterized in that the planarization layer further comprises an organic-inorganic hybrid layer in which reduced graphene oxide is dispersed, and in that the organic-inorganic hybrid layer comprises an organic silicon compound.
Hydraulic brake system for a vehicle having at least two axles (VA, HA), in particular for a highly automated or autonomous vehicle, having at least two sub-brake systems (SubV, SubH) which are hydraulically separated from one another, wherein a first sub-brake system (SubV) comprises a first brake circuit (BKV), a main system , which has a first power supply (EV1) and a first evaluation and control unit , characterized by a secondary system , which has a second power supply (EV2), which is independent of the first power supply (EV1), and a second evaluation and control unit , for redundantly generating pressure in the first brake circuit (BKV), and is assigned to a first axle (VA) having at least two wheel brakes (RB1, RB2), wherein the first brake circuit (BVK) comprises a first pressure generator which is assigned to the main system , a second pressure generator which is assigned to the secondary system and is hydraulically connected in series between a first fluid container and the at least two wheel brakes (RB1, RB2) of the first axle (VA), and a first modulation unit for hydraulically connecting the pressure generators to the at least two wheel brakes (RB1, RB2) and for performing individual brake pressure modulation in the at least two wheel brakes (RB1, RB2), wherein a second sub-brake system (SubH) comprises a second brake circuit (BKH) and a subsidiary system , which has a third power supply (EV3) and a third evaluation and control unit , for generating pressure in the second brake circuit (BKH), and is assigned to a second axle (VA) having at least two wheel brakes (RB3, RB4), wherein the second brake circuit (BKH) comprises a third pressure generator which is assigned to the subsidiary system and is arranged between a second fluid container and the at least two wheel brakes (RB3, RB4) of the second axle (HA), and a second modulation unit for hydraulically connecting the pressure generator to the at least two wheel brakes (RB3, RB4) and for performing individual brake pressure modulation in the at least two wheel brakes (RB3, RB4).
A method for controlling a thermal transfer printer , comprising the steps of: dividing color image data to be printed into image data of two sub-images (I 1 , I 2 ) containing an overlapping region (I O ); converting the color image data; correcting the image data of the two sub-images (I 1 , I 2 ) by adjusting color values in the overlapping region (I O ) by using a correction factor for print density at each position (X 1 to X m ) on the overlapping region (I O ); and forming a color image (I) to be printed by sequentially transferring the two sub-images (I 1 , I 2 ) in accordance with corrected image data of the two sub-images (I 1 , I 2 ) so that the two sub-images (I 1 , I 2 ) overlap at the overlapping region (I O ), characterized in that the two sub-images (I 1 , I 2 ) have edges that coincide for each of a plurality of color inks (Y, M, C) transferred to paper , in the converting step, color values of the color image data in the overlapping region (I O ) are converted by using a color conversion factor group to converted color values so that an intended color is obtained when the two sub-images (I 1 , I 2 ) are transferred with one overlapping the other, wherein the color conversion factor group is created in advance for a plurality of different positions (X 1 to X m ) on the overlapping region (I O ) so as to cancel out a color change that occurs in the overlapping region (I O ) when the two sub-images (I 1 , I 2 ) are transferred with one overlapping the other, and in the correcting step, the converted color values in the overlapping region (I O ) are adjusted. dividing color image data to be printed into image data of two sub-images (I 1 , I 2 ) containing an overlapping region (I O ); converting the color image data; correcting the image data of the two sub-images (I 1 , I 2 ) by adjusting color values in the overlapping region (I O ) by using a correction factor for print density at each position (X 1 to X m ) on the overlapping region (I O ); and forming a color image (I) to be printed by sequentially transferring the two sub-images (I 1 , I 2 ) in accordance with corrected image data of the two sub-images (I 1 , I 2 ) so that the two sub-images (I 1 , I 2 ) overlap at the overlapping region (I O ), the two sub-images (I 1 , I 2 ) have edges that coincide for each of a plurality of color inks (Y, M, C) transferred to paper , in the converting step, color values of the color image data in the overlapping region (I O ) are converted by using a color conversion factor group to converted color values so that an intended color is obtained when the two sub-images (I 1 , I 2 ) are transferred with one overlapping the other, wherein the color conversion factor group is created in advance for a plurality of different positions (X 1 to X m ) on the overlapping region (I O ) so as to cancel out a color change that occurs in the overlapping region (I O ) when the two sub-images (I 1 , I 2 ) are transferred with one overlapping the other, and in the correcting step, the converted color values in the overlapping region (I O ) are adjusted.
Apparatus (10; 110; 210) for monitoring a magnetic core (12; 112; 212), comprising: a measurement winding (22; 122; 222) coupled with the magnetic core (12; 112; 212) to be monitored; a comparison inductance (24; 124; 224) electrically connected in series to the measurement winding (22; 122; 222); and an electronic processing unit (30; 130) configured to determine the saturation behavior of the magnetic core (12; 112; 212) to be monitored, characterized in that the electronic processing unit (30; 130) is configured to detect a first electrical signal (U 2 ; U 4 ) occurring at the measurement winding (12; 112, 212) and a second electrical signal (U 1 ; U 3 ) occurring at the comparison inductance (24; 124; 224) in response to an electrical measurement signal applied to the measurement winding (12; 112; 212) and to the comparison inductance (24; 124; 224), and to determine the saturation behavior of the magnetic core (12; 112; 212) to be monitored on the basis of the first and the second signal (U 1 , U 2 ; U 3 , U 4 ). a measurement winding (22; 122; 222) coupled with the magnetic core (12; 112; 212) to be monitored; a comparison inductance (24; 124; 224) electrically connected in series to the measurement winding (22; 122; 222); and an electronic processing unit (30; 130) configured to determine the saturation behavior of the magnetic core (12; 112; 212) to be monitored, characterized in that the electronic processing unit (30; 130) is configured to detect a first electrical signal (U 2 ; U 4 ) occurring at the measurement winding (12; 112, 212) and a second electrical signal (U 1 ; U 3 ) occurring at the comparison inductance (24; 124; 224) in response to an electrical measurement signal applied to the measurement winding (12; 112; 212) and to the comparison inductance (24; 124; 224), and to determine the saturation behavior of the magnetic core (12; 112; 212) to be monitored on the basis of the first and the second signal (U 1 , U 2 ; U 3 , U 4 ).
Control unit for actuating an electrical consumer , in particular an electric machine , having a first and a second voltage connection to supply electrical energy to the control unit , - a capacitance , which is connected between the voltage connections , - at least one half-bridge , which is connected between the voltage connections , wherein the half-bridge has two controllable switches , between which a half-bridge tap is formed to connect the consumer , - a safety circuit , which is designed to close one of the controllable switches of the half-bridge in the event of a fault, and - a discharge circuit , which is designed to electrically connect the voltage connections in the event of a fault, wherein a control circuit is designed to provide a control signal in the event of a detected fault, said control signal triggering the safety circuit and the discharge circuit , characterized in that the safety circuit has a controllable switch , which is designed to connect the first voltage connection via a resistor to a control input of the connected controllable switch . - a capacitance , which is connected between the voltage connections , - at least one half-bridge , which is connected between the voltage connections , wherein the half-bridge has two controllable switches , between which a half-bridge tap is formed to connect the consumer , - a safety circuit , which is designed to close one of the controllable switches of the half-bridge in the event of a fault, and - a discharge circuit , which is designed to electrically connect the voltage connections in the event of a fault,
A fast earthing switch device for high-voltage applications comprising a gas-tight casing including , a fixed contact and a movable contact connectable to and unconnectable from the fixed contact , said movable contact being linearly movable between an open position in which it is spaced apart from said fixed contact and a closed position in which it is connected to said fixed contact , and vice-versa, and the gas-tight casing further including an operating mechanism for said movable contact , wherein said operating mechanism comprises an actuating spring actuating a closing operation of said movable contact from said open position to said closed position, at least a driving lever mounted on an operating shaft actuating an opening operation of said movable contact from said closed position to said open position, said driving lever also partially reloading said actuating spring during said opening operation, said operating mechanism further comprising coupling means operatively coupling said driving lever to said movable contact .
A method for operating with bandwidth parts, BWPs, in a wireless device operating in a wireless communication network and configured to selectively operate in one or more BWPs configured by the wireless communication network, the method comprising: monitoring an active BWP of the one or more BWPs for a downlink control channel the method is further characterized by : detecting a reset event triggering a reset of a Medium Access Control, MAC, entity in the wireless device; and responsive to detecting the reset event, switching the active BWP to a predetermined default BWP of the one or more BWPs. monitoring an active BWP of the one or more BWPs for a downlink control channel the method is further characterized by : detecting a reset event triggering a reset of a Medium Access Control, MAC, entity in the wireless device; and responsive to detecting the reset event, switching the active BWP to a predetermined default BWP of the one or more BWPs.
Operating device for a screen, such as a window covering , which screen is provided with a screen shaft, said operating device comprising : a drive element for the screen shaft, a first operating mechanism comprising a first operating element which is connected to a first movement transfer element connected by means of a first transmission to the drive element, wherein the first operating mechanism is configured to convert a linear movement of the first operating element to a rotational movement of the drive element for operating the screen shaft in a first rotational direction, a second operating mechanism comprising a second operating element which is connected to a second movement transfer element connected by means of a second transmission to the drive element, wherein the second operating mechanism is configured to convert a linear movement of the second operating element to a rotational movement of the drive element for operating the screen shaft in a second rotational direction opposite to the first rotational direction, wherein the first operating mechanism comprises a first pull cord and the first movement transfer element is a first cord reel for winding up the first pull cord, wherein the second operating mechanism comprises a second pull cord and the second movement transfer element is a second cord reel for winding up the second pull cord, wherein the operating device comprises a recoil spring which mutually connects the first pull cord and the second pull cord, characterized in that , the first movement transfer element and the second movement transfer element are configured to enclose the spring. a drive element for the screen shaft, a first operating mechanism comprising a first operating element which is connected to a first movement transfer element connected by means of a first transmission to the drive element, wherein the first operating mechanism is configured to convert a linear movement of the first operating element to a rotational movement of the drive element for operating the screen shaft in a first rotational direction, a second operating mechanism comprising a second operating element which is connected to a second movement transfer element connected by means of a second transmission to the drive element, wherein the second operating mechanism is configured to convert a linear movement of the second operating element to a rotational movement of the drive element for operating the screen shaft in a second rotational direction opposite to the first rotational direction, wherein the first operating mechanism comprises a first pull cord and the first movement transfer element is a first cord reel for winding up the first pull cord, wherein the second operating mechanism comprises a second pull cord and the second movement transfer element is a second cord reel for winding up the second pull cord, wherein the operating device comprises a recoil spring which mutually connects the first pull cord and the second pull cord, characterized in that , the first movement transfer element and the second movement transfer element are configured to enclose the spring.
A sorbent cartridge device for preparing conditioned dialysate for use in a dialysis system, the sorbent cartridge device comprising: an ion-exchange material comprising zirconium phosphate, wherein the zirconium phosphate comprises an alkaline zirconium phosphate, wherein the device comprises less than about 0.1 mg of leachable phosphate ions per about 1 g of the ion-exchange material. an ion-exchange material comprising zirconium phosphate, wherein the zirconium phosphate comprises an alkaline zirconium phosphate, wherein the device comprises less than about 0.1 mg of leachable phosphate ions per about 1 g of the ion-exchange material.
Sulphur-containing esterified polyol obtainable by a process comprising esterification reactions between a polyol and a carboxylic acid and a thiolactic acid, or by a process comprising an esterification reaction between a partially esterified polyol and a thiolactic acid.
A method of forming a lactylate, said method comprising reacting a dilactide with a compound comprising a -COOH group to form the lactylate, wherein the molar ratio of dilactide to the compound comprising a -COOH group is from 1:0.25 to 1:4.
Method for connecting a terminal (UE) out of range of its home network (hN-A) to a network (vN-B) of a visited area covered by a plurality of networks, the method comprising: • sending (E10) a request (AR, TAUR) relating to connecting to a first visited network, • receiving (E11) a message (AA, TAUA) in response to the request, comprising a list of at least one network of the plurality, to which the terminal must connect as a priority, • storing said list, • disconnecting the terminal from the first visited network and connecting it (E12) to a second network in the stored list. • sending (E10) a request (AR, TAUR) relating to connecting to a first visited network, • receiving (E11) a message (AA, TAUA) in response to the request, comprising a list of at least one network of the plurality, to which the terminal must connect as a priority, • storing said list, • disconnecting the terminal from the first visited network and connecting it (E12) to a second network in the stored list.
A firearm , comprising a stock bearing a system and a barrel associated with this system, characterized in that the stock is preformed in a defined manner and forms bearing areas for the system and the barrel associated with this system, wherein a clearance between the stock and the system and/or the barrel is avoided in that gaps in the form of channels and/or recesses around elevations are provided between the stock and the system and/or at least partially around the barrel associated with this system and/or at least partially around the bearing areas , which are filled with a clearance-free fitting material filling the gaps. the stock is preformed in a defined manner and forms bearing areas for the system and the barrel associated with this system, wherein a clearance between the stock and the system and/or the barrel is avoided in that gaps in the form of channels and/or recesses around elevations are provided between the stock and the system and/or at least partially around the barrel associated with this system and/or at least partially around the bearing areas , which are filled with a clearance-free fitting material filling the gaps.
A conjugated nucleic acid molecule which has the following formula: wherein N is a deoxynucleotide, n is an integer from 21 to 95, the underlined N refers to a nucleotide having a modified phosphodiester backbone, L' is a linker; m is 1 and L is a carboxamido oligoethylene glycol, C is selected from the group consisting of octadecyl or dioleoyl fatty acid, folates or folic acid and cholesterol.
A method of wireless communication by a user equipment, UE , the method comprising: determining an offset β associated with modulation and coding scheme, MCS; determining at least one of an upper bound or a lower bound associated with the offset β based on a configuration, wherein the offset β is determined to be inclusively within the at least one of the upper bound or the lower bound; determining a first MCS for control information on a sidelink channel based at least on spectral efficiency associated with transmission of data on the sidelink channel and the offset β; and transmitting , on the sidelink channel, the control information with the first MCS, the control information being multiplexed with data . determining an offset β associated with modulation and coding scheme, MCS; determining at least one of an upper bound or a lower bound associated with the offset β based on a configuration, wherein the offset β is determined to be inclusively within the at least one of the upper bound or the lower bound; determining a first MCS for control information on a sidelink channel based at least on spectral efficiency associated with transmission of data on the sidelink channel and the offset β; and transmitting , on the sidelink channel, the control information with the first MCS, the control information being multiplexed with data .
A method of making a LED light bulb with thermal radiation filaments comprising steps of: A. providing a substrate which includes multiple conductive portions formed on two ends of the substrate respectively so as to electrically connect with an electronic circuit; B. molding LED chips and phosphors on a front face of the substrate so as to produce a LED filament sheet ; C. forming a thermal radiation dissipation film on a back face of the substrate before or after producing the LED filament sheet ; D. cutting the substrate into the thermal radiation filaments , wherein each of the thermal radiation filaments has a part of the thermal radiation dissipation film , a part of the LED filament sheet , and parts of the multiple conductive portions respectively; and E. fixing the thermal radiation filaments into the LED light bulb ; characterized in that the substrate provided in step A is made of any one of metal, ceramic, glass and plastic; and in step B, a sub-step of wire bonding is performed using wires , wherein the wires are serially connected with the LED chips and are electrically connected with the multiple conductive portions of the substrate respectively so as to form a serial circuit. A. providing a substrate which includes multiple conductive portions formed on two ends of the substrate respectively so as to electrically connect with an electronic circuit; B. molding LED chips and phosphors on a front face of the substrate so as to produce a LED filament sheet ; C. forming a thermal radiation dissipation film on a back face of the substrate before or after producing the LED filament sheet ; D. cutting the substrate into the thermal radiation filaments , wherein each of the thermal radiation filaments has a part of the thermal radiation dissipation film , a part of the LED filament sheet , and parts of the multiple conductive portions respectively; and E. fixing the thermal radiation filaments into the LED light bulb ; characterized in that the substrate provided in step A is made of any one of metal, ceramic, glass and plastic; and in step B, a sub-step of wire bonding is performed using wires , wherein the wires are serially connected with the LED chips and are electrically connected with the multiple conductive portions of the substrate respectively so as to form a serial circuit. characterized in that the substrate provided in step A is made of any one of metal, ceramic, glass and plastic; and in step B, a sub-step of wire bonding is performed using wires , wherein the wires are serially connected with the LED chips and are electrically connected with the multiple conductive portions of the substrate respectively so as to form a serial circuit.