mhurhangee/ep-ind-claims huggingface dataset:
A method for fabricating a CMOS image sensor, comprising: providing a substrate of a first conductive type and having a first region and a second region connecting with the first region at a first end of the first region, wherein the first region is a photosensitive region; forming a transfer transistor on a surface of the substrate in the second region; forming a first implanting region in the substrate in the first region using a first mask, the first implanting region having a second conductive type opposite to the first conductive type; forming a second implanting region of the first conductive type inside the first implanting region using the first mask, the first implanting region being thus divided into a third implanting region located on the second implanting region and a fourth implanting region under the second implanting region, the third implanting region and the fourth implanting region having the second conductive type; and forming a fifth implanting region in the second region at the first end using a second mask, the fifth implanting region connecting the third implanting region with the fourth implanting region, the fifth implanting region having the second conductive type; wherein forming the first implanting region comprises: performing a first ion implantation process; performing a second ion implantation process; and performing a third implantation process, wherein energies of the first ion implantation process, the second ion implantation process and the third ion implantation process are gradually increased. providing a substrate of a first conductive type and having a first region and a second region connecting with the first region at a first end of the first region, wherein the first region is a photosensitive region; forming a transfer transistor on a surface of the substrate in the second region; forming a first implanting region in the substrate in the first region using a first mask, the first implanting region having a second conductive type opposite to the first conductive type; forming a second implanting region of the first conductive type inside the first implanting region using the first mask, the first implanting region being thus divided into a third implanting region located on the second implanting region and a fourth implanting region under the second implanting region, the third implanting region and the fourth implanting region having the second conductive type; and forming a fifth implanting region in the second region at the first end using a second mask, the fifth implanting region connecting the third implanting region with the fourth implanting region, the fifth implanting region having the second conductive type; wherein forming the first implanting region comprises: performing a first ion implantation process; performing a second ion implantation process; and performing a third implantation process, wherein energies of the first ion implantation process, the second ion implantation process and the third ion implantation process are gradually increased.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: detecting a synchronization signal/physical broadcast channel, SS/PBCH, block in a shared spectrum, wherein the SSB includes an index related to configuration of a control resource set, CORESET; determining an offset from a smallest resource block, RB, index of the CORESET to a smallest RB index of the SS/PBCH block based on the index, wherein the CORESET is for Type0-physical downlink control channel, PDCCH, common search space, CSS, set; and monitoring the TypeO-PDCCH CSS set associated with the CORESET in the shared spectrum based on the offset, the method being characterized in that based on a subcarrier spacing, SCS, of the SS/PBCH block being 30 kHz, the offset is configured as N1 for the index, based on the SCS of the SS/PBCH block being 15 kHz, the offset is determined as N2 for the index, based on the configured offset value N1, wherein N1 and N2 are non-negative integers, and wherein N2 = 2*N1 + 10 for the index. detecting a synchronization signal/physical broadcast channel, SS/PBCH, block in a shared spectrum, wherein the SSB includes an index related to configuration of a control resource set, CORESET; determining an offset from a smallest resource block, RB, index of the CORESET to a smallest RB index of the SS/PBCH block based on the index, wherein the CORESET is for Type0-physical downlink control channel, PDCCH, common search space, CSS, set; and monitoring the TypeO-PDCCH CSS set associated with the CORESET in the shared spectrum based on the offset, the method being characterized in that based on a subcarrier spacing, SCS, of the SS/PBCH block being 30 kHz, the offset is configured as N1 for the index, based on the SCS of the SS/PBCH block being 15 kHz, the offset is determined as N2 for the index, based on the configured offset value N1, wherein N1 and N2 are non-negative integers, and wherein N2 = 2*N1 + 10 for the index.
Automotive vehicle structural part comprising at least a main panel and a wheel casing, characterized in that the main panel comprises a lower portion and an upper portion protruding substantially perpendicularly from the lower portion, and in that said main panel and said wheel casing are made of two distinct three-dimensional parts made of different materials attached to each other by welding.
Method for programming a one-transistor DRAM memory cell, the memory cell comprising a source and a drain doped of a first conductivity type, a body region arranged between the source and the drain, and an insulated gate arranged facing the body region, the body region comprising first and second portions (5a, 5b), the first and second portions (5a, 5b) extending parallel to the insulated gate between the source and the drain, the first portion being doped of a second conductivity type opposite to the first conductivity type and arranged between the insulated gate and the second portion, doped of the first conductivity type, the programming method comprising a step of biasing the transistor in an off state by means of electrical potentials (V D, V G) applied to the drain and the gate, characterised in that the drain potential (V D) and the gate potential (V G) are chosen in such a way as to create charge carriers by impact ionisation in the second portion.
Internal combustion engine for a motor vehicle, comprising an output shaft, via which the motor vehicle can be driven by means of the internal combustion engine, an intake tract through which air to be supplied to at least one combustion chamber of the internal combustion engine can flow, an exhaust tract through which exhaust gas from the combustion chamber can flow, an exhaust gas aftertreatment device arranged in the exhaust tract for aftertreating the exhaust gas, at least one heating element arranged in the exhaust tract upstream of the exhaust gas aftertreatment device for heating a gas flowing through the exhaust tract, and an electrically assisted exhaust gas turbocharger, which has a compressor wheel arranged in the intake tract as a first impeller for compressing the air flowing through the intake tract and a turbine wheel arranged in the exhaust tract and drivable by the exhaust gas as a second impeller and an electric machine, by means of which at least one of the impellers (24, 26) can be driven in a heating mode in order to heat up the exhaust gas aftertreatment device, whereby, in the heating mode, during which combustion processes in the combustion chamber do not take place and the output shaft is stationary, air can be conveyed into the exhaust tract by means of the at least one impeller (24, 26) as a heating medium, which can be heated by means of the heating element in the heating mode in order to heat up the exhaust gas aftertreatment device, characterized by at least one conduit element which extends within the exhaust gas turbocharger, through which the heating medium can flow, and by means of which at least some of the heating medium can be guided from the intake tract into the exhaust tract through the exhaust gas turbocharger, an exhaust gas recirculation line being provided which is fluidically connected to the exhaust tract at a branch point arranged downstream of the turbine wheel and is fluidically connected to the intake tract at an inlet point arranged downstream of the compressor wheel, whereby at least some of the exhaust gas and, in the heating mode, at least some of the heating medium can be guided from the branch point to the inlet point and can be introduced into the intake tract at the inlet point.
Compound 1,1'-[1,4-phenylene bi(methylene)]-di-1,4,8,11-tetraazacyclotetradecane or a pharmaceutically acceptable salt thereof for use in a method of reliving and/or improving fat loss caused by cachexia.
A solution of eptifibatide acetate in a solvent comprising water, a polar organic co-solvent and acetic acid wherein the concentration of the eptifibatide acetate in said solution is equal to or higher than 0,5 % wt. and equal to or lower than 3 % wt. of eptifibatide acetate, wherein the pH of said solution is from 3 to 5.
A load estimation system for a tire, the tire including a pair of sidewalls extending to a circumferential tread and supporting a vehicle, the system comprising: a sensor being mounted to the tire and being configured for measuring an inflation pressure of the tire; a footprint formed by the tread, the footprint including a footprint length, wherein sensor if configured for measuring the footprint length; a processor in electronic communication with the sensor; a vehicle loading state estimator in electronic communication with the processor for determining a loading state of the vehicle; a pressure correction module in electronic communication with the processor, wherein the pressure correction module is configured for receiving a measured footprint length, a measured inflation pressure of the tire, and an inflation correction factor as determined from the loading state of the vehicle, wherein the pressure correction module is configured to determine an adjusted footprint length; a de-noising module in electronic communication with the processor, the de-noising module being configured for receiving the adjusted footprint length to generate a filtered footprint length; a wear correction module in electronic communication with the processor, the wear correction module being configured for receiving the filtered footprint length and for correcting for wear of the tire to generate a wear-corrected footprint length; and a load determination model in electronic communication with the processor, the load determination model being configured for receiving the wear-corrected footprint length and for determining an estimated load on the tire. a sensor being mounted to the tire and being configured for measuring an inflation pressure of the tire; a footprint formed by the tread, the footprint including a footprint length, wherein sensor if configured for measuring the footprint length; a processor in electronic communication with the sensor; a vehicle loading state estimator in electronic communication with the processor for determining a loading state of the vehicle; a pressure correction module in electronic communication with the processor, wherein the pressure correction module is configured for receiving a measured footprint length, a measured inflation pressure of the tire, and an inflation correction factor as determined from the loading state of the vehicle, wherein the pressure correction module is configured to determine an adjusted footprint length; a de-noising module in electronic communication with the processor, the de-noising module being configured for receiving the adjusted footprint length to generate a filtered footprint length; a wear correction module in electronic communication with the processor, the wear correction module being configured for receiving the filtered footprint length and for correcting for wear of the tire to generate a wear-corrected footprint length; and a load determination model in electronic communication with the processor, the load determination model being configured for receiving the wear-corrected footprint length and for determining an estimated load on the tire.
A coolant circuit with an engine cooling circuit (10, 11) in which coolant for cooling an internal combustion engine (6, 8) can be circulated, which comprises a cylinder-head cooling circuit and separately therefrom a crankcase cooling circuit, wherein the engine cooling circuit (10, 11) branches into the cylinder-head cooling circuit and the crankcase cooling circuit at a bifurcation; a transmission cooling circuit for cooling a transmission, which circuit branches off from the crankcase cooling circuit downstream from the bifurcation and upstream from a crankcase water jacket of the crankcase cooling circuit; a valve which is arranged in the transmission cooling circuit, and a control means which is adapted to open and close the valve dependent on an operating state of the internal combustion engine and/or of the transmission.
A combustor for a gas turbine, comprising: an end cover having a nozzle, the nozzle having a front end face and a center axis, the nozzle comprising: a plurality of fuel passages configured for directing fuel in a first direction, wherein the first direction is angled inwardly towards the center axis (A-A); a plurality of oxidizer passages configured for directing oxidizer in a second direction, wherein the second direction is angled outwardly away from the center axis (A-A), and wherein the plurality of fuel passages and the oxidizer passages are positioned in relation to one another such that fuel is in a cross-flow arrangement with oxidizer to create a burning zone in the combustor, and wherein the plurality of oxidizer passages are configured for directing oxidizer to create a recirculation zone in the combustor that anchors the burning zone at the front end face of the nozzle, the nozzle further comprising a plurality of cooling flow passages, characterized in that a pilot nozzle is located along the center axis (A-A) of the nozzle, the fuel passages, oxidizer passages, and cooling flow passages are all arranged around the pilot nozzle in a symmetrical pattern, the oxidizer passages being located adjacent to the pilot nozzle, the fuel passages being located adjacent to an outer edge of the fuel nozzle, and the cooling flow passages being located between the oxidizer passages and the fuel passages. a plurality of fuel passages configured for directing fuel in a first direction, wherein the first direction is angled inwardly towards the center axis (A-A); a plurality of oxidizer passages configured for directing oxidizer in a second direction, wherein the second direction is angled outwardly away from the center axis (A-A), and wherein the plurality of fuel passages and the oxidizer passages are positioned in relation to one another such that fuel is in a cross-flow arrangement with oxidizer to create a burning zone in the combustor, and wherein the plurality of oxidizer passages are configured for directing oxidizer to create a recirculation zone in the combustor that anchors the burning zone at the front end face of the nozzle, the nozzle further comprising a plurality of cooling flow passages, characterized in that a pilot nozzle is located along the center axis (A-A) of the nozzle, the fuel passages, oxidizer passages, and cooling flow passages are all arranged around the pilot nozzle in a symmetrical pattern, the oxidizer passages being located adjacent to the pilot nozzle, the fuel passages being located adjacent to an outer edge of the fuel nozzle, and the cooling flow passages being located between the oxidizer passages and the fuel passages.
A removal system for removing parts processed in a processing system, the removal system comprises a transportation unit which is used for intermediate storage and/or transportation of a workpiece processed with the processing system, the processed workpiece comprising the parts to be removed, with: - a bridge movement system which extends with its central longitudinal axis transversely to the longitudinal axis of the transportation unit and can be moved axially in the longitudinal axis of the transportation unit; - a parts conveyor system (130, 160, 180), at least comprising a first parts conveyor system, which is arranged on the bridge movement system and extends substantially parallel to the central longitudinal axis of the bridge movement system; and - a control unit designed to communicate with the transportation unit, the bridge movement system and the parts conveyor system (130, 160, 180) and to provide control commands for the transportation unit, the bridge movement system and the parts conveyor system (130, 160, 180), and wherein the first parts conveyor system comprises a first and a second axially movable conveyor belt (131, 132), the direction of movement of which can be controlled independently of one another and which preferably move in opposite directions. - a bridge movement system which extends with its central longitudinal axis transversely to the longitudinal axis of the transportation unit and can be moved axially in the longitudinal axis of the transportation unit; - a parts conveyor system (130, 160, 180), at least comprising a first parts conveyor system, which is arranged on the bridge movement system and extends substantially parallel to the central longitudinal axis of the bridge movement system; and - a control unit designed to communicate with the transportation unit, the bridge movement system and the parts conveyor system (130, 160, 180) and to provide control commands for the transportation unit, the bridge movement system and the parts conveyor system (130, 160, 180), and
A method for routing Diameter messages by a Diameter Signaling Router, DSR, based on origination information, the method comprising: receiving, by an ingress Diameter message processor within the DSR, a Diameter message from a first Diameter node; accessing, by the ingress Diameter message processor, Diameter peer routing information that includes Diameter origination information to i) determine a second Diameter node that is a peer of the DSR and to which the Diameter message is to be forwarded and to ii) determine an egress Diameter message processor among a plurality of egress Diameter message processors within the DSR and associated with the second Diameter node;and forwarding, by the ingress Diameter message processor, the Diameter message to the determined egress Diameter message processor; and forwarding, by the determined egress Diameter message processor, the Diameter message to the determined second Diameter node. receiving, by an ingress Diameter message processor within the DSR, a Diameter message from a first Diameter node; accessing, by the ingress Diameter message processor, Diameter peer routing information that includes Diameter origination information to i) determine a second Diameter node that is a peer of the DSR and to which the Diameter message is to be forwarded and to ii) determine an egress Diameter message processor among a plurality of egress Diameter message processors within the DSR and associated with the second Diameter node;and forwarding, by the ingress Diameter message processor, the Diameter message to the determined egress Diameter message processor; and forwarding, by the determined egress Diameter message processor, the Diameter message to the determined second Diameter node.
A particulate desulphurisation material comprising one or more nickel compounds, a zinc oxide support material, and one or more alkali metal compounds wherein the nickel content of the material is in the range 0.3 to 10% by weight and the alkali metal content of the material is in the range 0.2 to 10% by weight, characterised in that the alkali metal is sodium and the particulate desulphurisation material comprises 0.3-10% by weight nickel, 0.3-10% by weight copper, 1-15% by weight Al 2 O 3, 0.2 to 10% by weight sodium, 0-10% by weight binder and the balance ZnO.
A cooking apparatus, comprising: a food chamber; a heating arrangement (16, 18); a water reservoir; a circulation system (24, 26); and a controller, wherein the controller is adapted to control the heating arrangement to heat water from the water reservoir to create steam, and to further heat the steam to create heated steam at a temperature in the range 100 to 120 degrees Celsius, preferably 110 to 120 degrees Celsius, and to control the circulation system to circulate the heated steam around the food chamber, characterised in that the heated steam has an absolute humidity level greater than 450 g/m 3. a food chamber; a heating arrangement (16, 18); a water reservoir; a circulation system (24, 26); and a controller, wherein the controller is adapted to control the heating arrangement to heat water from the water reservoir to create steam, and to further heat the steam to create heated steam at a temperature in the range 100 to 120 degrees Celsius, preferably 110 to 120 degrees Celsius, and to control the circulation system to circulate the heated steam around the food chamber, characterised in that the heated steam has an absolute humidity level greater than 450 g/m 3.
A light-irradiating device for a printing device, comprising: a light-irradiating unit comprising a housing in which a light-emitting element is disposed, the housing comprising a light irradiation surface through which light from the light-emitting element can be transmitted, the light irradiation surface including a light-transmitting section through which light from the light-emitting element can be transmitted and non-light-transmitting sections having light-blocking properties and being arranged with the light-transmitting section located in between; and a gas supply unit comprising a flow channel connected to a part of the light irradiation surface of the housing; wherein the flow channel is connected to the housing so as to extend from a side surface of the housing to the part of the light irradiation surface; wherein the flow channel comprises a discharge port capable of discharging a gas, the discharge port located in a region overlapping with the light irradiation surface; wherein the flow channel comprises a plurality of walls connected to each other, the plurality of walls comprising a first wall and a second wall, the first wall being located nearest the light-transmitting section and the second wall being located nearest a medium to be printed; and wherein the discharge port is provided in the second wall. a light-irradiating unit comprising a housing in which a light-emitting element is disposed, the housing comprising a light irradiation surface through which light from the light-emitting element can be transmitted, the light irradiation surface including a light-transmitting section through which light from the light-emitting element can be transmitted and non-light-transmitting sections having light-blocking properties and being arranged with the light-transmitting section located in between; and a gas supply unit comprising a flow channel connected to a part of the light irradiation surface of the housing; wherein the flow channel is connected to the housing so as to extend from a side surface of the housing to the part of the light irradiation surface; wherein the flow channel comprises a discharge port capable of discharging a gas, the discharge port located in a region overlapping with the light irradiation surface; wherein the flow channel comprises a plurality of walls connected to each other, the plurality of walls comprising a first wall and a second wall, the first wall being located nearest the light-transmitting section and the second wall being located nearest a medium to be printed; and wherein the discharge port is provided in the second wall.