mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing inductively heatable aerosol-forming rods , the method comprising the steps of: - supplying a continuous susceptor profile to a continuous rod-forming process such as to enter and pass the rod-forming process along a center axis of the rod-forming process; - supplying a substrate web comprising an aerosol-forming substrate to the continuous rod-forming process such as to enter the rod-forming process laterally to the susceptor profile ; - passing the substrate web and the susceptor profile through the rod-forming process, thereby gathering the substrate web into a rod shape around the susceptor profile substantially coaxially to the center axis . - supplying a continuous susceptor profile to a continuous rod-forming process such as to enter and pass the rod-forming process along a center axis of the rod-forming process; - supplying a substrate web comprising an aerosol-forming substrate to the continuous rod-forming process such as to enter the rod-forming process laterally to the susceptor profile ; - passing the substrate web and the susceptor profile through the rod-forming process, thereby gathering the substrate web into a rod shape around the susceptor profile substantially coaxially to the center axis .
Powder coating device for the powder coating of objects, which has a main body , on which an electrode arrangement designed for generating a powder cloud is arranged and on which a metering device designed for the monitored discharge of an amount of powder onto the electrode arrangement is arranged above the electrode arrangement , characterized in that the metering device has a powder outlet facing the electrode arrangement , wherein powder discharged by the metering device can reach the electrode arrangement under the effect of gravity and, on the basis of the electrode arrangement and the electrostatic charging of the powder provided by means of the electrode arrangement, a powder cloud that spreads out spatially as a result of the electrostatic charging of the powder, without the application of compressed air or similar delivery or propulsive media, can be formed.
A computer system for creating a fingerprint for a device, the computer system comprising a device management system operatively coupled to a merchant system, the device management system comprising at least one hardware processor configured to: receive a first payload corresponding to the device from the merchant system, the first payload comprising data in a particular format and an identifier used for identifying the device; parse the first payload to extract the identifier; create a fingerprint associated with the identifier, wherein the fingerprint is created by: parsing the particular format of the first payload into one or more distinct sections of the particular format; and creating a record of a section format of each of the one or more distinct sections; and compare a format of each subsequent payload that corresponds to the device to the fingerprint for the device to determine whether the device has been compromised. receive a first payload corresponding to the device from the merchant system, the first payload comprising data in a particular format and an identifier used for identifying the device; parse the first payload to extract the identifier; create a fingerprint associated with the identifier, wherein the fingerprint is created by: parsing the particular format of the first payload into one or more distinct sections of the particular format; and creating a record of a section format of each of the one or more distinct sections; and parsing the particular format of the first payload into one or more distinct sections of the particular format; and creating a record of a section format of each of the one or more distinct sections; and compare a format of each subsequent payload that corresponds to the device to the fingerprint for the device to determine whether the device has been compromised.
Valve metal particles uniformly containing nitrogen, the raw material particles of the valve metal being obtained by heating at a temperature of 200° C or less in a atmosphere of nitrogen containing gas, wherein the difference ratio of the nitrogen contents among the valve metal particles is 20% or less, wherein the difference ratio of the nitrogen contents among the valve metal particles indicates the difference ratio of nitrogen contents of the particles at sampling positions A, B, C, D, E, F, H and I when the valve metal particles are placed in a tray, wherein position A is the center of the tray, positions B, C, D and E are at the middle of the radius of the tray, and positions F, G, H and I are at the edge of the tray, and wherein the nitrogen contents are measured by distillation fractionation.
A method performed by a first radio base station, RBS, for sharing resources between at least two entities, wherein the first RBS provides resources to user equipment, UEs, in a cell, wherein the method comprises storing an identity of at least a first entity to which a first plurality of UEs is associated, which first plurality of UEs has full access to the resources, and an identity of at least a second entity to which a second plurality of UEs is associated, which second plurality of UEs has partial access to the resources, wherein an entity to which a plurality of UEs is associated is a mobile network operator or a group of subscribers of a mobile network operator, the method further comprising: - receiving , by the first RBS , a request for accessing resources, from a UE, - determining , by the first RBS , whether the UE is associated with the second entity, - determining , by the first RBS , an amount of resources to provide to the UE, if the UE is associated with the second entity, and - storing, by the first RBS , cell information of at least one cell served by at least a second RBS, wherein the UE associated with the second entity has full access to resources provided by the second RBS, wherein the determination of the amount of resources to provide to the UE is based on the cell information, wherein the cell information comprises at least one of: radio characteristics, load information, a geographical distance, a radio distance, and data-rates of the cell served by the second RBS, and wherein partial access means that the UE is associated with the second entity that is provided with a different amount of resources than the first entity with full access. - receiving , by the first RBS , a request for accessing resources, from a UE, - determining , by the first RBS , whether the UE is associated with the second entity, - determining , by the first RBS , an amount of resources to provide to the UE, if the UE is associated with the second entity, and - storing, by the first RBS , cell information of at least one cell served by at least a second RBS, wherein the UE associated with the second entity has full access to resources provided by the second RBS,
A gas turbine engine for an aircraft comprising: an engine core comprising a turbine , a compressor , a core shaft connecting the turbine to the compressor , and a core casing surrounding the engine core ; a fan located upstream of the engine core , the fan comprising a plurality of fan blades and a fan casing surrounding the fan ; a gearbox that receives an input from the core shaft and outputs drive to the fan so as to drive the fan at a lower rotational speed than the core shaft , the gearbox being located between the fan and the engine core ; a single plane support structure connecting the core casing and the fan casing , the single plane support structure comprising an inner ring , an outer ring and a plurality of circumferentially spaced radially extending struts connecting the inner ring and the outer ring , the inner ring comprising a torque box , the torque box having a downstream wall ; a gearbox and fan support structure connected to the torque box ; and a front mount and a rear mount , the front and rear mounts being configured to connect the gas turbine engine to the aircraft, and the rear mount being coupled to the core casing ; characterised in that the front mount is coupled to the downstream wall of the torque box . an engine core comprising a turbine , a compressor , a core shaft connecting the turbine to the compressor , and a core casing surrounding the engine core ; a fan located upstream of the engine core , the fan comprising a plurality of fan blades and a fan casing surrounding the fan ; a gearbox that receives an input from the core shaft and outputs drive to the fan so as to drive the fan at a lower rotational speed than the core shaft , the gearbox being located between the fan and the engine core ; a single plane support structure connecting the core casing and the fan casing , the single plane support structure comprising an inner ring , an outer ring and a plurality of circumferentially spaced radially extending struts connecting the inner ring and the outer ring , the inner ring comprising a torque box , the torque box having a downstream wall ; a gearbox and fan support structure connected to the torque box ; and a front mount and a rear mount , the front and rear mounts being configured to connect the gas turbine engine to the aircraft, and the rear mount being coupled to the core casing ; characterised in that the front mount is coupled to the downstream wall of the torque box .
A downlink channel transmission method, comprising: receiving (S220, S230), by a terminal device, at least two physical downlink control channels, PDCCHs, respectively sent by at least two transmission/reception points, TRPs, on at least two control information resources, wherein the at least two PDCCHs carry same downlink control information, DCI, and the DCI is used to indicate a time-frequency resource corresponding to a first downlink channel; obtaining (S240), by the terminal device, at least two transmission configuration indicators, TCIs, corresponding to the at least two control information resources; determining (S250), by the terminal device, a target TCI in the at least two TCIs, wherein the target TCI is a TCI corresponding to the first downlink channel; and receiving, by the terminal device, the first downlink channel based on the DCI and the target TCI. receiving (S220, S230), by a terminal device, at least two physical downlink control channels, PDCCHs, respectively sent by at least two transmission/reception points, TRPs, on at least two control information resources, wherein the at least two PDCCHs carry same downlink control information, DCI, and the DCI is used to indicate a time-frequency resource corresponding to a first downlink channel; obtaining (S240), by the terminal device, at least two transmission configuration indicators, TCIs, corresponding to the at least two control information resources; determining (S250), by the terminal device, a target TCI in the at least two TCIs, wherein the target TCI is a TCI corresponding to the first downlink channel; and receiving, by the terminal device, the first downlink channel based on the DCI and the target TCI.
A method for preparing a delayed release delivery system comprising at least one treated particle comprising a core particle having surface pores and a liquid absorbed therein, wherein a ratio of the weight of the liquid to the weight of the core particle is at least about 400:1, said method comprising: (a) providing the core particle; (b) contacting the core particle with the liquid under conditions sufficient for the liquid to be absorbed into the core particle in the weight ratio of the liquid to the core particle of at least about 400:1; and wherein the contacting conditions comprise applying a pressure of from about 100 psi [690 kPa] to about 1000 psi [6.9 MPa] for from about 30 minutes up to about 2 hours. (a) providing the core particle; (b) contacting the core particle with the liquid under conditions sufficient for the liquid to be absorbed into the core particle in the weight ratio of the liquid to the core particle of at least about 400:1; and
A machine for cutting fruit or vegetables into segments, comprising: a blade group ; a presser arranged above the blade group and mobile according to an operating stroke along which it pushes a product (P) in advancement through the blades ; motor means, connected to the presser by means of a mobile structure , predisposed for activating along an operating stroke thereof; characterised in that the presser comprises: a central body , rigidly connected to the motor means; a peripheral body , arranged concentrically to the central body and deconstrained from the central body . a blade group ; a presser arranged above the blade group and mobile according to an operating stroke along which it pushes a product (P) in advancement through the blades ; motor means, connected to the presser by means of a mobile structure , predisposed for activating along an operating stroke thereof; characterised in that the presser comprises: a central body , rigidly connected to the motor means; a peripheral body , arranged concentrically to the central body and deconstrained from the central body . a central body , rigidly connected to the motor means; a peripheral body , arranged concentrically to the central body and deconstrained from the central body .
A method for transmitting and receiving a signal of a New Radio Access Technology, NR, terminal in a wireless communication system, the method comprising: receiving a Physical Downlink Control Channel, PDCCH, order on a downlink carrier; and transmitting a random access preamble in response to the PDCCH order; wherein the random access preamble is transmitted on a first uplink carrier determined based on information on an uplink carrier included in the PDCCH order when a predetermined condition is satisfied, wherein the predetermined condition comprises a plurality of uplink carrier including the first uplink carrier are configured for the downlink carrier, and wherein a cell identification, ID, of the downlink carrier and a cell ID of the plurality of uplink carrier are identical. receiving a Physical Downlink Control Channel, PDCCH, order on a downlink carrier; and transmitting a random access preamble in response to the PDCCH order; wherein the random access preamble is transmitted on a first uplink carrier determined based on information on an uplink carrier included in the PDCCH order when a predetermined condition is satisfied, wherein the predetermined condition comprises a plurality of uplink carrier including the first uplink carrier are configured for the downlink carrier, and wherein a cell identification, ID, of the downlink carrier and a cell ID of the plurality of uplink carrier are identical.
IgG type immunoglobulin of the class IgG1 or IgG4, capable of recognizing and binding an epitope of the extracellular domain of the human protein CD99, wherein said immunoglobulin comprises four variable regions capable of recognizing and binding SEQ ID NO: 23, said immunoglobulin comprising two heavy chains (HC) and two light chains (LC), and wherein each variable heavy (VH) chain is characterized by a CDR3 comprising SEQ ID NO: 1 and each variable light (VL) chain is characterized by a CDR3 comprising SEQ ID NO: 2, and wherein: each VH chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 3 and 4; and each VL chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 5 and 6. each VH chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 3 and 4; and each VL chain comprises a CDR1 region and a CDR2 region characterized by an amino acid sequence comprising, respectively, SEQ ID NO: 5 and 6.
A collection of nanofibers in the form of a nonwoven web comprising polyolefin, said nanofibers having mean fiber diameters of less than or equal to 400 nm and a median fiber diameter of less than or equal to 400 nm, obtainable by a nanofiber forming process comprising the steps of: supplying a spinning melt comprising said polyolefin to an inner spinning surface of a heated rotating distribution disc having a forward surface fiber discharge edge that is serrated; issuing the spinning melt along said inner spinning surface so as to distribute the spinning melt into a thin film and toward the forward surface fiber discharge edge; and discharging separate molten polymer fibrous streams from the serrated forward surface fiber discharge edge to attenuate the fibrous streams to produce polymeric nanofibers having a distribution of fiber diameters with a mean fiber diameter of less than or equal to 400 nm and a median fiber diameter of less than or equal to 400 nm, each measured using scanning electron microscopy. supplying a spinning melt comprising said polyolefin to an inner spinning surface of a heated rotating distribution disc having a forward surface fiber discharge edge that is serrated; issuing the spinning melt along said inner spinning surface so as to distribute the spinning melt into a thin film and toward the forward surface fiber discharge edge; and discharging separate molten polymer fibrous streams from the serrated forward surface fiber discharge edge to attenuate the fibrous streams to produce polymeric nanofibers having a distribution of fiber diameters with a mean fiber diameter of less than or equal to 400 nm and a median fiber diameter of less than or equal to 400 nm, each measured using scanning electron microscopy.
An air-cooled high pressure cleaning device, comprising a housing and a motor pump unit received therein having a motor and a high pressure pump driven by said motor , as well as at least one cooling air channel for cooling air, arranged or formed in the housing , for cooling the motor pump unit , said cooling air channel being fluidically connected to the atmosphere by at least one housing opening , wherein the high pressure cleaning device comprises an air guiding part which is fluidically connected to the at least one cooling air channel and at least partially surrounds the motor pump unit , and damping elements , by means of which the air guiding part is supported on the housing , wherein the at least one cooling air channel is formed, at least in sections, between an outer wall of the housing and at least one further channel wall comprised or formed by the housing at a distance from the outer wall , wherein the high pressure cleaning device has a first cooling air channel , through which cooling air out of the atmosphere is suppliable to the motor pump unit , and a second cooling air channel , through which cooling air is removable from the motor pump unit into the atmosphere, and wherein the motor pump unit and the air guiding part are arranged between channel sections of the first and the second cooling air channel which run parallel to the motor pump unit , wherein the cooling air flows along a meander through the first cooling air channel , the air guiding part , and the second cooling air channel .
An apparatus for taking out a molded product molded in a die of a molding machine (1040, the apparatus being operable to transfer the molded product out of the molding machine and comprising: a taking portion configured to take hold of the molded product molded in the die; an arm provided to be capable of advancing and retracting in an opening direction of the die and moving up and down; and a posture reversing mechanism provided between the arm and the taking portion to change a direction of the taking portion between an unreversed state in which the taking portion is directed to be able to take hold of the molded product molded in the die , and a reversed state in which a length of the taking portion in a vertical direction is shorter than that in the unreversed state, a sensor configured to detect vibration of the of the arm , characterized in that the apparatus further comprises: a mass estimating section configured to estimate a mass of the taking portion on a basis of vibration of the arm detected by the sensor when the taking portion is in the reversed state. a taking portion configured to take hold of the molded product molded in the die; an arm provided to be capable of advancing and retracting in an opening direction of the die and moving up and down; and a posture reversing mechanism provided between the arm and the taking portion to change a direction of the taking portion between an unreversed state in which the taking portion is directed to be able to take hold of the molded product molded in the die , and a reversed state in which a length of the taking portion in a vertical direction is shorter than that in the unreversed state, a sensor configured to detect vibration of the of the arm , characterized in that the apparatus further comprises: a mass estimating section configured to estimate a mass of the taking portion on a basis of vibration of the arm detected by the sensor when the taking portion is in the reversed state.
A heating device, comprising a ceramic heating element and a smoking product bearing assembly , wherein, the ceramic heating element comprises a heating body and a heating circuit , the heating body is cylindrical; and the smoking product bearing assembly comprises a preheating tube and a blocking piece , the blocking piece is arranged in a cavity defined by the preheating tube to divide the cavity into a first cavity suitable for being used for placing a smoking product and a second cavity used for placing at least one part of the ceramic heating element , characterised in that the heating body is internally provided with a porous channel , and the heating circuit is arranged on the heating body to heat air passing through the porous channel , the heating circuit being printed on the outer surface of the heating body in the thick film circuit mode. the ceramic heating element comprises a heating body and a heating circuit , the heating body is cylindrical; and the smoking product bearing assembly comprises a preheating tube and a blocking piece , the blocking piece is arranged in a cavity defined by the preheating tube to divide the cavity into a first cavity suitable for being used for placing a smoking product and a second cavity used for placing at least one part of the ceramic heating element , characterised in that the heating body is internally provided with a porous channel , and the heating circuit is arranged on the heating body to heat air passing through the porous channel , the heating circuit being printed on the outer surface of the heating body in the thick film circuit mode.
A device configured to send information relating to noise sound in a vehicle , the device comprising: a detector that is provided in the vehicle and acquires information related to noise sound that disturbs ultrasonic communication in the vehicle; an in-vehicle controller that is provided in the vehicle and converts the information related to noise sound into a notification signal; and a sender that sends the notification signal to a remote controller disposed in the vehicle, wherein the in-vehicle controller is configured to make the sender send the notification signal when a vehicle parameter of the vehicle changes within a predetermined range or in a predetermined manner. a detector that is provided in the vehicle and acquires information related to noise sound that disturbs ultrasonic communication in the vehicle; an in-vehicle controller that is provided in the vehicle and converts the information related to noise sound into a notification signal; and a sender that sends the notification signal to a remote controller disposed in the vehicle, wherein the in-vehicle controller is configured to make the sender send the notification signal when a vehicle parameter of the vehicle changes within a predetermined range or in a predetermined manner.