mhurhangee/patent-ind-claim-en huggingface dataset:
A method for digitalizing a scintillation pulse, comprising: step S1, acquiring a pulse database outputted by a detector irradiated by rays of different energy; step S2, sampling and quantizing each of pulses in the pulse database obtained in S1 to acquire complete energy information comprised in the pulse; step S3, undersampling and quantizing each of the pulses in the pulse database obtained in step S1, and estimating or fitting energy information by using pulse prior information; step S4, with the energy information obtained in S2 as a standard, determining a mapping relationship between the energy information obtained by a prior information-based undersampling pulse energy acquisition method and the energy information obtained by the method of S2; and step S5, correcting the energy information obtained by the prior information-based undersampling pulse energy acquisition method by using the energy mapping relationship obtained in S4; characterized in that the complete energy information acquired in step S2 is acquired by directly digitalizing the pulse in such a way that the step of directly digitalizing the pulse comprises: critical/over-sampling the pulse by an analog-to-digital scheme, and acquiring a maximum voltage amplitude of sampling points to represent the energy information; or the step of directly digitalizing the pulse comprises: holding a peak calue by a peak-holding circuit, and sampling a voltage amplitude of a sampling peak point to represent the pulse energy information. step S1, acquiring a pulse database outputted by a detector irradiated by rays of different energy; step S2, sampling and quantizing each of pulses in the pulse database obtained in S1 to acquire complete energy information comprised in the pulse; step S3, undersampling and quantizing each of the pulses in the pulse database obtained in step S1, and estimating or fitting energy information by using pulse prior information; step S4, with the energy information obtained in S2 as a standard, determining a mapping relationship between the energy information obtained by a prior information-based undersampling pulse energy acquisition method and the energy information obtained by the method of S2; and step S5, correcting the energy information obtained by the prior information-based undersampling pulse energy acquisition method by using the energy mapping relationship obtained in S4; characterized in that
A frame for supporting a light guide panel , the frame comprising: a solid state light source connected to and arranged on a circuit board , the circuit board comprising an electrically insulating outer perimeter portion ; and an insulation layer being electrically insulating, the insulation layer having a surface area larger than a surface area of the circuit board ; wherein the insulation layer is arranged on the frame ; wherein the circuit board is arranged on the insulation layer such that an insulating outer perimeter portion of the insulation layer is formed outside of the circuit board ; thereby providing a double insulation of the solid state light source in relation to the frame . a solid state light source connected to and arranged on a circuit board , the circuit board comprising an electrically insulating outer perimeter portion ; and an insulation layer being electrically insulating, the insulation layer having a surface area larger than a surface area of the circuit board ; wherein the insulation layer is arranged on the frame ; wherein the circuit board is arranged on the insulation layer such that an insulating outer perimeter portion of the insulation layer is formed outside of the circuit board ; thereby providing a double insulation of the solid state light source in relation to the frame .
Kettle comprising a body provided with a handle having an inner cavity , a heating plate , a lower sealed casing in which an internal control device is housed, and a sealed external control casing arranged on the handle , said external control casing having an external control device electrically connected by at least one cable to the internal control device and configured to manually activate said internal control device , characterised in that the lower casing is connected to the external control casing in a sealed manner by an electrically insulating duct in which at least one cable is arranged, and in that the inner cavity of the handle allows the housing and passage of duct , the lower casing , the external control casing and the duct forming a sealed zone.
An in vitro method of producing pluripotent stem cells, wherein said method comprises introducing a temperature-sensitive Sendai virus vector that comprises in one vector the KLF gene, OCT gene, and SOX gene in this order, and a Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene, and culturing in the range of 36.5 to 37.5°C, wherein the temperature-sensitive Sendai virus vector comprising in one vector the KLF gene, OCT gene, and SOX gene in this order is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, D433A, R434A, K437A, and L511F mutations in the P protein, and N1197S and K1795E mutations in the L protein, and wherein the Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, L511F mutation in the P protein, and N1197S and K1795E mutations in the L protein. introducing a temperature-sensitive Sendai virus vector that comprises in one vector the KLF gene, OCT gene, and SOX gene in this order, and a Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene, and culturing in the range of 36.5 to 37.5°C, wherein the temperature-sensitive Sendai virus vector comprising in one vector the KLF gene, OCT gene, and SOX gene in this order is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, D433A, R434A, K437A, and L511F mutations in the P protein, and N1197S and K1795E mutations in the L protein, and wherein the Sendai virus vector that comprises the KLF gene but not the OCT gene and the SOX gene is an F gene-deleted Sendai virus vector that comprises G69E, T116A, and A183S mutations in the M protein, A262T, G264R, and K461G mutations in the HN protein, L511F mutation in the P protein, and N1197S and K1795E mutations in the L protein.
An orthodontic appliance comprising: a base having an outer surface adapted for bonding to a tooth; a body extending outwardly from the base in a direction away from the outer surface of the base and having an elongated archwire slot therein extending along a generally mesial-distal direction, the archwire slot having a bottom wall and a pair of sidewalls , the body further including an undercut on either an occlusal or gingival side of the body ; a hinge coupled to the body and having a hinge axis extending along a generally mesial-distal direction; and a door assembly pivotable along the hinge axis between an open position allowing access to the archwire slot and a closed position obstructing access to the archwire slot , the door assembly comprising: a ceramic ligating cover ; and a resilient clip coupled to both of the ligating cover and the hinge , the ligating cover substantially obscuring the clip when the door assembly is in its closed position, the clip including a hook portion retained by an interference fit with the undercut when the door assembly is in its closed position, and wherein the clip comprises a shaft portion and the hook portion joined at one end of the shaft portion , thereby providing a generally "J"-shaped configuration. a base having an outer surface adapted for bonding to a tooth; a body extending outwardly from the base in a direction away from the outer surface of the base and having an elongated archwire slot therein extending along a generally mesial-distal direction, the archwire slot having a bottom wall and a pair of sidewalls , the body further including an undercut on either an occlusal or gingival side of the body ; a hinge coupled to the body and having a hinge axis extending along a generally mesial-distal direction; and a door assembly pivotable along the hinge axis between an open position allowing access to the archwire slot and a closed position obstructing access to the archwire slot , the door assembly comprising: a ceramic ligating cover ; and a resilient clip coupled to both of the ligating cover and the hinge , the ligating cover substantially obscuring the clip when the door assembly is in its closed position, the clip including a hook portion retained by an interference fit with the undercut when the door assembly is in its closed position, and wherein the clip comprises a shaft portion and the hook portion joined at one end of the shaft portion , thereby providing a generally "J"-shaped configuration. a ceramic ligating cover ; and a resilient clip coupled to both of the ligating cover and the hinge , the ligating cover substantially obscuring the clip when the door assembly is in its closed position, the clip including a hook portion retained by an interference fit with the undercut when the door assembly is in its closed position, and wherein the clip comprises a shaft portion and the hook portion joined at one end of the shaft portion , thereby providing a generally "J"-shaped configuration.
An assembly comprising a two part bidimensional antenna for high frequency communication , a data transmission coaxial cable with a central pin and a shield , and means for connecting the central pin and the shield of the cable to the two parts of the antenna , the said two parts of the antenna being printed on a glazing panel , characterized in that the assembly further comprises an electrical component , bridging the two parts of the antenna for controlling the connection between the cable and the antenna and wherein the electrical component is an electric resistor.
Method for obtaining one or more air products, in which an air separation plant comprising a rectification column system is used, in which plant compressed air is processed in an adjustable total air quantity, wherein the total air quantity is adjusted to a first value during a first operating period (T1) and adjusted to a second value which is different from the first value during a second operating period (T2), wherein the adjustment of the total air quantity is changed from the first value to the second value in a third operating period (T3) from a first time (X1) and up to a second time (X2), and wherein the second operating period (T2) is after the first operating period (T1), and the third operating period (T3) is between the first operating period (T1) and the second operating period (T2), wherein, in the third operating period (T3), an adjustment of a quantity of a liquid which is formed by rectification using the compressed air and transported into or out of the rectification column system is changed from a third time (X3) and up to a fourth time (X4), wherein the third time (X3) is before or after the first time (X1) and before the second time (X2), and the fourth time (X4) is after the first time (X1) and the third time (X3) and before or after the second time (X2), a period between the first time (X1) and the second time (X2) is adjusted such that it differs by no more than 20% from a period between the third time (X3) and the fourth time (X4), wherein the period between the first time (X1) and the second time (X2) is adjusted by changing the first time (X1) and/or the second time (X2), a period between the first time (X1) and the third time (X3) is adjusted depending on the adjustment of the period between the first time (X1) and the second time (X2) by changing the third time (X3), and the third time (X3) is after the first time (X1), and the fourth time (X4) is after the second time (X2), wherein the period between the first time (X1) and the third time (X3) is extended if the period between the first time (X1) and the second time (X2) is shortened.
A battery and/or accumulator for a motor vehicle with a plurality of electrical cells , with an electrical terminal for an electrical consumer and/or an electrical generator, with a supply line for electrically connecting the cells to the electrical terminal , with a sensor for measuring the electrical voltage of the cell and/or a sensor for measuring the temperature of the cell , and with a control unit for controlling the charging and/or discharging of the cells , wherein the control unit is electrically connected to the supply line for the purpose of controlling the cells , and the sensor is arranged in the cell , characterized in that the measured value for the electrical voltage and/or for the temperature of the cell detected by the sensor is transmitted to the control unit via the supply line , the transmission of the measured value occurring in modulated form on the supply line . with an electrical terminal for an electrical consumer and/or an electrical generator, with a supply line for electrically connecting the cells to the electrical terminal , with a sensor for measuring the electrical voltage of the cell and/or a sensor for measuring the temperature of the cell , and with a control unit for controlling the charging and/or discharging of the cells , wherein the control unit is electrically connected to the supply line for the purpose of controlling the cells , and the sensor is arranged in the cell , characterized in that the measured value for the electrical voltage and/or for the temperature of the cell detected by the sensor is transmitted to the control unit via the supply line , the transmission of the measured value occurring in modulated form on the supply line .
A device for dropletizing a flowable product, having an outer drum , which is arranged in a rotatable manner on a core and is provided with a plurality of through-openings in its circumference, wherein a feed duct for the product to be dropletized, said feed duct extending in the longitudinal direction of the core , and a distribution device bearing against the inner circumference of the outer drum are provided in the core , and wherein at least one supply duct is provided between the feed duct and the distribution device along the length of the feed duct , characterized in that a shut-off member for setting a free cross section of the at least one supply duct or of at least one outlet opening, from which the at least one supply duct proceeds, is provided, and in that the shut-off member is arranged in a movable manner in the assembled state of the device .
A compound of formula (I) or one of the pharmaceutically acceptable salts thereof for use for treating or preventing of an anxiety disorder in a patient.
A hot foil stamping press comprising a platen press with a supporting plate comprising a base plate and a compensating plate being rotatably attached to the base plate for switching between an operating position and a makeready position, a hook element comprising a base part and a top part being arranged at an angle relative to the base part , wherein the hook element is rotatably attached to a door of the platen press by a fixation axle for switching between a releasing position and a securing position of the hook element , wherein the top part retains the compensating plate in its makeready position when the hook element is in its securing position. a supporting plate comprising a base plate and a compensating plate being rotatably attached to the base plate for switching between an operating position and a makeready position, a hook element comprising a base part and a top part being arranged at an angle relative to the base part , wherein the hook element is rotatably attached to a door of the platen press by a fixation axle for switching between a releasing position and a securing position of the hook element , wherein the top part retains the compensating plate in its makeready position when the hook element is in its securing position.
Assembly on a member of a system for determining the position of said member, said assembly comprising: - said member; - said system for determining the position of said member, said system comprising: - an encoder secured in rotation to said member, said encoder comprising a primary magnetic track and a secondary magnetic track which are each suitable for emitting a periodic magnetic signal representative of the movement of said encoder; and - a sensor having two patterns of sensitive elements which are suitable for detecting the signals supplied by the tracks of the encoder , each pattern being arranged at reading distance from a track to form a representative signal of the position of said track, said sensor further comprising a device for processing the signals from the patterns to determine the position of the member; said assembly being characterised in that the sensitive elements of a first pattern are based on a Hall effect probe or a magnetoresistive material wherein the resistance varies according to the magnetic signal of the track to be detected, said material being of a different nature from that of the sensitive elements of a second pattern in respect of the technology for detecting the magnetic signal supplied by the track to be detected, said first pattern being arranged at reading distance from a second track having 2N-1 magnetic pole pairs, the sensitive elements of the second pattern being based on an anisotropic magnetoresistive material, said second pattern being arranged at reading distance from a primary track having N magnetic pole pairs. - said member; - said system for determining the position of said member, said system comprising: - an encoder secured in rotation to said member, said encoder comprising a primary magnetic track and a secondary magnetic track which are each suitable for emitting a periodic magnetic signal representative of the movement of said encoder; and - a sensor having two patterns of sensitive elements which are suitable for detecting the signals supplied by the tracks of the encoder , each pattern being arranged at reading distance from a track to form a representative signal of the position of said track, said sensor further comprising a device for processing the signals from the patterns to determine the position of the member; - an encoder secured in rotation to said member, said encoder comprising a primary magnetic track and a secondary magnetic track which are each suitable for emitting a periodic magnetic signal representative of the movement of said encoder; and - a sensor having two patterns of sensitive elements which are suitable for detecting the signals supplied by the tracks of the encoder , each pattern being arranged at reading distance from a track to form a representative signal of the position of said track, said sensor further comprising a device for processing the signals from the patterns to determine the position of the member;
A damper (20; 100) comprising: a damper body that is configured to be attached to a workpiece during a machining process, wherein a first side (26; 108) of the damper body is configured to abut a first side (16; 18) of the workpiece , and the damper body further comprises: a frame (30; 110) forming an outer periphery of the damper body ; a plurality of damper nodes (42; 122) with a cavity (48; 128) in each damper node (42; 122) positioned in the frame (30; 110); and a plurality of ribs (44; 124) extending between the frame (30; 110) and the damper nodes (42; 122); and a damping material (50; 50'; 50"; 130) positioned in the cavity (48; 128) of each damper node (42; 122). a frame (30; 110) forming an outer periphery of the damper body ; a plurality of damper nodes (42; 122) with a cavity (48; 128) in each damper node (42; 122) positioned in the frame (30; 110); and a plurality of ribs (44; 124) extending between the frame (30; 110) and the damper nodes (42; 122); and a damping material (50; 50'; 50"; 130) positioned in the cavity (48; 128) of each damper node (42; 122).
Data-entry device comprising an upper cover to which a capacitive pad is affixed through the exterior, comprising at least one flexible security element , inserted into at least one corresponding opening made in said upper cover , said security element having at least one electrical track connected to a cut-detection module of said electrical track in said device, the shape and the mounting of said at least one security element in said device being adapted to exerting a force on the internal face of said upper cover .
A method comprising: maintaining historical runtime data for a service application; receiving current runtime data for a container group comprising individual containers instantiated on current hardware resources, where: each container in the container group is configured to execute independently of other containers in the container group and where each container comprises an instance of the service application and is allocated a subset of the current hardware resources; obtaining expanded runtime data for the service application by adding the current runtime data to the historical runtime data for the service application; predicting a resource requirement for the service application at a specific future time by executing a machine learning algorithm trained on the expanded runtime data for the service application; determining an updated resource allocation for the service application at the specific future time, the updated resource allocation comprising a number of containers to be instantiated and updated hardware resources to be allocated to each of the number of containers; and sending the updated resource allocation for the service application to a scheduler for implementation of the updated resource allocation at the specific future time. maintaining historical runtime data for a service application; receiving current runtime data for a container group comprising individual containers instantiated on current hardware resources, where: each container in the container group is configured to execute independently of other containers in the container group and where each container comprises an instance of the service application and is allocated a subset of the current hardware resources; obtaining expanded runtime data for the service application by adding the current runtime data to the historical runtime data for the service application; predicting a resource requirement for the service application at a specific future time by executing a machine learning algorithm trained on the expanded runtime data for the service application; determining an updated resource allocation for the service application at the specific future time, the updated resource allocation comprising a number of containers to be instantiated and updated hardware resources to be allocated to each of the number of containers; and sending the updated resource allocation for the service application to a scheduler for implementation of the updated resource allocation at the specific future time.