mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling the light emission of a vehicle lamp of a vehicle, in which method a road user located in the light emission direction of the vehicle lamp is detected, and the light emission of the vehicle lamp is changed, whereupon reaction data on the reaction of the road user to the change in the light emission are recorded, forecast data are determined which indicate the expected reaction of a road user located in the light emission direction of the vehicle lamp to the changed light emission, the recorded reaction data are compared with the determined forecast data, if the forecast data deviates from the reaction data, it is determined by means of which adjustment of the light emission of the vehicle lamp a prediction of a reduction in the deviation is made, and the light emission of the vehicle lamp is controlled according to the determined adjustment characterized in that environmental data from the surroundings of the vehicle are recorded and a level for the hazard severity in the surroundings is determined using the environmental data, if the light emission of the vehicle lamp changes, the light intensity of the light emission of the vehicle lamp is changed depending on the determined hazard severity, so that the light intensity of the light emission of the vehicle lamp is adjusted according to the level of hazard severity. a road user located in the light emission direction of the vehicle lamp is detected, and the light emission of the vehicle lamp is changed, whereupon reaction data on the reaction of the road user to the change in the light emission are recorded, forecast data are determined which indicate the expected reaction of a road user located in the light emission direction of the vehicle lamp to the changed light emission, the recorded reaction data are compared with the determined forecast data, if the forecast data deviates from the reaction data, it is determined by means of which adjustment of the light emission of the vehicle lamp a prediction of a reduction in the deviation is made, and the light emission of the vehicle lamp is controlled according to the determined adjustment characterized in that environmental data from the surroundings of the vehicle are recorded and a level for the hazard severity in the surroundings is determined using the environmental data, if the light emission of the vehicle lamp changes, the light intensity of the light emission of the vehicle lamp is changed depending on the determined hazard severity, so that the light intensity of the light emission of the vehicle lamp is adjusted according to the level of hazard severity.
A refrigeration oil composition for one or more refrigerants selected from a hydrofluorocarbon refrigerant, a hydrofluoroolefin refrigerant and a carbon dioxide refrigerant comprising: a base oil being a mixture of a naphthenic mineral oil and a polyol ester oil; and a sorbitan compound, wherein the sorbitan compound is a compound of a polyoxyethylene, a sorbitan and a fatty acid, wherein a content of the sorbitan compound is from 0.5 mass% to 5 mass% of a total amount of the refrigeration oil composition; and wherein in the mixture, a mass ratio of the naphthenic mineral oil to the polyol ester oil is that the naphthenic mineral oil: the polyol ester oil = from 70: 30 to 80: 20. a base oil being a mixture of a naphthenic mineral oil and a polyol ester oil; and a sorbitan compound, wherein the sorbitan compound is a compound of a polyoxyethylene, a sorbitan and a fatty acid,
A system comprising: at least one programmable processor; and a non-transitory machine-readable medium storing instructions which, when executed by the at least one programmable processor, cause the at least one programmable processor to perform operations comprising: receiving at least a portion of a radiation treatment plan; acquiring, from a radiation detector, exit radiation measurement information during delivery of patient treatment; deriving a measured collimator profile from the exit radiation measurement information; determining at least one estimated collimator profile from at least a portion of the radiation treatment plan and an approximate image start time and an approximate image end time; and comparing the measured collimator profile with at least one estimated collimator profile to determine an image start time and an image end time. at least one programmable processor; and a non-transitory machine-readable medium storing instructions which, when executed by the at least one programmable processor, cause the at least one programmable processor to perform operations comprising: receiving at least a portion of a radiation treatment plan; acquiring, from a radiation detector, exit radiation measurement information during delivery of patient treatment; deriving a measured collimator profile from the exit radiation measurement information; determining at least one estimated collimator profile from at least a portion of the radiation treatment plan and an approximate image start time and an approximate image end time; and comparing the measured collimator profile with at least one estimated collimator profile to determine an image start time and an image end time. receiving at least a portion of a radiation treatment plan; acquiring, from a radiation detector, exit radiation measurement information during delivery of patient treatment; deriving a measured collimator profile from the exit radiation measurement information; determining at least one estimated collimator profile from at least a portion of the radiation treatment plan and an approximate image start time and an approximate image end time; and comparing the measured collimator profile with at least one estimated collimator profile to determine an image start time and an image end time.
A method, comprising: receiving, by a location server, an area shape capability indicator from a target terminal; determining, by the location server based upon the area shape capability indicator, whether a requested shape allowed by a requesting entity is supported by the target terminal; upon a determination that the requested shape is supported by the target terminal, sending, by the location server, an area event request based on the requested shape to the target terminal; and upon a determination that the requested shape is not supported by the target terminal, converting, by the location server, the requested shape to a shape supported by the target terminal. receiving, by a location server, an area shape capability indicator from a target terminal; determining, by the location server based upon the area shape capability indicator, whether a requested shape allowed by a requesting entity is supported by the target terminal; upon a determination that the requested shape is supported by the target terminal, sending, by the location server, an area event request based on the requested shape to the target terminal; and upon a determination that the requested shape is not supported by the target terminal, converting, by the location server, the requested shape to a shape supported by the target terminal.
A power machine comprising: a carrier comprising a supporting frame, an operator compartment and a joystick controller disposed in the operator compartment and configured to generate movement signals in response to operator movement of the joystick controller; an attachment detachably coupled to the power machine; a carrier control unit disposed on the carrier and configured to receive the movement signals from the joystick controller; an attachment control unit disposed on the attachment and configured to control movement of the attachment; a network coupling the carrier control unit to the attachment control unit and configured to carry instructions from the carrier control unit to the attachment control unit; characterized by the following features: a state selection input disposed in the operator compartment to select one of at least two operational states including a carrier state and an attachment state, the carrier control unit configured to control operation of the carrier in response to operator movement of the joystick controller while in the carrier state, and the attachment control unit configured to control operation of the attachment in response to operator movement of the joystick controller while in the attachment state. a carrier comprising a supporting frame, an operator compartment and a joystick controller disposed in the operator compartment and configured to generate movement signals in response to operator movement of the joystick controller; an attachment detachably coupled to the power machine; a carrier control unit disposed on the carrier and configured to receive the movement signals from the joystick controller; an attachment control unit disposed on the attachment and configured to control movement of the attachment; a network coupling the carrier control unit to the attachment control unit and configured to carry instructions from the carrier control unit to the attachment control unit;
A method for controlling an active rectifier connected to a stator of a generator of a wind power installation by means of a field-oriented control, wherein the generator comprises a stator having an axis of rotation around which the rotor is mounted, comprising the following steps: - predefining rotor-fixed d and q coordinates (id1_soll, iq1_soll) for at least one 3-phase stator current of the generator, - determining at least one alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) depending on a detected amplitude ( P̂) and a detected phase position of an electrical power oscillation on the generator, characterized in that - determining the alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) taking account of a rotor (Θm) position which represents a mechanical position of the rotor in relation to the stator, - adding the alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) to the rotor-fixed d and/or q coordinate (id1_soll, iq1_soll) to form a modified d and/or q coordinate (id*, iq*), - controlling the active rectifier at least depending on the modified d and/or q coordinate (id*, iq*). - predefining rotor-fixed d and q coordinates (id1_soll, iq1_soll) for at least one 3-phase stator current of the generator, - determining at least one alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) depending on a detected amplitude ( P̂) and a detected phase position of an electrical power oscillation on the generator, characterized in that - determining the alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) taking account of a rotor (Θm) position which represents a mechanical position of the rotor in relation to the stator, - determining the alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) taking account of a rotor (Θm) position which represents a mechanical position of the rotor in relation to the stator, - adding the alternating component for the rotor-fixed d and/or q coordinate (id~, iq~) to the rotor-fixed d and/or q coordinate (id1_soll, iq1_soll) to form a modified d and/or q coordinate (id*, iq*), - controlling the active rectifier at least depending on the modified d and/or q coordinate (id*, iq*).
A method for manufacturing a polyaxial bone anchoring device, wherein the polyaxial bone anchoring device includes an anchoring element having a shaft for anchoring in a bone and a head; a receiving part (5, 5') having a top end and a bottom end, a channel for receiving a rod therein and a passage (53, 54, 55) extending from the top end to the bottom end and including a seat for receiving the head; a pressure element which is arranged in the passage and configured to exert pressure onto the head, wherein the pressure element is a solid member without a spring portion and wherein the head is pivotable with respect to the receiving part and can be locked at an angle by means of the pressure element; the pressure element (6, 6') comprising at least one recess (600a, 600b; 610a, 610b; 620a, 620b) facing the inner wall of the receiving part or a deformable portion (601a', 601 b') at its outer wall; the receiving part including at least one deformable portion (501 a, 501b) provided at its inner wall, which upon deformation engages the recess (600a, 600b; 610a, 610b; 620a, 620b) at the pressure element or a recess (500a', 500b') open at least to its inner wall; wherein the deformable portion (502a, 502b; 601a', 601b') and the recess (600a, 600b; 610a, 610b; 620a, 620b; 500a', 500b') are arranged such that by engagement the deformable portion with the recess a force is exerted by the pressure element onto the head that maintains the head at an angular position by friction before locking the head, wherein the method includes the steps arranging the pressure element (6, 6') in the receiving part (5, 5') such that the recess (600a, 600b; 610a, 610b; 620a, 620b, 500a', 500b') is located with respect to the deformable portion (501a, 501b, 601a', 601b') in an axial direction in such a way that the reformable portion (501a, 501b, 601a', 601b') can engage upon deformation an edge (601a, 601b, 501a', 501b') of the recess; deforming the deformable portion (501a, 501b, 601a', 601b') such that the deformed portion (502a, 502b, 602a', 602b') forms a protrusions, which engages the edge (601a, 611a, 621a, 501a', 501b') of the recess, thereby exerting a force onto the pressure element to maintain the head in an angular position by friction before locking it, wherein the step of deforming is carried out before the bone anchoring element is inserted into the bone.
A dispensing pipette for a cosmetic product, comprising: - a tubular dispensing duct for dispensing a cosmetic product, defining a longitudinal passage for the cosmetic product, the tubular duct having an upper end and a lower end, the lower end defining a receiving insert for receiving a ball, and - a ball rotatably mounted in the receiving insert, the ball being designed to come into contact with the skin of a user and to dispense the cosmetic product by rotation of the ball; wherein the receiving insert has an inner surface facing the ball, characterized in that the receiving insert defines at least one longitudinal channel radially withdrawn away from the ball into the inner surface so as to allow the flow of the cosmetic product between the lower end of the dispensing pipette and the tubular duct around the ball. - a tubular dispensing duct for dispensing a cosmetic product, defining a longitudinal passage for the cosmetic product, the tubular duct having an upper end and a lower end, the lower end defining a receiving insert for receiving a ball, and - a ball rotatably mounted in the receiving insert, the ball being designed to come into contact with the skin of a user and to dispense the cosmetic product by rotation of the ball;
A fuel-cell-stack manufacturing method, comprising: a separator unit comprising an anode side separator and a cathode side separator; a deformation absorption member disposed between the anode side separator and the cathode side separator, and comprising a thin-board-like base material, and a plurality of raised pieces that are provided raised from one surface of the base material in a grid pattern; and a membrane electrode assembly that is adjacent to the separator unit, and is formed by joining an anode and a cathode so as to face an electrolyte membrane, comprising an arrangement step in which an extension portion extended from a proximal end of the raised piece provided on the one surface of the base material is disposed so as to be abutted to the cathode side separator or the anode side separator, and a setting step that sets an interval between the anode side separator and the cathode side separator along a lamination direction so that the deformation of the raised piece exceeds an elastic deformation region and enters a plastic deformation region, and is also in a region in which the proximal end that is moved due to the deformation will not come in contact with the cathode side separator or the anode side separator. a separator unit comprising an anode side separator and a cathode side separator; a deformation absorption member disposed between the anode side separator and the cathode side separator, and comprising a thin-board-like base material, and a plurality of raised pieces that are provided raised from one surface of the base material in a grid pattern; and a membrane electrode assembly that is adjacent to the separator unit, and is formed by joining an anode and a cathode so as to face an electrolyte membrane, comprising an arrangement step in which an extension portion extended from a proximal end of the raised piece provided on the one surface of the base material is disposed so as to be abutted to the cathode side separator or the anode side separator, and a setting step that sets an interval between the anode side separator and the cathode side separator along a lamination direction so that the deformation of the raised piece exceeds an elastic deformation region and enters a plastic deformation region, and is also in a region in which the proximal end that is moved due to the deformation will not come in contact with the cathode side separator or the anode side separator.
A device for measuring a temperature of a liquid food product, the device comprising a housing having an inlet and an outlet for allowing passage of liquid food product through the housing, a temperature probe located within the housing for providing a signal representative of a temperature of liquid food product passing through the housing, a scraping sleeve that is concentrically arranged over the temperature probe and axially moveable along the temperature probe to scrape and remove deposits from the temperature probe that have been formed by accumulation of liquid food product on an outer surface of the temperature probe, an actuator to which an axial end of the scraping sleeve is attached, such that the actuator can move the scraping sleeve along the temperature probe, wherein the scraping sleeve has a longitudinal body and at least one radial slot formed in the longitudinal body to allow deposits that have been scraped from the temperature probe to be removed from the temperature probe through the at least one radial slot. a housing having an inlet and an outlet for allowing passage of liquid food product through the housing, a temperature probe located within the housing for providing a signal representative of a temperature of liquid food product passing through the housing, a scraping sleeve that is concentrically arranged over the temperature probe and axially moveable along the temperature probe to scrape and remove deposits from the temperature probe that have been formed by accumulation of liquid food product on an outer surface of the temperature probe, an actuator to which an axial end of the scraping sleeve is attached, such that the actuator can move the scraping sleeve along the temperature probe, wherein the scraping sleeve has a longitudinal body and at least one radial slot formed in the longitudinal body to allow deposits that have been scraped from the temperature probe to be removed from the temperature probe through the at least one radial slot.
A method for operating a base station for providing system information in a Long Term Evolution - Advanced, LTE-A, communication system supporting carrier aggregation, in which a user equipment is connected to multiple cells of the base station, a first cell being one of the multiple cells to which the user equipment is connected and corresponding to a component carrier which is being used by the user equipment and via which the user equipment is kept in connection with the base station of the communication system, while other component carriers corresponding to cells other than the first cell supported by the user equipment can provide uplink and/or downlink resources to the user equipment, the method performed by the base station comprises the following steps: communicating with the user equipment via the multiple cells with different coverage areas; generating, when there is a change in system information of a second component carrier of the other component carriers which is activated for the user equipment, first information which comprises information comprising updated system information of the second component carrier; identifying the first cell of the user equipment which provides non-access stratum mobility information to the user equipment; and transmitting the first information to the user equipment via dedicated signaling transmitted via a dedicated channel of the first cell. communicating with the user equipment via the multiple cells with different coverage areas; generating, when there is a change in system information of a second component carrier of the other component carriers which is activated for the user equipment, first information which comprises information comprising updated system information of the second component carrier; identifying the first cell of the user equipment which provides non-access stratum mobility information to the user equipment; and transmitting the first information to the user equipment via dedicated signaling transmitted via a dedicated channel of the first cell.
A system comprising: a short message service - service center SMS-SC; and a network entity comprising at least one of a mobility management entity MME or a serving general packet radio service support node SGSN for initiating a back-off timer on the SMS-SC in a 3rd generation partnership project 3GPP network, the network entity comprising circuitry configured to: receive from the SMS-SC a mobile terminated MT forward short message request; determine whether the network entity is overloaded such that the network entity is applying to a user equipment UE non-access stratum NAS level congestion controls for managing MME/SGSN delivery of a short message SM to the UE; and send to the SMS-SC an MT forward short message answer having information indicating that the network entity is overloaded, in which the MT forward short message answer causes the SMS-SC to initiate a back-off timer to temporarily suppress sending further SMs to the network entity; wherein the SMS-SC is configured to: initiate the back-off timer to temporarily suppress sending further SMs to the network entity. a short message service - service center SMS-SC; and a network entity comprising at least one of a mobility management entity MME or a serving general packet radio service support node SGSN for initiating a back-off timer on the SMS-SC in a 3rd generation partnership project 3GPP network, the network entity comprising circuitry configured to: receive from the SMS-SC a mobile terminated MT forward short message request; determine whether the network entity is overloaded such that the network entity is applying to a user equipment UE non-access stratum NAS level congestion controls for managing MME/SGSN delivery of a short message SM to the UE; and send to the SMS-SC an MT forward short message answer having information indicating that the network entity is overloaded, in which the MT forward short message answer causes the SMS-SC to initiate a back-off timer to temporarily suppress sending further SMs to the network entity; receive from the SMS-SC a mobile terminated MT forward short message request; determine whether the network entity is overloaded such that the network entity is applying to a user equipment UE non-access stratum NAS level congestion controls for managing MME/SGSN delivery of a short message SM to the UE; and send to the SMS-SC an MT forward short message answer having information indicating that the network entity is overloaded, in which the MT forward short message answer causes the SMS-SC to initiate a back-off timer to temporarily suppress sending further SMs to the network entity; wherein the SMS-SC is configured to: initiate the back-off timer to temporarily suppress sending further SMs to the network entity.