mhurhangee/ep-ind-claims huggingface dataset:
An electrical steel sheet having an insulating coating on a steel sheet surface, wherein the insulating coating comprises one or more selected from an inorganic salt, an oxide and an organic resin, wherein the insulating coating contains, based on a total mass of the insulating coating, 50% or more by mass in total of: the inorganic salt and/or the oxide, contains a fluorine-containing compound, which has a molecular weight of not more than 100,000 in an amount of 0.3 to 50 parts by mass based on 100 parts by mass of the total solid content of an inorganic material, an oxide, and an organic resin, the fluorine-containing compound being one or more selected from the group consisting of chlorotrifluoroethylene low polymers, perfluoropolyether low polymers, perfluoroalkyl polyether low polymers, fluorine-modified silicones, vinylidene fluoride-tetrafluoroethylene copolymers, vinylidene fluoride-hexafluoropropylene copolymers, and vinylidene fluoride-hexafluoropropylene-tetrafluoroethylene copolymers, has a fluorine concentration ranging from 2 ppm to 130 ppm, and is free of a chromium compound.
A mobile station in a wireless communication network, the mobile station comprising: a transceiver configured to receive, from base stations (101, 103, 104, 105 or 106), information on a system configuration comprising a cyclic redundancy check, CRC, masked with information for indicating the base station; and a processor configured to: identify the information for indicating the base station from the received information on a system configuration; and determine, based on the information for indicating the base stations, accessibility to the base station, wherein the accessibility indicates whether the mobile station is authorized to access the base station. a transceiver configured to receive, from base stations (101, 103, 104, 105 or 106), information on a system configuration comprising a cyclic redundancy check, CRC, masked with information for indicating the base station; and a processor configured to: identify the information for indicating the base station from the received information on a system configuration; and determine, based on the information for indicating the base stations, accessibility to the base station, wherein the accessibility indicates whether the mobile station is authorized to access the base station. identify the information for indicating the base station from the received information on a system configuration; and determine, based on the information for indicating the base stations, accessibility to the base station, wherein the accessibility indicates whether the mobile station is authorized to access the base station.
A safety blade mounting and removal system for removing a blade from a blade axle secured to a product slicer, comprising: a blade removal tool having: A) a tool base; B) a blade engagement assembly attached to the tool base and having a blade engagement actuator cooperating with at least one blade engagement retainer, wherein relative movement of the blade engagement actuator with respect to the tool base from a blade engagement actuator initial position to a blade engagement actuator retaining position produces movement of the at least one blade engagement retainer from a retainer initial position to a retainer retaining position whereby at least a portion of the blade engagement retainer has engaged a portion of the blade to interlock the tool base and the blade; and C) a blade unlocking assembly attached to the tool base and having a blade unlocking actuator cooperating with a blade unlocking post, wherein relative movement of the blade unlocking actuator with respect to the tool base from a blade unlocking actuator initial position to a blade unlocking actuator release position produces rotation of the blade unlocking post from a post initial position to a post release position, which rotates the blade axle or the blade to release the blade from the blade axle; characterized in that the blade engagement assembly and the blade unlocking assembly cooperate so that relative movement of the blade unlocking actuator cannot occur unless the blade engagement actuator is in the blade engagement actuator retaining position, and relative movement of the blade engagement actuator cannot occur when the blade unlocking actuator is in the blade unlocking actuator release position, thereby requiring sequenced movement of both the blade engagement actuator and the blade unlocking actuator to secure the blade to the removal tool and remove the blade from the slicer, and requiring sequenced movement of both the blade engagement actuator and the blade unlocking actuator to release the blade from the removal tool. A) a tool base; B) a blade engagement assembly attached to the tool base and having a blade engagement actuator cooperating with at least one blade engagement retainer, wherein relative movement of the blade engagement actuator with respect to the tool base from a blade engagement actuator initial position to a blade engagement actuator retaining position produces movement of the at least one blade engagement retainer from a retainer initial position to a retainer retaining position whereby at least a portion of the blade engagement retainer has engaged a portion of the blade to interlock the tool base and the blade; and C) a blade unlocking assembly attached to the tool base and having a blade unlocking actuator cooperating with a blade unlocking post, wherein relative movement of the blade unlocking actuator with respect to the tool base from a blade unlocking actuator initial position to a blade unlocking actuator release position produces rotation of the blade unlocking post from a post initial position to a post release position, which rotates the blade axle or the blade to release the blade from the blade axle;
Industrial truck having a sensor device (10a; 10b) for monitoring a surrounding area, wherein a warning signal is generated and/or an intervention in the travel drive of the industrial truck is carried out if an obstacle is detected by the sensor device (10a; 10b) in the surrounding area, wherein the sensor device (10a; 10b) has a detection area (D1; D2) which is oriented to the area in front of a load-lifting means if the industrial truck moves in the direction of travel with the load-lifting means in front, characterized in that the sensor device (10a; 10b) is designed or arranged on the industrial truck in such a manner that an obstacle that is outside a line, which is aligned with the vehicle outer contour of the industrial truck and extends the vehicle outer contour in the direction of travel of the industrial truck, is outside the detection area (D1; D2) of the sensor device (10a; 10b) in which a warning signal is generated and/or an intervention in the travel drive of the industrial truck is carried out.
A drivetrain assembly for a personal care device, the drivetrain assembly comprising: a primary resonator connected to a transmission component drivetrain shaft configured to transmit vibrations generated by the drive train assembly to a brush head member; a secondary resonator configured to reduce vibrations transmitted from the drive train assembly to a body portion of the personal care device; at least one fixed point positioned between the primary resonator and the secondary resonator; a first spring member connected at a first end to the primary resonator and at a second end to one of the at least one fixed points; a second spring member connected at a first end to the secondary resonator and at a second end to one of the at least one fixed points; a coupling spring connected at a first end to the primary resonator and at a second end to the secondary resonator; and an actuator configured to exert force on at least the secondary resonator. a primary resonator connected to a transmission component drivetrain shaft configured to transmit vibrations generated by the drive train assembly to a brush head member; a secondary resonator configured to reduce vibrations transmitted from the drive train assembly to a body portion of the personal care device; at least one fixed point positioned between the primary resonator and the secondary resonator; a first spring member connected at a first end to the primary resonator and at a second end to one of the at least one fixed points; a second spring member connected at a first end to the secondary resonator and at a second end to one of the at least one fixed points; a coupling spring connected at a first end to the primary resonator and at a second end to the secondary resonator; and an actuator configured to exert force on at least the secondary resonator.
Method for the deterministic autoconfiguration of a device (13, 14, 23) in the course of connection to an apparatus (11, 21) with the steps: - in the event of a first-time connection of the device (13, 14, 23) to the apparatus (11, 21), generation of a device-specific configuration data structure, wherein the said configuration data structure identifies the configuration data of the device (13, 14, 23) and the apparatus (11, 21), which configuration data have been determined in the course of the first-time connection of the device (13, 14, 23) to the apparatus (11, 21), and storage of the configuration data structure in the device (13, 14, 23) and/or in the apparatus (11, 21), and - in the event of a renewed connection of the device (13, 14, 23) to the apparatus (11, 21), determination of the first-time configuration data of the device and the apparatus by means of the configuration data structure, and setting up of the device (13, 14, 23) and the apparatus (11, 21) in accordance with the first-time configuration data, wherein the configuration data structure comprises the configuration data of the device (13, 14, 23) and the apparatus (11, 21). - in the event of a first-time connection of the device (13, 14, 23) to the apparatus (11, 21), generation of a device-specific configuration data structure, wherein the said configuration data structure identifies the configuration data of the device (13, 14, 23) and the apparatus (11, 21), which configuration data have been determined in the course of the first-time connection of the device (13, 14, 23) to the apparatus (11, 21), and storage of the configuration data structure in the device (13, 14, 23) and/or in the apparatus (11, 21), and - in the event of a renewed connection of the device (13, 14, 23) to the apparatus (11, 21), determination of the first-time configuration data of the device and the apparatus by means of the configuration data structure, and setting up of the device (13, 14, 23) and the apparatus (11, 21) in accordance with the first-time configuration data, wherein the configuration data structure comprises the configuration data of the device (13, 14, 23) and the apparatus (11, 21).
A cannula (100, 110, 120, 600, 700, 800) with catheter displaceable in the longitudinal direction thereof, in particular a suprapubic cannula for introducing a catheter into a bodily cavity, comprising at least one first cannula portion, such as a longitudinally slit sleeve member, in particular having a circular arcuate section or a circular arc-shaped geometry, with a proximal end and a distal end with puncture tip (32, 632), characterised in that an adjustable protective element (30, 130, 630, 730, 830) protrudes from the inside of the cannula (100, 110, 120), which protective element extends at a distance from the puncture tip when the cannula is in the position of use and which, after displacement of the catheter in the direction of the puncture tip, is carried along by the catheter in such a way that the puncture tip is covered by the protective element or passes through the protective element in places.
A rotor drive system, particularly a rotor drive system of a tail rotor of a helicopter, said system comprising - a stator and a rotor, said rotor being mounted to the stator with a rotatable central carrier and rotor blades radially attached to said rotatable central carrier, said rotor blades defining one rotation plane with their radial central axes and each of said rotor blades being pivotable about their respective radial central axis for variation of blade pitch, - drive means (10, 11) for said rotor, and - pitch control means for said pivotable rotor blades, characterized in that along at least one blade radius at least one permanent magnet (13, 14) is provided on each rotor blade and a plurality of electromagnets on the stator are provided coaxially on at least one stator radius close enough to said at least one blade radius to allow inductive interaction between said plurality of electromagnets and said at least one permanent magnet (13, 14) on each rotor blade, said permanent magnets (13, 14) being fixed to the rotor blades offset from the radial central axis in a direction perpendicular to the rotation plane for individual pitch control of said rotor blades by individual control of the electromagnets connected to electric supply means. - a stator and a rotor, said rotor being mounted to the stator with a rotatable central carrier and rotor blades radially attached to said rotatable central carrier, said rotor blades defining one rotation plane with their radial central axes and each of said rotor blades being pivotable about their respective radial central axis for variation of blade pitch, - drive means (10, 11) for said rotor, and - pitch control means for said pivotable rotor blades,
An apparatus (100, 200) for dealcoholizing alcoholic beverage comprising: - a first receptacle (102, 202) comprising means to receive alcoholic beverage, - a second receptacle (104, 204) comprising means to receive fluid, - a third receptacle (106, 206) at least functionally connected to first receptacle to receive alcoholic beverage from the first receptacle, said third receptacle being further connected to the second receptacle (104, 204), - means for producing vacuum at least functionally connected to at least the third receptacle (106, 206) to lower pressure therein, - fractionating means at least partially inside the second receptacle (104, 204), the fractionating means functionally connecting the second (104, 204) and third receptacle (106, 206), characterized in that the apparatus (100, 200) is arranged to facilitate vacuum distillation for the alcoholic beverage so that the vacuum is produced to the second receptacle (104, 204) and via the fractionating means to the third receptacle (106, 206) wherein vaporizing ethanol from the alcoholic beverage is forced to travel via the fractionating means to the second receptacle (104, 204) so that the vaporized ethanol is dissolved with the fluid in the second receptacle (104, 204). - a first receptacle (102, 202) comprising means to receive alcoholic beverage, - a second receptacle (104, 204) comprising means to receive fluid, - a third receptacle (106, 206) at least functionally connected to first receptacle to receive alcoholic beverage from the first receptacle, said third receptacle being further connected to the second receptacle (104, 204), - means for producing vacuum at least functionally connected to at least the third receptacle (106, 206) to lower pressure therein, - fractionating means at least partially inside the second receptacle (104, 204), the fractionating means functionally connecting the second (104, 204) and third receptacle (106, 206),
A computer implemented method comprising: receiving, by a computer system, data from at least one analytical instrument monitoring at least one liquid sample; executing, by the computer system, a set of logical operations segmenting the received data into data segments for at least two characteristics (152, 154) of at least one of the at least one analytical instrument, the at least one sample, and at least one operating environment of the at least one analytical instrument, wherein the at least two characteristics comprise at least two of noise, wander and drift, and wherein the data segments comprise 0-second to 30-second data segments for noise, 30-second to 5-minute data segments for wander, and 5-minute to n-minute data segments for drift, wherein n is a number less than or equal to 10; executing, by the computer system, a set of logical operations analyzing each of the data segments for the at least two characteristics, resulting in analyzed data segments; retrieving, by the computer system, threshold values for the at least two characteristics from a computer data source; calculating, by the computer system, at least one status of at least one of the at least one analytical instrument, the at least one sample, and the at least one operating environment, with respect to the analyzed data segments and the threshold values; and displaying, by the computer system, the at least one status on at least one display of the at least one analytical instrument. receiving, by a computer system, data from at least one analytical instrument monitoring at least one liquid sample; executing, by the computer system, a set of logical operations segmenting the received data into data segments for at least two characteristics (152, 154) of at least one of the at least one analytical instrument, the at least one sample, and at least one operating environment of the at least one analytical instrument, wherein the at least two characteristics comprise at least two of noise, wander and drift, and wherein the data segments comprise 0-second to 30-second data segments for noise, 30-second to 5-minute data segments for wander, and 5-minute to n-minute data segments for drift, wherein n is a number less than or equal to 10; 0-second to 30-second data segments for noise, 30-second to 5-minute data segments for wander, and 5-minute to n-minute data segments for drift, wherein n is a number less than or equal to 10; executing, by the computer system, a set of logical operations analyzing each of the data segments for the at least two characteristics, resulting in analyzed data segments; retrieving, by the computer system, threshold values for the at least two characteristics from a computer data source; calculating, by the computer system, at least one status of at least one of the at least one analytical instrument, the at least one sample, and the at least one operating environment, with respect to the analyzed data segments and the threshold values; and displaying, by the computer system, the at least one status on at least one display of the at least one analytical instrument.
Method for examining an elongate wood body located under water for infestation with wood pests, in particular wood pests living in the sea, and/or for determining an extent of an infestation with wood pests, in particular wood pests living in the sea, on a wood body, characterized in that a plurality of investigative drillings are carried out by means of a drilling resistance measuring instrument, during which the resistance to which a drilling needle is subjected by the wood body is measured in dependence on the penetration depth when the drilling needle penetrates into the wood body and/or when the drilling needle is pulled out of the wood body, and in that the drilled channels run in different, mutually parallel planes, wherein the planes are arranged perpendicular to an axis of longitudinal extent of the elongate wood body, and in that a. in the case of a circular-cylindrical or semicircular-cylindrical wood body, the investigative drillings are carried out in such a manner that the beginnings of the drilled channels are arranged along a helix curve, and/or in that b. a drilling template is fastened to the wood body and defines the beginnings of the drilled channels, wherein the drilling template has an alignment element which interacts with an alignment attachment of the drilling resistance measuring instrument. a. in the case of a circular-cylindrical or semicircular-cylindrical wood body, the investigative drillings are carried out in such a manner that the beginnings of the drilled channels are arranged along a helix curve, and/or in that b. a drilling template is fastened to the wood body and defines the beginnings of the drilled channels, wherein the drilling template has an alignment element which interacts with an alignment attachment of the drilling resistance measuring instrument.
A lighting unit comprising: a circuit substrate having an obverse side and a reverse side, the obverse side including a plurality of mounting points for light emitting diodes, LEDs; and a heat sink (200, 500, 600, 700) having a hollow conical-frustum geometry which includes at least one cooling fin projecting into an interior of the heat sink (200, 500, 600, 700), and an exterior surface which is bonded to the reverse side of the circuit substrate, wherein a bottom circumference of the heat sink (200, 500, 600, 700) is less than a top circumference of the heat sink (200, 500, 600, 700); wherein the heat sink (200, 500, 600, 700) comprises a slot, characterized in that the circuit substrate further has a tab, wherein a controller is disposed on the tab and the tab is inserted into the slot such that the controller is disposed inside the interior of the heat sink (200, 500, 600, 700); and in that the tab is affixed to at least one cooling fin. a circuit substrate having an obverse side and a reverse side, the obverse side including a plurality of mounting points for light emitting diodes, LEDs; and a heat sink (200, 500, 600, 700) having a hollow conical-frustum geometry which includes at least one cooling fin projecting into an interior of the heat sink (200, 500, 600, 700), and an exterior surface which is bonded to the reverse side of the circuit substrate, wherein a bottom circumference of the heat sink (200, 500, 600, 700) is less than a top circumference of the heat sink (200, 500, 600, 700); wherein the heat sink (200, 500, 600, 700) comprises a slot, characterized in that the circuit substrate further has a tab, wherein a controller is disposed on the tab and the tab is inserted into the slot such that the controller is disposed inside the interior of the heat sink (200, 500, 600, 700); and in that the tab is affixed to at least one cooling fin.
A method for determining a control resource set, applied to a user equipment of a communication system, wherein the communication system further comprises a network device, and the method comprises: acquiring configuration information of a control resource set corresponding to a bandwidth part, BWP, sent by the network device; determining first location information of the control resource set in a first sub-band according to the configuration information, wherein the first sub-band is at least one sub-band in a plurality of sub-bands in the BWP, and the first sub-band is a sub-band configured with the control resource set among the plurality of sub-bands in the BWP; determining second location information of the control resource set in a second sub-band according to the first location information, wherein the second sub-band is a sub-band in the plurality of sub-bands except the first sub-band, and the second sub-band is a sub-band in which no control resource set is pre-configured; and monitoring the control resource set at the second location information in the second sub-band. acquiring configuration information of a control resource set corresponding to a bandwidth part, BWP, sent by the network device; determining first location information of the control resource set in a first sub-band according to the configuration information, wherein the first sub-band is at least one sub-band in a plurality of sub-bands in the BWP, and the first sub-band is a sub-band configured with the control resource set among the plurality of sub-bands in the BWP; determining second location information of the control resource set in a second sub-band according to the first location information, wherein the second sub-band is a sub-band in the plurality of sub-bands except the first sub-band, and the second sub-band is a sub-band in which no control resource set is pre-configured; and monitoring the control resource set at the second location information in the second sub-band.