mhurhangee/patent-ind-claim-en huggingface dataset:
Amine-functional adduct from the reaction of - at least one amine of the formula (I), Z-NH-A-NH-CH 2 -Y (I) where A is a divalent alkylene, cycloalkylene or arylalkylene radical having 2 to 15 carbon atoms, Z is H or ---CH 2 -Y, and Y is H or an alkyl, cycloalkyl, aralkyl or aryl radical having 1 to 11 carbon atoms, wherein the two nitrogen atoms to which the A radical is attached are separated from one another by at least two carbon atoms and the amine of the formula (I) contains a total of at least 8 carbon atoms, - with at least one novolak epoxy resin having an average functionality in the range from 2.5 to 4. - at least one amine of the formula (I), Z-NH-A-NH-CH 2 -Y (I) where A is a divalent alkylene, cycloalkylene or arylalkylene radical having 2 to 15 carbon atoms, Z is H or ---CH 2 -Y, and Y is H or an alkyl, cycloalkyl, aralkyl or aryl radical having 1 to 11 carbon atoms, wherein the two nitrogen atoms to which the A radical is attached are separated from one another by at least two carbon atoms and the amine of the formula (I) contains a total of at least 8 carbon atoms, A is a divalent alkylene, cycloalkylene or arylalkylene radical having 2 to 15 carbon atoms, Z is H or ---CH 2 -Y, and Y is H or an alkyl, cycloalkyl, aralkyl or aryl radical having 1 to 11 carbon atoms, wherein the two nitrogen atoms to which the A radical is attached are separated from one another by at least two carbon atoms and the amine of the formula (I) contains a total of at least 8 carbon atoms, - with at least one novolak epoxy resin having an average functionality in the range from 2.5 to 4.
A piezoelectric composition comprising a plurality of crystal particles , wherein the piezoelectric composition includes bismuth, iron, barium, titanium, and oxygen; characterised in that the crystal particles include a core and a shell having a content of bismuth higher than that in the core and covering the core; and a total area of cross sections of the cores exposed to a cross section of the piezoelectric composition is expressed as S CORE , a total area of cross sections of the shells exposed to the cross section of the piezoelectric composition is expressed as S SHELL , and 100·S CORE /(S CORE + S SHELL ) is 50 to 90.
Method for controlling a rotational speed (n) of a load machine on a test bench, the load machine being connected to a test object via a shaft, wherein a rotational speed reference variable (n lead ) for a controller is generated from a rotational speed setpoint value (n set ), characterized in that an adapted rotational speed setpoint value (n adapt ) is determined taking into consideration a rotation angle actual value (φ act ) and a rotation angle setpoint value (φ set ), the rotation angle setpoint value (φ set ) being determined as an integrated value from the rotational speed setpoint value (n set ), wherein the rotational speed reference variable (n lead ) is switched between the rotational speed setpoint value (n set ) and the adapted rotational speed setpoint value (n adapt ) as a function of the rotational speed.
A gas analyzer for measuring predetermined components in a measurement gas (G) introduced into a measurement cell by irradiating the measurement gas (G) with light (L) from a light emitter and receiving the light (L) passing through the measurement gas (G) with a light receiver, the gas analyzer comprising: a measurement cell comprising an inner tube ; an outer tube surrounding the inner tube and defining an annular space between the inner tube and the outer tube , the annular space extending from a first axial end to a second axial end of the inner and outer tubes ; a supply arranged at the second axial end for supplying the measurement gas (G) into the annular space; an introduction port arranged at the first axial end for introducing the measurement gas (G) into the inner tube ; and means for introducing the measurement gas (G) into the introduction port from the annular space between the inner tube and the outer tube . a measurement cell comprising an inner tube ; an outer tube surrounding the inner tube and defining an annular space between the inner tube and the outer tube , the annular space extending from a first axial end to a second axial end of the inner and outer tubes ; a supply arranged at the second axial end for supplying the measurement gas (G) into the annular space; an introduction port arranged at the first axial end for introducing the measurement gas (G) into the inner tube ; and means for introducing the measurement gas (G) into the introduction port from the annular space between the inner tube and the outer tube .
A composition comprising isolated strains of saprophytic soil bacteria: Arthrobacter sp . strain 1.4, Bacillus sp. strain 202B, Bacillus sp. strain 233, Bacillus sp. strain 307A, Citrobacter sp . strain 6A, Peanibacillus sp. strain 45, Pseudomonas sp. strain 23 (W), Pseudomonas sp. strain 60 (W) and deposited under the deposit number B/00148 in the Polish Collection of Microorganisms PCM.
Method for encapsulating a component using an inorganic light-transparent material and using an inorganic light-absorbing means, characterized in that the light-absorbing means is heated for a duration of less than one second with the aid of at least one gas discharge lamp for the hermetic bonding of the component to the light-transparent material.
An apparatus , comprising: a first circuit (322-J1); a second circuit (322-J2); a power gating circuit (310-J) configured to generate a first load current (I LJ1 ) through the first circuit (322-J1) and a second load current (I LJ2 ) through the second circuit (322-J2); the apparatus is characterized by a current sensor configured to generate a first signal related to the first load current and the second load current, wherein the current sensor includes a first ring oscillator (335-J) comprising: a first set of one or more inverters (I J21 ) coupled to a first node (VD1) between the power gating circuit (310-J) and the first circuit (322-J1) and a first voltage rail (VSS, VDD J ), respectively, and a second set of one or more inverters (I J22 ) coupled to a second node (VD2) between the power gating circuit (310-J) and the second circuit (322-J2) and the first voltage rail (VSS, VDD J ), respectively. a first circuit (322-J1); a second circuit (322-J2); a power gating circuit (310-J) configured to generate a first load current (I LJ1 ) through the first circuit (322-J1) and a second load current (I LJ2 ) through the second circuit (322-J2); the apparatus is characterized by a current sensor configured to generate a first signal related to the first load current and the second load current, wherein the current sensor includes a first ring oscillator (335-J) comprising: a first set of one or more inverters (I J21 ) coupled to a first node (VD1) between the power gating circuit (310-J) and the first circuit (322-J1) and a first voltage rail (VSS, VDD J ), respectively, and a second set of one or more inverters (I J22 ) coupled to a second node (VD2) between the power gating circuit (310-J) and the second circuit (322-J2) and the first voltage rail (VSS, VDD J ), respectively. a first set of one or more inverters (I J21 ) coupled to a first node (VD1) between the power gating circuit (310-J) and the first circuit (322-J1) and a first voltage rail (VSS, VDD J ), respectively, and a second set of one or more inverters (I J22 ) coupled to a second node (VD2) between the power gating circuit (310-J) and the second circuit (322-J2) and the first voltage rail (VSS, VDD J ), respectively.
A method of operating a system , comprising: capturing an image of a plurality of indicia; displaying the captured image on a display of the system; detecting and marking the indicia on the display; providing augmented details of each of the plurality of indicia on the display; characterized by determining if at least one of the plurality of indicia is using different symbology than the other indicia and, if so, providing a guide to enable configuration of the system for reading all the plurality of indicia; and presenting on the display a predetermined sequencing criteria. capturing an image of a plurality of indicia; displaying the captured image on a display of the system; detecting and marking the indicia on the display; providing augmented details of each of the plurality of indicia on the display; characterized by determining if at least one of the plurality of indicia is using different symbology than the other indicia and, if so, providing a guide to enable configuration of the system for reading all the plurality of indicia; and presenting on the display a predetermined sequencing criteria.
An apparatus associated with a user equipment in a communication system employing network slicing, comprising: processing circuitry , configured to: select a pre-configured access category indicating a priority of communication with said communication system , said pre-configured access category based on a criterion dependent on a network slice; perform a barring check based on said pre-configured access category; and cause transmission of an access message in accordance with the barring check and a random access procedure with said communication system . select a pre-configured access category indicating a priority of communication with said communication system , said pre-configured access category based on a criterion dependent on a network slice; perform a barring check based on said pre-configured access category; and cause transmission of an access message in accordance with the barring check and a random access procedure with said communication system .
A method of mass spectrometry comprising: providing a library of measured background component data, the measured background component data comprising, for each one of one or more chromatographic conditions, one or more physico-chemical properties of one or more background components expected to be detected when performing chromatographic separation under the condition; chromatographically separating a sample, the sample containing one or more analyte components, wherein at least some of the chromatographic separation is performed under a chromatographic condition in respect of which background component data is provided in the library; obtaining output data including sample data comprising one or more physico-chemical properties of one or more sample components as a function of retention time; characterised in that the method further comprises: calculating one or more error values based on a comparison between one or more background components identified in the output data and background component data obtained from the library of background component data; calculating one or more adjustment or correction values based on said one or more error values; and adjusting or correcting mass spectral data associated with said sample using said one or more adjustment or correction values. providing a library of measured background component data, the measured background component data comprising, for each one of one or more chromatographic conditions, one or more physico-chemical properties of one or more background components expected to be detected when performing chromatographic separation under the condition; chromatographically separating a sample, the sample containing one or more analyte components, wherein at least some of the chromatographic separation is performed under a chromatographic condition in respect of which background component data is provided in the library; obtaining output data including sample data comprising one or more physico-chemical properties of one or more sample components as a function of retention time; characterised in that the method further comprises: calculating one or more error values based on a comparison between one or more background components identified in the output data and background component data obtained from the library of background component data; calculating one or more adjustment or correction values based on said one or more error values; and adjusting or correcting mass spectral data associated with said sample using said one or more adjustment or correction values. calculating one or more error values based on a comparison between one or more background components identified in the output data and background component data obtained from the library of background component data; calculating one or more adjustment or correction values based on said one or more error values; and adjusting or correcting mass spectral data associated with said sample using said one or more adjustment or correction values.
A method of deriving a scaled MV (motion vector) for a current block based on a candidate MV associated with a candidate block, the method comprising: determining first picture distance tb between a current picture corresponding to the current block and a target reference picture pointed to by a current motion vector of the current block; determining second picture distance td between a candidate picture corresponding to the candidate block and a candidate reference picture pointed to by the candidate MV of the candidate block; determining a distance ratio corresponding to a ratio of a first distance value to a second distance value, wherein the first distance value is associated with the first picture distance and the second distance value is associated with the second picture distance; and generating the scaled MV based on the candidate MV according to the distance ratio, wherein the scaled MV has an effective scaling ratio between -a and b, characterized in that a first value ix is determined according to ix = (2 k + | td /2|) / td; a distance scaling factor DistScalefactor is determined according to DistScalefactor = clip ( -p, ( p-1 ), ( t b ∗ ix +(1<<( q- 1)))>> q ) , wherein clip ( u,v,w ) is a clipping function that limits w to a range between u and v ; a scaled MV component scaled_MV_xy is generated based on a candidate MV component of the candidate MV, MV_xy according to scaled_MV_xy = ( DistScaleFactor ∗ MV_xy + ( 1 <<( m -1)) - 1 + ((( DistScaleFactor ∗ MV_xy )<0)?1:0)) >> m; and k, p, q and m are positive integers, p is larger than 1024, k = q + m, p / 2 m > 4, and a = b = p / 2 m . determining first picture distance tb between a current picture corresponding to the current block and a target reference picture pointed to by a current motion vector of the current block; determining second picture distance td between a candidate picture corresponding to the candidate block and a candidate reference picture pointed to by the candidate MV of the candidate block; determining a distance ratio corresponding to a ratio of a first distance value to a second distance value, wherein the first distance value is associated with the first picture distance and the second distance value is associated with the second picture distance; and generating the scaled MV based on the candidate MV according to the distance ratio, wherein the scaled MV has an effective scaling ratio between -a and b, characterized in that a first value ix is determined according to ix = (2 k + | td /2|) / td; a distance scaling factor DistScalefactor is determined according to DistScalefactor = clip ( -p, ( p-1 ), ( t b ∗ ix +(1<<( q- 1)))>> q ) , wherein clip ( u,v,w ) is a clipping function that limits w to a range between u and v ; a scaled MV component scaled_MV_xy is generated based on a candidate MV component of the candidate MV, MV_xy according to scaled_MV_xy = ( DistScaleFactor ∗ MV_xy + ( 1 <<( m -1)) - 1 + ((( DistScaleFactor ∗ MV_xy )<0)?1:0)) >> m; and k, p, q and m are positive integers, p is larger than 1024, k = q + m, p / 2 m > 4, and a = b = p / 2 m .
A method for obtaining a digital model of a heat treatment fixture for fabricating an orthodontic appliance, comprising: obtaining original tooth arrangement (OTA) data representing a patient's gingiva and teeth in the OTA; obtaining final tooth arrangement (FTA) data representing the patient's gingiva and teeth in the FTA; and obtaining a digital model of a heat treatment fixture based on the OTA and FTA data, the digital model comprising (a) a gingival surface , and (b) a securing portion characterizing a position of one or more of the patient's teeth in the FTA, wherein the heat treatment fixture is configured to be releasably secured to an orthodontic appliance configured to move the patient's teeth from the OTA to the FTA such that the orthodontic appliance has a shape based at least in part on a shape of the heat treatment fixture . obtaining original tooth arrangement (OTA) data representing a patient's gingiva and teeth in the OTA; obtaining final tooth arrangement (FTA) data representing the patient's gingiva and teeth in the FTA; and obtaining a digital model of a heat treatment fixture based on the OTA and FTA data, the digital model comprising (a) a gingival surface , and (b) a securing portion characterizing a position of one or more of the patient's teeth in the FTA, wherein the heat treatment fixture is configured to be releasably secured to an orthodontic appliance configured to move the patient's teeth from the OTA to the FTA such that the orthodontic appliance has a shape based at least in part on a shape of the heat treatment fixture .
Sound-absorbing structural component, in particular for outdoor use, comprising a sound-absorbing cover layer as well as sound-absorbing elements embedded therein with an increased degree of absorption compared with the cover layer , wherein the surface of the cover layer facing in the direction of the sound source is designed flat, wherein the sound absorbing elements are fully or partially embedded in the cover layer and are arranged spaced with regard to each other, wherein an absorption surface of the sound-absorbing elements lies in a plane parallel to the cover layer, wherein in this plane the surface taken up by the sound-absorbing elements is smaller than the area not taken up by sound-absorbing elements, characterised in that sound-absorbing elements with an increased degree of absorption also comprise a frame element which is made of a sound-reflecting material and frames the sound-absorbing element on one or more sides, wherein at least the absorption surface remains open to sound.
A method performed by a network operation management apparatus (30-1, 130A) configured for communication with a plurality of radio base stations comprising a first radio base station (10-1, 110) and a second radio base station (20-1, 120) neighboring the first radio base station, said method comprising: receiving, from the first base radio station, network measurement information; detecting , based on the received network measurement information, occurrence of a failure in the first radio base station, and in response thereto: sending to the first radio base station an instruction for self-recovery activation; sending to the second radio base station alarm information indicating said occurrence of a failure; receiving from the first radio base station an indication that the first radio base station has completed self-recovery; and sending to the second radio base station, in response to receiving the indication that the first radio base station has completed self-recovery, an information that the first radio base station has completed self-recovery. sending to the first radio base station an instruction for self-recovery activation; sending to the second radio base station alarm information indicating said occurrence of a failure; receiving from the first radio base station an indication that the first radio base station has completed self-recovery; and sending to the second radio base station, in response to receiving the indication that the first radio base station has completed self-recovery, an information that the first radio base station has completed self-recovery.
A pump assembly comprising - an impeller with a rotor axis (R), - a pump housing accommodating the impeller , - a drive motor with a stator and a rotor for driving the impeller , - a rotor can accommodating the rotor , and - a stator housing accommodating the stator , wherein the rotor can is mounted by a first coupling to the pump housing , wherein the stator housing is mounted by a second coupling to the pump housing , wherein the first coupling is located closer to the rotor axis (R) than the second coupling, wherein the rotor can has a first axial end facing the impeller and a second axial end facing away from the impeller , wherein the first axial end is open and the second axial end is closed, wherein the rotor can comprises a rotor can flange at the first axial end , and wherein the first coupling is provided by a securing member being located around the rotor can and securing the rotor can flange against the pump housing , characterized in that the securing member is a union nut with an opening through which the rotor can protrudes. - an impeller with a rotor axis (R), - a pump housing accommodating the impeller , - a drive motor with a stator and a rotor for driving the impeller , - a rotor can accommodating the rotor , and - a stator housing accommodating the stator ,
A method , comprising: generating an equalized distribution from one or more authentic messages transmitted, by an attacked electronic control unit, ECU, with a unique message identification, MID, based on a number of expected authentic messages and a total number of a plurality of messages received with the unique MID; subtracting the equalized distribution from an accumulated distribution for messages transmitted with the unique MID to generate an attacker distribution; determining , for one or more of a plurality of other distributions, whether an error between the attacker distribution and a one of the plurality of other distributions is less than or equal to a threshold error; generating a retrained distribution for the unique MID based on a difference between the attacker distribution and the accumulated distribution for messages transmitted with the unique MID responsive to a determination that the error between the attacker distribution and the one of the plurality of other distributions is less than or equal to the threshold error; updating a fingerprint associated with the unique MID based on the retrained distribution; and flagging the ECU associated with the one of the plurality of other distributions as an attacker ECU responsive to the determination that the error between the attacker distribution and the one of the plurality of other distributions is less than or equal to the threshold error. generating an equalized distribution from one or more authentic messages transmitted, by an attacked electronic control unit, ECU, with a unique message identification, MID, based on a number of expected authentic messages and a total number of a plurality of messages received with the unique MID; subtracting the equalized distribution from an accumulated distribution for messages transmitted with the unique MID to generate an attacker distribution; determining , for one or more of a plurality of other distributions, whether an error between the attacker distribution and a one of the plurality of other distributions is less than or equal to a threshold error; generating a retrained distribution for the unique MID based on a difference between the attacker distribution and the accumulated distribution for messages transmitted with the unique MID responsive to a determination that the error between the attacker distribution and the one of the plurality of other distributions is less than or equal to the threshold error; updating a fingerprint associated with the unique MID based on the retrained distribution; and flagging the ECU associated with the one of the plurality of other distributions as an attacker ECU responsive to the determination that the error between the attacker distribution and the one of the plurality of other distributions is less than or equal to the threshold error.