mhurhangee/patent-ind-claim-en huggingface dataset:
An ethylene copolymer composition comprising a copolymer blend of: an ethylene copolymer fraction (A) having Mooney Viscosity within the range from 14 to 40 MU (MST, 5+4 @ 200°C), measured as described in the description, and corrected Mooney Small-Thin Relaxation Area (cMSTRA, normalized to 50 MU (MST, 5+4 @ 200°C) reference) of at least 600 MU-sec, measured as described in the description, wherein the ethylene copolymer fraction (A) comprises 30 to 80 wt% ethylene-derived units, units derived from one or more C 3 to C 20 α-olefins, and 0 to 10 wt% polyene-derived units, said wt%s based on the weight of the ethylene copolymer fraction (A); and a linear ethylene copolymer fraction (B) having Mooney Viscosity within the range from 5 to 100 MU (ML, 1+4 @ 125°C), measured as described in the description, and corrected Mooney Large Relaxation Area (cMLRA, normalized to 80 MU (ML, 1+4 @ 125°C) reference) within the range from 15 to 350 MU-sec, measured as described in the description, wherein the linear ethylene copolymer fraction (B) comprises 30 to 80 wt% ethylene-derived units, units derived from one or more C 3 to C 20 α-olefins, and 0 to 10 wt% polyene-derived units, said wt%s based on the weight of the ethylene copolymer fraction (B). an ethylene copolymer fraction (A) having Mooney Viscosity within the range from 14 to 40 MU (MST, 5+4 @ 200°C), measured as described in the description, and corrected Mooney Small-Thin Relaxation Area (cMSTRA, normalized to 50 MU (MST, 5+4 @ 200°C) reference) of at least 600 MU-sec, measured as described in the description, wherein the ethylene copolymer fraction (A) comprises 30 to 80 wt% ethylene-derived units, units derived from one or more C 3 to C 20 α-olefins, and 0 to 10 wt% polyene-derived units, said wt%s based on the weight of the ethylene copolymer fraction (A); and a linear ethylene copolymer fraction (B) having Mooney Viscosity within the range from 5 to 100 MU (ML, 1+4 @ 125°C), measured as described in the description, and corrected Mooney Large Relaxation Area (cMLRA, normalized to 80 MU (ML, 1+4 @ 125°C) reference) within the range from 15 to 350 MU-sec, measured as described in the description, wherein the linear ethylene copolymer fraction (B) comprises 30 to 80 wt% ethylene-derived units, units derived from one or more C 3 to C 20 α-olefins, and 0 to 10 wt% polyene-derived units, said wt%s based on the weight of the ethylene copolymer fraction (B).
Cable protecting device for protecting cables extending over a feature on a pipe surface, said feature having a known length outside said pipe circumference and having a first and second end surface, the cable protecting device having a length in the direction of the pipe being longer than the said feature , and comprising a channel for enclosing the cable to be protected and a recess in the inner surface adapted for containing at least a part of the feature and the features first and second end surfaces, the ends of said protecting device at least partially covering the corresponding parts of the feature ends, wherein the length of the recess corresponds essentially to the length of the feature , each end of said recess being provided with engaging means adapted to engage with the corresponding end surfaces of the feature , thus fixing the cable protecting device to the feature , wherein the cable protecting device is made in one piece, and characterized by including a flexible spring section in the section extending over the recess, between the first and second ends of the cable protecting device .
a cord lock comprising: a housing having a base and one or more sidewalls extending from the base to at least partially define a plunger-receiving space, the one or more sidewalls including a first through-channel, the housing including a first magnet that has a first pole with a first polarity and a second pole with a second polarity and that is positioned in the plunger-receiving space; a plunger including a second through-channel that is alignable with the first through-channel when the plunger is positioned in the plunger-receiving space, the plunger having a second magnet that has a third pole with the first polarity and a fourth pole with the second polarity, wherein the first polarity of the first pole and the first polarity of the third pole are a same polarity, and wherein the first pole and the third pole are oriented towards each other, such that the first polarity of the first pole and the first polarity of the third pole bias the second magnet away from the first magnet to dealign the first through-channel and the second through-channel; the cord lock being characterized in that it further comprises a cord-retention cap having a third magnet that has a fifth pole with the first polarity and a sixth pole with the second polarity, wherein the first polarity of the fifth pole and the second polarity of the fourth pole are an opposite polarity, and wherein the fifth pole and the fourth pole are oriented towards each other, such that the first polarity of the fifth pole and the second polarity of the fourth pole attract the third magnet toward the second magnet .
An apparatus for extracting coffee , comprising: an input unit receiving a command for controlling an operation of the apparatus for extracting coffee; a heater heating water supplied to a coffee flow path, in order to extract coffee; a temperature sensor measuring a temperature of the heater; the apparatus being characterized by : an input voltage acquisition unit obtaining an input voltage value applied to the apparatus for extracting coffee; and a control unit determining a possibility of extracting coffee by detecting an operation of the apparatus for extracting coffee and controlling a preheating operation of the heater , based on the input voltage value obtained by the input voltage acquisition unit and the temperature of the heater, measured by the temperature sensor , in a case in which the possibility of extracting coffee is determined to be relatively high wherein the control unit determines that the possibility of extracting coffee is relatively high, when an operation is detected among: a case in which an operation of flushing the coffee flow path is finished after initial power is applied to the apparatus for extracting coffee, and a case in which coffee extraction is finished by the apparatus for extracting coffee. an input unit receiving a command for controlling an operation of the apparatus for extracting coffee; a heater heating water supplied to a coffee flow path, in order to extract coffee; a temperature sensor measuring a temperature of the heater; the apparatus being characterized by : an input voltage acquisition unit obtaining an input voltage value applied to the apparatus for extracting coffee; and a control unit determining a possibility of extracting coffee by detecting an operation of the apparatus for extracting coffee and controlling a preheating operation of the heater , based on the input voltage value obtained by the input voltage acquisition unit and the temperature of the heater, measured by the temperature sensor , in a case in which the possibility of extracting coffee is determined to be relatively high an input voltage acquisition unit obtaining an input voltage value applied to the apparatus for extracting coffee; and a control unit determining a possibility of extracting coffee by detecting an operation of the apparatus for extracting coffee and controlling a preheating operation of the heater , based on the input voltage value obtained by the input voltage acquisition unit and the temperature of the heater, measured by the temperature sensor , in a case in which the possibility of extracting coffee is determined to be relatively high
Process for separating elastic shells stacked into one another, the opening of which is at least sectionally encompassed by a collar projecting outwards, wherein in a first step first carriers are arranged in a first plane at a small distance and the collar of a terminal shell of the stack rests thereon and second carriers , which are arranged in a second plane parallel to the first plane at a larger distance from one another, in a second step are moved into a smaller distance, so that the second carriers are moved against the collar of a terminal shell , resting on the first carriers and compress this collar into the smaller distance between the second carriers , in a third step in the state in which the first carriers have been moved into their smaller distance and the second carriers have been moved into their smaller distance so that the collar of a terminal shell rests on the first carriers and the collar of a penultimate shell stacked into this terminal shell rests on the second carriers , the first carriers are moved into a greater distance and, in a simultaneous or subsequent fourth step, a suction gripper is moved against and suctioned against the bottom or the wall of the terminal shell and is moved into a greater distance from the first plane , wherein upon compressing the collar of the terminal shell , the second carriers are moved below the projecting collar of the penultimate shell that is stacked adjacent to the terminal shell of the stack.
A construction machine , comprising: an operation data acquisition part that acquires operation data about a specific manipulation by an operator to a manipulation target included in the construction machine; an acceleration and deceleration data specifying part that specifies acceleration data being operation data in an acceleration period of the manipulation target and deceleration data being operation data in a deceleration period of the manipulation target among the operation data; an evaluation data acquisition part that acquires acceleration evaluation data for evaluating the acceleration data, and deceleration evaluation data for evaluating the deceleration data; an evaluation value calculation part that calculates, on the basis of the acceleration data and the acceleration evaluation data, an acceleration evaluation value indicating a skill of the operator in the acceleration period, and calculates, on the basis of the deceleration data and the deceleration evaluation data, a deceleration evaluation value indicating a skill of the operator in the deceleration period; a manipulation type determination part that determines, on the basis of the acceleration evaluation value and the deceleration evaluation value, a manipulation type of the operator; and a notification part that gives notification of support information associated with the manipulation type determined by the manipulation type determination part. an operation data acquisition part that acquires operation data about a specific manipulation by an operator to a manipulation target included in the construction machine; an acceleration and deceleration data specifying part that specifies acceleration data being operation data in an acceleration period of the manipulation target and deceleration data being operation data in a deceleration period of the manipulation target among the operation data; an evaluation data acquisition part that acquires acceleration evaluation data for evaluating the acceleration data, and deceleration evaluation data for evaluating the deceleration data; an evaluation value calculation part that calculates, on the basis of the acceleration data and the acceleration evaluation data, an acceleration evaluation value indicating a skill of the operator in the acceleration period, and calculates, on the basis of the deceleration data and the deceleration evaluation data, a deceleration evaluation value indicating a skill of the operator in the deceleration period; a manipulation type determination part that determines, on the basis of the acceleration evaluation value and the deceleration evaluation value, a manipulation type of the operator; and a notification part that gives notification of support information associated with the manipulation type determined by the manipulation type determination part.
A method for manufacturing an individualized immobilization element for the non-invasive immobilization and/or mobilization of at least a segment of a body part of a patient at a predetermined position relative to a reference and/or in a predetermined configuration, wherein the method comprises the steps of (i) providing a data set that comprises a three-dimensional image of an outer contour of at least a portion of the segment of the body part to be immobilized and/or mobilized and (ii) manufacturing of at least a part of the immobilization element by additive manufacturing of a shape based on said data set, using a polymeric material containing a thermoplastic polymer having a melting point less than or equal to 100°C, wherein the polymer material contains a nucleating agent capable of enhancing crystallization of the thermoplastic polymer, wherein at least a portion of an inner surface of the shape has an inner contour which is complementary to the outer contour of the segment of the body part to be immobilized and/or mobilized.
A computer implemented method for selective volume rendering of 3D volumetric data from a patient, the method comprising: - obtaining a 3D volumetric data set comprising data for a first and a second anatomical structure in the patient's body; - obtaining a first digital 3D representation, wherein the first digital 3D representation comprises a first surface scan having a first portion with a topography surface of the first anatomical structure; - defining a bounding box having a first clipping surface and a second clipping surface , the bounding box defining a portion of the 3D volumetric data set to be used in volume rendering; - replacing the first clipping surface at least partly with the topography surface of the first anatomical structure; and - generating a 2D projection of the first anatomical structure by volume rendering of the set of 3D volumetric data defined by the bounding box, where the replaced first clipping surface is applied to exclude 3D volumetric data relating to the second anatomical structure. - obtaining a 3D volumetric data set comprising data for a first and a second anatomical structure in the patient's body; - obtaining a first digital 3D representation, wherein the first digital 3D representation comprises a first surface scan having a first portion with a topography surface of the first anatomical structure; - defining a bounding box having a first clipping surface and a second clipping surface , the bounding box defining a portion of the 3D volumetric data set to be used in volume rendering; - replacing the first clipping surface at least partly with the topography surface of the first anatomical structure; and - generating a 2D projection of the first anatomical structure by volume rendering of the set of 3D volumetric data defined by the bounding box, where the replaced first clipping surface is applied to exclude 3D volumetric data relating to the second anatomical structure.
Track part , in particular switch frog , comprising a running surface for a wheel of a rail vehicle, an underside opposite the running surface and at least one cavity open towards the underside , wherein vibration damping means are arranged in the cavity , characterized in that the vibration damping means are formed by a composite material arranged in the cavity which comprises an elastomeric foam and pieces of a lumpy addition distributed within the elastomeric foam.
A processor comprising: a first control register of a core of the processor to store a first base address associated with program code executed at a first privilege level; a second control register of the core to store a second base address associated with program code executed at a second privilege level lower than the first privilege level; and address translation circuitry of the core to identify a first base translation table using the first base address responsive to a first address translation request originating from the program code executed at the first privilege level and to identify a second base translation table using the second base address responsive to a second address translation request originating from the program code executed at the second privilege level, and a third control register to store a context identifier to identify a context for at least a portion of the program code executed at the second privilege level. a first control register of a core of the processor to store a first base address associated with program code executed at a first privilege level; a second control register of the core to store a second base address associated with program code executed at a second privilege level lower than the first privilege level; and address translation circuitry of the core to identify a first base translation table using the first base address responsive to a first address translation request originating from the program code executed at the first privilege level and to identify a second base translation table using the second base address responsive to a second address translation request originating from the program code executed at the second privilege level, and a third control register to store a context identifier to identify a context for at least a portion of the program code executed at the second privilege level.
Indicator generating method for generating an indicator which is suitable for maintenance prediction of a water heating system , the water heating system comprising a water tank containing water to be heated by a heating device , a power state indication device and a monitoring device , the method comprising: the power state indication device generating at least a high power consumption signal or a low power consumption signal and a high power consumption signal each based on the power consumption of the heating device ; the monitoring device determining a condition-based degradation indicator based on the time duration of the high power consumption signal, wherein the monitoring device outputs the condition-based degradation indicator for further processing in a predictive maintenance device , characterised in that the monitoring device determines the condition-based degradation indicator also based on the time interval between two subsequent high power consumption signals and/or wherein the monitoring device determines a reheating frequency , which is the time interval between two subsequent high power consumption signals, and additionally outputs reheating frequency as a condition-based degradation indicator. the power state indication device generating at least a high power consumption signal or a low power consumption signal and a high power consumption signal each based on the power consumption of the heating device ; the monitoring device determining a condition-based degradation indicator based on the time duration of the high power consumption signal, wherein the monitoring device outputs the condition-based degradation indicator for further processing in a predictive maintenance device , characterised in that the monitoring device determines the condition-based degradation indicator also based on the time interval between two subsequent high power consumption signals and/or wherein the monitoring device determines a reheating frequency , which is the time interval between two subsequent high power consumption signals, and additionally outputs reheating frequency as a condition-based degradation indicator.
A method of wireless communication for a user equipment, UE , comprising: detecting at least one interfering signal; determining properties of the at least one interfering signal, the properties including at least a type of wireless technology, wherein the type of wireless technology comprises a classification of the at least one interfering signal as being in accordance with a Wi-Fi wireless technology or a Long Term Evolution, LTE, wireless technology; and transmitting information indicating the properties of each of the at least one interfering signal to a serving evolved Node B, eNB . detecting at least one interfering signal; determining properties of the at least one interfering signal, the properties including at least a type of wireless technology, wherein the type of wireless technology comprises a classification of the at least one interfering signal as being in accordance with a Wi-Fi wireless technology or a Long Term Evolution, LTE, wireless technology; and transmitting information indicating the properties of each of the at least one interfering signal to a serving evolved Node B, eNB .
A bispecific or multispecific antibody comprising: a. a first light chain/heavy chain pair comprising a first VL and a first VH region having a first binding specificity and comprising a first kappa light chain constant region and a first heavy chain constant region; and b. a second light chain/heavy chain pair comprising a second VL and a second VH region having a second binding specificity and comprising a second kappa light chain constant region and a second heavy chain constant region; wherein the first and second light chains are human or humanized kappa light chains and said first kappa light chain comprises an amino acid substitution selected from V110D, V110R, V110E, V110H, V110K, V110N, V110P, V110Q, V110W or E143D when using the EU numbering system. a. a first light chain/heavy chain pair comprising a first VL and a first VH region having a first binding specificity and comprising a first kappa light chain constant region and a first heavy chain constant region; and b. a second light chain/heavy chain pair comprising a second VL and a second VH region having a second binding specificity and comprising a second kappa light chain constant region and a second heavy chain constant region;
A method for correcting an initial zero position deviation, applied to a permanent magnet synchronous motor and a resolver , comprising: driving (S10) a rotor of the permanent magnet synchronous motor to rotate at a constant speed; acquiring (S11) counter electromotive forces of a stator of the permanent magnet synchronous motor and a position of a rotor of the resolver ; calculating (S 12) a space vector phase angle θ 1 corresponding to the counter electromotive forces of the stator of the permanent magnet synchronous motor based on the counter electromotive forces; acquiring (S13), based on the position of the rotor of the resolver , a rotation angle θ 2 measured by the resolver ; calculating (S14), based on a formula, an installation deviation Δ θ corresponding to the space vector phase angle θ 1 and the rotation angle θ 2 ; and manually adjusting (S15) a position of the resolver until the installation deviation Δ θ meets a precision requirement; wherein the formula is θ 2 − θ 1 − π 2 . driving (S10) a rotor of the permanent magnet synchronous motor to rotate at a constant speed; acquiring (S11) counter electromotive forces of a stator of the permanent magnet synchronous motor and a position of a rotor of the resolver ; calculating (S 12) a space vector phase angle θ 1 corresponding to the counter electromotive forces of the stator of the permanent magnet synchronous motor based on the counter electromotive forces; acquiring (S13), based on the position of the rotor of the resolver , a rotation angle θ 2 measured by the resolver ; calculating (S14), based on a formula, an installation deviation Δ θ corresponding to the space vector phase angle θ 1 and the rotation angle θ 2 ; and manually adjusting (S15) a position of the resolver until the installation deviation Δ θ meets a precision requirement; wherein the formula is θ 2 − θ 1 − π 2 .