mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a first device, comprising: identifying a motion state configuration associated with a second device, the motion state configuration including information indicating possible positions of the second device during a movement of the second device, the possible positions including positions within a threshold uncertainty from a set of positions, wherein the set of positions includes positions on at least one of a one-dimensional path, a two-dimensional surface, a three-dimensional volume, a boundary of a surface, or a boundary of a volume; and providing, to a positioning device, the motion state configuration in association with determining a position of the second device. identifying a motion state configuration associated with a second device, the motion state configuration including information indicating possible positions of the second device during a movement of the second device, the possible positions including positions within a threshold uncertainty from a set of positions, wherein the set of positions includes positions on at least one of a one-dimensional path, a two-dimensional surface, a three-dimensional volume, a boundary of a surface, or a boundary of a volume; and a one-dimensional path, a two-dimensional surface, a three-dimensional volume, a boundary of a surface, or a boundary of a volume; and providing, to a positioning device, the motion state configuration in association with determining a position of the second device.
A print medium for ink-jet printing, comprising: a) a base substrate, including: i) raw base paper, and ii) a moisture barrier layer coated on the raw base paper; b) a micro-porous ink-receiving layer coated on the moisture barrier layer; and c) a polymer extruded backing layer extruded on the raw base paper, wherein the polymer extrude backing layer is configured to transport ink solvent vapor to the base substrate at a rate of at least 15 g/m 2 /24hr, wherein the ink solvent is selected from water and pyrrolidone. a) a base substrate, including: i) raw base paper, and ii) a moisture barrier layer coated on the raw base paper; i) raw base paper, and ii) a moisture barrier layer coated on the raw base paper; b) a micro-porous ink-receiving layer coated on the moisture barrier layer; and c) a polymer extruded backing layer extruded on the raw base paper, wherein the polymer extrude backing layer is configured to transport ink solvent vapor to the base substrate at a rate of at least 15 g/m 2 /24hr,
A rechargeable electric tool in which a battery pack serving as an electric power source can be detachably mounted to a mounting part, comprising a housing comprising a body, a handle part, and the mounting part formed at a lower end of the handle part, openings (14A, R1, H) provided at the housing, wherein the mounting part is formed lower than the openings, and a seal member (50; 60; 70), characterized in that the seal member (50; 60; 70) is arranged in the handle part and is located between the openings (14A, R1, H) and the mounting part in order to seal between the side where the openings (14A, R1, H) are located and the side where the battery pack is mounted to the mounting part. a housing comprising a body, a handle part, and the mounting part formed at a lower end of the handle part, openings (14A, R1, H) provided at the housing, wherein the mounting part is formed lower than the openings, and a seal member (50; 60; 70), characterized in that the seal member (50; 60; 70) is arranged in the handle part and is located between the openings (14A, R1, H) and the mounting part in order to seal between the side where the openings (14A, R1, H) are located and the side where the battery pack is mounted to the mounting part.
A method for removing errors from a dimensioning-system measurement, the method comprising: providing a dimensioning system for carrying out a dimensioning-system measurement, the dimensioning-system measurement comprising projecting a light pattern into a field of view of an environment comprising an object and capturing an image of the projected light pattern that is reflected; analysing pattern distortions in the captured image to compute three dimensional, 3D, data corresponding to the object in the environment; selecting a particular dimension to be estimated; obtaining, using the 3D data, values for one or more predictor variables, the predictor variables describing aspects of the dimensioning-system measurement of the particular dimension; creating, using the 3D data, an intermediate estimate of the particular dimension; retrieving, from a library of error models, an error model corresponding to the particular dimension; computing, using the error model and the values for one or more predictor variables, an error estimate for the particular dimension; and subtracting the error estimate from the intermediate estimate to obtain a final estimate of the particular dimension; characterized in that (i) the 3D data includes a minimum-volume-bounding box, MVBB, (ii) the particular dimension is one of a length, a width, and a height of the MVBB, and (iii) the library of error models stores distinct error models for length, width, and height dimensions. providing a dimensioning system for carrying out a dimensioning-system measurement, the dimensioning-system measurement comprising projecting a light pattern into a field of view of an environment comprising an object and capturing an image of the projected light pattern that is reflected; analysing pattern distortions in the captured image to compute three dimensional, 3D, data corresponding to the object in the environment; selecting a particular dimension to be estimated; obtaining, using the 3D data, values for one or more predictor variables, the predictor variables describing aspects of the dimensioning-system measurement of the particular dimension; creating, using the 3D data, an intermediate estimate of the particular dimension; retrieving, from a library of error models, an error model corresponding to the particular dimension; computing, using the error model and the values for one or more predictor variables, an error estimate for the particular dimension; and subtracting the error estimate from the intermediate estimate to obtain a final estimate of the particular dimension; characterized in that (i) the 3D data includes a minimum-volume-bounding box, MVBB, (ii) the particular dimension is one of a length, a width, and a height of the MVBB, and (iii) the library of error models stores distinct error models for length, width, and height dimensions.
A blood treatment device configured to remove anti-neutrophil cytoplasmic antibodies (ANCAs) from the blood or blood plasma of a person in need thereof in an extracorporeal blood circuit, wherein the device comprises a matrix, and wherein said matrix comprises a monomeric form of proteinase 3, wherein the monomeric form of proteinase 3 comprises at least one mutation at Ile221 and/or Trp222.
A method for electrical islanding detection, comprising: receiving a three-phase voltage in an electrical power system; for the three-voltage voltage, calculating a voltage angle sudden-change of each phase, respectively; determining whether an absolute value of the voltage angle sudden-change of each phase is greater than a first angle sudden-change setting value; determining whether directions of the voltage angle sudden-changes of the three phases are the same if the absolute value of the voltage angle sudden-change of each phase is greater than the first angle sudden-change setting value; and determining that the electrical islanding appears if the directions of the voltage angle sudden-changes of the three phases are the same, wherein determining whether directions of the voltage angle sudden-change of the three phases are the same comprises: determining whether an absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value, and wherein determining that the electrical islanding appears if the absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value. receiving a three-phase voltage in an electrical power system; for the three-voltage voltage, calculating a voltage angle sudden-change of each phase, respectively; determining whether an absolute value of the voltage angle sudden-change of each phase is greater than a first angle sudden-change setting value; determining whether directions of the voltage angle sudden-changes of the three phases are the same if the absolute value of the voltage angle sudden-change of each phase is greater than the first angle sudden-change setting value; and determining that the electrical islanding appears if the directions of the voltage angle sudden-changes of the three phases are the same, wherein determining whether directions of the voltage angle sudden-change of the three phases are the same comprises: determining whether an absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value, and wherein determining that the electrical islanding appears if the absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value. determining whether an absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value, and wherein determining that the electrical islanding appears if the absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value.
An image decoding method for decoding image data formed by a plurality of frames, the image decoding method characterized by having a current category decoding step for decoding a category number j of a current frame, the current frame being classified into one of N categories, with N ≥ 2, a reference image specifying data decoding step for decoding a reference image specifying data which specifies a reference image data, for said decoded category number, a predicted image producing step for producing a predicted image from an image data specified by said reference image specifying data, wherein the image data is selected from image data of a plurality of frames of an i-th category which have been decoded previously, for the current frame classified as j-th category, wherein for the number of the categories 1 ≤ i ≤ j is applied, a difference decoding step for decoding a difference between a decoded image of the current frame and the predicted image, a decoded image producing step for producing the decoded image of the current frame from said decoded difference data and said predicted image, and a decoded image storing step for storing said produced decoded image data of the current frame into a reference image memory in association with said decoded category number, wherein said reference image specifying data decoding step has a tentative frame number setting step for setting a tentative frame number based on an output order of frames with respect to the image data of a frame belonging to each of an i-th category which is the j-th category of the current frame and below, among a plurality of image data stored in said reference image memory and not setting the tentative frame number with respect to the image data of a frame belonging to categories other than the i-th category, the tentative frame number being a serial number, and a tentative frame number decoding step for obtaining the tentative frame number which specifies an image data to be selected at said predicted image producing step, by decoding the reference image specifying data.
Actuator arrangement (60; 60') for a drive train (10; 10'), which has at least one friction clutch (16, 18; 16') for transmitting drive torque and has a transmission (14; 14'), wherein the friction clutch (16, 18; 16') can be actuated by means of a hydraulic clutch cylinder (17, 19; 17'), which is connected directly to a first pump port (66, 77; 67') of a pump (62, 72; 62') driven by an electric motor in order to actuate the friction clutch (16, 18; 16'), such that the friction clutch (16, 18; 16') can be actuated by varying the speed of the pump (62, 72; 62'), characterized by a parking lock actuator device (44, 54; 108) for actuating a parking lock arrangement (30; 30') of the drive train (10; 10'), wherein the parking lock actuator device has at least one hydraulic parking lock cylinder (44, 54; 108), which can be connected to the pump (62, 72; 62'), such that the parking lock arrangement (30; 30') can be actuated by varying the direction of rotation and/or the speed of the pump (62, 72; 62').
A nucleic acid molecule for use as a medicament as an anti-inflammatory and/or anti-coagulant and/or organ-protective medicament wherein said nucleic acid molecule is represented by a nucleotide sequence that has at least 95% sequence identity with a nucleotide sequence comprising SEQ ID NO:1 or 2.
An antibody molecule which binds to programmed death-ligand 1 (PD-L1) and lymphocyte-activation gene 3 (LAG-3), wherein the antibody molecule comprises: (i) a complementarity determining region -based antigen binding site for PD-L1 comprising the CDRs set forth in SEQ ID NOs 86 to 91; and (ii) a LAG-3 antigen binding site located in a CH3 domain of the antibody molecule, wherein the LAG-3 binding site comprises the amino acid sequences WDEPWGED (SEQ ID NO: 1) and PYDRWVWPDE (SEQ ID NO: 3), and wherein the amino acid sequence WDEPWGED is located in the AB loop of the CH3 domain and the amino acid sequence PYDRWVWPDE is located in the EF loop of the CH3 domain. (i) a complementarity determining region -based antigen binding site for PD-L1 comprising the CDRs set forth in SEQ ID NOs 86 to 91; and (ii) a LAG-3 antigen binding site located in a CH3 domain of the antibody molecule, wherein the LAG-3 binding site comprises the amino acid sequences WDEPWGED (SEQ ID NO: 1) and PYDRWVWPDE (SEQ ID NO: 3), and wherein the amino acid sequence WDEPWGED is located in the AB loop of the CH3 domain and the amino acid sequence PYDRWVWPDE is located in the EF loop of the CH3 domain.
A method comprising: receiving, by an apparatus, a first mission control message for sending to a first unmanned vehicle; selecting, by the apparatus, a first application layer control protocol from at least two application layer control protocols for sending the first mission control message to the first unmanned vehicle in dependence on a determined capability of the first unmanned vehicle, characterized in that the determined capability of the first unmanned vehicle relates, at least in part, to a determination as to whether or not the first unmanned vehicle is configured to autonomously execute collision avoidance mechanism and the determined capability of the first unmanned vehicle relates to the ability of the first unmanned vehicle to translate instructions received in accordance with the at least two protocols; and sending, by the apparatus, the first mission control message to the first unmanned vehicle using the selected first application layer control protocol. receiving, by an apparatus, a first mission control message for sending to a first unmanned vehicle; selecting, by the apparatus, a first application layer control protocol from at least two application layer control protocols for sending the first mission control message to the first unmanned vehicle in dependence on a determined capability of the first unmanned vehicle, characterized in that the determined capability of the first unmanned vehicle relates, at least in part, to a determination as to whether or not the first unmanned vehicle is configured to autonomously execute collision avoidance mechanism and the determined capability of the first unmanned vehicle relates to the ability of the first unmanned vehicle to translate instructions received in accordance with the at least two protocols; and sending, by the apparatus, the first mission control message to the first unmanned vehicle using the selected first application layer control protocol.
A bed for maintaining a patient in the horizontal position including a mattress platform, a chassis for supporting the mattress platform, the chassis comprising wheels and a system for propelling the bed, the system for propelling having at least two modes of operation for a motorized wheel, the bed further including a controller, a processor unit connected to the controller and a drive for propelling, characterized in that the controller includes at least one control member connected via the processor unit to the drive for propelling, the at least one control member being for switching between the at least two modes of operation for the motorized wheel, one mode being for rotation of the motorized wheel independently of the drive for propelling, and the second mode being for rotation of the motorized wheel dependent on the motor for propelling.
A semiconductor device, comprising: a support substrate, a first semiconductor element placed on said support substrate; and a second semiconductor element placed on said first semiconductor element, wherein an outer edge of the second semiconductor element is smaller than an outer edge of the first semiconductor element, wherein said first semiconductor element comprises a semiconductor base which comprises: a first semiconductor region of a first conductivity type; a second semiconductor region of a second conductivity type formed in a surface region of said first semiconductor region; and a third semiconductor region of the first conductivity type formed in a surface region of said second semiconductor region, and said semiconductor base of said first semiconductor element comprises: a first region in which said third semiconductor region occupies said second semiconductor region at a first ratio and which is formed at a center part of said semiconductor base; and a second region in which said third semiconductor region occupies said second semiconductor region at a second ratio higher than the first ratio and which is formed at a circumferential part of said semiconductor base so as to surround said first region, wherein the second semiconductor region and the third semiconductor region each have a surface area, wherein the first ratio and the second ratio, each is a ratio of the surface area of said third semiconductor region relative to said surface area of said second semiconductor region, wherein the first region is formed so as to correspond to a region where the second semiconductor element is placed, wherein the first region is formed to have generally a same area as the second semiconductor element.
A method of mass spectrometry comprising: mass selectively transmitting precursor ions from a mass analyser into a fragmentation or reaction device, wherein the mass to charge ratios of the ions transmitted varies with time; fragmenting the precursor ions in the fragmentation or reaction device so as to produce fragment or product ions; mass analysing and detecting the fragment or product ions; determining a time period over which a first fragment or product ion is detected; using said time period to determine a time period over which a precursor ion of said first fragment or product ion was transmitted by said mass analyser; and using the time period over which the precursor ion was transmitted by said mass analyser to determine a mass to charge ratio of said precursor ion; determining a time period over which a second fragment or product ion is detected; using this time period to determine a time period over which a precursor ion of said second fragment or product ion is transmitted by said mass analyser; and using the time period over which this precursor ion is transmitted by said mass analyser to determine a mass to charge ratio of this precursor ion; wherein the time period over which the first fragment or product ion is detected only partially overlaps with the time period over which the second fragment or product ion is detected; wherein the mass analyser that transmits the precursor ions to the fragmentation or reaction device is a mass filter. mass selectively transmitting precursor ions from a mass analyser into a fragmentation or reaction device, wherein the mass to charge ratios of the ions transmitted varies with time; fragmenting the precursor ions in the fragmentation or reaction device so as to produce fragment or product ions; mass analysing and detecting the fragment or product ions; determining a time period over which a first fragment or product ion is detected; using said time period to determine a time period over which a precursor ion of said first fragment or product ion was transmitted by said mass analyser; and using the time period over which the precursor ion was transmitted by said mass analyser to determine a mass to charge ratio of said precursor ion; determining a time period over which a second fragment or product ion is detected; using this time period to determine a time period over which a precursor ion of said second fragment or product ion is transmitted by said mass analyser; and using the time period over which this precursor ion is transmitted by said mass analyser to determine a mass to charge ratio of this precursor ion; wherein the time period over which the first fragment or product ion is detected only partially overlaps with the time period over which the second fragment or product ion is detected; wherein the mass analyser that transmits the precursor ions to the fragmentation or reaction device is a mass filter.
A method of operating a user equipment in a wireless communication network, the user equipment being configured for operation in carrier aggregation comprising a plurality of N component carriers, wherein each component carrier of the plurality of N component carriers is associated with a slot duration that corresponds to an Orthogonal Frequency-Division Multiplexing, OFDM, numerology of the component carrier, and wherein at least two component carriers of the plurality of N component carriers have different numerology, the method comprising: transmitting or receiving a transmission on the N component carriers, the method being characterized in that the number of information bits transmitted or received on the plurality of N component carriers over a reference slot duration, which corresponds to the slot duration associated with at least one of the N component carriers, is required to satisfy the condition defined by the following constraint ∑ n = 0 N − 1 TBS n ∗ 2 μ n − μ ref ≤ DataRate ∗ 0.001 ∗ 2 − μ ref wherein TBS n is a transport block size scheduled on the n:th component carrier over the reference slot duration, wherein 0.001 * 2 -μ ref is the reference slot duration, wherein μ n is the numerology associated with the n:th component carrier, wherein 0.001 * 2 -μ n is the slot duration associated with the n:th component carrier, and wherein DataRate is the reference data rate. transmitting or receiving a transmission on the N component carriers, the method being characterized in that the number of information bits transmitted or received on the plurality of N component carriers over a reference slot duration, which corresponds to the slot duration associated with at least one of the N component carriers, is required to satisfy the condition defined by the following constraint ∑ n = 0 N − 1 TBS n ∗ 2 μ n − μ ref ≤ DataRate ∗ 0.001 ∗ 2 − μ ref wherein TBS n is a transport block size scheduled on the n:th component carrier over the reference slot duration, wherein 0.001 * 2 -μ ref is the reference slot duration, wherein μ n is the numerology associated with the n:th component carrier, wherein 0.001 * 2 -μ n is the slot duration associated with the n:th component carrier, and wherein DataRate is the reference data rate.