mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication, comprising: transmitting, by a central unit, a request for one or more wireless communication devices that meet one or more criteria to participate in an uplink-downlink, UL-DL, reciprocity calibration; receiving, by the central unit, a response from a first wireless communication device that meets said one or more criteria; transmitting, by the central unit, a first and a second downlink, DL, calibration reference signals, RSs, and a calibration request; receiving, by the central unit in response to the calibration request, a first uplink, UL, calibration RS and a first DL channel estimate associated with a first transmission point, TP, and the first wireless communication device, and a second UL calibration RS and a second DL channel estimate associated with a second TP and the first wireless communication device, wherein the first DL channel estimate is based on the first DL calibration RS and the second DL channel estimate is based on the second DL calibration RS; and transmitting, by the central unit, a DL coordinated multipoint, CoMP, joint transmission signal according to the UL-DL reciprocity calibration, wherein the UL-DL reciprocity calibration is based on at least a first UL channel estimate based on the first UL calibration RS, the first DL channel estimate, a second UL channel estimate based on the second UL calibration RS, and the second DL channel estimate. transmitting, by a central unit, a request for one or more wireless communication devices that meet one or more criteria to participate in an uplink-downlink, UL-DL, reciprocity calibration; receiving, by the central unit, a response from a first wireless communication device that meets said one or more criteria; transmitting, by the central unit, a first and a second downlink, DL, calibration reference signals, RSs, and a calibration request; receiving, by the central unit in response to the calibration request, a first uplink, UL, calibration RS and a first DL channel estimate associated with a first transmission point, TP, and the first wireless communication device, and a second UL calibration RS and a second DL channel estimate associated with a second TP and the first wireless communication device, wherein the first DL channel estimate is based on the first DL calibration RS and the second DL channel estimate is based on the second DL calibration RS; and transmitting, by the central unit, a DL coordinated multipoint, CoMP, joint transmission signal according to the UL-DL reciprocity calibration, wherein the UL-DL reciprocity calibration is based on at least a first UL channel estimate based on the first UL calibration RS, the first DL channel estimate, a second UL channel estimate based on the second UL calibration RS, and the second DL channel estimate.
Method for displaying and generating an instruction for a physical workout, comprising the method steps of recording the heart rate variability of the person to be trained and, as a function thereof, determining their physical condition, determining the physical load intensities for individually predetermined load ranges as a function of at least one physical condition determined on at least one previous day on the basis of the heart rate variability recorded on this day, and generating the instruction for an upcoming workout on the basis of this condition by using a computer program, which comprises a recommendation for at least one load range of physical load intensities, which load range is selected on the basis of the current physical condition determined on the day of the workout for the workout on this day from different load ranges previously individually predetermined for the person to be trained and is recommended for the workout, and this workout recommendation is displayed on a user interface of the computer program. recording the heart rate variability of the person to be trained and, as a function thereof, determining their physical condition, determining the physical load intensities for individually predetermined load ranges as a function of at least one physical condition determined on at least one previous day on the basis of the heart rate variability recorded on this day, and generating the instruction for an upcoming workout on the basis of this condition by using a computer program, which comprises a recommendation for at least one load range of physical load intensities, which load range is selected on the basis of the current physical condition determined on the day of the workout for the workout on this day from different load ranges previously individually predetermined for the person to be trained and is recommended for the workout, and this workout recommendation is displayed on a user interface of the computer program.
A method comprising: receiving, with a computing system, data representing a video item into a buffer; outputting, with the computing system, the video item from the buffer to a display system; determining, with the computing system, that utilization of the buffer falls below a predetermined threshold; in response to determining that the utilization of the buffer falls below the predetermined threshold, determining, with the computing system, that there is a specified rebuffering point in the buffered video item within a predetermined time frame; and stretching, with the computing system, video and audio content that is present in the buffer by interpolating video and audio information so that a given portion of video is stretched to increase in time at a specified rebuffering point of the video item. receiving, with a computing system, data representing a video item into a buffer; outputting, with the computing system, the video item from the buffer to a display system; determining, with the computing system, that utilization of the buffer falls below a predetermined threshold; in response to determining that the utilization of the buffer falls below the predetermined threshold, determining, with the computing system, that there is a specified rebuffering point in the buffered video item within a predetermined time frame; and stretching, with the computing system, video and audio content that is present in the buffer by interpolating video and audio information so that a given portion of video is stretched to increase in time at a specified rebuffering point of the video item.
A detergent composition comprising: i. a chelating agent selected from the group consisting of amino carboxylates, phosphonates or mixtures thereof; ii. a fabric softening agent selected from the group consisting of clay, silicone or combination thereof; iii. from 20 wt.% to 35 wt.% carbonate builder; iv. from 0 wt.% to 5 wt.% zeolite builder; v. from 0 wt.% to 4 wt.% phosphate builder; and, vi. a bicarbonate salt. i. a chelating agent selected from the group consisting of amino carboxylates, phosphonates or mixtures thereof; ii. a fabric softening agent selected from the group consisting of clay, silicone or combination thereof; iii. from 20 wt.% to 35 wt.% carbonate builder; iv. from 0 wt.% to 5 wt.% zeolite builder; v. from 0 wt.% to 4 wt.% phosphate builder; and, vi. a bicarbonate salt.
A method of wireless communication of a user equipment, UE, comprising: receiving information from a serving base station indicating a receive direction vector for the serving base station and a set of receive direction vectors for at least one interfering base station; determining a channel between the UE and the serving base station; determining a set of channels between the UE and each of the at least one interfering base station; determining a transmit direction vector to apply to modulated symbols for mapping to a set of resource blocks for an uplink transmission based on the channel, the set of channels, the receive direction vector, and the set of receive direction vectors, each modulated symbol of the modulated symbols being mapped to a plurality of resource blocks of the set of resource blocks; determining an interference caused to the at least one interfering base station by the uplink transmission based on the transmit direction vector, the set of channels, and the set of receive direction vectors; and transmitting information indicating the interference to the serving base station. receiving information from a serving base station indicating a receive direction vector for the serving base station and a set of receive direction vectors for at least one interfering base station; determining a channel between the UE and the serving base station; determining a set of channels between the UE and each of the at least one interfering base station; determining a transmit direction vector to apply to modulated symbols for mapping to a set of resource blocks for an uplink transmission based on the channel, the set of channels, the receive direction vector, and the set of receive direction vectors, each modulated symbol of the modulated symbols being mapped to a plurality of resource blocks of the set of resource blocks; determining an interference caused to the at least one interfering base station by the uplink transmission based on the transmit direction vector, the set of channels, and the set of receive direction vectors; and transmitting information indicating the interference to the serving base station.
A computer-implemented method of visualization of objects displayed on a computer screen, comprising: - displaying the objects in a scene within a graphical user interface of a product edition system, - identifying a first object and a second object amongst at least two objects displayed in the scene, the first object being identified as an active object that is a graphic tool for working on the second object upon user actuation; - attaching a light source at the first object and simulating effects of the light source; - modifying a rendering property of the second object according to a distance between the first object and the second object and according to the light source simulated; - modifying the scene according to the modified rendering property of the second object; - moving by the user the active object; and - actuating the active object to act on the second object for modifying a geometrical or physical property of the second object. - displaying the objects in a scene within a graphical user interface of a product edition system, - identifying a first object and a second object amongst at least two objects displayed in the scene, the first object being identified as an active object that is a graphic tool for working on the second object upon user actuation; - attaching a light source at the first object and simulating effects of the light source; - modifying a rendering property of the second object according to a distance between the first object and the second object and according to the light source simulated; - modifying the scene according to the modified rendering property of the second object; - moving by the user the active object; and - actuating the active object to act on the second object for modifying a geometrical or physical property of the second object.
An encoder device, comprising: - a housing; - a hub arranged in the housing, the hub arranged to carry an encoder disc, the hub rotatable in the housing; and - a gapping and centring device carried by the housing, characterized in that the gapping and centring device includes a slide that is movable between a first position and a second position, the slide in the first position arranged to urge the hub into a predetermined axial and radial position relative to a portion of the housing, wherein the slide includes two parallel clamping arms connected by a transverse bridge member, wherein the gapping and centring device includes two clamping jaws arranged on diametrically opposite sides of the hub, a distal end of each clamping arm including a protrusion adapted to urge the clamping jaws against the hub in the first position of the slide, the slide in the second position arranged to permit axial and radial movement of the hub, the slide arranged on an axial side of the housing opposite to an axial side on which the housing is to be mounted to a device to be measured, the slide in the first position and in the second position not extending beyond a radial periphery of the housing. - a housing; - a hub arranged in the housing, the hub arranged to carry an encoder disc, the hub rotatable in the housing; and - a gapping and centring device carried by the housing,
A method for operating a base station, BS, in a wireless communication network, the method comprising: defining one or more low duty cycle, LDC, patterns based on plurality of LDC parameters associated with the BS, wherein the plurality of LDC parameters includes an active period, an inactive period and a start frame offset of the BS in the wireless communication network, wherein the BS is at least one of a femtocell base station and a macrocell base station; and sending the one or more LDC patterns notifying start frame offset, available interval, AI, and unavailable interval, UAI, of each of the one or more LDC patterns to a mobile station, MS, using at least one of: broadcast the one or more LDC patterns to one or more MS; unicast the one or more LDC patterns to a MS; and multicast the one or more LDC patterns to a group of MS, wherein the AI is an interval in which its preamble and system information is broadcasted, the UAI is an interval in which nothing is transmitted; and wherein a start frame of the AI is determined based on the start frame offset, the AI, the UAI and information on frequency allocation, FA, where the BS operates. defining one or more low duty cycle, LDC, patterns based on plurality of LDC parameters associated with the BS, wherein the plurality of LDC parameters includes an active period, an inactive period and a start frame offset of the BS in the wireless communication network, wherein the BS is at least one of a femtocell base station and a macrocell base station; and sending the one or more LDC patterns notifying start frame offset, available interval, AI, and unavailable interval, UAI, of each of the one or more LDC patterns to a mobile station, MS, using at least one of: broadcast the one or more LDC patterns to one or more MS; unicast the one or more LDC patterns to a MS; and multicast the one or more LDC patterns to a group of MS, wherein the AI is an interval in which its preamble and system information is broadcasted, the UAI is an interval in which nothing is transmitted; and wherein a start frame of the AI is determined based on the start frame offset, the AI, the UAI and information on frequency allocation, FA, where the BS operates. broadcast the one or more LDC patterns to one or more MS; unicast the one or more LDC patterns to a MS; and multicast the one or more LDC patterns to a group of MS, wherein the AI is an interval in which its preamble and system information is broadcasted, the UAI is an interval in which nothing is transmitted; and wherein a start frame of the AI is determined based on the start frame offset, the AI, the UAI and information on frequency allocation, FA, where the BS operates.
Composition comprising: a) at least one copolymer, at least one of the repeat units of which comprises at least one amide functional group, b) at least one polyether with a weight-average molecular weight (M w) of greater than 60 g.mol -1, preferably of greater than 100 g.mol -1, and c) optionally, but preferentially, at least one organic solvent, composition wherein the copolymer, at least one of the repeat units of which comprises at least one amide functional group, is a copolymer, the amide functional groups of which are branched on the polymer chain ("pendant" amide functional groups), the nitrogen atoms of said amide functional groups can be substituted, and are preferably substituted, more preferably monosubstituted, more preferentially disubstituted. a) at least one copolymer, at least one of the repeat units of which comprises at least one amide functional group, b) at least one polyether with a weight-average molecular weight (M w) of greater than 60 g.mol -1, preferably of greater than 100 g.mol -1, and c) optionally, but preferentially, at least one organic solvent,
A continuous process for the production of a polyoxyalkylene polyether polyol having a hydroxyl content of from 3.4 to 12.1% by weight, which comprises: establishing oxyalkylation conditions in a continuous oxyalkylation reactor in the presence of a double metal cyanide catalyst; continuously introducing alkylene oxide and a low molecular weight starter into said continuous oxyalkylation reactor, wherein said starter has a number average molecular weight of from 50 to 250; recovering a partially oxyalkylated polyether polyol from the continuous oxyalkylation reactor; wherein (i) said oxyalkylation in the continuous oxyalkylation reactor occurs at a sufficiently high temperature to prevent deactivation of the DMC catalyst, i.e. at least at 135°C; (ii) the concentration of unreacted alkylene oxide in the contents of the continuous reactor is maintained at a level of from 1 to 3% by weight; and (iii) the hydroxyl content of the reactor contents is maintained at 3.4 to 12.1% by weight; and allowing further reaction of the partially oxyalkylated polyether polyol which is recovered from the continuous oxyalkylation reactor to occur until the unreacted alkylene oxide content of the mixture is reduced to 0.001% or less by weight, wherein said further reaction of the partially oxyalkylated polyether polyol occurs isothermally. establishing oxyalkylation conditions in a continuous oxyalkylation reactor in the presence of a double metal cyanide catalyst; continuously introducing alkylene oxide and a low molecular weight starter into said continuous oxyalkylation reactor, wherein said starter has a number average molecular weight of from 50 to 250; recovering a partially oxyalkylated polyether polyol from the continuous oxyalkylation reactor; wherein (i) said oxyalkylation in the continuous oxyalkylation reactor occurs at a sufficiently high temperature to prevent deactivation of the DMC catalyst, i.e. at least at 135°C; (ii) the concentration of unreacted alkylene oxide in the contents of the continuous reactor is maintained at a level of from 1 to 3% by weight; and (iii) the hydroxyl content of the reactor contents is maintained at 3.4 to 12.1% by weight; and allowing further reaction of the partially oxyalkylated polyether polyol which is recovered from the continuous oxyalkylation reactor to occur until the unreacted alkylene oxide content of the mixture is reduced to 0.001% or less by weight, wherein said further reaction of the partially oxyalkylated polyether polyol occurs isothermally.
A method for preparing a sequencing library from a test sample comprising nucleic acid molecules, wherein the method comprises the consecutive steps of end-repairing, dA-tailing and adaptor ligating said nucleic acids, and wherein said consecutive steps exclude purifying the end-repaired products prior to the dA-tailing step and exclude purifying the dA-tailing products prior to the adaptor-ligating step.
A Fab region-binding peptide represented by any one of the following to: a Fab region-binding peptide having an amino acid sequence of SEQ ID NO: 1 derived from the β1 domain of protein G with substitution of an amino acid residue at the 13th position to Thr or Ser, optionally with substitution of an amino acid residue at not less than one position selected from the 19th, 30th and 33rd positions, and wherein the Fab region-binding peptide has a higher binding force to the Fab region of immunoglobulin than that before introduction of the substitution; a Fab region-binding peptide having an amino acid sequence specified in the with deletion, substitution and/or addition of not less than 1 and not more than 10 amino acid residues at a region other than the 13th, 19th, 30th and 33rd positions, and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1; a Fab region-binding peptide having an amino acid sequence having not less than 80% sequence identity to the amino acid sequence specified in the, and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1, wherein the substituted amino acid residue specified in the is not further mutated in the. a Fab region-binding peptide having an amino acid sequence of SEQ ID NO: 1 derived from the β1 domain of protein G with substitution of an amino acid residue at the 13th position to Thr or Ser, optionally with substitution of an amino acid residue at not less than one position selected from the 19th, 30th and 33rd positions, and wherein the Fab region-binding peptide has a higher binding force to the Fab region of immunoglobulin than that before introduction of the substitution; a Fab region-binding peptide having an amino acid sequence specified in the with deletion, substitution and/or addition of not less than 1 and not more than 10 amino acid residues at a region other than the 13th, 19th, 30th and 33rd positions, and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1; a Fab region-binding peptide having an amino acid sequence having not less than 80% sequence identity to the amino acid sequence specified in the, and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1, wherein the substituted amino acid residue specified in the is not further mutated in the.
A computer-implemented method for use in providing input to an application, comprising the steps of: obtaining, at an image plane of a camera, images (202, 204) of a geometric shape (122, 124, 126, 128, 434) on a controller (110, 430), the controller comprising a hand-held game controller for a computer entertainment system, having one or more manipulators and one or more buttons, the controller comprising a plurality of light sources (122, 124, 126, 128, 434) arranged on the controller to define the geometric shape and the plurality of light sources configured to distinguish the controller from other controllers; analyzing the images to detect movements of the geometric shape; determining position information for the controller based on the analysis of the movements of the geometric shape so as to track the position of the controller as x, y and z coordinates and to track movements of the controller; displaying on a display screen images of a video game and mapping tracked movements of the controller to movements of a game object in a game environment according to a gearing ratio between detected movements of the controller and movements of the game object in the game environment; and modifying the gearing ratio in response to a game state. obtaining, at an image plane of a camera, images (202, 204) of a geometric shape (122, 124, 126, 128, 434) on a controller (110, 430), the controller comprising a hand-held game controller for a computer entertainment system, having one or more manipulators and one or more buttons, the controller comprising a plurality of light sources (122, 124, 126, 128, 434) arranged on the controller to define the geometric shape and the plurality of light sources configured to distinguish the controller from other controllers; analyzing the images to detect movements of the geometric shape; determining position information for the controller based on the analysis of the movements of the geometric shape so as to track the position of the controller as x, y and z coordinates and to track movements of the controller; displaying on a display screen images of a video game and mapping tracked movements of the controller to movements of a game object in a game environment according to a gearing ratio between detected movements of the controller and movements of the game object in the game environment; and modifying the gearing ratio in response to a game state.