mhurhangee/ep-ind-claims huggingface dataset:
A power transmitter for wirelessly providing power to a power receiver via an electromagnetic power transfer signal; the power transmitter comprising: a transmitter coil for generating the power transfer signal, the power transfer signal during a power transfer phase employing a repeating time frame comprising at least a power transfer time interval and a reduced power time interval during which a power level of the power transfer signal is reduced; a driver for generating a drive signal for the transmitter coil to generate the power transfer signal; a first communicator for receiving messages from the power receiver; an adapter for adapting a timing property of the reduced power time interval in response to at least a first message received from the power receiver; a synchronizer for synchronizing an operation of the power transmitter to occur during the reduced power time interval; and characterized by further comprising: a test coil for generating an electromagnetic test signal; a test generator arranged to generate a test drive signal for the test coil; and a foreign object detector arranged to perform a foreign object detection test in response to a measured parameter for the test drive signal during the reduced power time interval; wherein the synchronizer is arranged to synchronize the test generator to provide the electromagnetic test signal during the reduced power time interval. a transmitter coil for generating the power transfer signal, the power transfer signal during a power transfer phase employing a repeating time frame comprising at least a power transfer time interval and a reduced power time interval during which a power level of the power transfer signal is reduced; a driver for generating a drive signal for the transmitter coil to generate the power transfer signal; a first communicator for receiving messages from the power receiver; an adapter for adapting a timing property of the reduced power time interval in response to at least a first message received from the power receiver; a synchronizer for synchronizing an operation of the power transmitter to occur during the reduced power time interval; a test coil for generating an electromagnetic test signal; a test generator arranged to generate a test drive signal for the test coil; and a foreign object detector arranged to perform a foreign object detection test in response to a measured parameter for the test drive signal during the reduced power time interval; wherein the synchronizer is arranged to synchronize the test generator to provide the electromagnetic test signal during the reduced power time interval.
A power tool, comprising: a housing (100; 610) having an electric motor disposed therein that drives a tool; the electric motor having field windings and an armature; a first switch that couples the field windings of the electric motor to a source of AC power when the first switch is in an on position; and each field winding of the electric motor including first and second windings (200, 202); characterised in that the first and second windings (200,202) are interconnected by a soft start switch that connects the first and second windings (200, 202) in series to increase the impedance of the field winding during a soft start period that begins when the first switch is switched to its on position and connects the first and second windings (200, 202) in parallel to decrease the impedance of the field winding upon expiration of the soft start period, wherein the expiration of the soft start period occurs when the motor reaches a predetermined speed, the predetermined speed being a percentage of the no load speed in the range of 50% to 80%, and wherein the soft start period is set so that the motor in-rush current will have fallen to a level where it won't trip the circuit breaker protecting the AC power source. a housing (100; 610) having an electric motor disposed therein that drives a tool; the electric motor having field windings and an armature; a first switch that couples the field windings of the electric motor to a source of AC power when the first switch is in an on position; and each field winding of the electric motor including first and second windings (200, 202); characterised in that the first and second windings (200,202) are interconnected by a soft start switch that connects the first and second windings (200, 202) in series to increase the impedance of the field winding during a soft start period that begins when the first switch is switched to its on position and connects the first and second windings (200, 202) in parallel to decrease the impedance of the field winding upon expiration of the soft start period, wherein the expiration of the soft start period occurs when the motor reaches a predetermined speed, the predetermined speed being a percentage of the no load speed in the range of 50% to 80%, and wherein the soft start period is set so that the motor in-rush current will have fallen to a level where it won't trip the circuit breaker protecting the AC power source.
A method performed by a base station (505,600,700) in a wireless communication system, the method comprising: identifying at least one feedback corresponding to data transmitted in a first subframe after a first sensing period in an unlicensed band from at least one terminal (510,511,605,710,712); identifying data reception states of the at least one terminal (510,511,605,710,712) as at least one of acknowledgement, ACK, negative acknowledgement, NACK, and discontinuous transmission, DTX, state based on the at least one feedback; identifying a ratio of the NACK state among the identified data reception states; and determining a length of a second sensing period based on the ratio of the NACK state, characterized in that in a case that physical uplink control channel, PUCCH, format 1b with channel selection is used and no feedback is identified, the corresponding NACK or DTX state is determined as a NACK state for identifying the ratio of the NACK state and the corresponding DTX state is ignored from identifying the ratio of the NACK state. identifying at least one feedback corresponding to data transmitted in a first subframe after a first sensing period in an unlicensed band from at least one terminal (510,511,605,710,712); identifying data reception states of the at least one terminal (510,511,605,710,712) as at least one of acknowledgement, ACK, negative acknowledgement, NACK, and discontinuous transmission, DTX, state based on the at least one feedback; identifying a ratio of the NACK state among the identified data reception states; and determining a length of a second sensing period based on the ratio of the NACK state, characterized in that in a case that physical uplink control channel, PUCCH, format 1b with channel selection is used and no feedback is identified, the corresponding NACK or DTX state is determined as a NACK state for identifying the ratio of the NACK state and the corresponding DTX state is ignored from identifying the ratio of the NACK state.
A method of generating a three-dimensional representation of cardiac electrical activity within a subject's heart, the method comprising: collecting, from an implanted catheter having a distal portion comprising sensors that sense electrical activity and which catheter distal portion is positioned within a cardiac chamber of a subject, data for electrical activity sensed by the catheter distal portion while positioned within the cardiac chamber of the heart; executing on a computation unit of an apparatus an imaging algorithm on the collected electrical activity data to generate a three-dimensional representation of cardiac electrical activity within a volume of the subject including all or a portion of the subject's heart; and displaying the imaged three-dimensional cardiac electrical activity, wherein the imaging algorithm uses a source model that predicts cardiac electrical activity, and estimates the three-dimensional cardiac electrical activity by minimizing a difference between the recorded electrical activity data and the source model of predicted cardiac electrical activity, characterized in that the source model is a heart biophysical model comprising three-dimensional equivalent current density representations including activation time and repolarization time, wherein the activation time and repolarization time are estimated from the time course of the inversely computed equivalent current density at each location in the heart volume, wherein the activation time and repolarization time are estimated from local maxima in the time course of the inversely computed equivalent current density at each location in the heart volume. collecting, from an implanted catheter having a distal portion comprising sensors that sense electrical activity and which catheter distal portion is positioned within a cardiac chamber of a subject, data for electrical activity sensed by the catheter distal portion while positioned within the cardiac chamber of the heart; executing on a computation unit of an apparatus an imaging algorithm on the collected electrical activity data to generate a three-dimensional representation of cardiac electrical activity within a volume of the subject including all or a portion of the subject's heart; and displaying the imaged three-dimensional cardiac electrical activity, wherein the imaging algorithm uses a source model that predicts cardiac electrical activity, and estimates the three-dimensional cardiac electrical activity by minimizing a difference between the recorded electrical activity data and the source model of predicted cardiac electrical activity, characterized in that the source model is a heart biophysical model comprising three-dimensional equivalent current density representations including activation time and repolarization time, wherein the activation time and repolarization time are estimated from the time course of the inversely computed equivalent current density at each location in the heart volume, wherein the activation time and repolarization time are estimated from local maxima in the time course of the inversely computed equivalent current density at each location in the heart volume.
A tobacco composition for use in a smoking article or a smokeless tobacco composition, comprising a tobacco material and a seed component derived from a seed of the Nicotiana species, wherein the seed component is a chemically transformed seed isolate derived from a seed of the Nicotiana species, and wherein the seed isolate is a seed isolate subjected to a treatment selected from the group consisting of hydrogenation, acid/base reaction, hydrolysis, enzymatic treatment, and combinations thereof.
A crescent gear pump, comprising: a housing defining a rotor chamber, the housing including a working fluid inlet and a working fluid outlet, each in fluid communication with a portion of the rotor chamber; a rotor set rotatable within the rotor chamber, the rotor set comprising: an outer rotor having a first number of inwardly extending teeth; an inner rotor having a second number of outwardly extending teeth, the second number being at least two less than the first number, the teeth of the inner rotor having a conjugate composite profile of the teeth of the outer rotor; and a crescent inserted between the inner and outer rotors of the rotor set and providing a sealing surface between the teeth thereof to separate the working fluid inlet and working fluid outlet in the rotor chamber, wherein each of said outer rotor teeth has a composite profile which includes a portion adjacent a root of the tooth formed to conform to a circular arc and a portion adjacent a tip of the tooth to conform to a hypocycloid arc. a housing defining a rotor chamber, the housing including a working fluid inlet and a working fluid outlet, each in fluid communication with a portion of the rotor chamber; a rotor set rotatable within the rotor chamber, the rotor set comprising: an outer rotor having a first number of inwardly extending teeth; an inner rotor having a second number of outwardly extending teeth, the second number being at least two less than the first number, the teeth of the inner rotor having a conjugate composite profile of the teeth of the outer rotor; and a crescent inserted between the inner and outer rotors of the rotor set and providing a sealing surface between the teeth thereof to separate the working fluid inlet and working fluid outlet in the rotor chamber, wherein each of said outer rotor teeth has a composite profile which includes a portion adjacent a root of the tooth formed to conform to a circular arc and a portion adjacent a tip of the tooth to conform to a hypocycloid arc. an outer rotor having a first number of inwardly extending teeth; an inner rotor having a second number of outwardly extending teeth, the second number being at least two less than the first number, the teeth of the inner rotor having a conjugate composite profile of the teeth of the outer rotor; and a crescent inserted between the inner and outer rotors of the rotor set and providing a sealing surface between the teeth thereof to separate the working fluid inlet and working fluid outlet in the rotor chamber, wherein each of said outer rotor teeth has a composite profile which includes a portion adjacent a root of the tooth formed to conform to a circular arc and a portion adjacent a tip of the tooth to conform to a hypocycloid arc.
A method for producing a microporous plastic film, the method comprising: kneading a diluent and a polyolefin resin with an extruder; discharging the polyolefin resin kneaded with the diluent from a die lip in a sheet shape; cooling and solidifying the sheet discharged from the die lip on one or plurality of cooling drums (31, 32); reheating and drawing the solidified sheet with a plurality of rollers in a sheet conveying direction; cooling the sheet drawn in the sheet conveying direction; gripping both ends of the sheet with clips; introducing the sheet into a tenter; and washing the diluent out to prepare a uniaxially or biaxially oriented microporous plastic film, wherein the method further comprises: driving each of at least two of the rollers by a motor; bringing each surface of two rollers A and B among said at least two of the rollers each driven by the motor into contact with a surface of the sheet opposite to another surface contacting a first cooling drum defined as a cooling drum which first contacts the sheet discharged from the die lip among the cooling drums (31, 32); and controlling each rotation speed of the rollers A and B to draw the sheet substantively between the rollers A and B. discharging the polyolefin resin kneaded with the diluent from a die lip in a sheet shape; cooling and solidifying the sheet discharged from the die lip on one or plurality of cooling drums (31, 32); reheating and drawing the solidified sheet with a plurality of rollers in a sheet conveying direction; cooling the sheet drawn in the sheet conveying direction; gripping both ends of the sheet with clips; introducing the sheet into a tenter; and washing the diluent out to prepare a uniaxially or biaxially oriented microporous plastic film, wherein the method further comprises: driving each of at least two of the rollers by a motor; bringing each surface of two rollers A and B among said at least two of the rollers each driven by the motor into contact with a surface of the sheet opposite to another surface contacting a first cooling drum defined as a cooling drum which first contacts the sheet discharged from the die lip among the cooling drums (31, 32); and controlling each rotation speed of the rollers A and B to draw the sheet substantively between the rollers A and B. driving each of at least two of the rollers by a motor; bringing each surface of two rollers A and B among said at least two of the rollers each driven by the motor into contact with a surface of the sheet opposite to another surface contacting a first cooling drum defined as a cooling drum which first contacts the sheet discharged from the die lip among the cooling drums (31, 32); and controlling each rotation speed of the rollers A and B to draw the sheet substantively between the rollers A and B.
Method for automatic treatment of waste comprising the steps of: - providing a number of individual waste, optionally by at least one preliminary step of grinding of waste, and - conveying at least one individual waste, characterised in that it further comprises a step consisting of: - determining the biogenic carbon content of the individual waste according to the nature of the individual waste and its shape, by comparison with reference values. - providing a number of individual waste, optionally by at least one preliminary step of grinding of waste, and - conveying at least one individual waste, characterised in that it further comprises a step consisting of: - determining the biogenic carbon content of the individual waste according to the nature of the individual waste and its shape, by comparison with reference values. - determining the biogenic carbon content of the individual waste according to the nature of the individual waste and its shape, by comparison with reference values.
A microwave oven, comprising: a housing; a cooking cavity having a front plate, with a conductive material on the front plate of the cavity; at least one cooking unit for delivering microwave energy in said cooking cavity; and a door attached to the housing and/or to the front plate of the cooking cavity comprising: a frame coupled to an inner glass surface and to an outer glass surface; wherein the outer glass surface is substantially free of a conductive coating and is coupled to the frame; wherein the inner glass surface has a coating of conductive material coupled to the frame; and characterised in that said conductive coating on said inner glass surface contacts said conductive material on the front plate of the cavity when the door is closed, creating a ground loop for the door. a housing; a cooking cavity having a front plate, with a conductive material on the front plate of the cavity; at least one cooking unit for delivering microwave energy in said cooking cavity; and a door attached to the housing and/or to the front plate of the cooking cavity comprising: a frame coupled to an inner glass surface and to an outer glass surface; wherein the outer glass surface is substantially free of a conductive coating and is coupled to the frame; wherein the inner glass surface has a coating of conductive material coupled to the frame; and characterised in that said conductive coating on said inner glass surface contacts said conductive material on the front plate of the cavity when the door is closed, creating a ground loop for the door. a frame coupled to an inner glass surface and to an outer glass surface; wherein the outer glass surface is substantially free of a conductive coating and is coupled to the frame; wherein the inner glass surface has a coating of conductive material coupled to the frame; and characterised in that said conductive coating on said inner glass surface contacts said conductive material on the front plate of the cavity when the door is closed, creating a ground loop for the door.
A connector configuration comprising: a fixing member that is a component of a connector and is fixed to a substrate in order to mount the connector onto the substrate; a case that is a component of the connector and has an installation groove formed thereon, into which installation groove the fixing member is installed; and regulating portions provided at both side portions at the bottom portion of the fixing member so as to extend along a direction of installation of the fixing member onto the case, the regulating portions being bent at 90 degrees so as to protrude from the fixing member toward the forward direction of the case; wherein a regulating groove provided along the direction of installation on the case, the regulating groove having guide surfaces that extend in the direction of installation, and an upper surface and a bottom surface of the regulating groove being open, and when the fixing member is installed onto the case, the regulating portions are guided along the guide surfaces and tilting of the fixing member relative to the direction of installation is controlled. a fixing member that is a component of a connector and is fixed to a substrate in order to mount the connector onto the substrate; a case that is a component of the connector and has an installation groove formed thereon, into which installation groove the fixing member is installed; and regulating portions provided at both side portions at the bottom portion of the fixing member so as to extend along a direction of installation of the fixing member onto the case, the regulating portions being bent at 90 degrees so as to protrude from the fixing member toward the forward direction of the case; wherein a regulating groove provided along the direction of installation on the case, the regulating groove having guide surfaces that extend in the direction of installation, and an upper surface and a bottom surface of the regulating groove being open,
An isolated polypeptide having endoglucanase activity, selected from the group consisting of: (a) a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2; and (b) a fragment of the polypeptide of (a) that has endoglucanase activity, wherein said fragment contains at least amino acids 27 to 332 of SEQ ID NO: 2. (a) a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2; and (b) a fragment of the polypeptide of (a) that has endoglucanase activity, wherein said fragment contains at least amino acids 27 to 332 of SEQ ID NO: 2.
A cervical traction assembly for use with a patient support apparatus, the cervical traction assembly comprising: an adjustment carriage track member comprising a connecting bracket assembly that releasably connects to a mount support member of the patient support apparatus, the adjustment carriage track member comprising a track body comprising a pair of opposing sidewalls (214, 216) that are spaced-apart from each other to define an elongated channel therebetween, each sidewall (214, 216) including a guide track (224, 226) that extends along a length of the respective sidewall (214, 216); and a rope angle adjustment carriage that is located within the channel, characterised in that the rope angle adjustment carriage comprises a first track engagement member received by one of the guide tracks of one of the sidewalls and a second track engagement member received by another of the guide tracks of another of the sidewalls; wherein the first track engagement member has a locked configuration that inhibits movement of the rope angle adjustment carriage along the channel and an unlocked configuration that allows movement of the rope angle adjustment carriage along the channel. an adjustment carriage track member comprising a connecting bracket assembly that releasably connects to a mount support member of the patient support apparatus, the adjustment carriage track member comprising a track body comprising a pair of opposing sidewalls (214, 216) that are spaced-apart from each other to define an elongated channel therebetween, each sidewall (214, 216) including a guide track (224, 226) that extends along a length of the respective sidewall (214, 216); and a rope angle adjustment carriage that is located within the channel, characterised in that the rope angle adjustment carriage comprises a first track engagement member received by one of the guide tracks of one of the sidewalls and a second track engagement member received by another of the guide tracks of another of the sidewalls; wherein the first track engagement member has a locked configuration that inhibits movement of the rope angle adjustment carriage along the channel and an unlocked configuration that allows movement of the rope angle adjustment carriage along the channel.