mhurhangee/ep-ind-claims huggingface dataset:
A mobile station for communicating with a network having plural base stations, comprising: a speed identifier configured to identify a speed of the mobile station; a controller configured to generate control information required by the network in implementing an inter-frequency handover; and a transmitter configured to transmit the control information to the network, wherein the mobile station and the network are communicable with each other by using one of plural frequencies including a predetermined priority frequency to be used with priority, and wherein, when a serving frequency currently being used to communicate with the network is the priority frequency and when the moving speed exceeds a reference speed, the controller is configured to reduce a number of times per unit time of transmitting the control information to the network compared to a case in which another frequency is being used for communication, and the priority frequency is a frequency common to a plurality of cells. a speed identifier configured to identify a speed of the mobile station; a controller configured to generate control information required by the network in implementing an inter-frequency handover; and a transmitter configured to transmit the control information to the network, wherein the mobile station and the network are communicable with each other by using one of plural frequencies including a predetermined priority frequency to be used with priority, and wherein, when a serving frequency currently being used to communicate with the network is the priority frequency and when the moving speed exceeds a reference speed, the controller is configured to reduce a number of times per unit time of transmitting the control information to the network compared to a case in which another frequency is being used for communication, and the priority frequency is a frequency common to a plurality of cells.
An electromagnetic actuator characterized by comprising: an electromagnetic coil; fixed portions (22,23) placed around the electromagnetic coil; and a movable portion including a magnetic circuit of the electromagnetic coil together with the fixed portions (22,23), the movable portion configured to operate an operated member by moving in a predetermined direction due to an electromagnetic force generated in the magnetic circuit, wherein the movable portion includes a first member and a second member, and the first member and the second member are supported respectively by the fixed portions (22,23), characterized in that the first member and the second member are incorporated to each other by sandwiching the operated member from both sides in the predetermined direction. an electromagnetic coil; fixed portions (22,23) placed around the electromagnetic coil; and a movable portion including a magnetic circuit of the electromagnetic coil together with the fixed portions (22,23), the movable portion configured to operate an operated member by moving in a predetermined direction due to an electromagnetic force generated in the magnetic circuit, wherein the movable portion includes a first member and a second member, and the first member and the second member are supported respectively by the fixed portions (22,23), the first member and the second member are incorporated to each other by sandwiching the operated member from both sides in the predetermined direction.
A space wind farm, consisting of a plurality of tower structures which carry a plurality of wind generators arranged one above the other and which are laterally braced by tendons which run laterally away from the tower structure, characterized in that the tendons extending between the tower structures are each held on the ground side in the tower foot region of the neighboring tower structure.
Device for determining the convective heat transfer coefficient at a convection surface, wherein a first temperature difference between the surface temperature of the convection surface and the surrounding fluid temperature and a second temperature difference between a temperature in the near region (4, 20) of the convection surface and the surrounding fluid temperature can be determined, wherein the near region (4, 20) lies so close to the convection surface that the temperature is noticeably influenced by the convection surface by convection.
Drive system in a motor vehicle, having at least one activatable electric drive machine, having an inverter and having an actuator arrangement for the connection of the electric drive machine, wherein an inverter comprises power output stages (57, 67, 58) for the electric drive machine and the actuator arrangement, which power output stages operate in the same voltage range or in different voltage ranges, characterized in that the actuator arrangement has an electromagnetic switching actuator and a dog clutch, wherein an electromagnetic drive, by means of a solenoid (5a, 5b), linearly moves a switching rod which is connected in terms of force action to a pivoting switching fork.
A method of operating a wearable, continuous physiological monitoring system,, comprising a wearable housing,, one or more sensors, in the wearable housing,, and a processor, in the wearable housing, configured to operate the one or more sensors,, the method comprising: detecting a sleep state of a user; monitoring a heart rate of the user substantially continuously with the continuous physiological monitoring system,,; recording the heart rate as heart rate data; detecting a waking event at a transition from the sleep state of the user to an awake state; detecting a slow wave sleep period occurring most recently before the waking event; evaluating a quality of heart rate data using a data quality metric for the slow wave sleep period; calculating a heart rate variability for a window of predetermined duration within the slow wave sleep period having a highest quality of heart rate data according to the data quality metric; and calculating a recovery score for the user based upon the heart rate variability. detecting a sleep state of a user; monitoring a heart rate of the user substantially continuously with the continuous physiological monitoring system,,; recording the heart rate as heart rate data; detecting a waking event at a transition from the sleep state of the user to an awake state; detecting a slow wave sleep period occurring most recently before the waking event; evaluating a quality of heart rate data using a data quality metric for the slow wave sleep period; calculating a heart rate variability for a window of predetermined duration within the slow wave sleep period having a highest quality of heart rate data according to the data quality metric; and calculating a recovery score for the user based upon the heart rate variability.
A computer implemented method, comprising: at a server system having one or more processors and memory storing one or more programs executed by the one or more processors, receiving from a client system a request for document information; receiving from the client system a cookie that identifies a plurality of user names currently logged into the server system from the client system, the plurality of currently logged-in user names including a first user name and a second user name distinct from the first user name; redirecting the received request to a location associated with a selected user name from among the plurality of currently logged-in user names; receiving the redirected request; and in response to the redirected request, processing the request as a request from the selected user name and sending to the client system document information corresponding to the request from the selected user name. at a server system having one or more processors and memory storing one or more programs executed by the one or more processors, receiving from a client system a request for document information; receiving from the client system a cookie that identifies a plurality of user names currently logged into the server system from the client system, the plurality of currently logged-in user names including a first user name and a second user name distinct from the first user name; redirecting the received request to a location associated with a selected user name from among the plurality of currently logged-in user names; receiving the redirected request; and in response to the redirected request, processing the request as a request from the selected user name and sending to the client system document information corresponding to the request from the selected user name. receiving from a client system a request for document information; receiving from the client system a cookie that identifies a plurality of user names currently logged into the server system from the client system, the plurality of currently logged-in user names including a first user name and a second user name distinct from the first user name; redirecting the received request to a location associated with a selected user name from among the plurality of currently logged-in user names; receiving the redirected request; and in response to the redirected request, processing the request as a request from the selected user name and sending to the client system document information corresponding to the request from the selected user name.
A method for quantitatively determining small, dense LDL cholesterol in a sample, comprising the steps of: eliminating cholesterol in LDL other than small, dense LDL in the presence of sphingomyelinase, and then quantitatively determining cholesterol in the remaining small, dense LDL. eliminating cholesterol in LDL other than small, dense LDL in the presence of sphingomyelinase, and then quantitatively determining cholesterol in the remaining small, dense LDL.
A method of point cloud coding, PCC, implemented by a video decoder, comprising: receiving an encoded bitstream including a group of frames header disposed outside a coded representation of a texture component and a geometry component, the coded representation included in a payload of a PCC network abstraction layer, NAL, unit, wherein the group of frames, GOF header includes an identified_codec parameter for identifying a video codec used for coding the texture component and the geometry component; and decoding the encoded bitstream. receiving an encoded bitstream including a group of frames header disposed outside a coded representation of a texture component and a geometry component, the coded representation included in a payload of a PCC network abstraction layer, NAL, unit, wherein the group of frames, GOF header includes an identified_codec parameter for identifying a video codec used for coding the texture component and the geometry component; and decoding the encoded bitstream.
An exhaust sampling system (10, 10a) for an internal combustion engine of a hybrid-electric vehicle, the exhaust sampling system comprising: a dilution tunnel in which exhaust gas from the engine and make-up air are mixed in order to produce diluted exhaust gas; an exhaust collection unit including at least one collection bag that selectively receives said diluted exhaust gas; a sample probe (42, 44, 46) in fluid communication with said dilution tunnel and operable to selectively supply said at least one collection bag with a portion of said diluted exhaust gas from said dilution tunnel during a sampling period; and a controller configured to permit flow of said diluted exhaust gas from said sample probe (42, 44, 46) to said at least one collection bag in a first state and configured to prevent flow of said diluted exhaust gas from said sample probe (42, 44, 46) to said at least one collection bag in a second state, said controller further being configured to selectively supply said make-up air and/or a fill gas to said at least one collection bag; characterized by said controller being configured to selectively supply and to selectively prevent flow of said make-up air and/or said fill gas to said at least one collection bag when the engine is in an OFF state during said sampling period. a dilution tunnel in which exhaust gas from the engine and make-up air are mixed in order to produce diluted exhaust gas; an exhaust collection unit including at least one collection bag that selectively receives said diluted exhaust gas; a sample probe (42, 44, 46) in fluid communication with said dilution tunnel and operable to selectively supply said at least one collection bag with a portion of said diluted exhaust gas from said dilution tunnel during a sampling period; and a controller configured to permit flow of said diluted exhaust gas from said sample probe (42, 44, 46) to said at least one collection bag in a first state and configured to prevent flow of said diluted exhaust gas from said sample probe (42, 44, 46) to said at least one collection bag in a second state, said controller further being configured to selectively supply said make-up air and/or a fill gas to said at least one collection bag; characterized by said controller being configured to selectively supply and to selectively prevent flow of said make-up air and/or said fill gas to said at least one collection bag when the engine is in an OFF state during said sampling period.
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising 10 to 90% by weight of a graft copolymer resin and 90 to 10% by weight of a non-graft copolymer resin; and 0.1 to 15 parts by weight of a polyether-amide block copolymer, wherein a weight-average molecular weight of the graft copolymer resin is 80,000 to 300,000 g/mol, wherein a weight-average molecular weight of the non-graft copolymer resin is 80,000 to 300,000 g/mol, wherein a weight-average molecular weight of the thermoplastic resin composition is 100,000 to 300,000 g/mol, a refractive index difference between the graft copolymer resin and the non-graft copolymer resin is 0.01 or less, and in the base resin, a total content of the conjugated diene rubber is 10 to 40% by weight, a total content of the (meth) acrylate alkyl ester compound is 20 to 65% by weight, a total content of the aromatic vinyl compound is 10 to 35% by weight, and a total content of the vinyl cyano compound is 0 to 5% by weight. 100 parts by weight of a base resin comprising 10 to 90% by weight of a graft copolymer resin and 90 to 10% by weight of a non-graft copolymer resin; and 0.1 to 15 parts by weight of a polyether-amide block copolymer, wherein a weight-average molecular weight of the graft copolymer resin is 80,000 to 300,000 g/mol, wherein a weight-average molecular weight of the non-graft copolymer resin is 80,000 to 300,000 g/mol, wherein a weight-average molecular weight of the thermoplastic resin composition is 100,000 to 300,000 g/mol, a refractive index difference between the graft copolymer resin and the non-graft copolymer resin is 0.01 or less, and in the base resin, a total content of the conjugated diene rubber is 10 to 40% by weight, a total content of the (meth) acrylate alkyl ester compound is 20 to 65% by weight, a total content of the aromatic vinyl compound is 10 to 35% by weight, and a total content of the vinyl cyano compound is 0 to 5% by weight.
An ultrasound ablation catheter, comprising: a distal assembly comprising an ultrasound ablation transducer, an echolucent shell, and an ablation direction fiducial marker, the echolucent shell at least partially defining a distal chamber, the ultrasound ablation transducer disposed within the distal chamber, the distal assembly adapted to house therein an ultrasound imaging transducer of an ultrasound imaging catheter, the ablation direction fiducial marker positioned relative to the ultrasound ablation transducer and adapted to, when an ultrasound imaging transducer is positioned and activated within the distal assembly, create an aiming artifact on an image created by the ultrasound imaging transducer, the aiming artifact adapted to be used to indicate a direction of ablation; and an elongate shaft extending proximally from the distal assembly. a distal assembly comprising an ultrasound ablation transducer, an echolucent shell, and an ablation direction fiducial marker, the echolucent shell at least partially defining a distal chamber, the ultrasound ablation transducer disposed within the distal chamber, the distal assembly adapted to house therein an ultrasound imaging transducer of an ultrasound imaging catheter, the ablation direction fiducial marker positioned relative to the ultrasound ablation transducer and adapted to, when an ultrasound imaging transducer is positioned and activated within the distal assembly, create an aiming artifact on an image created by the ultrasound imaging transducer, the aiming artifact adapted to be used to indicate a direction of ablation; and an elongate shaft extending proximally from the distal assembly.
A maintenance method for a zirconia-type oxygen analyzer that uses a zirconia sensor to measure an oxygen concentration of a gas to be measured, the maintenance method comprising: storing in a memory, by the zirconia-type oxygen analyzer, an internal resistance present in the zirconia sensor; determining, by an information processing apparatus, a timing at which maintenance should be performed on the zirconia sensor based on a change over time in the internal resistance stored in the memory; and presenting, by the information processing apparatus, the timing at which maintenance should be performed on the zirconia sensor. storing in a memory, by the zirconia-type oxygen analyzer, an internal resistance present in the zirconia sensor; determining, by an information processing apparatus, a timing at which maintenance should be performed on the zirconia sensor based on a change over time in the internal resistance stored in the memory; and presenting, by the information processing apparatus, the timing at which maintenance should be performed on the zirconia sensor.
A method for blending video images, the method comprising: accessing a first video signal, a second video signal, and input blending parameters, wherein the first and second video signals are coded using a source electro-optical transfer function; generating (210, 220) video signal metrics, wherein the video signals metrics are coded using the source electro-optical transfer function; generating scaled blending parameters in response to the video signal metrics and the input blending parameters; and generating mapped blending parameters in response to the scaled blending parameters, the source electro-optical transfer function, and the target electro-optical transfer functions; wherein generating the video signal metrics further comprises: accessing a linearized representation of the first video signal based on the source electro-optical transfer function; generating a first transformed video signal by applying the target electro-optical transfer function to the linearized representation of the first video signal; generating a second transformed video signal in response to the target electro-optical transfer function; and generating the video signal metrics in response to the transformed first and second video signals. generating (210, 220) video signal metrics, wherein the video signals metrics are coded using the source electro-optical transfer function; generating scaled blending parameters in response to the video signal metrics and the input blending parameters; and generating mapped blending parameters in response to the scaled blending parameters, the source electro-optical transfer function, and the target electro-optical transfer functions; wherein generating the video signal metrics further comprises: accessing a linearized representation of the first video signal based on the source electro-optical transfer function; generating a first transformed video signal by applying the target electro-optical transfer function to the linearized representation of the first video signal; generating a second transformed video signal in response to the target electro-optical transfer function; and generating the video signal metrics in response to the transformed first and second video signals. accessing a linearized representation of the first video signal based on the source electro-optical transfer function; generating a first transformed video signal by applying the target electro-optical transfer function to the linearized representation of the first video signal; generating a second transformed video signal in response to the target electro-optical transfer function; and generating the video signal metrics in response to the transformed first and second video signals.
A knife (10, 1010) comprising: a handle (20,1020); a blade holder (300, 1300) connected to the handle (20,1020) and configured to receive a utility blade having planar side surfaces; and a blade lock (400, 1400) pivotally connected to the blade holder (300, 1300) for movement relative to the blade holder about a blade lock axis between a locked position and a released position, wherein, when the blade lock (400, 1400) is in the locked position, a lock surface of the blade lock is configured to engage the utility blade to lock the blade to the blade holder (300, 1300), wherein, when the blade lock (400, 1400) is in the released position, the lock surface is configured to permit the utility blade to be inserted into and removed from the blade holder (300, 1300), wherein the blade lock axis forms an angle α relative to a lateral direction of the knife, wherein the lateral direction is perpendicular to the planar side surfaces of a utility blade when a said utility blade is received in the blade holder (300, 1300), and characterized in that the angle α is between 5 and 85 degrees. a handle (20,1020); a blade holder (300, 1300) connected to the handle (20,1020) and configured to receive a utility blade having planar side surfaces; and a blade lock (400, 1400) pivotally connected to the blade holder (300, 1300) for movement relative to the blade holder about a blade lock axis between a locked position and a released position, wherein, when the blade lock (400, 1400) is in the locked position, a lock surface of the blade lock is configured to engage the utility blade to lock the blade to the blade holder (300, 1300), wherein, when the blade lock (400, 1400) is in the released position, the lock surface is configured to permit the utility blade to be inserted into and removed from the blade holder (300, 1300), wherein the blade lock axis forms an angle α relative to a lateral direction of the knife, wherein the lateral direction is perpendicular to the planar side surfaces of a utility blade when a said utility blade is received in the blade holder (300, 1300), and characterized in that the angle α is between 5 and 85 degrees.
A method for processing a measurement signal T1 of a temperature delivered by a sensor, comprising: - a step of digital modeling, by a modeled signal T2, of the temperature measured by the sensor; - a step of estimating a lag error signal for this sensor, on the basis of the modeled signal T2 and of a signal T3 obtained by filtering the modeled signal, this filtering being parameterized by an estimate of a time constant (τ) of the sensor; said processing method being characterized in that it further comprises a step of obtaining a temperature signal, by adding to a signal T4, derived from the measurement signal T1 the product of a real parameter K by a signal resulting from the subtraction of the signal T4 from the modeled signal T2, and in that the value of the parameter K applied during the obtaining step varies over time and depends on the value of the estimated lag error signal, said applied value of the parameter K being taken as equal to 0 when the value of the lag error signal is zero and to 1 when the absolute value of the lag error signal is greater than a first predetermined threshold. - a step of digital modeling, by a modeled signal T2, of the temperature measured by the sensor; - a step of estimating a lag error signal for this sensor, on the basis of the modeled signal T2 and of a signal T3 obtained by filtering the modeled signal, this filtering being parameterized by an estimate of a time constant (τ) of the sensor;