mhurhangee/ep-ind-claims huggingface dataset:
A self-locking belt retractor for seatbelts including a belt shaft, which belt shaft is rotatably supported in a housing frame and pre-tensioned by a winding spring in the direction of retraction of the belt strap, and at least one belt strapsensitive drive mechanism that includes a control disc, which control disc is coupled to the belt shaft, for controlling a blocking element disposed on the belt shaft, which blocking element is deflectable against a spring effect upon relative rotation between belt shaft and control disc until the engaging in a housing gearing and the blocking element is coupled to the control disc by a pin, which pin engages in a slot formed in the control disc, such that during the relative rotation between control disc and belt shaft and when the pin is guided in the slot, it is coupled to the control disc, wherein the control disc supports a two-armed inertial mass eccentrically pivotable on the control disc and radially pivotable against the effect of a return spring, which inertial mass upon activation radially pivots, due to the rotational acceleration acting on the control disc, with its one blocking arm until engagement in a positionally fixed gearing, and thereby retaining and setting the control disc in its rotational movement, and wherein a torsion spring, which is located at a bearing position for the belt shaft and/or the control disc and includes two spring legs (27, 28) disposed circumferentially distanced from each other, is rotatably supported using a frictionally bonded bearing relative to the control disc between a contact position on the inertial mass and a contact position on a carrier projecting from the plane of the control disc, characterised in that both of the spring legs (27; 28, 50) of the torsion spring disposed in the plane above the inertial mass and distanced to the plane of the control disc enclose between themselves and overlap with the abutment surfaces (22, 23) extending into the plane of the control disc, wherein the carrier forms abutment surfaces (22, 23) for the spring legs (27; 28, 50) for carrying the torsion spring upon the rotation of the control disc both in the direction of retraction of the belt (arrow 40) and in the direction of extension of the belt (arrow 41) such that upon rotation of the control disc in the direction of extension of the belt, the torsion spring releases the inertial mass, and upon rotation of the control disc in the direction of retraction of the belt, the torsion spring prevents an outward swinging of the inertial mass, and in that further the spring legs (28, 50) serving for the carrying of the torsion spring in the direction of retraction of the belt extends with its abutment surface (29, 53) into the movement path of the pin in the slot during the rotation of the control disc in the direction of retraction of the belt, thereby fixing the blocking element to the belt shaft.
A method of processing a digital radio broadcast signal in a digital radio receiver comprising: receiving baseband signal samples at a first sample rate; adjusting the sample rate of the baseband signals based on a difference between a receiver clock and a transmitter clock to produce adjusted baseband signal samples at a second sample rate; wherein the step of adjusting the sample rate of the baseband signals comprises resampling the baseband signal samples using an asynchronous sample rate converter; wherein the asynchronous sample rate converter adjusts the sample rate for the baseband signal samples in response to a sample rate correction value; wherein a sample slip and a sample rate offset are estimated; wherein the sample rate correction value is derived from both the estimated sample slip and the estimated sample rate offset; wherein the adjusted baseband signal samples are produced at the second sample rate to drive both the sample slip and the sample rate offset to zero; the method further comprising: filtering the adjusted baseband signal samples to separate a digital component of the samples and an analog component of the samples, wherein the digital component and the analog component are synchronous; and separately demodulating the digital component and the analog component to produce a digital output signal and an analog output signal. receiving baseband signal samples at a first sample rate; adjusting the sample rate of the baseband signals based on a difference between a receiver clock and a transmitter clock to produce adjusted baseband signal samples at a second sample rate; wherein the step of adjusting the sample rate of the baseband signals comprises resampling the baseband signal samples using an asynchronous sample rate converter; wherein the asynchronous sample rate converter adjusts the sample rate for the baseband signal samples in response to a sample rate correction value; wherein a sample slip and a sample rate offset are estimated; wherein the sample rate correction value is derived from both the estimated sample slip and the estimated sample rate offset; wherein the adjusted baseband signal samples are produced at the second sample rate to drive both the sample slip and the sample rate offset to zero; the method further comprising: filtering the adjusted baseband signal samples to separate a digital component of the samples and an analog component of the samples, wherein the digital component and the analog component are synchronous; and separately demodulating the digital component and the analog component to produce a digital output signal and an analog output signal. filtering the adjusted baseband signal samples to separate a digital component of the samples and an analog component of the samples, wherein the digital component and the analog component are synchronous; and separately demodulating the digital component and the analog component to produce a digital output signal and an analog output signal.
A method of monitoring a reservoir by observing a microseismic signal or signals produced by one or more microseismic events, characterized in that quantitative analysis of the microseismic signal or signals is used to investigate a process or property occurring at the source location of an individual microseismic event, wherein the quantitative analysis of the microseismic signal or signals comprises: deriving a source location in space and time; analyzing a frequency content of the microseismic signal or signals to estimate an equivalent radius of a fracture plane generating the microseismic event; and analyzing a polarity of the microseismic signal or signals and relative amplitude of different microseismic phases to determine an orientation of the failure plane in space. deriving a source location in space and time; analyzing a frequency content of the microseismic signal or signals to estimate an equivalent radius of a fracture plane generating the microseismic event; and analyzing a polarity of the microseismic signal or signals and relative amplitude of different microseismic phases to determine an orientation of the failure plane in space.
A control system configured for controlling a heater, the heater including at least one heating element, the control system comprising: a power converter operable to supply a voltage output that is adjustable to the heater, wherein the power converter is configured to convert a voltage input from a power source to the voltage output that is less than or equal to the voltage input; a sensor circuit configured to measure an electrical characteristic of the heating element of the heater, wherein the electrical characteristic includes at least one of an electric current and a voltage; a reference temperature sensor measuring a reference temperature of a reference at the heater; and a controller configured to operate the power converter to control the voltage output to the heater, wherein: the controller is configured to calculate a primary temperature of a heater element based on the electrical characteristic and to determine the voltage output to be applied to the heater based on at least one of the reference temperature and the primary temperature, and the controller is configured to operate in at least one of an operation mode and a learn mode, and to execute one or more protection protocols when the voltage output is being supplied to the heater. a power converter operable to supply a voltage output that is adjustable to the heater, wherein the power converter is configured to convert a voltage input from a power source to the voltage output that is less than or equal to the voltage input; a sensor circuit configured to measure an electrical characteristic of the heating element of the heater, wherein the electrical characteristic includes at least one of an electric current and a voltage; a reference temperature sensor measuring a reference temperature of a reference at the heater; and a controller configured to operate the power converter to control the voltage output to the heater, wherein: the controller is configured to calculate a primary temperature of a heater element based on the electrical characteristic and to determine the voltage output to be applied to the heater based on at least one of the reference temperature and the primary temperature, and the controller is configured to operate in at least one of an operation mode and a learn mode, and to execute one or more protection protocols when the voltage output is being supplied to the heater. the controller is configured to calculate a primary temperature of a heater element based on the electrical characteristic and to determine the voltage output to be applied to the heater based on at least one of the reference temperature and the primary temperature, and the controller is configured to operate in at least one of an operation mode and a learn mode, and to execute one or more protection protocols when the voltage output is being supplied to the heater.
A control valve (5, 5') for connection units for flexible hoses, comprising a plurality of petals (segments or sectors) (6, 7; 6', 7') rotatable between a position of complete opening and a position of complete closing, wherein rotatable petals (6, 7; 6', 7') having different shape and size alternate in pairs along the circumference of the connection unit, and wherein the petals of smaller size (6, 6') have a substantially triangular shape with straight lateral sides and a rounded end, which fluid-tightly abut against corresponding straight lateral sides and curved parts of the petals of larger size when the valve is closed, characterized in that said lateral sides and said curved end of the petals of smaller size (6, 6') have a continuous cavity with a dovetail cross-section and small lateral entrance in which a sealing gasket with a substantially circular cross-section and ends fixed in a removable manner to the remote ends of said lateral sides is housed and retained.
An ionic conductive, stretchable, and flexible transparent material comprising silk fibroin, a nanomaterial, and an electrolyte, wherein the nanomaterial is present in an amount of 3 to 24 parts by weight for every 100 parts by weight of the silk fibroin.
An acrylic polymer comprising an acetone-soluble portion and an acetone-insoluble portion, wherein the content of the acetone-insoluble portion in the acrylic polymer determined as described in the description is 8 mass% to 26 mass%, and wherein the content of methyl methacrylate units in the acetone-soluble portion determined as described in the description is 60 mass% to 85 mass%, and wherein the content of alkyl (meth)acrylate units having an alkyl group having 2 to 8 carbon atoms in the acetone-insoluble portion determined as described in the description is 15 mass% to 90 mass%, including dimethacrylate units having an alkyl group having 6 or less carbon atoms. wherein the content of the acetone-insoluble portion in the acrylic polymer determined as described in the description is 8 mass% to 26 mass%, and wherein the content of methyl methacrylate units in the acetone-soluble portion determined as described in the description is 60 mass% to 85 mass%, and wherein the content of alkyl (meth)acrylate units having an alkyl group having 2 to 8 carbon atoms in the acetone-insoluble portion determined as described in the description is 15 mass% to 90 mass%, including dimethacrylate units having an alkyl group having 6 or less carbon atoms.
An electric spindle for numerical control machines structured to lock and drive into rotation a tool about a predetermined reference axis locally coinciding with the longitudinal axis of the tool; the electric spindle comprising an outer structural casing which is structured to be rigidly attachable to a generic numerical control machine, and an electric motor which is housed within the structural casing and is provided with a drive shaft, which projects/emerges with its front end outside the structural casing while remaining locally coaxial to the reference axis of the electric spindle; the electric spindle being characterized by also comprising: - a thrust-bearing rotating bushing or sleeve which is fitted in an axially rotatable manner on the front end of the drive shaft via interposition of a first set of annular rolling bearings, and is maintained coaxial to the electric spindle reference axis by a second set of annular rolling bearings which are interposed between the rotating bushing or sleeve and the structural casing; and - at least one disassemblable tool-holder head (5, 5') which is structured to be fixable in a rigid and stable, though easily releasable manner to the front end of the drive shaft, is structured so as to accommodate and retain in a rigid and stable though easily releasable manner the shank of a generic tool for numerical control machines, and is finally provided with a peripheral crown which is dimensioned/structured to stably abut, selectively and alternatively, on the front end of the drive shaft or on the rotating thrust-bearing bushing or sleeve. - a thrust-bearing rotating bushing or sleeve which is fitted in an axially rotatable manner on the front end of the drive shaft via interposition of a first set of annular rolling bearings, and is maintained coaxial to the electric spindle reference axis by a second set of annular rolling bearings which are interposed between the rotating bushing or sleeve and the structural casing; and - at least one disassemblable tool-holder head (5, 5') which is structured to be fixable in a rigid and stable, though easily releasable manner to the front end of the drive shaft, is structured so as to accommodate and retain in a rigid and stable though easily releasable manner the shank of a generic tool for numerical control machines, and is finally provided with a peripheral crown which is dimensioned/structured to stably abut, selectively and alternatively, on the front end of the drive shaft or on the rotating thrust-bearing bushing or sleeve.
An endoscope-cleaning device comprising a long flexible core member inserted into a twisted tubular body, wherein the tubular body is a woven fabric comprising a weft yarn comprising a microfiber yarn, wherein the microfiber yarn has a diameter of 2 μm to 8 μm.
A device for signal processing comprising: a receiver configured to receive a parameter, associated with a bandwidth-extended audio stream (126, 128, 130) and characterised by comprising a high-band excitation signal generator ( 147,418) configured to: determine a value of the parameter; and responsive to determining the value of the parameter, generate a high-band excitation signal using target gain information associated with the bandwidth-extended audio stream when the parameter has a first value or generating the high-band excitation signal using filter information associated with the bandwidth-extended audio stream to determine a filter based on the filter information and to generate the high-band excitation signal based on application of the filter to a first high-band excitation signal when the parameter has a second value, wherein the first high-band excitation signal is generated by harmonically extending a lower-band excitation signal in a time domain (144, 168) and wherein the filter information indicates a finite impulse response filter. determine a value of the parameter; and responsive to determining the value of the parameter, generate a high-band excitation signal using target gain information associated with the bandwidth-extended audio stream when the parameter has a first value or generating the high-band excitation signal using filter information associated with the bandwidth-extended audio stream to determine a filter based on the filter information and to generate the high-band excitation signal based on application of the filter to a first high-band excitation signal when the parameter has a second value, wherein the first high-band excitation signal is generated by harmonically extending a lower-band excitation signal in a time domain (144, 168) and wherein the filter information indicates a finite impulse response filter.
A resource allocation method, comprising: allocating a resource group comprising M first resource blocks to a terminal when allocating uplink resources, wherein an occupancy ratio of a frequency spacing formed by the M first resource blocks to a system bandwidth is greater than a preset threshold, and the resource group further comprises N second resource blocks in any frequency domain positions, wherein M≥2, N≥1, and both M and N are positive integers; and sending resource indication information to the terminal, wherein the resource indication information comprises information about the resource group, wherein the frequency spacing formed by the M first resource blocks is a bandwidth spacing between resource blocks on two ends of the M first resource blocks. allocating a resource group comprising M first resource blocks to a terminal when allocating uplink resources, wherein an occupancy ratio of a frequency spacing formed by the M first resource blocks to a system bandwidth is greater than a preset threshold, and the resource group further comprises N second resource blocks in any frequency domain positions, wherein M≥2, N≥1, and both M and N are positive integers; and sending resource indication information to the terminal, wherein the resource indication information comprises information about the resource group, wherein the frequency spacing formed by the M first resource blocks is a bandwidth spacing between resource blocks on two ends of the M first resource blocks.
A method for use in an authentication server of a communication system, wherein the communication system supports two or more access technologies for permitting a communication device to access the communication system, the method comprising generating at least part of a first security context for a given communication device permitting the given communication device to access the communication system via a first access technology; receiving from a first authenticator (114, 118) a first request for authentication of the given communication device for an access to the communication system, wherein the first request comprises a Network Access Server, NAS, type or NAS port type of the first authenticator (114, 118); checking the NAS type or NAS port type of the first authenticator (114, 118) to determine that the first request comes from a second access technology, wherein the second access technology is distinct from the first access technology; making a first determination that no active security context exists for the given communication device for the second access technology and the given communication device is authorized for an access to the communication system via the second access technology; based on the first determination, generating at the authentication server at least part of at least a second security context for the given communication device such that the given communication device is pre-registered to access the communication system via the second access technology while maintaining the first security context and such that the given communication device is able to continue to access the communication system via the first access technology.
A mobile station having an image navigation apparatus, the mobile station comprising: a display unit configured to display an image related to one of a plurality of applications, wherein the one of the plurality of applications is a game having a reference point and a target point; and a tilt sensor unit adapted to sense a tilt of the mobile station; characterized in that the mobile station further comprises: a processing unit operatively coupled to the tilt sensor, adapted to read coordinates of the reference point and the target point on the image displayed on the display unit to calculate an angle and a distance between the target point and the reference point; and a voltage distributing unit operatively coupled to the processing unit and adapted to distribute a voltage to the tilt sensor unit, the voltage distributing unit generating a reference voltage for adjusting a sensitivity degree of the one of the plurality of applications to optimize movement of the displayed image based on the calculated angle and distance, and wherein the reference point is a position at which an object of the game is located and the target point is a position at which a mark to be hit is located or to which the object is to be moved. a display unit configured to display an image related to one of a plurality of applications, wherein the one of the plurality of applications is a game having a reference point and a target point; and a tilt sensor unit adapted to sense a tilt of the mobile station; a processing unit operatively coupled to the tilt sensor, adapted to read coordinates of the reference point and the target point on the image displayed on the display unit to calculate an angle and a distance between the target point and the reference point; and a voltage distributing unit operatively coupled to the processing unit and adapted to distribute a voltage to the tilt sensor unit, the voltage distributing unit generating a reference voltage for adjusting a sensitivity degree of the one of the plurality of applications to optimize movement of the displayed image based on the calculated angle and distance, and wherein the reference point is a position at which an object of the game is located and the target point is a position at which a mark to be hit is located or to which the object is to be moved.