mhurhangee/ep-ind-claims huggingface dataset:
A hand held vibration meter, comprising: a housing; a vibration sensor configured to contact a structure and convert vibrations of the structure to electrical signals, wherein the vibration sensor is contained at least partially within the housing; a vibration isolator (16, 20) in contact with the vibration sensor, wherein the vibration isolator (16, 20) is configured to filter one or more frequencies of vibration; and a force sensor responsive to a contact force applied to the vibration sensor, characterized in that the vibration meter includes a plurality of sensitivity curves (F1, F2, F3) for the vibration sensor, wherein the vibration meter is configured to select one of the sensitivity curves (F1, F2, F3) based on a contact force measured by the force sensor and to use the selected sensitivity curve when determining a vibration measurement. a housing; a vibration sensor configured to contact a structure and convert vibrations of the structure to electrical signals, wherein the vibration sensor is contained at least partially within the housing; a vibration isolator (16, 20) in contact with the vibration sensor, wherein the vibration isolator (16, 20) is configured to filter one or more frequencies of vibration; and a force sensor responsive to a contact force applied to the vibration sensor, characterized in that the vibration meter includes a plurality of sensitivity curves (F1, F2, F3) for the vibration sensor, wherein the vibration meter is configured to select one of the sensitivity curves (F1, F2, F3) based on a contact force measured by the force sensor and to use the selected sensitivity curve when determining a vibration measurement.
A single-mode, single-frequency laser system, comprising: - a frequency-tunable diode seed laser configured to generate a linearly-polarized single-frequency seed laser signal at a fundamental frequency; - an optical amplifier configured to amplify the seed laser signal; - two or more spaced mirrors defining a mechanically-fixed external resonant cavity, which is being configured to couple the amplified seed laser signal into the cavity; - a diode seed laser driver being configured to tune the frequency of the frequency-tunable diode seed laser by varying the diode driving current to keep the frequency of the seed laser locked to the resonance frequency of the external cavity in order to enhance the amplified seed laser signal coupled into the cavity; and - a non-linear crystal placed in a beam path inside the cavity, the cavity being configured to convert the frequency of the enhanced signal to a desired wavelength range. - a frequency-tunable diode seed laser configured to generate a linearly-polarized single-frequency seed laser signal at a fundamental frequency; - an optical amplifier configured to amplify the seed laser signal; - two or more spaced mirrors defining a mechanically-fixed external resonant cavity, which is being configured to couple the amplified seed laser signal into the cavity; - a diode seed laser driver being configured to tune the frequency of the frequency-tunable diode seed laser by varying the diode driving current to keep the frequency of the seed laser locked to the resonance frequency of the external cavity in order to enhance the amplified seed laser signal coupled into the cavity; and - a non-linear crystal placed in a beam path inside the cavity, the cavity being configured to convert the frequency of the enhanced signal to a desired wavelength range.
A method for allocating a Physical Cell Identity, PCI, for a communication node of a cellular network, the method comprising: allocating to a second cell a PCI based on a distance relation between a first cell and the second cell, wherein said allocating comprises: determining whether the first cell and the second cell can be allocated the same PCI; and if they can be allocated the same PCI, allocating to the second cell the same PCI as that of the first cell, characterised in that determining whether the first cell and the second cell can be allocated the same PCI comprises: estimating a radius R 1 of an inner boundary circle C 1 of a first cell and a radius R 2 of an inner boundary circle C 2 of a second cell according to a propagation model, where signal strengths within C 1 and within C 2 are greater than a first threshold T respectively; estimating a radius R 1 ' of an outer boundary circle C 1 ' of the first cell and a radius R 2 ' of an outer boundary circle C 2 ' of the second cell according to the propagation model, where the signal strengths within C 1 ' and within C 2 ' are greater than a second threshold T' respectively, T' being lower than T; comparing a distance S 1, 2 between the first cell and the second cell with Max[(R 1 '+R 2), (R 1 +R 2 ')], the distance being the distance between center points of the two cells; and determining that the first cell and the second cell can be allocated the same PCI, if the distance S 1, 2 is greater than Max[(R 1 '+R 2), (R 1 +R 2 ')]. allocating to a second cell a PCI based on a distance relation between a first cell and the second cell, wherein said allocating comprises: determining whether the first cell and the second cell can be allocated the same PCI; and if they can be allocated the same PCI, allocating to the second cell the same PCI as that of the first cell, determining whether the first cell and the second cell can be allocated the same PCI; and if they can be allocated the same PCI, allocating to the second cell the same PCI as that of the first cell, estimating a radius R 1 of an inner boundary circle C 1 of a first cell and a radius R 2 of an inner boundary circle C 2 of a second cell according to a propagation model, where signal strengths within C 1 and within C 2 are greater than a first threshold T respectively; estimating a radius R 1 ' of an outer boundary circle C 1 ' of the first cell and a radius R 2 ' of an outer boundary circle C 2 ' of the second cell according to the propagation model, where the signal strengths within C 1 ' and within C 2 ' are greater than a second threshold T' respectively, T' being lower than T; comparing a distance S 1, 2 between the first cell and the second cell with Max[(R 1 '+R 2), (R 1 +R 2 ')], the distance being the distance between center points of the two cells; and determining that the first cell and the second cell can be allocated the same PCI, if the distance S 1, 2 is greater than Max[(R 1 '+R 2), (R 1 +R 2 ')].
A method for a remote station, comprising: receiving a Wireless Local Area Network, WLAN (120, 130), advertisement via a cellular communication system, the WLAN advertisement including at least one Extended Service Set Identifier, ESSID, corresponding to the WLAN; comparing the at least one ESSID to an ESSID list stored in the remote station; and in response to the ESSID matching the at least one ESSID in the WLAN advertisement, scanning for the WLAN. receiving a Wireless Local Area Network, WLAN (120, 130), advertisement via a cellular communication system, the WLAN advertisement including at least one Extended Service Set Identifier, ESSID, corresponding to the WLAN; comparing the at least one ESSID to an ESSID list stored in the remote station; and in response to the ESSID matching the at least one ESSID in the WLAN advertisement, scanning for the WLAN.
A method for selecting the polarities for a plurality of audio input channels when generating an audio mix, characterized in that the method comprising the steps of: generating a plurality of polarity combinations, wherein each polarity combination is associated with each polarity-sensitive audio input channel included in the plurality of audio input channels; for each polarity combination included in the plurality of polarity combinations: performing mixing operations on samples associated with the polarity-sensitive audio input channels, wherein the mixing operations are based on the polarity combination and produce a candidate audio mix that is associated with the polarity combination; calculating a value of a signal characteristic associated with the candidate audio mix; and applying an optimization criterion to the values of the signal characteristic calculated for each of the polarity combinations to select a final audio mix. generating a plurality of polarity combinations, wherein each polarity combination is associated with each polarity-sensitive audio input channel included in the plurality of audio input channels; for each polarity combination included in the plurality of polarity combinations: performing mixing operations on samples associated with the polarity-sensitive audio input channels, wherein the mixing operations are based on the polarity combination and produce a candidate audio mix that is associated with the polarity combination; calculating a value of a signal characteristic associated with the candidate audio mix; and applying an optimization criterion to the values of the signal characteristic calculated for each of the polarity combinations to select a final audio mix. performing mixing operations on samples associated with the polarity-sensitive audio input channels, wherein the mixing operations are based on the polarity combination and produce a candidate audio mix that is associated with the polarity combination; calculating a value of a signal characteristic associated with the candidate audio mix; and applying an optimization criterion to the values of the signal characteristic calculated for each of the polarity combinations to select a final audio mix.
Process for the automatic manufacturing of different toric contact lenses, each contact lens having a front surface and a rear surface with the front and rear surfaces having a predetermined rotational orientation relative to one another, and with at least one of the front and rear surfaces having a toric portion, in which process a first toric contact lens is formed by - introducing a starting material into a respective lens mold comprising a male mold half and a female mold half defining a mold cavity between the shaping surfaces of the male and female mold halves, the shaping surfaces being arranged at a first rotational position relative to one another and at least one of them being toric, and - curing the starting material in the mold cavity to form the first toric lens having front and rear surfaces having a first predetermined rotational orientation relative to one another; characterized in that subsequently a second toric contact lens different from the first toric contact lens is formed having front and rear surfaces having a second predetermined rotational orientation relative to one another using the same male and female mold halves (30,31) by - rotating the same male and female mold halves (30,31) used for forming the first toric contact lens relative to one another so as to be arranged at a second rotational position relative to one another, - introducing the starting material into the mold cavity defined between the shaping surfaces of the same male and female mold halves (30,31), and - curing the starting material in the mold cavity to form the second toric contact lens having front and rear surfaces having the second predetermined rotational orientation relative to one another; wherein the step of rotating the same male and female mold halves (30,31) relative to one another from the first rotational position to the second rotational position is performed automatically in the production line. - introducing a starting material into a respective lens mold comprising a male mold half and a female mold half defining a mold cavity between the shaping surfaces of the male and female mold halves, the shaping surfaces being arranged at a first rotational position relative to one another and at least one of them being toric, and - curing the starting material in the mold cavity to form the first toric lens having front and rear surfaces having a first predetermined rotational orientation relative to one another; - rotating the same male and female mold halves (30,31) used for forming the first toric contact lens relative to one another so as to be arranged at a second rotational position relative to one another, - introducing the starting material into the mold cavity defined between the shaping surfaces of the same male and female mold halves (30,31), and - curing the starting material in the mold cavity to form the second toric contact lens having front and rear surfaces having the second predetermined rotational orientation relative to one another;
A flexible multi-panel sterilization assembly comprising: a barrier panel comprising a sheet of barrier material, the sheet defining at least one panel edge, the barrier panel configured to fold into side portions and an end portion to form a package; side tabs that are joined to a portion of the barrier panel for sequentially positioning the side portions of the barrier panel in a folded configuration over the end portion, and providing grips for simultaneously unfolding the folded side portions of the barrier panel; and barrier panel attachment means located on a portion of the side tabs; and a fold protection panel extending from the barrier panel, the fold protection panel including: a proximal end generally adjacent the barrier panel, a distal end generally opposite the proximal end; and wherein the distal end of the fold protection panel covers the one or more panel edges of the barrier panel and the side tabs after folding the side and end portions of the barrier panel. a barrier panel comprising a sheet of barrier material, the sheet defining at least one panel edge, the barrier panel configured to fold into side portions and an end portion to form a package; side tabs that are joined to a portion of the barrier panel for sequentially positioning the side portions of the barrier panel in a folded configuration over the end portion, and providing grips for simultaneously unfolding the folded side portions of the barrier panel; and barrier panel attachment means located on a portion of the side tabs; and a fold protection panel extending from the barrier panel, the fold protection panel including: a proximal end generally adjacent the barrier panel, a distal end generally opposite the proximal end; and a proximal end generally adjacent the barrier panel, a distal end generally opposite the proximal end; and wherein the distal end of the fold protection panel covers the one or more panel edges of the barrier panel and the side tabs after folding the side and end portions of the barrier panel.
A medical device, comprising: a shaft having a distal end; a cap at the distal end, wherein the cap defines a reservoir for storing a material; and a deployment mechanism configured to eject the material from the reservoir, wherein the deployment mechanism is configured to apply a force to the reservoir; wherein the cap includes a seal or a perforation, wherein the seal or the perforation is configured to contain the material in the reservoir in the absence of the force applied by the deployment mechanism to the material, wherein the seal includes a movable cover coupled to the cap, wherein the movable cover is configured to move to form an opening through which the material is able to exit the cap. a shaft having a distal end; a cap at the distal end, wherein the cap defines a reservoir for storing a material; and a deployment mechanism configured to eject the material from the reservoir, wherein the deployment mechanism is configured to apply a force to the reservoir; wherein the cap includes a seal or a perforation, wherein the seal or the perforation is configured to contain the material in the reservoir in the absence of the force applied by the deployment mechanism to the material, wherein the seal includes a movable cover coupled to the cap, wherein the movable cover is configured to move to form an opening through which the material is able to exit the cap.
A method of processing a first audio signal received at a line-in connector (220, 1108) using a playback device (102, 104, 106, 200, 702, 704, 802, 804, 806, 810, 812, 1102) comprising a network interface, the method comprising: determining that a first audio signal is present at the line-in connector; and in response to determining that the first audio signal is present at the line-in connector: (i) overriding playback of a second audio signal being played back by the playback device; (ii) playing at least a first portion of the first audio signal; and (iii) transmitting at least a second portion of the first audio signal to another playback device via the network interface. determining that a first audio signal is present at the line-in connector; and in response to determining that the first audio signal is present at the line-in connector: (i) overriding playback of a second audio signal being played back by the playback device; (ii) playing at least a first portion of the first audio signal; and (iii) transmitting at least a second portion of the first audio signal to another playback device via the network interface. (i) overriding playback of a second audio signal being played back by the playback device; (ii) playing at least a first portion of the first audio signal; and (iii) transmitting at least a second portion of the first audio signal to another playback device via the network interface.
An agricultural system, comprising: a sensor configured to sense a characteristic of an agricultural operation performed by an agricultural machine and to generate a sensor signal responsive to the sensed characteristic; a signal processor configured to aggregate a first plurality of samples of the sensor signal to obtain a first aggregated signal value; a sample geospatial correlation system configured to identify a first geographic location corresponding to the first aggregated signal value; characterized in that there is provided a sample localization system configured to generate a localized signal value based on a subset of the first plurality of samples, the sample geospatial correlation system configured to identify a second geographic location corresponding to the localized signal value; and an action signal generator configured to generate an action signal based on the localized signal value. a sensor configured to sense a characteristic of an agricultural operation performed by an agricultural machine and to generate a sensor signal responsive to the sensed characteristic; a signal processor configured to aggregate a first plurality of samples of the sensor signal to obtain a first aggregated signal value; a sample geospatial correlation system configured to identify a first geographic location corresponding to the first aggregated signal value; characterized in that there is provided a sample localization system configured to generate a localized signal value based on a subset of the first plurality of samples, the sample geospatial correlation system configured to identify a second geographic location corresponding to the localized signal value; and an action signal generator configured to generate an action signal based on the localized signal value.
A data packet transmission method, characterized in comprising: acquiring, by a base station that serves user equipment, UE, instruction information of a small data packet from a core network device in which the small data packet is temporarily stored, wherein the instruction information of the small data packet instructs the base station that serves the UE to transmit the small data packet; acquiring, by the base station that serves the UE after receiving a radio resource control message sent from the UE, the small data packet from the core network device according to the instruction information of the small data packet; and sending, by the base station that serves the UE, the small data packet to the UE. acquiring, by a base station that serves user equipment, UE, instruction information of a small data packet from a core network device in which the small data packet is temporarily stored, wherein the instruction information of the small data packet instructs the base station that serves the UE to transmit the small data packet; acquiring, by the base station that serves the UE after receiving a radio resource control message sent from the UE, the small data packet from the core network device according to the instruction information of the small data packet; and sending, by the base station that serves the UE, the small data packet to the UE.
An angle sensor comprising: analog circuitry configured to generate an analog value being proportional to a tangent value of an angle indicative of a direction of a magnetic field, the analog circuitry comprising a plurality of magnetoresistance elements (112, 116) comprising: a first magnetoresistance element configured to provide a cosine value indicative of the magnetic field along a first axis; and a second magnetoresistance element configured to provide a sine value indicative of the magnetic field along a second axis orthogonal to the first axis, wherein the tangent value is determined by the cosine value and the sine value; an analog-to-digital converter configured to convert the analog value to a digital value; and digital circuitry configured to receive the digital value, the digital circuitry comprising an angle processor configured to use the digital value and a fixed value in an arctangent algorithm to calculate an angle of a direction of the magnetic field. analog circuitry configured to generate an analog value being proportional to a tangent value of an angle indicative of a direction of a magnetic field, the analog circuitry comprising a plurality of magnetoresistance elements (112, 116) comprising: a first magnetoresistance element configured to provide a cosine value indicative of the magnetic field along a first axis; and a second magnetoresistance element configured to provide a sine value indicative of the magnetic field along a second axis orthogonal to the first axis, wherein the tangent value is determined by the cosine value and the sine value; a first magnetoresistance element configured to provide a cosine value indicative of the magnetic field along a first axis; and a second magnetoresistance element configured to provide a sine value indicative of the magnetic field along a second axis orthogonal to the first axis, wherein the tangent value is determined by the cosine value and the sine value; an analog-to-digital converter configured to convert the analog value to a digital value; and digital circuitry configured to receive the digital value, the digital circuitry comprising an angle processor configured to use the digital value and a fixed value in an arctangent algorithm to calculate an angle of a direction of the magnetic field.