mhurhangee/patent-ind-claim-en huggingface dataset:
A laser processing head comprising: a first parallel plate configured to shift an optical axis of a laser beam (LB) from a first optical axis to a second optical axis; a first holder that holds the first parallel plate ; a first rotation mechanism configured to rotate the first holder around a first rotary axis; a second parallel plate configured to shift the optical axis of the laser beam (LB) that has been shifted to the second optical axis by the first parallel plate to a third optical axis; a second holder that holds the second parallel plate ; a second rotation mechanism configured to rotate the second holder around a second rotary axis; and a first case that accommodates the first parallel plate , the first holder , the second parallel plate , and the second holder , wherein the first rotary axis, the second rotary axis, and the first optical axis are aligned with each other, and the laser beam (LB) passes through the first case from upward to downward, characterized in that a first light transmission part that the laser beam (LB) having been shifted by the first parallel plate and reflected by an incident surface of the second parallel plate passes through is formed in the second holder , and a first light receiving part that receives the laser beam (LB) having passed through the first light transmission part is disposed in the first case . a first parallel plate configured to shift an optical axis of a laser beam (LB) from a first optical axis to a second optical axis; a first holder that holds the first parallel plate ; a first rotation mechanism configured to rotate the first holder around a first rotary axis; a second parallel plate configured to shift the optical axis of the laser beam (LB) that has been shifted to the second optical axis by the first parallel plate to a third optical axis; a second holder that holds the second parallel plate ; a second rotation mechanism configured to rotate the second holder around a second rotary axis; and a first case that accommodates the first parallel plate , the first holder , the second parallel plate , and the second holder , wherein the first rotary axis, the second rotary axis, and the first optical axis are aligned with each other, and the laser beam (LB) passes through the first case from upward to downward, characterized in that a first light transmission part that the laser beam (LB) having been shifted by the first parallel plate and reflected by an incident surface of the second parallel plate passes through is formed in the second holder , and a first light receiving part that receives the laser beam (LB) having passed through the first light transmission part is disposed in the first case .
An intraluminal prosthesis, comprising: a stent architecture having a longitudinal axis L comprising: a series of stent elements repeating along a circumferential axis, characterized in that the stent elements comprise: v-shaped stent elements (v 1 , v 2 , v 3 , v 4 ) having a first leg portion, a second leg portion angled with respect to the longitudinal axis L, and a peak portion, the v-shaped stent elements (v 1 , v 2 , v 3 , v 4 ) having at least four different orientations, and V-shaped stent elements (V 1 , V 2 ) connecting adjacent v-shaped stent elements (v 1 , v 2 , v 3 , v 4 ) such that the second leg portion of each of the v- shaped stent elements (v 1 , v 2 , v 3 , v 4 ) is connected to a V-shaped element (V 1 , V 2 ), the second leg portion of each of the v-shaped stent elements narrowing in width toward the V-shaped stent element (V 1 , V 2 ).
Process for filling of beverage packaging comprising an interior drinking straw , characterized in that the filling process at least comprises the steps of a) in-line microwave assisted pasteurization of the beverage , b) Vaporized Hydrogen Peroxide treatment of the packaging , c) Vaporized Hydrogen Peroxide treatment of the straw , d) Assembly of the Vaporized Hydrogen Peroxide treated straw in the Vaporized Hydrogen Peroxide treated packaging , e) Fixation of the straw inside the packaging , f) temperature adjustment of the pasteurized beverage of step a) and cold filling of the pasteurized beverage into the hydrogen peroxide treated packaging including the fixed straw , and g) Sealing of the packaging . a) in-line microwave assisted pasteurization of the beverage , b) Vaporized Hydrogen Peroxide treatment of the packaging , c) Vaporized Hydrogen Peroxide treatment of the straw , d) Assembly of the Vaporized Hydrogen Peroxide treated straw in the Vaporized Hydrogen Peroxide treated packaging , e) Fixation of the straw inside the packaging , f) temperature adjustment of the pasteurized beverage of step a) and cold filling of the pasteurized beverage into the hydrogen peroxide treated packaging including the fixed straw , and g) Sealing of the packaging .
A method of wireless communication operable on a user equipment, UE, the method comprising: transmitting, while operating in a stand-by state, an RRC message indicating support for high speed uplink communications; receiving , while operating in the stand-by state, a broadcast message comprising an information element, IE, configured to turn on an enhanced uplink feature of the UE to enable high speed uplink communications; and transmitting a signaling message in response to the receiving the broadcast message, wherein the transmitting the signaling message follows a withholding of the transmitting until an occurrence of a predetermined event comprising a determination that one or more uplink data packets are ready for transmission on a data channel and wherein the signaling message comprises a request for an identifier corresponding to the enhanced uplink feature. transmitting, while operating in a stand-by state, an RRC message indicating support for high speed uplink communications; receiving , while operating in the stand-by state, a broadcast message comprising an information element, IE, configured to turn on an enhanced uplink feature of the UE to enable high speed uplink communications; and transmitting a signaling message in response to the receiving the broadcast message, wherein the transmitting the signaling message follows a withholding of the transmitting until an occurrence of a predetermined event comprising a determination that one or more uplink data packets are ready for transmission on a data channel and wherein the signaling message comprises a request for an identifier corresponding to the enhanced uplink feature.
A crown cap in its state prior to its closure to seal a mouth of a crown finish or threaded crown finish glass bottle, the crown cap comprising a laminar plate with an inner face and an outer face, formed by a circular wall , a curved wall perimetrical to the circular wall and having a radius of curvature (R1) from 1.5 mm to 1.9 mm, and a closure skirt that descends radially downward and outward from the curved wall and formed by a plurality of interleaved projections and depressions ; the crown cap is characterized in that the curved wall has an arc less than 86°.
A method comprising: for a given user equipment , selecting a subset of a plurality of beams based on received energies of the plurality of beams, wherein selecting the subset comprises: normalizing the received energy of each of the plurality of beams by dividing the energy by summarized values of the plurality of beams; and selecting for the subset only those beams for which a sum of their respective normalized received energy satisfies a predefined normalized total received energy; using the received energies of each beam of the subset of beams to compress data prior to transmitting the compressed data on a front haul link ; and transmitting on the front haul link only the data from the selected subset of beams. normalizing the received energy of each of the plurality of beams by dividing the energy by summarized values of the plurality of beams; and selecting for the subset only those beams for which a sum of their respective normalized received energy satisfies a predefined normalized total received energy; using the received energies of each beam of the subset of beams to compress data prior to transmitting the compressed data on a front haul link ; and transmitting on the front haul link only the data from the selected subset of beams.
Temperature control device for an artificial bee nest hole , with: - at least one frame , which can be fitted, with an underside, on a casing of the artificial bee nest hole , wherein the at least one frame has at least one ventilation opening, preferably a plurality of ventilation openings, characterized by : - at least one vacuum insulated panel - preferably arranged in the frame - at least one diffusion-open material - preferably an insulation made of hemp - which surrounds the at least one vacuum insulated panel at least over the whole surface on a lateral surface of the at least one vacuum insulated panel and is in air exchange with the at least one ventilation opening, with the result that air can diffuse past the at least one vacuum insulated panel . - at least one frame , which can be fitted, with an underside, on a casing of the artificial bee nest hole , wherein the at least one frame has at least one ventilation opening, preferably a plurality of ventilation openings, characterized by : - at least one vacuum insulated panel - preferably arranged in the frame - at least one diffusion-open material - preferably an insulation made of hemp - which surrounds the at least one vacuum insulated panel at least over the whole surface on a lateral surface of the at least one vacuum insulated panel and is in air exchange with the at least one ventilation opening, with the result that air can diffuse past the at least one vacuum insulated panel . - at least one vacuum insulated panel - preferably arranged in the frame - at least one diffusion-open material - preferably an insulation made of hemp - which surrounds the at least one vacuum insulated panel at least over the whole surface on a lateral surface of the at least one vacuum insulated panel and is in air exchange with the at least one ventilation opening, with the result that air can diffuse past the at least one vacuum insulated panel .
A blood sampler device, comprising: a sampler body forming a hollow internal chamber with upper and lower openings, the sampler body including a sealing device disposed adjacent to the upper opening; and a blood collector adapted to be inserted into the sampler body, the blood collector including a plurality of capillary channels characterized by : the plurality of capillary channels are formed around a center of a bottom tip of the blood collector , the capillary channels are evenly spaced around the bottom tip , and the capillary channels are separated by a plurality of piercing structures the plurality of piercing structures forms the bottom tip and is separated by breaks for the capillary channels , a support ring structure supports the plurality of piercing structures , and the plurality of piercing structures is open proximate to the bottom tip , and the plurality capillary channels continues from the bottom tip at an angle away from a longitudinal axis of the blood collector . a sampler body forming a hollow internal chamber with upper and lower openings, the sampler body including a sealing device disposed adjacent to the upper opening; and a blood collector adapted to be inserted into the sampler body, the blood collector including a plurality of capillary channels characterized by : the plurality of capillary channels are formed around a center of a bottom tip of the blood collector , the capillary channels are evenly spaced around the bottom tip , and the capillary channels are separated by a plurality of piercing structures the plurality of piercing structures forms the bottom tip and is separated by breaks for the capillary channels , a support ring structure supports the plurality of piercing structures , and the plurality of piercing structures is open proximate to the bottom tip , and the plurality capillary channels continues from the bottom tip at an angle away from a longitudinal axis of the blood collector .
A method for maximizing throughput and minimizing latency on a primary link between a transmitter and a receiver, the transmitter comprising a bit-to-symbol mapper, the receiver comprising an equalizer, a channel comprising a transformation from an output of the bit-to-symbol mapper to an input of the equalizer, the method comprising: receiving a first portion of an information signal over the primary link; receiving a second portion of the information signal over an alternate link, wherein the alternate link is between the transmitter and the receiver, wherein the second portion corresponds to a subset of the first portion, and wherein a latency of the alternate link is greater than a latency of the primary link; generating an estimate of one or more characteristics of at least a portion of the channel based on the first portion and the second portion; receiving a third portion of the information signal over the primary link, wherein the third portion is received subsequent to the first portion; and equalizing the third portion based on the estimate. receiving a first portion of an information signal over the primary link; receiving a second portion of the information signal over an alternate link, wherein the alternate link is between the transmitter and the receiver, wherein the second portion corresponds to a subset of the first portion, and wherein a latency of the alternate link is greater than a latency of the primary link; generating an estimate of one or more characteristics of at least a portion of the channel based on the first portion and the second portion; receiving a third portion of the information signal over the primary link, wherein the third portion is received subsequent to the first portion; and equalizing the third portion based on the estimate.
A filter element for use in a filter disc , wherein a plurality of filter elements are arranged on a rotor shaft in a manner allowing liquid communication between the inside of the filter elements and an inside of the rotor shaft , wherein each filter element has at least one passage in an edge structure for liquid communication between the inside of an adjacent filter element when the filter elements are assembled forming a filter disc , characterized in that the passage has an elevated retention edge extending along at least one edge of the passage inwards towards the inside of the filter element .
A system for retrieving an obstruction in a blood vessel , the system comprising: a catheter ; a first conductive wire ; an electronic circuit providing a first current to the first conductive wire ; and a frame in electrical communication with the first conductive wire and comprising a shape memory material, at least a first portion of the frame being expandable from a collapsed configuration to an expanded configuration upon being heated by the first current; the frame further comprising a second portion; and wherein an insulating junction connects the first portion of the frame to the second portion of the frame, such that the first current does not pass from one side of the insulating junction to the other. a catheter ; a first conductive wire ; an electronic circuit providing a first current to the first conductive wire ; and a frame in electrical communication with the first conductive wire and comprising a shape memory material, at least a first portion of the frame being expandable from a collapsed configuration to an expanded configuration upon being heated by the first current; the frame further comprising a second portion; and wherein an insulating junction connects the first portion of the frame to the second portion of the frame, such that the first current does not pass from one side of the insulating junction to the other.
A tremor suppression device comprising: a garment wearable on an anatomical region and including electrodes contacting the anatomical region when the garment is worn on the anatomical region; and an electronic controller configured to: detect electromyography (EMG) signals as a function of anatomical location and time using the electrodes; identify tremors as a function of anatomical location and time based on the EMG signals; apply neuromuscular electrical stimulation (NMES) at one or more anatomical locations as a function of time using the electrodes to suppress the identified tremors, and wherein the electronic controller is configured to apply the NMES by operations including: determining tremor suppressing NMES at one or more anatomical locations as a function of time based on the identified tremors and an anatomy-specific tremor migration model ; and applying the determined tremor suppressing NMES using the electrodes . a garment wearable on an anatomical region and including electrodes contacting the anatomical region when the garment is worn on the anatomical region; and an electronic controller configured to: detect electromyography (EMG) signals as a function of anatomical location and time using the electrodes; identify tremors as a function of anatomical location and time based on the EMG signals; apply neuromuscular electrical stimulation (NMES) at one or more anatomical locations as a function of time using the electrodes to suppress the identified tremors, and detect electromyography (EMG) signals as a function of anatomical location and time using the electrodes; identify tremors as a function of anatomical location and time based on the EMG signals; apply neuromuscular electrical stimulation (NMES) at one or more anatomical locations as a function of time using the electrodes to suppress the identified tremors, and wherein the electronic controller is configured to apply the NMES by operations including: determining tremor suppressing NMES at one or more anatomical locations as a function of time based on the identified tremors and an anatomy-specific tremor migration model ; and applying the determined tremor suppressing NMES using the electrodes . determining tremor suppressing NMES at one or more anatomical locations as a function of time based on the identified tremors and an anatomy-specific tremor migration model ; and applying the determined tremor suppressing NMES using the electrodes .
Method for processing a signal of an electronic control unit on board an aircraft, wherein said electronic control unit: - receives (S01) an input signal comprising useful data in a useful frequency band, - implements a first band-pass filtering (S04) of the input signal with a first bandwidth to obtain a useful signal containing the useful data, said first bandwidth comprising the useful band, - uses said useful data (S09), the electronic control unit also implementing a correction of the use of the useful data by a detection of disturbances caused by a lightning strike comprising the following steps: - a second band-pass filtering (S05) of the input signal to obtain a detection signal, the band-pass filtering being with a second bandwidth in which an input signal which has undergone disturbances linked to a lightning strike is likely to present anomalies, the second bandwidth being distinct from the first bandwidth and being comprised in a 1 kHz - 15 kHz frequency range, a frequency response of the first band-pass filtering having a main lobe and secondary lobes, a frequency response of the second band-pass filtering having a main lobe and secondary lobes, the main lobe of the first band-pass filtering and the main lobe of the second band-pass filtering not overlapping. - a comparison (S07) between at least one detection value derived from the detection signal and a detection threshold, whose exceeding is indicative of a lightning strike, and - if the detection value exceeds the detection threshold, a correction of the use of the useful data (S08). - receives (S01) an input signal comprising useful data in a useful frequency band, - implements a first band-pass filtering (S04) of the input signal with a first bandwidth to obtain a useful signal containing the useful data, said first bandwidth comprising the useful band, - uses said useful data (S09), - a second band-pass filtering (S05) of the input signal to obtain a detection signal, the band-pass filtering being with a second bandwidth in which an input signal which has undergone disturbances linked to a lightning strike is likely to present anomalies, the second bandwidth being distinct from the first bandwidth and being comprised in a 1 kHz - 15 kHz frequency range, a frequency response of the first band-pass filtering having a main lobe and secondary lobes, a frequency response of the second band-pass filtering having a main lobe and secondary lobes, the main lobe of the first band-pass filtering and the main lobe of the second band-pass filtering not overlapping. - a comparison (S07) between at least one detection value derived from the detection signal and a detection threshold, whose exceeding is indicative of a lightning strike, and - if the detection value exceeds the detection threshold, a correction of the use of the useful data (S08).
Signal processing apparatus for generating a range-Doppler map , the apparatus comprising: a two-dimensional fast Fourier transform (FFT) compute unit for computing a range-Doppler map , the range-Doppler map including a plurality of points, each point having a range value and a Doppler speed value; and a first memory for storing a first range-Doppler map output by the two-dimensional FFT unit; characterised in that the apparatus further comprises: a first warping unit for applying a shift in range to each point in the stored range-Doppler map; and a first integrator for adding a current range-Doppler map, output by the two-dimensional FFT compute unit, and a shifted version of a previous range-Doppler map output by the first warping unit; wherein the shift in range is proportional to the period of time between the current range-Doppler map and to the stored range-Doppler map and the Doppler speed of each point. a two-dimensional fast Fourier transform (FFT) compute unit for computing a range-Doppler map , the range-Doppler map including a plurality of points, each point having a range value and a Doppler speed value; and a first memory for storing a first range-Doppler map output by the two-dimensional FFT unit; a first warping unit for applying a shift in range to each point in the stored range-Doppler map; and a first integrator for adding a current range-Doppler map, output by the two-dimensional FFT compute unit, and a shifted version of a previous range-Doppler map output by the first warping unit; wherein the shift in range is proportional to the period of time between the current range-Doppler map and to the stored range-Doppler map and the Doppler speed of each point.
An antibody or antigen binding fragment thereof that binds to human CTLA4, selected from the group consisting of: (a) an antibody or antigen binding fragment thereof comprising a heavy chain variable region of SEQ ID NO: 14 and a light chain variable region of SEQ ID NO: 16; and (b) an antibody or antigen binding fragment thereof comprising a heavy chain variable region of SEQ ID NO: 14 and a light chain variable region of SEQ ID NO: 16, wherein in SEQ ID NO: 14 at position 18, the methionine can be substituted for an amino acid selected from the group consisting of: leucine, valine, isoleucine, and alanine. (a) an antibody or antigen binding fragment thereof comprising a heavy chain variable region of SEQ ID NO: 14 and a light chain variable region of SEQ ID NO: 16; and (b) an antibody or antigen binding fragment thereof comprising a heavy chain variable region of SEQ ID NO: 14 and a light chain variable region of SEQ ID NO: 16, wherein in SEQ ID NO: 14 at position 18, the methionine can be substituted for an amino acid selected from the group consisting of: leucine, valine, isoleucine, and alanine.