mhurhangee/patent-ind-claim-en huggingface dataset:
A cardiac rhythm management system, comprising: a cardiac sensing circuit configured to sense a cardiac signal indicative of heartbeats; an acoustic sensor configured to sense an acoustic signal indicative of heart sounds; a beat detector configured to detect the heartbeats using the cardiac signal; a heart sound detector configured to detect at least one specified type heart sound for each beat of the detected heartbeats; a measurement circuit configured to measure a heart rate associated with the each beat and a heart sound amplitude being an amplitude of a heart sound of the at least one specified type heart sound detected for the each beat; characterised in that the system further comprises: an atrial tachyarrhythmia detector configured to detect atrial tachyarrhythmia, including atrial fibrillation and atrial flutter, using a relationship between the heart rate and heart sound amplitude during the atrial tachyarrhythmia, the relationship including a decrease in the measured heart sound amplitude when the measured heart rate increases. a cardiac sensing circuit configured to sense a cardiac signal indicative of heartbeats; an acoustic sensor configured to sense an acoustic signal indicative of heart sounds; a beat detector configured to detect the heartbeats using the cardiac signal; a heart sound detector configured to detect at least one specified type heart sound for each beat of the detected heartbeats; a measurement circuit configured to measure a heart rate associated with the each beat and a heart sound amplitude being an amplitude of a heart sound of the at least one specified type heart sound detected for the each beat; characterised in that the system further comprises: an atrial tachyarrhythmia detector configured to detect atrial tachyarrhythmia, including atrial fibrillation and atrial flutter, using a relationship between the heart rate and heart sound amplitude during the atrial tachyarrhythmia, the relationship including a decrease in the measured heart sound amplitude when the measured heart rate increases. an atrial tachyarrhythmia detector configured to detect atrial tachyarrhythmia, including atrial fibrillation and atrial flutter, using a relationship between the heart rate and heart sound amplitude during the atrial tachyarrhythmia, the relationship including a decrease in the measured heart sound amplitude when the measured heart rate increases.
A method of producing an antibody which binds to risperidone, the method comprising: (i) selecting a non-human host for antibody production; and (ii) inoculating the host with a conjugate of a compound of Formula III and an immunogenic carrier, wherein the host produces an antibody which binds to risperidone, and Formula III is: (i) selecting a non-human host for antibody production; and (ii) inoculating the host with a conjugate of a compound of Formula III and an immunogenic carrier, wherein the host produces an antibody which binds to risperidone, and Formula III is:
A readout circuit for a Silicon Photomultiplier, SiPM, , said Silicon Photomultiplier, SiPM, having a first main output (Sout) as well as a capacitively coupled second output (Fout), wherein said readout circuit comprises: - a combiner having inputs (IN1, IN2) for receiving signals originating from said first main output (Sout) and said second output (Fout) of said Silicon Photomultiplier, SiPM, and configured to generate a combined signal based on the received signals, a first signal path being defined between said first main output (Sout) of said Silicon Photomultiplier, SiPM, and a first one (IN1) of said inputs of said combiner ; and a second signal path being defined between said second output (Fout) of said Silicon Photomultiplier, SiPM, and a second one (IN2) of said inputs of said combiner ; and - circuitry (120; 220) for arrangement in at least one of the first signal path and the second signal path and configured to at least partially provide isolation between the first main output (Sout) and the second output (Fout) of said Silicon Photomultiplier, SiPM, during operation. - a combiner having inputs (IN1, IN2) for receiving signals originating from said first main output (Sout) and said second output (Fout) of said Silicon Photomultiplier, SiPM, and configured to generate a combined signal based on the received signals, a first signal path being defined between said first main output (Sout) of said Silicon Photomultiplier, SiPM, and a first one (IN1) of said inputs of said combiner ; and a second signal path being defined between said second output (Fout) of said Silicon Photomultiplier, SiPM, and a second one (IN2) of said inputs of said combiner ; and a first signal path being defined between said first main output (Sout) of said Silicon Photomultiplier, SiPM, and a first one (IN1) of said inputs of said combiner ; and a second signal path being defined between said second output (Fout) of said Silicon Photomultiplier, SiPM, and a second one (IN2) of said inputs of said combiner ; and - circuitry (120; 220) for arrangement in at least one of the first signal path and the second signal path and configured to at least partially provide isolation between the first main output (Sout) and the second output (Fout) of said Silicon Photomultiplier, SiPM, during operation.
A method of disinfecting seeds, comprising: a) placing the seeds and a disinfecting solution into a vacuum reactor ; wherein the seeds are submerged into the disinfected solution either prior or after the step b), b) applying vacuum pressure; c) releasing the vacuum pressure; d) reiterating steps b-c at least once; characterized in that the method further comprises a step of e) separating the sinking fraction of the seeds from the floating fraction; wherein said sinking fraction contains disinfected seeds, and wherein vacuum pressure applied at step b is comprised between 400 and 985mbar. a) placing the seeds and a disinfecting solution into a vacuum reactor ; wherein the seeds are submerged into the disinfected solution either prior or after the step b), b) applying vacuum pressure; c) releasing the vacuum pressure; d) reiterating steps b-c at least once;
A multilayer film comprising: a core layer; and two skin layers; wherein the core layer is positioned between the two skin layers; wherein the core layer comprises a polyethylene polymer blend, the polyethylene polymer blend comprising at least 40%, by weight of the polyethylene polymer blend, of an ethylene-based polymer having a density of 0.900-0.935 g/cc and a melt index of 0.7-6 g/10 min, wherein the polyethylene polymer blend has an overall density of about 0.910-0.945 g/cc and a melt index of about 0.7-6 g/ 10 min; and wherein each skin layer independently comprises a propylene-based polymer; wherein the propylene-based polymer: (a) is a propylene homopolymer; or (b) comprises a polypropylene polymer blend , wherein the polypropylene polymer blend comprises from 10 wt% to 30 wt% of a low density polyethylene and greater than 50 wt.% of a propylene-based polymer; and where the skin layer is not a non-woven material; wherein density is determined according to ASTM D-792; and wherein melt index is determined according to ASTM D1238 at 190 °C, 2.16 kg. a core layer; and two skin layers; wherein the core layer is positioned between the two skin layers; wherein the core layer comprises a polyethylene polymer blend, the polyethylene polymer blend comprising at least 40%, by weight of the polyethylene polymer blend, of an ethylene-based polymer having a density of 0.900-0.935 g/cc and a melt index of 0.7-6 g/10 min, wherein the polyethylene polymer blend has an overall density of about 0.910-0.945 g/cc and a melt index of about 0.7-6 g/ 10 min; and wherein each skin layer independently comprises a propylene-based polymer; (a) is a propylene homopolymer; or (b) comprises a polypropylene polymer blend , wherein the polypropylene polymer blend comprises from 10 wt% to 30 wt% of a low density polyethylene and greater than 50 wt.% of a propylene-based polymer; and where the skin layer is not a non-woven material; wherein density is determined according to ASTM D-792; and wherein melt index is determined according to ASTM D1238 at 190 °C, 2.16 kg.
A baffle insert (406; 500; 600; 700; 800; 900; 1000; 1100; 1200; 1300; 1400; 1500; 1600) for an airfoil of a gas turbine engine, the baffle insert comprising: a baffle insert body having a first side portion and a second side portion , wherein each side portion has a respective end ; a first set of vortex generation elements (510; 1504; 1604) arranged at the end of the first side portion; and a second set of vortex generation elements (514; 1506; 1606) arranged at the end of the second side portion, wherein the first set of vortex generation elements and the second set of vortex generation elements are arranged at an aft end of the baffle insert body; and the end of the first side portion is joined with the end of the second side portion ; characterized in that the first set of vortex generation elements and the second set of vortex generation elements are arranged in an alternating and overlapping pattern where the first side portion joins with the second side portion . a baffle insert body having a first side portion and a second side portion , wherein each side portion has a respective end ; a first set of vortex generation elements (510; 1504; 1604) arranged at the end of the first side portion; and a second set of vortex generation elements (514; 1506; 1606) arranged at the end of the second side portion, wherein the first set of vortex generation elements and the second set of vortex generation elements are arranged at an aft end of the baffle insert body; and the end of the first side portion is joined with the end of the second side portion ; characterized in that the first set of vortex generation elements and the second set of vortex generation elements are arranged in an alternating and overlapping pattern where the first side portion joins with the second side portion .
A vector for use in the treatment of amyotrophic lateral sclerosis (ALS), which vector comprises cholesterol 24-hydroxylase encoding nucleic acid.
A data loading method for a virtual machine, wherein the method comprises: after the virtual machine is started, obtaining a data loading request of the virtual machine, wherein the data loading request is used to request to load target data in an image file; determining whether the target data is stored in a snapshot corresponding to the virtual machine, wherein the snapshot is a volume obtained by copying a blank volume corresponding to the virtual machine when the virtual machine is created, the volume is associated with a corresponding snapshot, the snapshot is used to lazily load the image file, and the snapshot is associated with the image file; when the target data is not stored in the snapshot, writing the target data from a mirror server into the snapshot, and then reading the target data from the snapshot and sending the target data to the virtual machine; and obtaining virtual machine data generated by the virtual machine, and writing the virtual machine data into the volume. after the virtual machine is started, obtaining a data loading request of the virtual machine, wherein the data loading request is used to request to load target data in an image file; determining whether the target data is stored in a snapshot corresponding to the virtual machine, wherein the snapshot is a volume obtained by copying a blank volume corresponding to the virtual machine when the virtual machine is created, the volume is associated with a corresponding snapshot, the snapshot is used to lazily load the image file, and the snapshot is associated with the image file; when the target data is not stored in the snapshot, writing the target data from a mirror server into the snapshot, and then reading the target data from the snapshot and sending the target data to the virtual machine; and obtaining virtual machine data generated by the virtual machine, and writing the virtual machine data into the volume.
A system for measuring a temperature of an electrical component , comprising: - an electrical conductor having: • a main portion , • an auxiliary portion projecting from the main portion so as to form an electrical branch, - an electrical component electrically connected to the main portion of the electrical conductor , - an electronic circuit electrically connected to the auxiliary portion of the electrical conductor so as to receive an electrical potential from the electrical conductor , - a temperature measuring device designed to provide a temperature measurement representative of a temperature of the electrical component , - a thermal connection between the auxiliary portion of the electrical conductor and the temperature measuring device , this thermal connection being distinct from the main portion of the electrical conductor . - an electrical conductor having: • a main portion , • an auxiliary portion projecting from the main portion so as to form an electrical branch, • a main portion , • an auxiliary portion projecting from the main portion so as to form an electrical branch, - an electrical component electrically connected to the main portion of the electrical conductor , - an electronic circuit electrically connected to the auxiliary portion of the electrical conductor so as to receive an electrical potential from the electrical conductor , - a temperature measuring device designed to provide a temperature measurement representative of a temperature of the electrical component , - a thermal connection between the auxiliary portion of the electrical conductor and the temperature measuring device , this thermal connection being distinct from the main portion of the electrical conductor .
A chuck for gripping and moving cylindrical bodies, in particular fittings and pipe segments, comprising a main body defining an axis of rotation and a plurality of jaws fastened to said main body ; said jaws being movable between a position of maximum closure, in which said jaws are at the minimum distance from said axis of rotation , to a position of maximum opening, in which said jaws are at the maximum distance from said axis of rotation ; said chuck further comprising a means for adjusting said positions of maximum closure and maximum opening and a means for moving said jaws between said positions of maximum closure and maximum opening; said chuck being characterized in that it comprises a fixing means adapted to allow the axial fixing of said chuck to a support member and the connection of said chuck to said support member so that they are angularly rotatable with respect to each other.
Battery module having a plurality of battery cells, in particular lithium-ion battery cells, exhibiting a plurality of partitions , wherein a battery cell is arranged between two partitions , and between the two partitions adjacent to the battery cell a spring element is furthermore arranged, in particular a tension-spring element and/or compression-spring element, which is arranged contacting and/or connected to the two partitions in such a way that a value of a deformation constant of the spring element determines a force transmitted from the two partitions to the battery cell , wherein the battery module exhibits a plurality of spring elements and further exhibits a first region and a second region in a longitudinal direction , characterized in that the values of the deformation constant of the spring elements increase in the first region in the longitudinal direction of the battery module and/or decrease in the second region in the longitudinal direction of the battery module .
An in vitro dissolution method comprising agitating a solution placed in a vessel using a mobile paddle; wherein the solution comprises a solute and a media; and wherein the mobile paddle is submerged in the solution; characterised in that the solution further comprises a plurality of beads; wherein the plurality of beads is positioned between the solute and the mobile paddle.
An arrangement for providing an emergency braking function in a safety device in the form of a steering column lock of a vehicle, comprising: - an electronic control arrangement for actuating a drive unit in order to drive a safety mechanism of the safety device in normal operation, wherein the control arrangement is designed to initiate braking of the drive unit , - an electronic monitoring arrangement for monitoring the control arrangement in order to switch from normal operation to fault operation as a function of the monitoring, - an emergency braking arrangement to initiate braking of the drive unit in fault operation, wherein the monitoring arrangement is connected to the emergency braking arrangement in order to activate the emergency braking arrangement for braking in fault operation, wherein the emergency braking arrangement is connected to at least two electronic switching units of the drive unit in order to actuate the switching units to initiate a short-circuit in the drive unit and thus to initiate braking as short-circuit braking. - an electronic control arrangement for actuating a drive unit in order to drive a safety mechanism of the safety device in normal operation, wherein the control arrangement is designed to initiate braking of the drive unit , - an electronic monitoring arrangement for monitoring the control arrangement in order to switch from normal operation to fault operation as a function of the monitoring, - an emergency braking arrangement to initiate braking of the drive unit in fault operation, wherein the monitoring arrangement is connected to the emergency braking arrangement in order to activate the emergency braking arrangement for braking in fault operation, wherein the emergency braking arrangement is connected to at least two electronic switching units of the drive unit in order to actuate the switching units to initiate a short-circuit in the drive unit and thus to initiate braking as short-circuit braking.
A system of a first vehicle , comprising: at least three receivers , wherein each of the at least three receivers is configured to receive a first signal of a first wavelength from a transmitter of a second vehicle ; and a controller configured to calculate one or more first location candidate of the second vehicle with respect to the first vehicle , based on differences among first signal path lengths for the first signal to travel from the transmitter to each of the at least three receivers and at least in part based on the phase difference received at each of the at least three receivers , wherein the at least three receivers are further configured to receive a second signal of a second wavelength from the transmitter of the second vehicle , wherein the first wavelength is different from the second wavelength; and the controller is further configured to calculate one or more second location candidate of the second vehicle with respect to the first vehicle, based on differences among second signal path lengths for the second signal to travel from the transmitter to each of the at least three receivers , wherein the system is characterized in that the controller is further configured to determine a location of the second vehicle with respect to the first vehicle , which matches with the one or more first location candidate as well as one or more second location candidate. at least three receivers , wherein each of the at least three receivers is configured to receive a first signal of a first wavelength from a transmitter of a second vehicle ; and a controller configured to calculate one or more first location candidate of the second vehicle with respect to the first vehicle , based on differences among first signal path lengths for the first signal to travel from the transmitter to each of the at least three receivers and at least in part based on the phase difference received at each of the at least three receivers , wherein the at least three receivers are further configured to receive a second signal of a second wavelength from the transmitter of the second vehicle , wherein the first wavelength is different from the second wavelength; and the controller is further configured to calculate one or more second location candidate of the second vehicle with respect to the first vehicle, based on differences among second signal path lengths for the second signal to travel from the transmitter to each of the at least three receivers , wherein the system is characterized in that the controller is further configured to determine a location of the second vehicle with respect to the first vehicle , which matches with the one or more first location candidate as well as one or more second location candidate.
An apparatus for detecting a periodic timing reference in a received signal , the apparatus comprising: a correlator configured to correlate the received signal with a template to produce a correlated signal indicating the presence of the periodic timing reference in the received signal ; an integrator configured to produce an accumulated signal by overlaying one or more delayed versions of the accumulated signal onto the correlated signal , wherein the integrator is configured to delay the accumulated signals by integer multiples L of the period of the periodic timing reference, the integer multiples L being at least two; characterized by a timing detector configured to receive the accumulated signal from the integrator and to indicate timing acquisition or no timing acquisition on the basis of a peak profile of the accumulated signal , wherein the timing detector is configured to separate peaks in the accumulated signal into a plurality of subsets S numbered 0...L-1, wherein the peaks which form part of the S'th subset are at offsets (n*L+S)*P+K, where n and S are integers and K is an unknown in the range [0...P], P being the period of the periodic timing reference, to maintain a count of the number of peaks in each subset whose magnitude exceeds a magnitude threshold, and to indicate timing acquisition only in response to each of the counts exceeding a count threshold. a correlator configured to correlate the received signal with a template to produce a correlated signal indicating the presence of the periodic timing reference in the received signal ; an integrator configured to produce an accumulated signal by overlaying one or more delayed versions of the accumulated signal onto the correlated signal , wherein the integrator is configured to delay the accumulated signals by integer multiples L of the period of the periodic timing reference, the integer multiples L being at least two; characterized by a timing detector configured to receive the accumulated signal from the integrator and to indicate timing acquisition or no timing acquisition on the basis of a peak profile of the accumulated signal , wherein the timing detector is configured to separate peaks in the accumulated signal into a plurality of subsets S numbered 0...L-1, wherein the peaks which form part of the S'th subset are at offsets (n*L+S)*P+K, where n and S are integers and K is an unknown in the range [0...P], P being the period of the periodic timing reference, to maintain a count of the number of peaks in each subset whose magnitude exceeds a magnitude threshold, and to indicate timing acquisition only in response to each of the counts exceeding a count threshold.