mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a voice command on a client device, the method comprising: translating, using a first speech recognizer located on the client device, a first audio stream of a first voice command to a first machine-readable voice command with a speech recognition confidence score; upon determining that the speech recognition confidence score for the first voice command is below a predetermined threshold, storing the first machine-readable voice command with the associated speech recognition confidence score for future recall by the client device without using the first machine-readable voice command for querying a client database; transmitting the audio stream to a remote server device that translates the audio stream to a second machine-readable voice command using a second speech recognizer; receiving a second query result from the remote server device, wherein the second query result is generated by the remote server device using the second machine-readable voice command to query a remote server database; and translating, using the first speech recognizer located on the client device, a subsequent third audio stream of a subsequent third voice command to a third machine-readable voice command; generating a first query result using the third machine-readable voice command to query the client database; upon determining that the third and the first machine-readable voice command match, displaying the first query result and the second query result on the client device. translating, using a first speech recognizer located on the client device, a first audio stream of a first voice command to a first machine-readable voice command with a speech recognition confidence score; upon determining that the speech recognition confidence score for the first voice command is below a predetermined threshold, storing the first machine-readable voice command with the associated speech recognition confidence score for future recall by the client device without using the first machine-readable voice command for querying a client database; transmitting the audio stream to a remote server device that translates the audio stream to a second machine-readable voice command using a second speech recognizer; receiving a second query result from the remote server device, wherein the second query result is generated by the remote server device using the second machine-readable voice command to query a remote server database; and translating, using the first speech recognizer located on the client device, a subsequent third audio stream of a subsequent third voice command to a third machine-readable voice command; generating a first query result using the third machine-readable voice command to query the client database; upon determining that the third and the first machine-readable voice command match, displaying the first query result and the second query result on the client device.
A method, comprising: transmitting, by a wireless communication device in a random access, RA, procedure, a RA preamble and a corresponding uplink channel payload to a wireless communication node; receiving, by the wireless communication device from the wireless communication node, a fallback RA response, RAR, including an uplink grant, wherein the RA procedure comprises a contention free RA, CFRA, procedure; receiving, by the wireless communication device from the wireless communication node, a downlink channel addressed to a cell radio network temporary identifier, C-RNTI, wherein the C-RNTI includes a current new data indicator, NDI, value; comparing, by the wireless communication device, the current NDI value with a previous NDI value; establishing, by the wireless communication device, a medium access control, MAC, protocol data unit, PDU, based on a MsgA buffer, wherein the corresponding uplink channel payload is based on the MsgA buffer; and retransmitting, by the wireless communication device to the wireless communication node, the corresponding uplink channel payload using the MAC PDU through the uplink grant according to whether the current NDI value is different from the previous NDI value. transmitting, by a wireless communication device in a random access, RA, procedure, a RA preamble and a corresponding uplink channel payload to a wireless communication node; receiving, by the wireless communication device from the wireless communication node, a fallback RA response, RAR, including an uplink grant, wherein the RA procedure comprises a contention free RA, CFRA, procedure; receiving, by the wireless communication device from the wireless communication node, a downlink channel addressed to a cell radio network temporary identifier, C-RNTI, wherein the C-RNTI includes a current new data indicator, NDI, value; comparing, by the wireless communication device, the current NDI value with a previous NDI value; establishing, by the wireless communication device, a medium access control, MAC, protocol data unit, PDU, based on a MsgA buffer, wherein the corresponding uplink channel payload is based on the MsgA buffer; and retransmitting, by the wireless communication device to the wireless communication node, the corresponding uplink channel payload using the MAC PDU through the uplink grant according to whether the current NDI value is different from the previous NDI value. comparing, by the wireless communication device, the current NDI value with a previous NDI value; establishing, by the wireless communication device, a medium access control, MAC, protocol data unit, PDU, based on a MsgA buffer, wherein the corresponding uplink channel payload is based on the MsgA buffer; and retransmitting, by the wireless communication device to the wireless communication node, the corresponding uplink channel payload using the MAC PDU through the uplink grant according to whether the current NDI value is different from the previous NDI value.
A computing device comprising: an image capture device; and a processor configured to: assess alignment of a raster line of the image capture device relative to at least one solid-state luminaire transmitting a pulsing light signal encoded with data; and provide, in response to misalignment between the raster line of the image capture device and the at least one solid-state luminaire, instruction to align the raster line of the image capture device with the at least one solid-state luminaire. an image capture device; and a processor configured to: assess alignment of a raster line of the image capture device relative to at least one solid-state luminaire transmitting a pulsing light signal encoded with data; and provide, in response to misalignment between the raster line of the image capture device and the at least one solid-state luminaire, instruction to align the raster line of the image capture device with the at least one solid-state luminaire. assess alignment of a raster line of the image capture device relative to at least one solid-state luminaire transmitting a pulsing light signal encoded with data; and provide, in response to misalignment between the raster line of the image capture device and the at least one solid-state luminaire, instruction to align the raster line of the image capture device with the at least one solid-state luminaire.
An immunogenic composition comprising a fusion protein comprising (i) a full length CDTa protein and (ii) a CDTb protein wherein the CDTb protein is a full length CDTb protein with the prodomain removed.
A method for manufacturing an intravascular stent comprising: loading a multi-element stent (400, 600, 90) comprising multiple individual stent elements (401, 701, 801, 91) onto an inflatable balloon such that the stent elements are positioned serially along a longitudinal length of the balloon and the stent elements do not touch one another, wherein the stent elements are spaced such that the stent elements do not touch one another at a target vessel location during skeletal movement; wherein the distance (402, 802) between each stent element is based on a diameter of the stent element in an expanded state at a target vessel location and an angle (Θ) created between stent elements during maximal flexion of the target vessel location during skeletal movement, wherein the angle (Θ) is governed by the maximum bend radius and the maximum individual stent element length for the target vessel location; wherein the stent (400, 600, 90) is configured to be radially rigid and longitudinally flexible after implantation at the target vessel location; and wherein the distance (402, 802) between each stent element (401, 701, 801, 91) is greater than or equal to D 2 2 1 − cosθ. loading a multi-element stent (400, 600, 90) comprising multiple individual stent elements (401, 701, 801, 91) onto an inflatable balloon such that the stent elements are positioned serially along a longitudinal length of the balloon and the stent elements do not touch one another, wherein the stent elements are spaced such that the stent elements do not touch one another at a target vessel location during skeletal movement; wherein the distance (402, 802) between each stent element is based on a diameter of the stent element in an expanded state at a target vessel location and an angle (Θ) created between stent elements during maximal flexion of the target vessel location during skeletal movement, wherein the angle (Θ) is governed by the maximum bend radius and the maximum individual stent element length for the target vessel location; wherein the stent (400, 600, 90) is configured to be radially rigid and longitudinally flexible after implantation at the target vessel location; and wherein the distance (402, 802) between each stent element (401, 701, 801, 91) is greater than or equal to D 2 2 1 − cosθ.
An electromagnetic generator comprising: a first flux assembly having a first coil and a first magnetic field source separated by a first gap; a second flux assembly having a second coil and a second magnetic field source separated by a second gap; the first flux assembly and the second flux assembly mounted separately on a base plate constructed of a non-conductive and non-ferrous material; an interference drum having a sidewall, the sidewall being at least partially positioned inside the first and second gaps and comprising at least one magnetic field permeable zone and at least one magnetic field impermeable zone; and wherein the interference drum is movable relative to the first and second coils and to the first and second magnetic field sources to alternatively position the at least one magnetic field permeable zone and the at least one magnetic field impermeable zone inside the first and second gaps. a first flux assembly having a first coil and a first magnetic field source separated by a first gap; a second flux assembly having a second coil and a second magnetic field source separated by a second gap; the first flux assembly and the second flux assembly mounted separately on a base plate constructed of a non-conductive and non-ferrous material; an interference drum having a sidewall, the sidewall being at least partially positioned inside the first and second gaps and comprising at least one magnetic field permeable zone and at least one magnetic field impermeable zone; and wherein the interference drum is movable relative to the first and second coils and to the first and second magnetic field sources to alternatively position the at least one magnetic field permeable zone and the at least one magnetic field impermeable zone inside the first and second gaps.
A use of a composition in the production of an acoustic wave probe, the composition comprising: a polysiloxane mixture containing polysiloxane having a vinyl group, polysiloxane having two or more Si-H groups in a molecular chain, and one or more inorganic compound particles, wherein the average primary particle diameter of the inorganic compound particles is less than 25 nm which is measured by the method as described in the description and the inorganic compound particles are selected from the group consisting of magnesium oxide, titanium oxide, iron oxide, zinc oxide, zirconium oxide, barium oxide, tin oxide, and ytterbium oxide, wherein the inorganic compound particles are subjected to surface treatment using a silane compound. a polysiloxane mixture containing polysiloxane having a vinyl group, polysiloxane having two or more Si-H groups in a molecular chain, and one or more inorganic compound particles, wherein the average primary particle diameter of the inorganic compound particles is less than 25 nm which is measured by the method as described in the description and the inorganic compound particles are selected from the group consisting of magnesium oxide, titanium oxide, iron oxide, zinc oxide, zirconium oxide, barium oxide, tin oxide, and ytterbium oxide, wherein the inorganic compound particles are subjected to surface treatment using a silane compound.
A power switch device (41, 70, 80A, 80B) for providing and cutting off power supply to a functional circuit, the power switch device being configured to be provided between power supply lines (12, 13) and a DC power source, the power supply lines (12, 13) including a capacitor for stabilizing a supply voltage against fluctuations in a current in the functional circuit, the power switch device being further configured to be powered by the DC power source, the power switch device (41, 70, 80A, 80B) comprising: a semiconductor switch means (21, 71, 81B) configured to connect and disconnect the DC power source to and from the functional circuit, and configured to be connected between the power supply lines (12, 13) and the DC power source; a ramp waveform generating circuit which is connected to a control terminal of the semiconductor switch means (21, 71, 81B) and is configured to provide, to the semiconductor switch means (21, 71, 81B), an input voltage rising as a ramp function, to gradually increase an output voltage of the semiconductor switch means (21, 71, 81B) during a transition from an open state to a closed state, to minimize a value of the current charging the capacitor, characterized in that for an operation of the power switch device (41, 70, 80A, 80B) for said transition from the open state to the closed state, the ramp waveform generating circuit is configured to control the input voltage to the control terminal of the semiconductor switch means (21, 71, 81B) so as to increase an increase rate of the input voltage to increase an increase rate of the output voltage of the semiconductor switch means (21, 71, 81B) with time. a semiconductor switch means (21, 71, 81B) configured to connect and disconnect the DC power source to and from the functional circuit, and configured to be connected between the power supply lines (12, 13) and the DC power source; a ramp waveform generating circuit which is connected to a control terminal of the semiconductor switch means (21, 71, 81B) and is configured to provide, to the semiconductor switch means (21, 71, 81B), an input voltage rising as a ramp function, to gradually increase an output voltage of the semiconductor switch means (21, 71, 81B) during a transition from an open state to a closed state, to minimize a value of the current charging the capacitor, characterized in that for an operation of the power switch device (41, 70, 80A, 80B) for said transition from the open state to the closed state, the ramp waveform generating circuit is configured to control the input voltage to the control terminal of the semiconductor switch means (21, 71, 81B) so as to increase an increase rate of the input voltage to increase an increase rate of the output voltage of the semiconductor switch means (21, 71, 81B) with time.
A measuring circuit for a proximity sensor, comprising a measure terminal connectable to a capacity that is variable in response to proximity to conductive bodies; a charge amplifier having an input connected to the measure terminal and a reference node connected to a variable reference voltage, a variable voltage source (Vin), connected between a ground voltage and said variable reference voltage and generating a variable voltage comprising voltage steps such that the charge amplifier is floating with respect to the ground by a voltage equal to the output of the variable voltage source, and a measurement circuit characterized by a sampling unit arranged for sampling the output of the charge amplifier at time instants (T1, T2, T3, T4) synchronised with the variable voltage source (Vin), in such a manner that the output of the charge amplifier is sampled before and after a voltage step, the measuring circuit being arranged for determining an estimation of the capacity connected to the measure terminal based on said sampled output of the charge amplifier.
An apparatus for dispensing material between two rolls (1, 2) of a laminator comprising: a) at least two reactant storage tanks (12, 14), each reactant storage tank having a gear pump (16, 18); b) a mixer connected to the gear pumps; c) a dispensing nozzle connected to the mixer; d) a level detector mounted on a rail between the two rolls; and e) at least one solvent storage container connected to the mixer. a) at least two reactant storage tanks (12, 14), each reactant storage tank having a gear pump (16, 18); b) a mixer connected to the gear pumps; c) a dispensing nozzle connected to the mixer; d) a level detector mounted on a rail between the two rolls; and e) at least one solvent storage container connected to the mixer.
Driving system of the type comprising at least one generator and a receiver, said generator providing a control signal for said receiver, said generator and said receiver comprising respective microcontrollers (23, 27) and being respectively connectable to sensor and actuator devices of a thermoregulation system controlled by means of said driving system, said control signal being a frequency control signal (Scf) and said generator comprising at least one frequency signal generation circuit adapted to provide said frequency control signal (Scf) at an output terminal thereof, which is connected to an input terminal of said receiver, said frequency control signal (Scf) adjusting the operation of an actuator device connected to said receiver based on signals detected by and/or introduced into said sensor device connected to said generator thanks to a transmitted information encoding based on a rising and falling edges switching frequency of said frequency control signal (Scf), characterized in that said receiver further comprises a galvanic portion in turn comprising a galvanic decoupler inserted between said input terminal and a first terminal of said microcontroller of said receiver, said galvanic decoupler being connected to said input terminal by means of a safety resistor (Rs) and being connected to a first ground reference and to a second ground reference (GND, GND1) and a further galvanic decoupler having a switch function, which is connected with said galvanic decoupler and with said microcontroller of said receiver, thus providing a bidirectional communication between said generator and said receiver by disconnecting said further galvanic decoupler and interrupting a current passage between said generator and said receiver in the presence of an alarm situation of said actuator device.
An alveolar distraction device for bone tensioning, the alveolar distraction device comprising: (i) a main body comprising: at least one adaptor member having at least one connection platform; a strings positioning member attachable to the at least one adaptor member and extending along a longitudinal direction substantially perpendicular to a vertical axis of the adaptor member, the strings positioning member comprising a plurality of positioning features, spaced from each other along the longitudinal direction; and (ii) a plurality of string pull assemblies, each comprising: a string having a first string end and a second string end, the second string end attached to a string engagement portion; and a movable element attached to the first string end, configured to move so as to promote displacement of the string engagement portion in a distal direction, wherein each of the plurality of string pull assemblies is attached to the main body; and wherein each string of the plurality of strings extends through or along a corresponding, different, positioning feature. (i) a main body comprising: at least one adaptor member having at least one connection platform; a strings positioning member attachable to the at least one adaptor member and extending along a longitudinal direction substantially perpendicular to a vertical axis of the adaptor member, the strings positioning member comprising a plurality of positioning features, spaced from each other along the longitudinal direction; and at least one adaptor member having at least one connection platform; a strings positioning member attachable to the at least one adaptor member and extending along a longitudinal direction substantially perpendicular to a vertical axis of the adaptor member, the strings positioning member comprising a plurality of positioning features, spaced from each other along the longitudinal direction; and (ii) a plurality of string pull assemblies, each comprising: a string having a first string end and a second string end, the second string end attached to a string engagement portion; and a movable element attached to the first string end, configured to move so as to promote displacement of the string engagement portion in a distal direction, a string having a first string end and a second string end, the second string end attached to a string engagement portion; and a movable element attached to the first string end, configured to move so as to promote displacement of the string engagement portion in a distal direction,
An apparatus for cutting and removing occlusive material, the apparatus comprising: a catheter body defining a lumen and comprising a distal portion that defines an opening; a rotatable shaft disposed within the lumen of the catheter body, wherein the rotatable shaft comprises a conveying component; a cutting element operably coupled to the rotatable shaft and configured to remove occlusive material by rotation, wherein the cutting element is at least partially surrounded by the distal portion; an imaging element located on the distal portion; characterised in that: the distal portion is a housing and the imaging element circumscribes the housing; and the catheter body is coupled to a rotary drive shaft, the catheter body and the 15 housing, together with the imaging element, being thereby configured to rotate, wherein the rotatable shaft and the rotary drive shaft are configured such that the rotation of the catheter body and the housing is in the opposite direction relative to the rotation of the rotatable shaft. a catheter body defining a lumen and comprising a distal portion that defines an opening; a rotatable shaft disposed within the lumen of the catheter body, wherein the rotatable shaft comprises a conveying component; a cutting element operably coupled to the rotatable shaft and configured to remove occlusive material by rotation, wherein the cutting element is at least partially surrounded by the distal portion; an imaging element located on the distal portion; characterised in that: the distal portion is a housing and the imaging element circumscribes the housing; and the catheter body is coupled to a rotary drive shaft, the catheter body and the 15 housing, together with the imaging element, being thereby configured to rotate, wherein the rotatable shaft and the rotary drive shaft are configured such that the rotation of the catheter body and the housing is in the opposite direction relative to the rotation of the rotatable shaft. the distal portion is a housing and the imaging element circumscribes the housing; and the catheter body is coupled to a rotary drive shaft, the catheter body and the 15 housing, together with the imaging element, being thereby configured to rotate, wherein the rotatable shaft and the rotary drive shaft are configured such that the rotation of the catheter body and the housing is in the opposite direction relative to the rotation of the rotatable shaft.