mhurhangee/patent-ind-claim-en huggingface dataset:
A pre-molded cylindrical sub-assembly for inclusion in an implantable medical lead configured to conduct an electrical signal between an implantable medical device and tissue of a patient, wherein the pre-molded cylindrical sub-assembly comprises: a cylindrical conductive element formed from a conductive material to define a substantially continuous interior surface and a substantially continuous exterior surface; and an insulative element formed from an insulative material molded onto the interior surface of the cylindrical conductive element, wherein an interior surface of the insulative element defines a lumen of the pre-molded cylindrical sub-assembly configured to receive one or more elongated conductors of the implantable medical lead, and the cylindrical conductive element is configured to be electrically connected to one of the elongated conductors within the lumen, wherein the insulative element does not extend an entire longitudinal length of the cylindrical conductive element around all, or a portion of, a circumference of the conductive element. a cylindrical conductive element formed from a conductive material to define a substantially continuous interior surface and a substantially continuous exterior surface; and an insulative element formed from an insulative material molded onto the interior surface of the cylindrical conductive element, wherein an interior surface of the insulative element defines a lumen of the pre-molded cylindrical sub-assembly configured to receive one or more elongated conductors of the implantable medical lead, and the cylindrical conductive element is configured to be electrically connected to one of the elongated conductors within the lumen, wherein the insulative element does not extend an entire longitudinal length of the cylindrical conductive element around all, or a portion of, a circumference of the conductive element.
Electronic control system of emergency and service braking for a vehicle, particularly for a railway vehicle, that includes an emergency brake module and a service brake module each including an electronic architecture arranged to generate a braking pressure value, characterized by said electronic architectures being independent and segregated from each other; the service brake module being arranged to receive at least one deceleration/service braking demand signal and to generate a respective service braking pressure signal ; the emergency brake module being connected to said service brake module through a communication channel for receiving said service braking pressure signal ; the emergency brake module being arranged to receive at least one signal indicative of an emergency braking demand, and to generate a respective intermediate braking pressure signal indicative of an emergency braking ; said emergency brake module being arranged to generate a braking pressure control signal corresponding to the higher value between the service braking pressure signal and the intermediate braking pressure signal indicative of an emergency braking , and to convert said braking pressure control signal into a braking pressure by controlling an electro-pneumatic actuator .
A laminated core comprising a plurality of electrical steel sheets stacked in a thickness direction, wherein the electrical steel sheet includes an annular core back part and a plurality of tooth parts that protrude from the core back part in a radial direction and are disposed at intervals in a circumferential direction of the core back part , wherein a fastening part is provided in a portion of the core back part corresponding to the tooth part , wherein an adhesion part is provided in the tooth part , characterized in that the tooth parts have first tooth parts in which the adhesion part is provided and second tooth parts in which the adhesion part is not provided, and in that the first tooth parts and the second tooth parts are disposed alternately in the circumferential direction. wherein the electrical steel sheet includes an annular core back part and a plurality of tooth parts that protrude from the core back part in a radial direction and are disposed at intervals in a circumferential direction of the core back part , wherein a fastening part is provided in a portion of the core back part corresponding to the tooth part , wherein an adhesion part is provided in the tooth part , characterized in that the tooth parts have first tooth parts in which the adhesion part is provided and second tooth parts in which the adhesion part is not provided, and in that the first tooth parts and the second tooth parts are disposed alternately in the circumferential direction.
A method of characterising the surface of an aspheric diffractive structure, the method comprising: receiving measurement data representing the results of a measurement operation performed on the surface of the aspheric diffractive structure; fitting an equation having an aspheric component to the received data; producing fitted data based upon the fitted equation; subtracting the fitted data from the received data to produce subtracted data; identifying one or more step edge locations and step heights in the subtracted data, characterized in that the identifying step identifies a plurality of step edge locations and corresponding step heights, the method further comprising fitting a function to points at the identified heights and locations to determine data representing one or more components of the surface, and in that the method further comprises: using the fitted function and the identified step edges and locations to produce fitted stepped data; subtracting the fitted stepped data from the received data to produce further subtracted data; and fitting the equation having an aspheric component to the further subtracted data to produce fitted aspheric information. receiving measurement data representing the results of a measurement operation performed on the surface of the aspheric diffractive structure; fitting an equation having an aspheric component to the received data; producing fitted data based upon the fitted equation; subtracting the fitted data from the received data to produce subtracted data; identifying one or more step edge locations and step heights in the subtracted data, characterized in that the identifying step identifies a plurality of step edge locations and corresponding step heights, the method further comprising fitting a function to points at the identified heights and locations to determine data representing one or more components of the surface, and in that the method further comprises: using the fitted function and the identified step edges and locations to produce fitted stepped data; subtracting the fitted stepped data from the received data to produce further subtracted data; and fitting the equation having an aspheric component to the further subtracted data to produce fitted aspheric information.
An airbag, comprising: a front panel of fabric forming the front face ; a rear panel of fabric forming the rear face , the rear panel coupled to the front panel of fabric to define one or more inflatable chambers in fluid communication and for receiving inflation gas from an inflator; and one or more internal tethers having a greater-than-zero length disposed in a tethered inflatable chamber of the one or more inflatable chambers, the one or more internal tethers having a greater-than-zero length each comprising at least one yarn that extends between the fabric of the front panel and the fabric of the rear panel, characterized in that the one or more internal tethers having a greater-than-zero length are configured to transition from an unbroken configuration to a broken configuration when an internal pressure in the tethered inflatable chamber exceeds a threshold which is reached when a vehicle occupant strikes at least a portion of the inflatable curtain airbag. a front panel of fabric forming the front face ; a rear panel of fabric forming the rear face , the rear panel coupled to the front panel of fabric to define one or more inflatable chambers in fluid communication and for receiving inflation gas from an inflator; and one or more internal tethers having a greater-than-zero length disposed in a tethered inflatable chamber of the one or more inflatable chambers, the one or more internal tethers having a greater-than-zero length each comprising at least one yarn that extends between the fabric of the front panel and the fabric of the rear panel, characterized in that the one or more internal tethers having a greater-than-zero length are configured to transition from an unbroken configuration to a broken configuration when an internal pressure in the tethered inflatable chamber exceeds a threshold which is reached when a vehicle occupant strikes at least a portion of the inflatable curtain airbag.
A method for the in vitro diagnosis of dementia with Lewy bodies in a human patient comprising the step of determining the amount of transcripts SNCAtv3 (SEQ ID NO: 3) and SNCAtv2 (SEQ ID NO: 2) of the human alpha-synuclein gene (SNCA) in a biological sample obtained from the patient, wherein when the amount of both transcripts determined for the patient is reduced with respect to a reference value, this is indicative of the presence of dementia with Lewy bodies in the patient.
A method comprising: receiving, at data processing hardware of a user device , one or more data packets from an external network when the user device connects to a first network , the user device configured for dual connectivity with the first network and a second network ; transmitting a measurement configuration from the data processing hardware to a modem of the user device , wherein the measurement configuration contains one or more measurement triggers; receiving, at the data processing hardware , a measurement report from the modem if the one or more measurement triggers cause the modem to transmit the measurement report ; determining, by the data processing hardware , whether it is feasible for the modem to perform a network switch to connect the user device to the second network based on the received measurement report ; and when it is feasible for the modem to perform the network change, transmitting a network change command from the data processing hardware to the modem , the network change command causing the modem to perform the network switch to connect the user device to the second network . receiving, at data processing hardware of a user device , one or more data packets from an external network when the user device connects to a first network , the user device configured for dual connectivity with the first network and a second network ; transmitting a measurement configuration from the data processing hardware to a modem of the user device , wherein the measurement configuration contains one or more measurement triggers; receiving, at the data processing hardware , a measurement report from the modem if the one or more measurement triggers cause the modem to transmit the measurement report ; determining, by the data processing hardware , whether it is feasible for the modem to perform a network switch to connect the user device to the second network based on the received measurement report ; and when it is feasible for the modem to perform the network change, transmitting a network change command from the data processing hardware to the modem , the network change command causing the modem to perform the network switch to connect the user device to the second network .
A current-conducting rotating system for a continuous electrolysis line, comprising a conductive roller comprising a central apron and two trunnions secured to the respective ends of said apron , and at least one electricity collector mounted on one of the trunnions , which trunnion is configured to conduct the current from the collector to the apron , characterized in that the system comprises at least one temperature sensor secured to the collector and arranged to measure a temperature of said collector , and wireless communication means connected to the temperature sensor and configured to emit the measured temperature value.
A textile mat structure based on inorganic fibres, preferably glass fibres, wherein the textile mat structure is a fibre nonwoven, preferably a glass fibre nonwoven, characterized in that the fibre nonwoven, preferably the glass fibre nonwoven, comprises regions with high air permeability and regions with low air permeability and the surface area of the regions with high air permeability is between 5% and 90% of the total surface area of the textile mat structure and the fibre nonwoven is a wet laid nonwoven, the regions with high air permeability have a local thickness which is a maximum of 80% of the mean nonwoven thickness "d", and in that the edge of the regions with high air permeability is banked up and the banking Δ is the difference "D" minus "d" and is a maximum of 20% of the thickness "d", wherein the thickness ""d"" is determined on a homogeneous textile mat structure with a mean basis weight and the thickness "D" is determined on a textile mat structure with regions with high and low air permeability in accordance with the measurement method in the description.
Method for operating a combustion machine having an internal combustion engine and having an exhaust tract , wherein, proceeding from the internal combustion engine , a (first) lambda probe , then a first three-way catalytic converter and then a second three-way catalytic converter are integrated into the exhaust tract , and wherein an NH 3 sensor is integrated into the exhaust tract between the first three-way catalytic converter and the second three-way catalytic converter , characterized in that the internal combustion engine is alternately operated rich and operated lean, wherein a switch from rich operation to lean operation takes place if a presence, able to be ascertained in principle, of ammonia in the exhaust gas is ascertained by means of the NH 3 sensor .
A data transmission method, applied to a network based on an unslotted carrier sense multiple access with collision avoidance, CSMA/CA, mechanism, wherein the network comprises a plurality of nodes, the plurality of nodes share one channel, and the method comprises: determining (S401), by a sending node in the plurality of nodes through a first clear channel assessment, that the channel is idle; waiting (S402), by the sending node, for a delay duration, and performing a second clear channel assessment on the channel after the delay duration; and sending (S403), by the sending node, a data frame to a receiving node in the plurality of nodes through the channel if determining, through the second clear channel assessment, that the channel is idle, wherein the delay duration is an interframe spacing, IFS, wherein if the data frame is a long frame, the IFS is max( T LIFS , T turnaround ) + β · T cca ; or if the data frame is a short frame, the IFS is max( T SIFS , T turnaround ) + β · T cca ; wherein T LIFS represents a preset long interframe spacing LIFS, T SIFS represents a preset short interframe spacing, SIFS, T turnaround represents preset duration of switching between receiving and sending statuses of a transceiver, T cca represents duration required by a clear channel assessment, β represents a dynamic adjustment coefficient, and max() represents a MAX function. determining (S401), by a sending node in the plurality of nodes through a first clear channel assessment, that the channel is idle; waiting (S402), by the sending node, for a delay duration, and performing a second clear channel assessment on the channel after the delay duration; and sending (S403), by the sending node, a data frame to a receiving node in the plurality of nodes through the channel if determining, through the second clear channel assessment, that the channel is idle, wherein the delay duration is an interframe spacing, IFS, wherein if the data frame is a long frame, the IFS is max( T LIFS , T turnaround ) + β · T cca ; or if the data frame is a short frame, the IFS is max( T SIFS , T turnaround ) + β · T cca ; wherein T LIFS represents a preset long interframe spacing LIFS, T SIFS represents a preset short interframe spacing, SIFS, T turnaround represents preset duration of switching between receiving and sending statuses of a transceiver, T cca represents duration required by a clear channel assessment, β represents a dynamic adjustment coefficient, and max() represents a MAX function.
A rotary electric machine controller configured to control a rotary electric machine including a first rotor rotating around a rotation axis (Zr) serving as a center and including a plurality of first salient poles protruding in directions perpendicular to the rotation axis, an annular structural body disposed radially outside the rotor and surrounding the rotor , and 6 × n windings provided along a circumferential direction of the structural body , and satisfies m - k = p where m is the number of salient poles, k is an order of field magnetic flux, p is an order of magnetic flux of an armature generated when drive signals for driving the rotary electric machine as a three-phase rotary electric machine are applied to the windings, wherein the rotary electric machine controller is configured to perform superimposition for each of the windings of a field signal for causing the rotary electric machine to generate the field magnetic flux and the drive signal for driving the rotary electric machine as three-phase rotary electric machine, and to output a respective signal obtained by the superimposition to each of the windings , and p, m, and k are natural numbers equal to or larger than one, characterized in that the field signal is a direct-current voltage of value +Vf or -Vf for each winding of a pair of windings of the same phase, respectively and the drive signal is an alternating-current voltage of value Vu, Vv or Vw, each phase comprises two pairs of windings, and for each winding pair of the same phase, the drive signal is superimposed with a different field signal. the rotary electric machine controller is configured to perform superimposition for each of the windings of a field signal for causing the rotary electric machine to generate the field magnetic flux and the drive signal for driving the rotary electric machine as three-phase rotary electric machine, and to output a respective signal obtained by the superimposition to each of the windings , and p, m, and k are natural numbers equal to or larger than one, characterized in that the field signal is a direct-current voltage of value +Vf or -Vf for each winding of a pair of windings of the same phase, respectively and the drive signal is an alternating-current voltage of value Vu, Vv or Vw, each phase comprises two pairs of windings, and for each winding pair of the same phase, the drive signal is superimposed with a different field signal.
An indication management device , comprising: a voice acquisition component for acquiring a voice input by a voice input terminal ; an indication recognition component for recognizing details of an indication from the voice acquired by the voice acquisition component ; an importance degree determination component for determining a degree of importance of the indication based on a time word contained in the details recognized by the indication recognition component; and an output control component for controlling output of indication details to an output device in accordance with the degree of importance determined by the importance degree determination component, wherein the importance degree determination component calculates a required time by a difference between a current time and a time in the time word and determines the degree of importance of the indication in accordance with a length of the required time; and wherein the output device is a label printer . a voice acquisition component for acquiring a voice input by a voice input terminal ; an indication recognition component for recognizing details of an indication from the voice acquired by the voice acquisition component ; an importance degree determination component for determining a degree of importance of the indication based on a time word contained in the details recognized by the indication recognition component; and an output control component for controlling output of indication details to an output device in accordance with the degree of importance determined by the importance degree determination component, wherein the importance degree determination component calculates a required time by a difference between a current time and a time in the time word and determines the degree of importance of the indication in accordance with a length of the required time; and wherein the output device is a label printer .
A tool for forming a dental restoration, the tool comprising: a mold body configured to provide a customized fit with at least one tooth of a patient, a single piece of the mold body including an aperture configured to align with a portion of a surface of a tooth to be restored of the at least one tooth, wherein the mold body is configured to combine with the tooth to be restored to define a mold cavity encompassing at least a portion of a desired tooth structure of the tooth to be restored, wherein a shape of the aperture defines a shape of the portion of the desired tooth structure, wherein the aperture is configured to allow placement and flow of a restorative material into the mold cavity to cover the portion of the surface of the tooth to be restored, wherein the aperture is configured to align with at least 20% of the surface of the tooth to be restored. a mold body configured to provide a customized fit with at least one tooth of a patient, a single piece of the mold body including an aperture configured to align with a portion of a surface of a tooth to be restored of the at least one tooth, wherein the mold body is configured to combine with the tooth to be restored to define a mold cavity encompassing at least a portion of a desired tooth structure of the tooth to be restored, wherein a shape of the aperture defines a shape of the portion of the desired tooth structure, wherein the aperture is configured to allow placement and flow of a restorative material into the mold cavity to cover the portion of the surface of the tooth to be restored, wherein the aperture is configured to align with at least 20% of the surface of the tooth to be restored.