mhurhangee/ep-ind-claims huggingface dataset:
A ladder rack for a motor vehicle to facilitate the loading and unloading of ladders onto and from the roof area of said vehicle, comprising: a) a front and a rear crossbar member attachable to the roof of a motor vehicle in parallel, spaced-apart relation and extending transverse to a longitudinal axis of the motor vehicle; b) an elongated shaft extending between the front and rear crossbar members (12, 14) and journaled for rotation therein; c) a four-bar linkage including a rear ladder support bar pivotally joined by a first link member to the rear crossbar member and by a second link member to the elongated shaft such that rotation of the shaft in a first direction displaces the ladder support bar to a ladder loading and unloading position alongside of the motor vehicle and rotation of the shaft in a second direction displaces the ladder support bar from said ladder loading and unloading position to a position atop the vehicle roof area; d) at least one rear ladder hook (64, 66) affixed to the rear ladder support bar adapted to engage a ladder's longitudinal rail; and e) a front ladder hook adjacent to the front crossbar and affixed to and rotatable with the elongated shaft about the axis of the elongated shaft by means of a coupler operative to maintain the front ladder hook parallel with the rear ladder hook on the rear ladder support bar over a path of travel of each upon rotation of the shaft and where the front ladder hook is adapted to engage a ladder's longitudinal rail. a) a front and a rear crossbar member attachable to the roof of a motor vehicle in parallel, spaced-apart relation and extending transverse to a longitudinal axis of the motor vehicle; b) an elongated shaft extending between the front and rear crossbar members (12, 14) and journaled for rotation therein; c) a four-bar linkage including a rear ladder support bar pivotally joined by a first link member to the rear crossbar member and by a second link member to the elongated shaft such that rotation of the shaft in a first direction displaces the ladder support bar to a ladder loading and unloading position alongside of the motor vehicle and rotation of the shaft in a second direction displaces the ladder support bar from said ladder loading and unloading position to a position atop the vehicle roof area; d) at least one rear ladder hook (64, 66) affixed to the rear ladder support bar adapted to engage a ladder's longitudinal rail; and e) a front ladder hook adjacent to the front crossbar and affixed to and rotatable with the elongated shaft about the axis of the elongated shaft by means of a coupler operative to maintain the front ladder hook parallel with the rear ladder hook on the rear ladder support bar over a path of travel of each upon rotation of the shaft and where the front ladder hook is adapted to engage a ladder's longitudinal rail.
Medical stopcock comprising: - a body provided with at least two female connectors (5a, 5b) and a male connector, - a mobile plug which is mounted in the body, is provided with a rotation lever and comprises a fluid circulation channel, and - a reinforcement collar rigidly connected to at least two of the connectors (5a, 5b, 5c, 6), characterized in that the reinforcement collar is spaced apart from the body, thus forming an openworked zone around the central body. - a body provided with at least two female connectors (5a, 5b) and a male connector, - a mobile plug which is mounted in the body, is provided with a rotation lever and comprises a fluid circulation channel, and - a reinforcement collar rigidly connected to at least two of the connectors (5a, 5b, 5c, 6),
A method for utilizing audio commands onboard an aircraft, the method comprising: identifying a flight phase for the aircraft, resulting in an identified flight phase; receiving an audio input, resulting in received audio input; filtering the received audio input in a manner that is influenced by the identified flight phase for the aircraft, resulting in filtered audio input; and validating the filtered audio input as a first voice command of a first plurality of possible voice commands, further comprising: selecting, from a plurality of possible noise models, an acoustic noise model corresponding to the identified flight phase; and filtering the received audio input based on the acoustic noise model for the identified flight phase and wherein: receiving the audio input comprises receiving the audio input using an audio input device onboard the aircraft; and the acoustic noise model for the identified flight phase is based on audible noise proximate the audio input device during the identified flight phase. identifying a flight phase for the aircraft, resulting in an identified flight phase; receiving an audio input, resulting in received audio input; filtering the received audio input in a manner that is influenced by the identified flight phase for the aircraft, resulting in filtered audio input; and validating the filtered audio input as a first voice command of a first plurality of possible voice commands, further comprising: selecting, from a plurality of possible noise models, an acoustic noise model corresponding to the identified flight phase; and filtering the received audio input based on the acoustic noise model for the identified flight phase and wherein: receiving the audio input comprises receiving the audio input using an audio input device onboard the aircraft; and the acoustic noise model for the identified flight phase is based on audible noise proximate the audio input device during the identified flight phase. selecting, from a plurality of possible noise models, an acoustic noise model corresponding to the identified flight phase; and filtering the received audio input based on the acoustic noise model for the identified flight phase and wherein: receiving the audio input comprises receiving the audio input using an audio input device onboard the aircraft; and the acoustic noise model for the identified flight phase is based on audible noise proximate the audio input device during the identified flight phase. filtering the received audio input based on the acoustic noise model for the identified flight phase and wherein: receiving the audio input comprises receiving the audio input using an audio input device onboard the aircraft; and the acoustic noise model for the identified flight phase is based on audible noise proximate the audio input device during the identified flight phase. receiving the audio input comprises receiving the audio input using an audio input device onboard the aircraft; and the acoustic noise model for the identified flight phase is based on audible noise proximate the audio input device during the identified flight phase.
A method for manufacturing a sealed cavity, comprising a MEMS device, comprised in a microelectronic device, comprising - providing a substrate (1, 2, 3, 4) comprising at least one buried metal layer; - manufacturing at least one MEMS device at the location where said cavity is to be provided; - forming on said substrate (1, 2, 3, 4) a sacrificial layer (7,10) at least at locations where said cavity is to be provided, - depositing a membrane layer on top of said sacrificial layer (7,10), - removing sacrificial material of said sacrificial layer (7,10) through at least one hole in said membrane layer, thereafter - patterning said membrane layer in at least two separate membrane layer blocks (121, 122), - sealing said cavity by sealing said membrane layer, and - providing an electrical connection for said MEMS device, said electrical connection comprising said buried metal layer and one of said membrane layer blocks (121, 122), wherein - manufacturing said at least one MEMS device comprises forming a structural MEMS layer at least a first portion of which is comprised in said MEMS device and at least a second portion of which is comprised in said electrical connection, - patterning said membrane layer comprises isolating said electrical connection from a sidewall of said cavity, and - a support structure is formed by a portion of sacrificial material of said sacrificial layer, said support structure providing support for the sidewall of the cavity and for the electrical connection. - providing a substrate (1, 2, 3, 4) comprising at least one buried metal layer; - manufacturing at least one MEMS device at the location where said cavity is to be provided; - forming on said substrate (1, 2, 3, 4) a sacrificial layer (7,10) at least at locations where said cavity is to be provided, - depositing a membrane layer on top of said sacrificial layer (7,10), - removing sacrificial material of said sacrificial layer (7,10) through at least one hole in said membrane layer, thereafter - patterning said membrane layer in at least two separate membrane layer blocks (121, 122), - sealing said cavity by sealing said membrane layer, and - providing an electrical connection for said MEMS device, said electrical connection comprising said buried metal layer and one of said membrane layer blocks (121, 122), - manufacturing said at least one MEMS device comprises forming a structural MEMS layer at least a first portion of which is comprised in said MEMS device and at least a second portion of which is comprised in said electrical connection, - patterning said membrane layer comprises isolating said electrical connection from a sidewall of said cavity, and - a support structure is formed by a portion of sacrificial material of said sacrificial layer, said support structure providing support for the sidewall of the cavity and for the electrical connection.
A razor cartridge comprising: a housing which comprises a guard and a cap; and a plurality of razor blades which are installed between the guard and the cap in the housing and each of which comprises a base portion, a bent portion extending from an end of the base portion to be bent, and an edge portion extending from an end of the bent portion and having a cutting edge formed at an end of the edge portion, wherein an overlap size defined as a distance between a straight line extending from a front of the base portion of a razor blade and an end point of the cutting edge of an adjacent razor blade located behind the razor blade ranges more than 0 and less than or equal to 0.5 mm and wherein a first distance between a straight line extending from the front of the base portion and an end point of the cutting edge is in the range of 0.3 to 1.0 mm. a housing which comprises a guard and a cap; and a plurality of razor blades which are installed between the guard and the cap in the housing and each of which comprises a base portion, a bent portion extending from an end of the base portion to be bent, and an edge portion extending from an end of the bent portion and having a cutting edge formed at an end of the edge portion, wherein an overlap size defined as a distance between a straight line extending from a front of the base portion of a razor blade and an end point of the cutting edge of an adjacent razor blade located behind the razor blade ranges more than 0 and less than or equal to 0.5 mm and wherein a first distance between a straight line extending from the front of the base portion and an end point of the cutting edge is in the range of 0.3 to 1.0 mm.
A calculating device arranged to perform protected in the white-box model calculations on elements of a ring, a ring addition and a ring multiplication being defined on the ring, the calculating device comprising - an operand store arranged to store encoded ring elements (112, 114, 116; 212), an encoded ring element representing an element of the ring in encoded form, - an operator module (120; 220) comprising multiple operator units, at least one of the operator units being dyadic, - a dyadic operator unit (122; 222, 224) being arranged to - receive an encoded ring element and a parameter, and - perform a fixed calculation on said encoded ring element and the parameter, thus producing a new encoded ring element, and - a calculation manager arranged to - receive a first encoded ring element and a second encoded ring element, - perform a ring multiplication by applying a sequence of the multiple operator units to the first encoded ring element using parameters obtained at least from the second encoded ring element, or - perform a ring addition by applying a sequence of the multiple operator units to the first encoded ring element using parameters obtained at least from the second encoded ring element, wherein the sequence for the ring multiplication is the same as the sequence for the ring addition, wherein a ring multiplication or a ring addition is performed depending on the parameters. - an operand store arranged to store encoded ring elements (112, 114, 116; 212), an encoded ring element representing an element of the ring in encoded form, - an operator module (120; 220) comprising multiple operator units, at least one of the operator units being dyadic, - a dyadic operator unit (122; 222, 224) being arranged to - receive an encoded ring element and a parameter, and - perform a fixed calculation on said encoded ring element and the parameter, thus producing a new encoded ring element, and - a calculation manager arranged to - receive a first encoded ring element and a second encoded ring element, - perform a ring multiplication by applying a sequence of the multiple operator units to the first encoded ring element using parameters obtained at least from the second encoded ring element, or - perform a ring addition by applying a sequence of the multiple operator units to the first encoded ring element using parameters obtained at least from the second encoded ring element, wherein the sequence for the ring multiplication is the same as the sequence for the ring addition, - receive a first encoded ring element and a second encoded ring element, - perform a ring multiplication by applying a sequence of the multiple operator units to the first encoded ring element using parameters obtained at least from the second encoded ring element, or - perform a ring addition by applying a sequence of the multiple operator units to the first encoded ring element using parameters obtained at least from the second encoded ring element, wherein the sequence for the ring multiplication is the same as the sequence for the ring addition,
A method comprising: transmitting a link that corresponds to a resource hosted by a server; transmitting instructions for performing a time-based transformation of the link; receiving a request to access the resource, wherein the request comprises a first transformed version of the link generated based on an application of the time-based transformation of the link; generating a second transformed version of the link based at least in part on performing the time-based transformation of the link based at least in part on a time that the request to access the resource was received; and authorizing access to the resource based at least in part on determining that the first transformed version of the link matches the second transformed version of the link. transmitting a link that corresponds to a resource hosted by a server; transmitting instructions for performing a time-based transformation of the link; receiving a request to access the resource, wherein the request comprises a first transformed version of the link generated based on an application of the time-based transformation of the link; generating a second transformed version of the link based at least in part on performing the time-based transformation of the link based at least in part on a time that the request to access the resource was received; and authorizing access to the resource based at least in part on determining that the first transformed version of the link matches the second transformed version of the link.
A computer-implemented method of identifying a healthy lumen diameter of a vasculature, the method comprising: receiving a data set including one or more lumen segmentations of known healthy vessel segments of a population of individuals; splitting each of the lumen segmentations of the population of individuals into stem-crown-root units, a stem unit being a lumen section of interest, a root unit being vasculature upstream of the stem unit, and a crown unit being vasculature downstream of the stem unit; for each stem-crown-root unit, extracting one or more features selected in the list consisting of: - average, maximum and minimum lumen area, volume, length, volume/area, volume/length for each of the stem unit, the root unit and the crown unit, - lumen local diameter using maximum inscribed spheres, and - lumen planar area; characterized in that the method further comprises: comparing features from the crown and root units to features of the stem unit, by a machine learning algorithm, to infer healthy lumen diameter at the stem; and using a random forest regressor to determine a population-based healthy lumen diameter for the stem based on the comparison of features. receiving a data set including one or more lumen segmentations of known healthy vessel segments of a population of individuals; splitting each of the lumen segmentations of the population of individuals into stem-crown-root units, a stem unit being a lumen section of interest, a root unit being vasculature upstream of the stem unit, and a crown unit being vasculature downstream of the stem unit; for each stem-crown-root unit, extracting one or more features selected in the list consisting of: - average, maximum and minimum lumen area, volume, length, volume/area, volume/length for each of the stem unit, the root unit and the crown unit, - lumen local diameter using maximum inscribed spheres, and - lumen planar area; characterized in that the method further comprises: comparing features from the crown and root units to features of the stem unit, by a machine learning algorithm, to infer healthy lumen diameter at the stem; and using a random forest regressor to determine a population-based healthy lumen diameter for the stem based on the comparison of features. - average, maximum and minimum lumen area, volume, length, volume/area, volume/length for each of the stem unit, the root unit and the crown unit, - lumen local diameter using maximum inscribed spheres, and - lumen planar area; characterized in that the method further comprises: comparing features from the crown and root units to features of the stem unit, by a machine learning algorithm, to infer healthy lumen diameter at the stem; and using a random forest regressor to determine a population-based healthy lumen diameter for the stem based on the comparison of features. comparing features from the crown and root units to features of the stem unit, by a machine learning algorithm, to infer healthy lumen diameter at the stem; and using a random forest regressor to determine a population-based healthy lumen diameter for the stem based on the comparison of features.
A method for communication, comprising: determining, by a network device, according to characteristic information of a terminal device, configuration information for power saving of the terminal device; and sending, by the network device, the configuration information to the terminal device, wherein the characteristic information of the terminal device comprises subscription information of the terminal device and service information of the terminal device, the subscription information of the terminal device comprises power saving demand information of the terminal device, and the characteristic information is acquired by the network device from a subscription server; characterized in that the service information of the terminal device comprises at least one of: a probability that a value corresponding to data arrival time interval information of the terminal device occurs; a probability that a value corresponding to frequentness information of data transmission of the terminal device occurs; a probability that a value corresponding to data arrival duration information of the terminal device occurs; or a probability that a value corresponding to a quality of service, QoS, requirement of the terminal device occurs. determining, by a network device, according to characteristic information of a terminal device, configuration information for power saving of the terminal device; and sending, by the network device, the configuration information to the terminal device, wherein the characteristic information of the terminal device comprises subscription information of the terminal device and service information of the terminal device, the subscription information of the terminal device comprises power saving demand information of the terminal device, and the characteristic information is acquired by the network device from a subscription server; characterized in that the service information of the terminal device comprises at least one of: a probability that a value corresponding to data arrival time interval information of the terminal device occurs; a probability that a value corresponding to frequentness information of data transmission of the terminal device occurs; a probability that a value corresponding to data arrival duration information of the terminal device occurs; or a probability that a value corresponding to a quality of service, QoS, requirement of the terminal device occurs. a probability that a value corresponding to data arrival time interval information of the terminal device occurs; a probability that a value corresponding to frequentness information of data transmission of the terminal device occurs; a probability that a value corresponding to data arrival duration information of the terminal device occurs; or a probability that a value corresponding to a quality of service, QoS, requirement of the terminal device occurs.
Printing unit of a gravure printing machine, - having a gravure printing cylinder (T1 - T4) by way of which printing ink is transferable according to a format onto a printed material; - having an ink pan which is disposed below the gravure printing cylinder (T1 - T4) and in which printing ink, into which the gravure printing cylinder (T1 - T4) is immersible, is providable; - wherein the ink pan comprises an outflow trough; - wherein the ink pan is pivotable at least to the extent that the printing ink is transferable into the outflow trough; characterized in that the ink pan comprises an end wall which has a U-shaped clearance, wherein the journal of the gravure printing cylinder (T1 - T4) penetrates the clearance, such that the end wall and the ink pan are vertically displaceable in relation to the gravure printing cylinder (T1 - T4) and are pivotable about the rotation axis of the gravure printing cylinder (T1 - T4). - having a gravure printing cylinder (T1 - T4) by way of which printing ink is transferable according to a format onto a printed material; - having an ink pan which is disposed below the gravure printing cylinder (T1 - T4) and in which printing ink, into which the gravure printing cylinder (T1 - T4) is immersible, is providable; - wherein the ink pan comprises an outflow trough; - wherein the ink pan is pivotable at least to the extent that the printing ink is transferable into the outflow trough; characterized in that the ink pan comprises an end wall which has a U-shaped clearance, wherein the journal of the gravure printing cylinder (T1 - T4) penetrates the clearance, such that the end wall and the ink pan are vertically displaceable in relation to the gravure printing cylinder (T1 - T4) and are pivotable about the rotation axis of the gravure printing cylinder (T1 - T4).