mhurhangee/ep-ind-claims huggingface dataset:
A verification application arranged to interact with other applications on an electronic device, the electronic device having a processor, a memory and an operating system controlling operation of the verification application and the other applications on the processor using arbitrary memory locations, where the other applications are enabled to call the verification application to securely determine authenticity of a user of the electronic device, the verification application is further arranged to receive verification data for secure determination of authenticity of the user; and provide, upon a call from any of the other applications and a match between the verification data and a verification reference, a trust token to the calling application, characterized in that the verification data comprises a biometric sample and the verification reference comprises a biometric reference, wherein the verification application is arranged to be paired with at least one of the other applications by mutually exchanging at least one of application signature; cryptographic key or keys; password; and a shared secret, wherein the provision of the trust token is only performed when the verification application and the one of the other applications providing a call to the verification application are properly paired.
A section of a gas turbine engine comprising: a disk; a first blade attached to said disk; a second blade attached to said disk; and a damper assembly which extends from said disk between said first blade and said second blade, said damper assembly includes a first damper (88A; 88'A) which engages said first blade and a second damper (88B; 88'B) which engages said second blade; characterised in that said damper assembly further comprises a first seal which extends toward said first blade and a second seal which extends toward said second blade, wherein said first seal and said second seal define an inner boundary of an air flow path, and said first seal and said second seal are radially outboard of said first damper (88A; 88'A) and said second damper (88B; 88'B). a disk; a first blade attached to said disk; a second blade attached to said disk; and a damper assembly which extends from said disk between said first blade and said second blade, said damper assembly includes a first damper (88A; 88'A) which engages said first blade and a second damper (88B; 88'B) which engages said second blade; characterised in that said damper assembly further comprises a first seal which extends toward said first blade and a second seal which extends toward said second blade, wherein said first seal and said second seal define an inner boundary of an air flow path, and said first seal and said second seal are radially outboard of said first damper (88A; 88'A) and said second damper (88B; 88'B).
A vehicle operation pedal apparatus (10; 38) comprising an operation pedal supported by a pedal support member so as to be pivotable about one axis, and a return spring having one end portion engaged with a bracket plate member disposed on the operation pedal and the other end portion engaged with a position fixing member, wherein the operation pedal is returned by pivoting in accordance with an urging force of the return spring upon cancellation of a depressing operation of the operation pedal, the vehicle operation pedal apparatus wherein: an engagement hook is formed in the one end portion of the return spring by bending an end portion of a wire rod that constitutes the return spring; an engagement hole or cutout into which the engagement hook is hooked is formed in the bracket plate member disposed on the operation pedal so as to pass through the bracket plate member; characterized in that: a surface direction of a portion of the bracket plate member, in which the engagement hole or cutout is formed, is set such that a contact point at which the engagement hook contacts one of a pair of edges (E1, E2) that are ridgelines between an inner wall surface of the engagement hole or cutout and one surface and the other surface of the bracket plate member is a relative pivot point of the return spring that pivots relative to the operation pedal in accordance with a pivoting operation of the operation pedal in an entire operation angle range of the operation pedal. an engagement hook is formed in the one end portion of the return spring by bending an end portion of a wire rod that constitutes the return spring; an engagement hole or cutout into which the engagement hook is hooked is formed in the bracket plate member disposed on the operation pedal so as to pass through the bracket plate member; characterized in that: a surface direction of a portion of the bracket plate member, in which the engagement hole or cutout is formed, is set such that a contact point at which the engagement hook contacts one of a pair of edges (E1, E2) that are ridgelines between an inner wall surface of the engagement hole or cutout and one surface and the other surface of the bracket plate member is a relative pivot point of the return spring that pivots relative to the operation pedal in accordance with a pivoting operation of the operation pedal in an entire operation angle range of the operation pedal.
A sheet stacking apparatus comprising: a conveyance path which is configured to convey sheets; a plurality of stackers which are configured to stack the sheets; a plurality of gates (G, GA001, GA002, GA003, GA004) which are arranged in a number corresponding to the number of stackers, and are configured to guide the sheets from the conveyance path into the stackers, respectively; a skew sensor (P, PA004) which is configured to detect a skew of the sheet conveyed along the conveyance path; and a control unit which is configured to drive a gate corresponding to a stacker, in which the sheet is to be stacked, in accordance with a skew value of the sheet detected by the skew sensor upstream of the gate corresponding to the stacker, in which the sheet is to be stacked, in a direction in which the sheet is conveyed along the conveyance path, characterised by said control unit serving as a calculation unit which is configured to calculate a predicted skew value when the sheet reaches the gate corresponding to the stacker in which the sheet is to be stacked, based on a plurality of skew values of the sheet detected by the skew sensor at a plurality of positions upstream of the gate corresponding to the stacker in which the sheet is to be stacked, wherein the control unit is configured to control driving of the gate corresponding to the stacker in which the sheet is to be stacked, based on the predicted skew value calculated by the calculation unit. a conveyance path which is configured to convey sheets; a plurality of stackers which are configured to stack the sheets; a plurality of gates (G, GA001, GA002, GA003, GA004) which are arranged in a number corresponding to the number of stackers, and are configured to guide the sheets from the conveyance path into the stackers, respectively; a skew sensor (P, PA004) which is configured to detect a skew of the sheet conveyed along the conveyance path; and a control unit which is configured to drive a gate corresponding to a stacker, in which the sheet is to be stacked, in accordance with a skew value of the sheet detected by the skew sensor upstream of the gate corresponding to the stacker, in which the sheet is to be stacked, in a direction in which the sheet is conveyed along the conveyance path, characterised by said control unit serving as a calculation unit which is configured to calculate a predicted skew value when the sheet reaches the gate corresponding to the stacker in which the sheet is to be stacked, based on a plurality of skew values of the sheet detected by the skew sensor at a plurality of positions upstream of the gate corresponding to the stacker in which the sheet is to be stacked,
A reagent for knocking out bmp6a and bmp6b genes in Carassius auratus genome, the reagent comprising sgRNA forward primers and sgRNA reverse primers designed for knockout target sites of the bmp6 genes; wherein the knockout target sites of the bmp6 genes are shown in Table 1, Table 1Gene sgRNAs Number Genome coordinates Exon Target sequence bmp6a CAA1 NC_039266.1:578 4476 Exon1 CAA2 NC_039266.1:578 4523 Exon1 CAA3 NC_039266.1:578 4562 Exon1 CAA4 NC_039266.1:581 5487 Exon2 CAA5 NC_039266.1:581 5527 Exon2 CAA6 NC_039266.1:581 5558 Exon2 bmp6b CAA7 NC_039291.1:812 7537 Exon1 CAA8 NC_039291.1:812 7477 Exon1 CAA9 NC_03929.1:8127 425 Exon1 CAA10 NC_03929.1:8097 264 Exon2 CAA11 NC_039291.1:809 7233 Exon2
A glazing rebate insert element for a window or a door for backing a fixing element, wherein the glazing rebate insert element comprises a profiled bottom side for placement on a profile of the window or the door and a substantially flat support surface for supporting the fixing element, wherein a contact edge is formed at least in sections on a front longitudinal side of the glazing rebate insert element, which contact edge protrudes beyond the support surface, and that at least one spring element is formed on an opposite rear longitudinal side, characterized in that the glazing rebate insert element is designed to press an inserted fixing element in a direction parallel to the support surface against the contact edge.
A method of detecting corrosion in a conduit or container, wherein the method comprises measuring the thickness of a wall of the conduit or container with one or more pulse-echo ultrasound devices, wherein the method comprises the following steps: (i) receiving signals indicative of A-scan data from the one or more pulse-echo ultrasound devices, wherein the A-scan data comprises a plurality of A-scan spectra; (ii) determining which of the A-scan spectra have a distorted waveform such that a reliable wall thickness measurement cannot be determined, and selecting one or more particular A-scan spectra among the determined A-scan spectra; (iii) analysing the one or more particular A-scan spectra selected in step (ii) to determine one or more A-scan spectral characteristics of each spectrum that are causing the distortion; (iv) determining a correction to apply to the data based on the one or more A-scan spectral characteristics determined in step (iii); (v) correcting the one or more distorted waveform by applying an algorithm to the one or more distorted waveform so as to produce modified A-scan spectra; (vi) determining thickness measurements of the wall based on the modified A-scan spectra; and (vii) determining the extent to which the wall has been corroded based on the thickness measurements determined in step (vi) and additional thickness measurements determined from A-scan spectra. (i) receiving signals indicative of A-scan data from the one or more pulse-echo ultrasound devices, wherein the A-scan data comprises a plurality of A-scan spectra; (ii) determining which of the A-scan spectra have a distorted waveform such that a reliable wall thickness measurement cannot be determined, and selecting one or more particular A-scan spectra among the determined A-scan spectra; (iii) analysing the one or more particular A-scan spectra selected in step (ii) to determine one or more A-scan spectral characteristics of each spectrum that are causing the distortion; (iv) determining a correction to apply to the data based on the one or more A-scan spectral characteristics determined in step (iii); (v) correcting the one or more distorted waveform by applying an algorithm to the one or more distorted waveform so as to produce modified A-scan spectra; (vi) determining thickness measurements of the wall based on the modified A-scan spectra; and (vii) determining the extent to which the wall has been corroded based on the thickness measurements determined in step (vi) and additional thickness measurements determined from A-scan spectra.
Guide and protection element for bone removal instruments, comprising a cylindrical body suitable to be fitted over a bone removal instrument, having a first end that is completely open and a second end that is at least partially closed, said cylindrical body being provided with at least one window on its lateral surface to allow the bone removal instrument to operate on a bone to be treated, characterised in that it comprises, at the second end, an internal pin, facing towards the first end, aligned with a longitudinal axis of said cylindrical body; said pin configured to engage with the top of a bone removal instrument to fix said element to said instrument, prevent the instrument from veering off course and maintain the reciprocal axial alignment.
A system for generating a plurality of software applications respectively for a plurality of heterogeneous computing devices (121, 114), each having an associated capability, comprising: a runtime framework, wherein the framework comprises a runtime software environment configured to provide common services for each of the plurality of applications when running; a plurality of object types; a modeling tool, wherein the modeling tool provides for customization of an application by receiving modeling information for the plurality of object types and wherein the modeling tool generates as output a metadata structure, the metadata structure representing the modeling information; and a plurality of generators associated respectively with each of the plurality of heterogeneous computing devices, wherein each generator is configured to: receive as input the metadata structure; select at least a portion of the modeling information represented by the metadata structure as a function of the capability of the associated computing device; generate at least one runtime component (310, 139) for the associated computing device as a function of the selected portion of modeling information; wherein the runtime framework and at least one runtime component collectively comprise the application. a runtime framework, wherein the framework comprises a runtime software environment configured to provide common services for each of the plurality of applications when running; a plurality of object types; a modeling tool, wherein the modeling tool provides for customization of an application by receiving modeling information for the plurality of object types and wherein the modeling tool generates as output a metadata structure, the metadata structure representing the modeling information; and a plurality of generators associated respectively with each of the plurality of heterogeneous computing devices, wherein each generator is configured to: receive as input the metadata structure; select at least a portion of the modeling information represented by the metadata structure as a function of the capability of the associated computing device; generate at least one runtime component (310, 139) for the associated computing device as a function of the selected portion of modeling information; wherein the runtime framework and at least one runtime component collectively comprise the application. receive as input the metadata structure; select at least a portion of the modeling information represented by the metadata structure as a function of the capability of the associated computing device; generate at least one runtime component (310, 139) for the associated computing device as a function of the selected portion of modeling information; wherein the runtime framework and at least one runtime component collectively comprise the application.
Control device for a heating device, comprising a thermostat having a control unit and comprising an energy source, wherein the control unit is connected to the energy source, which is used for operating the control unit, wherein the energy source is formed as an energy source that generates energy in the presence of temperature differences between two reference points (11, 12), characterized in that the energy source has a first module, which serves for producing the energy when there are small temperature differences, and in that the energy source has a second module, which serves for producing the energy when there are great temperature differences, wherein the energy source has an energy buffer store, wherein the first module and the second module are connected to the energy buffer store via a line.
An integrated Doherty amplifier structure comprising; a main amplifier stage and at least one peak amplifier stage (25, 26) formed on a semiconductor die mounted in a package; an output combination bar comprising an output lead of the package and configured to receive and combine an output from both the main amplifier stage and the or each peak amplifier stage (25, 26); a main connection configured to connect an output of the main amplifier stage to the combination bar, the main connection comprising, at least in part, a bond wire forming a first inductance; a peak connection (35, 37) configured to connect an output (34, 37) of the peak amplifier stage (25, 26) to the combination bar; wherein the main connection connects to the combination bar at a first point along the bar and the peak connection (35, 37) connects to the combination bar at a second point along the bar spaced from the first point and the main amplifier stage is located further from the output combination bar than the at least one peak amplifier stage (25, 26). a main amplifier stage and at least one peak amplifier stage (25, 26) formed on a semiconductor die mounted in a package; an output combination bar comprising an output lead of the package and configured to receive and combine an output from both the main amplifier stage and the or each peak amplifier stage (25, 26); a main connection configured to connect an output of the main amplifier stage to the combination bar, the main connection comprising, at least in part, a bond wire forming a first inductance; a peak connection (35, 37) configured to connect an output (34, 37) of the peak amplifier stage (25, 26) to the combination bar; wherein the main connection connects to the combination bar at a first point along the bar and the peak connection (35, 37) connects to the combination bar at a second point along the bar spaced from the first point and the main amplifier stage is located further from the output combination bar than the at least one peak amplifier stage (25, 26).
A fastening device for attaching an end of a strap to a device such as a watch case, comprising, - two pins, arranged to cooperate with two holes in the case in order to secure the strap to the case when the two pins each cooperate with a respective hole, - at least one movable body arranged to move between an extended, service position and a retracted position, said movable body being integral with at least one of the two pins and said at least one pin being withdrawn from its respective hole in said retracted position so as to allow a user to detach the strap from the case, - at least one biasing means arranged to urge said at least one movable body and said at least one pin into said extended position; - an actuating member and a transmission structure, said actuating member being operable by a user to detach the strap from the case, said actuating member being integral with said transmission structure and said transmission structure being arranged to act on said movable body when the actuating member is actuated in order to move said at least one pin to the retracted position, characterised in that said actuating member is arranged to be slidable in a longitudinal direction when actuated, in that a longitudinally oriented biasing means is absent and in that the device comprises a housing, said biasing means bearing on the one hand on a support arranged in said housing and on the other hand on an inner end of said movable body. - two pins, arranged to cooperate with two holes in the case in order to secure the strap to the case when the two pins each cooperate with a respective hole, - at least one movable body arranged to move between an extended, service position and a retracted position, said movable body being integral with at least one of the two pins and said at least one pin being withdrawn from its respective hole in said retracted position so as to allow a user to detach the strap from the case, - at least one biasing means arranged to urge said at least one movable body and said at least one pin into said extended position; - an actuating member and a transmission structure, said actuating member being operable by a user to detach the strap from the case, said actuating member being integral with said transmission structure and said transmission structure being arranged to act on said movable body when the actuating member is actuated in order to move said at least one pin to the retracted position, said actuating member is arranged to be slidable in a longitudinal direction when actuated, in that a longitudinally oriented biasing means is absent and in that the device comprises a housing, said biasing means bearing on the one hand on a support arranged in said housing and on the other hand on an inner end of said movable body.
A lower body garment comprising: at least one panel of a textile material comprising: a first surface and a second surface; and a pattern of a water-repellant coating applied on to the first surface, characterized by the pattern comprising a plurality of discrete shapes (348, 342, 344) that are isolated from one another by surrounding interconnected perimeter portions of the textile material that do not have the water-repellant coating applied on to the first surface, wherein a size of the plurality of discrete shapes (348, 342, 344) is greater at a first area of the at least one panel of the textile material as compared to a second area of the at least one panel of the textile material, and wherein when exposed to moisture, the coated portions do not absorb moisture and thus stay essentially dry while the interconnected non-coated perimeter portions surrounding each discrete shape (348, 342, 344) absorb moisture and therefore undergo a color change, becoming darker or deeper in color when compared to portions of the lower body garment that comprise the water-repellant coating.
A method for guiding a robotic garden tool to a predetermined position, wherein the robotic garden tool comprising a control unit and at least one sensor unit for wirelessly detecting guiding signals, the method comprises the steps of: detecting a first guiding signal from a first signal source; following the first guiding signal at a variable distance from the first signal source towards the predetermined position in response to a command from the control unit; detecting a second guiding signal from a second signal source, wherein the second guiding signal is detected within a predetermined distance from the predetermined position; and following one of the first and the second guiding signals ( 110 or 112) at a pre-configured distance from the corresponding signal source ( 106 or 108) towards the predetermined position. detecting a first guiding signal from a first signal source; following the first guiding signal at a variable distance from the first signal source towards the predetermined position in response to a command from the control unit; detecting a second guiding signal from a second signal source, wherein the second guiding signal is detected within a predetermined distance from the predetermined position; and following one of the first and the second guiding signals ( 110 or 112) at a pre-configured distance from the corresponding signal source ( 106 or 108) towards the predetermined position.