mhurhangee/ep-ind-claims huggingface dataset:
A blockchain event processing method, applied to a control component of distributed event processing centers coupled to a node device of a blockchain network, the distributed event processing centers obtaining respective blockchain event streams from the node device, and delivering the obtained respective blockchain event streams to respective triggers included in the distributed event processing centers, to push a blockchain event included in the blockchain event streams to a service system corresponding to a trigger of the triggers in response to the blockchain event meeting a trigger condition of the trigger, the method comprising: obtaining push speeds of a plurality of triggers included in an event processing center of the distributed event processing centers, wherein the plurality of triggers included in the event processing center share a same obtained blockchain event stream delivered by the event processing center within a predetermined duration during which the push speeds of the plurality of triggers are obtained; and in response to a difference among the push speeds of the plurality of triggers being greater than a predetermined first threshold, establishing a new event processing center, and moving, to the new event processing center, a trigger having a push speed that is different from a highest push speed of the push speeds by an amount greater than the first threshold or a trigger having a push speed that is different from a lowest push speed of the push speeds by an amount greater than the first threshold. obtaining push speeds of a plurality of triggers included in an event processing center of the distributed event processing centers, wherein the plurality of triggers included in the event processing center share a same obtained blockchain event stream delivered by the event processing center within a predetermined duration during which the push speeds of the plurality of triggers are obtained; and in response to a difference among the push speeds of the plurality of triggers being greater than a predetermined first threshold, establishing a new event processing center, and moving, to the new event processing center, a trigger having a push speed that is different from a highest push speed of the push speeds by an amount greater than the first threshold or a trigger having a push speed that is different from a lowest push speed of the push speeds by an amount greater than the first threshold.
A wire comprising: a core wire; an insulating coating that covers an outer periphery of a part of the core wire other than a distal end region; and a distal end seal part that is disposed separately from the insulating coating and seals a distal end part of the distal end region of the core wire, and wherein the core wire is exposed between the distal end seal part and the insulating coating, the distal end seal part comprises: a tubular distal end cover part that covers an outer periphery of the distal end part; and a welded part that is crushed in a cross direction crossing a longitudinal direction of the wire and is closed by welding; characterized in that a shape of a cross section, which is orthogonal to the longitudinal direction of the wire, of the welded part is a U-shape or a V-shape. a core wire; an insulating coating that covers an outer periphery of a part of the core wire other than a distal end region; and a distal end seal part that is disposed separately from the insulating coating and seals a distal end part of the distal end region of the core wire, and wherein the core wire is exposed between the distal end seal part and the insulating coating, the distal end seal part comprises: a tubular distal end cover part that covers an outer periphery of the distal end part; and a welded part that is crushed in a cross direction crossing a longitudinal direction of the wire and is closed by welding; characterized in that a shape of a cross section, which is orthogonal to the longitudinal direction of the wire, of the welded part is a U-shape or a V-shape. a tubular distal end cover part that covers an outer periphery of the distal end part; and a welded part that is crushed in a cross direction crossing a longitudinal direction of the wire and is closed by welding; characterized in that a shape of a cross section, which is orthogonal to the longitudinal direction of the wire, of the welded part is a U-shape or a V-shape.
An applicator comprising a feed opening and a dispensing opening which is opposite the feed opening and is intended for applying a sealing compound to a substrate, the applicator having a protruding blade for smoothing the applied sealing mass, the blade having an upper side and an underside, the underside being arranged adjacent to the dispensing opening and the blade having a right-hand blade portion and a left-hand blade portion opposite the right-hand blade portion, the right-hand blade portion and the left-hand blade portion protruding laterally and the blade further having a front blade portion protruding in the distal direction, characterized in that the blade portions (209, 210, 211) are beveled in such a way that the blade portions taper in a sectional view such that a right-hand outer edge is provided by the tip on the right-hand blade section, a left-hand outer edge is provided by the tip on the left-hand blade portion, and a front outer edge connecting the right-hand outer edge and the left-hand outer edge is provided by the tip on the front blade portion, the outer edges (220, 221, 218) being located in the plane of the underside and the dispensing opening being arranged spaced apart from the front outer edge and the applicator having a feed channel that leads into the dispensing opening, the feed channel extending substantially in parallel with the plane of the underside. the applicator having a protruding blade for smoothing the applied sealing mass, the blade having an upper side and an underside, the underside being arranged adjacent to the dispensing opening and the blade having a right-hand blade portion and a left-hand blade portion opposite the right-hand blade portion, the right-hand blade portion and the left-hand blade portion protruding laterally and the blade further having a front blade portion protruding in the distal direction, characterized in that the blade portions (209, 210, 211) are beveled in such a way that the blade portions taper in a sectional view such that a right-hand outer edge is provided by the tip on the right-hand blade section, a left-hand outer edge is provided by the tip on the left-hand blade portion, and a front outer edge connecting the right-hand outer edge and the left-hand outer edge is provided by the tip on the front blade portion, the outer edges (220, 221, 218) being located in the plane of the underside and the dispensing opening being arranged spaced apart from the front outer edge and the applicator having a feed channel that leads into the dispensing opening, the feed channel extending substantially in parallel with the plane of the underside.
A method for receiving hybrid automatic repeat request, HARQ, information that is applied to user equipment, the method comprising: receiving a scheduling signaling sent by a base station (201, 301), wherein the scheduling signaling bears a target time domain unit; monitoring a channel bearing the HARQ information on the target time domain unit; demodulating, on the basis of a HARQ network temporary identity notified by a base station, downlink control information borne by the channel in response to determining that the channel is monitored; and acquiring the HARQ information from a specified information field of the downlink control information, wherein the channel is a dedicated HARQ channel; and wherein before receiving the scheduling signaling sent by the base station (201, 30) the method further comprises: receiving a radio resource control, RRC, signaling, a media access control-control element, MAC CE, or a physical layer signaling sent by the base station, and determining a location set of the target time domain unit in the frequency domain based on the RRC signaling, the MAC CE, or the physical layer signaling (401, 501). receiving a scheduling signaling sent by a base station (201, 301), wherein the scheduling signaling bears a target time domain unit; monitoring a channel bearing the HARQ information on the target time domain unit; demodulating, on the basis of a HARQ network temporary identity notified by a base station, downlink control information borne by the channel in response to determining that the channel is monitored; and acquiring the HARQ information from a specified information field of the downlink control information, wherein the channel is a dedicated HARQ channel; and wherein before receiving the scheduling signaling sent by the base station (201, 30) the method further comprises: receiving a radio resource control, RRC, signaling, a media access control-control element, MAC CE, or a physical layer signaling sent by the base station, and determining a location set of the target time domain unit in the frequency domain based on the RRC signaling, the MAC CE, or the physical layer signaling (401, 501).
A semiconductor device (100, 200, 300) comprising: a first electrode (104, 204, 304); a cavity (112, 312) over the first electrode (104, 204, 304); and a second electrode including a suspended membrane over the cavity (112, 312), the second electrode further including electrically conductive anchor trenches (114, 314) laterally surrounding the cavity (112, 312), characterized in that the anchor trenches (114, 314) include an inner anchor trench and an outer anchor trench, the outer anchor trench having rounded corners (132, 134), - the inner anchor trench has rounded corners, and - the rounded corners of the outer anchor trench have a radius at least twice as large as a radius of the rounded corners of the inner anchor trench. a first electrode (104, 204, 304); a cavity (112, 312) over the first electrode (104, 204, 304); and a second electrode including a suspended membrane over the cavity (112, 312), the second electrode further including electrically conductive anchor trenches (114, 314) laterally surrounding the cavity (112, 312), characterized in that the anchor trenches (114, 314) include an inner anchor trench and an outer anchor trench, the outer anchor trench having rounded corners (132, 134), - the inner anchor trench has rounded corners, and - the rounded corners of the outer anchor trench have a radius at least twice as large as a radius of the rounded corners of the inner anchor trench. - the inner anchor trench has rounded corners, and - the rounded corners of the outer anchor trench have a radius at least twice as large as a radius of the rounded corners of the inner anchor trench.
Method for detecting an ingress of a short-wave radio signal in a power line communication system characterized by: determining a strength of a common-mode signal indicative of an external source or noise at a frequency of the power line communication system during a time period when no communication in the power line communication system at this frequency takes place; and detecting the ingress of the short-wave radio signal if the strength of the common-mode signal is above a predetermined threshold; determining a strength of at least one differential mode signal between phase line and neutral line, phase line and protective earth line, and neutral line and protective earth line at the frequency of the power line communication system during the time period when no communication in the power line communication system at this frequency takes place, wherein the detecting of the ingress is based on the strength of the at least one differential mode signal; wherein the detecting of the ingress is further based on a comparison of the differential mode and the common mode signals. determining a strength of a common-mode signal indicative of an external source or noise at a frequency of the power line communication system during a time period when no communication in the power line communication system at this frequency takes place; and detecting the ingress of the short-wave radio signal if the strength of the common-mode signal is above a predetermined threshold; determining a strength of at least one differential mode signal between phase line and neutral line, phase line and protective earth line, and neutral line and protective earth line at the frequency of the power line communication system during the time period when no communication in the power line communication system at this frequency takes place, wherein the detecting of the ingress is based on the strength of the at least one differential mode signal; wherein the detecting of the ingress is further based on a comparison of the differential mode and the common mode signals.
A method for generating a multi-dimensional image of a sample, comprising: capturing a plurality of first two-dimensional substrate images of a surface region of the sample with a first image capturing modality, wherein the first two-dimensional substrate image is a surface electron two-dimensional substrate image and locations of at least one material at the surface region are captured; capturing a plurality of second two-dimensional substrate images of the surface region with a second image capturing modality which is different from the first image capturing modality, wherein the second image capturing modality provides greater accuracy with respect to locations of at least one material at the surface region than the first image capturing modality; spatially aligning the plurality of first two-dimensional substrate images based on the second two-dimensional substrate images; generating a first corrected two-dimensional substrate image based at least in part on the locations of the at least one material in the second two-dimensional substrate image, wherein said generating comprises determining a porosity of the substrate based on the surface electron two-dimensional substrate image corrected for misidentified pore space by comparison to the second two-dimensional substrate image. capturing a plurality of first two-dimensional substrate images of a surface region of the sample with a first image capturing modality, wherein the first two-dimensional substrate image is a surface electron two-dimensional substrate image and locations of at least one material at the surface region are captured; capturing a plurality of second two-dimensional substrate images of the surface region with a second image capturing modality which is different from the first image capturing modality, wherein the second image capturing modality provides greater accuracy with respect to locations of at least one material at the surface region than the first image capturing modality; spatially aligning the plurality of first two-dimensional substrate images based on the second two-dimensional substrate images; generating a first corrected two-dimensional substrate image based at least in part on the locations of the at least one material in the second two-dimensional substrate image, wherein said generating comprises determining a porosity of the substrate based on the surface electron two-dimensional substrate image corrected for misidentified pore space by comparison to the second two-dimensional substrate image.
An axially oriented label facestock comprising a blend of an impact copolymer polypropylene and at least one other polymeric material, wherein the ICP is produced in a reaction by sequential copolymerization of propylene with elastomers, wherein the ICP contains 8 to 20 % elastomer.
A method for mounting a rear edge ridge onto a rotor blade of a wind turbine, wherein the rotor blade has a pressure and a suction side (26, 24) and an essentially straight trailing edge that corresponds to a rear edge of the rotor blade, comprising the steps of: - providing a tongue section projecting to the rear at the trailing edge to form one echelon each to the pressure side and to the suction side in the area of the tongue section; - fitting the rear edge ridge or part thereof onto the tongue section, so that it is flush with the suction side or pressure side, respectively, in the area of the echelon, wherein the tongue section is provided such that it has a length referred to as a recess and a thickness and a tongue edge, wherein the thickness decreases towards the tongue edge. - providing a tongue section projecting to the rear at the trailing edge to form one echelon each to the pressure side and to the suction side in the area of the tongue section; - fitting the rear edge ridge or part thereof onto the tongue section, so that it is flush with the suction side or pressure side, respectively, in the area of the echelon, wherein
An image processing method comprising the step of: acquiring a right eye image displayed to a right eye and a left eye image displayed to a left eye from an input image, performing an image enhancement processing by emphasizing or suppressing the spatial frequency band which is sensitive to a sharpness of vision for the input image to generate right and left eye enhancement images, wherein, the step of performing the image enhancement processing uses a band pass filter BPF to modify the luminance value Y(x, y) at the coordinate (x, y) of the input image as follows Yʹ x y = Y x y + k Y x y ⊗ BPF wherein ⊗ denotes the convolution operation and k is a factor which controls the amount of enhancement, wherein the difference between the value of k for controlling the amount of enhancement of the right eye image and the value of k for controlling the amount of enhancement of the left eye image is equal to or more than 0.1, wherein the band pass filter is a Difference-Of-Gaussian, DOG, filter indicated as follows, when C 1, C 2 are constants, σ 1 is a parameter which controls a rising edge of a low-frequency wave side, and σ 2 is a parameter which controls a cutoff of a high-frequency wave side, DOG x y = C 1 exp x 2 + y 2 2 πσ 1 2 − C 2 exp x 2 + y 2 2 πσ 2 2 acquiring a right eye image displayed to a right eye and a left eye image displayed to a left eye from an input image, performing an image enhancement processing by emphasizing or suppressing the spatial frequency band which is sensitive to a sharpness of vision for the input image to generate right and left eye enhancement images, wherein, the step of performing the image enhancement processing uses a band pass filter BPF to modify the luminance value Y(x, y) at the coordinate (x, y) of the input image as follows Yʹ x y = Y x y + k Y x y ⊗ BPF wherein ⊗ denotes the convolution operation and k is a factor which controls the amount of enhancement, wherein the difference between the value of k for controlling the amount of enhancement of the right eye image and the value of k for controlling the amount of enhancement of the left eye image is equal to or more than 0.1, wherein the band pass filter is a Difference-Of-Gaussian, DOG, filter indicated as follows, when C 1, C 2 are constants, σ 1 is a parameter which controls a rising edge of a low-frequency wave side, and σ 2 is a parameter which controls a cutoff of a high-frequency wave side, DOG x y = C 1 exp x 2 + y 2 2 πσ 1 2 − C 2 exp x 2 + y 2 2 πσ 2 2
A lighting element comprising at least one light source, at least two connections (4, 6) to supply electric current to the light source and a fixture to receive the light source wherein the light source comprises a heat-generating section and the fixture contacts this heat-generating section wherein the fixture consists of a thermally conductive plastic; characterized in that the fixture is configured such that it dissipates the heat generated by the light source at least in part in a preferred direction of heat conduction laterally outward and wherein the lighting element comprises a socket surrounding the fixture.
A buried object detector comprising: a loop antenna and an RF source, the RF source being coupled to the loop antenna and arranged to feed the loop antenna with an RF signal, wherein the RF source is a marginal oscillator, wherein the loop antenna and the marginal oscillator form a tuned resonant circuit; wherein the loop antenna is arranged to magnetically couple with a buried lossy object which reduces the quality factor of the tuned resonant circuit; characterised in that: the buried lossy object varies the size of oscillation of the marginal oscillator; the size of oscillation of the marginal oscillator is dependent on the quality factor of the tuned resonant circuit; and the detector further comprises a detector circuit, coupled to the loop antenna and arranged to detect changes in the size of the oscillation of the marginal oscillator. a loop antenna and an RF source, the RF source being coupled to the loop antenna and arranged to feed the loop antenna with an RF signal, wherein the RF source is a marginal oscillator, wherein the loop antenna and the marginal oscillator form a tuned resonant circuit; wherein the loop antenna is arranged to magnetically couple with a buried lossy object which reduces the quality factor of the tuned resonant circuit; characterised in that: the buried lossy object varies the size of oscillation of the marginal oscillator; the size of oscillation of the marginal oscillator is dependent on the quality factor of the tuned resonant circuit; and the detector further comprises a detector circuit, coupled to the loop antenna and arranged to detect changes in the size of the oscillation of the marginal oscillator. the buried lossy object varies the size of oscillation of the marginal oscillator; the size of oscillation of the marginal oscillator is dependent on the quality factor of the tuned resonant circuit; and the detector further comprises a detector circuit, coupled to the loop antenna and arranged to detect changes in the size of the oscillation of the marginal oscillator.