mhurhangee/ep-ind-claims huggingface dataset:
An electronic component mounting structure comprising: a board including a plurality of lands; and an electronic component mounted on a surface of the board, the electronic component including a body and a plurality of terminals (132, 133) extending from the body, each of the plurality of terminals (132, 133) being electrically connected to a corresponding one of the plurality of lands of the board, wherein the plurality of terminals (132, 133) include a first terminal that has a first terminal portion extending along the surface of the board and a second terminal portion extending toward the surface of the board, and the plurality of lands include a first land that has a land portion electrically soldered to the first terminal portion of the first terminal and a blind hole for receiving the second terminal portion of the first terminal, the blind hole having an opening on the surface of the board, a bottom wall inside the board, and a side wall (111 c) defined by the opening and the bottom wall, the body of the electronic component has a length direction along the surface of the board, the plurality of terminals (132, 133) are arranged in the length direction, and the plurality of lands are arranged in the length direction, characterized in that the first land arranged on end side in the length direction has the blind hole with a first opening width, the first land arranged on middle side in the length direction has the blind hole with a second opening width, and the first opening width is greater than the second opening width. a board including a plurality of lands; and an electronic component mounted on a surface of the board, the electronic component including a body and a plurality of terminals (132, 133) extending from the body, each of the plurality of terminals (132, 133) being electrically connected to a corresponding one of the plurality of lands of the board, wherein the plurality of terminals (132, 133) include a first terminal that has a first terminal portion extending along the surface of the board and a second terminal portion extending toward the surface of the board, and the plurality of lands include a first land that has a land portion electrically soldered to the first terminal portion of the first terminal and a blind hole for receiving the second terminal portion of the first terminal, the blind hole having an opening on the surface of the board, a bottom wall inside the board, and a side wall (111 c) defined by the opening and the bottom wall, the body of the electronic component has a length direction along the surface of the board, the plurality of terminals (132, 133) are arranged in the length direction, and the plurality of lands are arranged in the length direction, characterized in that the first land arranged on end side in the length direction has the blind hole with a first opening width, the first land arranged on middle side in the length direction has the blind hole with a second opening width, and the first opening width is greater than the second opening width.
A method of controlling the routing of data packets in an IP network, comprising the following steps performed by a DNS system: - storing a packet admission policy in the DNS system configured for an associated first end-host, said policy dictating conditions for allowing other end-hosts to get across data packets to the first end-host or not, - defining a routing voucher for the first end-host corresponding to the packet admission policy, the routing voucher or a representation thereof being required in data packets directed to the first end-host for routing said data packets towards the first end-host, - distributing said routing voucher or voucher representation to at least one router in the IP network, - receiving an address query for the first end-host from a second end-host, - supplying the routing voucher or representation thereof to the second end-host if the packet admission policy allows the second end-host to convey data packets to the first end-host, wherein the second end-host is able to add the routing voucher or voucher representation to any data packets directed to the first end-host for admission through the IP network, and - refraining from supplying the routing voucher or voucher representation to the second end-host if the packet admission policy does not allow the second end-host to convey data packets to the first end-host. - storing a packet admission policy in the DNS system configured for an associated first end-host, said policy dictating conditions for allowing other end-hosts to get across data packets to the first end-host or not, - defining a routing voucher for the first end-host corresponding to the packet admission policy, the routing voucher or a representation thereof being required in data packets directed to the first end-host for routing said data packets towards the first end-host, - distributing said routing voucher or voucher representation to at least one router in the IP network, - receiving an address query for the first end-host from a second end-host, - supplying the routing voucher or representation thereof to the second end-host if the packet admission policy allows the second end-host to convey data packets to the first end-host, wherein the second end-host is able to add the routing voucher or voucher representation to any data packets directed to the first end-host for admission through the IP network, and - refraining from supplying the routing voucher or voucher representation to the second end-host if the packet admission policy does not allow the second end-host to convey data packets to the first end-host.
Knife element for a working element of a fiber-processing machine, the working element having a working width and a working direction which runs transversely to the working width, the knife element having a plurality of knife blades which point counter to the working direction and a plurality of ejection openings, each ejection opening being assigned to a knife blade and the ejection openings having a length in the direction of the working width and a width in the working direction, and the knife element being formed from a metal sheet, the ejection openings in the metal sheet being in the form of through-openings and the knife blades being formed by edges of the through-openings, characterized in that the ejection openings have a ratio of length to width of less than 20 to 1.
A metal powder for powder metallurgy, comprising: Cr in a proportion of 11.0 mass% or more and 25.0 mass% or less; Ni in a proportion of 8.0 mass% or more and 30.0 mass% or less; Si in a proportion of 0.20 mass% or more and 1.2 mass% or less; C in a proportion of 0.070 mass% or more and 0.40 mass% or less; Mn in a proportion of 0.10 mass% or more and 2.0 mass% or less; P in a proportion of 0.10 mass% or more and 0.50 mass% or less; at least one of W and Nb in a proportion of 0.20 mass% or more and 3.0 mass% or less in total; optionally V in a proportion of 3.0 mass% or less; optionally Mo in a proportion of 3.0 mass% or less; optionally Cu in a proportion of 7.0 mass% or less; optionally Al in a proportion of 4.0 mass% or less; optionally Ti in a proportion of 4.5 mass% or less; optionally N in a proportion of 1.0 mass% or less; optionally B in a proportion of 0.20 mass% or less; optionally H, Be, S, Co, As, Sn, Se, Zr, Y, Hf, Ta, Te, Pb, wherein the content of each of these elements is less than 0.10 mass% and the total content of these elements is less than 0.20 mass%; and optionally O in a proportion of 0.80 mass% or less; the remainder being Fe as a principal component and inevitable impurities, wherein the inevitable impurities may include Li, Na, Mg, K, Ca, Sc, Zn, Ga, Ge, Ag, In, Sb, Pd, Os, Ir, Pt, Au, and Bi, wherein the content of each of these elements is less than 0.030 mass% and the total content of these elements is less than 0.30 mass%. Cr in a proportion of 11.0 mass% or more and 25.0 mass% or less; Ni in a proportion of 8.0 mass% or more and 30.0 mass% or less; Si in a proportion of 0.20 mass% or more and 1.2 mass% or less; C in a proportion of 0.070 mass% or more and 0.40 mass% or less; Mn in a proportion of 0.10 mass% or more and 2.0 mass% or less; P in a proportion of 0.10 mass% or more and 0.50 mass% or less; at least one of W and Nb in a proportion of 0.20 mass% or more and 3.0 mass% or less in total; optionally V in a proportion of 3.0 mass% or less; optionally Mo in a proportion of 3.0 mass% or less; optionally Cu in a proportion of 7.0 mass% or less; optionally Al in a proportion of 4.0 mass% or less; optionally Ti in a proportion of 4.5 mass% or less; optionally N in a proportion of 1.0 mass% or less; optionally B in a proportion of 0.20 mass% or less; optionally H, Be, S, Co, As, Sn, Se, Zr, Y, Hf, Ta, Te, Pb, wherein the content of each of these elements is less than 0.10 mass% and the total content of these elements is less than 0.20 mass%; and optionally O in a proportion of 0.80 mass% or less; the remainder being Fe as a principal component and inevitable impurities, wherein the inevitable impurities may include Li, Na, Mg, K, Ca, Sc, Zn, Ga, Ge, Ag, In, Sb, Pd, Os, Ir, Pt, Au, and Bi, wherein the content of each of these elements is less than 0.030 mass% and the total content of these elements is less than 0.30 mass%.
A processing system for processing an object by processing light, the processing system comprising: a movable member, a relative positional relationship between the movable member and a part of the object being changeable; and an irradiation apparatus that irradiates the object with the processing light; the processing system being characterised by a connecting apparatus that connects the movable member and the irradiation apparatus so that a relative positional relationship between the movable member and the irradiation apparatus is changeable, the connecting apparatus comprising: a driving member that moves at least one of the movable member and the irradiation apparatus; and an elastic member (1223, 1224) that couples the movable member with the irradiation apparatus. a movable member, a relative positional relationship between the movable member and a part of the object being changeable; and an irradiation apparatus that irradiates the object with the processing light; the processing system being characterised by a connecting apparatus that connects the movable member and the irradiation apparatus so that a relative positional relationship between the movable member and the irradiation apparatus is changeable, the connecting apparatus comprising: a driving member that moves at least one of the movable member and the irradiation apparatus; and an elastic member (1223, 1224) that couples the movable member with the irradiation apparatus.
An image compositing device that generates a composite image using a first image and a second image having different exposure conditions, the image compositing device comprising: an input unit that inputs the first image and the second image; a likelihood calculating unit that calculates a first subject motion likelihood at each pixel based on a difference between the first image and the second image before estimating an exposure transform function for conforming the exposure conditions of the first image and the second image to each other; an exposure estimating unit that estimates the exposure transform function based on the first subject motion likelihood; and a compositing unit that calculates a second subject motion likelihood at each pixel based on a difference between the first image and the second image and composites the first image and the second image by using the second subject motion likelihood and the exposure transform function, characterized in that the likelihood calculating unit uses a plurality of first processed images obtained by respectively intergrading resolutions of the first image and a plurality of second processed images obtained by respectively intergrading resolutions of the second image for calculating a difference of each pixel for each resolution, and calculates the subject motion likelihood at each pixel by weighting the difference obtained for each resolution, wherein the count of pairs having differences in their local ternary patterns above a given threshold is used. an input unit that inputs the first image and the second image; a likelihood calculating unit that calculates a first subject motion likelihood at each pixel based on a difference between the first image and the second image before estimating an exposure transform function for conforming the exposure conditions of the first image and the second image to each other; an exposure estimating unit that estimates the exposure transform function based on the first subject motion likelihood; and a compositing unit that calculates a second subject motion likelihood at each pixel based on a difference between the first image and the second image and composites the first image and the second image by using the second subject motion likelihood and the exposure transform function, characterized in that the likelihood calculating unit uses a plurality of first processed images obtained by respectively intergrading resolutions of the first image and a plurality of second processed images obtained by respectively intergrading resolutions of the second image for calculating a difference of each pixel for each resolution, and calculates the subject motion likelihood at each pixel by weighting the difference obtained for each resolution, wherein the count of pairs having differences in their local ternary patterns above a given threshold is used.
Device for the vibration isolation of buildings, machines or their components, - which has a rotationally symmetrical unwinding body (5, 8) with an axis of symmetry that is perpendicular to the unwinding surface and that is located between an upper bearing shell and a lower bearing shell, - wherein the bearing shells (6, 7) are flat or rounded, - wherein the upper bearing shell and/or the lower bearing shell is vertically spring-mounted and each is mounted horizontally in a non-displaceable manner, characterised in that - the unwinding body has a lenticular shape or corresponds to the central part of a lenticular body, the unwinding surfaces of the unwinding body being formed with a radius (r) that is greater than half the height (h) of the unwinding body and - the vertical suspension (11, 13, 14, 16) of the lower bearing shell and/or of the upper bearing shell has a non-linear S-shaped profile. - which has a rotationally symmetrical unwinding body (5, 8) with an axis of symmetry that is perpendicular to the unwinding surface and that is located between an upper bearing shell and a lower bearing shell, - wherein the bearing shells (6, 7) are flat or rounded, - wherein the upper bearing shell and/or the lower bearing shell is vertically spring-mounted and each is mounted horizontally in a non-displaceable manner, characterised in that - the unwinding body has a lenticular shape or corresponds to the central part of a lenticular body, the unwinding surfaces of the unwinding body being formed with a radius (r) that is greater than half the height (h) of the unwinding body and - the vertical suspension (11, 13, 14, 16) of the lower bearing shell and/or of the upper bearing shell has a non-linear S-shaped profile.
An electrical submersible pump system, comprising: an electrical submersible pump comprising an electric motor; drive circuitry electrically coupled to the ESP and configured to provide an electrical signal to power the ESP; a current sensor configured to measure a current of the electrical signal; a voltage sensor configured to measure a voltage of the electrical signal; and a processor configured to: calculate speed of a shaft of the electric motor based on a frequency induced by rotation of the electric motor detected in the current; calculate a density of a fluid in the ESP based on the speed; the electrical submersible pump being characterized in that the processor is further configured to reduce the speed of the electric motor responsive to the density being lower than a predetermined threshold value. an electrical submersible pump comprising an electric motor; drive circuitry electrically coupled to the ESP and configured to provide an electrical signal to power the ESP; a current sensor configured to measure a current of the electrical signal; a voltage sensor configured to measure a voltage of the electrical signal; and a processor configured to: calculate speed of a shaft of the electric motor based on a frequency induced by rotation of the electric motor detected in the current; calculate a density of a fluid in the ESP based on the speed; the electrical submersible pump being characterized in that the processor is further configured to reduce the speed of the electric motor responsive to the density being lower than a predetermined threshold value. calculate speed of a shaft of the electric motor based on a frequency induced by rotation of the electric motor detected in the current; calculate a density of a fluid in the ESP based on the speed; the electrical submersible pump being characterized in that the processor is further configured to reduce the speed of the electric motor responsive to the density being lower than a predetermined threshold value.
An optical apparatus (700, 800) comprising: an input port configured to receive an optical signal comprising a plurality of wavelengths; a plurality of output ports, wherein each output port is configured to output a respective wavelength of the plurality of wavelengths; and a first plurality of two-mode Bragg gratings in a cascaded arrangement, wherein each grating of the first plurality of two-mode Bragg gratings is configured to: reflect a respective wavelength of the plurality of wavelengths toward a respective output port of the plurality of output ports; and transmit any remaining wavelengths of the plurality of wavelengths, the optical apparatus further comprising: a second plurality of two-mode Bragg gratings, wherein each grating of the second plurality of two-mode Bragg gratings is configured to: receive the respective wavelength reflected by a respective grating of the first plurality of two-mode Bragg gratings; and reflect the respective wavelength toward the respective output port of the plurality of output ports. an input port configured to receive an optical signal comprising a plurality of wavelengths; a plurality of output ports, wherein each output port is configured to output a respective wavelength of the plurality of wavelengths; and a first plurality of two-mode Bragg gratings in a cascaded arrangement, wherein each grating of the first plurality of two-mode Bragg gratings is configured to: reflect a respective wavelength of the plurality of wavelengths toward a respective output port of the plurality of output ports; and transmit any remaining wavelengths of the plurality of wavelengths, reflect a respective wavelength of the plurality of wavelengths toward a respective output port of the plurality of output ports; and transmit any remaining wavelengths of the plurality of wavelengths, the optical apparatus further comprising: a second plurality of two-mode Bragg gratings, wherein each grating of the second plurality of two-mode Bragg gratings is configured to: receive the respective wavelength reflected by a respective grating of the first plurality of two-mode Bragg gratings; and reflect the respective wavelength toward the respective output port of the plurality of output ports. receive the respective wavelength reflected by a respective grating of the first plurality of two-mode Bragg gratings; and reflect the respective wavelength toward the respective output port of the plurality of output ports.
A method comprising: infiltrating a porous preform with a slurry to form an infiltrated-preform, wherein the slurry comprises a plurality of solid particles, and wherein the plurality of solid particles comprise a plurality of fine ceramic particles defining an average fine particle diameter, a plurality of coarse ceramic particles defining an average coarse particle diameter, and a plurality of diamond particles, wherein the average fine particle diameter is less than the average coarse particle diameter, wherein the plurality of solid particles comprise between about 1 percent by volume (vol.%) and about 10 vol.% of the plurality of diamond particles, between about 40 percent by volume (vol.%) and about 59 vol.% of the plurality of fine ceramic particles, and between about 40 percent by volume (vol.%) and about 50 vol.% of the plurality of coarse ceramic particles; and infiltrating the infiltrated-preform with a molten metal infiltrant to form a ceramic matrix composite article. infiltrating a porous preform with a slurry to form an infiltrated-preform, wherein the slurry comprises a plurality of solid particles, and wherein the plurality of solid particles comprise a plurality of fine ceramic particles defining an average fine particle diameter, a plurality of coarse ceramic particles defining an average coarse particle diameter, and a plurality of diamond particles, wherein the average fine particle diameter is less than the average coarse particle diameter, wherein the plurality of solid particles comprise between about 1 percent by volume (vol.%) and about 10 vol.% of the plurality of diamond particles, between about 40 percent by volume (vol.%) and about 59 vol.% of the plurality of fine ceramic particles, and between about 40 percent by volume (vol.%) and about 50 vol.% of the plurality of coarse ceramic particles; and infiltrating the infiltrated-preform with a molten metal infiltrant to form a ceramic matrix composite article.
Method for adjusting the cutting gap in a slicing device for cutting food products, wherein the slicing device has a rotationally driven cutting blade, a cutting edge and an adjusting device which moves the cutting blade towards the cutting edge or away from the cutting edge perpendicularly to the cutting edge, characterized in that the cutting blade or the cutting edge is connected to an electrical voltage source and the cutting blade and the cutting edge are moved towards each other until an increase in electric current and/or a reduction in electrical resistance is measured.
A method including: receiving a request to process a set of data using a data processing application; responsive to the received request and based on a feature associated with the set of data, selecting (408, 410) a mode for the data processing application, including selecting between (i) a first mode in which one or more running processes of the data processing application are used to process the set of data when the size of the set of data is equal to or less than a threshold size and (ii) a second mode in which one or more new processes of the data processing application are started up when the size of the set of data exceeds the threshold size, wherein the threshold size is based on one or more of a format of the set of data, a processing requirement associated with the set of data, or historical data indicative of the operation of the data processing application; and causing the data processing application to be executed according to the selected mode to process the set of data. receiving a request to process a set of data using a data processing application; responsive to the received request and based on a feature associated with the set of data, selecting (408, 410) a mode for the data processing application, including selecting between (i) a first mode in which one or more running processes of the data processing application are used to process the set of data when the size of the set of data is equal to or less than a threshold size and (ii) a second mode in which one or more new processes of the data processing application are started up when the size of the set of data exceeds the threshold size, wherein the threshold size is based on one or more of a format of the set of data, a processing requirement associated with the set of data, or historical data indicative of the operation of the data processing application; and causing the data processing application to be executed according to the selected mode to process the set of data.