mhurhangee/ep-ind-claims huggingface dataset:
An information management apparatus capable of communicating with a plurality of work machines (1A, 1B, 1C) each including a working unit, the apparatus comprising: registration means configured to register work machines traveling in a predetermined region as the plurality of work machines (1A, 1B, 1C), receiving means configured to receive failure occurrence information indicating an occurrence of a failure in one work machine of the plurality of work machines (1A, 1B, 1C) in the predetermined region, from the one work machine; The information management apparatus characterized in that it further comprises transmission means configured to transmit recurrence prevention information based on the failure to other work machines (1A, 1B) of the plurality of work machines (1A, 1B, 1C) in the predetermined region; wherein the failure occurrence information further includes driving operation history information indicating history of a driving operation of the one work machine that has led to the occurrence of the failure, and wherein the recurrence prevention information includes information for restricting execution of some driving operations based on the driving operation history information. registration means configured to register work machines traveling in a predetermined region as the plurality of work machines (1A, 1B, 1C), receiving means configured to receive failure occurrence information indicating an occurrence of a failure in one work machine of the plurality of work machines (1A, 1B, 1C) in the predetermined region, from the one work machine; The information management apparatus characterized in that it further comprises transmission means configured to transmit recurrence prevention information based on the failure to other work machines (1A, 1B) of the plurality of work machines (1A, 1B, 1C) in the predetermined region; wherein the failure occurrence information further includes driving operation history information indicating history of a driving operation of the one work machine that has led to the occurrence of the failure, and
A ferritic stainless steel sheet for EGR coolers, consisting of, by mass%, C: 0.002% to 0.03%; N: 0.002% to 0.05%; P: 0.04% or less; S: 0.01% or less; Si: 0.1% to 1%; Mn: 0.02% to 2%; Cu: 0.2% to 1.5%; Cr: 15% to 25%; Nb: 8(C + N) % to 1%; Al: 0.5% or less; Ca: 0.0002% to 0.002% and Mg: 0.0002% to 0.002%; and optionally either one or both of Mo: 3% or less, and Ni: 3% or less at amounts fulfilling the following formula; optionally either one or both of V: 3% or less, and W: 5% or less; optionally B: 0.005% or less; and Fe and inevitable impurities as the balance, wherein the steel sheet further comprises, by mass%, Ti at an amount fulfilling the following formulae and, and Cr and Cu are included at amounts fulfilling the following formula, Ti - 3N ≤ 0.03 ··· 10(Ti - 3N) + Al ≤ 0.5 ··· Cr + 2.3Cu ≥ 18 ··· Cr + 1.9Mo + 1.6Ni + 2.3Cu ≥ 18 ···. C: 0.002% to 0.03%; N: 0.002% to 0.05%; P: 0.04% or less; S: 0.01% or less; Si: 0.1% to 1%; Mn: 0.02% to 2%; Cu: 0.2% to 1.5%; Cr: 15% to 25%; Nb: 8(C + N) % to 1%; Al: 0.5% or less; Ca: 0.0002% to 0.002% and Mg: 0.0002% to 0.002%; and optionally either one or both of Mo: 3% or less, and Ni: 3% or less at amounts fulfilling the following formula; optionally either one or both of V: 3% or less, and W: 5% or less; optionally B: 0.005% or less; and Fe and inevitable impurities as the balance, wherein the steel sheet further comprises, by mass%, Ti at an amount fulfilling the following formulae and, and Cr and Cu are included at amounts fulfilling the following formula, Ti - 3N ≤ 0.03 ··· 10(Ti - 3N) + Al ≤ 0.5 ··· Cr + 2.3Cu ≥ 18 ··· Cr + 1.9Mo + 1.6Ni + 2.3Cu ≥ 18 ···.
A luminaire comprising: a first support having an open first end; a first lens connected to the first support; a sheet connected to the first support between the first lens and the first support having a plurality of LEDs, wherein a first LED is positioned in a first direction and a second LED is positioned in a second direction different from said first direction; a top cover connected to the first support; and a driver positioned in the first support and electrically connected to the plurality of LEDs, wherein the luminaire includes: a second support having an open second end; a second lens connected to the second support; a joiner rail connected to the open first end of the first support and the open second end of the second support; a joiner bracket connected to the joiner rail; and an optical spacer connected to the joiner rail between the first and second lens (314A, 314B). a first support having an open first end; a first lens connected to the first support; a sheet connected to the first support between the first lens and the first support having a plurality of LEDs, wherein a first LED is positioned in a first direction and a second LED is positioned in a second direction different from said first direction; a top cover connected to the first support; and a driver positioned in the first support and electrically connected to the plurality of LEDs, wherein the luminaire includes: a second support having an open second end; a second lens connected to the second support; a joiner rail connected to the open first end of the first support and the open second end of the second support; a joiner bracket connected to the joiner rail; and an optical spacer connected to the joiner rail between the first and second lens (314A, 314B). a second support having an open second end; a second lens connected to the second support; a joiner rail connected to the open first end of the first support and the open second end of the second support; a joiner bracket connected to the joiner rail; and an optical spacer connected to the joiner rail between the first and second lens (314A, 314B).
Mixing pump comprising an air duct, referred to as a cool air duct, an air intake leading to the cool air duct, referred to as a hot air intake, and means for injecting air from the hot air intake into the cool air duct, wherein the hot air intake leads to a chamber arranged at least partially in the cool air duct, and wherein the injection means have at least one opening for connecting the interior of the chamber to the interior of the cool air duct as well as means for modifying the flow area through the at least one opening connecting the interior of the chamber to the interior of the cool air duct, said pump being characterised in that said chamber is preferably formed inside a tube traversing the cool air duct.
Instrument for bone resection, comprising supporting and positioning means for the correct alignment of said instrument with respect to the bone to be cut, a cutting guide, connected to said supporting and positioning means, said cutting guide comprising a support attachable to a bone to be cut, said cutting guide comprising a gauge block having a cutting surface and removably connected to said support said gauge block being configured to be connected to said support by quick connection means, characterised in that said quick connection means comprise a quick-release device comprising a spring-loaded button equipped with a press foot which is configured to act on a tab; said tab projecting from an anterior surface of the gauge block and configured to abut against an anterior surface of said support, wherein the action of the press foot on said tab causes the immediate release of said gauge block from said support.
Hybrid cord for use as a reinforcing element in a reinforcing layer, in particular of a belt bandage, of a pneumatic vehicle tyre comprising at least one high-modulus yarn and one low-modulus yarn that are twisted together at the ends, the accumulated fineness of all of the high-modulus yarns being greater than 2500 dtex, • the hybrid cord having with respect to the fineness of its yarn an asymmetric construction comprising precisely two yarns, • the hybrid cord having just one high-modulus yarn and just one low-modulus yarn, • the force that has to be respectively applied to a yarn for 1% elongation and for 2% elongation, normalized to the yarn fineness in tex and determined in accordance with ASTM D885, for a low-modulus yarn being less than 150 mN/tex for 1% elongation and less than 200 mN/tex for 2% elongation and for a high-modulus yarn being more than 300 mN/tex for 1% elongation and more than 500 mN/tex for 2% elongation, characterized in that • the high-modulus yarn has a fineness of greater than 2500 dtex and a highest value of 3360 dtex and the fineness of the high-modulus yarn being greater than the fineness of the low-modulus yarn by at least a factor of 6, particularly preferably by a factor of 7. • the hybrid cord having with respect to the fineness of its yarn an asymmetric construction comprising precisely two yarns, • the hybrid cord having just one high-modulus yarn and just one low-modulus yarn, • the force that has to be respectively applied to a yarn for 1% elongation and for 2% elongation, normalized to the yarn fineness in tex and determined in accordance with ASTM D885, for a low-modulus yarn being less than 150 mN/tex for 1% elongation and less than 200 mN/tex for 2% elongation and for a high-modulus yarn being more than 300 mN/tex for 1% elongation and more than 500 mN/tex for 2% elongation, • the high-modulus yarn has a fineness of greater than 2500 dtex and a highest value of 3360 dtex and
A cryogenic energy storage system, comprising: a thermal energy recycle system, comprising: a main air compressor; a recycle air compressor; a second thermal energy storage device; a first thermal energy storage device; a working fluid; and a plurality of expansion stages, comprising a first subset of expansion stages comprising a first expansion stage (61, 610, 6200, 61000), a second expansion stage (62, 620, 6300, 62000), a first heat exchanger (81, 810, 8200, 81000) and a second heat exchanger (82, 820, 8300, 82000) and a second subset of expansion stages comprising a fourth expansion stage (64, 640, 6100, 64000) and a fourth heat exchanger (84, 840, 8100, 85000); wherein the system is configured to capture at least a portion of the heat of compression produced by the main air compressor and store it in the second thermal energy storage device during a liquefaction phase, and to apply the heat of compression stored in the second thermal energy storage device to the working fluid upstream of each of the second subset of expansion stages during a power recovery phase, and wherein the system is further configured to capture at least a portion of the heat of compression produced by the recycle air compressor and store it in the first thermal energy storage device during a liquefaction phase, and to apply the heat of compression stored in the first thermal energy storage device to the working fluid upstream of each of the first subset of expansion stages during a power recovery phase. a main air compressor; a recycle air compressor; a second thermal energy storage device; a first thermal energy storage device; a working fluid; and a plurality of expansion stages, comprising a first subset of expansion stages comprising a first expansion stage (61, 610, 6200, 61000), a second expansion stage (62, 620, 6300, 62000), a first heat exchanger (81, 810, 8200, 81000) and a second heat exchanger (82, 820, 8300, 82000) and a second subset of expansion stages comprising a fourth expansion stage (64, 640, 6100, 64000) and a fourth heat exchanger (84, 840, 8100, 85000); wherein the system is configured to capture at least a portion of the heat of compression produced by the main air compressor and store it in the second thermal energy storage device during a liquefaction phase, and to apply the heat of compression stored in the second thermal energy storage device to the working fluid upstream of each of the second subset of expansion stages during a power recovery phase, and wherein the system is further configured to capture at least a portion of the heat of compression produced by the recycle air compressor and store it in the first thermal energy storage device during a liquefaction phase, and to apply the heat of compression stored in the first thermal energy storage device to the working fluid upstream of each of the first subset of expansion stages during a power recovery phase.
A site-specific integration host cell comprising an endogenous Fer1L4 gene, wherein an exogenous nucleotide sequence is integrated in said Fer1L4 gene and wherein the exogenous nucleotide sequence comprises at least two recombination target sites.
A transformer comprising a core and at least one winding (204, 604, 704, 1704) wound around a winding axis extending along a limb of the core, said winding (204, 604, 704, 1704) terminating in an axial end surface (207, 607, 707) extending in a direction perpendicular to said winding axis, said transformer comprising a ring (205, 611, 705, 1705) comprising magnetic material, said ring (205, 611, 705, 1705) being located outside said winding (204, 604, 704, 1704) and adjacent to said axial end surface (207, 607, 707), wherein a projection of said ring (205, 611, 705, 1705), along said winding axis, onto said winding (204, 604, 704, 1704), covers at least a part of, preferably all of, said axial end surface (207, 607, 707), wherein the core comprises a yoke, said yoke extending radially across the ring (205, 611, 705, 1705), at one or more crossing locations, from a radial inside of the ring (205, 611, 705, 1705) to a radial outside of the ring (205, 611, 705, 1705), wherein said ring (205, 611, 705, 1705, 330, 530) comprises a set of magnetic metal components (331, 533, 534, 1533), such as magnetic metal sheets, said magnetic metal components (331, 533, 534, 1533) being distributed about the winding axis and electrically insulated from each other, characterised in that heights along the winding axis of respective ones of the magnetic metal components (331, 533, 534, 1533) vary about the winding axis such that said magnetic metal components (331, 533, 534, 1533) at the one or more crossing locations have lower height along the winding axis than the heights (h2, h3) of said magnetic metal components further away from the one or more crossing locations.
Method for fastening at least two workpieces (1, 2) together by a punch rivet wherein at least one workpiece is a metallic workpiece and wherein at least one metallic workpiece is heated electrically by being contacted with electrodes to an elevated temperature for setting the punch rivet, wherein the at least one workpiece is a lower workpiece, wherein said lower workpiece is placed on the die, the method being characterized in that only said lower workpiece is heated.
Method for managing a tyre checking apparatus, said apparatus comprising: an optical structure for said checking, said optical structure comprising at least one first optical tool; a first member adapted to move said first optical tool, wherein said tyre checking comprises at least a first sequence of checks executed on a first tyre in a first duration, followed by a second sequence of checks executed on a second tyre in a second duration, wherein said method comprises: executing, through said optical structure, a first check on said first tyre; executing, through said optical structure, a second check on said first or second tyre; wherein said first check and said second check are separated by a time interval shorter than or equal to the sum of said first duration and second duration; wherein said first optical tool is not used for tyre checking during said time interval; wherein said method comprises verifying said first optical tool during said time interval. an optical structure for said checking, said optical structure comprising at least one first optical tool; a first member adapted to move said first optical tool, wherein said tyre checking comprises at least a first sequence of checks executed on a first tyre in a first duration, followed by a second sequence of checks executed on a second tyre in a second duration, wherein said method comprises: executing, through said optical structure, a first check on said first tyre; executing, through said optical structure, a second check on said first or second tyre; wherein said first check and said second check are separated by a time interval shorter than or equal to the sum of said first duration and second duration; wherein said first optical tool is not used for tyre checking during said time interval; wherein said method comprises verifying said first optical tool during said time interval. executing, through said optical structure, a first check on said first tyre; executing, through said optical structure, a second check on said first or second tyre; wherein said first check and said second check are separated by a time interval shorter than or equal to the sum of said first duration and second duration; wherein said first optical tool is not used for tyre checking during said time interval; wherein said method comprises verifying said first optical tool during said time interval.
Flushing system comprising a cistern for receiving flushing water, a filling valve by means of which the cistern can be filled with flushing water, a flushing valve with which a sanitary article in fluid communication with the cistern, such as a toilet bowl or a urinal, can be flushed, and an overflow protection float with which the flushing valve can be controlled, wherein the overflow protection float is arranged in such a way that, in the event of a malfunction of the filling valve in which the filling valve remains open in an uncontrolled manner and flushing water flows into the cistern in an uncontrolled manner, the flushing valve can be opened when an upper fill level is reached, whereby flushing water flows out of the cistern via the flushing valve to the sanitary article, characterized in that the flushing valve has an inlet which can be connected to a building-side pipe network in such a way that the flushing valve is supplied with flushing water under line pressure, wherein the flushing valve is connected to a first section of a flushing line with a jet pump, the jet pump having a Venturi nozzle with a suction opening open towards the cistern, it being possible, when the flushing valve is open, for water under line pressure to be fed into the Venturi nozzle in such a way that water can be fed from the cistern via the Venturi nozzle through the suction opening into a second section of the flushing line leading to the sanitary article. a cistern for receiving flushing water, a filling valve by means of which the cistern can be filled with flushing water, a flushing valve with which a sanitary article in fluid communication with the cistern, such as a toilet bowl or a urinal, can be flushed, and an overflow protection float with which the flushing valve can be controlled, wherein the overflow protection float is arranged in such a way that, in the event of a malfunction of the filling valve in which the filling valve remains open in an uncontrolled manner and flushing water flows into the cistern in an uncontrolled manner, the flushing valve can be opened when an upper fill level is reached, whereby flushing water flows out of the cistern via the flushing valve to the sanitary article, characterized in that the flushing valve has an inlet which can be connected to a building-side pipe network in such a way that the flushing valve is supplied with flushing water under line pressure, wherein the flushing valve is connected to a first section of a flushing line with a jet pump, the jet pump having a Venturi nozzle with a suction opening open towards the cistern, it being possible, when the flushing valve is open, for water under line pressure to be fed into the Venturi nozzle in such a way that water can be fed from the cistern via the Venturi nozzle through the suction opening into a second section of the flushing line leading to the sanitary article.
A method for processing a silicon substrate comprising: providing a combination of a first silicon substrate, a second silicon substrate, and an intermediate layer including a plurality of recessed portions, which is provided between the first silicon substrate and the second silicon substrate; forming a first through hole that goes through the first silicon substrate by executing etching of the first silicon substrate on a surface of the first silicon substrate opposite to a bonding surface with the intermediate layer by using a first mask, and exposing a portion of the intermediate layer corresponding to the plurality of recessed portions of the intermediate layer; forming a plurality of openings on the intermediate layer by removing a portion constituting a bottom of the plurality of recessed portions; and forming a second through hole that goes through the second silicon substrate by executing second etching of the second silicon substrate by using the intermediate layer on which the plurality of openings are formed as a mask. providing a combination of a first silicon substrate, a second silicon substrate, and an intermediate layer including a plurality of recessed portions, which is provided between the first silicon substrate and the second silicon substrate; forming a first through hole that goes through the first silicon substrate by executing etching of the first silicon substrate on a surface of the first silicon substrate opposite to a bonding surface with the intermediate layer by using a first mask, and exposing a portion of the intermediate layer corresponding to the plurality of recessed portions of the intermediate layer; forming a plurality of openings on the intermediate layer by removing a portion constituting a bottom of the plurality of recessed portions; and forming a second through hole that goes through the second silicon substrate by executing second etching of the second silicon substrate by using the intermediate layer on which the plurality of openings are formed as a mask.
An organic electronic device, comprising: a substrate; an organic electronic diode formed on the substrate; and an encapsulation film comprising an encapsulating layer which comprises an encapsulating resin and a moisture adsorbent material at 5 to 50 parts by weight relative to 100 parts by weight of the encapsulating resin and which encapsulates an entire surface of the organic electronic diode, and a metal layer formed on the encapsulating layer, of which a dimension tolerance (d) between the metal layer and the encapsulating layer of the encapsulation film satisfies Equation 1: d ≤ 200 μm wherein d is a difference in distance between an outermost side surface of the metal layer and an outermost side surface of the encapsulating layer corresponding to the above outermost side surface of the metal layer, the encapsulating layer having a tensile modulus of 0.001 to 500 MPa at room temperature. a substrate; an organic electronic diode formed on the substrate; and an encapsulation film comprising an encapsulating layer which comprises an encapsulating resin and a moisture adsorbent material at 5 to 50 parts by weight relative to 100 parts by weight of the encapsulating resin and which encapsulates an entire surface of the organic electronic diode, and a metal layer formed on the encapsulating layer, of which a dimension tolerance (d) between the metal layer and the encapsulating layer of the encapsulation film satisfies Equation 1: d ≤ 200 μm wherein d is a difference in distance between an outermost side surface of the metal layer and an outermost side surface of the encapsulating layer corresponding to the above outermost side surface of the metal layer, the encapsulating layer having a tensile modulus of 0.001 to 500 MPa at room temperature.