mhurhangee/ep-ind-claims huggingface dataset:
A friction assembly comprising a dry-running disc pack with at least one lining disc and at least one counter disc, which are arranged one behind the other in an alternating manner in an axial direction of the disc pack, and which can be brought into frictional contact with one another, wherein the lining disc has at least one dry-running friction lining, which is a mass-pressed friction lining, and which has a porosity which is greater than 10%, characterized in that the counter disc consists of steel or an iron-based alloy, and that a surface of the counter disc is structured and/or provided with a coating and/or that the counter disc has a plurality of openings in the disc body.
An analytics function comprising: a network interface arranged to communicate with a plurality of network functions in a mobile communication network; and a processor arranged to: receive a request from a first network function to provide performance analytics for a first application, wherein the request includes a location of a remote unit and a requested time, wherein the first application comprises a group of server application instances; generate performance analytics for the first application by using a first collection of performance data, wherein the performance analytics indicate a best server application instance in the group of server application instances for the location of the remote unit and the requested time; and report the performance analytics to the first network function. a network interface arranged to communicate with a plurality of network functions in a mobile communication network; and a processor arranged to: receive a request from a first network function to provide performance analytics for a first application, wherein the request includes a location of a remote unit and a requested time, wherein the first application comprises a group of server application instances; generate performance analytics for the first application by using a first collection of performance data, wherein the performance analytics indicate a best server application instance in the group of server application instances for the location of the remote unit and the requested time; and report the performance analytics to the first network function. receive a request from a first network function to provide performance analytics for a first application, wherein the request includes a location of a remote unit and a requested time, wherein the first application comprises a group of server application instances; generate performance analytics for the first application by using a first collection of performance data, wherein the performance analytics indicate a best server application instance in the group of server application instances for the location of the remote unit and the requested time; and report the performance analytics to the first network function.
A device for rotating a rotor of a wind power generator, comprising at least two rotating units, each of the rotating units comprising: a telescopic cylinder; a mounting base configured to connect a fixed end of the telescopic cylinder to a stand of the wind power generator, and detachably connected to the stand, and the mounting base comprising a body; and a pin arranged at a movable end of the telescopic cylinder, configured to be releasably fixed to the rotor, and configured to drive the rotor to rotate relative to the stand by a stroke movement of the telescopic cylinder; and characterized in that the bodies of the mounting bases of the at least two rotating units are connected to form an annular base, and the annular base has an opening facing the stand; and the annular base has a radian ranging from 170 to 220 degrees. a telescopic cylinder; a mounting base configured to connect a fixed end of the telescopic cylinder to a stand of the wind power generator, and detachably connected to the stand, and the mounting base comprising a body; and a pin arranged at a movable end of the telescopic cylinder, configured to be releasably fixed to the rotor, and configured to drive the rotor to rotate relative to the stand by a stroke movement of the telescopic cylinder; and characterized in that the bodies of the mounting bases of the at least two rotating units are connected to form an annular base, and the annular base has an opening facing the stand; and the annular base has a radian ranging from 170 to 220 degrees.
Constant pressure storage unit comprising at least one constant pressure store (A, B, C, D), which is separated by a displaceable separating piston (11A, 11B, 11C, 11D) into two regions, at least one liquid pump for delivering a liquid and at least one liquid store, characterized in that, on the side on which the region intended for a liquid is provided, the constant pressure stores or store (A, B, C, D) are or is in connection with at least one safety vessel, which is divided by a movable separating piston into two regions, of which one region is in connection with the at least one constant pressure store (A, B, C, D) and the liquid pump and the other region contains a buffer fluid and in that a pressure sensor is in connection with this region of the safety vessel and the liquid pump in such a way that a compression of the buffer fluid is detected by the pressure sensor and the liquid pump is stopped.
Method for driving machines, for example process compressors (7, 7'), in an ethylene plant steam generation circuit (1, 1), the method including the steps of: - recovering heat as high pressure steam from a cracking furnace; - providing said high pressure steam to at least one steam turbine, wherein the steam turbine is configured to drive a machine, such as a process compressor (7, 7'); - condensing at least part of the high pressure steam in a condenser; - pumping condensed steam as boiler feed water b ack to the cracking furnace; wherein the method also includes the step of: - recovering heat as high pressure steam from a waste heat recovery boiler of a power plant circuit (2, 2'); - providing at least part of the high pressure steam from the power plant circuit to the at least one steam turbine of the ethylene plant steam generation circuit'(1, 1'); and wherein excess fuel from the cracking furnace of the ethylene plant steam generation circuit (1, 1') is provided to the waste heat recovery boiler of the power plant circuit (2, 2') for auxiliary firing. - recovering heat as high pressure steam from a cracking furnace; - providing said high pressure steam to at least one steam turbine, wherein the steam turbine is configured to drive a machine, such as a process compressor (7, 7'); - condensing at least part of the high pressure steam in a condenser; - pumping condensed steam as boiler feed water b ack to the cracking furnace; wherein the method also includes the step of: - recovering heat as high pressure steam from a waste heat recovery boiler of a power plant circuit (2, 2'); - providing at least part of the high pressure steam from the power plant circuit to the at least one steam turbine of the ethylene plant steam generation circuit'(1, 1'); and - recovering heat as high pressure steam from a waste heat recovery boiler of a power plant circuit (2, 2'); - providing at least part of the high pressure steam from the power plant circuit to the at least one steam turbine of the ethylene plant steam generation circuit'(1, 1'); and wherein excess fuel from the cracking furnace of the ethylene plant steam generation circuit (1, 1') is provided to the waste heat recovery boiler of the power plant circuit (2, 2') for auxiliary firing.
Household dishwasher having at least one appliance door, on which a cable holder is arranged, wherein an electric component, which is an adding device, is arranged on the inside of the appliance door, wherein the cable holder has at least one guide portion for guiding at least one cable, wherein the at least one guide portion is detachably connected to the adding device or the at least one guide portion is fastened to a door inner part of the appliance door, and wherein the cable holder has a handle for pivotal actuation of the appliance door of the household appliance.
A wireless communication element comprising: a transmit path configured to convert a digital signal into a wireless communication signal, the transmit path including a power amplifier configured to amplify a power level of the wireless communication signal according to an amplifier control signal being a bias signal; an antenna coupled to the transmit path and configured to transmit the wireless communication signal; and a control path (240, 221) coupled to the antenna and the power amplifier, the control path configured to: generate the amplifier control signal including periodic pulses; sense one or more signals indicative of the power level of the wireless communication signal transmitted from the transmit path to the antenna; determine a change in the power level based on the one or more signals indicative of the power level in order to determine a state of saturation, the change associated with one or more of the periodic pulses of the amplifier control signal; and adjust transmission of the wireless communication signal based on the determined change in the power level. a transmit path configured to convert a digital signal into a wireless communication signal, the transmit path including a power amplifier configured to amplify a power level of the wireless communication signal according to an amplifier control signal being a bias signal; an antenna coupled to the transmit path and configured to transmit the wireless communication signal; and a control path (240, 221) coupled to the antenna and the power amplifier, the control path configured to: generate the amplifier control signal including periodic pulses; sense one or more signals indicative of the power level of the wireless communication signal transmitted from the transmit path to the antenna; determine a change in the power level based on the one or more signals indicative of the power level in order to determine a state of saturation, the change associated with one or more of the periodic pulses of the amplifier control signal; and adjust transmission of the wireless communication signal based on the determined change in the power level. generate the amplifier control signal including periodic pulses; sense one or more signals indicative of the power level of the wireless communication signal transmitted from the transmit path to the antenna; determine a change in the power level based on the one or more signals indicative of the power level in order to determine a state of saturation, the change associated with one or more of the periodic pulses of the amplifier control signal; and adjust transmission of the wireless communication signal based on the determined change in the power level.
A hot-dip Zn-Al-Mg-based plated steel comprising: a steel; and a plating layer formed on a surface of the steel, wherein the plating layer contains, as an average composition, Mg: 1 to 10 mass%, Al: 4 to 22 mass%, and optionally further contains, as the average composition, 0.0001 to 2 mass% of Si, any one or two or more of Ni, Ti, Zr, and Sr in a range of 0.0001 to 2 mass% in total, or any one or two or more of Sb, Pb, Sn, Ca, Co, Mn, P, B, Bi, Cr, Sc, Y, REM, and Hf in a range of 0.0001 to 2 mass% in total and a remainder consisting of Zn and impurities, the plating layer includes an Al-Zn mixed structure in an area ratio of 10% to 70% in a cross section of the plating layer in a matrix of an Al/Zn/MgZn 2 ternary eutectic structure, the Al-Zn mixed structure includes a first region that has a Zn concentration in a range of 75 mass% or more and less than 85 mass% and a second region that is present inside the first region and has a Zn concentration in a range of 67 mass% or more and less than 75 mass%, and an area ratio of the second region in the Al-Zn mixed structure in the cross section of the plating layer is more than 0% and 40% or less, and an adhesion amount of the plating layer is 10 to 300 g/m 2, wherein the area ratio of the Al-Zn mixed structure, the first region, the second region, and the area ratio of the second region are determined as described in the description. a steel; and a plating layer formed on a surface of the steel, wherein the plating layer contains, as an average composition, Mg: 1 to 10 mass%, Al: 4 to 22 mass%, and optionally further contains, as the average composition, 0.0001 to 2 mass% of Si, any one or two or more of Ni, Ti, Zr, and Sr in a range of 0.0001 to 2 mass% in total, or any one or two or more of Sb, Pb, Sn, Ca, Co, Mn, P, B, Bi, Cr, Sc, Y, REM, and Hf in a range of 0.0001 to 2 mass% in total and a remainder consisting of Zn and impurities, the plating layer includes an Al-Zn mixed structure in an area ratio of 10% to 70% in a cross section of the plating layer in a matrix of an Al/Zn/MgZn 2 ternary eutectic structure, the Al-Zn mixed structure includes a first region that has a Zn concentration in a range of 75 mass% or more and less than 85 mass% and a second region that is present inside the first region and has a Zn concentration in a range of 67 mass% or more and less than 75 mass%, and an area ratio of the second region in the Al-Zn mixed structure in the cross section of the plating layer is more than 0% and 40% or less, and an adhesion amount of the plating layer is 10 to 300 g/m 2, wherein the area ratio of the Al-Zn mixed structure, the first region, the second region, and the area ratio of the second region are determined as described in the description.
A touch panel having an electroconductive sheet (10,12A,12B) for use with said touch panel, the electroconductive sheet comprising: an electrode pattern (16A, 16B) constructed of a metal thin wire having a line width of 0.7 μm or more and 9 μm or less the electrode pattern (16A, 16B) being provided in a sensing region: and an elcctrodc terminal (60A, 60B) that is electrically connected to an end of the electrode pattern (16A, 16B), the electrode terminal (60A, 60B) being provided outside of the sensing region, wherein the electrode terminal (60A, 60B) includes a mesh shape formed of lattices constructed of a metal thin wire. further comprising a frame shape constructed of a metal thin wire, the frame shape which is provided as an outer frame of the mesh shape formed of the lattices of the electrode terminal (60A. 60B). wherein an aperture ratio of the electrode pattern (16A 16B) is 90 % or more, and when the aperture ratio of the electrode pattern (16A, B) is represented by b %, the electrode terminal (60A. B) is configured to have an aperture ratio of (b-20) % or more and (b-0.1) % or less and, wherein. when a line width of the metal thin wire constituting the electrode pattern (10, 16A, 16B) is represented by A μm and a line width of the metal thin wire constituting the frame shape is represented by B μm. A and B satisfy a following expression or: B ≥ 2A ···. B ≥ A + 5 (μm) ···. an electrode pattern (16A, 16B) constructed of a metal thin wire having a line width of 0.7 μm or more and 9 μm or less the electrode pattern (16A, 16B) being provided in a sensing region: and an elcctrodc terminal (60A, 60B) that is electrically connected to an end of the electrode pattern (16A, 16B), the electrode terminal (60A, 60B) being provided outside of the sensing region, wherein the electrode terminal (60A, 60B) includes a mesh shape formed of lattices constructed of a metal thin wire. further comprising a frame shape constructed of a metal thin wire, the frame shape which is provided as an outer frame of the mesh shape formed of the lattices of the electrode terminal (60A. 60B). wherein an aperture ratio of the electrode pattern (16A 16B) is 90 % or more, and when the aperture ratio of the electrode pattern (16A, B) is represented by b %, the electrode terminal (60A. B) is configured to have an aperture ratio of (b-20) % or more and (b-0.1) % or less and, wherein. B ≥ 2A ···. B ≥ A + 5 (μm) ···.
A surveillance system (100, 500, 550) for detecting a foreign object, debris, or damage in an airfield, the surveillance system (100, 500) comprising: one or more cameras (108, 508, 551) configured to capture images of the airfield; a processing unit configured to detect a foreign object, debris or damage in the airfield from the images captured by the one or more cameras; and an image transmission module configured to transmit images from the one or more cameras to the processing unit, characterized in that the surveillance system (100, 500, 550) comprises: a weapon impact surveillance system configured to detect weapon impact in the airfield and direct the one or more cameras (108, 508, 551) to capture images in an area of the detected weapon impact, wherein the weapon impact is detected by the determination of presence of explosion, smoke, dust or flash caused by the weapon impact in the images. one or more cameras (108, 508, 551) configured to capture images of the airfield; a processing unit configured to detect a foreign object, debris or damage in the airfield from the images captured by the one or more cameras; and an image transmission module configured to transmit images from the one or more cameras to the processing unit, characterized in that the surveillance system (100, 500, 550) comprises: a weapon impact surveillance system configured to detect weapon impact in the airfield and direct the one or more cameras (108, 508, 551) to capture images in an area of the detected weapon impact, wherein the weapon impact is detected by the determination of presence of explosion, smoke, dust or flash caused by the weapon impact in the images. a weapon impact surveillance system configured to detect weapon impact in the airfield and direct the one or more cameras (108, 508, 551) to capture images in an area of the detected weapon impact, wherein the weapon impact is detected by the determination of presence of explosion, smoke, dust or flash caused by the weapon impact in the images.
A workstation (10, 50) for substantially concurrently processing armatures that are at different stages of a dynamo-electric machine core manufacturing process, comprising cutting operations to process said armatures, characterized in comprising a row of armature receiving structures (13in,13a,13b,13c, 13k, 131, 13m, 13n, 13out) placed in a workflow direction wherein said row includes a first receiving structure in an upstream area and a last receiving structure in a downstream area, and wherein said receiving structures are designed for holding said armatures in position for processing, wherein each of said receiving structures comprises a pair of laterally spaced-apart seats (13"') for supporting extreme portions of said armatures a sequence of processing units (10a,10b,10c, 50a, 50b) comprising at least a turning unit capable of the cutting operations over a region of said armatures and wherein each unit processes said armatures that are at one of said stages, and wherein each unit is associated with at least one of said receiving structures; a transferor for substantially simultaneously advancing a group of said armatures through said row of receiving structures, said transferor comprises a movable central beam (15, 55) having a row of armature holders (16, 56) disposed thereon; a table having a table top supported above a floor on legs wherein said table top has a length along said workflow direction and a lateral width perpendicular to said work flow direction, wherein said receiving structures and said turning unit are supported on said table top; said table top includes an aperture, said aperture providing a passage for processing cutting debris from above said table top to a collector underneath said table top; wherein said central beam (15, 55) operates above said table top between said spaced-apart seats.
A welding method comprising: - generating a control waveform for welding power output, the waveform comprising a plurality of successive peak phases of voltage and current, followed by a transition phase (98, 102), followed by a background phase of voltage and current; and - regulating each background phase such that a ratio of background current to peak current is at least 25%, and a ratio of background voltage to peak voltage is at least 50%, wherein the duration of the peak phase is at least 25% of the total duration of one cycle of the waveform, characterized in that the ramp from the background phase to the peak phase is set to approximately 350 A/ms for all wire feed speeds, as is the ramp from the peak phase to the background phase. - generating a control waveform for welding power output, the waveform comprising a plurality of successive peak phases of voltage and current, followed by a transition phase (98, 102), followed by a background phase of voltage and current; and - regulating each background phase such that a ratio of background current to peak current is at least 25%, and a ratio of background voltage to peak voltage is at least 50%, wherein the duration of the peak phase is at least 25% of the total duration of one cycle of the waveform, characterized in that the ramp from the background phase to the peak phase is set to approximately 350 A/ms for all wire feed speeds, as is the ramp from the peak phase to the background phase.
An electronic device comprising: a cover window that defines at least a portion of a side housing of the electronic device and a front housing of the electronic device; a display panel disposed under the cover window comprising a first display area disposed parallel to the front housing and a second display area disposed parallel to the portion of the side housing defined by the cover window; a metal panel disposed under the display panel and comprising a first area disposed parallel to the first display area and a second area disposed parallel to the second display area; a conductor attached to an inner side of the first area and an inner side of the second area, wherein the inner sides of the first area and second area are on a side of the metal panel that is opposite to the display panel; a printed circuit board, PCB; an insulation member (150, 151, 152, 153) disposed between the conductor and the PCB and comprising an opening; and a control circuit disposed on the PCB and electrically connected to the conductor through a connection member provided through the opening; wherein the conductor and the second area define at least one electrical path for receiving a signal of a specific frequency band; and wherein the first area corresponds to a ground for the at least one electrical path. a cover window that defines at least a portion of a side housing of the electronic device and a front housing of the electronic device; a display panel disposed under the cover window comprising a first display area disposed parallel to the front housing and a second display area disposed parallel to the portion of the side housing defined by the cover window; a metal panel disposed under the display panel and comprising a first area disposed parallel to the first display area and a second area disposed parallel to the second display area; a conductor attached to an inner side of the first area and an inner side of the second area, wherein the inner sides of the first area and second area are on a side of the metal panel that is opposite to the display panel; a printed circuit board, PCB; an insulation member (150, 151, 152, 153) disposed between the conductor and the PCB and comprising an opening; and a control circuit disposed on the PCB and electrically connected to the conductor through a connection member provided through the opening; wherein the conductor and the second area define at least one electrical path for receiving a signal of a specific frequency band; and wherein the first area corresponds to a ground for the at least one electrical path.