mhurhangee/ep-ind-claims huggingface dataset:
A computing system configured for direct memory access, the system comprising: a system direct memory access, SDMA, device (370A-B) disposed on a processor die and configured to send, to a data fabric device, a message which includes a physical address of a source buffer, a physical address of a destination buffer, and a size of a data transfer from the source buffer to the destination buffer; the data fabric device configured to send, to a first plurality of agent devices (345A-D), at least one instruction which includes the physical address of the source buffer, the physical address of the destination buffer, and the size of the data transfer; the first plurality of agent devices each configured to: read a portion of the source buffer from a memory device at the physical address of the source buffer; and send the portion of the source buffer to one of a second plurality of agent devices (345E-N); and the second plurality of agent devices are each configured to operate a memory controller (340E-N) to write the portion of the source buffer to the destination buffer. a system direct memory access, SDMA, device (370A-B) disposed on a processor die and configured to send, to a data fabric device, a message which includes a physical address of a source buffer, a physical address of a destination buffer, and a size of a data transfer from the source buffer to the destination buffer; the data fabric device configured to send, to a first plurality of agent devices (345A-D), at least one instruction which includes the physical address of the source buffer, the physical address of the destination buffer, and the size of the data transfer; the first plurality of agent devices each configured to: read a portion of the source buffer from a memory device at the physical address of the source buffer; and send the portion of the source buffer to one of a second plurality of agent devices (345E-N); and read a portion of the source buffer from a memory device at the physical address of the source buffer; and send the portion of the source buffer to one of a second plurality of agent devices (345E-N); and the second plurality of agent devices are each configured to operate a memory controller (340E-N) to write the portion of the source buffer to the destination buffer.
Method for manufacturing a machined extruded product for the aeronautical industry having a machined core and at least one machined flank wherein (a) an unprocessed form made of an Al-Cu-Li alloy is cast with the following composition, as weight percentages: Cu: 2.0 - 6.0; Li: 0.5 - 2.0; Mg: 0 - 1.0; Ag: 0 - 0.7; Zn 0 - 1.0; and at least one element selected among Zr, Mn, Cr, Sc, Hf and Ti, the amount of said element, if chosen, being 0.05 to 0.20 wt % for Zr, 0.05 to 0.8 wt % for Mn, 0.05 to 0.3 wt % for Cr and for Sc, 0.05 to 0.5 wt % for Hf and 0.01 to 0.15 wt % for Ti, Si ≤ 0.1; Fe ≤ 0.1; others ≤ 0.05 each and ≤ 0.15 in total, the balance being aluminum, (b) said unprocessed form is homogenized, (c) said unprocessed form is deformed by melt spinning in such a way as to obtain an unprocessed extruded product having an unprocessed core and at least one unprocessed flank, (d) said unprocessed extruded product is put into solution (e) said unprocessed extruded product put into solution as such is quenched, (f) said unprocessed extruded product undergoes traction in a controlled manner (g) optionally a straightening or a forming of said extruded product is carried out, (h) said unprocessed extruded product is tempered (i) said unprocessed extruded product is machined in order to obtain a machined extruded product having a machined core and at least one machined flank corresponding to the unprocessed flank characterized in that the dimension of said unprocessed flank (E22 or L22) of which the direction is perpendicular to the dimension of the length of said unprocessed core is at least 20% greater than the length of said machined flank. (a) an unprocessed form made of an Al-Cu-Li alloy is cast with the following composition, as weight percentages: Cu: 2.0 - 6.0; Li: 0.5 - 2.0; Mg: 0 - 1.0; Ag: 0 - 0.7; Zn 0 - 1.0; and at least one element selected among Zr, Mn, Cr, Sc, Hf and Ti, the amount of said element, if chosen, being 0.05 to 0.20 wt % for Zr, 0.05 to 0.8 wt % for Mn, 0.05 to 0.3 wt % for Cr and for Sc, 0.05 to 0.5 wt % for Hf and 0.01 to 0.15 wt % for Ti, Si ≤ 0.1; Fe ≤ 0.1; others ≤ 0.05 each and ≤ 0.15 in total, the balance being aluminum, (b) said unprocessed form is homogenized, (c) said unprocessed form is deformed by melt spinning in such a way as to obtain an unprocessed extruded product having an unprocessed core and at least one unprocessed flank, (d) said unprocessed extruded product is put into solution (e) said unprocessed extruded product put into solution as such is quenched, (f) said unprocessed extruded product undergoes traction in a controlled manner (g) optionally a straightening or a forming of said extruded product is carried out, (h) said unprocessed extruded product is tempered (i) said unprocessed extruded product is machined in order to obtain a machined extruded product having a machined core and at least one machined flank corresponding to the unprocessed flank
A self-aligning liquid coupler system for transmitting fluid to a vehicle, the self-aligning liquid coupler system comprising: a first link configured to rotate about a pin joint on a translating member; a second link rotatably coupled to the first link, the second link having a nozzle at a first end and a weight at a second end opposite the first end, the nozzle configured to be coupled to a channel for receiving a pumped fluid, the weight configured to be urged to the vertically lowest possible position relative to the translating member by way of gravitational force; and a fluid inlet configured to be included on the vehicle, and including a funnel portion and an opening, the funnel portion having a conical taper converging towards the opening in order to selectively interface with and urge the nozzle towards the opening, in use. a first link configured to rotate about a pin joint on a translating member; a second link rotatably coupled to the first link, the second link having a nozzle at a first end and a weight at a second end opposite the first end, the nozzle configured to be coupled to a channel for receiving a pumped fluid, the weight configured to be urged to the vertically lowest possible position relative to the translating member by way of gravitational force; and a fluid inlet configured to be included on the vehicle, and including a funnel portion and an opening, the funnel portion having a conical taper converging towards the opening in order to selectively interface with and urge the nozzle towards the opening, in use.
A sample management device, comprising: a source flow path in which a fluidic sample can flow; a volume flow adjustment unit configured for adjusting a volume flow of the fluidic sample to be branched off from the source flow path at a fluidic coupling point; and a fluidic valve fluidically coupled with the source flow path and with the volume flow adjustment unit; characterized in that the fluidic coupling point is located in an interior of the fluidic valve and that the fluidic valve is switchable into a branch off state in which the fluidic coupling point is established within the source flow path to branch off an adjustable volume of the fluidic sample from the source flow path via the fluidic coupling point while a flow of the fluidic sample in the source flow path continues. a source flow path in which a fluidic sample can flow; a volume flow adjustment unit configured for adjusting a volume flow of the fluidic sample to be branched off from the source flow path at a fluidic coupling point; and a fluidic valve fluidically coupled with the source flow path and with the volume flow adjustment unit; characterized in that the fluidic coupling point is located in an interior of the fluidic valve and that the fluidic valve is switchable into a branch off state in which the fluidic coupling point is established within the source flow path to branch off an adjustable volume of the fluidic sample from the source flow path via the fluidic coupling point while a flow of the fluidic sample in the source flow path continues.
A system for measuring terminal connection or disconnection and pressure by using a pressure sensor, the system comprising: a lower terminal through which a first coupling hole is formed on a first side thereof, the first coupling hole corresponding to an installation hole formed in a base frame of an electronic device; the pressure sensor of which a lower part is coupled to an upper part of the lower terminal on a second side thereof; an upper terminal through which a second coupling hole is formed on a first side thereof, the second coupling hole corresponding to the first coupling hole; a coupling bolt coupled into the installation hole of the base frame by screw-type engagement, passing through the second coupling hole of the upper terminal and the first coupling hole of the lower terminal; characterised in that, the upper terminal has a fastening hole formed on a second side thereof, the fastening hole being at a position corresponding to the pressure sensor; and a pressure bolt coupled into the fastening hole of the upper terminal by screw-type engagement, and configured to apply pressure to the pressure sensor. a lower terminal through which a first coupling hole is formed on a first side thereof, the first coupling hole corresponding to an installation hole formed in a base frame of an electronic device; the pressure sensor of which a lower part is coupled to an upper part of the lower terminal on a second side thereof; an upper terminal through which a second coupling hole is formed on a first side thereof, the second coupling hole corresponding to the first coupling hole; a coupling bolt coupled into the installation hole of the base frame by screw-type engagement, passing through the second coupling hole of the upper terminal and the first coupling hole of the lower terminal; characterised in that, the upper terminal has a fastening hole formed on a second side thereof, the fastening hole being at a position corresponding to the pressure sensor; and a pressure bolt coupled into the fastening hole of the upper terminal by screw-type engagement, and configured to apply pressure to the pressure sensor.
A method to select a network profile in a User Equipment, UE, comprising: determining whether a subscriber identification module, SIM, card is an embedded universal integrated circuit card, eUICC, or a non-eUICC while in a subsidy locked state; performing a profile sequence to determine available network profiles if the SIM card is the eUICC; and presenting an option at a locked screen in a user interface, UI, to switch from a current network profile to one of the available network profiles on the UE if the current profile on the eUICC does not satisfy a personalization check on the UE. determining whether a subscriber identification module, SIM, card is an embedded universal integrated circuit card, eUICC, or a non-eUICC while in a subsidy locked state; performing a profile sequence to determine available network profiles if the SIM card is the eUICC; and presenting an option at a locked screen in a user interface, UI, to switch from a current network profile to one of the available network profiles on the UE if the current profile on the eUICC does not satisfy a personalization check on the UE.
A method for producing a Through Semiconductor Via connection in a stack comprising a first semiconductor die and a second semiconductor die or a carrier substrate, the first die being bonded to the second die or to the carrier substrate, the first die comprising: • a semiconductor substrate portion having a front side and a back side, • on the front side of the substrate portion, at least one well of semiconductor material of a first doping type implanted in an area of the substrate portion, said area being formed of semiconductor material of a second doping type opposite the first doping type, • one or more fins of material of the first doping type extending outward from the well, • a conductor that is electrically coupled to at least one of said one or more fins extending outward from the well, wherein the method comprises the steps of producing an opening for the TSV connection, and filling said opening with an electrically conductive material, characterised in that the opening is produced by an etching process that stops in the well of semiconductor material of the first type, so that after filling of the opening, an electrical connection is established from the TSV connection to the conductor, through the well and through the at least one fin. • a semiconductor substrate portion having a front side and a back side, • on the front side of the substrate portion, at least one well of semiconductor material of a first doping type implanted in an area of the substrate portion, said area being formed of semiconductor material of a second doping type opposite the first doping type, • one or more fins of material of the first doping type extending outward from the well, • a conductor that is electrically coupled to at least one of said one or more fins extending outward from the well,
A side airbag device provided on the side part on the center side in the width direction of a backrest portion on one of either of separated seats that are arranged side-by-side in a vehicle in the width direction of the vehicle, that protects an occupant by restraining movement of the occupant toward a location where an impact is applied at the time of a collision, comprising a cushion and an inflator that produces gas to expand and deploy the cushion after receiving a signal from a sensor, characterized in that the cushion has a first portion and a second portion that expand and deploy onto the front surface of the adjacent separated seats capturing the side part of the occupant and a center portion provided between the first portion and the second portion, and a protruding part is formed on the center portion that protrudes at least more in the forward direction of the vehicle than the first portion and the second portion when the cushion expands and deploys to capture the head (Ph) of the occupant as well as oblique forward movement of the occupant.
A method of fixing a cord spool support in a longitudinally-elongated head rail of a window covering, so that the support holds an end of a longitudinally-extending cord spool adjacent to a longitudinally-extending opening in the rail, the method including: providing the support with a longitudinally- and vertically-extending groove in a top surface at a lateral side; and seating in the groove a horizontally-extending base portion of a generally planar, U-shaped metal wire spring, having two generally vertically-extending arm portions attached to the base portion and two acutely-angled arm portions which are attached to the vertically-extending arm portions; wherein the acutely-angled arm portions extend away from the base portion and terminate in ends with sharp edges; and wherein the vertical height of the spring, when relaxed, is greater than the vertical height of the support and of the interior of the rail, so that the sharp edges of its two acutely-angled arm portions are biased against, and frictionally engage, a horizontal interior surface of the rail; wherein the window covering is a Roman shade; and the horizontal interior surface of the head rail, engaged by the ends of the spring with sharp edges, is its bottom interior surface and the vertically-extending portions and the acutely-angled portions of the spring extend downwardly from the horizontally-extending portion of the spring. providing the support with a longitudinally- and vertically-extending groove in a top surface at a lateral side; and seating in the groove a horizontally-extending base portion of a generally planar, U-shaped metal wire spring, having two generally vertically-extending arm portions attached to the base portion and two acutely-angled arm portions which are attached to the vertically-extending arm portions; wherein the acutely-angled arm portions extend away from the base portion and terminate in ends with sharp edges; and wherein the vertical height of the spring, when relaxed, is greater than the vertical height of the support and of the interior of the rail, so that the sharp edges of its two acutely-angled arm portions are biased against, and frictionally engage, a horizontal interior surface of the rail; wherein the window covering is a Roman shade; and the horizontal interior surface of the head rail, engaged by the ends of the spring with sharp edges, is its bottom interior surface and the vertically-extending portions and the acutely-angled portions of the spring extend downwardly from the horizontally-extending portion of the spring.
Device comprising: an acquisition unit (156; 210; 310) configured to acquire examination data; a communication unit (156; 220) configured to transmit said examination data via a communication link, wherein the communication unit is configured to receive control information via said communication link, wherein the device further comprises: an adaptation unit (156; 215) configured to adapt a data rate of said examination data, based on an available quality of service of said communication link, wherein said acquisition unit and/or said adaptation unit is configured to be controlled based on said control information, characterised in that said adaptation unit is configured to instruct said acquisition unit to perform no compression or a lossless compression of said examination data if said available quality of service is above a certain limit and instruct said acquisition unit to perform a lossless compression with a higher compression ratio than in case of said available quality of service being above said certain limit or a lossy compression of said examination data if said available quality of service is equal to or below said certain limit. an acquisition unit (156; 210; 310) configured to acquire examination data; a communication unit (156; 220) configured to transmit said examination data via a communication link, wherein the communication unit is configured to receive control information via said communication link, wherein the device further comprises: an adaptation unit (156; 215) configured to adapt a data rate of said examination data, based on an available quality of service of said communication link, wherein said acquisition unit and/or said adaptation unit is configured to be controlled based on said control information, characterised in that said adaptation unit is configured to instruct said acquisition unit to perform no compression or a lossless compression of said examination data if said available quality of service is above a certain limit and instruct said acquisition unit to perform a lossless compression with a higher compression ratio than in case of said available quality of service being above said certain limit or a lossy compression of said examination data if said available quality of service is equal to or below said certain limit.
Method for searching for leaks in pipelines for transport of hydrocarbons or of substances containing hydrocarbons, comprising: • acquiring data related to a pipeline for the transport of hydrocarbons or of substances containing hydrocarbons; • performing a processing of the acquired data; and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons based on the processing carried out; characterised in that: • acquiring data related to a pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes acquiring pipeline georeferencing data and data indicative of georeferenced secondary cosmic radiation measurements performed in a region of the earth's surface in which said pipeline extends (block 21); • performing a processing of the acquired data includes generating, based on the processing performed, a georeferenced digital map representing the pipeline for transport of hydrocarbons or of substances containing hydrocarbons and estimated quantities of hydrogen present on/in the soil in the region in which said pipeline extends (block 22); and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes detecting and locating the leak(s) based on the generated georeferenced digital map (block 23). • acquiring data related to a pipeline for the transport of hydrocarbons or of substances containing hydrocarbons; • performing a processing of the acquired data; and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons based on the processing carried out; • acquiring data related to a pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes acquiring pipeline georeferencing data and data indicative of georeferenced secondary cosmic radiation measurements performed in a region of the earth's surface in which said pipeline extends (block 21); • performing a processing of the acquired data includes generating, based on the processing performed, a georeferenced digital map representing the pipeline for transport of hydrocarbons or of substances containing hydrocarbons and estimated quantities of hydrogen present on/in the soil in the region in which said pipeline extends (block 22); and • detecting and locating one or more leaks in the pipeline for transport of hydrocarbons or of substances containing hydrocarbons includes detecting and locating the leak(s) based on the generated georeferenced digital map (block 23).
An electronic timepiece with two analogue display hands, the timepiece comprising a power source, an hour hand and a minute hand, the hour hand and the minute hand being designed to operate independently of each other, the hour hand and the minute hand being designed to operate in a first operating mode and in a second operating mode to display the end of the power source life, which is designed to be activated by the timepiece when it detects the end of life of a power source in which in the second operating mode, the hour hand and the minute hand are designed to operate differently from their operation in the first operating mode, in the first operating mode, the hour hand jumps to indicate the hour, while the minute hand slides or jumps to indicate the minutes, after the second operating mode, the timepiece is designed to return to the first operating mode, after having detecting another event or after a set time, and in the second operating mode, the hour hand slides to indicate the hour, while the minute hand acts as the second hand, jumping at each preset interval, in which the set interval is between 2 seconds and 5 seconds. in the first operating mode, the hour hand jumps to indicate the hour, while the minute hand slides or jumps to indicate the minutes, after the second operating mode, the timepiece is designed to return to the first operating mode, after having detecting another event or after a set time, and in the second operating mode, the hour hand slides to indicate the hour, while the minute hand acts as the second hand, jumping at each preset interval, in which the set interval is between 2 seconds and 5 seconds.