mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: processing circuitry configured to: receive a packet via a channel, establish (802; 1002) communication parameters and operational settings of an analog-to-digital conversion, ADC, operation using a training field, TF, of the packet, perform channel estimation (804; 1004), for the channel utilizing a channel estimation, CE, portion included in the packet, compensate distortions included in portions (410; 415) of the packet subsequent to the CE portion, obtain (805; 1005) a modulation order and coding scheme used for a data portion of the packet, select an analog-to-digital converter, ADC, (619; 620) to be used for a recovery of the data portion of the packet, and recover the information in the data portion of the packet using ADC output samples corresponding to the data portion of the packet; wherein the channel estimation is performed at a first, higher-resolution ADC and the recovery of the information in the data portion of the packet is performed at a second, lower-resolution ADC. receive a packet via a channel, establish (802; 1002) communication parameters and operational settings of an analog-to-digital conversion, ADC, operation using a training field, TF, of the packet, perform channel estimation (804; 1004), for the channel utilizing a channel estimation, CE, portion included in the packet, compensate distortions included in portions (410; 415) of the packet subsequent to the CE portion, obtain (805; 1005) a modulation order and coding scheme used for a data portion of the packet, select an analog-to-digital converter, ADC, (619; 620) to be used for a recovery of the data portion of the packet, and recover the information in the data portion of the packet using ADC output samples corresponding to the data portion of the packet; wherein the channel estimation is performed at a first, higher-resolution ADC and the recovery of the information in the data portion of the packet is performed at a second, lower-resolution ADC.
A method of updating a sequencing cell, the method comprising: providing a membrane that divides a first electrolyte reservoir of the sequencing cell from a second electrolyte reservoir of the sequencing cell, wherein the membrane comprises an initial nanopore, and wherein the first electrolyte reservoir has a first initial osmolarity and the second electrolyte reservoir has a second initial osmolarity; flowing a first electrolyte solution to the first electrolyte reservoir, wherein the first electrolyte solution has a first electrolyte solution osmolarity that is different than the first initial reservoir osmolarity, thereby causing the first electrolyte reservoir to have a new osmolarity that is different than the first initial osmolarity; ejecting the initial nanopore from the membrane as a result of a difference between the new osmolarity and the second initial osmolarity; adding a second electrolyte solution to the first electrolyte reservoir, wherein the second electrolyte solution comprises a plurality of replacement nanopores, wherein the second electrolyte solution has a second electrolyte solution osmolarity that is closer to the second initial osmolarity than the first electrolyte solution osmolarity; and inserting one of the plurality of replacement nanopores into the membrane. providing a membrane that divides a first electrolyte reservoir of the sequencing cell from a second electrolyte reservoir of the sequencing cell, wherein the membrane comprises an initial nanopore, and wherein the first electrolyte reservoir has a first initial osmolarity and the second electrolyte reservoir has a second initial osmolarity; flowing a first electrolyte solution to the first electrolyte reservoir, wherein the first electrolyte solution has a first electrolyte solution osmolarity that is different than the first initial reservoir osmolarity, thereby causing the first electrolyte reservoir to have a new osmolarity that is different than the first initial osmolarity; ejecting the initial nanopore from the membrane as a result of a difference between the new osmolarity and the second initial osmolarity; adding a second electrolyte solution to the first electrolyte reservoir, wherein the second electrolyte solution comprises a plurality of replacement nanopores, wherein the second electrolyte solution has a second electrolyte solution osmolarity that is closer to the second initial osmolarity than the first electrolyte solution osmolarity; and inserting one of the plurality of replacement nanopores into the membrane.
A wearable device (100, 200, 400) comprising a flexible member (120, 220, 320, 420, 520, 620, 720) attachable on a limb of a subject, the flexible member having a first portion (120a, 220a, 320a, 420a, 520a, 620a, 720a) comprising a first set of conducting channels (360, 361), and a second portion (120b, 220b, 320b, 420b, 520b, 620b, 720b) comprising a second set of conducting channels; an electronic circuit (110, 210, 410) coupled to the first portion and the second portion; a connector (130, 230) adapted to connect the first portion to the second portion, wherein upon connection at least one channel from the first set is connected to a channel from the second set to obtain a channel connection; wherein the first portion has a first set of mechanical connection means (340, 341), and the second portion has a second set of mechanical connection means; wherein each conducting channel has a first end provided at an edge of a mechanical connection means and a second end provided at a terminal connectable to the electronic circuit (110, 210, 410); characterized in that the first set of mechanical connection means is a first set of connection holes (340, 341), the second set of mechanical connection means is a second set of connection holes, and in that the connector (130, 230) comprises more than two projecting members, each projecting member being designed to engage with a mechanical connection hole. a flexible member (120, 220, 320, 420, 520, 620, 720) attachable on a limb of a subject, the flexible member having a first portion (120a, 220a, 320a, 420a, 520a, 620a, 720a) comprising a first set of conducting channels (360, 361), and a second portion (120b, 220b, 320b, 420b, 520b, 620b, 720b) comprising a second set of conducting channels; an electronic circuit (110, 210, 410) coupled to the first portion and the second portion; a connector (130, 230) adapted to connect the first portion to the second portion, wherein upon connection at least one channel from the first set is connected to a channel from the second set to obtain a channel connection; wherein the first portion has a first set of mechanical connection means (340, 341), and the second portion has a second set of mechanical connection means; wherein each conducting channel has a first end provided at an edge of a mechanical connection means and a second end provided at a terminal connectable to the electronic circuit (110, 210, 410); characterized in that the first set of mechanical connection means is a first set of connection holes (340, 341), the second set of mechanical connection means is a second set of connection holes, and in that the connector (130, 230) comprises more than two projecting members, each projecting member being designed to engage with a mechanical connection hole.
Windshield wiper device suitable for wiping a windshield of a vehicle, in particular of a motor vehicle, comprising a wiper arm with a wiper blade head and a wiper blade which comprises: - an elongate upper part, which is configured to be at least partially bendable, - an elongate lower part, which is configured to be at least partially bendable, and - a plurality of connecting elements for connecting the upper part and the lower part, wherein the connecting elements are spaced apart from one another along a longitudinal extent of the wiper blade and are attached to the upper part and/or to the lower part by means of a rotary joint, in particular wherein the connecting element are designed in order to permit a movement of the upper part and of the lower part relative to each other with a movement component along the longitudinal extent of the wiper blade, wherein the connecting elements each extend along a longitudinal axis of the connecting element, which longitudinal axis runs from the upper part to the lower part, and each extend along a transverse axis running perpendicularly to the longitudinal axis, wherein the transverse axes of at least two connecting elements which are adjacent along the longitudinal extent enclose a demolding angle (β) of at least 0.5° with respect to each other. - an elongate upper part, which is configured to be at least partially bendable, - an elongate lower part, which is configured to be at least partially bendable, and - a plurality of connecting elements for connecting the upper part and the lower part, wherein the connecting elements are spaced apart from one another along a longitudinal extent of the wiper blade and are attached to the upper part and/or to the lower part by means of a rotary joint, in particular wherein the connecting element are designed in order to permit a movement of the upper part and of the lower part relative to each other with a movement component along the longitudinal extent of the wiper blade,
Use of an adhesive film for temporarily fixing an electronic component when sealing the electronic component with a sealing material in a step of manufacturing an electronic apparatus, the adhesive film comprising: a base material layer; an adhesive resin layer which is provided on a first surface side of the base material layer and which is used for temporarily fixing the electronic component; and an adhesive resin layer which is provided on a second surface side of the base material layer and of which adhesive strength decreases according to heating or radiation as an external stimulus, wherein the adhesive resin layer includes a polyvalent carboxylic acid ester-based plasticizer and an adhesive resin, and a content of the polyvalent carboxylic acid ester-based plasticizer in the adhesive resin layer is more than or equal to 1.0 parts by mass and less than or equal to 20 parts by mass with respect to 100 parts by mass of the adhesive resin included in the adhesive resin layer. a base material layer; an adhesive resin layer which is provided on a first surface side of the base material layer and which is used for temporarily fixing the electronic component; and an adhesive resin layer which is provided on a second surface side of the base material layer and of which adhesive strength decreases according to heating or radiation as an external stimulus, wherein the adhesive resin layer includes a polyvalent carboxylic acid ester-based plasticizer and an adhesive resin, and a content of the polyvalent carboxylic acid ester-based plasticizer in the adhesive resin layer is more than or equal to 1.0 parts by mass and less than or equal to 20 parts by mass with respect to 100 parts by mass of the adhesive resin included in the adhesive resin layer.
Tubular camshaft for a motor vehicle combustion engine, which comprises at least one oil circulation bore of a first determined diameter (D 12) supplied with oil at a first end via a feed orifice and extending more or less along the length of the said shaft, and which comprises a plurality of radial ducts which are distributed along the length of the shaft, which pass through a tubular wall of the shaft, and which place the inside of the bore in communication with the outside of the shaft, characterized in that the bore is closed at a second end the opposite end to the first end and in that the bore is provided with an oil retention means which, as the shaft rotates, allows the oil to be discharged uniformly by centrifugal action through the radial ducts when the oil level exceeds a threshold.
A method for communicating data in a packet switched base band signalling communication network, the network having multiple devices (14, 16, 18, 20), wherein each device comprises at least a data transmitter and a data receiver capable of transmitting and receiving frames comprising payload data at least at a first data rate, the method comprising the steps: transmitting, by a transmitter of a device of the multiple devices, data at a first data rate in a portion of a frame indicating that the payload data to be transmitted later in the frame will be transmitted at a data rate higher than the first data rate; characterized by transmitting, by the transmitter of the device, a maintain-media-busy signal, indicating to the other devices of the multiple devices that the network is in use, at the first data rate during the transmission of the payload data at the higher data rate. transmitting, by a transmitter of a device of the multiple devices, data at a first data rate in a portion of a frame indicating that the payload data to be transmitted later in the frame will be transmitted at a data rate higher than the first data rate; characterized by transmitting, by the transmitter of the device, a maintain-media-busy signal, indicating to the other devices of the multiple devices that the network is in use, at the first data rate during the transmission of the payload data at the higher data rate.
A steamer head comprising a body enclosing a steam distribution circuit and an air distribution circuit separated from one another, the steam distribution circuit comprising at least one steam inlet orifice (17.1) intended to be connected to a steam generator and at least one steam outlet for diffusing a stream of steam, the air distribution circuit comprising a blower, an air inlet orifice and an air outlet for diffusing a stream of air, the at least one steam outlet and the air outlet being arranged at the same end of the body of the steamer head, characterised in that the steamer head comprises a shut-off member that can be moved between a shut-off position in which the shut-off member closes off the air outlet and an open position in which the shut-off member uncovers the air outlet.
Spring system for driving a switching device, formed from a compression spring, a tensioning lever, a first spring tab, a second spring tab, a drive lever, a first spring plate and a second spring plate, characterized in that the compression spring, owing to its installation situation and mounting, can work both as a pressure accumulator as well as a tensile accumulator, wherein the compression spring works in one switching direction as a pressure accumulator, and for this purpose is compressed, thus pretensioned, directly, and works in the opposite switching direction as a tensile accumulator, and for this purpose is compressed, thus pretensioned, indirectly via the first spring tab and the second spring tab.
Method for producing a printed carpet, the method comprising the following steps: - producing a substrate comprising a top and bottom fabric which are connected to each other by means of connecting threads, in which each fabric comprises weft threads and warp threads which are connected to each other according to a predetermined weaving pattern; - applying a print to the top fabric, characterized in that the warp threads of the top fabric are darker than the weft threads of the top fabric, so that the weaving pattern of the top fabric remains visible after the print has been applied. - producing a substrate comprising a top and bottom fabric which are connected to each other by means of connecting threads, in which each fabric comprises weft threads and warp threads which are connected to each other according to a predetermined weaving pattern; - applying a print to the top fabric,
A combustion heater for providing controlled heat to an endothermic reaction process, said combustion heater comprising a combustion chamber including: - a primary combustion zone including a burner for burning a first fuel from a first fuel inlet with an oxidant from an oxidant inlet to yield a hot burner exhaust gas; - a flue gas outlet; and a flue gas flow path from said burner to said flue gas outlet; - a secondary fuel conduit having a second fuel inlet and provided with a plurality of fuel nozzles for transferring a second fuel from the secondary fuel conduit into the combustion chamber, said nozzles distributed along the length of the secondary fuel conduit and opening into the combustion chamber at a location along said flue gas flow path, to define a secondary combustion zone, separate from the primary combustion zone, for generating heat from combustion of the secondary fuel in a secondary combustion, wherein the secondary fuel conduit is located outside a direct reach of flames from the burner, when in use, and wherein the secondary fuel conduit has an integrated cooling circuit with a coolant inlet for a coolant routed; and - a reaction conduit for a reactant and a product of said endothermic reaction process, said reaction conduit comprising a reactant feed inlet and a process effluent outlet, the reaction conduit providing a process flow path between said reactant feed inlet and said process effluent outlet, wherein the reaction conduit along at least part of the process flow path is in thermal heat exchange with the combustion chamber at a location along the secondary fuel conduit. - a primary combustion zone including a burner for burning a first fuel from a first fuel inlet with an oxidant from an oxidant inlet to yield a hot burner exhaust gas; - a flue gas outlet; and a flue gas flow path from said burner to said flue gas outlet; - a secondary fuel conduit having a second fuel inlet and provided with a plurality of fuel nozzles for transferring a second fuel from the secondary fuel conduit into the combustion chamber, said nozzles distributed along the length of the secondary fuel conduit and opening into the combustion chamber at a location along said flue gas flow path, to define a secondary combustion zone, separate from the primary combustion zone, for generating heat from combustion of the secondary fuel in a secondary combustion, wherein the secondary fuel conduit is located outside a direct reach of flames from the burner, when in use, and wherein the secondary fuel conduit has an integrated cooling circuit with a coolant inlet for a coolant routed; and - a reaction conduit for a reactant and a product of said endothermic reaction process, said reaction conduit comprising a reactant feed inlet and a process effluent outlet, the reaction conduit providing a process flow path between said reactant feed inlet and said process effluent outlet, wherein the reaction conduit along at least part of the process flow path is in thermal heat exchange with the combustion chamber at a location along the secondary fuel conduit.
A lead for providing electrical stimulation, the lead comprising: a lead body having a distal end, a proximal end, and a longitudinal length, the lead body comprising a multi-lumen conductor guide extending from the proximal end of the lead body to the distal end of the lead body, the multi-lumen conductor guide having an outer surface and defining a central stylet lumen configured and arranged for receiving a stylet and a plurality of conductor lumens disposed around the central stylet lumen, each conductor lumen configured and arranged to receive at least one conductor, wherein the plurality of conductor lumens are completely inset from the outer surface of the multi-lumen conductor guide, wherein at least a portion of the multi-lumen conductor guide is twisted such that the multi-lumen conductor guide forms at least one helical section where the plurality of conductor lumens form helical pathways around the stylet lumen, and wherein each of the helical pathways of the at least one helical section has a pitch that is no less than 0.04 turns per centimeter and no greater than 0.8 turns per centimeter; a plurality of electrodes disposed on the distal end of the lead body; a plurality of lead terminals disposed on the proximal end of the lead body; and a plurality of conductors electrically coupling at least one of the plurality of electrodes to at least one of the plurality of lead terminals, wherein the plurality of conductors extend along the longitudinal length of the lead body within the plurality of conductor lumens. a lead body having a distal end, a proximal end, and a longitudinal length, the lead body comprising a multi-lumen conductor guide extending from the proximal end of the lead body to the distal end of the lead body, the multi-lumen conductor guide having an outer surface and defining a central stylet lumen configured and arranged for receiving a stylet and a plurality of conductor lumens disposed around the central stylet lumen, each conductor lumen configured and arranged to receive at least one conductor, wherein the plurality of conductor lumens are completely inset from the outer surface of the multi-lumen conductor guide, wherein at least a portion of the multi-lumen conductor guide is twisted such that the multi-lumen conductor guide forms at least one helical section where the plurality of conductor lumens form helical pathways around the stylet lumen, and wherein each of the helical pathways of the at least one helical section has a pitch that is no less than 0.04 turns per centimeter and no greater than 0.8 turns per centimeter; a plurality of electrodes disposed on the distal end of the lead body; a plurality of lead terminals disposed on the proximal end of the lead body; and a plurality of conductors electrically coupling at least one of the plurality of electrodes to at least one of the plurality of lead terminals, wherein the plurality of conductors extend along the longitudinal length of the lead body within the plurality of conductor lumens.
A method for producing a sliding bearing bush according to which a flat supporting metal layer is provided, a sliding layer is arranged on this supporting metal layer to produce a flat composite material, and the flat composite material is then rolled into the shape of the sliding bearing bush, wherein the flat composite material is rolled in such a way that the supporting metal layer in the sliding bearing bush is arranged radially underneath the sliding layer, characterized in that for connecting the ends which are open after rolling, the two abutting end faces are welded to one another in the axial direction forming a weld seam running in the axial direction, that, furthermore, an oil groove running in the axial direction is formed at a distance from the weld seam, wherein the distance amounts to between 0.5% and 10% of the outer circumference of the running surface of the sliding layer - as viewed in the axial direction -, wherein a lubricant supply line opens into the oil groove, for which purpose a corresponding bore is formed in the supporting metal layer and optionally in the sliding layer.