mhurhangee/ep-ind-claims huggingface dataset:
An airbag assembly, in particular a rescue air cushion, consisting of a pneumatic frame and an airbag supported by it, wherein the airbag has at least one chamber and openings arranged in at least one column located near the vertical edges of its side walls or in at least one row located by at least one horizontal edge of the side wall, basically in the middle of the side wall or at the horizontal edge of the chamber, characterized in that the airbag comprises a system of adaptative release valves, wherein the at least one column or row is combined with at least one sliding shutter with the first openings and at least one through-pocket with second openings, wherein the shutter is placed between the side wall and the through-pocket, and the side wall and the through-pocket provide a guide for the shutter controlled by a shutter-sliding module, which is connected to a control system and power source.
A system for reinforcing a structural member, comprising: a structural reinforcer including a rigid carrier portion made of at least one of metal, plastic, nylon, glass-reinforced nylon, and an organic material; at least a portion of the carrier portion configured to conform generally to one or more inner walls defining a cavity in a structural member, the structural member generally made of at least metal; wherein the gap between said at least a portion of the carrier and the one or more inner walls of the cavity is between 4 mm and 0.5 mm when the carrier is positioned within the cavity; and an adhesive, which is generally tacky to the touch, extruded at one or more locations on at least one of the carrier and an inner wall, prior to insertion of the carrier within the cavity, to adhere the carrier to the one or more inner walls of the cavity when the carrier is positioned therein, wherein the adhesive is non-expandable, and wherein the adhesive is configured to cure in an e-coat process when exposed to heat; wherein adhering the carrier within the cavity increases the strength of the structural member. a structural reinforcer including a rigid carrier portion made of at least one of metal, plastic, nylon, glass-reinforced nylon, and an organic material; at least a portion of the carrier portion configured to conform generally to one or more inner walls defining a cavity in a structural member, the structural member generally made of at least metal; wherein the gap between said at least a portion of the carrier and the one or more inner walls of the cavity is between 4 mm and 0.5 mm when the carrier is positioned within the cavity; and an adhesive, which is generally tacky to the touch, extruded at one or more locations on at least one of the carrier and an inner wall, prior to insertion of the carrier within the cavity, to adhere the carrier to the one or more inner walls of the cavity when the carrier is positioned therein, wherein the adhesive is non-expandable, and wherein the adhesive is configured to cure in an e-coat process when exposed to heat; wherein adhering the carrier within the cavity increases the strength of the structural member.
A wireless communication apparatus comprising: a communication control unit configured to transmit a discovery response to a discovery request received from another wireless communication apparatus and to control a connection process to the other wireless communication apparatus, wherein the discovery response includes a function confirmation response to a function confirmation request included in the discovery request received from the other wireless communication apparatus, the function confirmation response being indicative of a function corresponding to an application and the function confirmation response causing the display screen of the other wireless communication apparatus to display the wireless communication apparatus and content data, and wherein the wireless communication apparatus and the other wireless communication apparatus are configured to start the connection process in response to a selection of the wireless communication apparatus by a user, characterized in that the wireless communication apparatus is further configured to perform the function according to a process type, when a notification of the process type is received from the other wireless communication device along with the pieces of content data, wherein the wireless communication apparatus is configured to display the content data received from the wireless communication apparatus without selection by the user, if the process type indicates displaying. a communication control unit configured to transmit a discovery response to a discovery request received from another wireless communication apparatus and to control a connection process to the other wireless communication apparatus, wherein the discovery response includes a function confirmation response to a function confirmation request included in the discovery request received from the other wireless communication apparatus, the function confirmation response being indicative of a function corresponding to an application and the function confirmation response causing the display screen of the other wireless communication apparatus to display the wireless communication apparatus and content data, and wherein the wireless communication apparatus and the other wireless communication apparatus are configured to start the connection process in response to a selection of the wireless communication apparatus by a user, characterized in that the wireless communication apparatus is further configured to perform the function according to a process type, when a notification of the process type is received from the other wireless communication device along with the pieces of content data, wherein the wireless communication apparatus is configured to display the content data received from the wireless communication apparatus without selection by the user, if the process type indicates displaying.
A method performed by a user equipment, UE, for active network measurement, the method comprising: sending one or more first test packets to a node, wherein the first test packets are not boosted for improved Quality of Service, QoS; receiving one or more first reflected packets from the node; calculating preliminary results based at least in part on the received first reflected packets; sending one or more second test packets to the node, wherein the second test packets are boosted for improved QoS; receiving one or more second reflected packets from the node; and calculating test results based at least in part on the received second reflected packets and the preliminary results. sending one or more first test packets to a node, wherein the first test packets are not boosted for improved Quality of Service, QoS; receiving one or more first reflected packets from the node; calculating preliminary results based at least in part on the received first reflected packets; sending one or more second test packets to the node, wherein the second test packets are boosted for improved QoS; receiving one or more second reflected packets from the node; and calculating test results based at least in part on the received second reflected packets and the preliminary results.
A computer-implemented method, comprising: identifying a plurality of genetic communities, each genetic community comprising individuals identified based on values of single nucleotide polymorphisms (SNPs) of the individuals; receiving metadata about some of the individuals who belong to one or more of the plurality of genetic communities; identifying a target trait derived from the metadata, wherein the target trait is a phenotype; performing, for the target trait, an enrichment analysis among the plurality of genetic communities to identify one or more genetic communities in which the target trait is enriched, the target trait being enriched in a particular genetic community indicating that the target trait is statistically more likely to be present among the members of the particular genetic community compared to other genetic communities in which the target trait is not enriched; outputting a result derived from the enrichment analysis; performing an association study of the target trait using genetic data of the individuals in one of the genetic communities in which the target trait is enriched to identify one or more genetic loci that are associated with the target trait; receiving a genetic dataset of a target individual, the genetic dataset including values of SNPs of the target individual; and predicting whether the target individual possesses the target trait based on values of the SNPs of the target individual in the identified one or more genetic loci. identifying a plurality of genetic communities, each genetic community comprising individuals identified based on values of single nucleotide polymorphisms (SNPs) of the individuals; receiving metadata about some of the individuals who belong to one or more of the plurality of genetic communities; identifying a target trait derived from the metadata, wherein the target trait is a phenotype; performing, for the target trait, an enrichment analysis among the plurality of genetic communities to identify one or more genetic communities in which the target trait is enriched, the target trait being enriched in a particular genetic community indicating that the target trait is statistically more likely to be present among the members of the particular genetic community compared to other genetic communities in which the target trait is not enriched; outputting a result derived from the enrichment analysis; performing an association study of the target trait using genetic data of the individuals in one of the genetic communities in which the target trait is enriched to identify one or more genetic loci that are associated with the target trait; receiving a genetic dataset of a target individual, the genetic dataset including values of SNPs of the target individual; and predicting whether the target individual possesses the target trait based on values of the SNPs of the target individual in the identified one or more genetic loci.
Stator part of an impact mill, attached to an inner surface of an impact mill housing wall, comprising a plurality of reusable stator tools (32, 33), which are indirectly detachable attached to the impact mill housing wall distributed along the inner surface, wherein the stator tools (32, 33) are opposite a plurality of rotor tool knives of a rotatable rotor part within the impact mill housing at a defined distance, are actively connected to the rotor tool knives, so that an intermediate grinding chamber is formed,characterized in that the stator part comprises at least one spring element with spring element recesses, wherein at least one spring element is attached circumferential along the inner circumference of the impact mill housing, and wherein the stator part has an upper retaining plate designed as a ring plate with a plural of stator tool recesses, facing at least one spring element and having a lower retaining plate on the side opposite to at least one spring element in the interior of the impact mill housing with a plurality of stator tool recesses, so that the stator tools (32, 33) are placed in spring element recesses of at least one spring element and the stator tool recesses (310, 310') in the upper retaining plate and of the lower retaining plate are replaceably mounted within the impact mill housing.
A method of manufacturing a 4H-SiC epiwafer comprising an epitaxial SiC film on a single-crystal 4H-SiC substrate, the method comprising: a. loading the single-crystal 4H-SiC substrate onto a susceptor in a reaction cell of a warm wall CVD system; b. heating the system by controlling a temperature of the susceptor in the reaction cell to a range from 1500°C to 1620°C; and c. executing a manufacturing run to produce the 4H-SiC epiwafer, the manufacturing run comprising supplying a gas flow parallel to a surface of the single-crystal 4H-SiC substrate, such that a total gas velocity is in a range from 120 to 250 cm/sec and controlling a pressure inside the reaction cell to a range from 100 to 150 mbar, wherein the gas flow comprises a mixture of hydrogen gas, silicon gas, and carbon gas, in order to produce the epitaxial SiC film on the single-crystal 4H-SiC substrate; wherein step 1 (a) is preceded by pre-treating the reaction cell, the pre-treating comprising: a. loading a sacrificial substrate onto the susceptor in the reaction cell; b. sealing and evacuating the reaction cell; c. purging the reaction cell using inert and hydrogen gases; d. baking the reaction cell at a temperature in the range 1400°C to 1700°C while flowing hydrogen gas mixed with 1% to 10% hydrocarbon gas; e. performing a CVD deposition process so as to deposit an SiC film on the sidewall and ceiling of the reaction cell; and f. removing the sacrificial substrate from the reaction cell. a. loading the single-crystal 4H-SiC substrate onto a susceptor in a reaction cell of a warm wall CVD system; b. heating the system by controlling a temperature of the susceptor in the reaction cell to a range from 1500°C to 1620°C; and c. executing a manufacturing run to produce the 4H-SiC epiwafer, the manufacturing run comprising supplying a gas flow parallel to a surface of the single-crystal 4H-SiC substrate, such that a total gas velocity is in a range from 120 to 250 cm/sec and controlling a pressure inside the reaction cell to a range from 100 to 150 mbar, wherein the gas flow comprises a mixture of hydrogen gas, silicon gas, and carbon gas, in order to produce the epitaxial SiC film on the single-crystal 4H-SiC substrate; a. loading a sacrificial substrate onto the susceptor in the reaction cell; b. sealing and evacuating the reaction cell; c. purging the reaction cell using inert and hydrogen gases; d. baking the reaction cell at a temperature in the range 1400°C to 1700°C while flowing hydrogen gas mixed with 1% to 10% hydrocarbon gas; e. performing a CVD deposition process so as to deposit an SiC film on the sidewall and ceiling of the reaction cell; and f. removing the sacrificial substrate from the reaction cell.
A method for sending an enhanced downlink control channel, comprising: presetting a multiplexing unit, wherein the multiplexing unit comprises at least one resource block pair, each resource block pair comprises enhanced physical downlink control channel, E-PDCCH, resources and demodulation reference, DM RS, resources, the E-PDCCH resources comprise multiple control channel elements, and an allocation pattern of the control channel elements in the multiplexing unit is bound to a DM RS port; and sending at least one E-PDCCH corresponding to at least one user equipment, UE, in at least one control channel element of the preset multiplexing unit, and sending a DM RS corresponding to the at least one UE on the DM RS resources of the preset multiplexing unit. presetting a multiplexing unit, wherein the multiplexing unit comprises at least one resource block pair, each resource block pair comprises enhanced physical downlink control channel, E-PDCCH, resources and demodulation reference, DM RS, resources, the E-PDCCH resources comprise multiple control channel elements, and an allocation pattern of the control channel elements in the multiplexing unit is bound to a DM RS port; and sending at least one E-PDCCH corresponding to at least one user equipment, UE, in at least one control channel element of the preset multiplexing unit, and sending a DM RS corresponding to the at least one UE on the DM RS resources of the preset multiplexing unit.
An exhaust pipe for the exhaust gas system of an internal combustion engine, wherein the exhaust pipe has an inlet opening for an air connection and an inner pipe section that is surrounded by an outer pipe section in order to form an annular duct, which is designed to be closed at one end and open at the other end toward the internal volume of the exhaust pipe, wherein the inlet opening for the air connection is integrated into the outer pipe section, characterized in that at least one flow guiding element for producing a swirling flow of the exhaust gas is arranged in the inner pipe section, wherein the flow guiding element is configured in the shape of a deformed section of a pipe wall of the inner pipe section.
An apparatus for microscopic processing of samples, including: a base (102; 308) rotatable around a rotation axis; multiple tools, including at least one charged particle beam tool (210; 305;506) that is configured to operate with the sample at less than atmospheric pressure, each tool including a working area, the working areas being positioned on a tool circle centered substantially on the rotation axis; characterized by a plurality of recesses (306; 503) in the base for holding samples (108; 302; 504; 706), the recesses positioned along a base circle centered on the rotation axis and equal in diameter to the tool circle such that the base is rotatable to position the plurality of recesses within the working areas of the multiple tools; the charged particle beam tool including a vacuum chamber forming with the base a sliding vacuum seal such that a sample in a recess can rotate into and out of the vacuum chamber of the at least one charged particle beam tool and be maintained in a vacuum while the tool is operating; and at least one of the multiple tools is configured to process a sample in an atmospheric environment. a base (102; 308) rotatable around a rotation axis; multiple tools, including at least one charged particle beam tool (210; 305;506) that is configured to operate with the sample at less than atmospheric pressure, each tool including a working area, the working areas being positioned on a tool circle centered substantially on the rotation axis; characterized by a plurality of recesses (306; 503) in the base for holding samples (108; 302; 504; 706), the recesses positioned along a base circle centered on the rotation axis and equal in diameter to the tool circle such that the base is rotatable to position the plurality of recesses within the working areas of the multiple tools; the charged particle beam tool including a vacuum chamber forming with the base a sliding vacuum seal such that a sample in a recess can rotate into and out of the vacuum chamber of the at least one charged particle beam tool and be maintained in a vacuum while the tool is operating; and at least one of the multiple tools is configured to process a sample in an atmospheric environment.
Flexible packaging for solid waste, having a capacity of greater than 5 m 3, consisting of a mechanically resistant outer envelope and an inner envelope, the inner envelope and the outer envelope each defining a pocket (7, 3) and each comprising a lid (8, 4) that can be closed over the corresponding pocket (7, 3) by means of closure means, characterized in that the inner envelope is dust-proof, and in that the packaging further comprises at least one flap (9, 26, 27) extending from the upper peripheral edge of the pocket of the inner envelope, the flap (9, 26, 27) being interposed between the lid of the inner envelope and the lid of the outer envelope when the packaging is closed, the flap (9, 26, 27) being dimensioned so as to cover the closure means of the inner lid and being provided with means for attachment to the inner lid in its position covering the closure means so as to seal the closure of the inner lid on the inner pocket.
A method comprising: performing Return To Zero shaping for a first modulator whose output corresponds to a first polarization component using a first two digital-to-analog convertors (DACs), each of the first two DACs sampled at at least twice a modulation symbol rate and having an output with a first interleaving order that interleaves one of a first pair of intended drive signal patterns and zeros, wherein each of the first two DACs are sampled within a first half of a symbol period Ts with a nonzero drive signal and are sampled within a second half of Ts with a drive signal about equal to zero; performing RZ shaping for a second modulator whose output corresponds to a second polarization component using a second two DACs, each of the second two DACs sampled at at least twice the modulation symbol rate and having an output with a second interleaving order that interleaves zeros and one of a second pair of intended drive signal patterns, the second interleaving order being opposite to the first interleaving order, wherein each of the second two DACs are sampled within the first half of Ts with a drive signal about equal to zero and are sampled within the second half of Ts with a nonzero drive signal. performing Return To Zero shaping for a first modulator whose output corresponds to a first polarization component using a first two digital-to-analog convertors (DACs), each of the first two DACs sampled at at least twice a modulation symbol rate and having an output with a first interleaving order that interleaves one of a first pair of intended drive signal patterns and zeros, wherein each of the first two DACs are sampled within a first half of a symbol period Ts with a nonzero drive signal and are sampled within a second half of Ts with a drive signal about equal to zero; performing RZ shaping for a second modulator whose output corresponds to a second polarization component using a second two DACs, each of the second two DACs sampled at at least twice the modulation symbol rate and having an output with a second interleaving order that interleaves zeros and one of a second pair of intended drive signal patterns, the second interleaving order being opposite to the first interleaving order, wherein each of the second two DACs are sampled within the first half of Ts with a drive signal about equal to zero and are sampled within the second half of Ts with a nonzero drive signal.
An electronic component comprising: a component main body of which an outer shape is a rectangular parallelepiped; a plurality of terminals (3, 103) configured to fit in terminal fittings (4, 104), with front end portions of the plurality of terminals (3, 103) extending along at least one of lateral faces (2c - 2f) of the component main body, and with each said front end portion of each said terminal (3, 103) not extending beyond the associated one of the lateral faces (2c - 2f) of the component main body when viewed in a direction perpendicular to the associated one of the lateral faces (2c - 2f), characterized by a resin member configured to hold the plurality of terminals (3, 103) and be attached to a top face of the component main body, wherein the plurality of terminals (3, 103) bends perpendicularly inside the resin member. a component main body of which an outer shape is a rectangular parallelepiped; a plurality of terminals (3, 103) configured to fit in terminal fittings (4, 104), with front end portions of the plurality of terminals (3, 103) extending along at least one of lateral faces (2c - 2f) of the component main body, and with each said front end portion of each said terminal (3, 103) not extending beyond the associated one of the lateral faces (2c - 2f) of the component main body when viewed in a direction perpendicular to the associated one of the lateral faces (2c - 2f), characterized by a resin member configured to hold the plurality of terminals (3, 103) and be attached to a top face of the component main body, wherein the plurality of terminals (3, 103) bends perpendicularly inside the resin member.