mhurhangee/ep-ind-claims huggingface dataset:
A kit comprising first and second frit materials (15a-d, 17a-b) for use in forming an edge seal for a vacuum insulating glass window unit, wherein: the first frit material (15a-d) comprises at least 65% bismuth oxide, by weight, the first frit material (15a-d) being fusable to glass when the glass reaches a first temperature of 550 degrees C or higher, and the second frit material (17a-b) comprises vanadium oxide, barium oxide, and zinc oxide, in amounts that total at least 65% by weight, the second frit being structured to form a bond with the first frit material (15a-d) in making the edge seal for the VIG window unit and being meltable when the glass reaches at a second temperature of no more than 400 degrees C, the first frit material (15a-d) being wettable at the second temperature. the first frit material (15a-d) comprises at least 65% bismuth oxide, by weight, the first frit material (15a-d) being fusable to glass when the glass reaches a first temperature of 550 degrees C or higher, and the second frit material (17a-b) comprises vanadium oxide, barium oxide, and zinc oxide, in amounts that total at least 65% by weight, the second frit being structured to form a bond with the first frit material (15a-d) in making the edge seal for the VIG window unit and being meltable when the glass reaches at a second temperature of no more than 400 degrees C, the first frit material (15a-d) being wettable at the second temperature.
A device for intermediate fastening between an aircraft fuselage and a right landing gear and a left landing gear of an aircraft, each landing gear being adapted to pivot around at least one main shaft and to be hinged around at least one stay joint, to enable the extension or the retraction of the gear and comprising a leg bearing wheels which is linked to the main shaft and a stay linking the leg to the stay joint, the intermediate fastening device being composed of a right support structure and a left support structure, said support structures each comprising first support means intended to receive said at least one main shaft and second support means intended to receive said at least one stay joint of the right, respectively left, landing gear, the right support structure and the left support structure being linked together by a central box structure intended to be transverse to a longitudinal axis of the aircraft once mounted on said aircraft, the central box structure comprising a front wall, a rear wall and linking walls linking those two walls.
Use of a copolymer emulsion prepared by an emulsion polymerization process comprising: (a) polymerizing, in a first stage and under ethylene pressure, a first monomer composition comprising from 60 weight percent to 95 weight percent of at least one vinyl ester, and from 5 weight percent to 40 weight percent ethylene to produce a first stage product having a glass transition temperature T g of less than 25 °C; and (b) polymerizing, in a second stage and in the presence of said first stage product, a second monomer composition such that the polymer produced by said second monomer composition has a glass transition temperature T g of at least 95 °C, wherein the glass transition temperatures T g are calculated according to the Flox Flory equation, as wood protection paint. (a) polymerizing, in a first stage and under ethylene pressure, a first monomer composition comprising from 60 weight percent to 95 weight percent of at least one vinyl ester, and from 5 weight percent to 40 weight percent ethylene to produce a first stage product having a glass transition temperature T g of less than 25 °C; and (b) polymerizing, in a second stage and in the presence of said first stage product, a second monomer composition such that the polymer produced by said second monomer composition has a glass transition temperature T g of at least 95 °C,
A network of a plurality of scales, in particular store scales, wherein the scales each have an input device; and wherein a sales process can be carried out at each scale which comprises placing a product onto the scale, inputting an identification number of the product and inputting a user code associated with a respective user, characterized in that, in the case of two directly consecutive sales processes using the same user code first at a first scale and subsequently at a second scale, the network is configured to detect the time interval between the two sales processes and to compare it with a predefined threshold value and to trigger a predefined response of the network if the detected time interval is equal to or smaller than the threshold value.
Fault arc detection unit for a low-voltage AC circuit, - comprising at least one Rogowski coil for ascertaining the electric current level of a conductor of the low-voltage AC circuit, which Rogowski coil outputs an analogue voltage that is equivalent to the electric current level of the conductor, - comprising at least one voltage sensor for ascertaining the level of the voltage of the conductor of the low-voltage AC circuit, - comprising a microprocessor that carries out a fault arc detection with the ascertained current level and voltage level of the low-voltage AC circuit and, when at least one limit value is exceeded, outputs a fault arc detection signal (SLES), characterized in that the Rogowski coil is connected to an analogue integrator that is followed by an analogue-digital converter that converts the integrated analogue voltage (uc(t)) into a digital signal that is processed further by the microprocessor in such a way that the phase shift generated by the Rogowski coil and by components that follow the Rogowski coil is compensated for, so that correct-phase current values (ip(t)) are ascertained and used for the fault arc detection. - comprising at least one Rogowski coil for ascertaining the electric current level of a conductor of the low-voltage AC circuit, which Rogowski coil outputs an analogue voltage that is equivalent to the electric current level of the conductor, - comprising at least one voltage sensor for ascertaining the level of the voltage of the conductor of the low-voltage AC circuit, - comprising a microprocessor that carries out a fault arc detection with the ascertained current level and voltage level of the low-voltage AC circuit and, when at least one limit value is exceeded, outputs a fault arc detection signal (SLES),
A communication circuit for communication at a carrier frequency via multiple antenna elements (5a-d) of a radio apparatus, comprising a plurality of radio units (15a-d), wherein each radio unit (15a-d) of said plurality of radio units (15a-d) is arranged to be connected to a separate antenna element (5a-d); and a local oscillator, LO, signal generation unit arranged to generate a plurality of LO signals (LOa-d) at distinct frequencies (f LOa -f LOd), and supply a unique LO signal (LOa-d) of the plurality of LO signals (LOa-d) to each radio unit (15a-d) of the plurality of radio units (15a-d); wherein the radio units (15a-d) are receiver units (15a-d), and the LO signals (LOa-d) are supplied to down-conversion mixers (220a-d) of the respective receiver units (15a-d); and the communication circuit comprises a baseband processing unit configured to receive baseband output signals from the receiver units (15a-d); characterized in that the baseband processing unit is configured to frequency align the baseband output signals; and recombine the frequency-aligned baseband output signals; and in that the communication circuit is configured to be used in a radio communications system having an associated frequency grid with a grid spacing (d), wherein the spacing between any two of the distinct frequencies (f LOa -f LOd) is an integer multiple of the grid spacing (d). a plurality of radio units (15a-d), wherein each radio unit (15a-d) of said plurality of radio units (15a-d) is arranged to be connected to a separate antenna element (5a-d); and a local oscillator, LO, signal generation unit arranged to generate a plurality of LO signals (LOa-d) at distinct frequencies (f LOa -f LOd), and supply a unique LO signal (LOa-d) of the plurality of LO signals (LOa-d) to each radio unit (15a-d) of the plurality of radio units (15a-d); wherein the radio units (15a-d) are receiver units (15a-d), and the LO signals (LOa-d) are supplied to down-conversion mixers (220a-d) of the respective receiver units (15a-d); and the communication circuit comprises a baseband processing unit configured to receive baseband output signals from the receiver units (15a-d); characterized in that the baseband processing unit is configured to frequency align the baseband output signals; and recombine the frequency-aligned baseband output signals; frequency align the baseband output signals; and recombine the frequency-aligned baseband output signals; and in that the communication circuit is configured to be used in a radio communications system having an associated frequency grid with a grid spacing (d), wherein the spacing between any two of the distinct frequencies (f LOa -f LOd) is an integer multiple of the grid spacing (d).
(Currently amended) A computer-implemented method for providing increased scalability in deduplication storage systems, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: identifying a database (120, 122) that stores a plurality of reference objects, wherein each reference object within the database identifies both: at least one unique file segment stored in a deduplication storage system; and for each unique file segment, whether one or more backed-up files within the deduplication storage system currently reference the unique file segment; determining that at least one size-related characteristic of the database has reached a predetermined threshold; partitioning the database into a plurality of sub-databases (126 -) capable of being updated independent of one another; identifying a request to perform an update operation that updates one or more reference objects stored within at least one sub-database; performing the update operation on less than all of the sub-databases to avoid processing costs associated with performing the update operation on all of the sub-databases. identifying a database (120, 122) that stores a plurality of reference objects, wherein each reference object within the database identifies both: at least one unique file segment stored in a deduplication storage system; and for each unique file segment, whether one or more backed-up files within the deduplication storage system currently reference the unique file segment; at least one unique file segment stored in a deduplication storage system; and for each unique file segment, whether one or more backed-up files within the deduplication storage system currently reference the unique file segment; determining that at least one size-related characteristic of the database has reached a predetermined threshold; partitioning the database into a plurality of sub-databases (126 -) capable of being updated independent of one another; identifying a request to perform an update operation that updates one or more reference objects stored within at least one sub-database; performing the update operation on less than all of the sub-databases to avoid processing costs associated with performing the update operation on all of the sub-databases.
A method performed by a wireless device for reporting Channel State Information, CSI, the wireless device being comprised in a wireless communications system, the method comprising: - receiving a CSI process configuration and a request for CSI information from a network node; characterized in that the method further comprises: - reporting CSI for one or more CSI processes in a subframe, n, wherein the CSI is determined such as to reflect the state of the channel for a CSI reference resource and wherein the CSI reference resource is determined to be n CQI_ref number of subframes prior to the subframe n and wherein n CQI_ref is based on the number of configured CSI-RS resources. - receiving a CSI process configuration and a request for CSI information from a network node; - reporting CSI for one or more CSI processes in a subframe, n, wherein the CSI is determined such as to reflect the state of the channel for a CSI reference resource and wherein the CSI reference resource is determined to be n CQI_ref number of subframes prior to the subframe n and wherein n CQI_ref is based on the number of configured CSI-RS resources.
Road finisher, comprising an operator's stand platform on which at least one operator's seat arranged on a seat console is provided, the seat console being adjustable on the operator's stand platform between different, respectively locked working positions (A1, A2), wherein a locking device with a lock bolt is provided for the seat console, the lock bolt being shiftable by means of a movably mounted pivot lever which comprises both at least one actuating end with a foot pedal and an adjusting end acting on the lock bolt between a disengaged position and an engaged position relative to at least one bolt receptacle defining the respective working position, the pivot lever being an integrally formed part of sheet steel whose adjusting and shifting ends (19, 20) are flat strip steel arms defining a lever plane perpendicular to an axis of a pivot bearing of the pivot lever, the pivot lever having the foot pedal at the adjustng end in form of a bend approximately right-angled with respect to the lever plane, characterized in that the pivot lever comprises at the adjusting end as an engagement member being approximately parallel with respect to the lever plane either at least one spoon-like widening with an outer contour which partially follows a circular arc, or two congruent widenings in a fork structure, wherein the lock bolt displaceably guided in the adjusting direction comprises an upper and a lower stop for the adjusting end of the pivot lever, between which either one engagement member engages with only one outer side of the lock bolt or both engagement members of the fork structure of the pivot lever engage with opposing outer sides of the lock bolt.
A blowing-suction device comprising: a housing having a first opening in communication with the outside; an air pipe connected to the housing and having a pipe orifice in communication with the outside; and an airflow generation device operably generating airflow; wherein when the blowing-suction device is in a blowing mode, the airflow enters the housing from the first opening and is blown out from the pipe orifice, and when the blowing-suction device is in a suction mode, the airflow enters the air pipe from the pipe orifice and is blown out from the first opening; and wherein the airflow generation device comprises a fan rotatable around a fan axis and a motor for driving the fan to rotate, wherein when the blowing-suction device is in the blowing mode, the fan rotates along a first direction; and when the blowing-suction device is in the suction mode, the fan rotates along a second direction; characterized in that the blowing-suction device comprises one control switch that controls the rotation direction of the motor, the control switch selectively controlling the motor to rotate along the first or second direction, wherein the control switch has at least 3 operating positions, in the first operating position, the control switch controls the motor to rotate along the first direction, in the second operating position, the control switch stops rotation of the motor, and in the third operating position, the control switch controls the motor to rotate along the second direction. a housing having a first opening in communication with the outside; an air pipe connected to the housing and having a pipe orifice in communication with the outside; and an airflow generation device operably generating airflow; wherein when the blowing-suction device is in a blowing mode, the airflow enters the housing from the first opening and is blown out from the pipe orifice, and when the blowing-suction device is in a suction mode, the airflow enters the air pipe from the pipe orifice and is blown out from the first opening; and wherein the airflow generation device comprises a fan rotatable around a fan axis and a motor for driving the fan to rotate, wherein when the blowing-suction device is in the blowing mode, the fan rotates along a first direction; and when the blowing-suction device is in the suction mode, the fan rotates along a second direction; characterized in that the blowing-suction device comprises one control switch that controls the rotation direction of the motor, the control switch selectively controlling the motor to rotate along the first or second direction, wherein the control switch has at least 3 operating positions, in the first operating position, the control switch controls the motor to rotate along the first direction, in the second operating position, the control switch stops rotation of the motor, and in the third operating position, the control switch controls the motor to rotate along the second direction.
A computer-implemented method for self-localization of an autonomous driving vehicle, the method comprising: measuring a first distance between a frontend of an autonomous driving vehicle and a left edge of a lane in which the ADV is driving based on a first image captured by a first camera mounted on a first location of the frontend of the ADV; measuring a second distance between the frontend of the ADV and a right edge of the lane based on a second image captured by a second camera mounted on a second location of the frontend of the ADV; measuring a third distance between a backend of the ADV and the left edge of the lane based on a third image captured by a third camera mounted on a third location of the backend of the ADV; measuring a fourth distance between the backend of the ADV and the right edge of the lane based on a fourth image captured by a fourth camera mounted on a fourth location of the backend of the ADV; and determining a local relative position of the ADV within the lane based on the first distance, the second distance, the third distance, and the fourth distance, wherein determining a local relative position of the ADV within the lane comprises calculating an angle between a heading direction of the ADV and a center line of the lane based on the first distance and the third distance or based on the second distance and the fourth distance in view of a physical dimension of the ADV. measuring a first distance between a frontend of an autonomous driving vehicle and a left edge of a lane in which the ADV is driving based on a first image captured by a first camera mounted on a first location of the frontend of the ADV; measuring a second distance between the frontend of the ADV and a right edge of the lane based on a second image captured by a second camera mounted on a second location of the frontend of the ADV; measuring a third distance between a backend of the ADV and the left edge of the lane based on a third image captured by a third camera mounted on a third location of the backend of the ADV; measuring a fourth distance between the backend of the ADV and the right edge of the lane based on a fourth image captured by a fourth camera mounted on a fourth location of the backend of the ADV; and determining a local relative position of the ADV within the lane based on the first distance, the second distance, the third distance, and the fourth distance, wherein determining a local relative position of the ADV within the lane comprises calculating an angle between a heading direction of the ADV and a center line of the lane based on the first distance and the third distance or based on the second distance and the fourth distance in view of a physical dimension of the ADV.
A cooling system comprising: a cooling structural body including a heat radiating part having a mounting surface (2a, 5a) on which an electronic component is directly or indirectly mounted, a medium flow path, included in the cooling structural body, through which a medium can flow is provided in the heat radiating part; and a medium flow supply part configured to allow a medium to flow in the medium flow path of the cooling structural body, characterized in that the cooling structural body is disposed in a sealed space, and a first guide pipe part configured to guide the medium to the medium flow path positioned in the sealed space and a second guide pipe part configured to guide the medium from the medium flow path to an outside of the sealed space are provided. a cooling structural body including a heat radiating part having a mounting surface (2a, 5a) on which an electronic component is directly or indirectly mounted, a medium flow path, included in the cooling structural body, through which a medium can flow is provided in the heat radiating part; and a medium flow supply part configured to allow a medium to flow in the medium flow path of the cooling structural body, characterized in that the cooling structural body is disposed in a sealed space, and a first guide pipe part configured to guide the medium to the medium flow path positioned in the sealed space and a second guide pipe part configured to guide the medium from the medium flow path to an outside of the sealed space are provided.
A polymer electrolyte membrane for fuel cells, comprising a fluorine-based cation exchange resin having proton conductivity and fibrous nanoparticles having a hydrophilic group, wherein the fibrous nanoparticles having a hydrophilic group have a diameter of 10 to 200 nm and a length of 1 to 20 μm, wherein the fibrous nanoparticles having a hydrophilic group are cellulose-based nanofibers, wherein a hydroxyl group of the cellulose-based nanofibers is present in an amount of 5 to 90% with respect to a total site of the hydroxyl group, wherein the fibrous nanoparticles having a hydrophilic group are prepared using a microfluidizer, and wherein the fluorine-based cation exchange resin having proton conductivity is a polymer having, at a side chain thereof, at least one cation exchange group selected from the group consisting of a sulfonic acid group, a carboxylic acid group, a phosphoric acid group, a phosphonic acid group, and derivatives thereof. wherein the fibrous nanoparticles having a hydrophilic group have a diameter of 10 to 200 nm and a length of 1 to 20 μm, wherein the fibrous nanoparticles having a hydrophilic group are cellulose-based nanofibers, wherein a hydroxyl group of the cellulose-based nanofibers is present in an amount of 5 to 90% with respect to a total site of the hydroxyl group, wherein the fibrous nanoparticles having a hydrophilic group are prepared using a microfluidizer, and wherein the fluorine-based cation exchange resin having proton conductivity is a polymer having, at a side chain thereof, at least one cation exchange group selected from the group consisting of a sulfonic acid group, a carboxylic acid group, a phosphoric acid group, a phosphonic acid group, and derivatives thereof.