mhurhangee/ep-ind-claims huggingface dataset:
Floor-cleaning machine comprising a carriage with wheels for driving over a floor surface to be cleaned, comprising a suction device with a suction point which is arranged on the side of the carriage which points towards the floor surface to be worked on and comprising a coupling device for connecting an additional device (31, 31', 31 ") to the floor-cleaning machine, wherein the additional device (31, 31', 31 ") comprises a coupling plate running during operation parallel to the floor surface to be worked on, wherein the coupling plate comprises a connection opening and wherein the additional device (31, 31', 31 ") is designed to be moved in one direction of movement over the floor surface to be worked on, wherein the coupling device comprises a coupling element which can be adjusted in height relative to the carriage, wherein the coupling element is designed as a connection plate running essentially parallel to the plane defined by the wheels, wherein the connection plate has a through opening from which the suction point extends to the carriage, characterised in that on the lateral edges of the connection plate as viewed in the direction of movement of the floor-cleaning machine engaging elements are provided for engaging with the coupling plate of the additional device (31, 31', 31"), in that the additional device (31, 31', 31") can be coupled to the floor cleaning machine such that the coupling plate is pushed onto the connection plate, wherein then the through opening and the connection opening are aligned to one another so that by pushing on the additional device (31, 31', 31") it is connected directly to the suction point.
A method of a User Equipment, in the following referred to as UE. characterised by comprising: receiving an indication from a base station about a power related information of which UE beam and/or UE beam combination is to be reported; and transmitting the power related information to the base station, the power related information corresponding to a specific UE beam and/or a specific UE combination of multiple UE beams that were indicated by the base station. receiving an indication from a base station about a power related information of which UE beam and/or UE beam combination is to be reported; and transmitting the power related information to the base station, the power related information corresponding to a specific UE beam and/or a specific UE combination of multiple UE beams that were indicated by the base station.
A photocurable inkjet ink, comprising a monofunctional polymerizable monomer component comprising a monofunctional polymerizable monomer (a-1) having a condensed cyclic hydrocarbon group or polycyclic hydrocarbon group, and a monofunctional polymerizable monomer (a-2) having a non-aromatic monocyclic hydrocarbon group, and a polymerization initiator.
A zoom lens system comprising, in order from the object side along an optical axis: a first lens group having positive refractive power; a second lens group having negative refractive power; one lens group having positive refractive power; and an n-th lens group being disposed on the most image side, wherein zooming from a wide-angle end state to a telephoto end state is carried out by moving respective lens groups, and wherein the n-th lens group with positive refractive power includes, in order from the object side, a front group (G4a) and a rear group (G4b) having positive refractive power, whereby the rear group (G4b) is movable along the optical axis for focusing on the object, and the following conditional expression is satisfied: 0.05 < D / fNb < 0.50 where D denotes a distance along the optical axis between the most image side surface of the front group (G4a) and the most object side surface of the rear group (G4b), and fNb denotes a focal length of the rear group (G4b). a first lens group having positive refractive power; a second lens group having negative refractive power; one lens group having positive refractive power; and an n-th lens group being disposed on the most image side, wherein zooming from a wide-angle end state to a telephoto end state is carried out by moving respective lens groups, and wherein the n-th lens group with positive refractive power includes, in order from the object side, a front group (G4a) and a rear group (G4b) having positive refractive power, whereby the rear group (G4b) is movable along the optical axis for focusing on the object, and the following conditional expression is satisfied: 0.05 < D / fNb < 0.50 where D denotes a distance along the optical axis between the most image side surface of the front group (G4a) and the most object side surface of the rear group (G4b), and fNb denotes a focal length of the rear group (G4b).
A launcher platform comprising: a support structure structured and arranged to be elevated and rotated and including a top plate; and a plurality of rails (40, 42, 44, 46, 48, 50) mounted on the support structure for supporting missiles (32, 34) thereon, including selected rails (42, 48) elevated above the other rails (40, 44, 46, 50) to accommodate additional missiles and different type missiles while maintaining a low center of gravity, each selected rail (42, 48) being offset rearwardly from the other rails (40, 44, 46, 50), and the selected rails (42, 48) being elevated to a height where the fins on the missiles on the plurality of rails (40, 42, 44, 46, 48, 50) are able to be interleaved. a support structure structured and arranged to be elevated and rotated and including a top plate; and a plurality of rails (40, 42, 44, 46, 48, 50) mounted on the support structure for supporting missiles (32, 34) thereon, including selected rails (42, 48) elevated above the other rails (40, 44, 46, 50) to accommodate additional missiles and different type missiles while maintaining a low center of gravity, each selected rail (42, 48) being offset rearwardly from the other rails (40, 44, 46, 50), and the selected rails (42, 48) being elevated to a height where the fins on the missiles on the plurality of rails (40, 42, 44, 46, 48, 50) are able to be interleaved.
A system for locating geographic data sorted in parcels on physical storage media, wherein the geographic data is located in a geographic database that is organized by parcels of one or more tiles bounded by lines of constant latitude or constant longitude in a world tile grid segmenting a world map into tiles of constant latitude or constant longitude, wherein the geographic database is organized as a collection of parcels such that the data in the geographic database is stored on the physical storage media by parcel, wherein each parcel has a parcel boundary defined based on the world tile grid, and wherein each parcel contains the data for one or more tiles in the world tile grid, the system comprising: a software application configured to receive a request for geographic data, wherein the request includes information that the software application uses to identify a tile in the world tile grid that contains the requested geographic data and to obtain a tile identification of this tile; a spatial index organized as a two-dimensional sparse array indexed by a tile's row and column in the world tile grid wherein each entry in the spatial index is a media address of the parcel containing the corresponding tile, wherein the software application is configured to provide the tile identification to the spatial index and the spatial index is configured to use the tile identification to identify a row and a column associated with the tile, and wherein the spatial index is configured to use the row and the column to identify a parcel location at the corresponding media address on the physical storage media that contains the requested geographic data contained in the corresponding required tile. a software application configured to receive a request for geographic data, wherein the request includes information that the software application uses to identify a tile in the world tile grid that contains the requested geographic data and to obtain a tile identification of this tile; a spatial index organized as a two-dimensional sparse array indexed by a tile's row and column in the world tile grid wherein each entry in the spatial index is a media address of the parcel containing the corresponding tile, wherein the software application is configured to provide the tile identification to the spatial index and the spatial index is configured to use the tile identification to identify a row and a column associated with the tile, and wherein the spatial index is configured to use the row and the column to identify a parcel location at the corresponding media address on the physical storage media that contains the requested geographic data contained in the corresponding required tile.
An ink station assembly for a can decorator machine structured to decorate a plurality of cans, the ink station assembly comprising: an ink fountain structured to provide a supply of ink; a fountain roll structured to receive said ink from the ink fountain; a distributor roll; a ductor roll being cooperable with the fountain roll and the distributor roll to transfer said ink from the fountain roll to the distributor roll; a number of oscillator rolls (210, 212) each having a longitudinal axis and being structured to oscillate back and forth along said longitudinal axis; a number of transfer rolls (218, 220) each cooperating with at least one of the oscillator rolls; and a printing plate cylinder including a printing plate; the ink station assembly being characterized by a single form roll cooperating with the printing plate cylinder to apply said ink to the printing plate; wherein the single form roll has a first diameter, and the printing plate cylinder has a second diameter; wherein the first diameter of the single form roll is greater than the second diameter of the printing plate cylinder; wherein the total number of rolls within the ink station assembly is nine. an ink fountain structured to provide a supply of ink; a fountain roll structured to receive said ink from the ink fountain; a distributor roll; a ductor roll being cooperable with the fountain roll and the distributor roll to transfer said ink from the fountain roll to the distributor roll; a number of oscillator rolls (210, 212) each having a longitudinal axis and being structured to oscillate back and forth along said longitudinal axis; a number of transfer rolls (218, 220) each cooperating with at least one of the oscillator rolls; and a printing plate cylinder including a printing plate; the ink station assembly being characterized by a single form roll cooperating with the printing plate cylinder to apply said ink to the printing plate; wherein the single form roll has a first diameter, and the printing plate cylinder has a second diameter; wherein the first diameter of the single form roll is greater than the second diameter of the printing plate cylinder; wherein the total number of rolls within the ink station assembly is nine.
A process for the manufacturing of 1,4:3,6-dianhydrohexitol di(alkyl carbonate)s of formula with a concentration of oligomers lower than 14% and which purity is higher than 85%: where each R independently represents a linear or branched alkyl group, preferably a C 1 -C 6 alkyl group, in particular a methyl or ethyl group, said process comprising the steps of: a) Preparing a reaction mixture consisting of at least one dianhydrohexitol selected from the group consisting of isosorbide, isomannide and isoidide, at least 2 molar equivalents with respect to the amount of dianhydrohexitol present, of at least one dialkyl carbonate of formula R-O-C(=O)-O-R, where R has the same meaning indicated above, and from 0.01 to 0.05 molar equivalents of a transesterification catalyst with respect to the amount of dianhydrohexitol present; and b) Heating the reaction mixture up to its reflux temperature in a reactor equipped with a rectification column comprising a number of theoretical distillation plates sufficient to separate continuously from the reaction mixture by fractional distillation the alcohol obtained or the azeotrope which the alcohol forms with the dialkyl carbonate present in the reaction mixture. a) Preparing a reaction mixture consisting of at least one dianhydrohexitol selected from the group consisting of isosorbide, isomannide and isoidide, at least 2 molar equivalents with respect to the amount of dianhydrohexitol present, of at least one dialkyl carbonate of formula R-O-C(=O)-O-R, where R has the same meaning indicated above, and from 0.01 to 0.05 molar equivalents of a transesterification catalyst with respect to the amount of dianhydrohexitol present; and b) Heating the reaction mixture up to its reflux temperature in a reactor equipped with a rectification column comprising a number of theoretical distillation plates sufficient to separate continuously from the reaction mixture by fractional distillation the alcohol obtained or the azeotrope which the alcohol forms with the dialkyl carbonate present in the reaction mixture.
Self-propelled wrapping machine movable around a load to wrap the latter with a film made of plastic material in a wrapping cycle, comprising a self-propelled carriage and a upright fixed to said carriage and slidably supporting an unwinding unit provided at least with a reel of film, characterized in that it comprises: - an anchoring element; - a first gripping unit that is supported by, an connected to, said carriage, and is movable and arranged to hold and unwind an initial flap of film from said unwinding unit in an initial step of said wrapping cycle; and - a second gripping unit that is supported by, an connected to, said carriage, and is movable and arranged to position and release the anchoring element on said initial flap of film unwound from said first gripping unit, in said initial step of said wrapping cycle, so as to fix said initial flap of film to a supporting plane on which said self-propelled wrapping machine is movable, the second gripping unit being furthermore arranged to grasp and lift said anchoring element from said supporting plane so as to disengage it from said initial flap of film after at least one turn of said self-propelled wrapping machine around said load wrapping the latter with said film supplied by said unwinding unit. - an anchoring element; - a first gripping unit that is supported by, an connected to, said carriage, and is movable and arranged to hold and unwind an initial flap of film from said unwinding unit in an initial step of said wrapping cycle; and - a second gripping unit that is supported by, an connected to, said carriage, and is movable and arranged to position and release the anchoring element on said initial flap of film unwound from said first gripping unit, in said initial step of said wrapping cycle, so as to fix said initial flap of film to a supporting plane on which said self-propelled wrapping machine is movable, the second gripping unit being furthermore arranged to grasp and lift said anchoring element from said supporting plane so as to disengage it from said initial flap of film after at least one turn of said self-propelled wrapping machine around said load wrapping the latter with said film supplied by said unwinding unit.
A method of controlling a robot cleaner, the method comprising: obtaining map information for a cleaning area; dividing the cleaning area into a plurality of zones based on the obtained map information; based on a user input for setting a cleaning schedule, providing user interfaces configured to receive a cleaning order, a cleaning time, and a cleaning period for the plurality of zones; receiving the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; transmitting, to the robot cleaner, information on the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; and performing, by the robot cleaner, cleaning of the cleaning area based on the information about the cleaning order, the cleaning time, and the cleaning period for the plurality of zones, wherein the method further comprises, in response to reaching a zone in which cleaning is not performable during the performing of cleaning on the cleaning area, the robot cleaner moving to a zone that is assigned next in the cleaning order to the zone in which cleaning is not performable. obtaining map information for a cleaning area; dividing the cleaning area into a plurality of zones based on the obtained map information; based on a user input for setting a cleaning schedule, providing user interfaces configured to receive a cleaning order, a cleaning time, and a cleaning period for the plurality of zones; receiving the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; transmitting, to the robot cleaner, information on the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; and performing, by the robot cleaner, cleaning of the cleaning area based on the information about the cleaning order, the cleaning time, and the cleaning period for the plurality of zones, wherein the method further comprises, in response to reaching a zone in which cleaning is not performable during the performing of cleaning on the cleaning area, the robot cleaner moving to a zone that is assigned next in the cleaning order to the zone in which cleaning is not performable.
An acoustic test apparatus for verifying operation of an acoustic emission sensor coupled to a process control device, the acoustic test apparatus comprising: an acoustic source adapted to be acoustically coupled to the process control device, the acoustic source configured to generate an acoustic signal; and a processor configured to: receive, from the acoustic emission sensor, a measured acoustic signal measured at the acoustic emission sensor corresponding to the generated acoustic signal, compare the measured generated acoustic signal to a baseline acoustic signal, and determine an operational condition of the acoustic emission sensor based on the measured acoustic signal and the comparison of the measured generated acoustic signal to the baseline acoustic signal; the acoustic test apparatus being characterized in that the acoustic source includes a haptic motor, wherein the haptic motor is overmolded in a polymer. an acoustic source adapted to be acoustically coupled to the process control device, the acoustic source configured to generate an acoustic signal; and a processor configured to: receive, from the acoustic emission sensor, a measured acoustic signal measured at the acoustic emission sensor corresponding to the generated acoustic signal, compare the measured generated acoustic signal to a baseline acoustic signal, and determine an operational condition of the acoustic emission sensor based on the measured acoustic signal and the comparison of the measured generated acoustic signal to the baseline acoustic signal; receive, from the acoustic emission sensor, a measured acoustic signal measured at the acoustic emission sensor corresponding to the generated acoustic signal, compare the measured generated acoustic signal to a baseline acoustic signal, and determine an operational condition of the acoustic emission sensor based on the measured acoustic signal and the comparison of the measured generated acoustic signal to the baseline acoustic signal; the acoustic test apparatus being characterized in that the acoustic source includes a haptic motor, wherein the haptic motor is overmolded in a polymer.
A method of wireless communications, comprising: receiving (1010; 1110), by a wireless communication device, one or more downlink control information, DCI, transmissions including a plurality of transmit power control, TPC, commands, the plurality of TPC commands relating to an uplink channel transmit power for a plurality of uplink beam-pairs, wherein the plurality of uplink beam-pairs are associated with at least one physical uplink shared channel, PUSCH and at least one physical uplink control channel, PUCCH; and wherein a first TPC command, of the plurality of TPC commands, corresponds to the PUSCH; and a second TPC command, of the plurality of TPC commands, corresponds to the PUCCH; and determining (1020; 1120), by the wireless communication device, the uplink channel transmit power for the plurality of uplink beam-pairs based at least in part on the plurality of TPC commands. receiving (1010; 1110), by a wireless communication device, one or more downlink control information, DCI, transmissions including a plurality of transmit power control, TPC, commands, the plurality of TPC commands relating to an uplink channel transmit power for a plurality of uplink beam-pairs, wherein the plurality of uplink beam-pairs are associated with at least one physical uplink shared channel, PUSCH and at least one physical uplink control channel, PUCCH; and wherein a first TPC command, of the plurality of TPC commands, corresponds to the PUSCH; and a second TPC command, of the plurality of TPC commands, corresponds to the PUCCH; and determining (1020; 1120), by the wireless communication device, the uplink channel transmit power for the plurality of uplink beam-pairs based at least in part on the plurality of TPC commands.
An in vitro method for enriching for one of more target DNA molecule from a sample of mixed DNA molecules comprising the steps of: a) providing a liquid sample of mixed DNA molecules comprising one or more Specific target DNA molecule and reagents for genera! amplification of DNA, b) formation of a multiple of liquid droplets each comprising mixed DNA molecules from said liquid sample, c) general amplification of the mixed DNA molecules in the multiple of droplets, wherein each droplet contains less than 0.5, preferably less than 0.25 or even more preferably less than 0.1 of said one of more target DNA molecule on average, d) specific detection of said one or more target DNA molecules in droplets containing at least one of said target DNA molecules, and e) physically selecting droplets containing at feast one of said target DNA molecules, wherein the frequency of the target DNA molecule compared to its frequency in the sample of mixed DNA molecules in step (a) is increased between 0.1 x (number of droplets without target DNA) x (number of droplets with target DNA) -1 and 10 x (number of droplets without target DNA) x (number of droplets with target DNA) -1. a) providing a liquid sample of mixed DNA molecules comprising one or more Specific target DNA molecule and reagents for genera! amplification of DNA, b) formation of a multiple of liquid droplets each comprising mixed DNA molecules from said liquid sample, c) general amplification of the mixed DNA molecules in the multiple of droplets, wherein each droplet contains less than 0.5, preferably less than 0.25 or even more preferably less than 0.1 of said one of more target DNA molecule on average, d) specific detection of said one or more target DNA molecules in droplets containing at least one of said target DNA molecules, and e) physically selecting droplets containing at feast one of said target DNA molecules, wherein the frequency of the target DNA molecule compared to its frequency in the sample of mixed DNA molecules in step (a) is increased between 0.1 x (number of droplets without target DNA) x (number of droplets with target DNA) -1 and 10 x (number of droplets without target DNA) x (number of droplets with target DNA) -1.