mhurhangee/ep-ind-claims huggingface dataset:
Intermittent rotating gluing-flanging machine for large format multiform metal caps, being intended to flange metal caps by stamping and then gluing said caps in proximity to the perimeter contour thereof, comprising an upper platform as a working table provided at its center with a cap-holder rotating disk with intermittent rotation and equipped with several radial windows into which respective caps are housed, four symmetrical and complementary workstations being provided around the rotating disk and placed with an offset angle of 90° there between, which include: - a feeder device that individually deposits the caps in each of the radial windows of rotating disk when the respective radial window is faced with such a feeder device; - a flanging device that deforms by stamping the cap in order to configure its final geometry by modifying the perimeter profile in such a cap; - a gluing device that fills the perimeter channel with an injected rubber material; - an evacuation device that removes the caps after being glued; characterized in that it further comprises means for transmitting synchronized motions, through which the rotating disk rotates with stops at four workstations in order to simultaneously perform different operations on the respective caps that are arranged in correspondence with such workstations, at least some of these four work operations being also carried out through the synchronized transmission means having continuous motion wherein the means for transmitting synchronized motions are based on a motor element which transmits its motion to a camshaft and the rotation of the latter is transmitted to an indexer by using a chain coupled to a lower pinion integral with said camshaft and an upper pinion integral with a side shaft of the indexer, this including an upper shaft that transmits motion to the cap-holder rotating disk. - a feeder device that individually deposits the caps in each of the radial windows of rotating disk when the respective radial window is faced with such a feeder device; - a flanging device that deforms by stamping the cap in order to configure its final geometry by modifying the perimeter profile in such a cap; - a gluing device that fills the perimeter channel with an injected rubber material; - an evacuation device that removes the caps after being glued;
A beam combiner, included in a laser system, comprising: an array of source elements, each source element, of the array of source elements, being configured to output a beam of light locked at a center wavelength different from center wavelengths of other source elements of the array of source elements, wherein each source element comprises or is coupled to a laser gain element; a dispersive element configured to combine the beams of light into a combined beam; a beam separator configured to separate the combined beam exiting the dispersive element into an output beam and a locking beam, the locking beam comprising a smaller portion of the combined beam than the output beam, the smaller portion including a portion of the beam of light of each source element; a spatial filter configured to prevent crosstalk within the locking beam, and to redirect the locking beam back through the beam separator, the dispersive element and to the array of source elements; and the dispersive element configured to disperse the locking beam into constituent wavelength beams, each constituent wavelength beam being directed to a respective one of the array of source elements for locking that source element at its center wavelength, and each constituent wavelength beam corresponding in wavelength to the center wavelength of the respective source element. an array of source elements, each source element, of the array of source elements, being configured to output a beam of light locked at a center wavelength different from center wavelengths of other source elements of the array of source elements, wherein each source element comprises or is coupled to a laser gain element; a dispersive element configured to combine the beams of light into a combined beam; a beam separator configured to separate the combined beam exiting the dispersive element into an output beam and a locking beam, the locking beam comprising a smaller portion of the combined beam than the output beam, the smaller portion including a portion of the beam of light of each source element; a spatial filter configured to prevent crosstalk within the locking beam, and to redirect the locking beam back through the beam separator, the dispersive element and to the array of source elements; and the dispersive element configured to disperse the locking beam into constituent wavelength beams, each constituent wavelength beam being directed to a respective one of the array of source elements for locking that source element at its center wavelength, and each constituent wavelength beam corresponding in wavelength to the center wavelength of the respective source element. each constituent wavelength beam being directed to a respective one of the array of source elements for locking that source element at its center wavelength, and each constituent wavelength beam corresponding in wavelength to the center wavelength of the respective source element.
Water disinfection system, comprising a bidirectional water disinfection device, having a UV light generator (13, 14) for the UV treatment of water, a water pipe (82, 81), having a first pipe portion, a second pipe portion and a third pipe portion which branches off between the first and the second pipe portion, wherein the water disinfection device has a first water connection and a second water connection, wherein the first water connection is connected to the first pipe portion, wherein the second water connection is connectable to a water reservoir, wherein the second pipe portion is connectable to a water source, wherein the third pipe portion is connectable to a tap for water; wherein the bidirectional water disinfection device is adapted for being flown through in a first direction during filling of the reservoir in a first mode of operation; wherein the bidirectional water disinfection device is adapted for being flown through in a second direction which is counter to the first direction, during water drawing from the reservoir in a second mode of operation; wherein a higher light intensity is producible in the UV light generator in the first mode of operation than in the second mode of operation.
A noise damper for compressed-air systems, in particular for brake systems of utility vehicles, comprising a housing (3, 4) having an inlet channel for a compressed-air flow and a chamber to accommodate noise-damping material, the inlet channel and the chamber being separated perpendicular to the compressed-air flow by a separating plate that is closed in a central region and has a plurality of openings in an outer peripheral region of the compressed-air flow in order to introduce the compressed air directly into the chamber, characterised in that the cross section of the plurality of openings in the separating plate broadens out along the compressed-air flow into the chamber; and the housing (3, 4) has a shoulder region at the level of the chamber such that the cross-sectional surface of the chamber along the compressed-air flow is larger than that of inlet channel.
An organic light emitting diode device comprising: a first light emitting part between an anode and a cathode, the first light emitting part including a first light emitting layer; a second light emitting part comprising a second light emitting layer on the first light emitting part; and a first charge generation layer between the first light emitting part and the second light emitting part, wherein the first charge generation layer comprises at least two hosts, and at least one of the at least two hosts including a pyrene compound indicated by the following Chemical Formula 1: wherein each of p, q, r, and s is 0, 1 or an integer that satisfies 1≤p+q+r+s≤4, and Ar 1, Ar 2, Ar 3, and Ar 4 are independently at least one among the following structures: wherein at least one of X 1 to X 6, at least one of X 7 to X 14, at least one of X 15 to X 22, at least one of X 23 to X 32, and at least one of X 33 to X 42 comprise at least one among C, N, S, and O, and R 1, R 2, R 3, R 4, and R 5 are independently at least one among substituted or unsubstituted alkyl, aryl, hetero aryl, aromatic, hetero aromatic, aryl amine, and hetero aryl amine compounds, wherein the first charge generation layer comprises an N-type charge generation layer and a P-type charge generation layer, characterized in that: the N-type charge generation layer comprises at least two hosts including the said pyrene compound of Chemical Formula 1 and a dopant. a first light emitting part between an anode and a cathode, the first light emitting part including a first light emitting layer; a second light emitting part comprising a second light emitting layer on the first light emitting part; and a first charge generation layer between the first light emitting part and the second light emitting part, wherein the first charge generation layer comprises at least two hosts, and at least one of the at least two hosts including a pyrene compound indicated by the following Chemical Formula 1: wherein each of p, q, r, and s is 0, 1 or an integer that satisfies 1≤p+q+r+s≤4, and Ar 1, Ar 2, Ar 3, and Ar 4 are independently at least one among the following structures: wherein at least one of X 1 to X 6, at least one of X 7 to X 14, at least one of X 15 to X 22, at least one of X 23 to X 32, and at least one of X 33 to X 42 comprise at least one among C, N, S, and O, and R 1, R 2, R 3, R 4, and R 5 are independently at least one among substituted or unsubstituted alkyl, aryl, hetero aryl, aromatic, hetero aromatic, aryl amine, and hetero aryl amine compounds, wherein the first charge generation layer comprises an N-type charge generation layer and a P-type charge generation layer, characterized in that: the N-type charge generation layer comprises at least two hosts including the said pyrene compound of Chemical Formula 1 and a dopant.
A welding tip milling device, comprising a milling head with at least one milling blade, which can be set in rotation by a drive mechanism, wherein at least one sensor is located in the area of the milling blade, characterised in that the drive mechanism is started by the sensor, when the sensor formed as a copper sensor detects a welding tip with predominant copper content.
A method for wireless communications, comprising: generating an integrity check value for at least one information element, IE, to be encapsulated in an integrity protected information element, IE; and transmitting a message comprising the at least one integrity protected IE and the integrity check value; wherein each of said at least one IE is comprised of an identifier, ID, field, a length field and a body field; characterized in that the integrity protected IE encapsulates a plurality of IEs and the integrity check value. generating an integrity check value for at least one information element, IE, to be encapsulated in an integrity protected information element, IE; and transmitting a message comprising the at least one integrity protected IE and the integrity check value; wherein each of said at least one IE is comprised of an identifier, ID, field, a length field and a body field; characterized in that the integrity protected IE encapsulates a plurality of IEs and the integrity check value.
An alloy member having a chemical composition comprising elements of Co, Cr, Fe, Ni, and Ti each in an amount within a range of 5 atomic% or more and 35 atomic% or less and Mo in an amount within a range of more than 0 atomic% and 8 atomic% or less, the reminder consisting of unavoidable impurities, wherein ultrafine grains having an average grain diameter of 100 nm or less are dispersed and precipitated in a parent phase crystal grain, wherein the average crystal grain diameter of the parent phase crystal grain is 100 μm or less, and wherein the alloy member is exposed to microscopic observation using STEM-EDX to determine its parameters. the average crystal grain diameter of the parent phase crystal grain is 100 μm or less, and wherein the alloy member is exposed to microscopic observation using STEM-EDX to determine its parameters.
A stretched nonwoven nanoweb comprising polymer nanofibers, said web having a Poisson Ratio as defined and measured according to the method of the description of less than 0.8, a solidity of at least 20%, a basis weight of at least 1 gsm, a thickness of at least 1 μm, a tensile modulus in the machine direction as measured according to the method of the description of at least 69 MPa, and a tensile strength at break in the machine direction as measured according to the methode of the description of at least 4.1 MPa, wherein the nonwoven nanoweb is a nonwoven web comprising primarily fibers that have a number average diameter of less than 1 micrometer, and wherein the nanoweb is formed by a process comprising calendering a polymeric nanoweb between a nip between a first roll and a second roll and applying a pressure to the web across the thickness of the web, in which one of the first roll and the second roll is a hard roll, the other roll being a soft roll having a hardness less than Rockwell B 50, and heating the web to a temperature between the glass transition temperaure T g of the nanoweb polymer and its temperature of the onset melting as defined in the description T om, wherein the calendered nanoweb has less than 15% by area in the plane of the web comprising melted regions.
An oil diffusion pump, configured that an oil vapor generator is arranged in a jet provided in a casing, the oil vapor generator is operated to heat a hydraulic oil to produce oil vapor, and the oil vapor in the jet is sprayed from the jet to exhaust an intake air in a high vacuum, wherein: the oil vapor generator comprises an object to be heated, characterized in that the oil vapor generator further comprises an induction coil arranged near the object to be heated in an electrically insulated way, and a power supply means for applying an alternating current to the induction coil; wherein the object to be heated and induction coil are installed in the casing such that a part or all thereof is immersed in the hydraulic oil stored in the casing; and the power supply means is operated to heat the object to be heated and vaporize the hydraulic oil. the oil vapor generator comprises an object to be heated, characterized in that the oil vapor generator further comprises an induction coil arranged near the object to be heated in an electrically insulated way, and a power supply means for applying an alternating current to the induction coil; an induction coil arranged near the object to be heated in an electrically insulated way, and a power supply means for applying an alternating current to the induction coil; wherein the object to be heated and induction coil are installed in the casing such that a part or all thereof is immersed in the hydraulic oil stored in the casing; and the power supply means is operated to heat the object to be heated and vaporize the hydraulic oil.
A method for carrier aggregation in beamformed wireless communications, the method comprising: receiving, at a user equipment, UE, and from a base station, a component carrier grouping indication that indicates that a plurality of component carriers are partitioned into one or more groups with at least one of the one or more groups comprising multiple component carriers, each component carrier within a group using a same transmit beam, the component carrier grouping indication further mapping a group identifier for at least one of the one or more groups to a beam identifier that identifies the corresponding transmit beam; and receiving one or more transmissions from the base station relating to UE communication on at least one of the one or more groups using one of the transmit beams corresponding to the at least one of the one or more groups. receiving, at a user equipment, UE, and from a base station, a component carrier grouping indication that indicates that a plurality of component carriers are partitioned into one or more groups with at least one of the one or more groups comprising multiple component carriers, each component carrier within a group using a same transmit beam, the component carrier grouping indication further mapping a group identifier for at least one of the one or more groups to a beam identifier that identifies the corresponding transmit beam; and receiving one or more transmissions from the base station relating to UE communication on at least one of the one or more groups using one of the transmit beams corresponding to the at least one of the one or more groups.
A machine arrangement for the sequential processing of sheet-type substrates having multiple different processing stations, wherein two of the processing stations arranged along the transport path of the substrates each have at least one non-impact printing unit (06; 37) for printing each of the substrates configured as an inkjet printing device, wherein processing stations having the non-impact printing units (06; 37) each have a printing cylinder (22; 38), wherein the first printing cylinder (22; 38) in the transport direction of the substrates is configured triple-sized or quadruple-sized, wherein a plurality of inkjet printing devices is arranged successively along a portion of the circumference of the first printing cylinder (22; 38), wherein the second printing cylinder in the transport direction of the substrates is configured triple-sized or quadruple-sized, wherein a plurality of inkjet printing devices is arranged successively along a portion of the circumference of the second printing cylinder, wherein in each case a plurality of substrates are arranged or at least can be arranged in tandem on the lateral surface of the respective printing cylinder (22; 38) in each case in circumferential direction, wherein the respective printing cylinder (22; 38) in each case has on its circumference at least so many holding elements that three or four substrates are arranged or at least can be arranged one behind the other on its circumference, each being held in force-fitting and/or form-fitting manner, wherein in the transport direction of the relevant substrates in each case a processing station with a dryer for drying the relevant substrates printed with the non-impact printing unit (06; 37) is arranged after the respective processing station with the respective non-impact printing unit (06; 37) printing the substrates, wherein the dryer to dry the substrates printed respectively on the front side with the relevant non-impact printing unit and/or the dryer to dry the substrates printed respectively on the rear side with the relevant non-impact printing unit is or are configured as a dryer drying the relevant printed substrates respectively by a radiation with ultraviolet radiation, wherein a turning device is arranged between the first printing cylinder and the second printing cylinder, characterized in that the respective printing cylinder (22; 38) is respectively configured as a suction cylinder, wherein in each case the supply of suction air to the relevant printing cylinder (22; 38) is or at least can be switched on and off in each case dependent on an angular position of this printing cylinder (22; 38).
A method of reducing the heat loss in a heated sheet metal workpiece when the workpiece is displaced from a furnace to a processing tool, comprising the steps: that the workpiece is removed from the furnace by a carrier device, and is displaced to the processing tool, in which it is inserted, characterised in that the carrier device and the workpiece are brought to a position substantially internally in an enclosure with a heat reflecting inner side, that the enclosure and the carrier device with the workpiece are moved to the processing tool, where the carrier device is exposed from the enclosure and the workpiece is inserted in the processing tool, wherein the carrier device is displaced into and out of the furnace and to the interior of the enclosure by means of a first prime mover, and wherein the first prime mover moves through an elongate opening in the upper side of the enclosure. that the workpiece is removed from the furnace by a carrier device, and is displaced to the processing tool, in which it is inserted, characterised in that the carrier device and the workpiece are brought to a position substantially internally in an enclosure with a heat reflecting inner side, that the enclosure and the carrier device with the workpiece are moved to the processing tool, where the carrier device is exposed from the enclosure and the workpiece is inserted in the processing tool, wherein the carrier device is displaced into and out of the furnace and to the interior of the enclosure by means of a first prime mover, and wherein the first prime mover moves through an elongate opening in the upper side of the enclosure.
An LED lighting assembly for a vehicle headlight comprising: a reflector unit comprising a plurality of reflector regions (1 1_lo, 11_hi) and an aperture; an LED carrier disposed in the aperture of the reflector unit; at least one LED arrangement (2_lo, 2_hi) on the LED carrier, the at least one LED arrangement (2_lo, 2_hi) having an optical center; and a first positioning part (10X, 10Y, 10Z, 10R) on the LED carrier and a second positioning part (11X, 11Y, 11Z, 11R) on the reflector unit, wherein the aperture is dimensioned to allow the LED carrier to be arranged in the aperture of the reflector unit with a forward movement (d fore) to insert the LED carrier through the aperture and a further sideways displacement (d side) perpendicular to the forward movement (d fore) direction of the LED carrier to initially align the first (10X, 10Y, 10Z, 10R) and second positioning parts (11X, 11Y, 11Z, 11R), wherein the first positioning part (10X, 10Y, 10Z, 10R) and the second positioning part (11X, 11Y, 11Z, 11R) being complimentary to position the LED carrier relative to the reflector unit, the first positioning part (10X, 10Y, 10Z, 10R) and the second positioning part (11X, 11Y, 11Z, 11R) being in the same plane as the optical centre of the LED arrangement (2_lo, 2_hi). a reflector unit comprising a plurality of reflector regions (1 1_lo, 11_hi) and an aperture; an LED carrier disposed in the aperture of the reflector unit; at least one LED arrangement (2_lo, 2_hi) on the LED carrier, the at least one LED arrangement (2_lo, 2_hi) having an optical center; and a first positioning part (10X, 10Y, 10Z, 10R) on the LED carrier and a second positioning part (11X, 11Y, 11Z, 11R) on the reflector unit, wherein the aperture is dimensioned to allow the LED carrier to be arranged in the aperture of the reflector unit with a forward movement (d fore) to insert the LED carrier through the aperture and a further sideways displacement (d side) perpendicular to the forward movement (d fore) direction of the LED carrier to initially align the first (10X, 10Y, 10Z, 10R) and second positioning parts (11X, 11Y, 11Z, 11R), wherein the first positioning part (10X, 10Y, 10Z, 10R) and the second positioning part (11X, 11Y, 11Z, 11R) being complimentary to position the LED carrier relative to the reflector unit, the first positioning part (10X, 10Y, 10Z, 10R) and the second positioning part (11X, 11Y, 11Z, 11R) being in the same plane as the optical centre of the LED arrangement (2_lo, 2_hi).