mhurhangee/ep-ind-claims huggingface dataset:
A printer comprising: a load station to load one or more substrates; two platens (22, 24), each platen movably connected to an opposite side of said printer and adapted to receive the one or more substrates (26, 150); a platen transport system operatively connected to said load station, the platen transport system adapted to move said first and second platens in the printer independently; an alignment station adapted to align the one or more substrates (26, 150) on said first and second platens (22, 24); a print station adapted to print on the one or more substrate (26, 150) on said first and second platens (22, 24); and an unload station adapted to unload the one or more substrates (26, 150) from said first and second platens (22, 24), wherein said transport system comprises means configured to simultaneously: a. move said first platen in a horizontal direction from said load station through said alignment station and said print station to said unload station; and b. move said second platen in an opposite horizontal direction from said unload station to said load station; and means for moving said first and second platens (22, 24) in a vertical direction to avoid interference; and characterized in that said unload station comprises a gripper mounted on a slanted plane and movable along said slanted plane. a load station to load one or more substrates; two platens (22, 24), each platen movably connected to an opposite side of said printer and adapted to receive the one or more substrates (26, 150); a platen transport system operatively connected to said load station, the platen transport system adapted to move said first and second platens in the printer independently; an alignment station adapted to align the one or more substrates (26, 150) on said first and second platens (22, 24); a print station adapted to print on the one or more substrate (26, 150) on said first and second platens (22, 24); and an unload station adapted to unload the one or more substrates (26, 150) from said first and second platens (22, 24), a. move said first platen in a horizontal direction from said load station through said alignment station and said print station to said unload station; and b. move said second platen in an opposite horizontal direction from said unload station to said load station; and
A three-dimensionally formed structural member, comprising: a first cover layer made of a metallic material; a second cover layer made of a metallic material; a core layer made of a foam material and being arranged between the first cover layer and the second cover layer, wherein the core layer has a density in a range between 35 kg/m 3 and 750 kg/m 3; wherein the structural member is temperature-resistant at a temperature of 180°C, characterized in that the structural member further comprises an adhesive material (108, 110) adhering the foam material to the first cover layer and/or adhering the foam material to the second cover layer; wherein the adhesive material (108, 110) has a melting point above 180°C. a first cover layer made of a metallic material; a second cover layer made of a metallic material; a core layer made of a foam material and being arranged between the first cover layer and the second cover layer, wherein the core layer has a density in a range between 35 kg/m 3 and 750 kg/m 3; wherein the structural member is temperature-resistant at a temperature of 180°C, an adhesive material (108, 110) adhering the foam material to the first cover layer and/or adhering the foam material to the second cover layer; wherein the adhesive material (108, 110) has a melting point above 180°C.
One or more machine-readable storage media having stored therein a plurality of instructions that, when executed, cause a compute device to: establish a virtual network function on the compute device to perform a network function, wherein the virtual network function comprises a plurality of virtual network function components that communicate with each other; read one or more packets communicated between the virtual network function components; perform a security threat assessment on the one or more packets communicated between the virtual network function components; and transmit the security threat assessment to a security compute device; wherein the plurality of instructions, when executed, further cause the compute device to perform a remediation action on the one or more packets in response to the security threat assessment, wherein the remediation action varies based on the security threat. establish a virtual network function on the compute device to perform a network function, wherein the virtual network function comprises a plurality of virtual network function components that communicate with each other; read one or more packets communicated between the virtual network function components; perform a security threat assessment on the one or more packets communicated between the virtual network function components; and transmit the security threat assessment to a security compute device; wherein the plurality of instructions, when executed, further cause the compute device to perform a remediation action on the one or more packets in response to the security threat assessment, wherein the remediation action varies based on the security threat.
An isolated nucleic acid which is any of: (a) the nucleotide sequence as set forth in Figure 2 and encoding feline paramyxovirus of the genus Morbillivirus (FmoPV) FmoPV 761U; (b) the nucleotide sequence of Figure 3 and encoding FmoPV 776U; (c) the nucleotide sequence of Figure 4 and encoding FmoPV M252A; (d) a nucleotide sequence of the same length as the nucleotide sequence of (a), (b) or (c) which is at least 85% identical therewith and encoding immunogenic or antigenic FmoPV; (e) fragments of (a), (b), (c) or (d) which are at least 25 contiguous nucleotides thereof and encoding immunogenic or antigenic FmoPV polypeptide; (f) complements of (a), (b), (c), (d) or (e). (a) the nucleotide sequence as set forth in Figure 2 and encoding feline paramyxovirus of the genus Morbillivirus (FmoPV) FmoPV 761U; (b) the nucleotide sequence of Figure 3 and encoding FmoPV 776U; (c) the nucleotide sequence of Figure 4 and encoding FmoPV M252A; (d) a nucleotide sequence of the same length as the nucleotide sequence of (a), (b) or (c) which is at least 85% identical therewith and encoding immunogenic or antigenic FmoPV; (e) fragments of (a), (b), (c) or (d) which are at least 25 contiguous nucleotides thereof and encoding immunogenic or antigenic FmoPV polypeptide; (f) complements of (a), (b), (c), (d) or (e).
A steering robot for the automated actuation of a steering wheel of a vehicle having a drive unit which comprises a housing; a motor supported in the housing; and a coupling apparatus for transmitting a drive torque of the motor to the steering wheel; and having a support apparatus which is configured to anchor the housing of the drive unit in a fixed position in the vehicle, wherein the support apparatus is configured to downwardly support the housing of the drive unit, characterized in that the support apparatus comprises at least one support element which is formed by a beam-like carrier; whose longitudinal extent extends within a vertical plane comprising an axis of rotation of the steering wheel; which is arranged centrally beneath the steering wheel and which is fastened to a base plate of the steering robot such that reaction torques acting on the housing of the drive unit on an automated actuation of the steering wheel are led off to the base plate along the support apparatus within the vertical plane comprising the axis of rotation of the steering wheel.
A method for analyzing a urine sample comprising the steps of: preparing a measurement sample by mixing the urine sample, a first reagent containing a fluorescent dye capable of staining nucleic acid and, a second reagent containing acetic acid and/or a salt thereof as an antiseptic agent, obtaining optical information by irradiating urinary particles contained in the measurement sample obtained in the preparation step with light, and detecting at least sperms and yeast-like fungi as urinary particles on the basis of the optical information obtained in the obtention step. preparing a measurement sample by mixing the urine sample, a first reagent containing a fluorescent dye capable of staining nucleic acid and, a second reagent containing acetic acid and/or a salt thereof as an antiseptic agent, obtaining optical information by irradiating urinary particles contained in the measurement sample obtained in the preparation step with light, and detecting at least sperms and yeast-like fungi as urinary particles on the basis of the optical information obtained in the obtention step.
Process for laser cutting a workpiece of electric strip material by means of a laser beam, wherein the laser beam follows a contour on a surface of the workpiece that is facing the laser beam and thereby produces a cutting gap, characterized in that a laser beam output, a focus diameter and an advancement of the laser beam are chosen such that a compressive expansion of the vaporizing electric strip material is produced in the region of action of the laser beam to eject from the cutting gap at least 60% of the electric strip material that is melted by the laser beam, for which purpose a beam output of more than 1500 W and less than 30 000 W, a focus diameter of between 100 μm and 600 μm and an advancing rate of the laser beam of more than 500 m/min and less than 1500 m/min are set.
Apparatus for the production of cast web of homogenized tobacco material, said casting system comprising • a casting box adapted to contain a slurry of said homogenized tobacco material and from which a cast web of said slurry may be cast; • a plurality of drying sections adapted to dry said cast web; • a movable support to receive the cast web formed by casting said slurry from said casting box and to transport it to said first drying section; • characterized in that it also comprises: • a drum adapted to move said movable support and adapted to allow heat exchange between said drum and said movable support; and • first temperature control means to cool said drum so that a temperature difference between a temperature of said movable support at a position where said cast web is received onto said support from said casting box and a temperature of said slurry in said casting box is comprised between 0 degree Celsius and about 30 degrees Celsius. • a casting box adapted to contain a slurry of said homogenized tobacco material and from which a cast web of said slurry may be cast; • a plurality of drying sections adapted to dry said cast web; • a movable support to receive the cast web formed by casting said slurry from said casting box and to transport it to said first drying section; • characterized in that it also comprises: • a drum adapted to move said movable support and adapted to allow heat exchange between said drum and said movable support; and • first temperature control means to cool said drum so that a temperature difference between a temperature of said movable support at a position where said cast web is received onto said support from said casting box and a temperature of said slurry in said casting box is comprised between 0 degree Celsius and about 30 degrees Celsius. • a drum adapted to move said movable support and adapted to allow heat exchange between said drum and said movable support; and • first temperature control means to cool said drum so that a temperature difference between a temperature of said movable support at a position where said cast web is received onto said support from said casting box and a temperature of said slurry in said casting box is comprised between 0 degree Celsius and about 30 degrees Celsius.
A display route creation method comprising: a route determination step in which route determination means determines a route based on a departure point and a destination set on a map; a directional sign information extraction step (SP3, SP4) in which read means reads out directional sign information existing on the route from map information storage means; and a route creation step in which merging means merges a display image portion indicating the road direction included in the directional sign information and the route to create a display route in which the route and display image portion are integrated with each other, characterized in that the directional sign information is data including the same display images as those on directional signs installed along the route or concrete content of the directional signs, such that the display image portion is the same as the actual direction signs viewed when travelling along the route, wherein a plurality of directional signs is installed at one intersection on the route, and the route creation step merges plurality of directional sign information from all directional signs installed at the intersection on the route to generate directional sign display information at the intersection and integrates the display image portion of the generated directional sign display information with the route. a route determination step in which route determination means determines a route based on a departure point and a destination set on a map; a directional sign information extraction step (SP3, SP4) in which read means reads out directional sign information existing on the route from map information storage means; and a route creation step in which merging means merges a display image portion indicating the road direction included in the directional sign information and the route to create a display route in which the route and display image portion are integrated with each other, characterized in that the directional sign information is data including the same display images as those on directional signs installed along the route or concrete content of the directional signs, such that the display image portion is the same as the actual direction signs viewed when travelling along the route, wherein a plurality of directional signs is installed at one intersection on the route, and the route creation step merges plurality of directional sign information from all directional signs installed at the intersection on the route to generate directional sign display information at the intersection and integrates the display image portion of the generated directional sign display information with the route.
A chemical complex for oxidative dehydrogenation of lower alkanes, the chemical complex comprising in cooperative arrangement: i) at least two mixers for premixing an oxygen containing gas and a lower alkane containing gas to produce a mixed feedstock stream and additionally comprising a cleaning loop; and ii) at least one oxidative dehydrogenation reactor; wherein the at least two mixers are connected in parallel to the at least one oxidative dehydrogenation reactor so that either a first gas mixing unit or a second gas mixing unit is connected to the at least one oxidative dehydrogenation reactor during normal operations; and wherein an oxidative dehydrogenation catalyst contained within the at least one oxidative dehydrogenation reactor reacts with the mixed feed stock stream to produce a product stream comprising the corresponding alkene. i) at least two mixers for premixing an oxygen containing gas and a lower alkane containing gas to produce a mixed feedstock stream and additionally comprising a cleaning loop; and ii) at least one oxidative dehydrogenation reactor;
Method for manufacturing a synthetic stone for a timepiece from a mineral body of monocrystalline type, the stone comprising a hole, said method comprising an ablation step in which the body is subjected to the ablation of material by scanning at least one face of the body with ultra-short pulse laser radiation for a duration of less than one hundred picoseconds, and the ray of which is guided by precession system of at least three axes configured to at least partially cancel the conical focusing angle of said laser, the laser ablation step comprising the recessing of an entrance cone of the hole.
Thermodynamic cycle device (100, 200, 300), in particular an ORC device, comprising: a preheater for preheating a working medium; an evaporator for evaporating and superheating a first mass flow of the preheated working medium; and a volumetric expansion machine for expanding the evaporated and superheated first mass flow of the working medium; a condenser for condensing the working medium exiting said expansion machine; and a feed pump for pumping condensed working medium to said preheater; characterized by a first supply apparatus for supplying a second mass flow of the preheated working medium to the partially expanded first mass flow of the working medium in an expansion chamber of said volumetric expansion machine between an opening and a closing of said expansion chamber. a preheater for preheating a working medium; an evaporator for evaporating and superheating a first mass flow of the preheated working medium; and a volumetric expansion machine for expanding the evaporated and superheated first mass flow of the working medium; a condenser for condensing the working medium exiting said expansion machine; and a feed pump for pumping condensed working medium to said preheater; characterized by a first supply apparatus for supplying a second mass flow of the preheated working medium to the partially expanded first mass flow of the working medium in an expansion chamber of said volumetric expansion machine between an opening and a closing of said expansion chamber.
A method in a controller for downlink channel sounding in a frequency division duplex wireless system, the method comprising: determining with a controller a schedule for an uplink sounding window in a downlink frequency band, wherein the uplink sounding window comprises a transmission window in at least a partial downlink frequency band that is reserved for uplink channel sounding, wherein the schedule is determined in accordance with at least one of a transmission mode and a traffic type of at least one of the wireless devices; instructing a transmission point, TP, to signal the schedule to at least one wireless device in a coverage area of the TP; receiving a channel sounding signal in the downlink frequency band from the at least one wireless device; and obtaining downlink channel state information at the TP from the channel sounding signal. determining with a controller a schedule for an uplink sounding window in a downlink frequency band, wherein the uplink sounding window comprises a transmission window in at least a partial downlink frequency band that is reserved for uplink channel sounding, wherein the schedule is determined in accordance with at least one of a transmission mode and a traffic type of at least one of the wireless devices; instructing a transmission point, TP, to signal the schedule to at least one wireless device in a coverage area of the TP; receiving a channel sounding signal in the downlink frequency band from the at least one wireless device; and obtaining downlink channel state information at the TP from the channel sounding signal.
A method for acquisition and conditioning of signals from external sensors by an RFID active smart label by means of a sensor-front-end processor (SFEP) processing sensor signals and a microcontroller, which are integrated in said label, characterized in that the sensor-front-end processor (SFEP) predrives external sensors during a predominant part of time with low-intensity electric currents in the order of magnitude of ten nanoamperes and at the same time it is in a low-consumption state consuming electric current with intensity below 250 nA, that during the predrive the sensor-front-end processor (SFEP) waits to receive from the microcontroller a first command (sc), which the microcontroller puts out in adjustable time intervals, or a second command (st), which the microcontroller puts out whenever it is informed by the sensor-front-end processor (SFEP) that herein a request (irq) to interrupt predriving one of the external sensors was generated, to acquire and condition the sensor signals and that after the receiption of said first command (sc) or said second command (st) the sensor-front-end processor (SFEP) stops predriving the external sensors, then it drives individual external sensors automatically and in a way corresponding to each external sensor by means of its temperature-stable precision source, automatically and in a way corresponding to the external sensor sets its own measuring range, acquires a coarse code (ccc, vcc) of a current signal and a voltage signal, respectively, from the external sensor, conditions the signal from the external sensor in order that an analogue-to-digital converter within the RFID smart label then acquires a fine code (ccf, vcf) of the current signal and the voltage signal, respectively, from the external sensor.
Display device for a timepiece movement, the said display device comprising: - a first gear train intended to be driven by a drive member that the said movement comprises; - a main correction device arranged to selectively drive the said first gear train; - a first correcting gear train comprising a first input (19a; 27; 43) arranged to be driven by the said first gear train, a second input (19b; 29; 45) intended to be driven stepwise manually, and an output (19c; 25, 33; 25, 51) arranged to drive a first display member of a first indication relating to the time; - a second correcting gear train; characterized in that the said second correcting gear train is situated kinematically downstream of the said first correcting gear train, the said second correcting gear train comprising a first input arranged to be driven by the said output (19c; 25, 33; 25; 51) of the said first correcting gear train, a second input intended to be driven stepwise manually, and an output arranged to drive a second display member of a second indication relating to the time. - a first gear train intended to be driven by a drive member that the said movement comprises; - a main correction device arranged to selectively drive the said first gear train; - a first correcting gear train comprising a first input (19a; 27; 43) arranged to be driven by the said first gear train, a second input (19b; 29; 45) intended to be driven stepwise manually, and an output (19c; 25, 33; 25, 51) arranged to drive a first display member of a first indication relating to the time; - a second correcting gear train;
An olefin polymerization process comprising: circulating a slurry comprising an olefin monomer selected from C 2 -C 12 olefin monomers, a liquid diluent selected from C 3 -C 7 alkanes, catalyst and polyolefin particles under polymerization conditions within a loop reactor, wherein, in operation, the process has a cavitation number of from 6 to 60 and the polymerization conditions comprise a polymerization temperature of from 38°C to 121°C and a polymerization pressure of from 27 bar to 50 bar.