mhurhangee/ep-ind-claims huggingface dataset:
A method of joining a titanium structure to a composite structure to form a multi-layer structure comprising: positioning a first titanium structure comprising a first titanium structure surface, said first titanium structure surface comprising a first sol-gel layer; positioning a composite structure, said composite structure comprising a composite structure first surface and a composite structure second surface, said composite structure first surface positioned proximate to and a predetermined distance from said first titanium structure surface; positioning a predetermined amount of an epoxy-containing compound between the first sol-gel layer on the first titanium structure surface and the composite structure first surface, bonding the epoxy-containing compound to the first titanium structure surface; and joining the first titanium structure to the composite structure first surface to form the multi-layer structure the method being characterized in that the epoxy containing compound forms a moldable plastic shim. positioning a first titanium structure comprising a first titanium structure surface, said first titanium structure surface comprising a first sol-gel layer; positioning a composite structure, said composite structure comprising a composite structure first surface and a composite structure second surface, said composite structure first surface positioned proximate to and a predetermined distance from said first titanium structure surface; positioning a predetermined amount of an epoxy-containing compound between the first sol-gel layer on the first titanium structure surface and the composite structure first surface, bonding the epoxy-containing compound to the first titanium structure surface; and joining the first titanium structure to the composite structure first surface to form the multi-layer structure the method being characterized in that the epoxy containing compound forms a moldable plastic shim.
A centrifugal compressor comprising: a shaft member that extends in an axial direction and that is rotatable; a motor that drives rotation of the shaft member; and at each of two end portions of the shaft member an impeller is disposed, wherein each impeller includes a hub that is disposed on an end portion of the shaft member and a plurality of blades (122, 123) that are disposed on an outer peripheral surface of the hub, and wherein each impeller has a shape that tapers outward in the axial direction, the centrifugal compressor further comprising only two radial bearings, namely a first bearing and a second bearing, and only one thrust bearing, namely a thrust bearing, wherein the first bearing and the second bearing are disposed at opposite sides of the motor, and wherein the second bearing is disposed outside in a radial direction of the shaft member and directly rotatably supports the shaft member, and at this side, the thrust bearing is arranged between the second bearing and the impeller, characterized in that at the other side, the first bearing is disposed outside in the radial direction of a cover member (125, 126) and directly rotatably supports the impeller, wherein the cover member (125, 126) is disposed at least at an end portion of the impeller outside in the axial direction, the cover member (125, 126) being joined to outer peripheries of the plurality of blades (122, 123) in the radial direction and covering at least a part of the plurality of blades (122, 123) from outside in the radial direction. a shaft member that extends in an axial direction and that is rotatable; a motor that drives rotation of the shaft member; and at each of two end portions of the shaft member an impeller is disposed, wherein each impeller includes a hub that is disposed on an end portion of the shaft member and a plurality of blades (122, 123) that are disposed on an outer peripheral surface of the hub, and wherein each impeller has a shape that tapers outward in the axial direction, the centrifugal compressor further comprising only two radial bearings, namely a first bearing and a second bearing, and only one thrust bearing, namely a thrust bearing, wherein the first bearing and the second bearing are disposed at opposite sides of the motor, and wherein the second bearing is disposed outside in a radial direction of the shaft member and directly rotatably supports the shaft member, and at this side, the thrust bearing is arranged between the second bearing and the impeller, characterized in that at the other side, the first bearing is disposed outside in the radial direction of a cover member (125, 126) and directly rotatably supports the impeller, wherein the cover member (125, 126) is disposed at least at an end portion of the impeller outside in the axial direction, the cover member (125, 126) being joined to outer peripheries of the plurality of blades (122, 123) in the radial direction and covering at least a part of the plurality of blades (122, 123) from outside in the radial direction.
Apparatus for sampling the headspace, comprising: - a mobile station provided with a plurality of housing seats to house a plurality of containers for sampling the headspace; - a heater; - a blocking device comprising at least one first mobile element that moves between at least two positions, a first position adapted to prevent a container from passing from said mobile station to said heater, and a second position adapted to allow a container to pass from said mobile station to said heater; - at least one first sensor placed upstream of said first mobile element, to detect the presence of a container in one of said housing seats; - a movement element moving between said mobile station and said heater, the movement element being configured to move a container from said mobile station to said heater. - a mobile station provided with a plurality of housing seats to house a plurality of containers for sampling the headspace; - a heater; - a blocking device comprising at least one first mobile element that moves between at least two positions, a first position adapted to prevent a container from passing from said mobile station to said heater, and a second position adapted to allow a container to pass from said mobile station to said heater; - at least one first sensor placed upstream of said first mobile element, to detect the presence of a container in one of said housing seats; - a movement element moving between said mobile station and said heater, the movement element being configured to move a container from said mobile station to said heater.
A photosensitive flexographic printing original plate developable by water in which at least a supporting member, a photosensitive resin layer, a protective layer and a mask layer are successively laminated, characterized in that, the protective layer contains polyvinyl alcohol, plasticizer and water-dispersible latex in the following rate: Polyvinyl alcohol: 25 to 80 parts by weight Plasticizer: 15 to 60 parts by weight Water-dispersible latex: 5 to 40 parts by weight, wherein the photosensitive resin layer comprises a latex, a photopolymerizable unsaturated compound and a photopolymerization initiator; and wherein the saponification degree of the polyvinyl alcohol is 60% to 90%. Polyvinyl alcohol: 25 to 80 parts by weight Plasticizer: 15 to 60 parts by weight Water-dispersible latex: 5 to 40 parts by weight, wherein the photosensitive resin layer comprises a latex, a photopolymerizable unsaturated compound and a photopolymerization initiator; and wherein the saponification degree of the polyvinyl alcohol is 60% to 90%.
Method for transmitting data between at least two nodes of a network, each one of said nodes being attached to at least one IP environment, known as the source environment of said node, said method comprising: - a step of assigning, to at least one user agent included in one of said nodes, a fake address in an IP environment other than the source environment of this node, and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node, characterized in that said presenting step is executed by said user agent in at least one message of invitation to enter into communication with said remote node. - a step of assigning, to at least one user agent included in one of said nodes, a fake address in an IP environment other than the source environment of this node, and - a step of presenting at least said fake address and a source address of said user agent in said source environment when a communication is set up with at least one remote node, characterized in that said presenting step is executed by said user agent in at least one message of invitation to enter into communication with said remote node.
A device comprising: a communication processing unit configured to perform communication of a cellular system in a frequency band shared between the cellular system and a wireless LAN, characterized in that the communication processing unit is further configured to perform said communication within a first period and to stop said communication in the frequency band within a second period, wherein the first period is one or more subframes including a subframe in which a synchronization signal of the cellular system is transmitted, and the second period is one or more other subframes not including the subframe in which the synchronization signal is transmitted. a communication processing unit configured to perform communication of a cellular system in a frequency band shared between the cellular system and a wireless LAN, characterized in that the communication processing unit is further configured to perform said communication within a first period and to stop said communication in the frequency band within a second period, wherein the first period is one or more subframes including a subframe in which a synchronization signal of the cellular system is transmitted, and the second period is one or more other subframes not including the subframe in which the synchronization signal is transmitted.
Component connection comprising: a turbomachine component which has at least one component flange; a turbomachine mating component which is connected thereto and has at least one mating component flange; and at least one sealing means for sealing against overpressure (p2-p1) on the component side, which sealing means has a sealing surface that engages in a groove in the turbomachine component, which groove is arranged on a side of the component flange facing the mating component flange and has a contact surface for sealingly axially supporting the sealing surface, at least one bolt passing through an opening in the sealing means, characterized in that the component flange and the mating component flange are interconnected by means of the at least one bolt in a non-destructively releasable or destructively releasable manner. a turbomachine component which has at least one component flange; a turbomachine mating component which is connected thereto and has at least one mating component flange; and at least one sealing means for sealing against overpressure (p2-p1) on the component side, which sealing means has a sealing surface that engages in a groove in the turbomachine component, which groove is arranged on a side of the component flange facing the mating component flange and has a contact surface for sealingly axially supporting the sealing surface, at least one bolt passing through an opening in the sealing means, characterized in that the component flange and the mating component flange are interconnected by means of the at least one bolt in a non-destructively releasable or destructively releasable manner.
An end cap for a tubular profile, in particular for a tubular handrail, comprising a retaining body fittable to the radially internal surface of the tubular profile and provided with fastening means apt for blocking said end cap inside the tubular profile, characterized in that, said end cap comprises at least two clamping segments made of plastic and defining said retaining body, wherein a lid made of metal, is seated between said clamping segments.
A method for providing information by optimizing a data rate to a vehicle over a three-phase power line utilized to provide power to the vehicle, said method comprising: generating (230, 232, 234) carrier signals in three separate frequency bands; modulating (242, 252, 262) various data onto three carrier signals to generate three transmission signals; switching (248, 258, 268) the three transmission signals onto respective conductors of the three-phase power line; demodulating the various data within the vehicle; and providing the various data to one or more vehicle systems. generating (230, 232, 234) carrier signals in three separate frequency bands; modulating (242, 252, 262) various data onto three carrier signals to generate three transmission signals; switching (248, 258, 268) the three transmission signals onto respective conductors of the three-phase power line; demodulating the various data within the vehicle; and providing the various data to one or more vehicle systems.
A method comprising: receiving, at one or more antennas and over multiple paths, a wireless signal from a client device, wherein the receiving step comprises: receiving the wireless signal at the one or more antennas over a first propagation path of the multiple paths, wherein the first propagation path has a first propagation delay; and receiving the wireless signal at the one or more antennas over a second propagation path of the multiple paths, wherein the second propagation path has a second propagation delay that is longer than the first propagation path; identifying relative times of arrival of the wireless signal at the one or more antennas received over the first propagation path and over the second propagation path; the method is characterised in further comprising: creating a response profile according to the relative times of arrival for generating response signals for transmission by the one or more antennas to the client device; configuring the one or more antennas based on the response profile to transmit the response signals to the client device with a staggered timing and via the same paths as the first and the second propagation paths; and transmitting, using the one or more antennas, the response signals to the client device according to the response profile and with a reversed time order as compared to the relative times of arrival of the received wireless signal. receiving, at one or more antennas and over multiple paths, a wireless signal from a client device, wherein the receiving step comprises: receiving the wireless signal at the one or more antennas over a first propagation path of the multiple paths, wherein the first propagation path has a first propagation delay; and receiving the wireless signal at the one or more antennas over a second propagation path of the multiple paths, wherein the second propagation path has a second propagation delay that is longer than the first propagation path; receiving the wireless signal at the one or more antennas over a first propagation path of the multiple paths, wherein the first propagation path has a first propagation delay; and receiving the wireless signal at the one or more antennas over a second propagation path of the multiple paths, wherein the second propagation path has a second propagation delay that is longer than the first propagation path; identifying relative times of arrival of the wireless signal at the one or more antennas received over the first propagation path and over the second propagation path; creating a response profile according to the relative times of arrival for generating response signals for transmission by the one or more antennas to the client device; configuring the one or more antennas based on the response profile to transmit the response signals to the client device with a staggered timing and via the same paths as the first and the second propagation paths; and transmitting, using the one or more antennas, the response signals to the client device according to the response profile and with a reversed time order as compared to the relative times of arrival of the received wireless signal.
Tall cupboard, especially for use in offices, comprising a furniture body at which a drawer is arranged moveably on at least two pull-out guides (7, 9), further comprising a vertical side wall at which several holding elements (10, 10", 20, 21) for hanging objects on the side wall are provided, characterized in that on opposing sides of the drawer at least one pullout guide (7, 9) is arranged, respectively, whereby the drawer is essentially L-shaped and whereby a pullout guide (7, 9) is arranged on the end side of each leg.
A transmission apparatus, comprising: a drive pulley, a driven pulley, and a transmission belt, wherein the drive pulley is connected to the driven pulley by using the transmission belt, and an axis of the drive pulley is rotatable around a first axis; an adjustment pin, wherein an axis of the adjustment pin coincides with the first axis; and characterized by a tension pulley, wherein the tension pulley is disposed on the adjustment pin, and an outer circumferential surface of the tension pulley abuts against the transmission belt. an adjustment pin, wherein an axis of the adjustment pin coincides with the first axis; and characterized by a tension pulley, wherein the tension pulley is disposed on the adjustment pin, and an outer circumferential surface of the tension pulley abuts against the transmission belt.
A sleeve for a cable spool having a cylindrical drum and a pair of opposing end flanges, the sleeve including a plurality of sleeve portions, characterized by each sleeve portion including a pair of upstanding members and a body portion for supporting cable thereon, each upstanding member including a base for positioning on the cylindrical drum and a wall section extending away from the base, opposite ends of the body portion being connectable to opposing wall sections to bridge the upstanding members, wherein the sleeve portions are positionable on the cable spool such that the body portions collectively define a cable support surface around the cylindrical drum having a diameter greater than the cylindrical drum, and the ends of the body portion are mountable in one or more spaced openings provided in the wall sections such that the distance between the body portion and respective bases of the upstanding members can be adjusted to thereby change the diameter of the cable support surface.
A method for determining a maximum power setpoint for a wind turbine comprising: determining a temperature of a first wind turbine component; determining a first component temperature error by determining a difference between the temperature of the first wind turbine component and a corresponding threshold temperature for the first wind turbine component; determining a present power output of the wind turbine; and determining the maximum power setpoint at least partially based on the first component temperature error, and on the present power output of the wind turbine, wherein determining the maximum power setpoint comprises a feedback control based on the first component temperature error and comprises a feedforward control based on present power output. determining a temperature of a first wind turbine component; determining a first component temperature error by determining a difference between the temperature of the first wind turbine component and a corresponding threshold temperature for the first wind turbine component; determining a present power output of the wind turbine; and determining the maximum power setpoint at least partially based on the first component temperature error, and on the present power output of the wind turbine, wherein determining the maximum power setpoint comprises a feedback control based on the first component temperature error and comprises a feedforward control based on present power output.
A method for performing a 2-step random access procedure by a terminal in a communication system, the method comprising: identifying that the 2-step random access procedure is selected; in case that a random access preambles group has not been selected during the 2-step random access procedure, identifying one of a first random access preambles group or a second random access preambles group; in case that the random access preambles group has been selected during the 2-step random access procedure, identifying a same random access preambles group that was previously selected; identifying a random access preamble associated with a message A, MsgA, based on the identified random access preambles group; transmitting, to a base station, the random access preamble associated with the MsgA on a physical random access channel, PRACH; and transmitting, to the base station, a payload associated with the MsgA on a physical uplink shared channel, PUSCH. identifying that the 2-step random access procedure is selected; in case that a random access preambles group has not been selected during the 2-step random access procedure, identifying one of a first random access preambles group or a second random access preambles group; in case that the random access preambles group has been selected during the 2-step random access procedure, identifying a same random access preambles group that was previously selected; identifying a random access preamble associated with a message A, MsgA, based on the identified random access preambles group; transmitting, to a base station, the random access preamble associated with the MsgA on a physical random access channel, PRACH; and transmitting, to the base station, a payload associated with the MsgA on a physical uplink shared channel, PUSCH.
A method of estimating the expansion/contraction state of a web-like base material in a printing apparatus that ejects ink onto a surface of the base material while transporting the base material in a longitudinal direction thereof, the method comprising the steps of: a) acquiring submitted data that is image data to be printed; and b) outputting an estimation result based on said submitted data indicating the expansion/contraction state of the base material resulting from ink when said submitted data is printed, prior to printing of said submitted data, characterized in that said estimation result is obtained by estimating a distribution of amounts of expansion/contraction on said base material. a) acquiring submitted data that is image data to be printed; and b) outputting an estimation result based on said submitted data indicating the expansion/contraction state of the base material resulting from ink when said submitted data is printed, prior to printing of said submitted data, characterized in that
A method for analyzing a plurality of analytes, the method comprising: generating ions of a first analyte and ions of a second analyte; transferring the ions of the first and second analytes simultaneously through a discontinuous sample introduction interface into a first ion trap of a mass spectrometer; closing the discontinuous sample introduction interface; pumping down the vacuum chamber housing the first ion trap; transferring the ions of the first analytes to a second ion trap; fragmenting the ions of the first analyte and mass analyzing produced product ions; transferring the ion of the second analyte to the second ion trap; and fragmenting the ions of the second analyte and mass analyzing produced product ions. generating ions of a first analyte and ions of a second analyte; transferring the ions of the first and second analytes simultaneously through a discontinuous sample introduction interface into a first ion trap of a mass spectrometer; closing the discontinuous sample introduction interface; pumping down the vacuum chamber housing the first ion trap; transferring the ions of the first analytes to a second ion trap; fragmenting the ions of the first analyte and mass analyzing produced product ions; transferring the ion of the second analyte to the second ion trap; and fragmenting the ions of the second analyte and mass analyzing produced product ions.