mhurhangee/ep-ind-claims huggingface dataset:
A method in a network node (500, 600) of a radio network for wireless communication, for controlling a radio communication with a wireless device (502, 602) using carrier aggregation involving multiple component carriers, said wireless device being a User Equipment, UE, the method comprising: - receiving, from the wireless device (502, 602), information about the capabilities of said wireless device, denoted as UE capabilities, said UE capabilities indicating a maximum capability limit for one or more radio features supported for one component carrier of said multiple component carriers and a total maximum capability limit for the one or more radio features supported across all component carriers to be used in the radio communication out of said multiple component carriers, - selecting a number of component carriers out of said multiple component carriers to be used by the wireless device in the radio communication, - configuring the one or more radio features on the selected component carriers based on the received UE capabilities, and - signaling the selected number of component carriers and the configured one or more radio features to the wireless device (502, 602) for use in the radio communication. - receiving, from the wireless device (502, 602), information about the capabilities of said wireless device, denoted as UE capabilities, said UE capabilities indicating a maximum capability limit for one or more radio features supported for one component carrier of said multiple component carriers and a total maximum capability limit for the one or more radio features supported across all component carriers to be used in the radio communication out of said multiple component carriers, - selecting a number of component carriers out of said multiple component carriers to be used by the wireless device in the radio communication, - configuring the one or more radio features on the selected component carriers based on the received UE capabilities, and - signaling the selected number of component carriers and the configured one or more radio features to the wireless device (502, 602) for use in the radio communication.
A computer implemented method of training a computer system for use in classification of an image by processing image data representing the image, comprising the steps of: compressing the image data using a first artificial neural network, wherein the first artificial neural network is an encoder of an auto-encoder neural network that has been trained in an unsupervised manner on image data; loading the compressed image data onto a programmable quantum annealing device comprising a Restricted Boltzmann Machine; training the Restricted Boltzmann Machine on the programmable quantum annealing device to act as a classifier of image data, thereby providing a trained Restricted Boltzmann Machine; and, using the trained Restricted Boltzmann Machine to initialize a second neural network for image classification on the computer system, thereby providing a trained computer system for use in classification of an image. compressing the image data using a first artificial neural network, wherein the first artificial neural network is an encoder of an auto-encoder neural network that has been trained in an unsupervised manner on image data; loading the compressed image data onto a programmable quantum annealing device comprising a Restricted Boltzmann Machine; training the Restricted Boltzmann Machine on the programmable quantum annealing device to act as a classifier of image data, thereby providing a trained Restricted Boltzmann Machine; and, using the trained Restricted Boltzmann Machine to initialize a second neural network for image classification on the computer system, thereby providing a trained computer system for use in classification of an image.
A vehicle body having monocoque construction formed by fastening together resin parts which are an upper body, a lower body, and a floor, wherein the lower body has a bottom surface and a flange part rising up from an entire perimeter of the bottom surface; and in a center of the bottom surface of the lower body, a convex rib part is formed continuously from a front part to a rear part of the vehicle body; the lower body is an integrally molded article obtained by molding thermoplastic resin composition; the floor is an integrally molded article obtained by molding thermoplastic resin composition; the vehicle body further comprising: at least two spaces surrounded by the flange part, the convex rib part and the bottom surface are formed in a center part of the lower body of the vehicle to allow a battery to be installed; the battery to be installed in the space can be fixed through fastening of the lower body and the floor; and the upper body and the floor are mounted on the lower body, and characterized in that the upper body and the floor are fastened together to the flange part and the convex rib part of the lower body, and in that the upper body is an integrally molded article obtained by molding transparent thermoplastic resin composition. at least two spaces surrounded by the flange part, the convex rib part and the bottom surface are formed in a center part of the lower body of the vehicle to allow a battery to be installed; the battery to be installed in the space can be fixed through fastening of the lower body and the floor; and the upper body and the floor are mounted on the lower body, and characterized in that the upper body and the floor are fastened together to the flange part and the convex rib part of the lower body, and in that the upper body is an integrally molded article obtained by molding transparent thermoplastic resin composition.
A method for synchronizing a wireless communication system, comprising: determining a stratum level of a synchronous base station (102, 104), the stratum level corresponding to the smallest number of base stations including a global timing source node and zero or more intermediate base stations between the synchronous base station and the global timing source node; and monitoring for signals from at least one of a neighbor base station or the global timing source node during a silence duration determined based on the stratum level; receiving a network-wide global time from at least one neighbor base station or the global timing source node during the silence duration. determining a stratum level of a synchronous base station (102, 104), the stratum level corresponding to the smallest number of base stations including a global timing source node and zero or more intermediate base stations between the synchronous base station and the global timing source node; and monitoring for signals from at least one of a neighbor base station or the global timing source node during a silence duration determined based on the stratum level; receiving a network-wide global time from at least one neighbor base station or the global timing source node during the silence duration.
A method for forming an abrasive surface, comprising: utilizing an energy source to form a melt pool layer in a substrate (92;96); then applying a non-conducting and non-magnetic abrasive grit into the melt pool layer; and then solidifying the melt pool layer to lock the abrasive grit into place, wherein the melt pool layer is of a thickness less than a grit size of the abrasive grit such that the abrasive grit extends above the solidified melt pool layer; and then adding additional metal powder to the substrate (92; 96) around the abrasive grit and then melting the additional metal powder to bond the abrasive grit to the substrate (92; 96). utilizing an energy source to form a melt pool layer in a substrate (92;96); then applying a non-conducting and non-magnetic abrasive grit into the melt pool layer; and then solidifying the melt pool layer to lock the abrasive grit into place, wherein the melt pool layer is of a thickness less than a grit size of the abrasive grit such that the abrasive grit extends above the solidified melt pool layer; and then adding additional metal powder to the substrate (92; 96) around the abrasive grit and then melting the additional metal powder to bond the abrasive grit to the substrate (92; 96).
Pickling plant for surface treatment with a pickling medium (14, 14a, 14b) for strip steel as normal steel, electrical steel strip, stainless steel and extra-high-strength and ultra-high-strength steel of the third generation in order to thereby create a surface suitable for subsequent shaping by further processing, comprising a plurality of treatment tanks (13, 17, 23) connected in series, wherein the pickling plant is of modular construction and at least one first treatment tank as immersion bath module is provided in working direction from the strip entry, a plurality of treatment tanks in the form of spray pickling modules (17, n) being arranged downstream of the module and at least one closing-off second immersion bath module being downstream of the spray pickling modules (17, n), characterised in that the spray pickling modules (17, n) are activatable individually and independently of one another in time and the duration of action on the strip, which is to be treated, by the pickling medium is individually settable in dependence on the steel quality thereof and that the spray pickling modules (17, n) can be individually switched on and off in number and/or spray intensity in dependence on the steel qualities, which are to be treated, of the strip to be treated. the pickling plant is of modular construction and at least one first treatment tank as immersion bath module is provided in working direction from the strip entry, a plurality of treatment tanks in the form of spray pickling modules (17, n) being arranged downstream of the module and at least one closing-off second immersion bath module being downstream of the spray pickling modules (17, n), characterised in that the spray pickling modules (17, n) are activatable individually and independently of one another in time and the duration of action on the strip, which is to be treated, by the pickling medium is individually settable in dependence on the steel quality thereof and that the spray pickling modules (17, n) can be individually switched on and off in number and/or spray intensity in dependence on the steel qualities, which are to be treated, of the strip to be treated.
A medical observation apparatus comprising: a cylindrical unit (71,81,91); an imaging unit (72,82,92) provided in a hollow portion of the cylindrical unit and including an optical system (721,821,921) configured to collect light from an object to be observed and form an image having an upper side and a lower side, and an imaging element (722,822,922) configured to photoelectrically convert light collected by the optical system and output an imaging signal; a support unit including at least one set composed of two arm units and a joint unit linking one of the two arm units to the other in a rotationally movable manner and supporting, at its tip portion, the cylindrical unit and the imaging unit in a rotationally movable manner around an axis in a height direction of the cylindrical unit; and an arm manipulation unit (73,83,93) provided on a side surface of the cylindrical unit corresponding to the upper side of the image based on the imaging signal and configured to accept a manipulation input that permits a rotational movement of the arm unit. a cylindrical unit (71,81,91); an imaging unit (72,82,92) provided in a hollow portion of the cylindrical unit and including an optical system (721,821,921) configured to collect light from an object to be observed and form an image having an upper side and a lower side, and an imaging element (722,822,922) configured to photoelectrically convert light collected by the optical system and output an imaging signal; a support unit including at least one set composed of two arm units and a joint unit linking one of the two arm units to the other in a rotationally movable manner and supporting, at its tip portion, the cylindrical unit and the imaging unit in a rotationally movable manner around an axis in a height direction of the cylindrical unit; and an arm manipulation unit (73,83,93) provided on a side surface of the cylindrical unit corresponding to the upper side of the image based on the imaging signal and configured to accept a manipulation input that permits a rotational movement of the arm unit.
A tractor gas system comprising, a handle assembly which has a handle spiral that is connected to the handle and transmits the movement it receives from the handle, comprising a body, a handle provided in a movable manner on the body; a pedal assembly provided on the pedal comprising a pedal, a connection socket provided on the pedal, a pressing end which provides for the movement of pedal on the connection socket axis with the force applied, characterized in that; it comprises a transmission mechanism which enables the coupling of the handle assembly and pedal assembly to the gas spiral by integrating them with each another, comprising; • a carrier body which has a pedal extension and a group extension on to which a connection socket is coupled • a gas link which is provided on the group extension that is in contact with gas spiral, • a mechanism end which is provided on the pedal so as to contact the gas link • an puller link which is in contact with handle spiral and which is provided so as to contact the gas link on the group extension. • a carrier body which has a pedal extension and a group extension on to which a connection socket is coupled • a gas link which is provided on the group extension that is in contact with gas spiral, • a mechanism end which is provided on the pedal so as to contact the gas link • an puller link which is in contact with handle spiral and which is provided so as to contact the gas link on the group extension.
An iron alloy member comprising a base composed of iron or an iron alloy, and a dehydrated silanol-containing triazinethiol derivative or a silanol-containing triazinethiol derivative coated on at least a portion of a surface of the base, the iron alloy member further comprising a metal compound film containing at least one selected from the group consisting of a carboxylate, a phosphate, a sulfate, a thiosulfate, a chloride and a perchlorate between the base and the dehydrated silanol-containing triazinethiol derivative coating or the silanol-containing triazinethiol derivative coating.
A traction tower assembly, comprising: a tower assembly (2, 3) comprising a tower connected to a base plate with a first slot and a second slot extending partially therethrough; and a strap comprising a length of material attached to a first adjustment mechanism and a second adjustment mechanism to tighten the strap, characterized in that the first adjustment mechanism is slidable within the first slot of the base plate and the second adjustment mechanism is slidable within the second slot of the base plate so that the first and second adjustment mechanisms are movable towards a center of the base plate. a tower assembly (2, 3) comprising a tower connected to a base plate with a first slot and a second slot extending partially therethrough; and a strap comprising a length of material attached to a first adjustment mechanism and a second adjustment mechanism to tighten the strap, characterized in that the first adjustment mechanism is slidable within the first slot of the base plate and the second adjustment mechanism is slidable within the second slot of the base plate so that the first and second adjustment mechanisms are movable towards a center of the base plate.
A lighting device comprising: - a luminescent concentrator, the luminescent concentrator comprising a waveguide having a radiation input face, a radiation exit face, and a width being defined by the radiation input face and an opposite face, the waveguide comprising a radiation converter element distributed in the waveguide with a radiation converter concentration, wherein the waveguide comprises a single crystal or a ceramic; - a solid state light source configured to irradiate the radiation input face of the waveguide with solid state light source radiation; wherein the radiation converter element is configured to absorb at least part of the light source radiation and to convert into radiation converter element radiation, and wherein the radiation converter concentration is selected at least three times higher than necessary to absorb 98% of the light source radiation over the width of the waveguide; - wherein the radiation converter element comprises a radiation excitation spectrum and a radiation emission spectrum, wherein the overlapping area of the excitation spectrum and the emission spectrum is in the range of 2 - 50 % of the emission spectrum. - a luminescent concentrator, the luminescent concentrator comprising a waveguide having a radiation input face, a radiation exit face, and a width being defined by the radiation input face and an opposite face, the waveguide comprising a radiation converter element distributed in the waveguide with a radiation converter concentration, wherein the waveguide comprises a single crystal or a ceramic; - a solid state light source configured to irradiate the radiation input face of the waveguide with solid state light source radiation; wherein the radiation converter element is configured to absorb at least part of the light source radiation and to convert into radiation converter element radiation, and wherein the radiation converter concentration is selected at least three times higher than necessary to absorb 98% of the light source radiation over the width of the waveguide; - wherein the radiation converter element comprises a radiation excitation spectrum and a radiation emission spectrum, wherein the overlapping area of the excitation spectrum and the emission spectrum is in the range of 2 - 50 % of the emission spectrum.
Hydraulic supporting element for a lever-like cam follower of a valve train of an internal combustion engine, having a pot-like housing which can be installed with its outer shell into a cylinder head of the internal combustion engine or into a component which is connected to the internal combustion engine and, in a bore, has an axially movable pressure piston which encloses a storage space for hydraulic medium, is loaded away from the housing by way of a spring means, protrudes beyond an end of the housing with a spherical head for the cam follower and, on the bore side, has an annular web with a check valve, between which annular web and a bottom of the housing a high pressure space for the hydraulic medium is formed, which high pressure space can be fed with the hydraulic medium from the storage space via the check valve, at least one passage for the hydraulic medium out of the cylinder head being intrinsic to the housing, which passage communicates radially on the inside with at least one through duct in the pressure piston, and a sleeve-like deflection element for the hydraulic medium running in the storage space, between the outer shell of which deflection element and an inner shell of the pressure piston, starting from the through duct, a riser path is formed for the hydraulic medium, in the end region of which riser path the hydraulic medium can be guided along a head-side end of the deflection element into its interior for direct accumulation in front of the check valve, and the pressure piston being configured completely in one piece; the deflection element standing with its end which is remote from the head directly on the annular web and bearing sealingly against the inner shell of the pressure piston axially below the through duct directly as far as the end which is remote from the head; and the head-side end of the deflection element lying approximately on or axially above a centre point of rotation of the spherical head, characterized in that the deflection element bears axially above the through duct at least predominantly against the inner shell, apart from the riser path. the pressure piston being configured completely in one piece; the deflection element standing with its end which is remote from the head directly on the annular web and bearing sealingly against the inner shell of the pressure piston axially below the through duct directly as far as the end which is remote from the head; and the head-side end of the deflection element lying approximately on or axially above a centre point of rotation of the spherical head, characterized in that the deflection element bears axially above the through duct at least predominantly against the inner shell, apart from the riser path.
A method for producing a reflective optical component (10; 10a; 10b; 10c) for an EUV projection exposure apparatus, said component having a substrate (12; 12a; 12b; 12c) having a base body (14; 14a; 14b; 14c), and a reflective layer (20; 20a; 20b; 20c) arranged on the substrate (12; 12a; 12b; 12c), wherein the substrate (12; 12a; 12b; 12c) has an optically operative microstructuring (16; 16a; 16b; 16c), comprising the following steps: working the microstructuring (16; 16a; 16b; 16c) into the substrate (12; 12a; 12b; 12c), polishing the substrate (12; 12a; 12b; 12c) after the microstructuring (16; 16a; 16b; 16c) has been worked into the substrate (12; 12a; 12b; 12c), applying the reflective layer (20; 20a; 20b; 20c) to the substrate (12; 12a; 12b; 12c) after the substrate (12; 12a; 12b; 12c) has been polished. working the microstructuring (16; 16a; 16b; 16c) into the substrate (12; 12a; 12b; 12c), polishing the substrate (12; 12a; 12b; 12c) after the microstructuring (16; 16a; 16b; 16c) has been worked into the substrate (12; 12a; 12b; 12c), applying the reflective layer (20; 20a; 20b; 20c) to the substrate (12; 12a; 12b; 12c) after the substrate (12; 12a; 12b; 12c) has been polished.
A skin treatment head for a body care device for treating a skin, the body care device comprising a housing, wherein the skin treatment head is configured to rotate in use about an axis, wherein the skin treatment head comprises a plurality of bristles defining a virtual edge face circumferentially surrounding the plurality of bristles and defining a virtual top face defining a first height of the bristles relative to a skin treatment head surface of the skin treatment head, wherein the skin treatment head further comprises a plurality of rotatable elements, wherein the rotatable elements have a diameter, wherein each rotatable element is configured to rotate when a force in a tangential direction is applied to a rotatable element surface of the rotatable element, wherein the rotatable element surfaces are configured lower than the top face and wherein (i) the rotatable element surfaces at least partly extend beyond the edge face or (ii) the rotatable element surfaces do not extend beyond the edge face and are configured at a distance from the edge face being selected from the range of 0 - 100% of the diameter, wherein (i) one or more of the rotatable elements comprise a spherical shape; and/or (ii) one or more of the rotatable elements comprises a cylindrical shape or a conical shape having an axis of rotation configured perpendicular to the axis of the skin treatment head.
A planetary gear unit of a gearbox of a wind turbine comprising a sun gear, planet gears (25, 25'), a ring gear, a planet carrier and an outer casing attachable to a wind turbine nacelle; the ring gear being mounted on the outer casing; the planet carrier comprising a bogie plate where planet gears (25, 25') are rotatably mounted on planet shafts by means of bearings (37, 37') at both sides of said bogie plate, characterized in that the planet carrier comprises a main body and a backplate which can be joined/disjoined to/from the main body for facilitating the assembly/disassembly of the planetary gear unit and in that the planet carrier is rotatably mounted on said outer casing by means of a first bearing in contact with said main body at a rotor side and by means of a second bearing in contact with said backplate at a generator side, wherein said main body extends from the rotor side up to, at least, a hypothetical vertical plane (A-A) by the end of the sun gear at the generator side.