mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a plurality of Raster Image Processors, 'RIPs', collectively comprising a total number of RIPs that are configured to process logical pages; and a scheduler configured to receive a print job, to determine that a number of available RIPs of the plurality of RIPs to process logical pages in the print job is less than the total number of RIPs, and to iteratively increase a number of the logical pages in the print job that are assigned to each of the available RIPs as the number of available RIPs increases over time, characterized in that the scheduler, responsive to determining that the number of available RIPs is less than the total number of RIPs, is configured to: assign a first number of logical pages to each of the available RIPs, wherein the first number of logical pages is less than a maximum number of logical pages assignable to a RIP; determine that the number of available RIPs has increased; and assign a second number of logical pages to each of the available RIPs, wherein the second number of logical pages is higher than the first number of logical pages and less than or equal to the maximum number of logical pages. a plurality of Raster Image Processors, 'RIPs', collectively comprising a total number of RIPs that are configured to process logical pages; and a scheduler configured to receive a print job, to determine that a number of available RIPs of the plurality of RIPs to process logical pages in the print job is less than the total number of RIPs, and to iteratively increase a number of the logical pages in the print job that are assigned to each of the available RIPs as the number of available RIPs increases over time, characterized in that the scheduler, responsive to determining that the number of available RIPs is less than the total number of RIPs, is configured to: assign a first number of logical pages to each of the available RIPs, wherein the first number of logical pages is less than a maximum number of logical pages assignable to a RIP; determine that the number of available RIPs has increased; and assign a second number of logical pages to each of the available RIPs, wherein the second number of logical pages is higher than the first number of logical pages and less than or equal to the maximum number of logical pages. assign a first number of logical pages to each of the available RIPs, wherein the first number of logical pages is less than a maximum number of logical pages assignable to a RIP; determine that the number of available RIPs has increased; and assign a second number of logical pages to each of the available RIPs, wherein the second number of logical pages is higher than the first number of logical pages and less than or equal to the maximum number of logical pages.
A turbine assembly (10, 10a, 10b) comprising a hollow aerofoil having at least a main cavity with at least an impingement tube (16, 16b), which is insertable inside the main cavity of the hollow aerofoil and is used for impingement cooling of at least an inner surface of the main cavity, and with at least a platform (20, 20'), which is arranged at a radial end (22, 22') of the hollow aerofoil, and with at least a cooling chamber (24, 24') used for cooling of at least the platform (20, 20') and which is arranged relative to the hollow aerofoil on an opposed site of the at least one platform (20, 20') and wherein the at least one cooling chamber (24, 24') is limited at a first radial end (26, 26') by at least one a wall segment (28, 28') of the platform (20, 20') and at an opposed radial second end (30, 30') from at least a cover plate (32, 32'), and wherein the impingement tube (16, 16b) extends in span wise direction completely through the cooling chamber (24, 24') from the platform (20, 20') to the cover plate (32, 32'), wherein the impingement tube (16, 16b) restricts a sub-cavity of the main cavity and wherein the at least one wall segment (28, 28') of the at least one platform (20, 20') comprises at least one entry aperture (38, 38'; 38a, 38a') for a cooling medium to enter through the at least one entry aperture (38, 38'; 38a, 38a') from the at least one cooling chamber (24, 24') of the at least one platform (20, 20') into the sub-cavity of the hollow aerofoil, characterised in that the at least one entry aperture (38, 38'; 38a, 38a') in the at least one wall segment (28, 28') of the at least one platform (20, 20') is covered by an orifice plate for controlling a flow of the cooling medium into the sub-cavity.
A system for a contactless, inductive transmission of energy from a primary part to a secondary part which each comprise at least one coil (10, 10') which can be inductively coupled to each other, wherein the primary part and/or the secondary part comprise at least one magnetic field sensor and are arranged for determining a lateral offset of the secondary part relative to the primary part using a magnetic field generated by the coils (10, 10') and measured with the aid of the at least one magnetic field sensor, characterized in that the system is furthermore arranged in a way that the magnetic field measured by the at least one magnetic field sensor is a stray field of the at least one coil of the primary part and the at least one coil of the secondary part during the transmission of energy, and is arranged to determine an interval (zo) along an axis of the primary side coil from the secondary part to the primary part using the stray field measured by the at least one magnetic field sensor.
An apparatus for guiding an ultrasound imaging procedure, comprising: a processor circuit configured for communication with an ultrasound transducer, wherein the processor circuit is configured to: receive, from a user interface, an input associated with a desired pose of the ultrasound transducer, wherein the ultrasound transducer is positioned at a current pose; receive, from the ultrasound transducer, ultrasound imaging data representative of a field of view of the ultrasound transducer in the current pose; determine, based on the ultrasound imaging data and the input, a movement to align the current pose of the ultrasound transducer with the desired pose; and characterized in that the processor circuit is configured to generate a graphical representation of the movement, wherein the graphical representation comprises: a first indicator of the current pose of the ultrasound transducer; and a second indicator of the desired pose of the ultrasound transducer positioned and oriented relative to the first indicator to indicate the movement; output the graphical representation to a display in communication with the processor circuit; determine that the current pose of the ultrasound transducer is aligned with the desired pose; and in response to determining that the current pose is aligned with the desired pose, save, to a memory of the processor circuit, an image frame. receive, from a user interface, an input associated with a desired pose of the ultrasound transducer, wherein the ultrasound transducer is positioned at a current pose; receive, from the ultrasound transducer, ultrasound imaging data representative of a field of view of the ultrasound transducer in the current pose; determine, based on the ultrasound imaging data and the input, a movement to align the current pose of the ultrasound transducer with the desired pose; and characterized in that the processor circuit is configured to generate a graphical representation of the movement, wherein the graphical representation comprises: a first indicator of the current pose of the ultrasound transducer; and a second indicator of the desired pose of the ultrasound transducer positioned and oriented relative to the first indicator to indicate the movement; a first indicator of the current pose of the ultrasound transducer; and a second indicator of the desired pose of the ultrasound transducer positioned and oriented relative to the first indicator to indicate the movement; output the graphical representation to a display in communication with the processor circuit; determine that the current pose of the ultrasound transducer is aligned with the desired pose; and in response to determining that the current pose is aligned with the desired pose, save, to a memory of the processor circuit, an image frame.
A non-invasive blood pressure measuring system comprising: a monitor; and a plurality of further system components including a connecting hose and at least one of a cuff and a rack, wherein the monitor has a reading unit for wirelessly identifiying those of the plurality of further system components having a respective coding element encoding information about physical and/or operational characteristics of the respective component, by reading out and interpreting the information encoded by the coding elements, characterised in that the monitor is adapted to check compatibility of the identified system components with each other based on the information encoded by the respective coding elements. a monitor; and a plurality of further system components including a connecting hose and at least one of a cuff and a rack, wherein the monitor has a reading unit for wirelessly identifiying those of the plurality of further system components having a respective coding element encoding information about physical and/or operational characteristics of the respective component, by reading out and interpreting the information encoded by the coding elements, characterised in that the monitor is adapted to check compatibility of the identified system components with each other based on the information encoded by the respective coding elements.
A method for operating a wind turbine (300, 510, 520), comprising: determining a wind condition; determining for the wind condition actual azimuthal positions of a rotating wind rotor (106, 516, 526) with respect to the rotor axis of the wind turbine; determining for the wind condition desired azimuthal positions of the rotating wind rotor (106, 516, 526) with respect to the rotor axis so that at least one of a load balance of the rotating wind rotor and a power uptake of the rotating wind rotor is improved compared to the actual azimuthal positions; and changing a speed of the rotating wind rotor (106, 516, 526) so that azimuthal positions of the rotating wind rotor approaches the desired azimuthal positions, characterized in that determining the desired azimuthal positions comprises: estimating a wake influence of an upstream wind turbine on the rotating wind rotor using a turbulent wind model, wherein the wind condition is an input of the turbulent wind model. determining a wind condition; determining for the wind condition actual azimuthal positions of a rotating wind rotor (106, 516, 526) with respect to the rotor axis of the wind turbine; determining for the wind condition desired azimuthal positions of the rotating wind rotor (106, 516, 526) with respect to the rotor axis so that at least one of a load balance of the rotating wind rotor and a power uptake of the rotating wind rotor is improved compared to the actual azimuthal positions; and changing a speed of the rotating wind rotor (106, 516, 526) so that azimuthal positions of the rotating wind rotor approaches the desired azimuthal positions, characterized in that determining the desired azimuthal positions comprises: estimating a wake influence of an upstream wind turbine on the rotating wind rotor using a turbulent wind model, wherein the wind condition is an input of the turbulent wind model.
A method for determining the actual position of a track relative to a fixed point, located in a lateral vicinity of the track, by means of a registering device, mobile on the track, on which a stereo camera system is arranged, wherein the position of the fixed point relative to the track is surveyed by evaluation of an image pair, wherein the registering device is moved along the track, during which image pairs of the lateral vicinity of the track are continuously recorded by means of the stereo camera system, in a search procedure the fixed point is searched in the continuously recorded image pairs by means of a pattern recognition process carried out in an automatized way in an evaluation device, and that in a next method step - upon identification of a fixed point - the position of the fixed point relative to the track is determined by means of photogrammetry.
A washing apparatus configured to wash a cleaner having a mop unit formed at a lower portion thereof, the washing apparatus comprising: a tray configured to form a space to receive the cleaner and washing water; and a washing unit disposed at a lower portion of the inside of the tray so as to contact the mop unit, characterized in that the washing unit comprises a first spinning mop protrusion line configured to protrude upwardly, an upper end of the first spinning mop protrusion line being inclined downwardly in a first direction. a tray configured to form a space to receive the cleaner and washing water; and a washing unit disposed at a lower portion of the inside of the tray so as to contact the mop unit, characterized in that the washing unit comprises a first spinning mop protrusion line configured to protrude upwardly, an upper end of the first spinning mop protrusion line being inclined downwardly in a first direction.
A fuel cell system comprising a fuel cell an off-gas reprocessing unit that is provided downstream of the fuel cell and that at least partially removes at least one of steam or carbon dioxide from an off-gas discharged from the fuel cell, a flow passage that is provided downstream of the off-gas reprocessing unit and that allows a reprocessed off-gas discharged from the off-gas reprocessing unit to flow therethrough, and a controlling unit that modulates a reaction constant K pa of the following reaction A with respect to the reprocessed off-gas discharged from the off-gas reprocessing unit, to 1.22 or more, wherein the controlling unit modulates the K pa to 1.22 or more by modulating at least one of a rate of removal of steam or a rate of removal of carbon dioxide in the off-gas reprocessing unit: Reaction A: CO + H 2 ↔ H 2 O + C (Solid) Reaction constant of Reaction A: K pa = P(H 2 O)/[P xP(H 2)] wherein P(H 2 O), P, and P(H 2) represent respective partial pressures of H 2 O, CO, and H 2 in the reprocessed off-gas. a fuel cell an off-gas reprocessing unit that is provided downstream of the fuel cell and that at least partially removes at least one of steam or carbon dioxide from an off-gas discharged from the fuel cell, a flow passage that is provided downstream of the off-gas reprocessing unit and that allows a reprocessed off-gas discharged from the off-gas reprocessing unit to flow therethrough, and a controlling unit that modulates a reaction constant K pa of the following reaction A with respect to the reprocessed off-gas discharged from the off-gas reprocessing unit, to 1.22 or more,
A method for preparing a partially hydrogenated chlorosilane by selective hydrogenation comprising: (i) reacting an educt chlorosilane of formula Si n X 2n+2, wherein n is an integer of at least 2, and X is independently selected from H, Cl, alkyl and aryl, with the proviso that at least two chloro substituents are present, with a hydrogenation agent to form a reaction product comprising a partially hydrogenated chlorosilane, wherein compared to the educt chlorosilane at least one chloro substituent but not all chloro substituents is/are transferred to a hydrido substituent; and (ii) separating said partially hydrogenated chlorosilane from the reaction product, wherein the hydrogenation agent is a compound of formula R 2 AIH wherein R is a branched hydrocarbon or a cyclic hydrocarbon and the hydrogenation agent is present in a sub-stochiometric amount relative to the chloro substituents present in the educt chlorosilane, and wherein the hydrogenation agent is used in an amount of m - k mols per mol of the educt chlorosilane, wherein m is the number of chloro substituents in the educt chlorosilane and k is the number of chloro substituents in the partially hydrogenated chlorosilane. (i) reacting an educt chlorosilane of formula Si n X 2n+2, wherein n is an integer of at least 2, and X is independently selected from H, Cl, alkyl and aryl, with the proviso that at least two chloro substituents are present, with a hydrogenation agent to form a reaction product comprising a partially hydrogenated chlorosilane, wherein compared to the educt chlorosilane at least one chloro substituent but not all chloro substituents is/are transferred to a hydrido substituent; and (ii) separating said partially hydrogenated chlorosilane from the reaction product,
A communication method, comprising: receiving, by an access network device, downlink non-access stratum NAS signaling from a core network device, the downlink NAS signaling comprises first information, wherein the first information comprises an identifier of allowed session management-network slice selection assistance information NSSAI; wherein the session management-NSSAI comprises a slice/service type; and storing, by the access network device, the first information. receiving, by an access network device, downlink non-access stratum NAS signaling from a core network device, the downlink NAS signaling comprises first information, wherein the first information comprises an identifier of allowed session management-network slice selection assistance information NSSAI; wherein the session management-NSSAI comprises a slice/service type; and storing, by the access network device, the first information.
A system comprising: a movable image capturing means having an optical axis; a sensing means for providing an output depending on a tilt of the optical axis; a first determination means for determining whether an image of a spherical object having a predetermined size is captured at a predetermined position in an output image from the image capturing means; a second determination means for, using the output from the sensing means, determining whether a plane perpendicular to the optical axis is horizontal, and a means for automatically storing an output image from the image capturing means as a specified image when: it is determined that an image of a spherical object having the predetermined size is captured at the predetermined position in the output image; and it is determined that a plane perpendicular to the optical axis is horizontal using the output from the sensing means. a movable image capturing means having an optical axis; a sensing means for providing an output depending on a tilt of the optical axis; a first determination means for determining whether an image of a spherical object having a predetermined size is captured at a predetermined position in an output image from the image capturing means; a second determination means for, using the output from the sensing means, determining whether a plane perpendicular to the optical axis is horizontal, and a means for automatically storing an output image from the image capturing means as a specified image when: it is determined that an image of a spherical object having the predetermined size is captured at the predetermined position in the output image; and it is determined that a plane perpendicular to the optical axis is horizontal using the output from the sensing means. it is determined that an image of a spherical object having the predetermined size is captured at the predetermined position in the output image; and it is determined that a plane perpendicular to the optical axis is horizontal using the output from the sensing means.
A magnetic resonance imaging system comprising a main magnet configured for generating a B0 field in an imaging zone and comprising a radio frequency system (116, 114, 118) configured for acquiring magnetic resonance data from the imaging zone, wherein the radio frequency system is configured for sending and receiving radio frequency signals to acquire the magnetic resonance data, wherein the radio frequency system comprises: - an elliptical transmission coil configured for generating a B1+ excitation field within the imaging zone; - an active B1 shim coil configured for being placed within the imaging zone, wherein the radio frequency system is configured for supplying radio frequency power to the active B1 shim coil during the generation of the B1+ excitation field by the elliptical transmission coil, wherein the B1 shim coil is configured for shimming the B1+ excitation field within the imaging zone; - a transceiver configured to supply radio frequency power to the elliptical transmission coil via transmit channels connected to the elliptical transmission coil; and - radio frequency couplers connected to the transmit channels and configured for supplying radio frequency power to the active B1 shim coil, wherein the elliptical transmission coil comprises at least two input ports wherein each input port is connected to the transceiver via one of the radio frequency couplers, wherein each of the radio frequency couplers is configured to divert some of the radio frequency power to the active B1 shim coil, preferably via a tuning element configured to adjust the amplitude and/or phase of the radio frequency power supplied to the active B1 shim coil. - an elliptical transmission coil configured for generating a B1+ excitation field within the imaging zone; - an active B1 shim coil configured for being placed within the imaging zone, wherein the radio frequency system is configured for supplying radio frequency power to the active B1 shim coil during the generation of the B1+ excitation field by the elliptical transmission coil, wherein the B1 shim coil is configured for shimming the B1+ excitation field within the imaging zone; - a transceiver configured to supply radio frequency power to the elliptical transmission coil via transmit channels connected to the elliptical transmission coil; and - radio frequency couplers connected to the transmit channels and configured for supplying radio frequency power to the active B1 shim coil, wherein the elliptical transmission coil comprises at least two input ports wherein each input port is connected to the transceiver via one of the radio frequency couplers, wherein each of the radio frequency couplers is configured to divert some of the radio frequency power to the active B1 shim coil, preferably via a tuning element configured to adjust the amplitude and/or phase of the radio frequency power supplied to the active B1 shim coil.
Copolymer based on acrylic acid, wherein the copolymer has a molar mass, expressed as a weight average and determined by means of gel permeation chromatography, of < 100 000 g/mol, and in addition to the acrylic acid has as comonomer an ester of an α-β-unsaturated monocarboxylic acid, characterized in that the acrylic acid has a weight fraction of > 50% by weight, based on the total weight of the copolymer, and a molecular polydispersity of between 2 and 5.