mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus comprises: first obtainment means configured to obtain HDR data which represents a high-dynamic range image; wherein in an image transfer function of the HDR data, a tone of each pixel is defined based on a relative luminance value; and second obtainment means configured to obtain print information to perform printing based on the HDR data obtained by the first obtainment means; characterized by third obtainment means configured to obtain a maximum luminance value and a minimum luminance value which are luminance information of each of a plurality of display apparatuses; setting means configured to set the luminance information of a display apparatus with the narrowest luminance dynamic range among the plurality of display apparatuses as a target absolute luminance value; and luminance conversion means configured to perform a luminance conversion on the HDR data obtained by the first obtainment means so that, in an image transfer function of the HDR data, a tone of each pixel is defined based on an absolute luminance value and the target absolute luminance value is a maximum luminance; conversion means configured to convert a dynamic range of luminance of HDR data on which the luminance conversion means has performed the luminance conversion, into a dynamic range corresponding to print of an image on a print medium to be performed specified by the print information obtained by the second obtainment means, wherein the print information is information for specifying a dynamic range to be obtained by the conversion by the conversion means. first obtainment means configured to obtain HDR data which represents a high-dynamic range image; wherein in an image transfer function of the HDR data, a tone of each pixel is defined based on a relative luminance value; and second obtainment means configured to obtain print information to perform printing based on the HDR data obtained by the first obtainment means; characterized by third obtainment means configured to obtain a maximum luminance value and a minimum luminance value which are luminance information of each of a plurality of display apparatuses; setting means configured to set the luminance information of a display apparatus with the narrowest luminance dynamic range among the plurality of display apparatuses as a target absolute luminance value; and luminance conversion means configured to perform a luminance conversion on the HDR data obtained by the first obtainment means so that, in an image transfer function of the HDR data, a tone of each pixel is defined based on an absolute luminance value and the target absolute luminance value is a maximum luminance; conversion means configured to convert a dynamic range of luminance of HDR data on which the luminance conversion means has performed the luminance conversion, into a dynamic range corresponding to print of an image on a print medium to be performed specified by the print information obtained by the second obtainment means, wherein the print information is information for specifying a dynamic range to be obtained by the conversion by the conversion means.
An apparatus for management control of annular anchoring structures in a processing station for building tyres for vehicle wheels, comprising: a battery of carousels (22a, 22b) disposed close to each other, each of said carousels (22a, 22b) carrying at least two baskets (35a, 35b), each adapted to receive a plurality of annular anchoring structures; a handling device to pick up the annular anchoring structures from the baskets (35a, 35b) and release said annular anchoring structures to the processing station; wherein, through rotation of the respective carousel (22a, 22b), each basket (35a, 35b) is movable between a work region placed in front of the handling device, and a loading region facing away from the handling device. a battery of carousels (22a, 22b) disposed close to each other, each of said carousels (22a, 22b) carrying at least two baskets (35a, 35b), each adapted to receive a plurality of annular anchoring structures; a handling device to pick up the annular anchoring structures from the baskets (35a, 35b) and release said annular anchoring structures to the processing station; wherein, through rotation of the respective carousel (22a, 22b), each basket (35a, 35b) is movable between a work region placed in front of the handling device, and a loading region facing away from the handling device.
A method for periodically issuing a recommendation by an adaptive voltage scaling, AVS, system for increasing or decreasing a supply voltage of a semiconductor, the method comprising: prior to issuing a recommendation by the AVS system: performing a first iteration of an AVS operation to sample characteristics of at least one of a voltage, temperature, and clock frequency of the semiconductor device to determine a first adjustment recommendation; and performing at least one additional iteration of the AVS operation to determine at least one additional adjustment recommendation; and in response to the first adjustment recommendation and each of the at least one additional adjustment recommendations being consistent, issuing the recommendation by the AVS system. prior to issuing a recommendation by the AVS system: performing a first iteration of an AVS operation to sample characteristics of at least one of a voltage, temperature, and clock frequency of the semiconductor device to determine a first adjustment recommendation; and performing at least one additional iteration of the AVS operation to determine at least one additional adjustment recommendation; and performing a first iteration of an AVS operation to sample characteristics of at least one of a voltage, temperature, and clock frequency of the semiconductor device to determine a first adjustment recommendation; and performing at least one additional iteration of the AVS operation to determine at least one additional adjustment recommendation; and in response to the first adjustment recommendation and each of the at least one additional adjustment recommendations being consistent, issuing the recommendation by the AVS system.
A method for producing lithium hydroxide anhydride from lithium hydroxide hydrate by using a rotary kiln which has a furnace core tube and a heating furnace surrounding a certain part of the furnace core tube in the axial direction, wherein the method comprises the steps of: supplying the lithium hydroxide hydrate to a region between a heating part which is the part of the furnace core tube surrounded by the heating furnace and one end of the furnace core tube; delivering the supplied lithium hydroxide hydrate toward the other end of the furnace core tube; feeding a drying gas with a temperature of 100°C or higher to the region between the one end and the heating part of the furnace core tube, when the lithium hydroxide hydrate is supplied; and heating and dehydrating the lithium hydroxide hydrate by the heating furnace which is set to 230-450°C during the lithium hydroxide delivering step, to form lithium hydroxide anhydride. supplying the lithium hydroxide hydrate to a region between a heating part which is the part of the furnace core tube surrounded by the heating furnace and one end of the furnace core tube; delivering the supplied lithium hydroxide hydrate toward the other end of the furnace core tube; feeding a drying gas with a temperature of 100°C or higher to the region between the one end and the heating part of the furnace core tube, when the lithium hydroxide hydrate is supplied; and heating and dehydrating the lithium hydroxide hydrate by the heating furnace which is set to 230-450°C during the lithium hydroxide delivering step, to form lithium hydroxide anhydride.
A purified and isolated polypeptide selected from the group consisting of a) a human Glial Cell Line-Derived Neurotrophic Factor (GDNF) protein splice variant (pre-(β)pro-GDNF) having a V38M mutation and comprising an amino acid sequence as set forth in SEQ ID NO:31, and b) a truncated form of a human Glial Cell Line-Derived Neurotrophic Factor (GDNF) protein splice variant (pre-(β)pro-GDNF) lacking 38 amino acids from the N-terminus of the mature polypeptide moiety and comprising an amino acid sequence as set forth in SEQ ID NO:35. a) a human Glial Cell Line-Derived Neurotrophic Factor (GDNF) protein splice variant (pre-(β)pro-GDNF) having a V38M mutation and comprising an amino acid sequence as set forth in SEQ ID NO:31, and b) a truncated form of a human Glial Cell Line-Derived Neurotrophic Factor (GDNF) protein splice variant (pre-(β)pro-GDNF) lacking 38 amino acids from the N-terminus of the mature polypeptide moiety and comprising an amino acid sequence as set forth in SEQ ID NO:35.
A method of transmitting a synchronization signal, which is transmitted by a base station via an antenna array in a wireless communication system, the method comprising: generating a codebook configured by second precoders, which are defined by concatenation of a plurality of first precoders corresponding to each of a plurality of antenna subarrays; generating a synchronization sequence by multiplying a reference sequence, which is inputted over a plurality of time slots, by an orthogonal cover code, OCC, applied over the plurality of time slots for each of the plurality of the antenna subarrays; generating a synchronization signal for the plurality of the antenna subarrays by applying the second precoder to the generated synchronization sequences; and repeatedly transmitting the synchronization signal defined in the plurality of the time slots via the plurality of the antenna subarrays, wherein each of the plurality of the antenna subarrays corresponds to a narrow bean, which is formed by one of the plurality of first precoders, by using an independent radio frequency, RF, chain, wherein antenna subarrays corresponding to beams belonging to a same sector use different reference sequences and a same OCC, wherein antenna subarrays corresponding to beams adjacent to each other and belonging to adjacent sectors use different reference sequences and different OCCs, and wherein a combination between the reference sequence and the OCC indicates additional information transmitted to a user equipment. generating a codebook configured by second precoders, which are defined by concatenation of a plurality of first precoders corresponding to each of a plurality of antenna subarrays; generating a synchronization sequence by multiplying a reference sequence, which is inputted over a plurality of time slots, by an orthogonal cover code, OCC, applied over the plurality of time slots for each of the plurality of the antenna subarrays; generating a synchronization signal for the plurality of the antenna subarrays by applying the second precoder to the generated synchronization sequences; and repeatedly transmitting the synchronization signal defined in the plurality of the time slots via the plurality of the antenna subarrays, wherein each of the plurality of the antenna subarrays corresponds to a narrow bean, which is formed by one of the plurality of first precoders, by using an independent radio frequency, RF, chain, wherein antenna subarrays corresponding to beams belonging to a same sector use different reference sequences and a same OCC, wherein antenna subarrays corresponding to beams adjacent to each other and belonging to adjacent sectors use different reference sequences and different OCCs, and wherein a combination between the reference sequence and the OCC indicates additional information transmitted to a user equipment.
Procedure for splaying a strand of fibre with an initial width and initial thickness into a band-shaped strand of fibre, with a larger end width and reduced end thickness, whereby, the strand of fibre comprises of continuous multi-filament fibres, - in which the strand of fibre is moved, emanating from unwinding to winding, in the longitudinal direction (x-Direction), - whereby, between unwinding and winding, the strand of fibre passes through a splaying station and, whilst passing through the station, is retained in a state of tension which can be adjusted, characterized in that, - the strand of fibre is uniformly tensioned whilst passing through the splaying station, - the strand of fibre contacts a minimum of one sonotrode in the splaying station and, due to contact with the contact surfaces of the sonotrode on the face, is uniformly widened from the top and/or bottom (z-Direction) by oscillations induced transversely into the strand of fibre, namely in the side direction (y-Direction), - whereby, these oscillations have a frequency of between 15 kHz and 80 kHz. - in which the strand of fibre is moved, emanating from unwinding to winding, in the longitudinal direction (x-Direction), - whereby, between unwinding and winding, the strand of fibre passes through a splaying station and, whilst passing through the station, is retained in a state of tension which can be adjusted, - the strand of fibre is uniformly tensioned whilst passing through the splaying station, - the strand of fibre contacts a minimum of one sonotrode in the splaying station and, due to contact with the contact surfaces of the sonotrode on the face, is uniformly widened from the top and/or bottom (z-Direction) by oscillations induced transversely into the strand of fibre, namely in the side direction (y-Direction), - whereby, these oscillations have a frequency of between 15 kHz and 80 kHz.
Method for producing a three-dimensionally formed electroluminescent surface using a foil blank having at least one electrode layer, wherein a three-dimensionally formed surface equipped with electroluminescent functional layers is provided with at least one terminal electrode layer, characterised in that at least one of the functional and/or electrode layers (304, 310), once the component has its final form, is applied by the pad printing method in order to complete the electroluminescent surface.
A user equipment comprising: a detector operative to detect a fourth type of DCI or a second type of DCI in the PDCCH region or the start shortened TTI of a subframe; and circuitry operative to determine whether the detected DCI is the fourth type of DCI or the second type of DCI, wherein if the detected DCI is the fourth type of DCI, the detector is further operative to detect in the same subframe the fourth type of DCI in one or more shortened TTIs after where the fourth type of DCI is detected for the first time in the subframe; wherein each fourth type of DCI schedules a different shortened TTI in the subframe; if the detected DCI is the second type of DCI, the detector is further operative to detect in the same subframe a third type of DCI in one or more shortened TTIs after the second type of DCI in the subframe; and the shortened TTI has 7 or less OFDM symbols, characterized in that the second type of DCI is a slow DCI, the third type of DCI is a fast DCI, and a slow DCI carries common information for one slot or one subframe, and a fast DCI carries information specific to its target shortened TTI. a detector operative to detect a fourth type of DCI or a second type of DCI in the PDCCH region or the start shortened TTI of a subframe; and circuitry operative to determine whether the detected DCI is the fourth type of DCI or the second type of DCI, wherein if the detected DCI is the fourth type of DCI, the detector is further operative to detect in the same subframe the fourth type of DCI in one or more shortened TTIs after where the fourth type of DCI is detected for the first time in the subframe; wherein each fourth type of DCI schedules a different shortened TTI in the subframe; if the detected DCI is the second type of DCI, the detector is further operative to detect in the same subframe a third type of DCI in one or more shortened TTIs after the second type of DCI in the subframe; and the shortened TTI has 7 or less OFDM symbols, characterized in that the second type of DCI is a slow DCI, the third type of DCI is a fast DCI, and a slow DCI carries common information for one slot or one subframe, and a fast DCI carries information specific to its target shortened TTI.
A resin composition having a phase separation structure comprising a continuous phase of a thermoplastic resin A and a dispersion phase of a thermoplastic resin B, the thermoplastic resin A and the thermoplastic resin B each having a glass transition temperature of -50°C or more and 50°C or less, an absolute value of a difference between glass transition temperatures Tg1 and Tg2, which are each in a range of -50°C or more and 50°C or less, being 17°C or less, said glass transition temperatures being measured by a method as in the description; and a haze of the resin composition at 23°C measured according to the following method being less than 1.5%: (Method for measuring haze) laminated glass is produced by providing a film comprising the resin composition and having a thickness of 800 μm, and two sheets of float glass having a thickness of 1.0 mm, a length of 75 mm and a width of 75 mm, and sandwiching the film between the two sheets of float glass, and a haze at 23°C of the laminated glass is measured by a method according to JIS K 6714.
Integrated device for producing substitute natural gas, comprising: - a gasifier configured for producing a gaseous compound from a biomass, comprising: - an inlet for biomass; - an inlet for an oxidizing agent; and - an outlet for the gaseous compound comprising carbon monoxide; - a first means for methanating the carbon monoxide, downstream from the gasifier, to produce substitute natural gas from the gaseous compound output from the gasifier, the carbon monoxide methanation means comprising at least one inlet for water and an inlet for the gaseous compound coming from the gasifier; - downstream from the first means for methanating, a carbon dioxide separator for supplying a second means for methanating carbon dioxide in carbon dioxide, - the second means for methanating carbon dioxide to produce a gas compound comprising substitute natural gas comprising at least one inlet for water and an inlet for the carbon dioxide coming from the separator; - a means for producing dihydrogen from water and electric current comprising: - an electrical power supply; - an inlet for water and - an outlet for dihydrogen supplying the means for methanating carbon dioxide. - a gasifier configured for producing a gaseous compound from a biomass, comprising: - an inlet for biomass; - an inlet for an oxidizing agent; and - an outlet for the gaseous compound comprising carbon monoxide; - an inlet for biomass; - an inlet for an oxidizing agent; and - an outlet for the gaseous compound comprising carbon monoxide; - a first means for methanating the carbon monoxide, downstream from the gasifier, to produce substitute natural gas from the gaseous compound output from the gasifier, the carbon monoxide methanation means comprising at least one inlet for water and an inlet for the gaseous compound coming from the gasifier; - downstream from the first means for methanating, a carbon dioxide separator for supplying a second means for methanating carbon dioxide in carbon dioxide, - the second means for methanating carbon dioxide to produce a gas compound comprising substitute natural gas comprising at least one inlet for water and an inlet for the carbon dioxide coming from the separator; - a means for producing dihydrogen from water and electric current comprising: - an electrical power supply; - an inlet for water and - an outlet for dihydrogen supplying the means for methanating carbon dioxide. - an electrical power supply; - an inlet for water and - an outlet for dihydrogen supplying the means for methanating carbon dioxide.
An agricultural harvesting system with an agricultural harvesting machine, in particular a forage harvester, which has a conveying channel for a flow of crop produced in a harvesting process by harvesting a field crop, as well as a NIR sensor device with a NIR sensor which is configured to measure constituents and/or properties of the flow of crop, wherein the flow of crop in the conveying channel is fed past the NIR sensor, characterized in that the agricultural harvesting machine furthermore has a data transmission unit which is configured to transmit the crop flow data generated by the NIR sensor device and corresponding to the constituents and/or properties measured by the NIR sensor to an offline data processing device and to process the crop flow data therein in a manner which is temporally decoupled from its generation and/or its reception.
System for controlling the engine torque of a motor vehicle for optimising the fuel consumption of said vehicle, comprising at least one front detection sensor for detecting a vehicle in front of the vehicle equipped with said control system, characterized in that it comprises calculation means that are able to determine an engine torque setpoint that optimizes fuel consumption (Co) from an engine torque setpoint desired by the driver (Cc) and from variables that are representative of a driving context proceeding from the front detection sensor.
A system for subjecting a longitudinally mobile elongate solid phase to a plurality of successive treatments, comprising a plurality of phase contact devices (400, 401, 500) for contacting the mobile elongate solid phase with a flowing fluid phase, each phase contact device comprising (i) a conduit which is circular or non-circular in transverse cross-section and defines a lumen to contain both the flowing fluid phase and the mobile elongate solid phase, (ii) fluid phase ports (7, 8) in communication with the lumen to allow the fluid phase to enter the lumen, flow through it and exit it, and (iii) solid phase ports (9, 10) in communication with the lumen to allow the mobile solid phase to enter the lumen, move through it and exit it, the phase contact device being adapted to prevent fluid egress from its interior through the solid phase ports; wherein: the system is arranged for a solid phase pathway to be defined between successive phase contact devices (400, 401, 500) such that the solid phase may move through the successive phase contact devices one after another; a first phase contact device and a second phase contact device are disposed in succession along the pathway and are arranged to receive fluid from a common first fluid source; a third phase contact device along the pathway is arranged to receive fluid from a second fluid source. the system is arranged for a solid phase pathway to be defined between successive phase contact devices (400, 401, 500) such that the solid phase may move through the successive phase contact devices one after another; a first phase contact device and a second phase contact device are disposed in succession along the pathway and are arranged to receive fluid from a common first fluid source; a third phase contact device along the pathway is arranged to receive fluid from a second fluid source.