mhurhangee/ep-ind-claims huggingface dataset:
Welding wire feeding device with at least two roll receivers, in particular a drive roll receiver and a pressure roll receiver, wherein at least one of the two roll receivers is pivotable and is coupled to a pivoting actuating means, wherein the pivoting actuating means comprises an arresting device for arresting the position of the roll receiver, characterized in that the arresting device comprises an arresting means and a compressible pressure means that can be coupled to the arresting means, in particular to the outer circumference of the arresting means, wherein at least one recess running in the longitudinal direction of the arresting means is provided along the outer circumference of the arresting means, and the pressure means is formed as a means that is prestressed and compressed in the direction of the arresting means when it is in contact with the region rising up from the recess of the arresting means.
Water heater including a detection device (1, 21) for measuring the amount of water remaining inside a tank of the water heater (3, 30), characterized in that it comprises a capillary tube containing a heat transfer fluid, which is placed outside the tank of the water heater (3, 30), held under the layer of the thermal insulation and stuck against and over the whole height of the vertical outer surface of said tank, said capillary tube being connected to an indicator device comprising an amplification device arranged outside said tank and making it possible, under the effect of the expansion of the fluid contained in the capillary tube, to transmit either a movement to a component or a variation in resistance to an electronic system (24, 26), so as to continuously indicate the amount of available hot water remaining in the tank of the water heater (3, 30).
A method for deblurring a medical image comprising: receiving a blurred medical image and one or more acquisition parameters corresponding to acquisition of the blurred medical image, wherein the one or more acquisition parameters include imaging system settings used to acquire the medical image; incorporating the one or more acquisition parameters into a trained convolutional neural network, the convolutional neural network having been trained by using a plurality of pairs of sharp medical images and corresponding blurred medical images, wherein the incorporating comprises: mapping the one or more acquisition parameters to a plurality of values using an acquisition parameter transform, and inputting the plurality of values into an input layer of the trained convolutional neural network; wherein the method further comprises mapping, by the trained convolutional neural network, the blurred medical image to a deblurred medical image. receiving a blurred medical image and one or more acquisition parameters corresponding to acquisition of the blurred medical image, wherein the one or more acquisition parameters include imaging system settings used to acquire the medical image; incorporating the one or more acquisition parameters into a trained convolutional neural network, the convolutional neural network having been trained by using a plurality of pairs of sharp medical images and corresponding blurred medical images, wherein the incorporating comprises: mapping the one or more acquisition parameters to a plurality of values using an acquisition parameter transform, and inputting the plurality of values into an input layer of the trained convolutional neural network; wherein the method further comprises mapping, by the trained convolutional neural network, the blurred medical image to a deblurred medical image. mapping the one or more acquisition parameters to a plurality of values using an acquisition parameter transform, and inputting the plurality of values into an input layer of the trained convolutional neural network; wherein the method further comprises mapping, by the trained convolutional neural network, the blurred medical image to a deblurred medical image.
A method of configuring an ad-hoc wireless network between an authenticator and a plurality of wireless devices seeking authentication, the method comprising: assigning a wireless device as the authenticator; receiving a first setup message transmitted from a first device seeking authentication to the authenticator; initiating a first handshake process between the authenticator and the first device seeking authentication; receiving a second setup message transmitted from a second device seeking authentication to the authenticator, wherein the second setup message is received by the authenticator prior to completion of the first handshake process; initiating a second handshake process between the authenticator and the second device seeking authentication, wherein the second handshake process is initiated prior to completion of the first handshake process; completing the first handshake process; and completing the second handshake process. assigning a wireless device as the authenticator; receiving a first setup message transmitted from a first device seeking authentication to the authenticator; initiating a first handshake process between the authenticator and the first device seeking authentication; receiving a second setup message transmitted from a second device seeking authentication to the authenticator, wherein the second setup message is received by the authenticator prior to completion of the first handshake process; initiating a second handshake process between the authenticator and the second device seeking authentication, wherein the second handshake process is initiated prior to completion of the first handshake process; completing the first handshake process; and completing the second handshake process.
A method for a relay user equipment, UE, operating in a wireless communication system, the method comprising: configuring a sidelink logical channel; receiving sidelink data of the sidelink logical channel at the relay UE; when the received sidelink data becomes available for transmission in a Packet Data Convergence Protocol, PDCP, entity of the relay UE, checking whether the sidelink data of the sidelink logical channel is received from a base station, BS, or not, wherein, when the sidelink data of the sidelink logical channel is received from the BS and when a sidelink grant for transmitting the sidelink data is received from the BS during a certain time period after the sidelink data of the sidelink logical channel is received from the BS, buffer status reporting is not triggered, wherein, when the sidelink data of the sidelink logical channel is received from the BS and when the sidelink grant for transmitting the sidelink data is not received from the BS during the certain time period after the sidelink data of the sidelink logical channel is received from the BS, the buffer status reporting is triggered, and wherein, when the sidelink data of the sidelink logical channel is generated by the relay UE without receiving the sidelink data of the sidelink logical channel from the BS, the buffer status reporting is triggered. configuring a sidelink logical channel; receiving sidelink data of the sidelink logical channel at the relay UE; when the received sidelink data becomes available for transmission in a Packet Data Convergence Protocol, PDCP, entity of the relay UE, checking whether the sidelink data of the sidelink logical channel is received from a base station, BS, or not, wherein, when the sidelink data of the sidelink logical channel is received from the BS and when a sidelink grant for transmitting the sidelink data is received from the BS during a certain time period after the sidelink data of the sidelink logical channel is received from the BS, buffer status reporting is not triggered, wherein, when the sidelink data of the sidelink logical channel is received from the BS and when the sidelink grant for transmitting the sidelink data is not received from the BS during the certain time period after the sidelink data of the sidelink logical channel is received from the BS, the buffer status reporting is triggered, and wherein, when the sidelink data of the sidelink logical channel is generated by the relay UE without receiving the sidelink data of the sidelink logical channel from the BS, the buffer status reporting is triggered.
Method of heat treatment of natural clays and/or zeolites, wherein the clay and/or the zeolite is calcined under reducing conditions in the calcining zone (2, 2') in an entrained flow calciner or a fluidized bed within a temperature range from 600 to 1050°C, wherein a reduction of reddish-colored trivalent iron to divalent iron takes place under reducing conditions during the calcination and the clay and/or zeolite calcined under reducing conditions is then cooled down in a cooling zone (3, 3').
A sensitizer comprising 5-aminolevulinic acid, a derivative thereof, or a salt of these for use in detecting bladder cancer, wherein said derivative is selected from the group consisting of 5-aminolevulinic acid methyl ester, 5-aminolevulinic acid ethyl ester, 5-aminolevulinic acid propyl ester, 5-aminolevulinic acid butyl ester and 5-aminolevulinic acid pentyl ester, wherein the amount of ALA, the derivative thereof, or the salt of these contained in the sensitizer is, as a total in terms of moles, 10-50 mg per 1 kg body weight in ALA hydrochloride equivalent, and wherein said sensitizer is administered orally; and wherein said detecting comprises the steps of (a) irradiating the bladder with an excitation light at approximately 380-430 nm and (b) detecting fluorescence at approximately 600-700nm wherein steps (a) and (b) are performed 2-5 hours after administration of the sensitizer.
Light module for a motor vehicle headlight having n partial light modules (24.1, 24.2, 24.3, 24.4) which are arranged next to one another in a row and of which each i-th partial light module of the i = 1 to n partial light modules comprises an i-th light source (18.1, 18.2, 18.3, 18.4), an i-th primary optical system (20.1, 20.2, 20.3, 20.4) assigned to the i-th light source and an i-th secondary optical system (26.1, 26.2, 26.3, 26.4) assigned to the i-th light source, each partial light module being designed to illuminate a central solid angle region, the primary optical system of each of the n partial light modules (24.2) being designed and arranged to direct a part of the light emerging from the light source (18.2) of this partial light module (24.2) at the secondary optical system (26.2) of this partial light module (24.2) past a secondary optical system (26.3) of a partial light module (24.3) closest to this partial light module (24.2) in such a way that the closest partial light module (24.3) illuminates a peripheral solid angle region, which intersects with the central solid angle region and projects laterally beyond the central solid angle region, with this light, characterized in that the secondary optical systems are identical projection lenses (34.1, 34.2, 34.3, 34.4) which are arranged periodically, and in that each partial light module (24.1, 24.2, 24.3, 24.4) illuminates the same central solid angle region as every other one of the partial light modules (24.1, 24.2, 24.3, 24.4).
A method for wireless communication by a base station, comprising: generating a port precoding matrix which compresses a larger number of antenna elements to a smaller number of antenna ports; transmitting user equipment, UE-specific port reference signals to a UE using the port precoding matrix, wherein UEs are divided into multiple categories according to their capability of supporting multiple types of sub-array partition and associated codebooks; receiving feedback regarding channel state information, CSI, measured by the UE based on the UE-specific port reference signals; mapping multiple data layers to UE-specific antenna ports based on the feedback regarding CSI; mapping each of the UE-specific antenna ports to physical antenna elements; and transmitting data to the UE, based on the mapping of the multiple data layers and the mapping of antenna ports to the physical antenna elements. generating a port precoding matrix which compresses a larger number of antenna elements to a smaller number of antenna ports; transmitting user equipment, UE-specific port reference signals to a UE using the port precoding matrix, wherein UEs are divided into multiple categories according to their capability of supporting multiple types of sub-array partition and associated codebooks; receiving feedback regarding channel state information, CSI, measured by the UE based on the UE-specific port reference signals; mapping multiple data layers to UE-specific antenna ports based on the feedback regarding CSI; mapping each of the UE-specific antenna ports to physical antenna elements; and transmitting data to the UE, based on the mapping of the multiple data layers and the mapping of antenna ports to the physical antenna elements.
A system, comprising: a segmented solid feed pump, comprising: a closed-loop path; and a plurality of pump segments coupled together in series along the closed-loop path, wherein each pump segment comprises a holding receptacle, and the plurality of pump segments move along the closed-loop path wherein the segmented solid feed pump comprises a first transport section disposed along a first portion of the closed-loop path, wherein the first transport section comprises a first inlet duct, a first outlet duct, and a first guide extending between the first inlet duct and the first outlet duct, and characterized in that the first outlet duct comprises 3 an upper duct portion and a lower duct portion, the upper duct portion covers the holding receptacle of each pump segment moving by the first outlet duct, and the lower duct portion extends into the holding receptacle toward a bottom wall of each pump segment moving by the first outlet duct. a segmented solid feed pump, comprising: a closed-loop path; and a plurality of pump segments coupled together in series along the closed-loop path, wherein each pump segment comprises a holding receptacle, and the plurality of pump segments move along the closed-loop path a closed-loop path; and a plurality of pump segments coupled together in series along the closed-loop path, wherein each pump segment comprises a holding receptacle, and the plurality of pump segments move along the closed-loop path wherein the segmented solid feed pump comprises a first transport section disposed along a first portion of the closed-loop path, wherein the first transport section comprises a first inlet duct, a first outlet duct, and a first guide extending between the first inlet duct and the first outlet duct, and characterized in that the first outlet duct comprises 3 an upper duct portion and a lower duct portion, the upper duct portion covers the holding receptacle of each pump segment moving by the first outlet duct, and the lower duct portion extends into the holding receptacle toward a bottom wall of each pump segment moving by the first outlet duct.
Warp knitting machine with a bar arrangement having a longitudinal direction, which is driven by a drive train, wherein the bar arrangement is divided into at least two bar sections (2, 3) arranged side by side and the drive train acts on both bar sections (2, 3), wherein the drive train has a number of drive train sections corresponding to the number of bar sections (2, 3), 3), wherein the drive train sections act on the bar sections (2, 3) with different phase positions having a phase difference, characterized in that at least two main shaft sections (16, 17) are of the same design and are arranged with an angular offset relative to one another corresponding to the phase difference.
Method for diagnosing a tank ventilation system of an internal combustion engine which has a turbo charger or a compressor, wherein an introduction point of the tank ventilation system is arranged upstream of the turbo charger or the compressor in the intake section of the internal combustion engine, and a Venturi nozzle is arranged between the introduction point and a tank ventilation valve of the tank ventilation system, characterized in that a defect and/or dropping off of the line between the Venturi nozzle and the introduction point is detected by means of a change in at least one adaptation value and/or a correction factor in a control unit of the internal combustion engine or in a computing unit.
A method for providing system information, SI, by a base station, BS, in a wireless communication network, the SI comprising minimum SI and at least one other SI block, the method comprising: broadcasting the minimum SI having an area identification, ID, and at least one value tag; receiving a radio resource control, RRC, message requesting the at least one other SI block from a user equipment, UE; configuring, to the UE, a prohibit timer to set a time, wherein the BS does not receive, from the UE, another RRC message requesting the at least one other SI block within the time after reception of the RRC message. broadcasting the minimum SI having an area identification, ID, and at least one value tag; receiving a radio resource control, RRC, message requesting the at least one other SI block from a user equipment, UE; configuring, to the UE, a prohibit timer to set a time, wherein the BS does not receive, from the UE, another RRC message requesting the at least one other SI block within the time after reception of the RRC message.
An aqueous ink for a liquid jetting device, comprising: a fluorosurfactant; and N-alkyl-2-pyrrolidone, wherein an alkyl group contained in N-alkyl-2-pyrrolidone is a C4-10 alkyl group, wherein an amount of the fluorosurfactant is 30% by mass or less relative to the total amount of the fluorosurfactant and N-alkyl-2-pyrrolidone, and wherein the aqueous ink further comprises a water-soluble organic solvent which is at least one selected from the group consisting of polyhydric alcohol, polyhydric alcohol alkyl ether, polyhydric alcohol aryl ether, a nitrogen-containing heterocyclic compound, amide, amine, a sulfur-containing compound, propylene carbonate, and ethylene carbonate. a fluorosurfactant; and N-alkyl-2-pyrrolidone,
Connexin 43 for use in the treatment of cancer, wherein the cancer is characterized by the activation of a mitogen-activated protein kinase (MAPK) selected from the list consisting of: BRAF, RAS, MEK or ERK.
A textile machine having a plurality of spinning or winding stations, the spinning or winding stations and/or the textile machine comprising at least one component displaceable between at least two positions (4, 5), and the textile machine comprising at least one sensor unit by means of which a position (4, 5) and/or motion of the component can be detected, characterized in that the sensor unit comprises an inertial measurement unit for capturing a magnitude and a direction of the change in position and/or motion of the component, and that the inertial measurement unit comprises at least one MEMS element.
An endoscopic camera system comprising: a camera that captures and outputs an image; a camera controller coupled to the camera; and a user input device coupled to the camera or the camera controller, wherein the user input device is usable to select a region of interest in the image, the region of interest being a sub-part of the image; wherein the camera controller: computes a measured luminance value for the region of interest; and adjusts an exposure in response to a comparison of the measured luminance value with a target luminance value, characterized in, that the image further comprises an image center and an orientation indicator; the orientation of the scope of the endoscopic camera system is obtained from the orientation indicator, which is a shape in a stop mask; the region of interest has a region of interest center positioned at a fixed distance from the image center; and the camera controller changes the region of interest center based on changes in position of the orientation indicator. a camera that captures and outputs an image; a camera controller coupled to the camera; and a user input device coupled to the camera or the camera controller, wherein the user input device is usable to select a region of interest in the image, the region of interest being a sub-part of the image; wherein the camera controller: computes a measured luminance value for the region of interest; and adjusts an exposure in response to a comparison of the measured luminance value with a target luminance value, characterized in, that the image further comprises an image center and an orientation indicator; the orientation of the scope of the endoscopic camera system is obtained from the orientation indicator, which is a shape in a stop mask; the region of interest has a region of interest center positioned at a fixed distance from the image center; and the camera controller changes the region of interest center based on changes in position of the orientation indicator. computes a measured luminance value for the region of interest; and adjusts an exposure in response to a comparison of the measured luminance value with a target luminance value, characterized in, that the image further comprises an image center and an orientation indicator; the orientation of the scope of the endoscopic camera system is obtained from the orientation indicator, which is a shape in a stop mask; the region of interest has a region of interest center positioned at a fixed distance from the image center; and the camera controller changes the region of interest center based on changes in position of the orientation indicator.
A device for suspending gas channel elements on a housing of a gas turbine, in particular for suspending guide vanes or guide vane segments or gas channel plates or gas channel plate segments, comprising a plurality of first plate-shaped elements (11, 12, 13, 14) and a plurality of second plate-shaped elements (15, 16, 17), wherein the first plate-shaped elements (11, 12, 13, 14) and the second plate-shaped elements (15, 16, 17) are connected to one another by web-like elements which extend approximately perpendicular to said plate-shaped elements, forming a crenelated profile, and wherein in each case a second plate-like element (15; 16; 17) is positioned between two adjacent first plate-shaped elements (11, 12; 12, 13; 13, 14), which are spaced apart from one another, in such a way that the second plate-like element (15; 16; 17) is connected at each of its opposing ends by means of a respective web-like element to a respective one of the two adjacent first plate-shaped elements (11, 12; 12, 13; 13, 14), characterized in that in the installed state the first plate-shaped elements (11, 12, 13, 14) serve only for connection to the housing of the gas turbine and the second plate-shaped elements (15, 16, 17) serve only for connection to at least one gas channel element, wherein the web-like elements serve only for connection of the first and second plate-shaped elements.