mhurhangee/ep-ind-claims huggingface dataset:
Writing-, marking- and/or drawing fluid for writing instruments, in particular for capillary writing instruments, which has a viscosity of less than 50mPas (Brookfield, 20°C, cone-plate CPE-40), containing a resin mixture dissolved in a solvent matrix comprising at least one solvent, wherein the resin mixture contains, as a first resin, a modified resin ester or a polyester resin in dissolved form and, as a second resin, a maleic resin or a colophony resin, in particular a phenol-modified colophony resin, and wherein as additives, at least one fluoro-surfactant as a wetting agent in a proportion of from 0.3 to 2.0% by weight and at least one polyether siloxane copolymer as a lubricant in a proportion of from 0.3 to 2.0% by weight are contained.
A battery module, comprising: a plurality of batteries that is stacked; two end plates disposed at two ends of the plurality of batteries in a direction in which the plurality of batteries is stacked; and a fixing strap comprising a strap-shaped body and an elastic fixing part, wherein the strap-shaped body surrounds the plurality of batteries and the two end plates and defines a gap, and the elastic fixing part is disposed in the gap and connected to the strap-shaped body, wherein the elastic fixing part is a spring, and two ends of the spring are respectively connected to two ends of the strap-shaped body to form a closed fixing strap, and wherein the battery module is characterized in that the fixing strap further comprises a cover plate for covering a side of the spring facing away from the plurality of batteries, and the cover plate is fixedly connected to one of the two end plates through a connecting part. a plurality of batteries that is stacked; two end plates disposed at two ends of the plurality of batteries in a direction in which the plurality of batteries is stacked; and a fixing strap comprising a strap-shaped body and an elastic fixing part, wherein the strap-shaped body surrounds the plurality of batteries and the two end plates and defines a gap, and the elastic fixing part is disposed in the gap and connected to the strap-shaped body, wherein the elastic fixing part is a spring, and two ends of the spring are respectively connected to two ends of the strap-shaped body to form a closed fixing strap, and wherein the battery module is characterized in that the fixing strap further comprises a cover plate for covering a side of the spring facing away from the plurality of batteries, and the cover plate is fixedly connected to one of the two end plates through a connecting part.
A trocar mandrel comprising an elongated shaft-like mandrel body (14, 64, 74), the distal end of which is provided with a tip (18, 20), and the proximal end of which comprises a head (12, 62, 72), wherein at least one second elongated shaft-like mandrel body (16; 66, 68, 76) is attached to the head (12, 62, 72) in such a way that the mandrel bodies extend away from the head at a distance with respect to one another, wherein the head comprises a proximal cover surface, and that the shaft-like mandrel bodies extend away from the distal end of the head, wherein the head (12, 62, 72), seen towards the proximal cover surface, is arranged as a rounded body, characterized in that a circumferential profile (52, 65) of the cover surface corresponds to an envelope curve that encircles the mandrel bodies (14, 16; 64, 66, 68) at a different diameter.
A four-junction space-qualified solar cell designed for operation at AM0 and at a 1 MeV electron equivalent fluence of at least 1 x 10 14 e/cm2, the solar cell comprising a plurality of subcells, wherein a combination of compositions and band gaps of the subcells is designed to maximize efficiency of the solar cell at a predetermined time after initial deployment when the solar cell is deployed in space at AM0 and at an operational temperature in the range of 40 to 70 degrees Centigrade, the predetermined time being at least five years and referred to as the end-of-life, the solar cell comprising: upper first solar subcell composed of indium gallium aluminum phosphide and having a first band gap, the first band gap being equal to 2.03 eV, attached to a glass supporting member with a transparent adhesive; a second solar subcell adjacent to said first solar subcell and including an emitter layer composed of indium gallium phosphide or aluminum indium gallium arsenide, and a base layer composed of aluminum indium gallium arsenide, and having a second band gap being equal to 1.55 and being lattice matched with the upper first solar subcell, wherein the emitter and base layers of the second solar subcell form a photoelectric junction; a third solar subcell adjacent to said second solar subcell and composed of indium gallium arsenide having a third band gap smaller than the second band gap and being lattice matched with the second solar subcell, the third band gap being equal to 1.2 eV; a fourth solar subcell adjacent to said third solar subcell and lattice mismatched therefrom and composed of germanium having a fourth band gap of approximately 0.67 eV, and a distributed Bragg reflector layer adjacent to and between the third and the fourth solar subcells and arranged so that light can enter and pass through the third solar subcell and at least a portion of which can be reflected back into the third solar subcell by the DBR layer. upper first solar subcell composed of indium gallium aluminum phosphide and having a first band gap, the first band gap being equal to 2.03 eV, attached to a glass supporting member with a transparent adhesive; a second solar subcell adjacent to said first solar subcell and including an emitter layer composed of indium gallium phosphide or aluminum indium gallium arsenide, and a base layer composed of aluminum indium gallium arsenide, and having a second band gap being equal to 1.55 and being lattice matched with the upper first solar subcell, wherein the emitter and base layers of the second solar subcell form a photoelectric junction; a third solar subcell adjacent to said second solar subcell and composed of indium gallium arsenide having a third band gap smaller than the second band gap and being lattice matched with the second solar subcell, the third band gap being equal to 1.2 eV; a fourth solar subcell adjacent to said third solar subcell and lattice mismatched therefrom and composed of germanium having a fourth band gap of approximately 0.67 eV, and
A dental cleaning apparatus using liquid droplets, comprising: an appliance body (20, 32) including a nozzle assembly (12, 39) with a pathway through which a stream of gas is directed and one or more nozzle exit orifices (18, 42); a source of compressed gas (31, 34); a reservoir for liquid (22, 33); and one or more liquid connecting pathways (23,38) from the liquid reservoir through which liquid in the reservoir is moved into the stream of gas in the nozzle pathway, wherein the liquid connecting pathways are so configured to have an exit point relative to the stream of gas through the nozzle pathway, that gas moving through the nozzle pathway draws liquid from the liquid reservoir into the stream of gas, resulting in the creation of liquid droplets which then move out through the exit orifice toward the dental regions to be cleaned, wherein the appliance body includes a base portion containing the liquid reservoir and the source of compressed gas, and a mid-portion which contains a sleeve in fluid-tight connection with the liquid reservoir and the source of compressed gas, the sleeve including a wall portion and a central open portion, the wall portion having a plurality of longitudinal openings therethrough, wherein liquid is drawn from the liquid reservoir through the longitudinal openings by different pressure created by the flow of gas through the central open portion of the sleeve. an appliance body (20, 32) including a nozzle assembly (12, 39) with a pathway through which a stream of gas is directed and one or more nozzle exit orifices (18, 42); a source of compressed gas (31, 34); a reservoir for liquid (22, 33);
A method for executing a game presented on a screen of a head mounted display, HMD, comprising, executing the game, the execution rendering interactive scenes of the game on the screen, the screen being operated in a non-transparent mode; receiving images of the HMD worn by a user to identify a first spatial position of the HMD in a capture location that is directed toward the user; receiving images of a controller held by the user to identify a second spatial position of the controller in the capture location, the controller providing input to at least partially drive interaction with the game being executed; receiving images that are used to identify a shift from a first gaze direction to a second gaze direction when the user is viewing the interactive scenes of the game presented on the screen of the HMD, the images that are used to identify the shift being captured using one or more internal cameras mounted on the HMD and directed towards the user's eyes; receiving real-world images in line with the second gaze direction of the user's eyes, the real-world images being captured from a forward facing camera of the HMD; transitioning a portion of the screen in the second gaze direction to a transparent mode, in response to detection of the shift, such that a portion of the captured real-world images is presented in the portion of the screen which is in the transparent mode; and discontinuing the transparent mode for the portion after a period of time, wherein the method operations are performed by a processor.
A computer-implemented method for determining a position and orientation of a camera using another camera imaging a common scene and having a known position and orientation, the method comprising the procedures of: capturing a first image (331, 332, 333) of a scene with a first camera (312; 322) disposed on a first platform, the position and orientation of the first camera (312; 322) obtained by georegistering the camera images to a 3D geographic model; capturing a second image of at least a portion of the scene with a second camera (317; 327) disposed on a second platform; extracting scene features (314, 315, 316; 324, 325, 326) in the first image (331, 332, 333) and providing a respective descriptor for each extracted scene feature (314, 315, 316; 324, 325, 326); determining the 3D position and orientation of each extracted scene feature (314, 315, 316; 324, 325, 326) by mapping to a 3D geographic model, characterized in: transmitting the feature descriptors and the 3D position and orientation of each scene feature (314, 315, 316; 324, 325, 326) from the first platform to the second platform; extracting scene features (314, 315, 316; 324, 325, 326) in the second image and providing a respective descriptor for each extracted scene feature (314, 315, 316; 324, 325, 326); matching the scene features (314, 315, 316; 324, 325, 326) in the second image with the scene features (314, 315, 316; 324, 325, 326) in the first image (331, 332, 333); and determining 3D position and orientation coordinates of the second camera (317; 327) using the 3D coordinates in the scene and their corresponding 2D projections in the second image. capturing a first image (331, 332, 333) of a scene with a first camera (312; 322) disposed on a first platform, the position and orientation of the first camera (312; 322) obtained by georegistering the camera images to a 3D geographic model; capturing a second image of at least a portion of the scene with a second camera (317; 327) disposed on a second platform; extracting scene features (314, 315, 316; 324, 325, 326) in the first image (331, 332, 333) and providing a respective descriptor for each extracted scene feature (314, 315, 316; 324, 325, 326); determining the 3D position and orientation of each extracted scene feature (314, 315, 316; 324, 325, 326) by mapping to a 3D geographic model, transmitting the feature descriptors and the 3D position and orientation of each scene feature (314, 315, 316; 324, 325, 326) from the first platform to the second platform; extracting scene features (314, 315, 316; 324, 325, 326) in the second image and providing a respective descriptor for each extracted scene feature (314, 315, 316; 324, 325, 326); matching the scene features (314, 315, 316; 324, 325, 326) in the second image with the scene features (314, 315, 316; 324, 325, 326) in the first image (331, 332, 333); and determining 3D position and orientation coordinates of the second camera (317; 327) using the 3D coordinates in the scene and their corresponding 2D projections in the second image.
A composition consisting of silver particles which are covered in a linear fatty acid having six or less carbon atoms, wherein the linear fatty acid adheres to the surface of the silver particles, and wherein the composition is dispersed in a polar solvent, wherein the linear fatty acid is hexanoic acid, and the polar solvent is selected from the group consisting of water, alcohol, polyol, glycol, ether, 1-methylpyrolidinone, pyridine, terpineol, butyl carbitol, butyl carbitol acetate, texanol and phenoxypropanol.
Manual cutting system for cutting out a material portion from a material web for disposable surgical materials, such as surgical drapes, in particular drapes for patients and/or instruments, and/or theatre wear, in particular theatre gowns, having at least one cutting template and having a separate cutting tool, wherein the cutting template has an internal wall which surrounds a clearance, and wherein the internal wall extends across a height H between an upper side and a lower side of the template, and the cutting tool has a cutting blade which is mounted so as to be rotatable about a rotation axis, running in the longitudinal direction, and a handle, wherein the handle is configured as a cylindrical handle sleeve which has an external wall and surrounds the rotation axis, characterized in that the cutting blade in an operating position extends beyond a lower end of the handle sleeve only so far that at least 50% of the height H of the internal wall of the cutting template during the cutting operation may form a stop for the external wall of the handle sleeve.
A method of stabilizing positional data in a digitizer tablet for reporting a position of a pointer, the method comprising the steps of: detecting a current location of the pointer with respect to a coordinate grid defined on the tablet and outputting a position signal indicative of the current pointer location; filtering noise (S 130) from the position signal based on at least one filter parameter; characterized by determining a height of the pointer above a tablet surface; and estimating an amount of jitter in the position signal which is based on the height of the pointer from the tablet; and adjusting the at least one filter parameter based on the estimated amount of jitter, wherein the at least one filter parameter comprises a window size N of the filtering unit and the method includes the step of filtering the noise from the position signal by applying a rectangular windowing filter to the position signal so that at each value of the position signal, the most recent N output position sample values are averaged to determine a current value of the position signal. detecting a current location of the pointer with respect to a coordinate grid defined on the tablet and outputting a position signal indicative of the current pointer location; filtering noise (S 130) from the position signal based on at least one filter parameter;
A method for obtaining a nonplanar peelable shim including the following steps: - compressing an alternating stack of sheets of material and layers of an adhesive that is polymerizable by curing, in a form of the adhesive to be polymerized; - polymerizing the adhesive in order to obtain a polymerized adhesive, so as to obtain a peelable stack, the stack being compressed; - stripping the stack after polymerization; and - finalizing the nonplanar peelable shim from the stack after stripped polymerization, and where the compression and the polymerization are done in a shaping mold (2, 3) corresponding to the shape of the nonplanar peelable shim to be obtained, the stack before finalization forming a blank of the nonplanar peelable shim to be obtained and the finalization step includes a sub-step for machining the stack after polymerization to the final dimensions of the nonplanar peelable shim to be obtained, the stack after polymerization being placed in a finishing mold (11, 12) with lateral edges at the final dimensions of the nonplanar peelable shim to be obtained, the stack being corrected to said dimensions. - compressing an alternating stack of sheets of material and layers of an adhesive that is polymerizable by curing, in a form of the adhesive to be polymerized; - polymerizing the adhesive in order to obtain a polymerized adhesive, so as to obtain a peelable stack, the stack being compressed; - stripping the stack after polymerization; and - finalizing the nonplanar peelable shim from the stack after stripped polymerization, and where the compression and the polymerization are done in a shaping mold (2, 3) corresponding to the shape of the nonplanar peelable shim to be obtained, the stack before finalization forming a blank of the nonplanar peelable shim to be obtained and the finalization step includes a sub-step for machining the stack after polymerization to the final dimensions of the nonplanar peelable shim to be obtained, the stack after polymerization being placed in a finishing mold (11, 12) with lateral edges at the final dimensions of the nonplanar peelable shim to be obtained, the stack being corrected to said dimensions.
A method for producing dendritic cells with increased capability to activate T cells, wherein said method is carried out in vitro, and wherein said method comprises the step of treating dendritic cells with galactose oxidase.
A method for transmitting data, comprising: determining, by a terminal device (121, 122, 400, 600), a demodulation reference signal, DMRS, pattern corresponding to a first channel, wherein the terminal device is configured with a plurality of DMRS patterns corresponding to the first channel; and demodulating, by the terminal device (121, 122, 400, 600), the first channel according to the determined DMRS pattern; characterized in that the determining, by the terminal device (121, 122, 400, 600), the DMRS pattern corresponding to the first channel comprises: determining, by the terminal device (121, 122, 400, 600), the DMRS pattern corresponding to the first channel according to indication information carried in a second channel; wherein the DMRS pattern comprises a number of an orthogonal frequency division multiplexing, OFDM, symbol occupied by DMRS within one time unit, and/or a position of an OFDM symbol occupied by DMRS within one time unit; wherein the first channel is a physical sidelink share channel, PSSCH; and wherein the second channel is a physical sidelink control channel, PSCCH, corresponding to the first channel. determining, by a terminal device (121, 122, 400, 600), a demodulation reference signal, DMRS, pattern corresponding to a first channel, wherein the terminal device is configured with a plurality of DMRS patterns corresponding to the first channel; and demodulating, by the terminal device (121, 122, 400, 600), the first channel according to the determined DMRS pattern; characterized in that the determining, by the terminal device (121, 122, 400, 600), the DMRS pattern corresponding to the first channel comprises: determining, by the terminal device (121, 122, 400, 600), the DMRS pattern corresponding to the first channel according to indication information carried in a second channel; wherein the DMRS pattern comprises a number of an orthogonal frequency division multiplexing, OFDM, symbol occupied by DMRS within one time unit, and/or a position of an OFDM symbol occupied by DMRS within one time unit; wherein the first channel is a physical sidelink share channel, PSSCH; and wherein the second channel is a physical sidelink control channel, PSCCH, corresponding to the first channel. determining, by the terminal device (121, 122, 400, 600), the DMRS pattern corresponding to the first channel according to indication information carried in a second channel; wherein the DMRS pattern comprises a number of an orthogonal frequency division multiplexing, OFDM, symbol occupied by DMRS within one time unit, and/or a position of an OFDM symbol occupied by DMRS within one time unit; wherein the first channel is a physical sidelink share channel, PSSCH; and wherein the second channel is a physical sidelink control channel, PSCCH, corresponding to the first channel.
A method of determining the nature of a fault in a radiotherapy device comprising a linear accelerator, the radiotherapy device being configured to provide therapeutic radiation to a patient, the radiotherapy device comprising: a bending magnet assembly arranged to direct a beam of electrons toward a target to produce said radiation; and a first sensor, configured to provide signals indicative of voltage at a first region of the bending magnet assembly; the method comprising: receiving voltage values derived from the signals from the first sensor; processing the voltage values; wherein processing the voltage values comprises determining whether the voltage values meet at least one threshold criterion; and based on the processing of the signals, determining whether the nature of the fault is associated with the bending magnet, wherein determining whether the voltage values meet the at least one threshold criterion further comprises: determining whether the voltage values have changed by at least a threshold amount in a particular time period. a bending magnet assembly arranged to direct a beam of electrons toward a target to produce said radiation; and a first sensor, configured to provide signals indicative of voltage at a first region of the bending magnet assembly; the method comprising: receiving voltage values derived from the signals from the first sensor; processing the voltage values; wherein processing the voltage values comprises determining whether the voltage values meet at least one threshold criterion; and based on the processing of the signals, determining whether the nature of the fault is associated with the bending magnet, wherein determining whether the voltage values meet the at least one threshold criterion further comprises: determining whether the voltage values have changed by at least a threshold amount in a particular time period. receiving voltage values derived from the signals from the first sensor; processing the voltage values; wherein processing the voltage values comprises determining whether the voltage values meet at least one threshold criterion; and based on the processing of the signals, determining whether the nature of the fault is associated with the bending magnet, wherein determining whether the voltage values meet the at least one threshold criterion further comprises: determining whether the voltage values have changed by at least a threshold amount in a particular time period.
A fungicidal composition comprising a mixture of components and as active ingredients, wherein component is the compound of formula: or an agrochemically acceptable salt, N-oxide, diastereoisomer, enantiomer or tautomer thereof; and component is pydiflumetofen, wherein the weight ratio of component to is from 50:1 to 1:5. or an agrochemically acceptable salt, N-oxide, diastereoisomer, enantiomer or tautomer thereof; and component is pydiflumetofen, wherein the weight ratio of component to is from 50:1 to 1:5.