mhurhangee/ep-ind-claims huggingface dataset:
A patterned light projection apparatus comprising: a light source; a grating through which light from the light source passes; an aperture through which the light passing through the grating passes; and a lens that is positioned on an optical path so that the light passing through the aperture converges on an irradiated surface, wherein the grating has a striped pattern in which transmissive portions configured to transmit a portion of the light from the light source and shielding portions configured to block another portion of the light from the light source are alternately arranged, wherein the grating and the aperture are positioned so that a vertical width of a shadow formed by the shielding portions at a position of the aperture is equal to or larger than a vertical width of an opening of the aperture, and wherein a light pattern formed on the irradiated surface has a sinusoidal shape. a light source; a grating through which light from the light source passes; an aperture through which the light passing through the grating passes; and a lens that is positioned on an optical path so that the light passing through the aperture converges on an irradiated surface, wherein the grating has a striped pattern in which transmissive portions configured to transmit a portion of the light from the light source and shielding portions configured to block another portion of the light from the light source are alternately arranged, wherein the grating and the aperture are positioned so that a vertical width of a shadow formed by the shielding portions at a position of the aperture is equal to or larger than a vertical width of an opening of the aperture, and wherein a light pattern formed on the irradiated surface has a sinusoidal shape.
Deep-drawn multilayer sheet material which at least comprises one backing layer and one foamed layer based on polyvinyl chloride, characterized in that the deep-drawn multilayer sheet material is not imitation leather and hence is free of textile layers or of flexible textile sheet materials, and in that the deep-drawn multilayer sheet material is an interior cladding part for a vehicle, and in that the foamed layer comprises from 0.6% to 2.5% by weight of hollow microspheres made of acrylonitrile polymer, and in that the foamed layer is free from additional chemical blowing agents.
A terminal comprising: a receiving section adapted to receive a plurality of downlink channels corresponding to a plurality of uplink channels that overlap within a slot; and a control section adapted to determine a multiplexing of uplink control information within the plurality of uplink channels into a certain uplink channel, and thereafter, when there is another uplink control information to be transmitted on another uplink channel that overlaps in the slot with the certain uplink channel, the control section performs a determination regarding an uplink channel for use in the slot for transmission of the another uplink control information. a receiving section adapted to receive a plurality of downlink channels corresponding to a plurality of uplink channels that overlap within a slot; and a control section adapted to determine a multiplexing of uplink control information within the plurality of uplink channels into a certain uplink channel, and thereafter, when there is another uplink control information to be transmitted on another uplink channel that overlaps in the slot with the certain uplink channel, the control section performs a determination regarding an uplink channel for use in the slot for transmission of the another uplink control information.
A positive displacement pump designed as a piston diaphragm pump, having a piston performing an oscillating movement within a cylinder, said movement being transmittable through a working fluid to a diaphragm (117a; 117b), which separates a working volume (112a; 112b), in which the working liquid is positioned, from a diaphragm chamber (119a; 119b), through which a fluid to be fed is conducted, wherein the diaphragm (117a; 117b) is arranged in a position which differs from a vertical position, and the longitudinal axis of the cylinder is arranged in a horizontal position, characterized in that the working volume (112a; 112b) is partially formed by a channel (122a; 122b), which partially obliquely extends upwards from the cylinder and the channel (122a; 122b), is designed to be straight and on the channel housing (121a; 121b) forming the channel (122a; 122b) a flange (120a; 120b) is provided, which is perpendicular to the longitudinal axis of the channel (125a, 125b) and a diaphragm housing (118a; 118b) for housing the diaphragm (117a; 117b) is attached to the flange.
Implant removal tool to enable removal of an implant attachable to a patient's bone, whereby the implant comprises a hole, characterized in that it comprises: - a head, to which a system capable of providing torque to the implant removal tool is to be attached, - a threaded body, to be threaded into the hole of the implant, wherein - the threaded body comprises a first decreasing-diameter-provided threaded area, a cylindrical threaded area whose diameter is greater than the internal diameter of the hole of the implant, and a second decreasing-diameter-provided threaded area, wherein said cylindrical threaded area is arranged between said first decreasing-diameter-provided threaded area and said second decreasing-diameter-provided threaded area. - a head, to which a system capable of providing torque to the implant removal tool is to be attached, - a threaded body, to be threaded into the hole of the implant, wherein - the threaded body comprises a first decreasing-diameter-provided threaded area, a cylindrical threaded area whose diameter is greater than the internal diameter of the hole of the implant, and a second decreasing-diameter-provided threaded area, wherein said cylindrical threaded area is arranged between said first decreasing-diameter-provided threaded area and said second decreasing-diameter-provided threaded area.
A computer-implemented method for calculating and mitigating an intermodulation noise effect generated with one or more land seismic sources, the method comprising: receiving seismic data (g) generated by actuating the one or more land seismic sources with a single sweep; selecting a number of detectors (220a-220f) that detect a subset (ga-gf) of the seismic data (g); estimating earth responses (ha1-hf1) based on (i) the subset seismic data (ga-gf) and (ii) a ground force (gfo) of the one or more land seismic source, wherein said earth responses (ha1-hf1) are indicative of a transmission path response from the one or more land seismic sources to a corresponding detector (220a-220f); calculating plural intermodulation noises (noiseA1-noiseF1) for the number of detectors (220a-220f) based on (i) the earth responses (ha1-hf1) and (ii) the ground force (gfo); and removing the plural intermodulation noises (noiseA1-noiseF1) from corresponding detector signals (ga-gf) to mitigate the intermodulation noise effect. receiving seismic data (g) generated by actuating the one or more land seismic sources with a single sweep; selecting a number of detectors (220a-220f) that detect a subset (ga-gf) of the seismic data (g); estimating earth responses (ha1-hf1) based on (i) the subset seismic data (ga-gf) and (ii) a ground force (gfo) of the one or more land seismic source, wherein said earth responses (ha1-hf1) are indicative of a transmission path response from the one or more land seismic sources to a corresponding detector (220a-220f); calculating plural intermodulation noises (noiseA1-noiseF1) for the number of detectors (220a-220f) based on (i) the earth responses (ha1-hf1) and (ii) the ground force (gfo); and removing the plural intermodulation noises (noiseA1-noiseF1) from corresponding detector signals (ga-gf) to mitigate the intermodulation noise effect.
A method of determining how an individual responds to immunotherapy for cancer comprising detecting the presence or absence in the individual of: - all of the chromosome interactions represented by the probe sequences shown in Table 8c to thereby determine whether the individual will be responsive to immunotherapy; and/or - all of the chromosome interactions represented by the probe sequences shown in Table 2.a3 to thereby determine whether the individual is a hyper-progressor in whom immunotherapy will accelerate disease. - all of the chromosome interactions represented by the probe sequences shown in Table 8c to thereby determine whether the individual will be responsive to immunotherapy; and/or - all of the chromosome interactions represented by the probe sequences shown in Table 2.a3 to thereby determine whether the individual is a hyper-progressor in whom immunotherapy will accelerate disease.
A wood composite material, in particular a wood composite material in the form of a panel, containing wood material, wherein wood material is understood to mean any form of wood, wherein the proportion of aerogels in the wood composite material is less than 50 vol. %, characterised in that the wood material is provided in the form of compressed wood chips, strands and/or fibres, and in that the wood material of the wood composite material consists to an extent of more than 50 vol. % of wood chips of which more than 50 % have a length of less than 50 mm, and/or wood strands of which more than 50 % have a width of more than 4,5 mm, and/or wood fibres.
A method for generating a radiation treatment plan for a subject on the basis of an internal image of said subject, the method being executed in a processor and comprising the steps of: - retrieving an image of a subject, said image comprising at least one region of interest, - retrieving at least one uncertainty measure related to a region of interest in the image, wherein at least one uncertainty measure reflects a degree of uncertainty regarding the location of a contour or a part of a contour of said region of interest, or regarding the properties of the tissue within said region of interest; and - generating the radiation treatment plan, and whereby the step of generating the radiation treatment plan comprises determining whether or not to treat said region of interest, or part of said region of interest at least partly on the basis of said at least uncertainty measure. - retrieving an image of a subject, said image comprising at least one region of interest, - retrieving at least one uncertainty measure related to a region of interest in the image, wherein at least one uncertainty measure reflects a degree of uncertainty regarding the location of a contour or a part of a contour of said region of interest, or regarding the properties of the tissue within said region of interest; and - generating the radiation treatment plan, and whereby the step of generating the radiation treatment plan comprises determining whether or not to treat said region of interest, or part of said region of interest at least partly on the basis of said at least uncertainty measure.
A process for the reduction of corrosion of base metals comprising coating the surfaces of a base metal part with a cathodic electrodeposition paint wherein a cationic paint additive C is added to the electrodeposition paint, said cationic paint additive C being a plastified reaction product of epoxide resins E and amines A, wherein the reaction products of epoxides E and amines A further comprise moieties of aromatic or aliphatic dihydroxy or polyhydroxy compounds D, and preferably also of fatty acids F having from six to thirty carbon atoms, and optionally, one or more olefinic unsaturations, and wherein at least a part of the plastifier P is incorporated by chemical reaction within the reaction products of epoxide resins E and amines A and wherein said plastifier P is a fatty acid amidoamine.
A welded steel material obtained by high heat input welding a steel material with a welding heat input of 80 to 300 kJ/cm, wherein a heat affected zone, adjacent to a bond, of the welded steel material has an average grain diameter of 10 μm or less in a prior y grain determined in accordance with the specifics given in the description, the steel material comprising, in mass%, C: 0.04 to 0.09%, Si: 0.15 to 0.25%, Mn: 1.40 to 2.00%, P: 0.015% or less, S: 0.0005 to 0.0040%, Al: 0.040 to 0.080%, Ti: 0.005 to 0.023%, B: 0.0003 to 0.0020%, Ca: 0.0005 to 0.0030%, N: 0.0030 to 0.0060%, O: 0.0040% or less, Nb: 0.003% or less, Mo: 0.005% or less, optionally at least one selected from Cu: 0.5% or less, Ni: 1.0% or less, and Cr: 0.5% or less, optionally at least one selected from V: 0.1% or less, and W: 0.1% or less, and optionally at least one selected from Mg: 0.0005 to 0.0050%, Zr: 0.001 to 0.020%, and REM: 0.001 to 0.020%, the balance being Fe and incidental impurities. C: 0.04 to 0.09%, Si: 0.15 to 0.25%, Mn: 1.40 to 2.00%, P: 0.015% or less, S: 0.0005 to 0.0040%, Al: 0.040 to 0.080%, Ti: 0.005 to 0.023%, B: 0.0003 to 0.0020%, Ca: 0.0005 to 0.0030%, N: 0.0030 to 0.0060%, O: 0.0040% or less, Nb: 0.003% or less, Mo: 0.005% or less, optionally at least one selected from Cu: 0.5% or less, Ni: 1.0% or less, and Cr: 0.5% or less, optionally at least one selected from V: 0.1% or less, and W: 0.1% or less, and optionally at least one selected from Mg: 0.0005 to 0.0050%, Zr: 0.001 to 0.020%, and REM: 0.001 to 0.020%, the balance being Fe and incidental impurities.
Zirconium dioxide in the form of a mineral phase that is metastable in the cubic variant thereof at room temperature, with a content of less than 1% by weight calcium, magnesium and yttrium.
A method for receiving, by a user equipment, UE, configured with a plurality of cells, control information in a long-term evolution, LTE, wireless communication system, the method being characterized in that it comprises: receiving, by the UE through a first cell, uplink resource allocation information for a second cell; based on the uplink resource allocation information, transmitting, by the UE, an uplink signal on the second cell via a random access procedure; and receiving (S1406, S1408), by the UE, acknowledgement information for the uplink signal via a specific cell other than the first cell. receiving, by the UE through a first cell, uplink resource allocation information for a second cell; based on the uplink resource allocation information, transmitting, by the UE, an uplink signal on the second cell via a random access procedure; and receiving (S1406, S1408), by the UE, acknowledgement information for the uplink signal via a specific cell other than the first cell.
A potting material for an electronic component, the potting material formed by curing a mixture, the mixture comprising: an epoxy component comprising: 9-octa-decenoic acid, 12-(2-oxiranylmethoxy)-1,2,3-propanetriyl ester, polytetramethylene glycol digylcidylether, or combinations thereof; an epoxy terminated butadiene polymer; an organic amine hardener; a viscosity-controlling agent; and a silica. an epoxy component comprising: 9-octa-decenoic acid, 12-(2-oxiranylmethoxy)-1,2,3-propanetriyl ester, polytetramethylene glycol digylcidylether, or combinations thereof; 9-octa-decenoic acid, 12-(2-oxiranylmethoxy)-1,2,3-propanetriyl ester, polytetramethylene glycol digylcidylether, or combinations thereof; an epoxy terminated butadiene polymer; an organic amine hardener; a viscosity-controlling agent; and a silica.
A method for migrating UEs (50a:50N) from a serving integrated access and backhaul, S-IAB node 200, node to a replacement integrated access and backhaul, R-IAB node 300, node, the method being performed by a donor integrated access and backhaul, D-IAB, node of the S-IAB node and the R-IAB node, the method comprising: obtaining a request for replacement of the S-IAB node; providing, to the S-IAB node, an indication of replacement of the S-IAB node; obtaining, from the S-IAB node, scheduling information for the UEs (50a:50N) served by the S-IAB node; forwarding, to the R-IAB node, the scheduling information; and initiating migration of at least a subset of the UEs (50a:50N) from the S-IAB node to the R-IAB node by providing instructions, via the S-IAB node, to at least the subset of the UEs (50a:50N) to switch from being served by the S-IAB node to being served by the R-IAB node. obtaining a request for replacement of the S-IAB node; providing, to the S-IAB node, an indication of replacement of the S-IAB node; obtaining, from the S-IAB node, scheduling information for the UEs (50a:50N) served by the S-IAB node; forwarding, to the R-IAB node, the scheduling information; and initiating migration of at least a subset of the UEs (50a:50N) from the S-IAB node to the R-IAB node by providing instructions, via the S-IAB node, to at least the subset of the UEs (50a:50N) to switch from being served by the S-IAB node to being served by the R-IAB node.
An audio decoding device comprising; a plurality of decoding units (12a1,..., 12an) adapted to execute different audio decoding schemes, respectively, to generate audio signals from coded sequences; an extraction unit adapted to extract, from a stream having multiple frames each including a coded sequence of an audio signal, a unit of long-term encoding scheme information for the multiple frames which indicates that a single common audio encoding scheme is to be used to generate coded sequences of the multiple frames; and a selection unit which, in response to extraction of the encoding scheme information, is adapted to select, from the plurality of decoding units, a decoding unit to be used commonly to decode the coded sequences of the multiple frames, wherein the decoding unit selected by the selection unit is adapted to decode a coded sequence of a decoding target frame, and when there is a frame left to be decoded, the decoding unit is adapted to continue the process of decoding a coded sequence of the frame, wherein each frame coming subsequent to a frame from which the long-term encoding scheme information is extracted by the extraction unit does not include information for specifying an audio encoding scheme to be used to generate a coded sequence of said each frame.
A filter element comprising: a filter media for filtering a fluid; an endcap coupled to and positioned at an axial end of the filter media, the endcap comprising a main wall that defines a central aperture; and a seal member positioned within the central aperture of the endcap; characterised in that the filter media and the seal member are adhered to the endcap with a same, continuous adhesive. a filter media for filtering a fluid; an endcap coupled to and positioned at an axial end of the filter media, the endcap comprising a main wall that defines a central aperture; and a seal member positioned within the central aperture of the endcap;
A thermoelectric conversion module comprising: a pair of substrates; electrodes formed on facing surfaces of a pair of the substrates; a thermoelectric element disposed between the electrodes; and a joining layer that joins the electrodes and the thermoelectric element, characterised in that the joining layer has a thickness of 30 μm or more, and includes a first layer having an average crystal grain diameter of more than 1 μm and less than or equal to 10 μm and a second layer having an average crystal grain diameter of more than 10 μm. a pair of substrates; electrodes formed on facing surfaces of a pair of the substrates; a thermoelectric element disposed between the electrodes; and a joining layer that joins the electrodes and the thermoelectric element, characterised in that the joining layer has a thickness of 30 μm or more, and includes a first layer having an average crystal grain diameter of more than 1 μm and less than or equal to 10 μm and a second layer having an average crystal grain diameter of more than 10 μm.
A specimen rack transferring device transferring a specimen rack which places a plurality of specimen containers accommodating specimens, in a side-by-side manner in a longitudinal direction and can carry the plurality of specimen containers, the specimen rack transferring device comprising: a transport path for transferring the specimen rack in a direction orthogonal to the longitudinal direction; a transport arm pushingly advancing the specimen rack from an upstream side toward a downstream side of the transport path, and a rack lock mechanism provided at the transport arm and fixing at least a relative position of the specimen rack in a transport direction with respect to the transport arm, wherein the rack lock mechanism is in a release state of not fixing the relative position of the specimen rack with respect to the transport arm at a position where the transport arm is spaced away with respect to the specimen rack on the upstream side of the transport path, and wherein when the transport arm moves to a position abutting against the specimen rack from the upstream side of the transport path, the rack lock mechanism is brought into a lock state of fixing the relative position of the specimen rack with respect to the transport arm, characterized in that the rack lock mechanism is brought into a lock state of fixing the relative position of the specimen rack with respect to the transport arm due to force which is produced between the transport arm and the specimen rack according to movement of the transport arm. a transport path for transferring the specimen rack in a direction orthogonal to the longitudinal direction; a transport arm pushingly advancing the specimen rack from an upstream side toward a downstream side of the transport path, and a rack lock mechanism provided at the transport arm and fixing at least a relative position of the specimen rack in a transport direction with respect to the transport arm, wherein the rack lock mechanism is in a release state of not fixing the relative position of the specimen rack with respect to the transport arm at a position where the transport arm is spaced away with respect to the specimen rack on the upstream side of the transport path, and wherein when the transport arm moves to a position abutting against the specimen rack from the upstream side of the transport path, the rack lock mechanism is brought into a lock state of fixing the relative position of the specimen rack with respect to the transport arm, characterized in that the rack lock mechanism is brought into a lock state of fixing the relative position of the specimen rack with respect to the transport arm due to force which is produced between the transport arm and the specimen rack according to movement of the transport arm.