mhurhangee/ep-ind-claims huggingface dataset:
Vehicle chassis, comprising: - two essentially parallel runners that extend in a longitudinal direction and that are configured to extend over rear wheels of a vehicle and to support said rear wheels; - wherein a plane is defined by a bottom surface of the longitudinal direction of the parallel runners; and - a lift cylinder support that is recessed relative to the plane defined by the runners, characterized in that - the runners comprise an L-shaped cross section in the longitudinal direction thereof, said L-shape comprising a short leg that extends from one of the parallel runners inward toward the other of the parallel runners, and a long leg that forms a side piece of the runner; - wherein the bottom surface of the runners is defined by the short legs; and - wherein a side piece of the lift cylinder support is integrally formed by a part of the side piece of the runner that extends beyond the plane defined by the bottom surface of the longitudinal direction of the parallel runners to thereby form a one part side piece defined by a continuous integral wall of both the runner and the lift cylinder support. - two essentially parallel runners that extend in a longitudinal direction and that are configured to extend over rear wheels of a vehicle and to support said rear wheels; - wherein a plane is defined by a bottom surface of the longitudinal direction of the parallel runners; and - a lift cylinder support that is recessed relative to the plane defined by the runners, - the runners comprise an L-shaped cross section in the longitudinal direction thereof, said L-shape comprising a short leg that extends from one of the parallel runners inward toward the other of the parallel runners, and a long leg that forms a side piece of the runner; - wherein the bottom surface of the runners is defined by the short legs; and - wherein a side piece of the lift cylinder support is integrally formed by a part of the side piece of the runner that extends beyond the plane defined by the bottom surface of the longitudinal direction of the parallel runners to thereby form a one part side piece defined by a continuous integral wall of both the runner and the lift cylinder support.
A partially fluorinated ketone having the formula: R H C(=O)CF 2 CFHOR f, or R H 1 C(=O)CF 2 CFHOR f OCFHCF 2 C(=O)R H 2 wherein each R H, R H ', and R H 2 is, independently, an alkyl group having from 1 to 4 carbon atoms, wherein R f is a fluorinated alkyl moiety or alkylene moiety and wherein the alkyl or alkylene moiety has from 1 to 6 carbon atoms, and wherein each R H, R H ', and R H 2 is, independently, linear, branched, cyclic, or a combination thereof. wherein each R H, R H ', and R H 2 is, independently, an alkyl group having from 1 to 4 carbon atoms, wherein R f is a fluorinated alkyl moiety or alkylene moiety and wherein the alkyl or alkylene moiety has from 1 to 6 carbon atoms, and wherein each R H, R H ', and R H 2 is, independently, linear, branched, cyclic, or a combination thereof.
Backing for abrasives comprising an impregnated backing material, the backing material being a nonwoven material and at least 80 wt.% thereof comprising synthetic fibres, characterised in that the impregnated backing material has at least one side having a surface roughness R z of 100 μm to 500 μm and having an R max of 250 μm to 600 μm and the backing has a permeability to air of not more than 20 l/m 2 s, the surface roughness being determined in accordance with DIN EN ISO 4288:1997 and the permeability to air in accordance with DIN EN ISO 9237:1995.
An earthquake resistant wall construction, comprising; a first runner; a second runner; and at least one earthquake resistant insert provided within the first runner or the second runner; wherein the earthquake resistant insert comprises of at least one elongate slot and is held in communication with the first runner or second runner via at least one first fixing member which passes through the elongate slot, and wherein the earthquake resistant insert is connected to a construction board on either side of the earthquake resistant insert via at least one second fixing member, and wherein the wall construction further comprises at least one wall strut connected to the construction board, with an end of said strut being located substantially within said first runner or said second runner. a first runner; a second runner; and at least one earthquake resistant insert provided within the first runner or the second runner; wherein the earthquake resistant insert comprises of at least one elongate slot and is held in communication with the first runner or second runner via at least one first fixing member which passes through the elongate slot, and wherein the earthquake resistant insert is connected to a construction board on either side of the earthquake resistant insert via at least one second fixing member, and wherein the wall construction further comprises at least one wall strut connected to the construction board, with an end of said strut being located substantially within said first runner or said second runner.
A method for non-destructive testing of the heating of a specific zone to be tested of a part made of polymer material, the method including the following steps: a) taking at least one colorimetry measurement on said determined zone to be tested and obtaining the value a p of the parameter a of the colorimetric space CIELAB, b) taking at least one colorimetry measurement on a reference zone of said part and obtaining the value a p / ref of the parameter a of the colorimetric space CIELAB, c) calculating Δ a p = a p - a p / ref, d) establishing a risk of heating of said predetermined zone to be tested if Δ a p is higher than a threshold value Al. a) taking at least one colorimetry measurement on said determined zone to be tested and obtaining the value a p of the parameter a of the colorimetric space CIELAB, b) taking at least one colorimetry measurement on a reference zone of said part and obtaining the value a p / ref of the parameter a of the colorimetric space CIELAB, c) calculating Δ a p = a p - a p / ref, d) establishing a risk of heating of said predetermined zone to be tested if Δ a p is higher than a threshold value Al.
A method of decoding a coded picture of a coded video sequence, the method being performed by at least one processor and the method comprising: decoding, from a first high level syntax structure for a plurality of pictures, a syntax element related to a reference segment resolution; decoding, from a second high level syntax structure that changes from a first coded picture to a second coded picture, a syntax element related to a decoded segment resolution, the first coded picture and the second coded picture containing a plurality of tiles; resampling a sample from a reference picture buffer for use for prediction by a decoder, the decoder decoding a tile at decoding resolution, and the sample from the reference picture buffer is in the reference segment resolution; decoding the tile in the decoded segment resolution into a decoded tile in the decoded segment resolution; resampling the decoded tile into the reference segment resolution; and storing the decoded tile into the reference picture buffer. decoding, from a first high level syntax structure for a plurality of pictures, a syntax element related to a reference segment resolution; decoding, from a second high level syntax structure that changes from a first coded picture to a second coded picture, a syntax element related to a decoded segment resolution, the first coded picture and the second coded picture containing a plurality of tiles; resampling a sample from a reference picture buffer for use for prediction by a decoder, the decoder decoding a tile at decoding resolution, and the sample from the reference picture buffer is in the reference segment resolution; decoding the tile in the decoded segment resolution into a decoded tile in the decoded segment resolution; resampling the decoded tile into the reference segment resolution; and storing the decoded tile into the reference picture buffer.
A bottomhole completion assembly comprising: a conduit adapted for installation in a well bore in a subterranean formation; one or more fluid jet forming nozzles disposed about the conduit; a fluid delivery tool disposed within the conduit, wherein the fluid delivery tool is operable to move along the conduit; and wherein the conduit comprises one or more permeable liners; characterized by a straddle assembly operable to substantially isolate an injection hole in the fluid delivery tool from an annulus formed between the fluid delivery tool and the conduit; and which assembly secures the fluid delivery tool inside the conduit. a conduit adapted for installation in a well bore in a subterranean formation; one or more fluid jet forming nozzles disposed about the conduit; a fluid delivery tool disposed within the conduit, wherein the fluid delivery tool is operable to move along the conduit; and wherein the conduit comprises one or more permeable liners;
A system for transmitting audio and/or video data, the system comprising a functional unit configured to process the audio and/or video data and an error detection unit configured to detect an error in audio and/or video data processing by the functional unit, wherein the system is configured to generate and transmit an access token to a user who has no access to the funtional unit, wherein the access token is configured to grant access to the user only to a portion of the functional unit when the error is detected, wherein the portion of the functional unit causes the error, wherein the user is enabled to adapt settings of the portion causing the error while having access to the portion based on the access token in order to fix the error within the functional unit.
A data transmission method, where in the method is performed by a first device, the first device comprises a concentrator and a collector(614, 616,618) and the method comprises: generating, by the concentrator a first Transmission Control Protocol, TCP, packet based on first data that needs to be sent by the collector (614,616,618) to a second device, wherein a payload of the first TCP packet is empty, the first TCP packet comprises indication information, and the indication information is used to instruct the collector to generate a second TCP packet based on the first TCP packet, wherein a header of the second TCP packet is the same as a header of the first TCP packet, and a payload of the second TCP packet comprises the first data; sending, by the concentrator the first TCP packet to the collector (614,616,618); generating, by the collector(614,616,618) the second TCP packet based on the first TCP packet; and sending, by the collector(614,616,618), the second TCP packet to the second device. generating, by the concentrator a first Transmission Control Protocol, TCP, packet based on first data that needs to be sent by the collector (614,616,618) to a second device, wherein a payload of the first TCP packet is empty, the first TCP packet comprises indication information, and the indication information is used to instruct the collector to generate a second TCP packet based on the first TCP packet, wherein a header of the second TCP packet is the same as a header of the first TCP packet, and a payload of the second TCP packet comprises the first data; sending, by the concentrator the first TCP packet to the collector (614,616,618); generating, by the collector(614,616,618) the second TCP packet based on the first TCP packet; and sending, by the collector(614,616,618), the second TCP packet to the second device.
A process for preparing a yeast hydrolysate characterized in that the process comprises the step of contacting a gluten containing yeast hydrolysate with a proline-specific endoprotease classified as EC 3.4.21.26 of Aspergillus niger and a phosphodiesterase to produce 5'-ribonucleotides resulting in a yeast hydrolysate comprising less than 100 ppm gluten and at least 1 ppm gluten based on salt-free yeast dry matter and further comprising 5'-ribonucleotides 5'-GMP and / or 5'-IMP, wherein the total amount of 5'-GMP and 5'-IMP is at least 1.5% based on the NaCl free dry matter of the yeast hydrolysate.
An aircraft comprising an engine nacelle which includes a thrust reverser, a petal-type Variable Area Fan Nozzle, and a system comprising: a first coupling member attached to a first structure proximate to the thrust reverser of the aircraft; and a second coupling member attached to a translating portion of the thrust reverser, the translating portion configured to move relative to the first structure; wherein the first coupling member and the second coupling member are configured to engage to prevent movement of the translating portion; and the second coupling member is configured to transmit rotation from the first coupling member to an actuator configured to drive at least a portion of the Variable Area Fan Nozzle located on the translating portion, characterized in that the first coupling member and the second coupling member each comprise a gear (212, 222), and the gears (212, 222) are configured to interlock with each other in a cooperating fit. a first coupling member attached to a first structure proximate to the thrust reverser of the aircraft; and a second coupling member attached to a translating portion of the thrust reverser, the translating portion configured to move relative to the first structure; wherein the first coupling member and the second coupling member are configured to engage to prevent movement of the translating portion; and the second coupling member is configured to transmit rotation from the first coupling member to an actuator configured to drive at least a portion of the Variable Area Fan Nozzle located on the translating portion, characterized in that the first coupling member and the second coupling member each comprise a gear (212, 222), and the gears (212, 222) are configured to interlock with each other in a cooperating fit.
A pellicle comprising: a pellicle frame; a pellicle membrane stretched over one opening of the pellicle frame; and a tacky layer provided on an inner surface of the pellicle frame, wherein the tacky layer contains a copolymer having a structural unit represented by Formula and a structural unit represented by Formula, in an amount of 60mass% or more with respect to a total weight of the tacky layer. -CH 2 CF 2 -... -CF 2 CF(CF 3)-... a pellicle frame; a pellicle membrane stretched over one opening of the pellicle frame; and a tacky layer provided on an inner surface of the pellicle frame, wherein the tacky layer contains a copolymer having a structural unit represented by Formula and a structural unit represented by Formula, in an amount of 60mass% or more with respect to a total weight of the tacky layer. -CH 2 CF 2 -... -CF 2 CF(CF 3)-...
An apparatus for manufacturing a coal briquette, comprising: a mixer mixing pulverized coal and a binder to form a mixture; a pre-molding device connected to the mixer and firstly compressing and molding the mixture; a molding device connected to the pre-molding device and secondly compressing and molding the compressed matter molded through the pre-molding device to be manufactured as a coal briquette; characterized by further comprising a crusher installed between the pre-molding device and the molding device and crushing the molding matter molded through the pre-molding device. a mixer mixing pulverized coal and a binder to form a mixture; a pre-molding device connected to the mixer and firstly compressing and molding the mixture; a molding device connected to the pre-molding device and secondly compressing and molding the compressed matter molded through the pre-molding device to be manufactured as a coal briquette; characterized by further comprising a crusher installed between the pre-molding device and the molding device and crushing the molding matter molded through the pre-molding device.
A method for wireless communications, comprising: determining an uplink transmission overlaps with a downlink transmission in a subframe; and controlling transmissions with one or more half-duplex, HD, user equipments, UEs, such that only one of the uplink transmission or the downlink transmission is performed in the subframe with one or more of the UEs, wherein the controlling comprises suspending the other one of the uplink transmission or the downlink transmission for transmission in a later subframe, and wherein the controlling comprises receiving timing advance feedback from the one or more HD UEs and scheduling the other one of the uplink transmission or the downlink transmission for transmission in a later subframe using at least the timing advance feedback. determining an uplink transmission overlaps with a downlink transmission in a subframe; and controlling transmissions with one or more half-duplex, HD, user equipments, UEs, such that only one of the uplink transmission or the downlink transmission is performed in the subframe with one or more of the UEs, wherein the controlling comprises suspending the other one of the uplink transmission or the downlink transmission for transmission in a later subframe, and wherein the controlling comprises receiving timing advance feedback from the one or more HD UEs and scheduling the other one of the uplink transmission or the downlink transmission for transmission in a later subframe using at least the timing advance feedback.
A handheld scanner system for obtaining sizing of an irregularly shaped object, the system comprising: a housing, an optical module including at least one 3D optical sensor configured to generate a 3D point cloud data representing a surface of at least one item covering at least a first portion of the irregularly shaped object and a surface of a second portion of the irregularly shaped object's surface; a radar module including at least one radar sensor configured to generate radar data used to sense a spacing between the housing and at least a surface of the first portion of the irregularly shaped object which is covered by the at least one item; and a processor which receives the 3D point cloud data from the optical module and the radar data from the radar module, uses the 3D point cloud data representing to limit a radar algorithm's range information solution computed from the radar data to an area near the at least one item covering the irregularly shaped object, and creates a map representing dimensions of the irregularly shaped object's body based on the 3D point cloud data and the limited range solution, wherein the processor maintains a state vector with respect to a fixed coordinate reference frame and with respect to the irregularly shaped object's body, the state vector comprising information specifying an orientation, translation and rotation of the handheld scanner system; and wherein the range information is updated using the state vector and known physical offsets of antenna elements with respect to a center of gravity of the handheld scanner system. a housing, an optical module including at least one 3D optical sensor configured to generate a 3D point cloud data representing a surface of at least one item covering at least a first portion of the irregularly shaped object and a surface of a second portion of the irregularly shaped object's surface; a radar module including at least one radar sensor configured to generate radar data used to sense a spacing between the housing and at least a surface of the first portion of the irregularly shaped object which is covered by the at least one item; and a processor which receives the 3D point cloud data from the optical module and the radar data from the radar module, uses the 3D point cloud data representing to limit a radar algorithm's range information solution computed from the radar data to an area near the at least one item covering the irregularly shaped object, and creates a map representing dimensions of the irregularly shaped object's body based on the 3D point cloud data and the limited range solution, wherein the processor maintains a state vector with respect to a fixed coordinate reference frame and with respect to the irregularly shaped object's body, the state vector comprising information specifying an orientation, translation and rotation of the handheld scanner system; and wherein the range information is updated using the state vector and known physical offsets of antenna elements with respect to a center of gravity of the handheld scanner system.
An article carrying apparatus comprising: a plurality of carrier lanes each for receiving and conveying a number of articles; one or more diverters arranged to control the distribution of received articles into each of the plurality of carrier lanes, characterised in that the one or more diverters being positioned at a receiving end of the carrier lanes and between adjacent carrier lanes, the diverters being individually controllable to rotate so that an input channel for a carrier lane can be enlarged or restricted by adjusting adjacent diverters in order to increase or reduce a flow of articles to the carrier lane; a sensor arranged to determine a capacity use parameter for each carrier lane; and a controller arranged to control the position of the one or more diverters dependent on the determined capacity use parameters. a plurality of carrier lanes each for receiving and conveying a number of articles; one or more diverters arranged to control the distribution of received articles into each of the plurality of carrier lanes, characterised in that the one or more diverters being positioned at a receiving end of the carrier lanes and between adjacent carrier lanes, the diverters being individually controllable to rotate so that an input channel for a carrier lane can be enlarged or restricted by adjusting adjacent diverters in order to increase or reduce a flow of articles to the carrier lane; a sensor arranged to determine a capacity use parameter for each carrier lane; and a controller arranged to control the position of the one or more diverters dependent on the determined capacity use parameters.
A light emitting device, comprising: a second electrode layer; a second conductive type semiconductor layer on the second electrode layer; an active layer on the second conductive type semiconductor layer; a first conductive type semiconductor layer on the active layer; a first electrode layer on the first conductive type semiconductor layer; and a current blocking layer disposed between the second electrode layer and the second conductive type semiconductor layer, wherein a cross-section of the current blocking layer in a plane perpendicular to a stacking direction of the semiconductor layers has a substantially triangular shape, wherein the current blocking layer includes first and second current blocking layers, the first current blocking layer being disposed on a central portion of the second electrode layer and the second current blocking layer being disposed on at least one peripheral portion of the second electrode layer. a second electrode layer; a second conductive type semiconductor layer on the second electrode layer; an active layer on the second conductive type semiconductor layer; a first conductive type semiconductor layer on the active layer; a first electrode layer on the first conductive type semiconductor layer; and a current blocking layer disposed between the second electrode layer and the second conductive type semiconductor layer, wherein a cross-section of the current blocking layer in a plane perpendicular to a stacking direction of the semiconductor layers has a substantially triangular shape, wherein the current blocking layer includes first and second current blocking layers, the first current blocking layer being disposed on a central portion of the second electrode layer and the second current blocking layer being disposed on at least one peripheral portion of the second electrode layer.