mhurhangee/ep-ind-claims huggingface dataset:
Compressor for an air-conditioning installation of a motor vehicle, the compressor extending along a longitudinal axis and comprising at least one casing which houses at least: - a mechanism for compression of a coolant fluid, - a drive unit arranged inside the casing and that drives the compression mechanism, - a module for control of the drive unit, - at least one electric connector (16, 20) intended to connect the control module electrically to an energy source outside the compressor, and - a cover comprising a metallic part and a synthetic part arranged one against the other along the longitudinal axis and traversed by the electric connector (16, 20), characterised in that at least one sealing device is arranged between the metallic part and the synthetic part, the sealing device extending around the at least one electric connector (16, 20). - a mechanism for compression of a coolant fluid, - a drive unit arranged inside the casing and that drives the compression mechanism, - a module for control of the drive unit, - at least one electric connector (16, 20) intended to connect the control module electrically to an energy source outside the compressor, and - a cover comprising a metallic part and a synthetic part arranged one against the other along the longitudinal axis and traversed by the electric connector (16, 20), characterised in that at least one sealing device is arranged between the metallic part and the synthetic part, the sealing device extending around the at least one electric connector (16, 20).
Circuit arrangement for bridging voltage interruptions comprising-two capacitors (C1, C2), which are connected in series and form a capacitive voltage divider, wherein one of the capacitors, which operates as a storage capacitor, is interconnected with a linear voltage regulator and a discharge diode and the other capacitor is connected in parallel with the linear regulator input and the linear regulator output of the voltage regulator so that the other capacitor prevents recharging of the storage capacitor by the linear regulator.
An aerodynamic assembly for bicycle handlebars, the assembly including two separate extension devices (4a, 4b) forming a first left extension device and a second right extension device, characterized in that each of the two extension devices (4a, 4b) comprises: - a first part (5a, 5b) forming an armrest, able to be fastened on a transverse bar of a bicycle handlebar while extending longitudinally forward and including a longitudinal extension (6a, 6b) forming a free end portion, an upper surface of the first part (5a, 5b) with its longitudinal extension (6a, 6b) forming a receiving surface for a forearm portion of the cyclist; and - a second extension-forming part (8a, 8b), able to be fixed, removably and in the extension of said first part (5a, 5b), to said free end portion, the second extension-forming part (8a, 8b) being able to slide longitudinally relative to said longitudinal extension (6a, 6b) in order to allow an adjustment of a distance separating a free end of the second extension-forming part (8a, 8b) from the first armrest-forming part (5a, 5b). - a first part (5a, 5b) forming an armrest, able to be fastened on a transverse bar of a bicycle handlebar while extending longitudinally forward and including a longitudinal extension (6a, 6b) forming a free end portion, an upper surface of the first part (5a, 5b) with its longitudinal extension (6a, 6b) forming a receiving surface for a forearm portion of the cyclist; and - a second extension-forming part (8a, 8b), able to be fixed, removably and in the extension of said first part (5a, 5b), to said free end portion, the second extension-forming part (8a, 8b) being able to slide longitudinally relative to said longitudinal extension (6a, 6b) in order to allow an adjustment of a distance separating a free end of the second extension-forming part (8a, 8b) from the first armrest-forming part (5a, 5b).
A method of isolating a modified polynucleotide having the formula A-P-B from a crude mixture of modified polynucleotides also including those having the formulae A-P-A and B-P-B, wherein P is a polynucleotide region and A and B are different modifying moieties or nucleotide sequences, characterised by the steps of (a) reacting the crude mixture with first beads modified with complementary moieties A' capable of binding to A and second beads having a density lower than that of the first beads and modified with complementary moieties B' capable of binding to B to produce an intermediate product comprised of first-second bead-pairs connected by a modified polynucleotide together with one or more of unused or unpaired first and second beads and corresponding first-first, second-second bead-pairs; (b) separating the first-second bead-pairs and optionally any unused or unpaired second beads or second-second bead-pairs from the intermediate product in an aqueous medium having a density greater than that of the first-second beads-pairs but less than that of the first beads and (c) thereafter separating the first-second bead-pairs from the product of step (b) in an aqueous medium having a density less than that of the first-second bead-pairs but greater than that of the second beads.
An electronic device, comprising: a pooling unit configured to implement pooling functions between convolution layers of a convolutional neural network, CNN,, the pooling unit being a hardware block comprising: a cropper circuit configured to receive a feature tensor from a convolutional layer of the CNN, the feature tensor including a plurality of blocks, wherein blocks in said plurality of blocks each represent a data value, wherein the cropper is configured to generate a cropped feature tensor from the received feature tensor by performing a cropping operation on the feature tensor, the cropped feature tensor including a plurality of data values extracted from a portion of the feature tensor; a line buffer circuit configured to receive the data values of the cropped feature tensor from the cropper, the line buffer circuit further configured to buffer said data values in lines and to output said data values in data columns, wherein each data column includes a data value from a position in each line of the line buffer; a column calculator circuit configured to perform column pooling operations on the data columns from the line buffer circuit; and a row calculator circuit configured to receive data rows from the column calculator circuit and to perform row pooling operations on the data rows from the column calculator circuit, wherein the line buffer circuit is a single ported line buffer including a single input port and a single output port. a cropper circuit configured to receive a feature tensor from a convolutional layer of the CNN, the feature tensor including a plurality of blocks, wherein blocks in said plurality of blocks each represent a data value, wherein the cropper is configured to generate a cropped feature tensor from the received feature tensor by performing a cropping operation on the feature tensor, the cropped feature tensor including a plurality of data values extracted from a portion of the feature tensor; a line buffer circuit configured to receive the data values of the cropped feature tensor from the cropper, the line buffer circuit further configured to buffer said data values in lines and to output said data values in data columns, wherein each data column includes a data value from a position in each line of the line buffer; a column calculator circuit configured to perform column pooling operations on the data columns from the line buffer circuit; and a row calculator circuit configured to receive data rows from the column calculator circuit and to perform row pooling operations on the data rows from the column calculator circuit, wherein the line buffer circuit is a single ported line buffer including a single input port and a single output port.
An information processing device, comprising a housing, a plurality of control buttons provided on a surface of the housing, and button data generation means for, when one of the control buttons is operated, generating control button data according to a kind of the control button, wherein the information processing device performs a predetermined information processing operation by using the control button data, the information processing device comprising: a motion sensor for generating motion data according to movement of the housing; data obtaining means (Da) for obtaining the control button data and the motion data; data storage means for storing, as necessary, the motion data obtained by the data obtaining means in a memory; magnitude calculation means (30, S54) for calculating a magnitude of housing movement representing a press-down load on the control button (pwr) at a point in time when the control button is operated, by accumulating an amount of change in the motion data over a predetermined period of time already stored in the memory upon obtaining the control button data generated at the point in time and/or by accumulating an amount of change in the motion data over a predetermined period of time stored in the memory after obtaining the control button data (idnow, idend); and process performing means (30, S57, S83, S95) for performing, based on the magnitude calculated by the magnitude calculation means, a process determined according to a kind of the control button data obtained by the data obtaining means. a motion sensor for generating motion data according to movement of the housing; data obtaining means (Da) for obtaining the control button data and the motion data; data storage means for storing, as necessary, the motion data obtained by the data obtaining means in a memory; magnitude calculation means (30, S54) for calculating a magnitude of housing movement representing a press-down load on the control button (pwr) at a point in time when the control button is operated, by accumulating an amount of change in the motion data over a predetermined period of time already stored in the memory upon obtaining the control button data generated at the point in time and/or by accumulating an amount of change in the motion data over a predetermined period of time stored in the memory after obtaining the control button data (idnow, idend); and process performing means (30, S57, S83, S95) for performing, based on the magnitude calculated by the magnitude calculation means, a process determined according to a kind of the control button data obtained by the data obtaining means.
Electrical plug-in connector, having an internal conductor contact element, an external conductor contact element and an insulating protective element which is arranged between the internal conductor contact element and the external conductor contact element, wherein the external conductor contact element has an assembly recess for providing an assembly access point for fastening the internal conductor contact element to an internal conductor of an electrical cable, characterized in that the insulating protective element can be displaced between an assembly position, in which the assembly access point is cleared through the assembly recess to the internal conductor contact element, and an insulating protection position, in which the assembly access point to the internal conductor contact element is blocked by the insulating protective element.
A method for preparing a heat treated whey protein concentrate or whey protein isolate, comprising: (a) providing an aqueous WPC or WPI solution having a protein concentration of 15-50% (w/v), at a pH of 4.7-8.5; (b) heat treating the solution to a temperature of from 50°C to 150°C, for a time that allows protein denaturation to occur; the heat treating comprising heating the solution in a heating tube while under conditions of turbulent flow, wherein turbulent flow is defined as having a sufficient mass flow rate in the heating tube to provide a Reynolds number in excess of 500; (c) at the end of the heat treatment, either transferring the heat treated material directly to a drier; and drying the heat-treated WPC or WPI to produce a dried modified WPC or WPI, wherein the heat-treated WPC or WPI is not subjected to a mechanical shear process to break up particles within the solution prior to drying other than where liquid is converted into droplets to facilitate drying; or directly transferring the heat treated material to a mixer to be mixed with other ingredients; and wherein the heat treated WPC or WPI is not subjected to particle size reduction prior to step (c). (a) providing an aqueous WPC or WPI solution having a protein concentration of 15-50% (w/v), at a pH of 4.7-8.5; (b) heat treating the solution to a temperature of from 50°C to 150°C, for a time that allows protein denaturation to occur; the heat treating comprising heating the solution in a heating tube while under conditions of turbulent flow, wherein turbulent flow is defined as having a sufficient mass flow rate in the heating tube to provide a Reynolds number in excess of 500; (c) at the end of the heat treatment, either transferring the heat treated material directly to a drier; and drying the heat-treated WPC or WPI to produce a dried modified WPC or WPI, wherein the heat-treated WPC or WPI is not subjected to a mechanical shear process to break up particles within the solution prior to drying other than where liquid is converted into droplets to facilitate drying; or directly transferring the heat treated material to a mixer to be mixed with other ingredients; and wherein the heat treated WPC or WPI is not subjected to particle size reduction prior to step (c). transferring the heat treated material directly to a drier; and drying the heat-treated WPC or WPI to produce a dried modified WPC or WPI, wherein the heat-treated WPC or WPI is not subjected to a mechanical shear process to break up particles within the solution prior to drying other than where liquid is converted into droplets to facilitate drying; or directly transferring the heat treated material to a mixer to be mixed with other ingredients; and wherein the heat treated WPC or WPI is not subjected to particle size reduction prior to step (c).
An apparatus, comprising: a video encoder or a video decoder for encoding or decoding at least one frame of a multi-view video sequence, said at least one frame being partitioned into blocks of data, the apparatus being characterized in that the video encoder or the video decoder comprises a deblocking filter (145, 235) that filters edges of at least two neighboring blocks of said at least one frame, wherein a boundary strength value is assigned a highest value when said at least two neighboring blocks have different multiview video coding prediction types, where a multiview video coding prediction type is an information indicating which prediction among a cross-view prediction or a temporal prediction is done for a given block. a video encoder or a video decoder for encoding or decoding at least one frame of a multi-view video sequence, said at least one frame being partitioned into blocks of data, the apparatus being characterized in that the video encoder or the video decoder comprises a deblocking filter (145, 235) that filters edges of at least two neighboring blocks of said at least one frame, wherein a boundary strength value is assigned a highest value when said at least two neighboring blocks have different multiview video coding prediction types, where a multiview video coding prediction type is an information indicating which prediction among a cross-view prediction or a temporal prediction is done for a given block.
A method for producing a forged inner ring for a constant velocity universal joint, wherein the constant velocity universal joint is a cross groove constant velocity universal joint and comprises: a plurality of ball tracks formed at predetermined intervals in a circumferential direction, the adjacent ball tracks being inclined relative to an axial line oppositely from each other, wherein a portion of a side wall of each of the ball tracks that forms an edge line with an outer surface is inclined relative to the axial line in the circumferential direction, and at the portion that forms the edge line, a chamfer is formed during forging of the inner ring over an entire axial length, characterized in that a) the chamfer is formed with forged portions extending radially outward from chamfer, and b) portions are removed by turning the inner ring. a) the chamfer is formed with forged portions extending radially outward from chamfer, and b) portions are removed by turning the inner ring.
A system comprising: a mobile device configured to receive an input from a user; a non-destructive testing NDT device comprising a borescope including an insertion tube comprising a head end section, an articulating section and a conduit section, the NDT device comprising: a communications system (162,200) configured to receive remote control data from the mobile device; and one or more processors configured to control operation of the articulating section in accordance with the remote control data to steer or bend the articulating section in various dimensions to position the head end section for one or more of capturing an image or a video and performing a measurement with at least one of a head end section camera and sensors; wherein the remote control data includes one or more of virtual control-based control data, gesture-based control data, motion-based control data, and voice-based control data. a mobile device configured to receive an input from a user; a non-destructive testing NDT device comprising a borescope including an insertion tube comprising a head end section, an articulating section and a conduit section, the NDT device comprising: a communications system (162,200) configured to receive remote control data from the mobile device; and one or more processors configured to control operation of the articulating section in accordance with the remote control data to steer or bend the articulating section in various dimensions to position the head end section for one or more of capturing an image or a video and performing a measurement with at least one of a head end section camera and sensors; wherein the remote control data includes one or more of virtual control-based control data, gesture-based control data, motion-based control data, and voice-based control data. a communications system (162,200) configured to receive remote control data from the mobile device; and one or more processors configured to control operation of the articulating section in accordance with the remote control data to steer or bend the articulating section in various dimensions to position the head end section for one or more of capturing an image or a video and performing a measurement with at least one of a head end section camera and sensors; wherein the remote control data includes one or more of virtual control-based control data, gesture-based control data, motion-based control data, and voice-based control data.
Anti-slan antibody, which binds specifically to human dendritic cells whose surface has the P-selectin glycoprotein ligand 1 (PSGL-1) with O-bound glycan structure 6-sulfo N-acetyl lactosamine (6-sulfo LacNAc), the antibody comprising (CDRs), wherein the CDRs comprise the following amino acid sequences: a) variable region of the heavy chain (V H): CDR1 TYGVH (SEQ ID No. 1), CDR2 VIWSGGGTDFNVAFXS (SEQ ID No. 2), wherein X is selected from M, L, F, or I, preferably from M or I, CDR3 RTTNDGNYAFAY (SEQ ID No. 5), and b) variable region of the light chain (V L): CDR1 RSSQNILHSDGXTYLE (SEQ ID No. 6), wherein X is selected from S, T, N, Q, H, K or R, preferably from S or N, CDR2 KVSNRFS (SEQ ID No. 9) and CDR3 FQGSHVPWT (SEQ ID No. 10). whereas the antibody comprises the following structure: - variable region of the heavy chain according to SEQ ID No. 12 and variable region of the light chain according to SEQ ID No. 14, or - variable region of the heavy chain according to SEQ ID No. 16 and variable region of the light chain according to SEQ ID No. 18. or a corresponding humanized structure. a) variable region of the heavy chain (V H): CDR1 TYGVH (SEQ ID No. 1), CDR2 VIWSGGGTDFNVAFXS (SEQ ID No. 2), wherein X is selected from M, L, F, or I, preferably from M or I, CDR3 RTTNDGNYAFAY (SEQ ID No. 5), and CDR1 TYGVH (SEQ ID No. 1), CDR2 VIWSGGGTDFNVAFXS (SEQ ID No. 2), wherein X is selected from M, L, F, or I, preferably from M or I, CDR3 RTTNDGNYAFAY (SEQ ID No. 5), and b) variable region of the light chain (V L): CDR1 RSSQNILHSDGXTYLE (SEQ ID No. 6), wherein X is selected from S, T, N, Q, H, K or R, preferably from S or N, CDR2 KVSNRFS (SEQ ID No. 9) and CDR3 FQGSHVPWT (SEQ ID No. 10). whereas the antibody comprises the following structure: - variable region of the heavy chain according to SEQ ID No. 12 and variable region of the light chain according to SEQ ID No. 14, or - variable region of the heavy chain according to SEQ ID No. 16 and variable region of the light chain according to SEQ ID No. 18. or a corresponding humanized structure. CDR1 RSSQNILHSDGXTYLE (SEQ ID No. 6), wherein X is selected from S, T, N, Q, H, K or R, preferably from S or N, CDR2 KVSNRFS (SEQ ID No. 9) and CDR3 FQGSHVPWT (SEQ ID No. 10). - variable region of the heavy chain according to SEQ ID No. 12 and variable region of the light chain according to SEQ ID No. 14, or - variable region of the heavy chain according to SEQ ID No. 16 and variable region of the light chain according to SEQ ID No. 18.
A micellar drug-loaded system, characterized in that it comprises at least one amphiphilic block copolymer, at least one anti-tumor drug with a therapeutically effective amount, and a pharmaceutically acceptable pharmaceutical auxiliary agent; wherein said amphiphilic block copolymer comprising a hydrophilic segment and a hydrophobic segment; wherein said hydrophilic segment is polyethylene glycol or methoxypolyethylene glycol with the number-average molecular weight in the range of 750 to 5000; and said hydrophobic segment is selected from the group consisting of polylactide, polyglycolide, poly(lactic-co-glycolic acid), polycaprolactone, polycarbonate and polydioxanone, each has a number-average molecular weight in the range of 1000 to 50000 and is end-capped with a hydrophobic group; said hydrophobic group is t-butoxycarbonyl phenylalanine.