mhurhangee/ep-ind-claims huggingface dataset:
A power system, comprising N power supplies and M DC-to-AC units, wherein N is an integer greater than 1, and M is an integer greater than 1; each power supply of the N power supplies is configured with a positive output terminal and a negative output terminal, and each DC-to-AC unit of the M DC-to-AC units is configured with a positive input terminal, a negative input terminal, and an output terminal; the positive output terminal of a first power supply of the N power supplies is coupled to the positive input terminal of a first DC-to-AC unit of the M DC-to-AC units; the negative output terminal of an n th power supply of the N power supplies is coupled in series to the positive output terminal of an (n+1) th power supply of the N power supplies to form a first node, wherein n is an integer greater than 0 and less than N; the negative output terminal of an N th power supply of the N power supplies is coupled to the negative input terminal of an M th DC-to-AC unit of the M DC-to-AC units; the negative input terminal of an m th DC-to-AC unit of the M DC-to-AC units is coupled in series to the positive input terminal of an (m+1) th DC-to-AC unit of the M DC-to-AC units to form a second node, wherein m is an integer greater than 0 and less than M; characterized in that at least one first node and at least one second node are coupled; and output terminals of the DC-to-AC units are isolated for output. each power supply of the N power supplies is configured with a positive output terminal and a negative output terminal, and each DC-to-AC unit of the M DC-to-AC units is configured with a positive input terminal, a negative input terminal, and an output terminal; the positive output terminal of a first power supply of the N power supplies is coupled to the positive input terminal of a first DC-to-AC unit of the M DC-to-AC units; the negative output terminal of an n th power supply of the N power supplies is coupled in series to the positive output terminal of an (n+1) th power supply of the N power supplies to form a first node, wherein n is an integer greater than 0 and less than N; the negative output terminal of an N th power supply of the N power supplies is coupled to the negative input terminal of an M th DC-to-AC unit of the M DC-to-AC units; the negative input terminal of an m th DC-to-AC unit of the M DC-to-AC units is coupled in series to the positive input terminal of an (m+1) th DC-to-AC unit of the M DC-to-AC units to form a second node, wherein m is an integer greater than 0 and less than M; characterized in that at least one first node and at least one second node are coupled; and output terminals of the DC-to-AC units are isolated for output.
A method for receiving data transmitted over a plurality of multiple input multiple output, MIMO, channels using open loop precoder cycling, comprising: filtering received symbol vectors with a filter which is computed based on a precoder selected from an open loop precoder cycling codebook; and decoding the filtered received symbol vectors into a plurality of transmitted bit streams; wherein the open loop precoder cycling codebook corresponds to a subset of a set of codebook indices from a closed loop precoding codebook, wherein each codebook index is associated with one precoder for each transmission rank, and wherein transmission rank corresponds to the number of data streams being transmitted in parallel over each MIMO channel, and wherein the precoders within each open loop precoder cycling codebook set are separated with respect to a plurality of distance measures and wherein the subset of cycling precoders comprises the minimum number of precoders, of transmission rank one, required to excite all dimensions of the transmit antennas. filtering received symbol vectors with a filter which is computed based on a precoder selected from an open loop precoder cycling codebook; and decoding the filtered received symbol vectors into a plurality of transmitted bit streams; wherein the open loop precoder cycling codebook corresponds to a subset of a set of codebook indices from a closed loop precoding codebook, wherein each codebook index is associated with one precoder for each transmission rank, and wherein transmission rank corresponds to the number of data streams being transmitted in parallel over each MIMO channel, and wherein the precoders within each open loop precoder cycling codebook set are separated with respect to a plurality of distance measures and wherein the subset of cycling precoders comprises the minimum number of precoders, of transmission rank one, required to excite all dimensions of the transmit antennas.
A method of producing a Shigella bioconjugate comprising producing, isolating and purifying a recombinant N-glycosylated protein, comprising the steps of: a) providing a recombinant gram-negative bacterium comprising nucleic acids coding for i) a functional pgl operon from Campylobacter spp., preferably C. jejuni, and ii) at least one recombinant target protein, Exotoxin Pseudomonas aeruginosa, comprising one or more of the following N-glycosylated optimized amino acid consensus sequence(s): D / E − X − N − Z − S / T, wherein X and Z may be any natural amino acid except Pro, and wherein at least one of said N-glycosylated optimized amino acid consensus sequence(s) is introduced, and (iii) Shigella polysaccharide synthesis, and b) culturing the recombinant organism in a manner suitable for the production and N-glycosylation of the target protein(s), c) removing the outer membrane of said recombinant gram-negative bacterium; and d) recovering said recombinant protein by anionic exchange and size exclusion chromatography. a) providing a recombinant gram-negative bacterium comprising nucleic acids coding for i) a functional pgl operon from Campylobacter spp., preferably C. jejuni, and ii) at least one recombinant target protein, Exotoxin Pseudomonas aeruginosa, comprising one or more of the following N-glycosylated optimized amino acid consensus sequence(s): D / E − X − N − Z − S / T, wherein X and Z may be any natural amino acid except Pro, and wherein at least one of said N-glycosylated optimized amino acid consensus sequence(s) is introduced, and (iii) Shigella polysaccharide synthesis, and i) a functional pgl operon from Campylobacter spp., preferably C. jejuni, and ii) at least one recombinant target protein, Exotoxin Pseudomonas aeruginosa, comprising one or more of the following N-glycosylated optimized amino acid consensus sequence(s): D / E − X − N − Z − S / T, wherein X and Z may be any natural amino acid except Pro, and wherein at least one of said N-glycosylated optimized amino acid consensus sequence(s) is introduced, and (iii) Shigella polysaccharide synthesis, and b) culturing the recombinant organism in a manner suitable for the production and N-glycosylation of the target protein(s), c) removing the outer membrane of said recombinant gram-negative bacterium; and d) recovering said recombinant protein by anionic exchange and size exclusion chromatography.
A eukaryotic cell, comprising a magnetotactic bacterium in said eukaryotic cell, wherein the eukaryotic cell is capable of undergoing at least five cell divisions, and wherein the eukaryotic cell is (a) a human cell, wherein the human cell is a cancer cell, an IPS cell, a pluripotent stem cell, a neural stem cell, an epidermal neural crest stem cell, or a hematopoietic stem cell, or (b) a murine cell, wherein the murine cell is a cancer cell, an IPS cell, a pluripotent stem cell, a neural stem cell, an epidermal neural crest stem cell, or a hematopoietic stem cell. (a) a human cell, wherein the human cell is a cancer cell, an IPS cell, a pluripotent stem cell, a neural stem cell, an epidermal neural crest stem cell, or a hematopoietic stem cell, or (b) a murine cell, wherein the murine cell is a cancer cell, an IPS cell, a pluripotent stem cell, a neural stem cell, an epidermal neural crest stem cell, or a hematopoietic stem cell.
A perfluoropolyether polymer represented by the general formula: wherein M FPE represents repeat units derived from one or more mono-ethylenically unsaturated monomers having a perfluoropolyether group and a Mw of at least 600 g/mole, and the perfluoropolyether polymer comprises 10 to 50 wt-% of M FPE; M AO represents repeat units derived from one or more ethylenically unsaturated monomers having an alkylene oxide repeat unit; M MA represents units derived from ethylenically unsaturated monomers that lack a perfluoropolyether group and an alkylene oxide repeat unit; each X independently comprises an ethylenically unsaturated group; n and m each independently represent a value of 1 to 100 wherein the sum of n + m is at least 3; q represents a value of 0 to 100; and r and s each independently represent a value of 0 to 6 with the proviso that the sum of r + s is at least 1. M FPE represents repeat units derived from one or more mono-ethylenically unsaturated monomers having a perfluoropolyether group and a Mw of at least 600 g/mole, and the perfluoropolyether polymer comprises 10 to 50 wt-% of M FPE; M AO represents repeat units derived from one or more ethylenically unsaturated monomers having an alkylene oxide repeat unit; M MA represents units derived from ethylenically unsaturated monomers that lack a perfluoropolyether group and an alkylene oxide repeat unit; each X independently comprises an ethylenically unsaturated group; n and m each independently represent a value of 1 to 100 wherein the sum of n + m is at least 3; q represents a value of 0 to 100; and r and s each independently represent a value of 0 to 6 with the proviso that the sum of r + s is at least 1.
A vehicle seat, comprising: a cushion pad provided with a tuck-in groove; a wire provided in the cushion pad under or in a lower part of the groove; a skin member covering a surface of the cushion pad; a tuck-in member attached to a back side of the skin member and engaged by the wire, the tuck-in member extending along a length of the tuck-in groove; and a heater element in sheet form provided between the surface of the cushion pad and the skin member, the heater element including a substrate in sheet form and a heater wire provided on the substrate, wherein the heater element includes a pair of main body portions and a crossing portion (48, 49) connecting the main body portions to each other, the crossing portion being received in the tuck-in groove and extending through a gap defined between a bottom portion of the tuck-in groove and the tuck-in member, and wherein the heater wire in the crossing portion extends in a direction orthogonal to a lengthwise direction of the tuck-in groove in a zigzag pattern, the heater wire including bent portions of the zigzag pattern wherein each of the bent portions of the heater wire in the crossing portion is located in a bottom region of the tuck-in groove ranging from the bottom portion of the tuck-in groove to an upper surface of the tuck-in member. a cushion pad provided with a tuck-in groove; a wire provided in the cushion pad under or in a lower part of the groove; a skin member covering a surface of the cushion pad; a tuck-in member attached to a back side of the skin member and engaged by the wire, the tuck-in member extending along a length of the tuck-in groove; and a heater element in sheet form provided between the surface of the cushion pad and the skin member, the heater element including a substrate in sheet form and a heater wire provided on the substrate, wherein the heater element includes a pair of main body portions and a crossing portion (48, 49) connecting the main body portions to each other, the crossing portion being received in the tuck-in groove and extending through a gap defined between a bottom portion of the tuck-in groove and the tuck-in member, and wherein the heater wire in the crossing portion extends in a direction orthogonal to a lengthwise direction of the tuck-in groove in a zigzag pattern, the heater wire including bent portions of the zigzag pattern wherein each of the bent portions of the heater wire in the crossing portion is located in a bottom region of the tuck-in groove ranging from the bottom portion of the tuck-in groove to an upper surface of the tuck-in member.
An imaging system, comprising: a first portion comprising a base having a length dimension; a second portion rotatable with respect to the first portion and translatable relative to the first portion along the length dimension of the base; and a locking mechanism that is adapted to prevent the first portion when at a first translational position along the length dimension from translating relative to the second portion by rotation of the second portion to a first angular position relative to the first portion causing engagement; and wherein the locking mechanism permits the second portion to translate relative to the base when the second portion is not rotated to the first angular position. a first portion comprising a base having a length dimension; a second portion rotatable with respect to the first portion and translatable relative to the first portion along the length dimension of the base; and a locking mechanism that is adapted to prevent the first portion when at a first translational position along the length dimension from translating relative to the second portion by rotation of the second portion to a first angular position relative to the first portion causing engagement; and wherein the locking mechanism permits the second portion to translate relative to the base when the second portion is not rotated to the first angular position.
A prefabricated shelf, comprising: a first frame in which a pair of assembly holes, each having a wide portion and a narrow portion, are arranged left-right symmetrically; and a second frame in which a pair of assembly protrusions, corresponding to the pair of assembly holes and each protruding to fit into the narrow portion, are arranged left-right symmetrically, wherein the narrow portion comprises a pressing protrusion portion configured to protrude from a first end thereof and press the assembly protrusion to a second side thereof to force the assembly protrusion into place; and wherein the pressing protrusion portion consists of a pair of pressing protrusions (134, 135) arranged apart up and down, and wherein the assembly protrusion comprises a fixing protrusion portion fitted into a fixing groove located between the pair of pressing protrusions(134, 135), characterized in that the assembly protrusion, upper and lower surfaces of a fitting portion are connected to each other in a downward slope at a predetermined slightly-tilted angle toward the fixing protrusion portion with respect to the fixing protrusion portion, so that an upper support surface of the fitting portion, the fixing protrusion portion, and a lower support surface of the fitting portion are connected in a zigzaged manner. a first frame in which a pair of assembly holes, each having a wide portion and a narrow portion, are arranged left-right symmetrically; and a second frame in which a pair of assembly protrusions, corresponding to the pair of assembly holes and each protruding to fit into the narrow portion, are arranged left-right symmetrically, wherein the narrow portion comprises a pressing protrusion portion configured to protrude from a first end thereof and press the assembly protrusion to a second side thereof to force the assembly protrusion into place; and wherein the pressing protrusion portion consists of a pair of pressing protrusions (134, 135) arranged apart up and down, and wherein the assembly protrusion comprises a fixing protrusion portion fitted into a fixing groove located between the pair of pressing protrusions(134, 135), characterized in that the assembly protrusion, upper and lower surfaces of a fitting portion are connected to each other in a downward slope at a predetermined slightly-tilted angle toward the fixing protrusion portion with respect to the fixing protrusion portion, so that an upper support surface of the fitting portion, the fixing protrusion portion, and a lower support surface of the fitting portion are connected in a zigzaged manner.
An isolated peptide consisting in an amino acid sequence selected from the group consisting of: SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 13, SEQ ID NO: 14, SEQ ID NO: 15, SEQ ID NO: 16, SEQ ID NO: 17 and SEQ ID NO: 18, or variants thereof, wherein said variant has an amino acid sequence differing from those sequences by one or more deletion or conservative substitution and wherein the sequence of those variants is at least 80% identical to the original amino acid sequence.
An automated method of determining a dyskinetic state of a person, the method comprising: obtaining a time series of accelerometer data, from an accelerometer worn on an extremity of the person, over an extended period during everyday activities of the person; band pass filtering the accelerometer data to extract filtered data for a band of interest, wherein the band of interest has a lower end cut off frequency selected to remove DC and an upper end cut off frequency which is selected to eliminate higher frequency components which in general do not arise from normal human motions; extracting one or more bins of acceleration data from the time series of the acceleration data, each bin being of a time duration which is selected to be small enough that relatively regular measures of dyskinesia are determined, while being long enough to provide a reasonable likelihood of a significant movement by the person during that bin; comparing the accelerometer data to a threshold value; determining a proportion of time for which the accelerometer data remains below the threshold value, where the determined proportion of time is representative of a time of reduced movement (T RM); and processing the filtered data and said determined proportion of time (T RM) to determine a measure for the dyskinetic state. obtaining a time series of accelerometer data, from an accelerometer worn on an extremity of the person, over an extended period during everyday activities of the person; band pass filtering the accelerometer data to extract filtered data for a band of interest, wherein the band of interest has a lower end cut off frequency selected to remove DC and an upper end cut off frequency which is selected to eliminate higher frequency components which in general do not arise from normal human motions; extracting one or more bins of acceleration data from the time series of the acceleration data, each bin being of a time duration which is selected to be small enough that relatively regular measures of dyskinesia are determined, while being long enough to provide a reasonable likelihood of a significant movement by the person during that bin; comparing the accelerometer data to a threshold value; determining a proportion of time for which the accelerometer data remains below the threshold value, where the determined proportion of time is representative of a time of reduced movement (T RM); and processing the filtered data and said determined proportion of time (T RM) to determine a measure for the dyskinetic state.
A computer-implemented method for identifying a pathological picture, the method comprising: obtaining sample data including a positive sample that is a pathological picture of a malignant lesion and a negative sample that is a picture of normal tissue or a pathological picture of benign lesion, with a lesion area marked on the pathological picture of a malignant lesion; dividing the sample data into a training set and a testing set; training a deep neural network model using the training set; testing a trained deep neural network model using the testing set; adjusting parameters of the trained deep neural network model according to a testing result; identifying the pathological picture using the trained deep neural network model characterized in that, after the sample data is obtained, the sample data is further pre-processed by: cutting out pictures of different dimensions on the lesion area marked on a pathological picture of a malignant lesion; and randomly cutting out pictures of different dimensions on the picture of normal tissue or a pathological picture of benign lesion, in which a picture with cell content less than 50% being discarded. obtaining sample data including a positive sample that is a pathological picture of a malignant lesion and a negative sample that is a picture of normal tissue or a pathological picture of benign lesion, with a lesion area marked on the pathological picture of a malignant lesion; dividing the sample data into a training set and a testing set; training a deep neural network model using the training set; testing a trained deep neural network model using the testing set; adjusting parameters of the trained deep neural network model according to a testing result; identifying the pathological picture using the trained deep neural network model characterized in that, after the sample data is obtained, the sample data is further pre-processed by: cutting out pictures of different dimensions on the lesion area marked on a pathological picture of a malignant lesion; and randomly cutting out pictures of different dimensions on the picture of normal tissue or a pathological picture of benign lesion, in which a picture with cell content less than 50% being discarded. cutting out pictures of different dimensions on the lesion area marked on a pathological picture of a malignant lesion; and randomly cutting out pictures of different dimensions on the picture of normal tissue or a pathological picture of benign lesion, in which a picture with cell content less than 50% being discarded.
A motorized blind comprising a winding-up shaft (10, 18) and an apron fitted to said winding-up shaft, said apron having a ballasting lower edge and at least one windable part connecting said ballasting lower edge and said winding-up shaft (10, 18), said at least one windable part being intended to be wound-up around said winding-up shaft, while said ballasting lower edge exerts a tension on said at least one windable part, said winding-up shaft (10, 18) being intended to be rotated in order to unwind said at least one windable part and to cause the translation of said ballasting lower edge in a direction opposite to that bringing it closer to said winding-up shaft (10, 18), said motorized blind further comprising a stopping mechanism mounted along said winding-up shaft, said stopping mechanism comprising a movable sensing member having a first securing end and a first contact end opposite to said first securing end and intended to contact said at least one windable part, said stopping mechanism being intended to cause the rotation of said winding-up shaft (10, 18) to stop as soon as the translation of said ballasting lower edge is locked and said at least one windable part is released; characterized in that said stopping mechanism includes a return spring of said sensing member and a movable locking member having a second securing end and a second contact end opposite to said second securing end; and in that said sensing member is driven in motion by said return spring, when said at least one windable part is released, to come in contact with said blocking member so as to move said blocking member, said second securing end engaging said winding-up shaft (10, 18) to mechanically lock the rotation of said winding-up shaft; said stopping mechanism being located outside of said winding-up shaft (10, 18), while said at least one windable part extends between said stopping mechanism and said winding-up shaft (10, 18).