mhurhangee/patent-ind-claim-en huggingface dataset:
A modular container for storage and transport of items, which container comprises: - a peripheral frame having a rectangular plan shape; - a plurality of transverse members rigidly joined to said frame and longitudinally spaced apart to form a bottom wall with transverse gaps ; - a pair of longitudinal walls and a pair of transverse walls , which are both removable and perpendicular to said frame ; - a post attached to said peripheral frame proximate each vertex thereof; wherein each post is a hollow profile accommodating at one end a first extendable rod with a support foot adapted to rest on the ground ( S ), and at the opposite end a second extendable rod , each post having a first outer face with first coupling means for attaching one of said longitudinal walls , and a second outer face with second coupling means for attaching one of said transverse walls ; characterized in that the posts are pivotally attached to said frame to move from an operating configuration in which said posts are perpendicular to said frame , thereby allowing both said first rod and second rod to extend and said longitudinal wall and transverse wall to be attached, to an idle configuration in which said longitudinal wall and transverse wall are removed and said posts are pivoted 90° with the first coupling means accommodated in said transverse gaps . - a peripheral frame having a rectangular plan shape; - a plurality of transverse members rigidly joined to said frame and longitudinally spaced apart to form a bottom wall with transverse gaps ; - a pair of longitudinal walls and a pair of transverse walls , which are both removable and perpendicular to said frame ; - a post attached to said peripheral frame proximate each vertex thereof; wherein each post is a hollow profile accommodating at one end a first extendable rod with a support foot adapted to rest on the ground ( S ), and at the opposite end a second extendable rod , each post having a first outer face with first coupling means for attaching one of said longitudinal walls , and a second outer face with second coupling means for attaching one of said transverse walls ; characterized in that the posts are pivotally attached to said frame to move from an operating configuration in which said posts are perpendicular to said frame , thereby allowing both said first rod and second rod to extend and said longitudinal wall and transverse wall to be attached, to an idle configuration in which said longitudinal wall and transverse wall are removed and said posts are pivoted 90° with the first coupling means accommodated in said transverse gaps .
A method for predicting risk of recurrence, metastasis, or both, in a patient with a cutaneous squamous cell carcinoma (cSCC) tumor, the method comprising: (a) isolating mRNA from a cSCC tumor sample that has been obtained from the patient; (b) determining the expression level of ALOX12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496; (c) providing an indication as to whether the cSCC tumor has a low risk to a high risk of local recurrence, distant metastasis, or both, based on the expression levels of ALOX 12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496. (a) isolating mRNA from a cSCC tumor sample that has been obtained from the patient; (b) determining the expression level of ALOX12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496; (c) providing an indication as to whether the cSCC tumor has a low risk to a high risk of local recurrence, distant metastasis, or both, based on the expression levels of ALOX 12, BBC, BHLHB9, GTPBP2, HDDC3, ID2, LCE2B, LOC100287896, MMP10, MSANTD4, NFASC, NFIC, PDPN, RCHY1, RPP38, RUNX3, TAF6L, TFAP2B, ZNF48, and ZNF496.
A chip scale isolator device, comprising: a first layer of a first dielectric material formed over a substrate; a second layer of the first dielectric material formed on the first layer, wherein the second layer is delimited by a periphery and at least some parts of the second layer do not extend to or beyond a periphery of the first layer and in which a spatial extent of the second layer is contained within and is less than a spatial extent of the first layer ; a layer of a second dielectric material formed over an uppermost one of the layers of the first dielectric material, wherein the layer of the second dielectric material has a higher relative permittivity than the first dielectric material layers a first conductor formed beneath the first layer of the first dielectric material; and a second conductor formed above the layer of the second dielectric material. a first layer of a first dielectric material formed over a substrate; a second layer of the first dielectric material formed on the first layer, wherein the second layer is delimited by a periphery and at least some parts of the second layer do not extend to or beyond a periphery of the first layer and in which a spatial extent of the second layer is contained within and is less than a spatial extent of the first layer ; a layer of a second dielectric material formed over an uppermost one of the layers of the first dielectric material, wherein the layer of the second dielectric material has a higher relative permittivity than the first dielectric material layers a first conductor formed beneath the first layer of the first dielectric material; and a second conductor formed above the layer of the second dielectric material.
A method of generating a depth map corresponding to a frame of a sequence of frames in a video clip, the method comprising: generating a single image depth map for each frame of a plurality of frames; scaling the single image depth map for each frame to generate a scaled single image depth map for said each frame by applying a scale value to each pixel of said single image depth map, wherein the scale value for each pixel of the single image depth map is generated using a method comprising: for each grid point of a plurality of grid points which are arranged across the frame: generating an initial scale value using a depth value for the grid point and depth values corresponding to the same grid point from a plurality of temporally related frames; generating a final scale value for said grid point on the basis of said grid point's initial scale value and the initial scale value of one or more neighboring grid point; and determining corresponding scale values for application to each pixel of said single image depth map from the final scale values of the grid points; and processing a time sequence of scaled single image depth maps to generate said single image depth map corresponding to the frame of the sequence of frames in the video clip. generating a single image depth map for each frame of a plurality of frames; scaling the single image depth map for each frame to generate a scaled single image depth map for said each frame by applying a scale value to each pixel of said single image depth map, wherein the scale value for each pixel of the single image depth map is generated using a method comprising: for each grid point of a plurality of grid points which are arranged across the frame: generating an initial scale value using a depth value for the grid point and depth values corresponding to the same grid point from a plurality of temporally related frames; generating a final scale value for said grid point on the basis of said grid point's initial scale value and the initial scale value of one or more neighboring grid point; and determining corresponding scale values for application to each pixel of said single image depth map from the final scale values of the grid points; and generating an initial scale value using a depth value for the grid point and depth values corresponding to the same grid point from a plurality of temporally related frames; generating a final scale value for said grid point on the basis of said grid point's initial scale value and the initial scale value of one or more neighboring grid point; and determining corresponding scale values for application to each pixel of said single image depth map from the final scale values of the grid points; and processing a time sequence of scaled single image depth maps to generate said single image depth map corresponding to the frame of the sequence of frames in the video clip.
A method for executing an SQL operator on compressed data chunks, said method comprising the steps of: - receiving SQL operator: ; - accessing compressed data chunk blocks: ; receiving the set of derivatives of the compression scheme for the compressed data chunks, characterized by the set of derivatives is an algebraic transformation for decompressing the data chunks and the compression scheme is at least one of a FOR scheme; utilizing multiple threads of an HWA unit based on a superscalar vector architecture to calculate offset values of the compressed data chunks to generate transformed data wherein the calculate offset values include recalculating the delta values, wherein the recalculating process is an algebraic transformation, resulting transformed data; and applying the SQL operators including merge operation and join operation to the transformed data. - receiving SQL operator: ; - accessing compressed data chunk blocks: ; receiving the set of derivatives of the compression scheme for the compressed data chunks, characterized by the set of derivatives is an algebraic transformation for decompressing the data chunks and the compression scheme is at least one of a FOR scheme; utilizing multiple threads of an HWA unit based on a superscalar vector architecture to calculate offset values of the compressed data chunks to generate transformed data wherein the calculate offset values include recalculating the delta values, wherein the recalculating process is an algebraic transformation, resulting transformed data; and applying the SQL operators including merge operation and join operation to the transformed data.
A cutting insert for a power skiving tool for cutting tooth grooves, the cutting insert comprising an insert body having a bottom surface generally extending in a first plane and being configured to abut against a corresponding surface of a power skiving tool, an upper surface extending opposite to the bottom surface , and a body axis extending substantially in parallel with the first plane , wherein seen along the body axis the insert body comprises a cutting end portion and opposite thereto an abutment surface configured to abut against a corresponding surface of a power skiving tool, wherein the abutment surface extends substantially perpendicularly to the body axis and to the first plane , wherein the cutting end portion is provided with a first cutting edge , which extends along an edge portion of the upper surface, and characterised in that the cutting end portion is further provided with a second cutting edge , the first cutting edge and the second cutting edge being directed in a same cutting direction, wherein the second cutting edge extends in a second plane , the second plane being substantially parallel with the first plane and extending between the upper surface and the first plane , and seen along a normal to the first plane at least a portion of the second cutting edge extends from the insert body beyond the first cutting edge . an insert body having a bottom surface generally extending in a first plane and being configured to abut against a corresponding surface of a power skiving tool, an upper surface extending opposite to the bottom surface , and a body axis extending substantially in parallel with the first plane , wherein seen along the body axis the insert body comprises a cutting end portion and opposite thereto an abutment surface configured to abut against a corresponding surface of a power skiving tool, wherein the abutment surface extends substantially perpendicularly to the body axis and to the first plane , wherein the cutting end portion is provided with a first cutting edge , which extends along an edge portion of the upper surface, and characterised in that the cutting end portion is further provided with a second cutting edge , the first cutting edge and the second cutting edge being directed in a same cutting direction, wherein the second cutting edge extends in a second plane , the second plane being substantially parallel with the first plane and extending between the upper surface and the first plane , and seen along a normal to the first plane at least a portion of the second cutting edge extends from the insert body beyond the first cutting edge .
A method for braking a vehicle , comprising: - estimating (S3) a potential brake energy (E) to be regenerated during a braking event, - determining (S4) a threshold based on a regenerating capacity of a first axle drive unit , - comparing (S5) the potential brake energy (E) to be regenerated with the threshold , and - in case the potential brake energy (E) to be regenerated being higher than the threshold , switching (S6) a second axle drive unit to a regeneration mode for regenerating the brake energy, characterized in that - determining (S4) a threshold based on the regenerating capacity of the first axle drive unit comprising estimating (S41) a connecting energy required for switching the second axle drive unit to the regeneration mode, the threshold comprising the regenerating capacity of the first axle drive unit and the connecting energy . - estimating (S3) a potential brake energy (E) to be regenerated during a braking event, - determining (S4) a threshold based on a regenerating capacity of a first axle drive unit , - comparing (S5) the potential brake energy (E) to be regenerated with the threshold , and - in case the potential brake energy (E) to be regenerated being higher than the threshold , switching (S6) a second axle drive unit to a regeneration mode for regenerating the brake energy, characterized in that - determining (S4) a threshold based on the regenerating capacity of the first axle drive unit comprising estimating (S41) a connecting energy required for switching the second axle drive unit to the regeneration mode, the threshold comprising the regenerating capacity of the first axle drive unit and the connecting energy .
An exhaust system for an internal combustion engine , the exhaust system comprising: - a first exhaust conduit leading from a first exhaust bank of the internal combustion engine to a first turbocharger turbine inlet arranged downstream of the first exhaust bank in the direction of travel of a first exhaust stream; - a second exhaust conduit leading from a second exhaust bank of the internal combustion engine to a second turbocharger turbine inlet arranged downstream of the second exhaust bank in the direction of travel of a second exhaust stream; - an SCR catalyst arranged downstream of the first turbocharger turbine inlet and/or second turbocharger turbine inlet; characterised by that the exhaust system further comprises a reductant supply system comprising a distributor pipe and a reductant injector ; wherein the distributor pipe is configured to fluidly connect the first exhaust conduit to the second exhaust conduit upstream of the first turbocharger turbine inlet and second turbocharger turbine inlet , and the reductant injector is configured to supply a reductant to the distributor pipe , and wherein thermal insulation is arranged between a first end of the distributor pipe and the first exhaust conduit and between the second end of the distributor pipe and the second exhaust conduit . - a first exhaust conduit leading from a first exhaust bank of the internal combustion engine to a first turbocharger turbine inlet arranged downstream of the first exhaust bank in the direction of travel of a first exhaust stream; - a second exhaust conduit leading from a second exhaust bank of the internal combustion engine to a second turbocharger turbine inlet arranged downstream of the second exhaust bank in the direction of travel of a second exhaust stream; - an SCR catalyst arranged downstream of the first turbocharger turbine inlet and/or second turbocharger turbine inlet; characterised by that the exhaust system further comprises a reductant supply system comprising a distributor pipe and a reductant injector ; wherein the distributor pipe is configured to fluidly connect the first exhaust conduit to the second exhaust conduit upstream of the first turbocharger turbine inlet and second turbocharger turbine inlet , and the reductant injector is configured to supply a reductant to the distributor pipe , and wherein thermal insulation is arranged between a first end of the distributor pipe and the first exhaust conduit and between the second end of the distributor pipe and the second exhaust conduit .
A device to provide assistance in transferring and standing comprising: a knee-fixing unit wrapped around and supporting either the knee area or at least the front and sides of the lower leg area from knee to ankle of a care-receiver; a pelvis support formed from fabric or sheet or mesh that is wrapped around at least the buttocks or a section from the pelvis to thighs of said care-receiver; and left and right pulling bands , each band being formed with two connecting ends that are attached to the side of a thigh section and the side of a hip section of said pelvis support respectively, wherein in use said bands are positioned above and below the greater trochanter when said care-receiver is being pulled up during transfer/standing assistance and are positioned in front of and behind the greater trochanter when said care-receiver is seated; wherein, said knee-fixing unit comprises connecting belts , wherein said connecting belts are adapted to extend from said knee-fixing unit to pass through a loop formed by said pelvis support and said pulling bands to the left and right of said pelvis support to reconnect to said knee fixing section or to said connecting belts themselves.
A method of analyzing a biological sample, including a mixture of cell-free DNA molecules from a plurality of tissues types that includes a first tissue type, to determine a classification of a proportional contribution of the first tissue type in the mixture, the method comprising: analyzing, by a computer system, a first plurality of cell-free DNA molecules from the biological sample of a subject, wherein analyzing a cell-free DNA molecule includes: determining a genomic position in a reference genome corresponding to at least one end of the cell-free DNA molecule; based on the analyzing of the first plurality of cell-free DNA molecules, determining, by the computer system, that a first number of the first plurality of cell-free DNA molecules end at one of a first set of genomic positions, wherein the first plurality of cell-free DNA molecules end at the first set of genomic positions at a rate above a threshold; computing, by the computer system, a relative abundance relating the first number to a second number of cell-free DNA molecules ending at a second set of genomic positions; and determining the classification of the proportional contribution of the first tissue type by comparing the relative abundance to one or more calibration values determined from one or more calibration samples whose proportional contributions of the first tissue type are known. analyzing, by a computer system, a first plurality of cell-free DNA molecules from the biological sample of a subject, wherein analyzing a cell-free DNA molecule includes: determining a genomic position in a reference genome corresponding to at least one end of the cell-free DNA molecule; based on the analyzing of the first plurality of cell-free DNA molecules, determining, by the computer system, that a first number of the first plurality of cell-free DNA molecules end at one of a first set of genomic positions, wherein the first plurality of cell-free DNA molecules end at the first set of genomic positions at a rate above a threshold; computing, by the computer system, a relative abundance relating the first number to a second number of cell-free DNA molecules ending at a second set of genomic positions; and determining the classification of the proportional contribution of the first tissue type by comparing the relative abundance to one or more calibration values determined from one or more calibration samples whose proportional contributions of the first tissue type are known.
A three-dimensional semiconductor wafer, comprising a semiconductor wafer unit , a connection layer, a conduction layer and a protection layer , wherein the protection layer is arranged on the conduction layer; and, the connection layer and the conduction layer are arranged on the semiconductor wafer unit at a bottom surface of the semiconductor wafer unit, wherein the protection layer is connected to the conduction layer and the protection layer is a SiO2 layer, wherein the connection layer comprises a plurality of three-dimensional connection parts ; a first end of each connection part is inserted into the semiconductor wafer unit, and a second end of each connection part is level with the bottom surface of the semiconductor wafer unit; and the connection parts are arranged inside the semiconductor wafer unit in a form of array, the semiconductor wafer unit is defined as an N - area which has a conduction type of N-type; the connection layer is defined as an N + area which has the conduction type of N-type; for array-distributed connection parts, first ends are inserted into the semiconductor wafer unit, and second ends are connected to each other on the bottom surface of the semiconductor wafer unit through the conduction layer; the conduction layer is defined as the N + area which has the conduction type of N-type; and the protection layer is arranged on the conduction layer at the bottom surface of the semiconductor wafer unit.