mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting an item (23; 53; 104; 402, 404; 501; 603), in particular a container, having at least one symmetry property, inside an inspection object , for example a piece of luggage, based on at least one transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) of the inspection object , wherein the method includes a step of producing a transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) by means of inspecting an inspection object through ionizing radiation and subsequently the following steps: (a) detection of edges (29, 31; 59, 65; 410a, 412a, 410b, 412b, 442, 446, 418a, 420a, 418b, 420b, 444, 448; 512a, 512b) of items contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) in order to produce an edge image (1b; 40b; 400b; 500b); and (b) detection of the item (23; 53; 104; 402, 404; 501; 603) by means of determining of a symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) of the item (23; 53; 104; 402, 404; 501; 603) having at least one symmetry property contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) by detecting pairs of edge picture elements of the edge image (1b; 40b; 400b; 500b) that are positioned symmetrically to each other relative to the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) that is to be determined; characterized in that in step (b), in the determining of the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) in the edge image (1b; 40b; 400b; 500b), the only edge picture elements that are taken into account are those for which the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) lies in the image region of the item (23; 53; 104; 402, 404; 501; 603) to which the edge picture elements belong, and in step (b), based on intensity values of individual picture elements in the transmission image , a determination is made as to which side of an edge under consideration is the one in which an image region of the transmission image can be associated with the item (402 and 404) belonging to the edge . (a) detection of edges (29, 31; 59, 65; 410a, 412a, 410b, 412b, 442, 446, 418a, 420a, 418b, 420b, 444, 448; 512a, 512b) of items contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) in order to produce an edge image (1b; 40b; 400b; 500b); and (b) detection of the item (23; 53; 104; 402, 404; 501; 603) by means of determining of a symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) of the item (23; 53; 104; 402, 404; 501; 603) having at least one symmetry property contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) by detecting pairs of edge picture elements of the edge image (1b; 40b; 400b; 500b) that are positioned symmetrically to each other relative to the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) that is to be determined; characterized in that
A computer-implemented method comprising: extracting feature vectors from intervals of time series data of one or more of: Java Virtual Machine (JVM) heap usage, thread intensity, and stack segment intensity of a computer system; the feature vectors comprising at least one of: JVM heap size, histogram, seasonal factors, linear trends, non-linear trends, level spike, level shift, level drift, variance change, outliers, or endpoint prediction; identifying system states of the computer system using the feature vectors; identifying a point in time between two feature vectors at two consecutive intervals of the time series data as being an event that marks a computer system state transition by observing a substantive change between the two feature vectors; and associating the computer system state transition with at least one of: (a) an enactment of a directive or (b) an anomaly. extracting feature vectors from intervals of time series data of one or more of: Java Virtual Machine (JVM) heap usage, thread intensity, and stack segment intensity of a computer system; the feature vectors comprising at least one of: JVM heap size, histogram, seasonal factors, linear trends, non-linear trends, level spike, level shift, level drift, variance change, outliers, or endpoint prediction; identifying system states of the computer system using the feature vectors; identifying a point in time between two feature vectors at two consecutive intervals of the time series data as being an event that marks a computer system state transition by observing a substantive change between the two feature vectors; and associating the computer system state transition with at least one of: (a) an enactment of a directive or (b) an anomaly.
An HST (100A-100C) comprising a pump shaft , a pump main body supported by the pump shaft in a manner relatively non-rotatable around an axial line with respect to the pump shaft , a pump-side swash plate defining a capacity of the pump main body , a pump-side swash plate holder (125A-125C) supporting a rear surface of the pump-side swash plate , a motor shaft , a motor main body supported by the motor shaft in a manner relatively non-rotatable around an axial line with respect to the motor shaft , a motor-side swash plate defining a capacity of the motor main body , a motor-side swash plate holder (145A-145C) supporting a rear surface of the motor-side swash plate , and a center section (150A-150C) on which the pump main body and the motor main body directly or indirectly abut in a slidable manner around the respective axial lines and which is formed with oil paths fluidly connecting the pump main body and the motor main body , the HST (100A-100C) being characterized in that , the HST (100A-100C) includes a main plate (160A-160C) and a sub-plate (170A-170C) that hold or support the center section (150A-150C), the pump-side swash plate holder (125A-125C) and the motor-side swash plate holder (145A-145C) in a sandwiched manner by inner surfaces of the main plate (160A-160C) and the sub-plate (170A-170C) that face each other, the main plate (160A-160C) is provided with an extended region that extends farther outward in a planar direction of the main plate (160A-160C) than an installation space of the center section (150A-150C), the pump-side swash plate holder (125A-125C) and the motor-side swash plate holder (145A-145C), and than the sub-plate as viewed along a direction in which the main plate (160A-160C) and the sub-plate (170A-170C) face each other. the HST (100A-100C) includes a main plate (160A-160C) and a sub-plate (170A-170C) that hold or support the center section (150A-150C), the pump-side swash plate holder (125A-125C) and the motor-side swash plate holder (145A-145C) in a sandwiched manner by inner surfaces of the main plate (160A-160C) and the sub-plate (170A-170C) that face each other, the main plate (160A-160C) is provided with an extended region that extends farther outward in a planar direction of the main plate (160A-160C) than an installation space of the center section (150A-150C), the pump-side swash plate holder (125A-125C) and the motor-side swash plate holder (145A-145C), and than the sub-plate as viewed along a direction in which the main plate (160A-160C) and the sub-plate (170A-170C) face each other.
A manufacturing cell having a machine tool , which has a tool carrier bearing at least two tool units (101, 102; 102, 103; 101, 103; 101, 101; 102, 102) and comprises two workpiece tracks , which are situated next to one another and are oriented in a longitudinal direction , wherein the tool units (101; 102; 103) are movable relative to a machine bed of the machine tool at least in a transverse direction oriented normally to the longitudinal direction and in a vertical direction oriented normally to these two directions , wherein, per workpiece track , at least one workpiece carriage (114; 115; 116; 117) of the workpiece track (11; 12) is movable along the machine tool in the longitudinal direction , and wherein the tool units (101, 102; 102, 103; 101, 103; 101, 101; 102, 102) are movable in the longitudinal direction relative to the machine bed and/or relative to the workpiece carriages (114, 115; 116, 117), - wherein the tool carrier protrudes or extends over the workpiece tracks , which each have a workpiece-providing region (22; 23) of a workpiece-providing system and a working region (62; 63) of the machine tool , - wherein the tool units (101; 102; 103) can be used both for processing a workpiece (1; 2) on the first workpiece track and for processing a workpiece (2; 1) on the second workpiece track , - wherein the workpiece carriages (114; 115; 116; 117) are additionally movable in the longitudinal direction along the workpiece-providing system , and - wherein the workpiece-providing system has at least one lowerable or tiltable stop device (52; 53) per workpiece track (11; 12). - wherein the tool carrier protrudes or extends over the workpiece tracks , which each have a workpiece-providing region (22; 23) of a workpiece-providing system and a working region (62; 63) of the machine tool , - wherein the tool units (101; 102; 103) can be used both for processing a workpiece (1; 2) on the first workpiece track and for processing a workpiece (2; 1) on the second workpiece track , - wherein the workpiece carriages (114; 115; 116; 117) are additionally movable in the longitudinal direction along the workpiece-providing system , and - wherein the workpiece-providing system has at least one lowerable or tiltable stop device (52; 53) per workpiece track (11; 12).
Roller for treating non-woven, textile, plastics or paper material webs, comprising a roller carrier and a roller casing which can rotate about the roller carrier , the roller casing having an outer circumferential surface forming the working roller circumference , and an inner circumferential surface , the roller casing being designed as a homogeneous, self-supporting casing body comprising thermosetting plastics material , and being formed with a modulus of elasticity in the longitudinal extension of the casing body of at least 2,000 and at most 8,000 MPa at room temperature, the roller casing having a surface quality that is essential for a treatment effect of the treatment and a strength required for a supporting function of the roller , with homogeneous meaning that a material forms the surface quality essential for the treatment effect and the same material provides the strength of the roller casing required for the supporting function, characterized in that the roller casing has a hardness of 85 to 95 °SHD and is formed with a modulus of elasticity in the longitudinal extension of the casing body of at least 1,000 and at most 6,000 MPa at a temperature of 70°C.
A collimator for providing collimation of radiation from at least one radiation source, the collimator being formed from radiation attenuating material, the radiation attenuating material further defining a twisted slit having first and second apertures, the first and second apertures being configured to provide a series of compound apertures from a radiation entry point in one aperture to a radiation exit point in the other aperture, the twisted slit being filled with radiation transmissive material, characterised in that the collimator substantially takes the form of a prolate spheroid body having a major axis that passes through its longest dimension, the first aperture extending at least partially around the body in a plane orthogonal to the major axis, and the second aperture extending at least partially around the body in a spiral form relative to the major axis, such that all direct pathways from a radiation entry point to a radiation exit point and passing through the major axis at a predetermined angle, are of constant length in order to provide constant collimation effect.
A semiconductor device comprising: a semiconductor chip (CHP) which includes a semiconductor material which is larger than silicon in band gap, wherein the semiconductor chip (CHP) has: a peripheral edge part; a semiconductor element formation part located on an inner side of the peripheral edge part; and an insulating member (MR) which covers the peripheral edge part and surrounds the semiconductor element formation part, and in a planar view, a shape of an inner end part (IEG) of the insulating member (MR) includes curved-line parts (CRL1A, CRL1B, CRL2A, CRL2B) which are mutually different in radius of curvature, wherein in the planar view, the shape of the inner end part (IEG) of the insulating member (MR) includes: one pair of first curved-line parts (CRL1A, CRL1B) having a first radius of curvature; and one pair of second curved-line parts (CRL2A, CRL2B) having a second radius of curvature which is different from the first radius of curvature. a semiconductor chip (CHP) which includes a semiconductor material which is larger than silicon in band gap, wherein the semiconductor chip (CHP) has: a peripheral edge part; a semiconductor element formation part located on an inner side of the peripheral edge part; and an insulating member (MR) which covers the peripheral edge part and surrounds the semiconductor element formation part, and in a planar view, a shape of an inner end part (IEG) of the insulating member (MR) includes curved-line parts (CRL1A, CRL1B, CRL2A, CRL2B) which are mutually different in radius of curvature, wherein in the planar view, the shape of the inner end part (IEG) of the insulating member (MR) includes: one pair of first curved-line parts (CRL1A, CRL1B) having a first radius of curvature; and one pair of second curved-line parts (CRL2A, CRL2B) having a second radius of curvature which is different from the first radius of curvature. a peripheral edge part; a semiconductor element formation part located on an inner side of the peripheral edge part; and an insulating member (MR) which covers the peripheral edge part and surrounds the semiconductor element formation part, and in a planar view, a shape of an inner end part (IEG) of the insulating member (MR) includes curved-line parts (CRL1A, CRL1B, CRL2A, CRL2B) which are mutually different in radius of curvature, wherein in the planar view, the shape of the inner end part (IEG) of the insulating member (MR) includes: one pair of first curved-line parts (CRL1A, CRL1B) having a first radius of curvature; and one pair of second curved-line parts (CRL2A, CRL2B) having a second radius of curvature which is different from the first radius of curvature. one pair of first curved-line parts (CRL1A, CRL1B) having a first radius of curvature; and one pair of second curved-line parts (CRL2A, CRL2B) having a second radius of curvature which is different from the first radius of curvature.
An electrical socket , comprising a cylindrical body defining a longitudinal axis and having opposite first and second end rings , a plurality of spaced contact beams extending between the first and second end rings , and an inner receiving area for accepting a mating pin , the first and second end rings being rotatably offset from one another with respect to the longitudinal axis , thereby twisting the contact beams into a hyperbolic geometry; each of the contact beams comprising a middle section between first and second end sections , the first and second end sections being attached to the first and second end rings respectively, and wherein the middle section of each contact beam has a contour that defines an inner contact area such that the middle section extends further into the inner receiving area than the first and second end sections and such that the inner contact areas are positioned for contact with the mating pin when inserted into the inner receiving area ; and characterized in that the middle section of each contact beam being longer and wider than each of the first and second end sections such that each contact beam has a generally teardrop shape; and in that the contour of each middle section is a substantially concave form that curves into the inner receiving area such that the cross section of each middle section is curved a cylindrical body defining a longitudinal axis and having opposite first and second end rings , a plurality of spaced contact beams extending between the first and second end rings , and an inner receiving area for accepting a mating pin , the first and second end rings being rotatably offset from one another with respect to the longitudinal axis , thereby twisting the contact beams into a hyperbolic geometry; each of the contact beams comprising a middle section between first and second end sections , the first and second end sections being attached to the first and second end rings respectively, and wherein the middle section of each contact beam has a contour that defines an inner contact area such that the middle section extends further into the inner receiving area than the first and second end sections and such that the inner contact areas are positioned for contact with the mating pin when inserted into the inner receiving area ; and characterized in that the middle section of each contact beam being longer and wider than each of the first and second end sections such that each contact beam has a generally teardrop shape; and in that the contour of each middle section is a substantially concave form that curves into the inner receiving area such that the cross section of each middle section is curved
Rotating drum for treating fibrous material , the axis of rotation of said drum being inclined by at most 30° with respect to the horizontal, having a sorting zone into which fibrous material mixed with water is fed and in which the drum is perforated, wherein a fine fraction flows through the perforation and a coarse fraction is rejected by said perforation, and a cleaning apparatus which is arranged outside of the drum and which is formed by at least one spray tube having a plurality of nozzle openings is assigned to the perforation , characterized in that the nozzle openings each direct a water jet onto a reflector which reflects the water jet towards the perforated outer wall of the drum .
An ignition plug mounted in an internal combustion engine , the ignition plug comprising: a main metal fitting having a tubular shape; an earth electrode having one end fixed to the main metal fitting and including, in a part of the other end, an inclined portion inclined toward a center axis line of the main metal fitting; an earth electrode-side chip joined to the inclined portion of the earth electrode; a center electrode housed in the main metal fitting and having one end exposed and extending from the main metal fitting; a pedestal having an elliptic cylindrical shape and disposed so as to have a minor axis directed toward the earth electrode-side chip, the pedestal being formed on an end portion of the center electrode exposed from the main metal fitting and having an end surface forming an inclined surface inclined along the minor axis with respect to the center axis line; and a center electrode-side chip having a circular cylindrical shape and laser-welded to the inclined surface of the pedestal, wherein the earth electrode-side chip and the center electrode-side chip have end surfaces facing each other. a main metal fitting having a tubular shape; an earth electrode having one end fixed to the main metal fitting and including, in a part of the other end, an inclined portion inclined toward a center axis line of the main metal fitting; an earth electrode-side chip joined to the inclined portion of the earth electrode; a center electrode housed in the main metal fitting and having one end exposed and extending from the main metal fitting; a pedestal having an elliptic cylindrical shape and disposed so as to have a minor axis directed toward the earth electrode-side chip, the pedestal being formed on an end portion of the center electrode exposed from the main metal fitting and having an end surface forming an inclined surface inclined along the minor axis with respect to the center axis line; and a center electrode-side chip having a circular cylindrical shape and laser-welded to the inclined surface of the pedestal, wherein the earth electrode-side chip and the center electrode-side chip have end surfaces facing each other.
A battery pack comprising a pack casing that is substantially tightly sealed, that has a pressure release mechanism , and into which a plurality of batteries are accommodated, wherein the pressure release mechanism comprises: an opening section formed to open a wall of the pack casing to communicate an inner space of the pack casing with an outer space of the pack casing ; and a plate-like member arranged along an outer side surface of the pack casing to enclose the opening section and locally fixed onto the wall at fixture sections of two locations mutually opposed against each other across the opening section . an opening section formed to open a wall of the pack casing to communicate an inner space of the pack casing with an outer space of the pack casing ; and a plate-like member arranged along an outer side surface of the pack casing to enclose the opening section and locally fixed onto the wall at fixture sections of two locations mutually opposed against each other across the opening section .
A metal exchanged fluorinated ionomer comprising repeating units A and B in which A is a polymerized derivative of a compound selected from the group consisting of perfluoro-2,2-dimethyl-1,3-dioxole, perfluoro-2-methylene-4-methyl-1,3-dioxolane, and 2,2,4-trifluoro-5-trifluoromethoxy-1,3-dioxole, and B has the formula in which X is -SO 2 - or -CO-, Y is O or -N(SO 2 R f 1 )- R f and R f 1 are each independently perfluoroalkyl or perfluoroalkylether groups having 1 to 20 carbon atoms, and M is a Group 11 metal ion. A is a polymerized derivative of a compound selected from the group consisting of perfluoro-2,2-dimethyl-1,3-dioxole, perfluoro-2-methylene-4-methyl-1,3-dioxolane, and 2,2,4-trifluoro-5-trifluoromethoxy-1,3-dioxole, and B has the formula in which X is -SO 2 - or -CO-, Y is O or -N(SO 2 R f 1 )- R f and R f 1 are each independently perfluoroalkyl or perfluoroalkylether groups having 1 to 20 carbon atoms, and M is a Group 11 metal ion.