mhurhangee/ep-ind-claims huggingface dataset:
A reinforcing structure for a concrete element, comprising at least one first and one second longitudinal rebars (36, 37) made of concrete iron and at least one transverse rebar formed by bending the same concrete iron bar; - this transverse rebar includes at least two planar portions (9, 11; 43, 44, 45) having the same shapes and extending in parallel planes (P1, P2) spaced apart from one another, each planar portion comprising a corrugation including first and second rectilinear branches (14, 14', 17, 17') connected to one another by a central bend (16, 16'); - each first rectilinear branch (14, 14') is extended by a first lateral bend (13, 13'), these first lateral bends (13, 13') being connected to one another by a connection portion extending from the plane of the first portion up to the plane of the second portion; - each second rectilinear branch (17, 17') is extended by a second lateral bend (18, 18') extending in the direction opposite to the first lateral bend (13, 13'); characterized in that: - these first lateral bends (13, 13') being connected to one another by a connecting portion extending from the plane of the first portion up to the plane of the second portion; - the first and second longitudinal rebars (36, 37) are oriented perpendicularly to the transverse rebar and are secured respectively to the first and second lateral bends (13, 13', 18, 18') of the transverse rebar by welding or binding. - this transverse rebar includes at least two planar portions (9, 11; 43, 44, 45) having the same shapes and extending in parallel planes (P1, P2) spaced apart from one another, each planar portion comprising a corrugation including first and second rectilinear branches (14, 14', 17, 17') connected to one another by a central bend (16, 16'); - each first rectilinear branch (14, 14') is extended by a first lateral bend (13, 13'), these first lateral bends (13, 13') being connected to one another by a connection portion extending from the plane of the first portion up to the plane of the second portion; - each second rectilinear branch (17, 17') is extended by a second lateral bend (18, 18') extending in the direction opposite to the first lateral bend (13, 13'); - these first lateral bends (13, 13') being connected to one another by a connecting portion extending from the plane of the first portion up to the plane of the second portion; - the first and second longitudinal rebars (36, 37) are oriented perpendicularly to the transverse rebar and are secured respectively to the first and second lateral bends (13, 13', 18, 18') of the transverse rebar by welding or binding.
An ultrasound image processing method, said method being computer-implemented and comprising: generating an ultrasound image indicating a region of interest by using echo signals which correspond to ultrasound waves irradiated onto the ROI; generating a reference for setting indexes; segmenting a plurality of blood flows from the ultrasound image, and automatically aligning the segmented blood flows in an order based on the generated reference; sequentially setting respective indexes in the aligned blood flows (311 - 315), which are different blood flows (311 - 315) from each other, included in the ROI detected based on the ultrasound image; displaying the set indexes at positions respectively corresponding to the aligned blood flows in the ultrasound image; determining a blood flow (311 - 315) corresponding to a selected index, based on an external signal input by a user for selecting one of the set indexes; and displaying information corresponding to the determined blood flow (311 - 315), wherein the generating comprises: generating the reference for setting each of the indexes, based on the external signal input by the user for setting an index. generating an ultrasound image indicating a region of interest by using echo signals which correspond to ultrasound waves irradiated onto the ROI; generating a reference for setting indexes; segmenting a plurality of blood flows from the ultrasound image, and automatically aligning the segmented blood flows in an order based on the generated reference; sequentially setting respective indexes in the aligned blood flows (311 - 315), which are different blood flows (311 - 315) from each other, included in the ROI detected based on the ultrasound image; displaying the set indexes at positions respectively corresponding to the aligned blood flows in the ultrasound image; determining a blood flow (311 - 315) corresponding to a selected index, based on an external signal input by a user for selecting one of the set indexes; and displaying information corresponding to the determined blood flow (311 - 315), wherein the generating comprises: generating the reference for setting each of the indexes, based on the external signal input by the user for setting an index.
A device for supporting a removable panel with respect to a wall of an article of furniture, wherein the removable panel and the wall are arranged transversally with respect to one another, the device comprising: - a hollow body having a lateral wall extending along a longitudinal direction between a bottom and a main opening; - a movable element extending along said longitudinal direction and slidably arranged inside said hollow body at least between a first operating position, wherein a terminal portion of said movable element projects from said hollow body through said main opening, and a second operating position, wherein said terminal portion is at least partly inserted in said hollow body; - a main elastic element interposed between said bottom and said movable element and configured to exert an elastic force such as to move said movable element towards said first operating position; wherein it comprises at least one return elastic element interposed between said lateral wall of said hollow body and said movable element and configured to act on it in such a way to cause the movable element to return from the first operating position towards the second operating position; said return elastic element being configurable between an inactive condition, corresponding to said first operating position, wherein it abuts but does not exert an elastic force on the movable element directed towards said second operating position, and an active condition, corresponding to said second operating position, wherein it abuts and exerts an elastic force on the movable element, opposite to the elastic force exerted by said main elastic element on the same movable element, in order to cause the movable element to return from the first operating position to the second operating position following a triggering movement of the movable element towards the inside of said hollow body. - a hollow body having a lateral wall extending along a longitudinal direction between a bottom and a main opening; - a movable element extending along said longitudinal direction and slidably arranged inside said hollow body at least between a first operating position, wherein a terminal portion of said movable element projects from said hollow body through said main opening, and a second operating position, wherein said terminal portion is at least partly inserted in said hollow body; - a main elastic element interposed between said bottom and said movable element and configured to exert an elastic force such as to move said movable element towards said first operating position;
High-pressure cleaning appliance comprising at least one motor pump unit (10; 120; 140) with a motor and a pump unit, a suction line connected to the suction side of the pump unit, the suction line having a connection for connecting a supply hose for supplying the high-pressure cleaning appliance with a cleaning liquid, wherein the cleaning liquid can be pressurized by means of the motor pump unit (10; 120; 140) and can be discharged by the high-pressure cleaning appliance via a connection for connecting a high-pressure hose, the connection being in flow communication with a pressure outlet of the pump unit, the motor pump unit (10; 120; 140) comprising a motor housing which surrounds the motor, and a cooling channel as a part of the suction line, which cooling channel surrounds the motor and through which the cleaning liquid can flow for heat dissipation, in order to use the cleaning liquid conveyed by the pump assembly for cooling the motor, the cooling channel surrounding the motor housing, characterized in that the motor pump unit (12; 120; 140) comprises at least one thermally conductive spacer element by way of which the cooling channel is spaced in relation to the motor housing.
A device for the passage of cables and pipes, for electrical applications and the like, comprising a plurality of disk-like members (2, 102) having a progressively smaller diameter with respect to each other and provided monolithically together with a shank (3, 103); said disk-like members compris ing at least one first base member (21, 121), having a larger diameter, and an end member (22, 122), having a smaller diameter; said end member (22, 122) having a substantially frustum-shaped concave region constituted by a substantially flat circular region connected to an inclined wall; said device being characterized in that said end member (22, 122) has a pre-fracture means constituted by at least one recess, having a substantially triangular cross-section, which is formed on the inner side of said end member (22, 122); said said recess being formed in said substantially flat circular region in a central position.
A multi-core optical fiber ribbon comprising: at least three core members formed from silica-based glass and oriented in parallel with one another in a single plane, wherein adjacent core members of the at least three core members have a center-to-center spacing ≥ 15 microns, a cross-talk between adjacent core members is ≤ -25 dB, and the at least three core members are single-moded with an index of refraction n c, and a core diameter d c; and a single cladding layer formed from silica-based glass surrounding and in direct contact with the at least three core members, wherein the single cladding layer is substantially rectangular in cross section with a thickness ≤ 400 microns and an index of refraction n c1 < n c and the at least three core members have a relative refractive index Δ c % from 0.2 % to 2.0 % relative to the single cladding layer, and wherein the indices of refraction of adjacent core members are different such that there is a difference between the relative refractive index Δ c % of adjacent core members of ≥ 1%. at least three core members formed from silica-based glass and oriented in parallel with one another in a single plane, wherein adjacent core members of the at least three core members have a center-to-center spacing ≥ 15 microns, a cross-talk between adjacent core members is ≤ -25 dB, and the at least three core members are single-moded with an index of refraction n c, and a core diameter d c; and a single cladding layer formed from silica-based glass surrounding and in direct contact with the at least three core members, wherein the single cladding layer is substantially rectangular in cross section with a thickness ≤ 400 microns and an index of refraction n c1 < n c and the at least three core members have a relative refractive index Δ c % from 0.2 % to 2.0 % relative to the single cladding layer, and wherein the indices of refraction of adjacent core members are different such that there is a difference between the relative refractive index Δ c % of adjacent core members of ≥ 1%.
A signal processing device comprising: a plurality of resistance type sensors (31-1...) configured to detect predetermined physical quantities, and having resistances varying depending on the physical quantities; a detection circuit forming unit configured to select two or more predetermined resistance type sensors (31-1...) different for each time period from the plurality of resistance type sensors (31-1...), and to form a predetermined resistance detection circuit including the two or more resistance type sensors (31-1...) that have been selected; a measuring unit configured to sequentially receive output signals from the detection circuit forming unit; a computing unit configured to receive output signals output sequentially from the measuring unit, and to compute the physical quantities by carrying out an operation of linearly combining the output signals sequentially output from the measuring unit; wherein the detection circuit forming unit is configured to form said detection circuit configured to convert output signals of the two or more predetermined resistance type sensors (31-1...) that have been selected into voltage signals (V1...V4), wherein the two or more resistance type sensors (31-1...) that have been selected are sensors that simultaneously detect either physical quantities of two or more axes orthogonal to each other or two or more types of physical quantities and change resistances depending on detected values. a plurality of resistance type sensors (31-1...) configured to detect predetermined physical quantities, and having resistances varying depending on the physical quantities; a detection circuit forming unit configured to select two or more predetermined resistance type sensors (31-1...) different for each time period from the plurality of resistance type sensors (31-1...), and to form a predetermined resistance detection circuit including the two or more resistance type sensors (31-1...) that have been selected; a measuring unit configured to sequentially receive output signals from the detection circuit forming unit; a computing unit configured to receive output signals output sequentially from the measuring unit, and to compute the physical quantities by carrying out an operation of linearly combining the output signals sequentially output from the measuring unit; wherein the detection circuit forming unit is configured to form said detection circuit configured to convert output signals of the two or more predetermined resistance type sensors (31-1...) that have been selected into voltage signals (V1...V4), wherein the two or more resistance type sensors (31-1...) that have been selected are sensors that simultaneously detect either physical quantities of two or more axes orthogonal to each other or two or more types of physical quantities and change resistances depending on detected values.
A junction for two married cables, each cable comprising, around a central support, three concentric phase layers each made up of at least one superconductor material and one neutral layer (1 A, 2A, 3A, 4A, 1B, 2B, 3B, 4B), these layers being separated by a layer of insulating material (1'A, 2'A, 3'A, 1'B, 2'B, 3'B), said layers of superconductor material being stripped in a stepped manner, from the innermost phase (1 A, 1B) to the neutral (4A, 4B) moving away from the connecting end, a bridging support member (6, 60) being arranged between a same stripped phase or neutral layer (2A, 3A, 4A, 2B, 3B, 4B) and a layer of conducting or superconducting material for electrical connection of the same phase or neutral layers being arranged on said support member (6, 60), junction in that said innermost layers of spliced superconducting phase material (1 A, 1 B) are stripped and are directly connected, characterized in that a so-called bridging support member (6, 60) is arranged between each other same stripped phase or neutral layer (2A, 3A, 4A, 2B, 3B, 4B) and a layer of conductor or superconductor material for electrical connection of the same phase or neutral layers is arranged on each support member (6, 60).
A dry food composition product comprising fat, carbohydrates, proteins, vitamins and minerals, characterized in that the carbohydrates are derived from foodstuffs having a low glycemic index; and that the relative amounts of said fat, carbohydrates, proteins, vitamins and minerals are chosen such that an intake of said food composition product provides the consumer with a stable blood glucose level, wherein the carbohydrates, proteins and fat are present in the form of 10-20 % whole eggs, 4-15 % egg albumen, 10-25 % whey, 15-30 % yellow pea, 10-25 % apple, and 5-15 % rose hips, and wherein the fat comprises the essential fatty acids with an omega-3 to omega-6 fatty acid ratio of 1:0.5 to 1:3.0.
A noninvasive physiological sensor assembly (100, 200) configured to monitor a tissue of a patient, the noninvasive physiological sensor assembly (100, 200) comprising: a noninvasive sensor (130, 230); a cable assembly comprising a circuit board and conductors, the circuit board being coupled to a proximal end of the conductors, the cable assembly being coupled to the noninvasive sensor (130, 230) at a distal end of the conductors; and a connector assembly comprising: a first connector tab comprising a plurality of catches; and a second connector tab characterized in that the second connector tab comprises a plurality of openings; and wherein the connector assembly further comprises a retainer comprising a plurality of pins having a plurality of detents, the plurality of pins extending through the plurality of openings so that the plurality of detents mate with the plurality of catches to support the circuit board and the cable assembly between the first connector tab and the second connector tab. a noninvasive sensor (130, 230); a cable assembly comprising a circuit board and conductors, the circuit board being coupled to a proximal end of the conductors, the cable assembly being coupled to the noninvasive sensor (130, 230) at a distal end of the conductors; and a connector assembly comprising: a first connector tab comprising a plurality of catches; and a second connector tab a first connector tab comprising a plurality of catches; and a second connector tab characterized in that the second connector tab comprises a plurality of openings; and wherein the connector assembly further comprises a retainer comprising a plurality of pins having a plurality of detents, the plurality of pins extending through the plurality of openings so that the plurality of detents mate with the plurality of catches to support the circuit board and the cable assembly between the first connector tab and the second connector tab.
A wireless power transmission apparatus comprising: a plurality of source resonators (131; 311, 313, 315; 411, 413; 610, 620, 630; 710, 720, 730; 1010, 1020; 1110 - 1160; 1620) configured to transmit a power wirelessly to a target resonator (133; 1630); a controller (114; 330; 430) configured to control a current magnitude and/or a voltage magnitude of a power to be provided to each of the source resonators; and a feeder (111; 320; 420) configured to provide the power to each of the source resonators; characterized in that the controller (114; 330; 430) is further configured to: calculate an NxN impedance matrix of an N-port network between the target resonator (133; 1630) connected to the N-port network and the source resonators (131; 311, 313, 315; 411, 413; 610, 620, 630; 710, 720, 730; 1010, 1020; 1110 - 1160; 1620) connected to the N-port network; and control the current magnitude and/or the voltage magnitude based on the NxN impedance matrix. a plurality of source resonators (131; 311, 313, 315; 411, 413; 610, 620, 630; 710, 720, 730; 1010, 1020; 1110 - 1160; 1620) configured to transmit a power wirelessly to a target resonator (133; 1630); a controller (114; 330; 430) configured to control a current magnitude and/or a voltage magnitude of a power to be provided to each of the source resonators; and a feeder (111; 320; 420) configured to provide the power to each of the source resonators; characterized in that the controller (114; 330; 430) is further configured to: calculate an NxN impedance matrix of an N-port network between the target resonator (133; 1630) connected to the N-port network and the source resonators (131; 311, 313, 315; 411, 413; 610, 620, 630; 710, 720, 730; 1010, 1020; 1110 - 1160; 1620) connected to the N-port network; and control the current magnitude and/or the voltage magnitude based on the NxN impedance matrix. calculate an NxN impedance matrix of an N-port network between the target resonator (133; 1630) connected to the N-port network and the source resonators (131; 311, 313, 315; 411, 413; 610, 620, 630; 710, 720, 730; 1010, 1020; 1110 - 1160; 1620) connected to the N-port network; and control the current magnitude and/or the voltage magnitude based on the NxN impedance matrix.
A filter circuit, comprising: a first path including a first complex baseband filter, wherein the first complex baseband filter comprises a first set of cross-coupled amplifiers (422A, 422B); a second path including a second complex baseband filter, wherein the second complex baseband filter comprises a second set of cross-coupled amplifiers (442A, 442B); and a combiner coupled to an output of the first complex baseband filter and an output of the second complex baseband filter, the combiner configured to combine a first component carrier, of a carrier aggregation signal, from the first path and a second component carrier, of the carrier aggregation signal, from the second path; and wherein the first set of cross-coupled amplifiers (422A, 422B) is one of: a set of cross-coupled transimpedance amplifiers, TIAs, a set of cross-coupled programmable baseband amplifiers, PBAs, or a set of cross-coupled transconductance amplifiers; and wherein the second set of cross-coupled amplifiers (442A, 442B) is one of: a set of cross-coupled transimpedance amplifiers, TIAs, a set of cross-coupled programmable baseband amplifiers, PBAs, or a set of cross-coupled transconductance amplifiers. a first path including a first complex baseband filter, wherein the first complex baseband filter comprises a first set of cross-coupled amplifiers (422A, 422B); a second path including a second complex baseband filter, wherein the second complex baseband filter comprises a second set of cross-coupled amplifiers (442A, 442B); and a combiner coupled to an output of the first complex baseband filter and an output of the second complex baseband filter, the combiner configured to combine a first component carrier, of a carrier aggregation signal, from the first path and a second component carrier, of the carrier aggregation signal, from the second path; and wherein the first set of cross-coupled amplifiers (422A, 422B) is one of: a set of cross-coupled transimpedance amplifiers, TIAs, a set of cross-coupled programmable baseband amplifiers, PBAs, or a set of cross-coupled transconductance amplifiers; and wherein the second set of cross-coupled amplifiers (442A, 442B) is one of: a set of cross-coupled transimpedance amplifiers, TIAs, a set of cross-coupled programmable baseband amplifiers, PBAs, or a set of cross-coupled transconductance amplifiers.