mhurhangee/ep-ind-claims huggingface dataset:
An article of footwear having an upper and a sole structure secured to the upper, the upper including a knitted component comprising: a knit element including a first yarn, the knit element defining a portion of an exterior surface of the upper and an opposite interior surface of the upper, the interior surface defining a void for receiving a foot, the first yarn being a natural or synthetic twisted fiber yarn; and at least one monofilament area comprised of two knit layers, the two knit layers being overlapping and at least partially coextensive with each other, each knit layer including a monofilament strand; wherein the at least one monofilament area is formed of unitary knit construction with the knit element such that the knitted component is a one-piece element, wherein at least one course formed of the monofilament strand is substantially continuous with at least one course formed of the first yarn, wherein the article of footwear is characterized in that the first yarn has a smaller stretch-resistance than the monofilament strand, and wherein the at least one monofilament area is surrounded by remaining portions of the knitted component so as to place the at least one monofilament area under tension. a knit element including a first yarn, the knit element defining a portion of an exterior surface of the upper and an opposite interior surface of the upper, the interior surface defining a void for receiving a foot, the first yarn being a natural or synthetic twisted fiber yarn; and at least one monofilament area comprised of two knit layers, the two knit layers being overlapping and at least partially coextensive with each other, each knit layer including a monofilament strand; wherein the at least one monofilament area is formed of unitary knit construction with the knit element such that the knitted component is a one-piece element, wherein at least one course formed of the monofilament strand is substantially continuous with at least one course formed of the first yarn, wherein the article of footwear is characterized in that the first yarn has a smaller stretch-resistance than the monofilament strand, and wherein the at least one monofilament area is surrounded by remaining portions of the knitted component so as to place the at least one monofilament area under tension.
Twist-beam rear axlecomprising wheel carrier flanges which are held by tubular side arms and are welded to thetubular side arms, a raised portion that faces the side arms being formed on the wheel carrier flanges and being adapted toan inner contour of the tubular side arm in the form of a weld pool support, characterised in that the wheel carrier flanges comprise a plurality of spacers that are adjacent to the raised portion that is designed as a weld pool support.
In vitro method for predicting mortality risk among patients suffering from cardiogenic shock which comprises determining in a biological sample which has been obtained from the patient the concentration level of at least B2MG, wherein an increased level of at least the protein B2MG with respect to the concentration level determined in control survivor patients suffering from cardiogenic shock, is an indication of mortality risk.
An air circulation system for a passenger cabin (122, 124, 126, 208), the air circulation system comprising: - a suite (132, 212) forming a private sitting area within the passenger cabin (122, 124, 126, 208) and having walls (134, 218) extending upward from a floor (136, 220) of the passenger cabin (122, 124, 126, 208) without reaching a ceiling (138, 222) of the passenger cabin (122, 124, 126, 208); and - a circulation unit (216, 606, 608), characterized in that the circulation unit (216, 606, 608) comprises: * an inlet system (226, 1000, 1100) configured to receive air in the passenger cabin in a location outside of the suite (132, 212); * an outlet system (228, 1004, 1104) configured to output the air received by the inlet system (226, 1000, 1100) into an interior (232, 604) of the suite (132, 212); and * a fan system (230, 1002, 1102) configured to cause a movement of the air into the inlet system (226, 1000, 1100) from outside of the suite (132, 212) and out of the outlet system (228, 1004, 1104) into the interior (232, 604) of the suite (132, 212), so that the air moves upwards in the suite (132, 212) and over the walls (134, 218) which causes a desired level of circulation of the air within the passenger cabin (122, 124, 126, 208). - a suite (132, 212) forming a private sitting area within the passenger cabin (122, 124, 126, 208) and having walls (134, 218) extending upward from a floor (136, 220) of the passenger cabin (122, 124, 126, 208) without reaching a ceiling (138, 222) of the passenger cabin (122, 124, 126, 208); and - a circulation unit (216, 606, 608), characterized in that the circulation unit (216, 606, 608) comprises: * an inlet system (226, 1000, 1100) configured to receive air in the passenger cabin in a location outside of the suite (132, 212); * an outlet system (228, 1004, 1104) configured to output the air received by the inlet system (226, 1000, 1100) into an interior (232, 604) of the suite (132, 212); and * a fan system (230, 1002, 1102) configured to cause a movement of the air into the inlet system (226, 1000, 1100) from outside of the suite (132, 212) and out of the outlet system (228, 1004, 1104) into the interior (232, 604) of the suite (132, 212), so that the air moves upwards in the suite (132, 212) and over the walls (134, 218) which causes a desired level of circulation of the air within the passenger cabin (122, 124, 126, 208). * an inlet system (226, 1000, 1100) configured to receive air in the passenger cabin in a location outside of the suite (132, 212); * an outlet system (228, 1004, 1104) configured to output the air received by the inlet system (226, 1000, 1100) into an interior (232, 604) of the suite (132, 212); and * a fan system (230, 1002, 1102) configured to cause a movement of the air into the inlet system (226, 1000, 1100) from outside of the suite (132, 212) and out of the outlet system (228, 1004, 1104) into the interior (232, 604) of the suite (132, 212), so that the air moves upwards in the suite (132, 212) and over the walls (134, 218) which causes a desired level of circulation of the air within the passenger cabin (122, 124, 126, 208).
Sack for bulk goods like cement, gypsum, granules, animal feed, or the like, formed of a two or multiple layered planar material, wherein the sack comprises two opposite bottoms (20, 30) and a side wall extending between the walls, characterized in that a stabilization bond is present between at least one pair of adjacent material layers of the planar material, which bond adheres one-another abutting sides of the two adjacent material layers to one another, wherein the stabilization bond is at least formed: i) in the region of the side wall and ii) continuously or in sections along one or multiple of the bottom edges (35, 36) formed by the meeting of bottoms (20, 30) and side wall, on the side of the side wall and/or on the side of the bottom, wherein both adjacent material layers, adhered with the stabilization adhesive, consist of paper, coated paper or a paper-like material. i) in the region of the side wall and ii) continuously or in sections along one or multiple of the bottom edges (35, 36) formed by the meeting of bottoms (20, 30) and side wall, on the side of the side wall and/or on the side of the bottom,
A closed loop Brayton cycle 100 for a power plant, the cycle 100 having a working fluid flowing therein for operation, the cycle 100, comprising: a heater 110 having an inlet 112 and an outlet 114, the heater 110 adapted to supply heat to the working fluid flowing in the cycle 100; at least one turbine 120 operable on the expansion of the compressed heated working fluid, and drivingly connected to a variable load 130 via a shaft-line 132, each at least one turbine 120 having an inlet 122 and an outlet 124, wherein each inlet 122 of the at least one turbine 120 is connected to the outlet 114 of the heater 110 via a conduit 140; a recuperator 150 connected to the turbine 120 via the outlet 124 to receive expanded working fluid to cool thereto, and connected to the heater 110 via the inlet 112 of the heater 110; at least one cooler 160 connected to recuperator 150 to further cool the working fluid; at least one compressor 170 on the shaft-line 132 and driven by the at least one turbine 120, the compressor 170 connected to the at least one cooler 160 to receive and compress the working fluid to transfer to the recuperator 140 to be heated by the expanded working fluid from the turbine 120 and supply to the heater 110; and a non-tight flap valve arrangement 190 configured on each conduit 140 between the heater 110 and the at least one turbine 120 in a closest possible proximity to each turbine inlet 122 to manage the mass flow of working fluid through the non-tight flap valve arrangement 190 to control the shaft-line 132 speed when the variable load 130 is disconnected from the grid. a heater 110 having an inlet 112 and an outlet 114, the heater 110 adapted to supply heat to the working fluid flowing in the cycle 100; at least one turbine 120 operable on the expansion of the compressed heated working fluid, and drivingly connected to a variable load 130 via a shaft-line 132, each at least one turbine 120 having an inlet 122 and an outlet 124, wherein each inlet 122 of the at least one turbine 120 is connected to the outlet 114 of the heater 110 via a conduit 140; a recuperator 150 connected to the turbine 120 via the outlet 124 to receive expanded working fluid to cool thereto, and connected to the heater 110 via the inlet 112 of the heater 110; at least one cooler 160 connected to recuperator 150 to further cool the working fluid; at least one compressor 170 on the shaft-line 132 and driven by the at least one turbine 120, the compressor 170 connected to the at least one cooler 160 to receive and compress the working fluid to transfer to the recuperator 140 to be heated by the expanded working fluid from the turbine 120 and supply to the heater 110; and a non-tight flap valve arrangement 190 configured on each conduit 140 between the heater 110 and the at least one turbine 120 in a closest possible proximity to each turbine inlet 122 to manage the mass flow of working fluid through the non-tight flap valve arrangement 190 to control the shaft-line 132 speed when the variable load 130 is disconnected from the grid.
An integrated steam cycle power module comprising: a steam turbine arranged to have steam supplied thereto; a steam manifold arranged to have exhaust steam from the steam turbine supplied thereto; at least one heat exchanger arranged to have exhaust steam supplied thereto from the manifold via risers which connect the manifold to a header associated with the heat exchangers; wherein the steam turbine is situated below the steam manifold and is arranged, in use, to exhaust exhaust steam to the manifold, which exhaust steam is passed to the heat exchanger in order to have heat extracted therefrom; and characterised in that the or each heat exchanger is an air-cooled panel and is substantially vertical and in that the or each heat exchanger panel is arranged to form a substantially planar, substantially vertical, wall along side regions of the module. a steam turbine arranged to have steam supplied thereto; a steam manifold arranged to have exhaust steam from the steam turbine supplied thereto; at least one heat exchanger arranged to have exhaust steam supplied thereto from the manifold via risers which connect the manifold to a header associated with the heat exchangers; wherein the steam turbine is situated below the steam manifold and is arranged, in use, to exhaust exhaust steam to the manifold, which exhaust steam is passed to the heat exchanger in order to have heat extracted therefrom; and characterised in that the or each heat exchanger is an air-cooled panel and is substantially vertical and in that the or each heat exchanger panel is arranged to form a substantially planar, substantially vertical, wall along side regions of the module.
Belt tensioner comprising a lower part (3, 3.1), which has side pieces (2, 2.1), a tensioning lever (5, 5.1), which is connected in a pivotable manner to said lower part, and a locking device for locking the tensioning lever (5, 5.1) located in its closed position, which locking device has a spring element, arranged on the inner side of the tensioning lever (5, 5.1) and having a locking bolt, which projects from the tensioning lever (5, 5.1), in its closed position, in the direction of the adjacent side piece (2, 2.1) of the lower part (3, 3.1), and also has a catch, which is associated with said side piece (2, 2.1) and has a locking-bolt opening, the locking bolt engaging in said catch in the closed position of the belt tensioner and being retained therein by the spring element in order for an opening movement of the tensioning lever (5, 5.1) to be blocked, characterized in that the spring element has a handle which projects on the inner side of the tensioning lever (5, 5.1) beyond the free end of the latter, said free end being opposite the location where the tensioning lever is articulated on the lower part (3, 3.1), and is intended for adjusting the locking bolt from the catch into the locking-bolt opening counter to the force of the spring element.
A toroidal support structure for a spacecraft comprising: one or more side panels forming a tubular ring extending between a first edge and a second edge; one or more floor panels forming a planar ring extending between an outer edge and an inner edge, wherein the first edge of the one or more side panels is fixed to the outer edge of the one or more floor panels and the first edge and the outer edge have the same shape and size; a plurality of isolating linear support components connected to the second edge of the one or more side panels at connection points, wherein the connection points are evenly distributed along the second edge and equally spaced from a center axis of the toroidal support structure by a radius; and one or more interior supports connected to the one or more side panels and to the one or more floor panels for maintaining orientation of the one or more side panels relative to the one or more floor panels, the one or more interior supports comprise a plurality of struts connected to the second edge of the one or more side panels at the connection points. one or more side panels forming a tubular ring extending between a first edge and a second edge; one or more floor panels forming a planar ring extending between an outer edge and an inner edge, wherein the first edge of the one or more side panels is fixed to the outer edge of the one or more floor panels and the first edge and the outer edge have the same shape and size; a plurality of isolating linear support components connected to the second edge of the one or more side panels at connection points, wherein the connection points are evenly distributed along the second edge and equally spaced from a center axis of the toroidal support structure by a radius; and one or more interior supports connected to the one or more side panels and to the one or more floor panels for maintaining orientation of the one or more side panels relative to the one or more floor panels, the one or more interior supports comprise a plurality of struts connected to the second edge of the one or more side panels at the connection points.
Hand-held power tool having a drive unit for driving an insertion tool in at least one non-percussive operating mode, wherein the drive unit has a percussion mechanism for the percussive driving of the insertion tool in an associated percussion mode, and having a communication interface which is provided for the purpose of communicating with a user guidance unit, which can be actuated by a user, and is designed to receive, from the user guidance unit, changeover instructions (608, 610) for changing over the drive unit between the at least one non-percussive operating mode and the associated percussion mode in an applicationspecific manner, wherein the user guidance unit is at least partially integrated in the hand-held power tool and is at least partially in the form of an external separate component, characterized in that the user guidance unit has at least one operating element (64, 66, 502, 504, 506, 602, 604, 606) on the hand-held power tool for initiating a changeover operation for changing over the drive unit between the at least one non-percussive operating mode and the associated percussion mode, wherein the communication interface is designed to transmit a control signal to the at least one operating element (64, 66, 502, 504, 506, 602, 604, 606) in order to make it possible for the at least one operating element (64, 66, 502, 504, 506, 602, 604, 606) to generate a changeover instruction (608, 610) for initiating a changeover operation for changing over the drive unit between the at least one non-percussive operating mode and the associated percussion mode.
A linear compressor comprising: a casing; a main body accommodated and elastically supported in the casing, wherein the main body comprises a frame, a cylinder fixed to the frame, a piston configured to linearly reciprocate inside the cylinder, and a drive unit coupled to the frame and configured to give a driving force to the piston; a back cover coupled to the main body and supported in the casing; an intake flow path member coupled to the back cover; and an intake muffler coupled to the piston, of which at least a portion linearly reciprocates inside the intake flow path member, wherein the intake flow path member comprises a first hole that is formed in a front surface of the intake flow path member and through which the intake muffler is movable, and a flow path guide that extends axially forward from a rear surface of the intake flow path member and has an opened front and an opened rear, characterized in that the flow path guide comprises a plurality of holes that are spaced apart from each other and allow an inside of the flow path guide to communicate with a space located between the flow path guide and an inner surface of the intake flow path member. a casing; a main body accommodated and elastically supported in the casing, wherein the main body comprises a frame, a cylinder fixed to the frame, a piston configured to linearly reciprocate inside the cylinder, and a drive unit coupled to the frame and configured to give a driving force to the piston; a back cover coupled to the main body and supported in the casing; an intake flow path member coupled to the back cover; and an intake muffler coupled to the piston, of which at least a portion linearly reciprocates inside the intake flow path member, wherein the intake flow path member comprises a first hole that is formed in a front surface of the intake flow path member and through which the intake muffler is movable, and a flow path guide that extends axially forward from a rear surface of the intake flow path member and has an opened front and an opened rear, characterized in that the flow path guide comprises a plurality of holes that are spaced apart from each other and allow an inside of the flow path guide to communicate with a space located between the flow path guide and an inner surface of the intake flow path member.
A vibration damping structure for a compressor, the compressor being configured to compress gas, the vibration damping structure comprising: a compressing assembly including a frame, a cylinder disposed in the frame and defining a bore, and a piston inserted into the bore of the cylinder to compress the gas by linear reciprocation; a string which connects the compressing assembly and a shell of the compressor; an assembly string connector disposed in the compressing assembly and connected to the string, and shell string connectors for connecting the string to the shell, wherein a tensile force is generated at the string due to self-weight of the compressing assembly, and wherein the compressing assembly is suspended from the shell through the string. a compressing assembly including a frame, a cylinder disposed in the frame and defining a bore, and a piston inserted into the bore of the cylinder to compress the gas by linear reciprocation; a string which connects the compressing assembly and a shell of the compressor; an assembly string connector disposed in the compressing assembly and connected to the string, and shell string connectors for connecting the string to the shell, wherein a tensile force is generated at the string due to self-weight of the compressing assembly, and wherein the compressing assembly is suspended from the shell through the string.
An aqueous pesticide formulation comprising a) at least one pesticidal agent; b) polyvinyl alcohol; c) a graft copolymer; and d) a plasticizer; wherein the plasticizer is a mixture of solid and liquid plasticizers having a ratio of from 3-to-1 to 1-to-3 parts by weight; and wherein the amount of the pesticidal agent is from 20% to 50% by weight of the total formulation; the amount of the PVA and the graft copolymer is from 1.0% to 3.0% by weight of the total formulation; the PVA to the graft copolymer ratio is from 5-to-1 to 1.5-to-1 parts by weight; and the amount of the plasticizer is from 5.0% to 15.0% by weight of the total formulation; wherein the graft copolymer has an acrylic acid, methacrylic acid, acrylate, methacrylate or methyl methacrylate polymer backbone and hydrophilic polyethylene glycol branches extending from this backbone. the amount of the pesticidal agent is from 20% to 50% by weight of the total formulation; the amount of the PVA and the graft copolymer is from 1.0% to 3.0% by weight of the total formulation; the PVA to the graft copolymer ratio is from 5-to-1 to 1.5-to-1 parts by weight; and the amount of the plasticizer is from 5.0% to 15.0% by weight of the total formulation; wherein the graft copolymer has an acrylic acid, methacrylic acid, acrylate, methacrylate or methyl methacrylate polymer backbone and hydrophilic polyethylene glycol branches extending from this backbone.
An antibody binding to human CSF-1R, characterized in that a) the heavy chain variable domain comprises a CDR3 region of SEQ ID NO: 1, a CDR2 region of SEQ ID NO: 2, and a CDR1 region of SEQ ID NO: 3, and the light chain variable domain comprises a CDR3 region of SEQ ID NO: 4, a CDR2 region of SEQ ID NO: 5, and a CDR1 region of SEQ ID NO: 6, or b) the heavy chain variable domain comprises a CDR3 region of SEQ ID NO: 9, a CDR2 region of SEQ ID NO: 10, and a CDR1 region of SEQ ID NO: 11, and the light chain variable domain comprises a CDR3 region of SEQ ID NO:12, a CDR2 region of SEQ ID NO: 13, and a CDR1 region of SEQ ID NO: 14. a) the heavy chain variable domain comprises a CDR3 region of SEQ ID NO: 1, a CDR2 region of SEQ ID NO: 2, and a CDR1 region of SEQ ID NO: 3, and the light chain variable domain comprises a CDR3 region of SEQ ID NO: 4, a CDR2 region of SEQ ID NO: 5, and a CDR1 region of SEQ ID NO: 6, or b) the heavy chain variable domain comprises a CDR3 region of SEQ ID NO: 9, a CDR2 region of SEQ ID NO: 10, and a CDR1 region of SEQ ID NO: 11, and the light chain variable domain comprises a CDR3 region of SEQ ID NO:12, a CDR2 region of SEQ ID NO: 13, and a CDR1 region of SEQ ID NO: 14.