mhurhangee/ep-ind-claims huggingface dataset:
A compound for use in preventing or treating a fatty liver disorder by reducing liver fat in a subject, wherein the compound is selected from: (i) -3-hydroxybutyrate; and (ii) an ester of -3-hydroxybutyrate; or a pharmaceutically acceptable salt or solvate thereof. (i) -3-hydroxybutyrate; and (ii) an ester of -3-hydroxybutyrate;
A stabilizer cartridge for enhancing stability of a fluid regulator having a regulator body, a control element configured to control a fluid flow through the regulator body, a valve stem coupled to the control element, and an actuator assembly operatively coupled to the valve stem to control a position of the control element, characterized in that: the stabilizer cartridge is positionable between the regulator body and the actuator assembly and comprises: a body adapted to be disposed around the valve stem, the body having a first end and a second end opposite the first end; a first disk coupled to the body proximate the first end, the first disk defining one or more flow paths for facilitating pressure relief; a second disk movably coupled to the body, the second disk being movable relative to the first disk responsive to fluid flow through the one or more flow paths of the first disk, wherein responsive to fluid flow through the one or more flow paths of the first disk, the second disk is movable between a first position, in which the second disk sealingly engages the flow paths of the first disk, such that the flow paths are not in fluid communication with the actuator assembly, and a second position, in which the second disk is spaced from the flow paths of the first disk, such that the flow paths are in fluid communication with the actuator assembly; and a biasing element arranged between the second disk and the second end of the body, the biasing element configured to bias the second disk toward the first disk. a body adapted to be disposed around the valve stem, the body having a first end and a second end opposite the first end; a first disk coupled to the body proximate the first end, the first disk defining one or more flow paths for facilitating pressure relief; a second disk movably coupled to the body, the second disk being movable relative to the first disk responsive to fluid flow through the one or more flow paths of the first disk, wherein responsive to fluid flow through the one or more flow paths of the first disk, the second disk is movable between a first position, in which the second disk sealingly engages the flow paths of the first disk, such that the flow paths are not in fluid communication with the actuator assembly, and a second position, in which the second disk is spaced from the flow paths of the first disk, such that the flow paths are in fluid communication with the actuator assembly; and a biasing element arranged between the second disk and the second end of the body, the biasing element configured to bias the second disk toward the first disk.
The use of a system for culturing at least one hematopoietic stem cells and/or progenitor cells comprising: a cell vessel for culturing cells, having an inlet for receiving culture media; and a delivery mechanism connected to the inlet of the cell vessel for delivering the culture media to the cell vessel, the delivery mechanism being controlled to continuously or intermittently deliver the culture media at a determined culture media delivery rate; and a controller device configured to: - receive, continuously or intermittently, signals representing measurement of at least one marker component, wherein the measurement is a concentration or density of the at least one marker component; - determine the culture media delivery rate for diluting concentration of the at least one marker component in the cell vessel based on the measurement of the at least one marker component; and - control the delivery mechanism; wherein the marker component is at least one of: an endogenous secreted factor, wherein the endogenous secreted factor is selected from: ADIPOQ, CCL2, CCL3, CCL4, CCL5, CXCL7, CXCL8, CXCL1O, EGF, PDGF, TGFB1, TGFB2, TNFSF9, and VEGF; and a cell population, wherein the cell population is selected from: CD14, CD15, CD33, CD41, CD235a, CD133, CD34, CD38, CD71 and Rho123 expressing cells. a cell vessel for culturing cells, having an inlet for receiving culture media; and a delivery mechanism connected to the inlet of the cell vessel for delivering the culture media to the cell vessel, the delivery mechanism being controlled to continuously or intermittently deliver the culture media at a determined culture media delivery rate; and a controller device configured to: - receive, continuously or intermittently, signals representing measurement of at least one marker component, wherein the measurement is a concentration or density of the at least one marker component; - determine the culture media delivery rate for diluting concentration of the at least one marker component in the cell vessel based on the measurement of the at least one marker component; and - control the delivery mechanism; - receive, continuously or intermittently, signals representing measurement of at least one marker component, wherein the measurement is a concentration or density of the at least one marker component; - determine the culture media delivery rate for diluting concentration of the at least one marker component in the cell vessel based on the measurement of the at least one marker component; and - control the delivery mechanism; wherein the marker component is at least one of: an endogenous secreted factor, wherein the endogenous secreted factor is selected from: ADIPOQ, CCL2, CCL3, CCL4, CCL5, CXCL7, CXCL8, CXCL1O, EGF, PDGF, TGFB1, TGFB2, TNFSF9, and VEGF; and a cell population, wherein the cell population is selected from: CD14, CD15, CD33, CD41, CD235a, CD133, CD34, CD38, CD71 and Rho123 expressing cells.
A method of manufacturing a component part of an end fitting for a sub-sea flexible pipe, the end fitting comprising an inner bore, the method comprising the steps of: via a wire and arc additive manufacturing process, providing a near net shape precursor corresponding to a component part of an end fitting layer-by-layer; wherein the near net shape precursor comprises a metallic base material provided layer-by-layer, and is provided with at least one region of a metallic further material integrally formed with the base material and provided layer-by-layer, said further material being different from the base material, and wherein a layer of the further material is provided at a location where a fluid communication passageway is provided in the component part; and subsequently performing at least one post near net shape processing operation on the near net shape precursor to provide the component part. via a wire and arc additive manufacturing process, providing a near net shape precursor corresponding to a component part of an end fitting layer-by-layer; wherein the near net shape precursor comprises a metallic base material provided layer-by-layer, and is provided with at least one region of a metallic further material integrally formed with the base material and provided layer-by-layer, said further material being different from the base material, and wherein a layer of the further material is provided at a location where a fluid communication passageway is provided in the component part; and subsequently performing at least one post near net shape processing operation on the near net shape precursor to provide the component part.
A cooler apparatus, comprising: a housing in which an internal space is formed; tubes disposed inside the housing at a predetermined interval; and pins disposed internal to the tubes and of which a first side contacts an internal surface of the tubes, wherein the tubes or the pins are aluminum alloy the apparatus being characterized by a cladding layer formed on a surface layer of an external side of the tubes, and a core layer disposed internal to the cladding layer, wherein the core layer includes 0.43 to 0.57 wt% of Cu, a maximum of 0.15 wt% of Si, 0.36 to 0.48 wt% of Fe, a maximum of 0.50 wt% of Zn, 0.20 to 0.32 wt% of Mg, a maximum of 0.05 wt% of Cr, 0.90 to 1.10 wt% of Mn, 0.13 to 0.20 wt% of Ti, and a remaining ratio of Al. a housing in which an internal space is formed; tubes disposed inside the housing at a predetermined interval; and pins disposed internal to the tubes and of which a first side contacts an internal surface of the tubes, wherein the tubes or the pins are aluminum alloy the apparatus being characterized by a cladding layer formed on a surface layer of an external side of the tubes, and a core layer disposed internal to the cladding layer, wherein the core layer includes 0.43 to 0.57 wt% of Cu, a maximum of 0.15 wt% of Si, 0.36 to 0.48 wt% of Fe, a maximum of 0.50 wt% of Zn, 0.20 to 0.32 wt% of Mg, a maximum of 0.05 wt% of Cr, 0.90 to 1.10 wt% of Mn, 0.13 to 0.20 wt% of Ti, and a remaining ratio of Al.
Tower for a large wind turbine which has an output power of over 1.5 MW and comprises a nacelle arranged on the tower, wherein the nacelle, in addition to the rotor-bearing arrangement, contains a generator, possibly a gear unit, a wind-tracking system, various electrical components and further auxiliary systems, and the wind turbine also comprises a rotor which is mounted on the nacelle for rotation about an essentially horizontal axis, has a diameter of more than 70 m and has at least one rotor blade, the tower having an upper, pipe-form-design tower portion, which is connected in a transition region to a lower tower portion, which is designed in the form of a lattice tower, wherein the lattice tower has at least three corner posts and a multiplicity of diagonal struts, wherein the upper tower portion forms at least one sixth of the tower as a whole, the cross section of the lower tower portion beneath the transition region is greater than the cross section of the upper tower portion, and that the transition region is designed such that the cross section of the lower tower portion is adapted in force-optimized fashion to the cross section of the upper tower portion, wherein the transition region is formed by a transition component which has a lower region, which can be connected to the lower tower portion, and an upper region, which can be connected to the upper tower portion, and wherein the corner posts of the lattice tower are configured in the form of hollow profiles.
Support device for one or more elements of a dental prosthesis comprising an intraosseous element, with or without an external thread, provided with a clamping seating, a supporting body able to be associated with said intraosseous element and provided with an axial cavity, a coupling element, able to be disposed partly inside said clamping seating and partly in said axial cavity, to determine thereby the reciprocal coupling of said intraosseous element and said supporting body, and attachment means able to keep said intraosseous element, said supporting body and said coupling element in a reciprocally assembled condition, whereby the axial cavity of said supporting body comprises at least a first conical portion, able to cooperate with a corresponding second conical portion of said coupling element, characterized in that said axial cavity further comprises at least a first polygonal portion able to cooperate with a corresponding second polygonal portion of said coupling element and in that said first conical portion of the supporting body and said second conical portion of the coupling element have a relatively high reciprocal degree of taper, comprised between 11° and less than 90°.
Method for the grinding of grinding material by at least one grinder, the method comprising: actuating the grinder in a first direction for grinding of the grinding material; and actuating the grinder in a second direction different from the first direction; characterized in that the grinder is actuated in the second direction after completion of the grinding of the grinding material in response to a user input and/or automatically in response to a number of actuations of the grinder in the first direction. actuating the grinder in a first direction for grinding of the grinding material; and actuating the grinder in a second direction different from the first direction; characterized in that the grinder is actuated in the second direction after completion of the grinding of the grinding material in response to a user input and/or automatically in response to a number of actuations of the grinder in the first direction.
A multilayer film, which is a three-layer film having a laminated structure formed by laminating a layer (A-1), a layer (A-2) and a layer (A-3) in that order, wherein (i) layer (A-1) comprises a polyethylene or a mixture of two or more types of polyethylene having a DSC melting point of > 126°C and ≤ 132°C and a density higher than a density of the A-2 layer, (ii) layer (A-3) comprises a polyethylene or a mixture of two or more types of polyethylene having a DSC melting point of > 125°C and ≤ 130°C and a density higher than the density of the A-2 layer, (iii) layer (A-2) comprises a polyethylene mixture having a DSC melting point of 120-126°C and a density of 0.910-0.920 g/cm 3, the polyethylene mixture making up the A-2 layer comprises: - 10-55 wt.-% of a linear polyethylene having a density of 0.910-0.930 g/cm 3; - 5-15 wt.-% of a high-density polyethylene having a density of 0.950-0.970 g/cm 3; and - 35-85 wt.-% of a linear polyethylene having a density of 0.900-0.910 g/cm 3 and polymerized using a single-site catalyst, and the thickness of the entirety of the film is 180-280 μm. (i) layer (A-1) comprises a polyethylene or a mixture of two or more types of polyethylene having a DSC melting point of > 126°C and ≤ 132°C and a density higher than a density of the A-2 layer, (ii) layer (A-3) comprises a polyethylene or a mixture of two or more types of polyethylene having a DSC melting point of > 125°C and ≤ 130°C and a density higher than the density of the A-2 layer, (iii) layer (A-2) comprises a polyethylene mixture having a DSC melting point of 120-126°C and a density of 0.910-0.920 g/cm 3, the polyethylene mixture making up the A-2 layer comprises: - 10-55 wt.-% of a linear polyethylene having a density of 0.910-0.930 g/cm 3; - 5-15 wt.-% of a high-density polyethylene having a density of 0.950-0.970 g/cm 3; and - 35-85 wt.-% of a linear polyethylene having a density of 0.900-0.910 g/cm 3 and polymerized using a single-site catalyst, and the thickness of the entirety of the film is 180-280 μm. - 10-55 wt.-% of a linear polyethylene having a density of 0.910-0.930 g/cm 3; - 5-15 wt.-% of a high-density polyethylene having a density of 0.950-0.970 g/cm 3; and - 35-85 wt.-% of a linear polyethylene having a density of 0.900-0.910 g/cm 3 and polymerized using a single-site catalyst, and
A cooling device comprising a body wherein foods and beverages are placed, a crisper which is placed in the body, a cover which is placed on the crisper and separates the crisper from the inner volume of the body, at least one air inlet which provides cold air passage into the crisper and at least one air outlet which provides air discharge from the crisper, characterized by at least one level sensor which is located inside the crisper and determines the instantaneous fullness rate of the crisper by detecting the upper level of the foods inside the crisper, and a control unit which provides the amount of relative humidity in the crisper to be adjusted according to the data acquired from the level sensor.
Housing module for use in a rack cabinet, where said module comprises two side elements separated from one another according to a standard distance in correspondence with the width of the rack cabinet, wherein each side element has a front edge with an outer bracing extending therefrom, such that the distance between the outer bracings is greater than the distance between the side elements; where each outer bracing has a rear face with at least one securing tab prolonging therefrom, such that said at least two securing tabs are located at one and the same level and can be fitted into two holes located at one and the same level among the plurality of standard holes comprised in each of the support columns which the rack cabinet comprises on each side, such that once said at least two securing tabs are fitted into two holes of the rack cabinet located at one and the same level, the housing module is secured to the rack cabinet so that it is leveled in a manner parallel to said level, the securing tabs having a downward L shape, such that they can be introduced and remain fitted in the holes of the support columns of the rack cabinet by gravity, characterized in that the module further comprises at least one locking handle which is linked, with possibility of movement, to the inner face of a side element, where said at least one locking handle can be moved between an unlocking position, in which it allows introducing and extracting the securing tabs into/from the holes of the rack cabinet, and a locking position, in which at least one locking tab extending from a rear face of said at least one locking handle goes through a hole located in the outer bracing right above a securing tab, preventing extraction of said securing tab once it is introduced into the corresponding hole in the rack.
A method of using a plurality of cells by an evolved nodeb, eNB, in a communication system, the method comprising the steps of: determining (406, 806, 1006), by a first eNB that manages a first cell and is providing a communication service to a UE located in the first cell, to provide the communication service to the UE together with a a second eNB that manages a second cell; transmitting (407, 807, 1007) a cell addition request message, making a request for aggregation of the first cell and the second cell, to the second eNB to provide the communication service; characterized by, when a cell addition response message, accepting the request for aggregation of the first cell and the second cell, is received (408, 808, 1008) from the second eNB, transmitting (413, 814) a cell activation request message, making a request for activation of the second cell, to the second eNB, wherein the cell addition response message comprises information indicating a time point when the UE applies an activation of the second cell. determining (406, 806, 1006), by a first eNB that manages a first cell and is providing a communication service to a UE located in the first cell, to provide the communication service to the UE together with a a second eNB that manages a second cell; transmitting (407, 807, 1007) a cell addition request message, making a request for aggregation of the first cell and the second cell, to the second eNB to provide the communication service; characterized by, when a cell addition response message, accepting the request for aggregation of the first cell and the second cell, is received (408, 808, 1008) from the second eNB, transmitting (413, 814) a cell activation request message, making a request for activation of the second cell, to the second eNB, wherein the cell addition response message comprises information indicating a time point when the UE applies an activation of the second cell.
A network comprising: a switch configured to flood a frame which comprises a destination address that is not previously learned on a source port, the frame to be flooded being received on a receiving port, to distinguish the frame to be flooded from other forwarded frames by labeling the frame to be flooded, and to discard a copy of the frame received on a second receiving port that is not the source port associated with a source address in the frame, wherein the frame to be flooded is flooded on a plurality of ports. a switch configured to flood a frame which comprises a destination address that is not previously learned on a source port, the frame to be flooded being received on a receiving port, to distinguish the frame to be flooded from other forwarded frames by labeling the frame to be flooded, and to discard a copy of the frame received on a second receiving port that is not the source port associated with a source address in the frame, wherein the frame to be flooded is flooded on a plurality of ports.
A multi-lumen catheter assembly, comprising: a catheter body having a plurality of lumens extending therein, said catheter body having an aspiration port in communication with a first lumen for transporting fluid withdrawn from a body vessel, and an infusion port in communication with a second lumen for return of said fluid to said vessel, said infusion port positioned distal of the aspiration port along a length of said catheter body, said catheter body including a septum separating said first and second lumens; and a flexible member (42, 85, 105) having one end receivable in said first lumen and having another end engaged with said catheter body distal of said aspiration port, characterised in that, said one end being freely movable within said first lumen, said flexible member (42, 85, 105) structured and arranged to maintain a spacing between said aspiration port and a wall of said vessel. a catheter body having a plurality of lumens extending therein, said catheter body having an aspiration port in communication with a first lumen for transporting fluid withdrawn from a body vessel, and an infusion port in communication with a second lumen for return of said fluid to said vessel, said infusion port positioned distal of the aspiration port along a length of said catheter body, said catheter body including a septum separating said first and second lumens; and a flexible member (42, 85, 105) having one end receivable in said first lumen and having another end engaged with said catheter body distal of said aspiration port, characterised in that, said one end being freely movable within said first lumen, said flexible member (42, 85, 105) structured and arranged to maintain a spacing between said aspiration port and a wall of said vessel.
A bearing apparatus consisting of a combination of a steel shaft and a plain bearing, wherein an aluminum alloy used for the plain bearing contains 2 to 10 mass% of Si, 8 to 18 mass% of Sn, and optionally contains 3 mass% or less in total of at least one of Cu, Mg and Zn, 0.5 mass% or less in total of at least one of Cr, Zr, Mn, V and Sc, and 0.5 mass% or less of Fe, Ti, B as the inevitable impurities, the balance consisting of Al and unavoidable impurities, characterized in that an average particle diameter of Si particles of the aluminum alloy is 4 to 10 μm, the aluminum alloy has a volume of Sn phase amounting to 50% or more of the volume of Si particles, the aluminum alloy has a hardness of Hv 45 or more, and the steel shaft has at least on the surface a hardness of Hv 500 or more, wherein said plain bearing is a clad material of said aluminum-alloy pressure bonded by cold rolling onto carbon steel.