mhurhangee/ep-ind-claims huggingface dataset:
A fluid dispenser comprising: • a casing that is provided with a dispenser head, and • a refill cartridge that includes a fluid reservoir, wherein the refill cartridge is axially insertable into the casing in such a manner as to connect the fluid reservoir to the dispenser head, the fluid dispenser being characterized in that the refill cartridge and the casing are provided with connection means (17, 253) for connecting the refill cartridge in the casing by screw-fastening, so as to bring the fluid reservoir into leaktight contact with the dispenser head, the movement, after screw-fastening, of the refill cartridge in the casing towards the dispenser head delivering the fluid to the dispenser head. • a casing that is provided with a dispenser head, and • a refill cartridge that includes a fluid reservoir,
An anti-Fc epsilon receptor I (FCERI) antibody, or antigen-binding fragment thereof, for use in treating type 1 insulin-dependent diabetes mellitus in a subject; wherein the anti-FcεRI antibody is an IgG antibody; wherein the anti-FcεRI antibody, or antigen-binding fragment thereof, is administered in an amount sufficient to cross-link and aggregate surface FcεRI on basophils and/or mast cells, thereby activating the basophils and/or mast cells; and wherein the anti-FcεRI antibody, or antigen-binding fragment thereof, is administered chronically to the subject.
Method for the enrichment and/or isolation of target cells - in a sample, which sample comprises red blood cells and/or platelets, comprising (a) filtering the sample through a filter element having pores with a size of between 0.5 and 5 μm, (b) contacting the cells retained by the filter element in step (a) with a separation surface, wherein said separation surface is a hydrogel coating on a support material and comprises affinity molecules which selectively bind to the target cells;, (c) incubating the cells and the separation surface under conditions which al.low for the binding of the affinity molecules to the target cells; and (d) separating the separation surface from any unbound cells and material. (a) filtering the sample through a filter element having pores with a size of between 0.5 and 5 μm, (b) contacting the cells retained by the filter element in step (a) with a separation surface, wherein said separation surface is a hydrogel coating on a support material and comprises affinity molecules which selectively bind to the target cells;, (c) incubating the cells and the separation surface under conditions which al.low for the binding of the affinity molecules to the target cells; and (d) separating the separation surface from any unbound cells and material.
Power supply control device for a submarine equipment comprising at least one electronic circuit mounted in series between first and second pins, i) a first control means (R1j, RC1) arranged for selectively coupling said first and second pins either to first and second branch pins of a branch connection, respectively, to feed said electronic circuit with a branch current, or to first and second trunk pins of a trunk connection, respectively, to feed said electronic circuit with a trunk current, and ii) a second control means (R2j, RC2) arranged for coupling either said first and second branch pins together to by-pass said branch current, or said first and second trunk pins together to by-pass said trunk current.
A method for calculation of power flow in a distribution grid, comprising the steps of: - dividing the distribution grid into two parts, middle voltage grid and one or more low voltage grids; - pre-processing all low voltage grids in order to estimate a total equivalent power; - performing a backward/forward type sweep algorithm upon the middle voltage grid only; - after middle voltage power flow computation, refining all low voltage grid parameters based on middle voltage grid parameter obtained in the previous step, said parameter being one of voltage, current, power, and impedance. - dividing the distribution grid into two parts, middle voltage grid and one or more low voltage grids; - pre-processing all low voltage grids in order to estimate a total equivalent power; - performing a backward/forward type sweep algorithm upon the middle voltage grid only; - after middle voltage power flow computation, refining all low voltage grid parameters based on middle voltage grid parameter obtained in the previous step, said parameter being one of voltage, current, power, and impedance.
An aqueous composition comprising tin ions and at least one compound of formula I wherein X 1, X 2 are independently selected from a linear or branched C 1 -C 12 alkanediyl, which may optionally be interrupted by O or S, R 11 is a monovalent group of formula -(O-CH 2 -CHR 41) m -OR 42, R 12, R 13, R 14 are independently selected from H, R 11, and R 40; R 15 is selected from H, R 11, R 40 and -X 4 -N(R 21) 2, X 4 is a divalent group selected from (a) a linear or branched C 1 to C 12 alkanediyl, and (b) formula -(O-CH 2 -CHR 41) o -, R 21 is selected from R 11 and R 40, R 40 is a linear or branched C 1 -C 20 alkyl, R 41 is selected from H and a linear or branched C 1 to C 5 alkyl, R 42 is selected from H and a linear or branched C 1 -C 20 alkyl, which may optionally be substituted by hydroxy, alkoxy or alkoxycarbonyl, n is an integer of from 1 to 6, m is an integer of from 2 to 250, and o is an integer of from 1 to 250, wherein the aqueous composition is free of copper ions. X 1, X 2 are independently selected from a linear or branched C 1 -C 12 alkanediyl, which may optionally be interrupted by O or S, R 11 is a monovalent group of formula -(O-CH 2 -CHR 41) m -OR 42, R 12, R 13, R 14 are independently selected from H, R 11, and R 40; R 15 is selected from H, R 11, R 40 and -X 4 -N(R 21) 2, X 4 is a divalent group selected from (a) a linear or branched C 1 to C 12 alkanediyl, and (b) formula -(O-CH 2 -CHR 41) o -, R 21 is selected from R 11 and R 40, R 40 is a linear or branched C 1 -C 20 alkyl, R 41 is selected from H and a linear or branched C 1 to C 5 alkyl, R 42 is selected from H and a linear or branched C 1 -C 20 alkyl, which may optionally be substituted by hydroxy, alkoxy or alkoxycarbonyl, n is an integer of from 1 to 6, m is an integer of from 2 to 250, and o is an integer of from 1 to 250,
Electrochemical measuring cell for measuring the content of chlorine compounds in water - containing an electrolyte space containing an electrolyte and a reagent within the electrolyte, which reagent can react with the chlorine compounds contained in the water, - a measuring electrode delimiting the electrolyte space, - a reference electrode which is arranged within the electrolyte space, - a counter electrode characterised in that - the measuring electrode is rigid porous platinum membrane having a pore size of 0,15 μm to 0,25 μm and a thickness of 0,5 mm +/- 0,05 mm - a physical and electrical contact takes place between the water to be examined and the electrolyte only within the pores of the platinum electrode, - the counter electrode surrounds the electrolyte space ringlike. - containing an electrolyte space containing an electrolyte and a reagent within the electrolyte, which reagent can react with the chlorine compounds contained in the water, - a measuring electrode delimiting the electrolyte space, - a reference electrode which is arranged within the electrolyte space, - a counter electrode characterised in that - the measuring electrode is rigid porous platinum membrane having a pore size of 0,15 μm to 0,25 μm and a thickness of 0,5 mm +/- 0,05 mm - a physical and electrical contact takes place between the water to be examined and the electrolyte only within the pores of the platinum electrode, - the counter electrode surrounds the electrolyte space ringlike.
Measuring device for determining the throughput volume of a mass flow, in particular for measuring a bulk material stream, - having an impeller housing and an underlying measuring gear housing, - having an impeller that is supported by a drive shaft, said impeller being driven at a constant rotational speed and axially acted upon by the mass flow, diverting the latter and providing it with both a radial and a tangential velocity component, - wherein the drive shaft has a driving spur gear, - - which is in engagement with an intermediate spur gear, - - - which is driven by a driving spur gear (20, 31) - - - and is held in its position by a force measuring device - and the drive shaft is coaxially surrounded by a bearing sleeve, - - which projects from the measuring gear housing into the impeller housing, - wherein the bearing sleeve is driven by separate drive means (19, 32), - the drive means (19, 32) drive the bearing sleeve with a rotational speed which corresponds to the rotational speed of the drive shaft and - the bearing sleeve is rotatably supported in the measuring gear housing by a two-point bearing, and that sealing means are provided at least up to the impeller housing, which prevent the infiltration of mass particles, in particular bulk material dust. - having an impeller housing and an underlying measuring gear housing, - having an impeller that is supported by a drive shaft, said impeller being driven at a constant rotational speed and axially acted upon by the mass flow, diverting the latter and providing it with both a radial and a tangential velocity component, - wherein the drive shaft has a driving spur gear, - - which is in engagement with an intermediate spur gear, - - - which is driven by a driving spur gear (20, 31) - - - and is held in its position by a force measuring device - - which is in engagement with an intermediate spur gear, - - - which is driven by a driving spur gear (20, 31) - - - and is held in its position by a force measuring device - - - which is driven by a driving spur gear (20, 31) - - - and is held in its position by a force measuring device - and the drive shaft is coaxially surrounded by a bearing sleeve, - - which projects from the measuring gear housing into the impeller housing, - - which projects from the measuring gear housing into the impeller housing, - wherein the bearing sleeve is driven by separate drive means (19, 32), - the drive means (19, 32) drive the bearing sleeve with a rotational speed which corresponds to the rotational speed of the drive shaft and - the bearing sleeve is rotatably supported in the measuring gear housing by a two-point bearing, and that sealing means are provided at least up to the impeller housing, which prevent the infiltration of mass particles, in particular bulk material dust.
Field device designed to measure or monitor a physical or chemical process variable of a medium in automation engineering with a current output arranged on the primary side and with an electronic unit (3, 13) arranged on the secondary side, said unit being supplied with energy from the primary side via two connecting cables, wherein the electronic unit controls the current output in such a way that the DC current flowing through the connecting cables represents the value of process variable measured on the secondary side, with at least a communication unit, which makes digital data (Data), available, characterized by a galvanically decoupled means of transmission, which transmits the digital data (Data) between the primary side and the secondary side, wherein a circuit arrangement is provided with two switches of a primary-side pair of switches, wherein a switch of the primary-side pair of switches is arranged in every connecting cable, with two switches of at least one secondary-side pair of switches, wherein a switch of the secondary-side pair of switches is arranged in each connecting cable, with an intermediate energy storage medium arranged between the primary side and the secondary side and a secondary-side energy storage medium assigned to the secondary side, wherein the two energy storage media (18, 19) are switched in parallel to one another and with at least one electronic control circuit that alternately controls the pairs of switches (11, 12) in such a way that the primary side and the secondary side are galvanically isolated from one another.
A method for attachment of a wireless device to a mobile network operator, MNO, the method being performed by the wireless device, the method comprising: providing an authorization token to an access and mobility management function, AMF, node of the MNO in conjunction with authenticating with the AMF node, wherein the authorization token comprises information identifying which service the wireless device is authorized for; and completing attachment to the MNO upon successful validation of the authorization token by the AMF node, wherein completing attachment to the MNO comprises obtaining (S106a) information about a provisioning server from the AMF node, from which provisioning server operational subscription credentials are downloadable to the wireless device. providing an authorization token to an access and mobility management function, AMF, node of the MNO in conjunction with authenticating with the AMF node, wherein the authorization token comprises information identifying which service the wireless device is authorized for; and completing attachment to the MNO upon successful validation of the authorization token by the AMF node, wherein completing attachment to the MNO comprises obtaining (S106a) information about a provisioning server from the AMF node, from which provisioning server operational subscription credentials are downloadable to the wireless device.
A method of generating data during wrapping of a load with a wrapping machine, the wrapping machine including a packaging material dispenser, the method comprising: determining a number of relative revolutions between the packaging material dispenser and the load during wrapping of the load with a sensing assembly on the wrapping machine; determining a height of the packaging material dispenser relative to the load during each relative revolution; determining a number of layers on a face of the load based on the number of relative revolutions; determining a height of each layer on the load based on the height of the packaging material dispenser relative to the load during each relative revolution; and displaying a graph on a display device during wrapping of the load, the graph including an axis indicative of the face of the load and one or more indicators along the axis indicative of the number of layers on the face of the load and the height of each layer on the face of the load. determining a number of relative revolutions between the packaging material dispenser and the load during wrapping of the load with a sensing assembly on the wrapping machine; determining a height of the packaging material dispenser relative to the load during each relative revolution; determining a number of layers on a face of the load based on the number of relative revolutions; determining a height of each layer on the load based on the height of the packaging material dispenser relative to the load during each relative revolution; and displaying a graph on a display device during wrapping of the load, the graph including an axis indicative of the face of the load and one or more indicators along the axis indicative of the number of layers on the face of the load and the height of each layer on the face of the load.
Production method for machines for the beverage industry, particularly cleaning machines, pasteurization machines, or shrink tunnels, wherein the components of the machine are assembled from individual parts and/or modules by welding processes and by releasable connections, characterised in that at least the method comprises the following steps: a) providing of a mounting fixture that is not part of the machine, comprising at least one mounting element, by means of which at least one of the side walls (6, 7) of the machine can be supported or carried, b) installing and aligning of at least one part of a first machine side wall (6,7), c) installing and aligning of at least a part of a second opposite machine side wall (6,7) at a distance that is slightly greater than the distance between the side walls after complete assembly, d) positioning centre built-in parts between the side walls (6,7), wherein at least one of the side walls (6,7) comprises support elements, by means of which at least a part number of the centre built-in parts can be held and/or carried by these, e) enclosing the machine by pressing together the opposite side surfaces, and f) welding at least a part of the centre built-in parts with the side surfaces, wherein preferably a laser or electron beam welding method is used. a) providing of a mounting fixture that is not part of the machine, comprising at least one mounting element, by means of which at least one of the side walls (6, 7) of the machine can be supported or carried, b) installing and aligning of at least one part of a first machine side wall (6,7), c) installing and aligning of at least a part of a second opposite machine side wall (6,7) at a distance that is slightly greater than the distance between the side walls after complete assembly, d) positioning centre built-in parts between the side walls (6,7), wherein at least one of the side walls (6,7) comprises support elements, by means of which at least a part number of the centre built-in parts can be held and/or carried by these, e) enclosing the machine by pressing together the opposite side surfaces, and f) welding at least a part of the centre built-in parts with the side surfaces, wherein preferably a laser or electron beam welding method is used.
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 configuration method, comprising: determining, by a mobile edge, ME, platform manager, a network forwarding path, NFP, from an instantiated first mobile edge computing, MEC, application to a first destination application, wherein the NFP is used to indicate a forwarding path of a traffic flow or packet that is sent by the first MEC application to the first destination application; sending, by the ME platform manager, an NFP creation request to a virtualized infrastructure manager, VIM, to request the VIM to create the NFP determined by the ME platform manager; and associating, by the ME platform manager, the NFP created by the VIM with a first traffic flow rule configured for the first MEC application. determining, by a mobile edge, ME, platform manager, a network forwarding path, NFP, from an instantiated first mobile edge computing, MEC, application to a first destination application, wherein the NFP is used to indicate a forwarding path of a traffic flow or packet that is sent by the first MEC application to the first destination application; sending, by the ME platform manager, an NFP creation request to a virtualized infrastructure manager, VIM, to request the VIM to create the NFP determined by the ME platform manager; and associating, by the ME platform manager, the NFP created by the VIM with a first traffic flow rule configured for the first MEC application.
A coated flexible open-cell polyurethane foam structure (100,200,300,400), comprising: a flexible open-cell polyurethane foam having a first major surface (104,204,304,404) and a second major surface (106,206,306,406) opposite the first major surface; and a flexible heat conductive material (108,208,308,408) covering 30 to 90 percent (cov., expressed in %) of a surface area of the first major surface of the flexible open-cell polyurethane foam in a predefined shape to provide one or more gaps exposing the flexible open-cell polyurethane foam between defined edges of the flexible heat conductive material, wherein each gap of the one or more gaps has a gap width according to Formula I: gap width mm ≤ − 0.196 × cov. % + 20.6 wherein a total surface area of the one or more gaps provides 70 to 10 percent of the surface area of the first major surface of the flexible open-cell polyurethane foam. a flexible open-cell polyurethane foam having a first major surface (104,204,304,404) and a second major surface (106,206,306,406) opposite the first major surface; and a flexible heat conductive material (108,208,308,408) covering 30 to 90 percent (cov., expressed in %) of a surface area of the first major surface of the flexible open-cell polyurethane foam in a predefined shape to provide one or more gaps exposing the flexible open-cell polyurethane foam between defined edges of the flexible heat conductive material, wherein each gap of the one or more gaps has a gap width according to Formula I: gap width mm ≤ − 0.196 × cov. % + 20.6 wherein a total surface area of the one or more gaps provides 70 to 10 percent of the surface area of the first major surface of the flexible open-cell polyurethane foam.
An optical network comprising a first node and a channel drop add device, wherein the first node is adapted to form a first transmitter/receiver function, the first node being configured to transmit data onto an optical fiber in a first and a second line direction, the optical fiber being arranged as a ring, said channel drop add device is adapted to receive and add channels onto the optical fiber thereby transmitting the data into the first and the second line direction, wherein the network further comprises a second node configured to form a transmitter/receiver function, the second node being configured to receive data on said optical fiber from said first and second line directions, wherein ∘ the second node is adapted to convey data to a client interface for the data received in either said first or second line direction, ∘ the second node is configurable to transmit data into the first and second directions towards the channel add drop device using two line interfaces, ∘ the second node is configured to convey data from the client interface into one direction, the active line direction, selected from said first and second directions and said second node is configured to not convey data from the client interface into the other line direction, standby line direction, selected from said first and second directions. wherein the second node is adapted to synchronize received data from said first and second line directions by delaying the data signals seeing the shortest delay, by a delay device. ∘ the second node is adapted to convey data to a client interface for the data received in either said first or second line direction, ∘ the second node is configurable to transmit data into the first and second directions towards the channel add drop device using two line interfaces, ∘ the second node is configured to convey data from the client interface into one direction, the active line direction, selected from said first and second directions and