mhurhangee/ep-ind-claims huggingface dataset:
A cell culture solution comprising a cell culture media and one or more cells comprising a nucleic acid encoding a recombinant Von Willebrand Factor (rVWF) protein, wherein the cell culture media comprises a copper concentration of at least 2.4 μg/L and an ammonium concentration of no more than 4 mM.
An apparatus for moving products, having a plurality of individually movable transport movers (20, 20') for transporting the products; having a path system for the transport movers (20, 20') in which the transport movers (20, 20') are movable along at least one predefined path in a transport direction; having a control device for controlling the movements of the transport movers (20, 20') in the path system, wherein the transport movers (20, 20') each comprise at least one runner (22, 22') which cooperates with the path system and at least one carrier for products which is attached to the runner (22, 22'); and having a transport chain system which is disposed upstream of the path system, which is disposed downstream of the path system and/or which is integrated in the path system, with the transport chain system comprising at least one revolving transport chain, and with the runner (22, 22') comprising at least one permanent magnet, characterized in that the transport chain comprises a plurality of contiguous chain members (12, 12') and at least one drive for driving the chain members (12, 12'), with the transport movers (20, 20') being movable by means of the transport chain and the at least one runner (22, 22') cooperating with one of the chain members (12, 12'), wherein the transport movers (20, 20') are each held via their runners (22, 22') at the chain member (12, 12') by a magnetic force, and wherein magnetically active material of the chain member (12, 12') is at least partly covered by a hygiene layer.
A method of making a physical object by additive manufacturing, the method comprising the steps of: (a) providing a hardenable primary material, wherein the hardenable primary material is liquid or pasty; (b) building up the object by successively hardening layers of the hardenable primary material; and (c) cleaning the object from excess material by moving the object and thereby generating a mass inertial force in the excess material; wherein the excess material is formed by a hardenable primary material; wherein in step (c) the moving of the object is a rotation of the object, characterized in that the rotation is performed subsequently about at least a first rotation axis and a second rotation axis, wherein the first rotation axis and the second rotation axis have different orientations. (a) providing a hardenable primary material, wherein the hardenable primary material is liquid or pasty; (b) building up the object by successively hardening layers of the hardenable primary material; and (c) cleaning the object from excess material by moving the object and thereby generating a mass inertial force in the excess material; wherein the excess material is formed by a hardenable primary material; wherein in step (c) the moving of the object is a rotation of the object, characterized in that the rotation is performed subsequently about at least a first rotation axis and a second rotation axis, wherein the first rotation axis and the second rotation axis have different orientations.
An epoxy resin composition, comprising components as follows: an epoxy resin containing 3 or more epoxy groups and nitrogen in the molecular chain, a phosphorus-containing halogen-free flame retardant compound and an active ester hardener; the amount of the epoxy resin containing 3 or more epoxy groups and nitrogen in the molecular chain is 100 parts by weight, the amount of the phosphorus-containing halogen-free flame retardant compound is 10∼150 parts by weight, the equivalent ratio of the amount of the active ester hardener, based on the ratio between epoxy equivalent and active ester equivalent, is 0.85∼1.2.
A circuit (100; 200; 300; 400) for comparing a voltage (Ve) with a threshold, comprising: first and second nodes of application of said voltage (Ve); a first branch comprising a first transistor coupled in series with a first resistor between the first and second nodes; a second branch parallel to the first branch, comprising second and third resistors coupled in series forming a voltage dividing bridge between the first and second nodes, the midpoint of the dividing bridge being directly connected to a control node of the first transistor; and a third branch comprising: a second transistor having its conduction nodes respectively directly connected to the first or second node and to a third node, and having a control node directly connected to the junction point of the first transistor and of the first resistor; and a resistor (Rf) or a capacitor (Cf) or a series or parallel association of a resistor (Rf) and of a capacitor (Cf), having its ends respectively directly connected to the third node and to the control node of the first transistor. first and second nodes of application of said voltage (Ve); a first branch comprising a first transistor coupled in series with a first resistor between the first and second nodes; a second branch parallel to the first branch, comprising second and third resistors coupled in series forming a voltage dividing bridge between the first and second nodes, the midpoint of the dividing bridge being directly connected to a control node of the first transistor; and a third branch comprising: a second transistor having its conduction nodes respectively directly connected to the first or second node and to a third node, and having a control node directly connected to the junction point of the first transistor and of the first resistor; and a resistor (Rf) or a capacitor (Cf) or a series or parallel association of a resistor (Rf) and of a capacitor (Cf), having its ends respectively directly connected to the third node and to the control node of the first transistor.
Wind turbine flange connection between a hub and a nacelle, - whereby the hub of the wind turbine comprises a first flange, - whereby the nacelle of the wind turbine comprises a second flange, - whereby the first flange and the second flange are connected to each other by a number of connection means to transfer forces between the first flange and the second flange, - the first flange comprises a plurality of holes and the second flange comprises a plurality of holes corresponding to the holes in the first flange, - whereby shear pins are arranged in the holes (5, 6) of the flanges (2, 3) to transfer rotational forces between the hub and the nacelle, characterized in that - the shear pins are arranged in addition to the connecting means and at least in a sector (9, 10, 11) along the first flange where the hub shows a lower stiffness or a high gradient in the stiffness. - whereby the hub of the wind turbine comprises a first flange, - whereby the nacelle of the wind turbine comprises a second flange, - whereby the first flange and the second flange are connected to each other by a number of connection means to transfer forces between the first flange and the second flange, - the first flange comprises a plurality of holes and the second flange comprises a plurality of holes corresponding to the holes in the first flange, - whereby shear pins are arranged in the holes (5, 6) of the flanges (2, 3) to transfer rotational forces between the hub and the nacelle, - the shear pins are arranged in addition to the connecting means and at least in a sector (9, 10, 11) along the first flange where the hub shows a lower stiffness or a high gradient in the stiffness.
A composition comprising a pesticide, an incompletely hydrated water soluble polymer suspended in an aqueous liquid medium, a suspending agent, an emulsifier and a hydration inhibitor, wherein the polymer is a deposition aid for the pesticide and is present in an amount of from greater than 0 parts by weight to 30 parts by weight, wherein the polymer is a polysaccharide polymer or a poly(acrylamide) polymer, wherein the aqueous liquid medium comprises water and a water immiscible organic liquid, wherein the suspending agent is selected from fumed silica, inorganic colloidal or colloid-forming particles, rheology modifier polymers, and mixtures thereof, and is present from greater than 0 parts by weight to 10 parts by weight, wherein the hydration inhibitor is selected from surfactants, water soluble non-surfactant salts, water dispersible organic liquids, and mixtures thereof, and is present in an amount of from greater than 0 to 70 parts by weight, wherein the pesticide is present from 25 parts by weight to 55 parts by weight, wherein the composition is obtainable by the following method: mixing the pesticide with the water, mixing the water soluble polymer with the water immiscible organic liquid, and combining the mixture of pesticide and water with the mixture of water soluble polymer and water immiscible organic liquid to form the composition; wherein all amounts are based on 100 parts by weight of the composition. mixing the pesticide with the water, mixing the water soluble polymer with the water immiscible organic liquid, and combining the mixture of pesticide and water with the mixture of water soluble polymer and water immiscible organic liquid to form the composition; wherein all amounts are based on 100 parts by weight of the composition.
A device for guiding a printer, the device comprising: a base having at least one guide, wherein the at least one guide comprises at least two linear sections (7, 8) being spaced apart and parallel, wherein the at least one guide comprises at least two changeover sections (10, 11), each connecting two linear sections (7, 8), wherein the changeover sections (10, 11) are arranged at different positions of the linear sections (7, 8) they respectively connect, wherein the base has at least two guides (5, 6), each comprising at least two linear sections (7, 8) and at least two changeover sections (10, 11) connecting the respective linear sections (7, 8), wherein the changeover sections (10, 11) belonging to the same guide are arranged at different positions of the linear sections (7, 8) they respectively connect, characterized in that the device comprises a carriage having at least three separate links (26, 27, 28) of which at least one link is engaged with each of the at least two guides (5, 6). a base having at least one guide, wherein the at least one guide comprises at least two linear sections (7, 8) being spaced apart and parallel, wherein the at least one guide comprises at least two changeover sections (10, 11), each connecting two linear sections (7, 8), wherein the changeover sections (10, 11) are arranged at different positions of the linear sections (7, 8) they respectively connect, wherein the base has at least two guides (5, 6), each comprising at least two linear sections (7, 8) and at least two changeover sections (10, 11) connecting the respective linear sections (7, 8), wherein the changeover sections (10, 11) belonging to the same guide are arranged at different positions of the linear sections (7, 8) they respectively connect, characterized in that the device comprises a carriage having at least three separate links (26, 27, 28) of which at least one link is engaged with each of the at least two guides (5, 6).
A solid polymer electrolyte comprising: a multifunctional acrylate-based polymer; a C2 to C10 polyalkylene oxide; a lithium salt; and a non-aqueous solvent; wherein the multifunctional acrylate-based polymer is cross-linked with the C2 to C10 polyalkylene oxide to form a semi-interpenetrating polymer network (semi-IPN); wherein the electrolyte comprises more than 70% by weight of solids comprising the multifunctional acrylate-based polymer, the C2 to C10 polyalkylene oxide, the lithium salt and the non-aqueous solvent, based on the total weight of the electrolyte; and wherein the non-aqueous solvent comprises at least one of dimethyl sulfone, sulfolane and triethylene glycol dimethyl ether (TEGDME). a multifunctional acrylate-based polymer; a C2 to C10 polyalkylene oxide; a lithium salt; and a non-aqueous solvent; wherein the multifunctional acrylate-based polymer is cross-linked with the C2 to C10 polyalkylene oxide to form a semi-interpenetrating polymer network (semi-IPN); wherein the electrolyte comprises more than 70% by weight of solids comprising the multifunctional acrylate-based polymer, the C2 to C10 polyalkylene oxide, the lithium salt and the non-aqueous solvent, based on the total weight of the electrolyte; and wherein the non-aqueous solvent comprises at least one of dimethyl sulfone, sulfolane and triethylene glycol dimethyl ether (TEGDME).
A processor implemented recognition method, comprising: providing a voice signal to a main neural network and a sub-neural network; obtaining a scaling factor by implementing the sub-neural network configured to generate the scaling factor by interpreting the provided voice signal; determining a size of a future context, based on the scaling factor, to be considered by the main neural network configured to perform speech recognition; and obtaining a result of a recognizing of the voice signal by implementing the main neural network with the determined size of the future context. providing a voice signal to a main neural network and a sub-neural network; obtaining a scaling factor by implementing the sub-neural network configured to generate the scaling factor by interpreting the provided voice signal; determining a size of a future context, based on the scaling factor, to be considered by the main neural network configured to perform speech recognition; and obtaining a result of a recognizing of the voice signal by implementing the main neural network with the determined size of the future context.
A process for selectively removing a first acidic gaseous species and a second acidic gaseous species from an adsorbent which has been contacted with a feed gas containing at least said first and second gaseous species, comprising the steps of: a. subjecting the adsorbent to a first purging gas, said first purging gas not containing said first acidic gaseous species and containing said second acidic gaseous species at a partial pressure which is at least the partial pressure of said second gaseous species in said feed gas; b. subsequently subjecting the adsorbent to a second purging gas, said second purging gas not containing said first gaseous species and, if containing said second gaseous species, containing this second gaseous species at a partial pressure which is lower than the partial pressure of said second gaseous species in said feed gas. a. subjecting the adsorbent to a first purging gas, said first purging gas not containing said first acidic gaseous species and containing said second acidic gaseous species at a partial pressure which is at least the partial pressure of said second gaseous species in said feed gas; b. subsequently subjecting the adsorbent to a second purging gas, said second purging gas not containing said first gaseous species and, if containing said second gaseous species, containing this second gaseous species at a partial pressure which is lower than the partial pressure of said second gaseous species in said feed gas.
A device for a computerized content gateway, comprising: at least one computer memory that is not a transitory signal and that comprises instructions executable by at least one processor to: receive a white list of sink devices authorized to receive at least some content from the gateway, entries on the list pertaining to respective devices, at least some entries being associated with a respective device identification and at least one expected criterion for accessing the content; receive a request to send content from the gateway to a sink configured to play video content; compare a device ID and at least one device attribute associated with the sink and received by the gateway against at least a portion of the list of devices; based at least in part on the device ID and the at least one device attribute received from the sink matching a device ID and the at least one associated expected criterion on the list, provide the content to the sink; and based at least in part on the device ID and/or the at least one device attribute received from the sink not matching a device ID on the list and/or the respective expected criteria on the list, not provide the content to the sink, and command the sink to present a user interface, UI, prompting a user of the sink to take an appropriate action. receive a white list of sink devices authorized to receive at least some content from the gateway, entries on the list pertaining to respective devices, at least some entries being associated with a respective device identification and at least one expected criterion for accessing the content; receive a request to send content from the gateway to a sink configured to play video content; compare a device ID and at least one device attribute associated with the sink and received by the gateway against at least a portion of the list of devices; based at least in part on the device ID and the at least one device attribute received from the sink matching a device ID and the at least one associated expected criterion on the list, provide the content to the sink; and based at least in part on the device ID and/or the at least one device attribute received from the sink not matching a device ID on the list and/or the respective expected criteria on the list, not provide the content to the sink, and command the sink to present a user interface, UI, prompting a user of the sink to take an appropriate action.
A method at a base station comprising: receiving an access control burst at the base station including a first training sequence from a first remote radio on a conventional channel, the access control burst (31 0) being a request for a logical connection; receiving a traffic burst overlapping in time with the reception of the access control burst and belonging to an existing logical connection from a second remote radio on said conventional channel, the traffic burst including a second training sequence; assigning said conventional channel and said second training sequence to said second remote radio for communication with said second remote radio; and assigning said conventional channel and said first training sequence to said first remote radio for communication with said first remote radio; communicating with the first remote radio on a first spatial channel occupying the conventional channel using the first training sequence; and communicating with the second remote radio on a second spatial channel occupying the conventional channel using the second training sequence, wherein the second spatial channel comprises a traffic channel dedicated to a logical connection with the second remote radio. receiving an access control burst at the base station including a first training sequence from a first remote radio on a conventional channel, the access control burst (31 0) being a request for a logical connection; receiving a traffic burst overlapping in time with the reception of the access control burst and belonging to an existing logical connection from a second remote radio on said conventional channel, the traffic burst including a second training sequence; assigning said conventional channel and said second training sequence to said second remote radio for communication with said second remote radio; and assigning said conventional channel and said first training sequence to said first remote radio for communication with said first remote radio; communicating with the first remote radio on a first spatial channel occupying the conventional channel using the first training sequence; and communicating with the second remote radio on a second spatial channel occupying the conventional channel using the second training sequence, wherein the second spatial channel comprises a traffic channel dedicated to a logical connection with the second remote radio.
A gas turbine engine component comprising: a first side wall; a second side wall spaced apart from the first side wall; at least one internal cooling channel formed between the first and second side walls (72, 74); and at least one pedestal positioned within the at least one cooling channel and having a body extending from a first end connected to the first side wall to a second end connected to the second side wall, wherein the body includes at least one protrusion (100; 110; 120; 130; 140; 150), characterised in that the at least one protrusion (100; 110; 120; 130; 140; 150) is spaced apart from the first and second side walls (72, 74). a first side wall; a second side wall spaced apart from the first side wall; at least one internal cooling channel formed between the first and second side walls (72, 74); and at least one pedestal positioned within the at least one cooling channel and having a body extending from a first end connected to the first side wall to a second end connected to the second side wall, wherein the body includes at least one protrusion (100; 110; 120; 130; 140; 150), characterised in that the at least one protrusion (100; 110; 120; 130; 140; 150) is spaced apart from the first and second side walls (72, 74).
Toothbrush having a head part and at least one carrier element connected thereto, the carrier element being a two-component carrier element with a hard component and a soft component, the top surface or the top surfaces of the at least one carrier element defining a front surface of the head part, the front surface having a spatial configuration differing from a plane and/or is able to take such a configuration during intended use, the carrier element having next to an actual bristle-carrying surface a border part (9, 22) projecting from the rear side thereof, and the at least one carrier element having a rear surface and a plurality of cutouts extending between the top surface or the top surfaces and the rear surface, through which cutouts bristle filaments are guided and melted for fastening on the carrier element with their rear ends, the rear ends of the bristle filaments being melted by a hot die with the result that a bristle coating is produced.
A method of making a composite structure, the method comprising the steps of: applying chopped fiber material in varying thicknesses onto a first ply surface of a first composite charge to form a layered composite charge; folding the layered composite charge; assembling a second composite charge and the folded layered composite charge to form a composite structure, the chopped fiber material forming a gap filler in the composite structure, the gap filler conforming to a shape of the composite structure surrounding the gap filler; and, processing the composite structure. applying chopped fiber material in varying thicknesses onto a first ply surface of a first composite charge to form a layered composite charge; folding the layered composite charge; assembling a second composite charge and the folded layered composite charge to form a composite structure, the chopped fiber material forming a gap filler in the composite structure, the gap filler conforming to a shape of the composite structure surrounding the gap filler; and, processing the composite structure.