mhurhangee/ep-ind-claims huggingface dataset:
Aqueous polyurethane-polyurethane urea dispersion based on A) one or more di- or higher-functional polyol(s) having a mean molecular weight of from 400 to 5000 daltons, B) optionally one or more di- or higher-functional polyol component(s) having a molecular weight of from 62 to 399 daltons, C) one or more di- or poly-isocyanate component(s), and D) a mixture D) of primary and/or secondary monoamino compounds D1) and primary and/or secondary diamino compounds D2), characterised in that at least one of components D1) and/or D2) carries sulfonate and/or carboxylate groups, and the mean amino functionality of the mixture D) is from 1.65 to 1.95, and the equivalent ratio of NCO groups in the NCO prepolymer to the total amount of isocyanate-reactive amino and hydroxyl groups of the mixture D) is from 1.04 to 1.9, wherein component D1) is diethylamine, ethanolamine or diethanolamine. A) one or more di- or higher-functional polyol(s) having a mean molecular weight of from 400 to 5000 daltons, B) optionally one or more di- or higher-functional polyol component(s) having a molecular weight of from 62 to 399 daltons, C) one or more di- or poly-isocyanate component(s), and D) a mixture D) of primary and/or secondary monoamino compounds D1) and primary and/or secondary diamino compounds D2),
A composition comprising a chelator and a base, wherein the chelator and base provide microbial affecting activity, wherein the chelator is rhodotorulic acid present at a concentration of 1 μM, and wherein the base is: (a) NaOH present at a concentration of 1.6 μM; (b) pyridoxal-5-phosphate present at a concentration of 1 μg/mL; (c) NaOH and lysozyme, wherein the NaOH is present at a concentration of 0.8 μM and the lysozyme is present at a concentration of 1 μg/mL; or (d) NaOH and pyridoxal-5-phosphate, wherein the NaOH is present at a concentration of 0.8 μM and the pyridoxal-5-phosphate is present at a concentration of 0.5 μg/mL. wherein the chelator is rhodotorulic acid present at a concentration of 1 μM, and wherein the base is: (a) NaOH present at a concentration of 1.6 μM; (b) pyridoxal-5-phosphate present at a concentration of 1 μg/mL; (c) NaOH and lysozyme, wherein the NaOH is present at a concentration of 0.8 μM and the lysozyme is present at a concentration of 1 μg/mL; or (d) NaOH and pyridoxal-5-phosphate, wherein the NaOH is present at a concentration of 0.8 μM and the pyridoxal-5-phosphate is present at a concentration of 0.5 μg/mL. (a) NaOH present at a concentration of 1.6 μM; (b) pyridoxal-5-phosphate present at a concentration of 1 μg/mL; (c) NaOH and lysozyme, wherein the NaOH is present at a concentration of 0.8 μM and the lysozyme is present at a concentration of 1 μg/mL; or (d) NaOH and pyridoxal-5-phosphate, wherein the NaOH is present at a concentration of 0.8 μM and the pyridoxal-5-phosphate is present at a concentration of 0.5 μg/mL.
An in vitro method of handling a biological drug composition with living cells for use in immunotherapy, wherein the living cells are activated T cells having been activated by cross-linking cell surface moieties by monoclonal antibodies or other binding agents, the method comprising: reactivating the living cells; formulating the living cells in a non-nutritive buffer; maintaining the living cells in the non-nutritive buffer at a storage temperature below about 20°C for greater than about 6 hours, wherein the living cells maintain their identity and at least one functional characteristic that defined the living cells prior to formulation in the non-nutritive buffer, the living cells being useful for immunotherapy after being stored for greater than about 6 hours in the non-nutritive buffer. reactivating the living cells; formulating the living cells in a non-nutritive buffer; maintaining the living cells in the non-nutritive buffer at a storage temperature below about 20°C for greater than about 6 hours, wherein the living cells maintain their identity and at least one functional characteristic that defined the living cells prior to formulation in the non-nutritive buffer, the living cells being useful for immunotherapy after being stored for greater than about 6 hours in the non-nutritive buffer.
A method for producing a biomaterial scaffold, said method comprising: a) providing a hydrogel comprising a fibrin network and a polysaccharide network; b) subjecting the hydrogel of step a) to a freeze-thawing process to physically crosslink the hydrogel; and c) subjecting the physically cross-linked hydrogel obtained after conducting the step b), to a lyophilization. a) providing a hydrogel comprising a fibrin network and a polysaccharide network; b) subjecting the hydrogel of step a) to a freeze-thawing process to physically crosslink the hydrogel; and c) subjecting the physically cross-linked hydrogel obtained after conducting the step b), to a lyophilization.
A system for controlling a gas turbine engine (10, 220), the system comprising: an interface to a fuel flow metering valve for controlling a fuel flow to the engine (10, 220) in response to a fuel flow command; and a controller connected to the interface and configured for outputting the fuel flow command to the fuel flow metering valve in accordance with a required fuel flow, the controller comprising a feedforward controller configured for: receiving a requested engine speed; obtaining a shaft inertia of the engine (10, 220), a steady state fuel flow for the requested engine speed, and a relationship between fuel flow and acceleration power generated by the fuel flow; and determining the required fuel flow to obtain the requested engine speed as a function of the requested engine speed, the shaft inertia of the engine (10, 220), the steady state fuel flow for the requested engine speed, and the relationship between fuel flow and acceleration power generated by the fuel flow. an interface to a fuel flow metering valve for controlling a fuel flow to the engine (10, 220) in response to a fuel flow command; and a controller connected to the interface and configured for outputting the fuel flow command to the fuel flow metering valve in accordance with a required fuel flow, the controller comprising a feedforward controller configured for: receiving a requested engine speed; obtaining a shaft inertia of the engine (10, 220), a steady state fuel flow for the requested engine speed, and a relationship between fuel flow and acceleration power generated by the fuel flow; and determining the required fuel flow to obtain the requested engine speed as a function of the requested engine speed, the shaft inertia of the engine (10, 220), the steady state fuel flow for the requested engine speed, and the relationship between fuel flow and acceleration power generated by the fuel flow. receiving a requested engine speed; obtaining a shaft inertia of the engine (10, 220), a steady state fuel flow for the requested engine speed, and a relationship between fuel flow and acceleration power generated by the fuel flow; and determining the required fuel flow to obtain the requested engine speed as a function of the requested engine speed, the shaft inertia of the engine (10, 220), the steady state fuel flow for the requested engine speed, and the relationship between fuel flow and acceleration power generated by the fuel flow.
An air conditioner comprising: a first circulation channel in which a refrigerant sequentially circulates a compressor, a condenser, an expansion instrument, and an evaporator to implement a refrigerating cycle; and a second circulation channel in which the refrigerant is condensed by the condenser, crosses the first circulation channel within a supercooling heat exchanger, and then, is introduced into the compressor; characterized by: a third circulation channel in which the refrigerant is branched within the evaporator, crosses the first circulation channel within the supercooling heat exchanger, and then, is introduced into the compressor. a first circulation channel in which a refrigerant sequentially circulates a compressor, a condenser, an expansion instrument, and an evaporator to implement a refrigerating cycle; and a second circulation channel in which the refrigerant is condensed by the condenser, crosses the first circulation channel within a supercooling heat exchanger, and then, is introduced into the compressor; characterized by: a third circulation channel in which the refrigerant is branched within the evaporator, crosses the first circulation channel within the supercooling heat exchanger, and then, is introduced into the compressor. a third circulation channel in which the refrigerant is branched within the evaporator, crosses the first circulation channel within the supercooling heat exchanger, and then, is introduced into the compressor.
Method for operating a vertical packaging machine, which comprises a packaging operation that at least comprises a feeding stage in which a laminar film is supplied, a forming stage in which the laminar film is formed to give it a tubular shape by means of a forming tool, a laminar tube being obtained, a drive stage in which by means of at least two drive belts arranged facing each other, each drive belt belonging to a respective advance module causes the movement of the laminar tube, characterised in that it comprises a control operation in which the position of the drive belt of each advance module in relation to the forming tool during the packaging operation is controlled, acting in an automatic manner on at least one displacement module that operates the corresponding advance module, when slippage or risk of slippage of at least one of the drive belts in relation to the laminar tube is detected, moving the corresponding advance module closer to or away from the forming tool.
Dust-containing gas treatment apparatus to remove dust contained in gas consisting of - a cylindrical treatment room to introduce gas containing dust and remove the dust from the gas, - a catcher consisting of a brush with hair planted in the support installed in the treatment room and catching the dust contained in the gas, - a liquid spraying mechanism installed in the treatment room, - a storage portion of the liquid flowing down through the treatment room, - a rotary driving mechanism to rotate the catcher, - a gas introducing portion for introducing gas containing dust into the treatment room, - a gas discharging portion to discharge the gas with the dust removed from the treatment room, and - a liquid discharging portion to discharge the liquid containing the dust removed from the gas, and characterized in that the aforementioned liquid spraying mechanism is arranged only at the intermediate position of the treatment room (1,) the hair of the brush of the catcher is at a higher position than the aforementioned liquid spraying mechanism composed of hydrophobic material and the hair of the brush arranged at a lower position than the aforementioned liquid spraying mechanism is composed of hydrophilic material. - a cylindrical treatment room to introduce gas containing dust and remove the dust from the gas, - a catcher consisting of a brush with hair planted in the support installed in the treatment room and catching the dust contained in the gas, - a liquid spraying mechanism installed in the treatment room, - a storage portion of the liquid flowing down through the treatment room, - a rotary driving mechanism to rotate the catcher, - a gas introducing portion for introducing gas containing dust into the treatment room, - a gas discharging portion to discharge the gas with the dust removed from the treatment room, and - a liquid discharging portion to discharge the liquid containing the dust removed from the gas,
A wearable device for administering medication to a subject, comprising: - a tube comprising a medication administration end and an activation end, the tube defining a lumen between the medication administration end and the activation end; - a medication administration assembly attached to the medication administration end; - an activation assembly attached to the activation end; - a syringe disposed within the lumen, wherein the syringe contains the medication and comprises a first end and an opposite second end; - a plunger disposed within the lumen and operatively connected to the first end of the syringe; and - a rupturable seal provided to the second end of the syringe, the second end of the syringe being approximate to the medication administration end, wherein the activation assembly is configured to activate the plunger and break the rupturable seal, such that a fluid communication is established between the second end of the syringe and the medication administration assembly to allow transportation of the medication from the syringe to the medication administration assembly through the medication administration end, characterized in that the tube is a flexible tube; and the medication administration end and the activation end of the flexible tube are configured to operatively approach each other to form a partial loop of the flexible tube. - a tube comprising a medication administration end and an activation end, the tube defining a lumen between the medication administration end and the activation end; - a medication administration assembly attached to the medication administration end; - an activation assembly attached to the activation end; - a syringe disposed within the lumen, wherein the syringe contains the medication and comprises a first end and an opposite second end; - a plunger disposed within the lumen and operatively connected to the first end of the syringe; and - a rupturable seal provided to the second end of the syringe, the second end of the syringe being approximate to the medication administration end,
A method for manufacturing an electric cable using a molding machine to manufacture an electric cable that includes a core wire and a sheath surrounding the core wire, wherein the molding machine includes a cylinder, a screw accommodated in the cylinder, a die coupled to a distal end of the cylinder, and a hopper having a cylindrical portion and configured to supply a columnar thermoplastic resin pellet into the cylinder, wherein a cross-sectional shape taken along a plane orthogonal to a height direction of the thermoplastic resin pellet has a longer diameter represented by "a" and a shorter diameter represented by "b", a ratio a/b of the long diameter "a" to the short diameter "b" is greater than or equal to 1.0 and less than or equal to 2.6; and a ratio α of a unit height volume of a cylindrical portion of the hopper of the molding machine, into which the thermoplastic resin pellet is loaded, to a volume of the thermoplastic resin pellet is greater than 16, the method comprising: supplying the thermoplastic resin pellet to the hopper; melting the thermoplastic resin pellet in the cylinder to supply molten resin to the die; and extruding the molten resin from the die to form the sheath on the core wire. the molding machine includes a cylinder, a screw accommodated in the cylinder, a die coupled to a distal end of the cylinder, and a hopper having a cylindrical portion and configured to supply a columnar thermoplastic resin pellet into the cylinder, wherein a cross-sectional shape taken along a plane orthogonal to a height direction of the thermoplastic resin pellet has a longer diameter represented by "a" and a shorter diameter represented by "b", a ratio a/b of the long diameter "a" to the short diameter "b" is greater than or equal to 1.0 and less than or equal to 2.6; and a ratio α of a unit height volume of a cylindrical portion of the hopper of the molding machine, into which the thermoplastic resin pellet is loaded, to a volume of the thermoplastic resin pellet is greater than 16, the method comprising: supplying the thermoplastic resin pellet to the hopper; melting the thermoplastic resin pellet in the cylinder to supply molten resin to the die; and extruding the molten resin from the die to form the sheath on the core wire. supplying the thermoplastic resin pellet to the hopper; melting the thermoplastic resin pellet in the cylinder to supply molten resin to the die; and extruding the molten resin from the die to form the sheath on the core wire.
A high shear liquid metal treatment device comprising: a barrel having a longitudinal axis extending between a first end and a second end, and having an opening at its first and second ends (3, 4); a rotor shaft mounted centrally through, and parallel to the longitudinal axis of, the barrel; a plurality of rotor fans (6, 7, 8) mounted along an axial length of the shaft and within the barrel, each rotor fan (6, 7, 8) formed such that its outer end is within a minimum distance of an internal wall of the barrel; and a plurality of stator plates (9, 10, 11) formed on an inner surface of the barrel, the stator plates (9, 10, 11) being located between adjacent rotor fans (6, 7, 8), each stator plate (9, 10, 11) extending from an inner surface to the rotor shaft, each stator plate (9, 10, 11) having a plurality of passages formed therethrough to allow fluid to pass through the plate (9, 10, 11); and upper and lower surfaces of each stator plate (9, 10, 11) are formed to be within the minimum distance of an adjacent rotor fan (6, 7, 8); wherein, the minimum distance is between 10μm and 10mm. a barrel having a longitudinal axis extending between a first end and a second end, and having an opening at its first and second ends (3, 4); a rotor shaft mounted centrally through, and parallel to the longitudinal axis of, the barrel; a plurality of rotor fans (6, 7, 8) mounted along an axial length of the shaft and within the barrel, each rotor fan (6, 7, 8) formed such that its outer end is within a minimum distance of an internal wall of the barrel; and a plurality of stator plates (9, 10, 11) formed on an inner surface of the barrel, the stator plates (9, 10, 11) being located between adjacent rotor fans (6, 7, 8), each stator plate (9, 10, 11) extending from an inner surface to the rotor shaft, each stator plate (9, 10, 11) having a plurality of passages formed therethrough to allow fluid to pass through the plate (9, 10, 11); and upper and lower surfaces of each stator plate (9, 10, 11) are formed to be within the minimum distance of an adjacent rotor fan (6, 7, 8);
A linear stepper motor comprising a stator having a housing, an actuating rod disposed within the housing, a rotor and a bearing shield fixed on the stator, the rotor comprising a threaded shaft, the bearing shield defining two guide cut-outs, the actuating rod comprising a spindle nut portion engaged with the threaded shaft, a coupling shank for a customer-specific actuating element, and two opposing parallel fork legs which link the spindle nut portion and the coupling shank and which are guided in a rotation-locked manner through the two guide cut-outs, wherein the bearing shield and the coupling shank are replaceable, characterized in that one of the bearing shield and the actuating rod is formed as at least a two-part component, the parts of the at least two-part component being pluggable together in non-axial direction of the actuating rod, so that the guide cut-outs accommodate the fork legs as well as a bearing bridge forming a bearing seat for the threaded shaft.
A server communicatively coupled to a vehicle via a network, the server comprising circuitry configured to: receive request data, the request data indicating a request to provide dynamic status information about a vehicle and/or to execute a vehicle function at the vehicle, the request data further indicating an identifier of a digital vehicle key for the vehicle; determine, based on the identifier of the digital vehicle key, whether the request is in compliance with vehicle access and/or control rights assigned to the digital vehicle key; and process the request, if it is determined that the request is in compliance with the vehicle access and/or control rights assigned to the digital vehicle key, wherein, for processing the request, the circuitry is configured to: request the dynamic status information from the vehicle via the network and forward the dynamic status information upon receipt from the vehicle to a sender of the request data, if the request data indicate the request to provide the dynamic status information; and control the vehicle via the network to execute the vehicle function, if the request data indicate the request to execute the vehicle function at the vehicle. receive request data, the request data indicating a request to provide dynamic status information about a vehicle and/or to execute a vehicle function at the vehicle, the request data further indicating an identifier of a digital vehicle key for the vehicle; determine, based on the identifier of the digital vehicle key, whether the request is in compliance with vehicle access and/or control rights assigned to the digital vehicle key; and process the request, if it is determined that the request is in compliance with the vehicle access and/or control rights assigned to the digital vehicle key, wherein, for processing the request, the circuitry is configured to: request the dynamic status information from the vehicle via the network and forward the dynamic status information upon receipt from the vehicle to a sender of the request data, if the request data indicate the request to provide the dynamic status information; and control the vehicle via the network to execute the vehicle function, if the request data indicate the request to execute the vehicle function at the vehicle. request the dynamic status information from the vehicle via the network and forward the dynamic status information upon receipt from the vehicle to a sender of the request data, if the request data indicate the request to provide the dynamic status information; and control the vehicle via the network to execute the vehicle function, if the request data indicate the request to execute the vehicle function at the vehicle.
A storage element comprising a plurality of lithium cells, which are arranged beside one another as a stack and are clamped via two clamping plates arranged at the ends, said plates being connected to each other via clamping elements, characterized in that the cell stack consists of different cell types, namely of prismatic cells comprising a stable housing and at least one pouch cell with flexible walls, which is accommodated in a stable cell holder, designed as a closed housing, the external dimension of which corresponds to that of a housing of a prismatic cell.
A method for realizing a fingerprint technology, comprising: determining, by a data sender, whether a length value of a data element is greater than or equal to a preset minimum length value; and when the length value of the data element is greater than or equal to the preset minimum length value, performing, by the data sender, fingerprint calculation for the data element to obtain a fingerprint, and sending, by the data sender, the obtained fingerprint as a data item to a data receiver; and when the length value of the data element is smaller than the preset minimum length value, sending the data element as a data item to the data receiver without performing fingerprint calculation for the data element. determining, by a data sender, whether a length value of a data element is greater than or equal to a preset minimum length value; and when the length value of the data element is greater than or equal to the preset minimum length value, performing, by the data sender, fingerprint calculation for the data element to obtain a fingerprint, and sending, by the data sender, the obtained fingerprint as a data item to a data receiver; and when the length value of the data element is smaller than the preset minimum length value, sending the data element as a data item to the data receiver without performing fingerprint calculation for the data element.