mhurhangee/ep-ind-claims huggingface dataset:
A device for protein enrichment of human breast milk, comprising: a delipidation unit, comprising a first reservoir configured to receive breast milk, wherein the first reservoir is connected to a first filter; a first filter, wherein the first filter is in fluid connection with the first reservoir and is a cellulose filter having a pore size of 0.2-0.4 μm, wherein the first filter is configured to receive breast milk from the first reservoir and configured to provide a fat-enriched retentate and a fat-reduced filtrate from the breast milk; a pressure valve, wherein the pressure valve is in fluid connection with the first reservoir and the first filter, and wherein the pressure valve is configured to provide positive air pressure to the delipidation unit; and an output wherein the output is configured to deliver the fat-reduced filtrate provided by the first filter; a protein-enrichment unit, wherein the protein-enrichment unit comprises: a second reservoir configured to receive the fat-reduced filtrate from the output of the delipidation unit; and a second filter, wherein the second filter has a nominal molecular weight limit of less than or equal to 100 kDa, in particular of less than or equal to 10 kDa, and wherein the second filter is configured to provide a protein-enriched retentate and a protein-reduced filtrate. a delipidation unit, comprising a first reservoir configured to receive breast milk, wherein the first reservoir is connected to a first filter; a first filter, wherein the first filter is in fluid connection with the first reservoir and is a cellulose filter having a pore size of 0.2-0.4 μm, wherein the first filter is configured to receive breast milk from the first reservoir and configured to provide a fat-enriched retentate and a fat-reduced filtrate from the breast milk; a pressure valve, wherein the pressure valve is in fluid connection with the first reservoir and the first filter, and wherein the pressure valve is configured to provide positive air pressure to the delipidation unit; and an output wherein the output is configured to deliver the fat-reduced filtrate provided by the first filter; a protein-enrichment unit, wherein the protein-enrichment unit comprises: a second reservoir configured to receive the fat-reduced filtrate from the output of the delipidation unit; and a second filter, wherein the second filter has a nominal molecular weight limit of less than or equal to 100 kDa, in particular of less than or equal to 10 kDa, and wherein the second filter is configured to provide a protein-enriched retentate and a protein-reduced filtrate. a second reservoir configured to receive the fat-reduced filtrate from the output of the delipidation unit; and a second filter, wherein the second filter has a nominal molecular weight limit of less than or equal to 100 kDa, in particular of less than or equal to 10 kDa, and wherein the second filter is configured to provide a protein-enriched retentate and a protein-reduced filtrate.
A method for dynamically assigning traffic flows to a plurality of access networks, wherein the traffic flows are provided by a source having multiple access networking capabilities, the method comprising the steps of: a) measuring at given time intervals predetermined network characteristics of a plurality of access networks, b) estimating the network characteristic variation behavior of each access network of the plurality of access networks using the measured network characteristics, c) detecting a traffic flow of at least one application running at a source to be transmitted from a source to a destination, d) in response to the identified traffic flow selecting an access network from the plurality of access networks by using the network characteristic variation behavior of the plurality of access networks, e) repeating steps c) and d) every time the application provides a traffic flow to be transmitted, characterized in that step d) uses a Markov decision process to select an access network for the identified traffic flow, and wherein each traffic flow is reassigned at predetermined times to a selected one of the plurality of access networks. a) measuring at given time intervals predetermined network characteristics of a plurality of access networks, b) estimating the network characteristic variation behavior of each access network of the plurality of access networks using the measured network characteristics, c) detecting a traffic flow of at least one application running at a source to be transmitted from a source to a destination, d) in response to the identified traffic flow selecting an access network from the plurality of access networks by using the network characteristic variation behavior of the plurality of access networks, e) repeating steps c) and d) every time the application provides a traffic flow to be transmitted, characterized in that step d) uses a Markov decision process to select an access network for the identified traffic flow, and wherein each traffic flow is reassigned at predetermined times to a selected one of the plurality of access networks.
Method for producing high-voltage insulation of electrical components, comprising the steps of applying a first layer of insulating material to the electrical component; applying a second layer of insulating material to the electrical component; wherein the second layer is applied at least sectionally to the first layer, such that the first layer is arranged at least sectionally between the second layer and the electrical component; characterized in that the insulating material is applied to the electrical component by way of a 3D printing method; and in that the method furthermore comprises the steps of: applying a multiplicity of overlapping layers of insulating material in the form of a closed traverse consisting of a first insulating material on the electrical component, such that the closed traverse encloses part of a surface of the electrical component and an electrical component arranged thereon; applying a second insulating material to the surface, enclosed by the closed traverse, of the electrical component. applying a multiplicity of overlapping layers of insulating material in the form of a closed traverse consisting of a first insulating material on the electrical component, such that the closed traverse encloses part of a surface of the electrical component and an electrical component arranged thereon; applying a second insulating material to the surface, enclosed by the closed traverse, of the electrical component.
A gas turbine propulsion unit with a main flow channel and a housing structure which radially surrounds said main flow channel and in which a housing gas stream flows into the main flow channel in the same direction as the main flow, wherein the housing structure has an adjustable flow conducting assembly (25, 25'), with which the flow of the housing gas stream to and/or along the main flow channel can be adjusted, wherein the flow conducting assembly has at least one flow deflector plate, which divides the housing gas stream into at least two partial streams, wherein one partial stream runs close to the main flow channel and another partial stream runs at a distance from the main flow channel, characterized in that the flow deflector plate (26, 26') is configured to be adjustable in order to variably adjust partial streams and/or has variably closeable openings.
A subsea resource extraction system comprising: a gas lift metering valve system configured as an all-electric in-line gas choke and configured to inject a gas into a well to enhance flow of the production fluid from the well, wherein the gas lift metering valve system comprises a retrievable unit (99, 166) capable of insertion into and removal from a receptacle of the extraction system with a remotely operated vehicle, the retrievable unit (99, 166) comprising: a housing comprising an electrical connector, a gas inlet, a gas outlet, and a gas path between the gas inlet and the gas outlet, wherein the electrical connector, the gas inlet, and the gas outlet are configured to be removably coupled with a mating electrical connector, a first mating fluid port, and a second mating fluid port, respectively of a body of the receptacle; a valve disposed along the gas path; and a flow meter disposed along the gas path; the system further comprising: a sensor disposed outside the housing and separate from the retrievable unit (99, 166) of the gas lift metering valve system; and a first controller separate from the gas lift metering valve system and configured to adjust at least one parameter of the gas lift metering valve system in response to feedback from the sensor; wherein the system further comprises: a retrievable process module comprising the retrievable unit (99, 166) and a measurement component, wherein the retrievable unit (99, 166) and the measurement component are independently retrievable from the retrievable process module by a remotely operated vehicle, and wherein, in use, the measurement component is in fluid communication with the gas path of the retrievable unit (99, 166). a housing comprising an electrical connector, a gas inlet, a gas outlet, and a gas path between the gas inlet and the gas outlet, wherein the electrical connector, the gas inlet, and the gas outlet are configured to be removably coupled with a mating electrical connector, a first mating fluid port, and a second mating fluid port, respectively of a body of the receptacle; a valve disposed along the gas path; and a flow meter disposed along the gas path; the system further comprising: a sensor disposed outside the housing and separate from the retrievable unit (99, 166) of the gas lift metering valve system; and a first controller separate from the gas lift metering valve system and a sensor disposed outside the housing and separate from the retrievable unit (99, 166) of the gas lift metering valve system; and a first controller separate from the gas lift metering valve system and configured to adjust at least one parameter of the gas lift metering valve system in response to feedback from the sensor; wherein the system further comprises: a retrievable process module comprising the retrievable unit (99, 166) and a measurement component, wherein the retrievable unit (99, 166) and the measurement component are independently retrievable from the retrievable process module by a remotely operated vehicle, and wherein, in use, the measurement component is in fluid communication with the gas path of the retrievable unit (99, 166).
A fluid distributor for a reprocessing device for reprocessing a surgical instrument, in particular an endoscope, with an, in particular outer, fluid routing body, wherein the fluid routing body has a plurality of individual connections (20.1,..., 20.8), each for one channel to be cleaned and/or dried of a surgical instrument, wherein a, preferably linearly, movable fluid switching body is provided in the fluid routing body, wherein the fluid switching body has in the interior a supply line, connectable or connected to a fluid reservoir, for a, preferably liquid or gaseous, fluid to the connections (20.1,..., 20.8) of the fluid routing body, wherein the movable fluid switching body is configured such that, in a, preferably first, position of the fluid switching body in the fluid routing body, a plurality of or all connections (20.1,..., 20.8) of the fluid routing body are fluidically connected to the supply line of the fluid switching body simultaneously, so that fluid can be supplied or is supplied to the plurality of or all connections (20.1,..., 20.8) of the fluid routing body simultaneously via the one supply line of the fluid switching body, and that in at least one further position of the fluid switching body in the fluid routing body, preferably exclusively, one of the plurality of connections (20.1,..., 20.8) of the fluid routing body is fluidically connected to the supply line of the fluid switching body so that the fluid can be supplied to the one connection of the fluid routing body via the one supply line of the fluid switching body, wherein a drive for the fluid switching body is provided to move the fluid switching body.
A drive device for a movable furniture part, comprising - a force-actuated ejection element for ejecting the movable furniture part from a closed position into an open position and - a locking device for locking the ejection element in a locking position, wherein the locking device comprises a control element, which is connected to the ejection element, and a sliding guide path for the control element, wherein the sliding guide path has a latch recess, wherein the control element abuts the latch recess in the locking position of the locking device, characterized in that the sliding guide path outside the present latch recess has differently hard sidewall regions (8, 9) in certain areas, wherein the sliding guide path has at least one hard sidewall region and at least one soft, not tongue-like sidewall region, wherein for reducing the noise development the at least one soft sidewall region is formed thin-walled with a wall thickness below 0.6 mm. - a force-actuated ejection element for ejecting the movable furniture part from a closed position into an open position and - a locking device for locking the ejection element in a locking position, wherein the locking device comprises a control element, which is connected to the ejection element, and a sliding guide path for the control element,
System comprising at least one decoy target and a carrier system (20, 20', 30, 40) consisting of at least one unmanned aircraft (20, 20') or at least one parachute, characterized in that the decoy target has at least four and preferably a plurality of corner reflectors and in that the corner reflectors are arranged in a reflector matrix so as to have a predetermined spatial height graduation, side graduation and depth graduation in order to simulate a target.
An electric luminaire, comprising: a) at least one first curved reflector base having at least one first reflector surface that has a first contouring; and b) at least one second reflector base with a second reflector surface that is present thereon and an illuminant in the form of an LED, wherein c) the illuminant and the second reflector surface are associated with the first reflector surface in terms of lighting, in that a first portion of light rays emitted by the illuminant falls directly on the first reflector surface, while a second portion of the light rays generated by the illuminant first strikes the second reflector surface, and from there is directed toward the first reflector surface; d) the second reflector base has two lateral shielding elements, between which the illuminant is positioned; e) the inner faces of the shielding elements facing the illuminant each form a portion of the second reflector surface; f) the shielding elements have an outer edge boundary that represents a second contouring; and g) the shielding elements have a curvature that represents a third contouring and that is directed toward the adjacent first reflector surface. a) at least one first curved reflector base having at least one first reflector surface that has a first contouring; and b) at least one second reflector base with a second reflector surface that is present thereon and an illuminant in the form of an LED, wherein c) the illuminant and the second reflector surface are associated with the first reflector surface in terms of lighting, in that a first portion of light rays emitted by the illuminant falls directly on the first reflector surface, while a second portion of the light rays generated by the illuminant first strikes the second reflector surface, and from there is directed toward the first reflector surface; d) the second reflector base has two lateral shielding elements, between which the illuminant is positioned; e) the inner faces of the shielding elements facing the illuminant each form a portion of the second reflector surface; f) the shielding elements have an outer edge boundary that represents a second contouring; and g) the shielding elements have a curvature that represents a third contouring and that is directed toward the adjacent first reflector surface.
A process for producing a surfactant material useful as a component of a personal care cleansing composition which comprises: a) providing a mixture of isethionate anions which comprises (i) a first anion having the structure: in which R 1 is straight chain or branched C 1 to C 6 alkyl group and R 2 is hydrogen; and (ii) a second anion having the structure: in which R 3 is hydrogen and R 4 is an straight chain or branched C 1 to C 6 alkyl group; b) contacting the mixture of isethionate anions with one or more carboxylic acids of the formula: in which R is any hydrocarbon group having between 4 and 25 carbon atoms, including straight-chain, branched, saturated and unsaturated hydrocarbon groups so as to form a reactive mixture; and c) heating the reactive mixture at any temperature in the range of between 90° C and 240°C to produce an acyl alkylisethionate mixture containing at least two different anions which are isethionate esters of a carboxylic acid; wherein the acidic form of the alkyl-substituted isethionate itself in its pure form is added as the catalyst in step c). a) providing a mixture of isethionate anions which comprises (i) a first anion having the structure: in which R 1 is straight chain or branched C 1 to C 6 alkyl group and R 2 is hydrogen; and (ii) a second anion having the structure: in which R 3 is hydrogen and R 4 is an straight chain or branched C 1 to C 6 alkyl group; (ii) a second anion having the structure: in which R 3 is hydrogen and R 4 is an straight chain or branched C 1 to C 6 alkyl group; b) contacting the mixture of isethionate anions with one or more carboxylic acids of the formula: in which R is any hydrocarbon group having between 4 and 25 carbon atoms, including straight-chain, branched, saturated and unsaturated hydrocarbon groups so as to form a reactive mixture; and c) heating the reactive mixture at any temperature in the range of between 90° C and 240°C to produce an acyl alkylisethionate mixture containing at least two different anions which are isethionate esters of a carboxylic acid;
An apparatus for obtaining a plurality of portions of tissue from a biological tissue, comprising: a plurality of tubes each comprising at least two points provided at a distal end thereof; a plurality of pins each provided at least partially within a central lumen of each of the plurality of tubes; and wherein the plurality of portions of tissue is depositable directly from the plurality of tubes into a biocompatible matrix configured to be placed on a donor site associated with the biological tissue, wherein an inner diameter of the tubes is less than about 1 mm, wherein at least one section of the tubes is structured to be inserted into the biological tissue at the donor site to simultaneously remove the portions of tissue therefrom when the at least one section of the tubes is withdrawn from the donor site, wherein the tubes are controllably translatable in a direction along a longitudinal axis of the pins, wherein the pins are configured to facilitate a removal of the portions of tissue from the tubes and deposit the portions of tissue directly in the biocompatible matrix, and at least one sensor arrangement configured to detect a presence of the portion of tissue within at least one of the plurality of tubes. a plurality of tubes each comprising at least two points provided at a distal end thereof; a plurality of pins each provided at least partially within a central lumen of each of the plurality of tubes; and wherein the plurality of portions of tissue is depositable directly from the plurality of tubes into a biocompatible matrix configured to be placed on a donor site associated with the biological tissue, wherein an inner diameter of the tubes is less than about 1 mm, wherein at least one section of the tubes is structured to be inserted into the biological tissue at the donor site to simultaneously remove the portions of tissue therefrom when the at least one section of the tubes is withdrawn from the donor site, wherein the tubes are controllably translatable in a direction along a longitudinal axis of the pins, wherein the pins are configured to facilitate a removal of the portions of tissue from the tubes and deposit the portions of tissue directly in the biocompatible matrix, and at least one sensor arrangement configured to detect a presence of the portion of tissue within at least one of the plurality of tubes.
An adjustable bicycle shoe cleat which is fixed to a bottom plate of a bicycle shoe, wherein the bottom plate is provided with two combining holes, the adjustable bicycle shoe cleat comprising: a cleat body provided with a front engaging end and a rear engaging end in opposite with the front engaging end for being engaged with a clipless pedal, characterized in that the cleat body is further provided with two adjusting bores symmetrically and transversely disposed between the front engaging end and the rear engaging end, each adjusting bore comprising a small arch section and a large arch section, the two small arch sections being disposed face to face; and in that the adjustable bicycle shoe cleat further comprises a fastening assembly provided with two screw members passing through the two adjusting bores for loosenably screwing the cleat body to the two combining holes, such that the cleat body is able to be biasedly positioned against the bottom plate of the bicycle shoe. a cleat body provided with a front engaging end and a rear engaging end in opposite with the front engaging end for being engaged with a clipless pedal, characterized in that the cleat body is further provided with two adjusting bores symmetrically and transversely disposed between the front engaging end and the rear engaging end, each adjusting bore comprising a small arch section and a large arch section, the two small arch sections being disposed face to face; and in that the adjustable bicycle shoe cleat further comprises a fastening assembly provided with two screw members passing through the two adjusting bores for loosenably screwing the cleat body to the two combining holes, such that the cleat body is able to be biasedly positioned against the bottom plate of the bicycle shoe.
Active part of an electric machine, which has electrical conductors (3,3',3",3′′′), wherein the electrical conductors (3,3',3",3′′′) are additively printed, wherein an intermediate body (4,4',4",4′′′) is between electrical conductors (3,3',3",3′′′), wherein the intermediate body (4,4',4",4′′′) is additively printed, wherein the electrical conductors (3,3',3",3′′′) are printed in layers (19,19') and wherein the intermediate bodies (4,4',4",4′′′) are printed in layers (19,19'), wherein the electrical conductors (3,3',3",3′′′) are printed in a radially increasing manner, alternating with the intermediate bodies (4,4',4",4′′′), wherein a contact layer (5,5',5",5′′′) of a third material is applied between at least one of the electrical conductors (3,3',3",3′′′) and at least one of the printed intermediate bodies (4,4',4",4′′′), characterised in that the contact layer is applied with a thickness of less than or equal to 300 um, wherein a diffusion zone is embodied by means of this layer and a heat treatment.