mhurhangee/ep-ind-claims huggingface dataset:
System comprising - a rotary transformer for inductively transmitting energy from a primary coil to a secondary coil, - a rotor shaft, - a receiving part, the secondary coil being connected for conjoint rotation to the rotor shaft, which is mounted so as to be rotatable relative to the primary coil, the secondary coil having a coil core and a secondary winding, in particular an annular winding, which is received in the receiving part, the receiving part in particular being connected to the rotor shaft for conjoint rotation, the coil core comprising a yoke disc having at least two legs connected by means of the yoke disc, the secondary winding in particular being arranged between the legs, characterised in that the system comprises a lid part, which is connected to the receiving part, the secondary winding being arranged between the lid part and the receiving part, the coil core being arranged between the lid part and the receiving part, the lid part having axial through-openings spaced apart from one another, in particular regularly, in the circumferential direction, the radial clearance region of each opening covering, in particular fully covering, the radial clearance region of the coil core or at least of a first leg of the coil core, the axial region covered by the lid part overlapping, in particular substantially overlapping, in particular partly overlapping, the axial region covered by the coil core, the coil core in particular protruding axially into the relevant opening, the openings in particular each being formed as segments of an annulus. - a rotary transformer for inductively transmitting energy from a primary coil to a secondary coil, - a rotor shaft, - a receiving part,
A viscous composition, which is a cosmetic composition, containing the following components,, and: cellulose fibers having a maximum fiber diameter of 1000 nm or less and a number-average fiber diameter of from 2 to 100 nm, wherein the cellulose has a cellulose I-type crystal structure; the hydroxyl group at the C6-position of the glucose unit in the cellulose molecule is selectively oxidized and modified into an aldehyde group and a carboxyl group; and the amount of the carboxyl group is from 0.6 to 2.2 mmol/g, wherein the amount of component in the cosmetic composition falls within a range of from 0.1 to 2.0 % by mass; water; and a functional additive, wherein the functional additive is at least one selected from oily materials, surfactants, alcohols, and functional components. cellulose fibers having a maximum fiber diameter of 1000 nm or less and a number-average fiber diameter of from 2 to 100 nm, wherein the cellulose has a cellulose I-type crystal structure; the hydroxyl group at the C6-position of the glucose unit in the cellulose molecule is selectively oxidized and modified into an aldehyde group and a carboxyl group; and the amount of the carboxyl group is from 0.6 to 2.2 mmol/g, wherein the amount of component in the cosmetic composition falls within a range of from 0.1 to 2.0 % by mass; water; and a functional additive, wherein the functional additive is at least one selected from oily materials, surfactants, alcohols, and functional components.
A process for the manufacture of an assembly comprising (i) a substrate selected from the group consisting of DCB, IMS, ceramics, plastics, composite materials, and metals in general, (ii) a hardened electrically conductive composition, and (iii) an electronic component selected from the group consisting of diodes, LEDs, MIDs, dies, IGBTs, ICs, sensors, connecting elements, heat sinks, resistors, capacitors, inductors, and antennae, wherein the hardened electrically conductive composition serves as an electrically conductive adhesive and is therefore located between the substrate and the electronic component, wherein the electrically conductive composition is applied to the contact surface of a part to be adhesively bonded to another, wherein the other part to be adhesively bonded is put with its contact surface onto the layer of electrically conductive adhesive, wherein the so formed assembly consisting of said parts with the layer of the electrically conductive composition in between is then cured, wherein the electrically conductive composition comprises 2 to 35 vol.-% of electrically conductive particles having an average particle size in the range of 1 to 25 μm and exhibiting an aspect ratio in the range of 5 to 30: 1, 10 to 70 vol.-%, preferably 10 to 63 vol.-% of non-metallic particles having an average particle size in the range of 1 to 25 μm, exhibiting an aspect ratio in the range of 1 to 3: 1, 30 to 80 vol.-% of a curable resin system, and 0 to 10 vol.-% of at least one additive, wherein the sum of the vol.-% of particles and totals 25 to 65 vol.-%. 2 to 35 vol.-% of electrically conductive particles having an average particle size in the range of 1 to 25 μm and exhibiting an aspect ratio in the range of 5 to 30: 1, 10 to 70 vol.-%, preferably 10 to 63 vol.-% of non-metallic particles having an average particle size in the range of 1 to 25 μm, exhibiting an aspect ratio in the range of 1 to 3: 1, 30 to 80 vol.-% of a curable resin system, and 0 to 10 vol.-% of at least one additive,
A method of operating a Long Term Evolution network (100, 300, 400) having a plurality of base stations (110, 420) and Service Gateways (S-GWs, 120, 340, 440), and an LTE virtual network element system (330, 430, 600) having an amount of virtual LTE Packet Data Network Gateways (P-GWs, 130, 350, 450) to serve the base stations (110, 420), the method comprising pro cessing GPRS (General Packet Radio Service) Tunnelling Protocol packets to determine an amount of GTP tunnels between the base stations (110, 420) and the S-GWs gateways (120, 340, 440), the method characterized by: processing the amount of GTP tunnels to determine a target amount of LTE P-GWs (130, 350, 450) to serve the base stations (110, 420); if the target amount of LTE P-GWs is greater than a current amount of LTE P-GWs (130, 350, 450), then the LTE VNE system (330, 430, 600) implements an additional amount of virtual LTE P-GWs (130, 350, 450) to serve the base stations (110, 420); and if the target amount of LTE P-GWs is less than the current amount of LTE P-GWs (130, 350, 450), then the LTE VNE system (330, 430, 600) removes an extra amount of virtual LTE P-GWs (130, 350, 450) that serve the base stations (110, 420). processing the amount of GTP tunnels to determine a target amount of LTE P-GWs (130, 350, 450) to serve the base stations (110, 420); if the target amount of LTE P-GWs is greater than a current amount of LTE P-GWs (130, 350, 450), then the LTE VNE system (330, 430, 600) implements an additional amount of virtual LTE P-GWs (130, 350, 450) to serve the base stations (110, 420); and if the target amount of LTE P-GWs is less than the current amount of LTE P-GWs (130, 350, 450), then the LTE VNE system (330, 430, 600) removes an extra amount of virtual LTE P-GWs (130, 350, 450) that serve the base stations (110, 420).
A liquid hair dye composition comprising the following components and, wherein the content of the component in the composition is 1.5 mass% or more and 6.5 mass% or less, the content of the component in the composition is 9 mass% or more and 98.5 mass% or less, and the composition satisfies the following equation: Y ≥ 91 / 6 X − 91 / 3 with a proviso that a composition in which the diol content is 50 mass% or more and the water content is 2 mass% or less in the liquid hair dye composition is excluded. an azo dye represented by the following formula (A-3) one or more of a monoalcohol and/or a diol other than alkanolamines, wherein monoalcohol and/or diol is selected from the group consisting of a lower monoalcohol having 2 or 3 carbon atoms, a monocyclic aromatic monoalcohol, and a diol having 2 to 6 carbon atoms. the content of the component in the composition is 1.5 mass% or more and 6.5 mass% or less, the content of the component in the composition is 9 mass% or more and 98.5 mass% or less, and the composition satisfies the following equation: Y ≥ 91 / 6 X − 91 / 3 with a proviso that a composition in which the diol content is 50 mass% or more and the water content is 2 mass% or less in the liquid hair dye composition is excluded. an azo dye represented by the following formula (A-3) one or more of a monoalcohol and/or a diol other than alkanolamines, wherein monoalcohol and/or diol is selected from the group consisting of a lower monoalcohol having 2 or 3 carbon atoms, a monocyclic aromatic monoalcohol, and a diol having 2 to 6 carbon atoms. an azo dye represented by the following formula (A-3) one or more of a monoalcohol and/or a diol other than alkanolamines, wherein monoalcohol and/or diol is selected from the group consisting of a lower monoalcohol having 2 or 3 carbon atoms, a monocyclic aromatic monoalcohol, and a diol having 2 to 6 carbon atoms.
A clustered substrate processing system comprising at least one lithography element, each lithography element arranged for independent exposure of substrates according to pattern data, and each lithography element comprising: a plurality of lithography subsystems; a control network arranged for communication of control information between the lithography subsystems and at least one element control unit, the element control unit arranged to transmit commands to the lithography subsystems and the lithography subsystems arranged to transmit responses to the element control unit; and a data network arranged for communication of data logging information from the lithography subsystems to at least one data network hub, the lithography subsystems arranged to transmit data logging information to the data network hub and the data hub arranged for receiving and storing the data logging information, chararacterised in that the clustered substrate processing system further comprises a cluster front-end for interface to an operator console or host system (2, 4), the cluster front-end arranged for transmitting control information to the at least one element control unit to control operation of the lithography subsystems for exposure of one or more substrates, and the cluster front-end is arranged for receiving at least a portion of the data logging information received by the data network hub. a plurality of lithography subsystems; a control network arranged for communication of control information between the lithography subsystems and at least one element control unit, the element control unit arranged to transmit commands to the lithography subsystems and the lithography subsystems arranged to transmit responses to the element control unit; and a data network arranged for communication of data logging information from the lithography subsystems to at least one data network hub, the lithography subsystems arranged to transmit data logging information to the data network hub and the data hub arranged for receiving and storing the data logging information, chararacterised in that the clustered substrate processing system further comprises a cluster front-end for interface to an operator console or host system (2, 4), the cluster front-end arranged for transmitting control information to the at least one element control unit to control operation of the lithography subsystems for exposure of one or more substrates, and the cluster front-end is arranged for receiving at least a portion of the data logging information received by the data network hub.
A curable adhesive composition for anchoring materials in or to concrete or masonry comprising: a curable epoxy resin; from 5 parts by weight based on active components participating in the curing of the composition, i.e. reactants, curing agents, catalysts, accelerator and inhibitor, to 30 parts by weight based on active components participating in the curing of the composition,i.e. reactants, curing agents, catalysts, accelerator and inhibitor, of reactive multifunctional acrylate consisting of trimethylolpropane triacrylate and dipentaerythritol pentaacrylate in a trimethylolpropane triacrylate:dipentaerythritol pentaacrylate weight ratio of from 0.05:1 to 1:1, wherein each of the respective acrylates includes inhibitor in a concentration of less than 100 ppm based on the total weight of acrylate and inhibitor, the weight ratio of said curable resin to said multifunctional acrylate being from 1.2 to 5; and curing agent; said composition exhibiting pull out performance after 24 hours at room temperature of at least 85 KN in a pullout performance test in accordance with the experimental part of the description. a curable epoxy resin; from 5 parts by weight based on active components participating in the curing of the composition, i.e. reactants, curing agents, catalysts, accelerator and inhibitor, to 30 parts by weight based on active components participating in the curing of the composition,i.e. reactants, curing agents, catalysts, accelerator and inhibitor, of reactive multifunctional acrylate consisting of trimethylolpropane triacrylate and dipentaerythritol pentaacrylate in a trimethylolpropane triacrylate:dipentaerythritol pentaacrylate weight ratio of from 0.05:1 to 1:1, wherein each of the respective acrylates includes inhibitor in a concentration of less than 100 ppm based on the total weight of acrylate and inhibitor, the weight ratio of said curable resin to said multifunctional acrylate being from 1.2 to 5; and curing agent; said composition exhibiting pull out performance after 24 hours at room temperature of at least 85 KN in a pullout performance test in accordance with the experimental part of the description.
A computer-implemented method of generating a fluid flow model of a turbidity current to predict the structure and/or performance of a subsurface hydrocarbon reservoir to optimize hydrocarbon extraction therefrom comprising: defining a first flow layer (42, 52, 61) in the turbidity current (40, 50) comprising sediment; characterized in successively defining at least one more flow layer (44, 54, 56) in the turbidity current (40, 50), each successive flow layer including the previously defined flow layer, wherein the flow layers are defined based on sediment size; defining a set of depth-averaged flow variables for each flow layer, developing a model describing the turbidity current (40, 50), wherein the model uses fluid flow equations and the set of depth-averaged flow variables for each flow layer to predict fluid flow in each flow layer; outputting the model; modeling the hydrocarbon reservoir using the model of the turbidity current; and predicting hydrocarbon production based on the model of the hydrocarbon reservoir. defining a first flow layer (42, 52, 61) in the turbidity current (40, 50) comprising sediment; characterized in successively defining at least one more flow layer (44, 54, 56) in the turbidity current (40, 50), each successive flow layer including the previously defined flow layer, wherein the flow layers are defined based on sediment size; characterized in successively defining at least one more flow layer (44, 54, 56) in the turbidity current (40, 50), each successive flow layer including the previously defined flow layer, wherein the flow layers are defined based on sediment size; defining a set of depth-averaged flow variables for each flow layer, developing a model describing the turbidity current (40, 50), wherein the model uses fluid flow equations and the set of depth-averaged flow variables for each flow layer to predict fluid flow in each flow layer; outputting the model; modeling the hydrocarbon reservoir using the model of the turbidity current; and predicting hydrocarbon production based on the model of the hydrocarbon reservoir.
A rail vehicle having a device for measuring wheel vertical forces (Q 1 -Q 8) of the rail vehicle comprising an undercarriage and at least two bogies coupled to the undercarriage, wherein each bogie has a bogie frame and respectively at least two wheel axles, mounted through primary spring systems in an axle bearing housing, having wheels, wherein the primary spring systems are arranged between the bogie frame and the axle bearing housing, wherein the device has an evaluation unit and per wheel at least one strain gauge sensor (22a-d, 22e-h), which is connected to the evaluation unit, characterized in that the strain gauge sensors (22a-h) are attached at the sensitive locations on the bogie frame of the respective bogie, which are assigned to the respective wheel vertical force of the respective strain gauge sensor (22a-h), wherein the evaluation unit is configured to determine the wheel vertical force in each wheel by way of the measurement signals of the strain gauge sensors (22a-h).
A method for monitoring a shock strut, comprising: measuring a first shock strut pressure; measuring a first shock strut temperature; measuring a second shock strut pressure; measuring a second shock strut temperature; measuring a shock strut stroke; determining a servicing condition of the shock strut based upon the first shock strut pressure, the first shock strut temperature, the second shock strut pressure, the second shock strut temperature, the shock strut stroke, and at least one of an absorption of a gas with a fluid and a desorption of the gas with the fluid, wherein the servicing condition comprises at least one of an oil volume within the shock strut, a gas pressure within the shock strut, and a gas volume within the shock strut; characterized in that measuring a third shock strut pressure; and measuring a third shock strut temperature; wherein the first shock strut pressure is measured during a flight and prior to a landing; the first shock strut temperature is measured during the flight and prior to the landing; the second shock strut pressure is measured after the landing; the second shock strut temperature is measured after the landing; and the shock strut stroke is measured after the landing. measuring a first shock strut pressure; measuring a first shock strut temperature; measuring a second shock strut pressure; measuring a second shock strut temperature; measuring a shock strut stroke; determining a servicing condition of the shock strut based upon the first shock strut pressure, the first shock strut temperature, the second shock strut pressure, the second shock strut temperature, the shock strut stroke, and at least one of an absorption of a gas with a fluid and a desorption of the gas with the fluid, wherein the servicing condition comprises at least one of an oil volume within the shock strut, a gas pressure within the shock strut, and a gas volume within the shock strut; characterized in that measuring a third shock strut pressure; and measuring a third shock strut temperature; wherein the first shock strut pressure is measured during a flight and prior to a landing; the first shock strut temperature is measured during the flight and prior to the landing; the second shock strut pressure is measured after the landing; the second shock strut temperature is measured after the landing; and the shock strut stroke is measured after the landing.
Method for mounting a suspended ceiling in a room, comprising providing a supporting structure (10, 11) and ceiling tiles, and installing said ceiling tiles in the supporting structure (10, 11), characterized in that a ceiling tile is adapted to the size and shape of the room by removing a superfluous tile portion, the adapted ceiling tile is installed in the suspended ceiling, said superfluous portion is arranged on top of the already installed ceiling tiles of said suspended ceiling.
A system, comprising: a subcutaneously-implantable housing, configured for implantation in a body of a subject; functional cells within the housing; a source of oxygen disposed outside of the housing for supplying oxygen to the functional cells; an oxygen delivery interface at an outer surface of the housing for receiving oxygen from the source of oxygen, and for facilitating passage of the oxygen to the functional cells, while the housing is disposed within the body of the subject, the oxygen delivery interface comprising a penetrable surface; a needle for transcutaneously penetrating a penetrable surface with the needle, the housing being indirectly couplable to the source of oxygen via the needle, and the needle facilitates supplying of oxygen to the functional cells from the source of oxygen, at least one oxygen-delivery port being disposed remotely from the housing such that a tube coupled at a first end thereof to the port and at a second end thereof to the housing, wherein the oxygen-delivery port has an upper surface comprising the penetrable surface of the oxygen delivery interface that is penetrable by the needle, and an oxygen reservoir within the housing for storing oxygen received from the source of oxygen at a pressure of 1 atm or greater, the oxygen reservoir being in fluid communication with the functional cells. a subcutaneously-implantable housing, configured for implantation in a body of a subject; functional cells within the housing; a source of oxygen disposed outside of the housing for supplying oxygen to the functional cells; an oxygen delivery interface at an outer surface of the housing for receiving oxygen from the source of oxygen, and for facilitating passage of the oxygen to the functional cells, while the housing is disposed within the body of the subject, the oxygen delivery interface comprising a penetrable surface; a needle for transcutaneously penetrating a penetrable surface with the needle, the housing being indirectly couplable to the source of oxygen via the needle, and the needle facilitates supplying of oxygen to the functional cells from the source of oxygen, at least one oxygen-delivery port being disposed remotely from the housing such that a tube coupled at a first end thereof to the port and at a second end thereof to the housing, wherein the oxygen-delivery port has an upper surface comprising the penetrable surface of the oxygen delivery interface that is penetrable by the needle, and an oxygen reservoir within the housing for storing oxygen received from the source of oxygen at a pressure of 1 atm or greater, the oxygen reservoir being in fluid communication with the functional cells.
A NodeB, characterized by comprising: means for sending capability information of the NodeB to a Radio Network Controller, RNC, wherein the capability information comprises information indicating whether the NodeB supports the 64QAM mode, whether the NodeB supports the MIMO mode, and whether the NodeB supports the combination mode of the 64QAM and the MIMO; means for receiving a configuration information, wherein the configuration information is sent by RNC according to the capability information of the NodeB and a capability of User Equipment, UE, after the RNC received a request initiated by the UE, the request comprising capability information of the UE; and means for configuring a resource of the NodeB according to the configuration information. means for sending capability information of the NodeB to a Radio Network Controller, RNC, wherein the capability information comprises information indicating whether the NodeB supports the 64QAM mode, whether the NodeB supports the MIMO mode, and whether the NodeB supports the combination mode of the 64QAM and the MIMO; means for receiving a configuration information, wherein the configuration information is sent by RNC according to the capability information of the NodeB and a capability of User Equipment, UE, after the RNC received a request initiated by the UE, the request comprising capability information of the UE; and means for configuring a resource of the NodeB according to the configuration information.