mhurhangee/ep-ind-claims huggingface dataset:
A plated fiber-reinforced member (10, 30), comprising: a fiber-reinforced member formed of a composite fiber material in which multiple reinforcing fibers (23, 23A, 23B, 23C) are dispersed in a resin, wherein some of the multiple reinforcing fibers (23, 23A, 23B, 23C) are allowed so that portions thereof protruding from a surface (17a, 21a) of the resin; and an electroless-plated layer formed on the fiber-reinforced member to cover the surface (17a, 21a) of the resin and the portions of the reinforcing fibers (23, 23A, 23B, 23C) protruding from the surface (17a, 21a) of the resin, characterized in that a surface roughness Ra of the resin is 3 μm or more and 8 μm or less. a fiber-reinforced member formed of a composite fiber material in which multiple reinforcing fibers (23, 23A, 23B, 23C) are dispersed in a resin, wherein some of the multiple reinforcing fibers (23, 23A, 23B, 23C) are allowed so that portions thereof protruding from a surface (17a, 21a) of the resin; and an electroless-plated layer formed on the fiber-reinforced member to cover the surface (17a, 21a) of the resin and the portions of the reinforcing fibers (23, 23A, 23B, 23C) protruding from the surface (17a, 21a) of the resin, characterized in that a surface roughness Ra of the resin is 3 μm or more and 8 μm or less.
Compressor for refrigerant having a compressor housing, said compressor housing being provided with a suction inlet and a pressure outlet, said compressor comprising a compression unit, arranged in a compression housing section of said compressor housing and an electric motor arranged in a motor housing section of said compressor housing, said electric motor comprising a stator arranged within a stator receiving sleeve of said motor housing section and a rotor surrounded by said stator and arranged on a compressor drive shaft of said electric motor for rotation about an axis of rotation together with said drive shaft, said drive shaft extending from said rotor to a compression unit in order to drive one or more compression elements and said drive shaft is mounted rotatably about the axis of rotation by a bearing system arranged between said compression unit and said electric motor said stator comprising a stator core having a stack of laminations and extending parallel to said axis of rotation from a first front side to a second front side, said stator having windings extending through said stator core and forming end windings (92, 94) arranged in front of said front surfaces (92, 94), the stator core is provided with at least two stator support elements (152, 152') fixed to said stator core and extending in radial direction of said axis of rotation beyond an outer surface of said stator core for support of said stator on an inner sleeve surface of said stator receiving sleeve a flow guiding channel for guiding at least a portion of said refrigerant entering through said suction inlet as an outer flow of refrigerant along an outer side of said stator before entering said compression unit is provided, that said outer side of said stator is provided by outer surfaces (122,124) of said end windings (92, 94) of said stator and an outer surface of said stator extending between said end windings (92, 94) of said stator, and said flow of refrigerant through said flow guiding channel extends along said stator support elements (152,152') of said electric motor, wherein said drive shaft with its rotor supporting section is merely supported by said bearing system and its free end arranged on a side of said rotor supporting section opposite to said bearing system is arranged free of support with respect to the compressor housing, and that an inner flow of refrigerant is flowing along an inner surface (134, 136) of the respective end windings (92, 94) and between the end windings (92, 94) through a gap between stator and rotor.
Method (100, 100-1,..., 100-7) for producing plano-convex lens elements for radiation-sensitive devices, comprising: providing a first partial substrate, provided with depressions, with ball elements arranged thereon; providing a second partial substrate (30; 40; 41; 56; 60; 70; 71) comprising a glass material layer (30; 44; 54; 76); arranging (236; 244; 262) the second partial substrate (30; 40; 41; 56; 60; 70; 71) on the first partial substrate provided with the ball elements; fixing (238, 246, 264) the ball elements to the glass material layer (30; 44; 54) of the second partial substrate by means of annealing and applying mechanical pressure; and one-sided thinning of the ball elements fixed to the glass material layer (30; 44; 54; 76) of the second partial substrate (30; 40; 41; 56; 60; 70; 71) to obtain the plano-convex lens elements. providing a first partial substrate, provided with depressions, with ball elements arranged thereon; providing a second partial substrate (30; 40; 41; 56; 60; 70; 71) comprising a glass material layer (30; 44; 54; 76); arranging (236; 244; 262) the second partial substrate (30; 40; 41; 56; 60; 70; 71) on the first partial substrate provided with the ball elements; fixing (238, 246, 264) the ball elements to the glass material layer (30; 44; 54) of the second partial substrate by means of annealing and applying mechanical pressure; and one-sided thinning of the ball elements fixed to the glass material layer (30; 44; 54; 76) of the second partial substrate (30; 40; 41; 56; 60; 70; 71) to obtain the plano-convex lens elements.
Combi boiler, which has at least one water inflow line and an outlet, through which the waste gases flow, characterized in that the outlet comprises at least one heat storage element, which is arranged alongside the outlet duct in the outlet and in which there is at least one phase change material, which by heat transfer stores thermal energy from the waste gas that flows through the outlet, and in that the water inflow line comprises at least one preheating line, which is arranged alongside the heat storage element in order to ensure the heat transfer between it and the said heat storage element.
A method of treating exhaust gas in an exhaust passage using a selective catalytic reduction system, the system comprising a hydrolysis catalyst in the passage upstream of a SCR catalyst, and a diesel exhaust fluid dosing unit for injecting DEF onto the hydrolysis catalyst at a variable DEF dosing rate, and the method comprising the steps of: predicting an initial DEF dosing rate for converting all nitrogen oxide (NOx) contained in the exhaust gas; estimating an amount of ammonia stored on the SCR catalyst; measuring a NOx conversion rate for the system; adjusting the initial DEF dosing rate based upon the ammonia storage estimate and the measured NOx conversion rate to produce a first adjusted DEF dosing rate; estimating an amount of ammonia-equivalent stored on the hydrolysis catalyst; adjusting the first adjusted DEF dosing rate based upon the ammonia-equivalent storage estimate to produce a second adjusted DEF dosing rate; and injecting DEF at the second adjusted DEF dosing rate. predicting an initial DEF dosing rate for converting all nitrogen oxide (NOx) contained in the exhaust gas; estimating an amount of ammonia stored on the SCR catalyst; measuring a NOx conversion rate for the system; adjusting the initial DEF dosing rate based upon the ammonia storage estimate and the measured NOx conversion rate to produce a first adjusted DEF dosing rate; estimating an amount of ammonia-equivalent stored on the hydrolysis catalyst; adjusting the first adjusted DEF dosing rate based upon the ammonia-equivalent storage estimate to produce a second adjusted DEF dosing rate; and injecting DEF at the second adjusted DEF dosing rate.
Sensor for detecting the presence of gas or vapour; said sensor comprising: - a substrate; - a polymeric layer deposited on said substrate and including a polyimide having electrically conductive properties, so that the electric resistance of said polyimide is variable according to the quantity of gas or vapour adsorbed by said polyimide; and - a pair of electrodes electrically connected to said polymeric layer and configured for allowing the detection of the electric resistance value of said polyimide; characterized in that said electric resistance varies as a function of a concentration of ammonia gas and/or vapour, since said polyimide has imide groups which, when a quantity of ammonia is adsorbed by a region of said polyimide, are capable of reacting with said adsorbed quantity of ammonia to turn into amide groups; and in that said sensor further comprises means configured for outputting an indication of the presence of said ammonia gas or vapour based on the detected electric resistance of the polyimide of the polymeric layer. - a substrate; - a polymeric layer deposited on said substrate and including a polyimide having electrically conductive properties, so that the electric resistance of said polyimide is variable according to the quantity of gas or vapour adsorbed by said polyimide; and - a pair of electrodes electrically connected to said polymeric layer and configured for allowing the detection of the electric resistance value of said polyimide;
A drug deactivation system comprising: at least one drug-retaining region of a drug delivery device, wherein the at least one drug-retaining region is configured to retain a drug; and at least one energy source coupled to the at least one drug-retaining region, wherein the at least one energy source is configured to transmit energy to the drug and wherein the drug is capable of being rendered ineffective in the presence of the transmitted energy, characterized in that the at least one energy source includes an electrode, and the system further comprises an absorbing element disposed within the at least one drug-retaining region and electrically connected to the electrode, wherein the absorbing element is configured to absorb at least a portion of the drug retained within the at least one drug-retaining region in the presence of a voltage applied from the electrode. at least one drug-retaining region of a drug delivery device, wherein the at least one drug-retaining region is configured to retain a drug; and at least one energy source coupled to the at least one drug-retaining region, wherein the at least one energy source is configured to transmit energy to the drug and wherein the drug is capable of being rendered ineffective in the presence of the transmitted energy, characterized in that the at least one energy source includes an electrode, and the system further comprises an absorbing element disposed within the at least one drug-retaining region and electrically connected to the electrode, wherein the absorbing element is configured to absorb at least a portion of the drug retained within the at least one drug-retaining region in the presence of a voltage applied from the electrode.
A path change method, applied to a radio access network, wherein the radio access network comprises a terminal, a wireless backhaul node, and a donor node; the wireless backhaul node is configured to provide a wireless backhaul service for a node wirelessly accessing the wireless backhaul node; the terminal communicates with the donor node via the wireless backhaul node; and the path change method comprises: establishing, by a first node, a first path and a second path between the first node and a second node, wherein both the first node and the second node are nodes in the radio access network, and the first node is the wireless backhaul node, the donor node, or a distributed unit of the donor node; sending, by the first node, a data packet to the second node through the first path; and when the first node determines that a path change condition is met, changing, by the first node, from the first path to the second path to send the data packet to the second node, wherein the path change condition comprises a radio link failure, RLF, occurring on any one or more links on the first path the method being characterised in that the data packet comprises a payload and a protocol layer header, wherein the protocol layer header comprises an identifier of a destination node and a path label, the identifier of the destination node identifies the destination node of the data packet, and the path label identifies a transmission path of the data packet, wherein the transmission path of the data packet is the second path after the changing. establishing, by a first node, a first path and a second path between the first node and a second node, wherein both the first node and the second node are nodes in the radio access network, and the first node is the wireless backhaul node, the donor node, or a distributed unit of the donor node; sending, by the first node, a data packet to the second node through the first path; and when the first node determines that a path change condition is met, changing, by the first node, from the first path to the second path to send the data packet to the second node, wherein the path change condition comprises a radio link failure, RLF, occurring on any one or more links on the first path the method being characterised in that the data packet comprises a payload and a protocol layer header, wherein the protocol layer header comprises an identifier of a destination node and a path label, the identifier of the destination node identifies the destination node of the data packet, and the path label identifies a transmission path of the data packet, wherein the transmission path of the data packet is the second path after the changing.
A method for reporting multiple Channel Quality Indicator, CQI, information, the method performed by a User Equipment, UE, and comprising: receiving first reference signals which are cell specific reference signals to be transmitted to all UEs in a cell; acquiring average CQI information using the first reference signals during a prescribed subframe interval comprising several subframes; receiving second reference signals which are UE-specific reference signals to be transmitted to the UE; acquiring instantaneous CQI information using the second reference signals for a single subframe; reporting the average CQI information periodically through a physical uplink control channel, PUCCH; and reporting the instantaneous CQI information through a physical uplink shared channel, PUSCH, only if requested by an evolved Node B, eNB, wherein a narrow beamforming has been applied to the second reference signals and the narrow beamforming has not been applied to the first reference signals, wherein the average CQI information is used for a handover scheduling between eNBs and the instantaneous CQI information is only used for increasing an instantaneous transmission rate of the UE through the narrow beamforming, and wherein the average CQI information is acquired by averaging CQI values measured during the prescribed subframe interval and the instantaneous CQI information is a CQI value measured in the single subframe. receiving first reference signals which are cell specific reference signals to be transmitted to all UEs in a cell; acquiring average CQI information using the first reference signals during a prescribed subframe interval comprising several subframes; receiving second reference signals which are UE-specific reference signals to be transmitted to the UE; acquiring instantaneous CQI information using the second reference signals for a single subframe; reporting the average CQI information periodically through a physical uplink control channel, PUCCH; and reporting the instantaneous CQI information through a physical uplink shared channel, PUSCH, only if requested by an evolved Node B, eNB, wherein a narrow beamforming has been applied to the second reference signals and the narrow beamforming has not been applied to the first reference signals, wherein the average CQI information is used for a handover scheduling between eNBs and the instantaneous CQI information is only used for increasing an instantaneous transmission rate of the UE through the narrow beamforming, and wherein the average CQI information is acquired by averaging CQI values measured during the prescribed subframe interval and the instantaneous CQI information is a CQI value measured in the single subframe.
An electrode unit for carrying current or voltage between an implantable electromedical device and a site for therapy and/or diagnosis in the human body, comprising at least one current/voltage-carrying lead and at least one electric contact pole to a body part, wherein the lead is assigned at least one device having frequency-dependent transmission behavior, wherein this at least one frequency-dependent transmission device is formed by one or multiple sections of the current/voltage-carrying lead itself, and wherein this at least one frequency-dependent transmission device at least partially filters out therapeutically and/or diagnostically unwanted signals in at least one defined frequency range, characterized in that the frequency-dependent transmission device is formed by a highly conductive section of a coil of the current/voltage-carrying lead.
Electric machine tool comprising an electronics unit for realizing a starting inhibitor, wherein the electric machine tool is electrically conductively connectable to an assigned energy source, characterized in that the electronics unit is designed for detecting application to the electric machine tool of an operating voltage (U_B) provided by the energy source after the production of an electrically conductive connection between the electric machine tool and the energy source, wherein the electronics unit takes up energy from the energy source only for a limited predefined period of time required for the detection.
An end effector for an arm of an industrial robot comprising: (a) a plurality of suction tubes, coupled in fluid communication to a vacuum manifold (26; 28); (b) means for varying the spacing between the plurality of suction tubes; characterized in that it further comprises (c) means for rotating the vacuum manifold (26; 28) and the means for varying the spacing between the plurality of suction tubes relative to the arm of the industrial robot, the means for rotating comprising a pneumatically-operated rotary actuator having a rotary platform journaled to a body member, the vacuum manifold (26; 28) being attached to one of said rotary platform and said body member, the means for rotating the vacuum manifold (26; 28) and the means for varying the spacing being such that they can operate at the same time. (a) a plurality of suction tubes, coupled in fluid communication to a vacuum manifold (26; 28); (b) means for varying the spacing between the plurality of suction tubes; characterized in that it further comprises (c) means for rotating the vacuum manifold (26; 28) and the means for varying the spacing between the plurality of suction tubes relative to the arm of the industrial robot, the means for rotating comprising a pneumatically-operated rotary actuator having a rotary platform journaled to a body member, the vacuum manifold (26; 28) being attached to one of said rotary platform and said body member, the means for rotating the vacuum manifold (26; 28) and the means for varying the spacing being such that they can operate at the same time.
A method of braking a vehicle using supplemental deceleration provided by an electronic parking brake, the method comprising: detecting, with an electronic controller, a reduced function state of an integrated braking system; detecting, with the electronic controller, a brake pedal input from an operator of the vehicle; automatically, by the electronic controller, generating a supplemental braking force via the electronic parking brake based on the brake pedal input and the reduced function state; determining, with the electronic controller, the supplemental braking force, wherein the supplemental braking force is determined based upon the brake pedal input and the reduced function state, determining with the electronic controller a braking power requested by the operator based upon the brake pedal input, characterized by determining, with the electronic controller, a maximum braking power capability while a particular malfunction is occurring, wherein the electronic controller references preprogrammed data to determine an amount of loss of braking power for each particular malfunction; and subtracting, with the electronic controller, the maximum braking power capability from the braking power requested by the operator to generate a value of the supplemental braking force. detecting, with an electronic controller, a reduced function state of an integrated braking system; detecting, with the electronic controller, a brake pedal input from an operator of the vehicle; automatically, by the electronic controller, generating a supplemental braking force via the electronic parking brake based on the brake pedal input and the reduced function state; determining, with the electronic controller, the supplemental braking force, wherein the supplemental braking force is determined based upon the brake pedal input and the reduced function state, determining with the electronic controller a braking power requested by the operator based upon the brake pedal input, characterized by determining with the electronic controller a braking power requested by the operator based upon the brake pedal input, characterized by determining, with the electronic controller, a maximum braking power capability while a particular malfunction is occurring, wherein the electronic controller references preprogrammed data to determine an amount of loss of braking power for each particular malfunction; and subtracting, with the electronic controller, the maximum braking power capability from the braking power requested by the operator to generate a value of the supplemental braking force.
Crosslinkable composition, characterized in that it comprises a component a) at least one halogenated bisphenol A diglycidyl ether tetra(meth)acrylate and a component b) at least one diluent from mono(meth)acrylates of a monoalcohol comprising a biphenyl structure, the said biphenyl optionally being halogenated, and optionally at least one component chosen from the components c), d), e), f) and g) as defined as follows or their combinations: c) at least one (meth)acrylated oligomer carrying at least 4 (meth)acrylate functional groups per chain, the said oligomer comprising at least 2 units of halogenated bisphenol A structure in the said oligomer chain, d) at least one di(meth)acrylate of an epoxidized biphenyl derivative, the said biphenyl optionally being halogenated, e) an optionally halogenated bisphenol A diglycidyl ether di(meth)acrylate, f) at least one monomer other than a), b), d) and e), g) at least one oligomer from urethane (meth)acrylate, polyester (meth)acrylate and polyether (meth)acrylate. c) at least one (meth)acrylated oligomer carrying at least 4 (meth)acrylate functional groups per chain, the said oligomer comprising at least 2 units of halogenated bisphenol A structure in the said oligomer chain, d) at least one di(meth)acrylate of an epoxidized biphenyl derivative, the said biphenyl optionally being halogenated, e) an optionally halogenated bisphenol A diglycidyl ether di(meth)acrylate, f) at least one monomer other than a), b), d) and e), g) at least one oligomer from urethane (meth)acrylate, polyester (meth)acrylate and polyether (meth)acrylate.
A vacuum pump comprising a first space; a second space (6, 32); a wall arranged between the spaces; a shaft which passes through an opening arranged in the wall; and a rolling element bearing (12, 22) arranged in the second space and supporting the shaft, wherein a collection groove open toward the shaft is disposed between the first and second spaces and has a radial boundary surface which is designed such that lubricant impacting from a substantially radial direction is deflected and is combined in a preferred direction, characterized in that lubricant expelled from the shaft does not impact the radial boundary surface in a perpendicular manner, but at an angle.