mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for collecting a sample of fluid from a reservoir chamber of a therapeutic device having a porous structure and implanted in an eye of a patient, the apparatus comprising: a cartridge comprising: a connector for coupling the cartridge to a syringe having a capacity to contain an amount of therapeutic agent ; at least one needle having a first lumen and a second lumen extending through the at least one needle; and a container in fluid communication with the second lumen ; the at least one needle of the cartridge being operable to penetrate the implanted therapeutic device ; the first lumen being arranged to allow an amount of the therapeutic agent to be injected from the syringe through the first lumen into the reservoir chamber of the implanted therapeutic device ; the second lumen being arranged to allow fluid to be displaced from the reservoir chamber through the second lumen into the container at the same time as the amount of therapeutic agent is injected from the syringe through the first lumen into the reservoir chamber ; and characterised by the container being arranged to collect the displaced fluid and couple to an apparatus to provide the displaced fluid for use in one or more analyses. a connector for coupling the cartridge to a syringe having a capacity to contain an amount of therapeutic agent ; at least one needle having a first lumen and a second lumen extending through the at least one needle; and a container in fluid communication with the second lumen ; the at least one needle of the cartridge being operable to penetrate the implanted therapeutic device ; the first lumen being arranged to allow an amount of the therapeutic agent to be injected from the syringe through the first lumen into the reservoir chamber of the implanted therapeutic device ; the second lumen being arranged to allow fluid to be displaced from the reservoir chamber through the second lumen into the container at the same time as the amount of therapeutic agent is injected from the syringe through the first lumen into the reservoir chamber ; and characterised by the container being arranged to collect the displaced fluid and couple to an apparatus to provide the displaced fluid for use in one or more analyses. the at least one needle of the cartridge being operable to penetrate the implanted therapeutic device ; the first lumen being arranged to allow an amount of the therapeutic agent to be injected from the syringe through the first lumen into the reservoir chamber of the implanted therapeutic device ; the second lumen being arranged to allow fluid to be displaced from the reservoir chamber through the second lumen into the container at the same time as the amount of therapeutic agent is injected from the syringe through the first lumen into the reservoir chamber ; and characterised by the container being arranged to collect the displaced fluid and couple to an apparatus to provide the displaced fluid for use in one or more analyses.
A projection system , comprising: a projection device that is configured to project drawings individually onto a plurality of work spots (101-106) in a construction site based on design data showing a size and a shape of the construction site , wherein, in the design data, each of the plurality of work spots (101-106) is associated with a corresponding drawing to be projected; and a data processor that is configured to specify a placing position and an orientation of the projection device in the design data after the projection device is placed in the construction site , wherein the projection device includes a driver that is configured to change the orientation of the projection device , and when drawings are individually projected onto a first work spot and a second work spot in a stated sequence, and the second work spot is outside a projection angle that is projectable by the projection device , the driver is configured to change the orientation of the projection device to include the second work spot within the projection angle after work at the first work spot is finished, the first work spot and the second work spot being included in the plurality of work spots (101-106). a projection device that is configured to project drawings individually onto a plurality of work spots (101-106) in a construction site based on design data showing a size and a shape of the construction site , wherein, in the design data, each of the plurality of work spots (101-106) is associated with a corresponding drawing to be projected; and a data processor that is configured to specify a placing position and an orientation of the projection device in the design data after the projection device is placed in the construction site , wherein the projection device includes a driver that is configured to change the orientation of the projection device , and when drawings are individually projected onto a first work spot and a second work spot in a stated sequence, and the second work spot is outside a projection angle that is projectable by the projection device , the driver is configured to change the orientation of the projection device to include the second work spot within the projection angle after work at the first work spot is finished, the first work spot and the second work spot being included in the plurality of work spots (101-106).
A data sending method, comprising: receiving, by a terminal device, random access configuration information sent by a base station; determining, by the terminal device, a random access channel, a base frequency, and N frequency hopping intervals according to the random access configuration information, wherein N is greater than or equal to 2; and sending, by the terminal device, a random access signal over the random access channel to the base station according to the base frequency and the N frequency hopping intervals. receiving, by a terminal device, random access configuration information sent by a base station; determining, by the terminal device, a random access channel, a base frequency, and N frequency hopping intervals according to the random access configuration information, wherein N is greater than or equal to 2; and sending, by the terminal device, a random access signal over the random access channel to the base station according to the base frequency and the N frequency hopping intervals.
A faucet configured to discharge ozone water, comprising a faucet body , a water mixing valve mechanism , a water processor , a control switch , a processor , the faucet body comprises a faucet outlet , wherein the water mixing valve mechanism comprises two cold-hot water inlets respectively connected to a cold water resource and a hot water resource and a mixed water outlet, the water processor comprises a water processing passage and an ozone generator connected to the water processing passage , the control switch is electrically connected to the processor , the processor is electrically connected to the ozone generator ; wherein the faucet further comprises a control valve , and a detector configured to detect whether water is flowing through, the control valve is disposed between the cold water resource and an inlet of the water processing passage , an outlet of the water processing passage is connected to the faucet outlet , wherein the detector is disposed between the mixed water outlet of the water mixing valve mechanism and the inlet of the water processing passage , and the processor is also electrically connected to the detector and the control valve to close the control valve and the ozone generator when the detector detects the water flowing through. a faucet body , a water mixing valve mechanism , a water processor , a control switch , a processor , the faucet body comprises a faucet outlet , wherein the water mixing valve mechanism comprises two cold-hot water inlets respectively connected to a cold water resource and a hot water resource and a mixed water outlet, the water processor comprises a water processing passage and an ozone generator connected to the water processing passage , the control switch is electrically connected to the processor , the processor is electrically connected to the ozone generator ; wherein the faucet further comprises a control valve , and a detector configured to detect whether water is flowing through, the control valve is disposed between the cold water resource and an inlet of the water processing passage , an outlet of the water processing passage is connected to the faucet outlet , wherein the detector is disposed between the mixed water outlet of the water mixing valve mechanism and the inlet of the water processing passage , and the processor is also electrically connected to the detector and the control valve to close the control valve and the ozone generator when the detector detects the water flowing through. a control valve , and a detector configured to detect whether water is flowing through, the control valve is disposed between the cold water resource and an inlet of the water processing passage , an outlet of the water processing passage is connected to the faucet outlet , wherein the detector is disposed between the mixed water outlet of the water mixing valve mechanism and the inlet of the water processing passage , and the processor is also electrically connected to the detector and the control valve to close the control valve and the ozone generator when the detector detects the water flowing through.
A method for additive manufacturing an optical element formed of layers , the method comprising: positioning a diffuser between a light source and a light polymerizable liquid, wherein the diffuser is in contact with the light polymerizable liquid; wherein the light polymerizable liquid is a UV light polymerizable resin ; and for each of the layers of the optical element , shining a pattern of light from the light source through the diffuser onto the light polymerizable liquid to homogeneously polymerize the layer wherein the light impinging on the UV light polymerizable resin from the light source is changed from directional to non-directional wherein the resin is in contact with a transparent portion of a tank in which the resin is contained, said transparent portion is between the light source and a support for the optical element so that the light from the light source passes through the transparent portion to polymerize the resin . positioning a diffuser between a light source and a light polymerizable liquid, wherein the diffuser is in contact with the light polymerizable liquid; wherein the light polymerizable liquid is a UV light polymerizable resin ; and for each of the layers of the optical element , shining a pattern of light from the light source through the diffuser onto the light polymerizable liquid to homogeneously polymerize the layer wherein the light impinging on the UV light polymerizable resin from the light source is changed from directional to non-directional wherein the resin is in contact with a transparent portion of a tank in which the resin is contained, said transparent portion is between the light source and a support for the optical element so that the light from the light source passes through the transparent portion to polymerize the resin .
A method for producing a foamed blow-molded article, comprising the steps of: (a) extruding a physical blowing agent-containing foamable molten resin vertically downwardly through an annular die to form a tubular foamed parison , (b) closing a bottom portion of the foamed parison , (c) blowing a gas toward a whole inner peripheral surface of an upper portion of the foamed parison , the bottom portion of which has been closed, from a gas ejection outlet located within the foamed parison at a position immediately below the annular die to widen the foamed parison , (d) closing split molds to clamp the foamed parison therebetween, and (e) blow molding the foamed parison within the split molds , wherein step (c) is carried out at the latest before completion of step (d). (a) extruding a physical blowing agent-containing foamable molten resin vertically downwardly through an annular die to form a tubular foamed parison , (b) closing a bottom portion of the foamed parison , (c) blowing a gas toward a whole inner peripheral surface of an upper portion of the foamed parison , the bottom portion of which has been closed, from a gas ejection outlet located within the foamed parison at a position immediately below the annular die to widen the foamed parison , (d) closing split molds to clamp the foamed parison therebetween, and (e) blow molding the foamed parison within the split molds , wherein step (c) is carried out at the latest before completion of step (d).
A stretchable and flexible wearable phototherapy device comprising: a plurality of radiant energy pods , which house one or more integrated and wearable batteries each pod including one or more radiant lamps to provide radiant energy to a user treatment area, and each pod stretchably and flexibly connected to one or more other pods; and a control pod which houses a controller and ON/OFF button switch and is stretchably and flexibly connected to one or more radiant energy sections, the control pod operatively connected to the radiant energy pods and configured to control an operation of the radiant lamps, wherein the pods are stretchably and flexibly connected such that they form a horseshoe shape. a plurality of radiant energy pods , which house one or more integrated and wearable batteries each pod including one or more radiant lamps to provide radiant energy to a user treatment area, and each pod stretchably and flexibly connected to one or more other pods; and a control pod which houses a controller and ON/OFF button switch and is stretchably and flexibly connected to one or more radiant energy sections, the control pod operatively connected to the radiant energy pods and configured to control an operation of the radiant lamps,
A control system for controlling a noise mode (NM) of operation of a wind turbine (W1) in a wind turbine park, the control system comprising a processor (P) and being arranged for: - receiving inputs (I1, 12, 13) from a plurality of radio frequency receivers (R1, R2, R3) located at positions in or near respective wind turbines in the wind turbine park, - calculating a measure indicative of a location of a radio frequency source (RS) near a wind turbine (W1) of the wind turbine park in response to the inputs (I1, 12, 13) from the plurality of radio frequency receivers (R1, R2, R3), and - controlling the noise mode (NM) of operation of one or more wind turbines (W1) in the wind turbine park according to the measure indicative of a location of a radio frequency source (RS). - receiving inputs (I1, 12, 13) from a plurality of radio frequency receivers (R1, R2, R3) located at positions in or near respective wind turbines in the wind turbine park, - calculating a measure indicative of a location of a radio frequency source (RS) near a wind turbine (W1) of the wind turbine park in response to the inputs (I1, 12, 13) from the plurality of radio frequency receivers (R1, R2, R3), and - controlling the noise mode (NM) of operation of one or more wind turbines (W1) in the wind turbine park according to the measure indicative of a location of a radio frequency source (RS).
An output module comprising: a plurality of outputs , each output comprising two switches , wherein the two switches are configured such that a terminal of a load comprising capacitive and/or inductive characteristics is connectable between the switches ; and a calibration unit configured to disconnect the load by opening the switches for a calibration period, monitor a behavior of the load while the load is disconnected from the switches , store samples of the behavior of the load , wherein the samples include a discharge curve of the load , and determine a test period for the output module based on the samples of the behavior of the load , wherein the test period is shorter than a calibration period and is used for conducting regular tests of the output module. a plurality of outputs , each output comprising two switches , wherein the two switches are configured such that a terminal of a load comprising capacitive and/or inductive characteristics is connectable between the switches ; and a calibration unit configured to disconnect the load by opening the switches for a calibration period, monitor a behavior of the load while the load is disconnected from the switches , store samples of the behavior of the load , wherein the samples include a discharge curve of the load , and disconnect the load by opening the switches for a calibration period, monitor a behavior of the load while the load is disconnected from the switches , store samples of the behavior of the load , wherein the samples include a discharge curve of the load , and determine a test period for the output module based on the samples of the behavior of the load , wherein the test period is shorter than a calibration period and is used for conducting regular tests of the output module.
Flux for flux cored solder in which the flux is filled in the solder, or for flux-coated solder in which the flux coats the solder, the flux comprising: neopentyl glycol and/or dioxane glycol as a solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0.5 wt% or more and 30 wt% or less; or comprising: a phenol-based solid solvent in an amount of more than 0 wt% and 30 wt% or less; a solid solvent other than the phenol-based solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0 wt% or more and 30 wt% or less, wherein the weight of the flux after being heated from 25 degrees C to 350 degrees C in N 2 atmosphere at a raising rate of 10 degrees C/min is 15 % or less of the weight thereof before the heating. neopentyl glycol and/or dioxane glycol as a solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0.5 wt% or more and 30 wt% or less; or comprising: a phenol-based solid solvent in an amount of more than 0 wt% and 30 wt% or less; a solid solvent other than the phenol-based solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0 wt% or more and 30 wt% or less, wherein the weight of the flux after being heated from 25 degrees C to 350 degrees C in N 2 atmosphere at a raising rate of 10 degrees C/min is 15 % or less of the weight thereof before the heating. a phenol-based solid solvent in an amount of more than 0 wt% and 30 wt% or less; a solid solvent other than the phenol-based solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0 wt% or more and 30 wt% or less,
A method comprising the following steps carried out by a server : accessing a set of audiological values for a population from a memory or a database , wherein the set of audiological values has a first number of dimensions (S201); converting, using a processor, the set of audiological values to a first reduced data set, wherein the first reduced data has set has a second number of dimensions less than the first number of dimensions (S203), wherein converting the set of audiological values to the first reduced data set comprises performing a principal component analysis or another dimension reduction technique on the set of audiological values; fitting, using the processor, a first trajectory to the first reduced data set (S205), the first trajectory being a single-dimensional curve that best fits the first reduced data set, wherein positions in the first trajectory correspond to sets of signal processing parameter values for a hearing assistance device; sending the first trajectory to an external device (100; 108) including or associated with a hearing assistance device , to enable the sets of signal processing parameter values to be applied to the hearing assistance device (S207). accessing a set of audiological values for a population from a memory or a database , wherein the set of audiological values has a first number of dimensions (S201); converting, using a processor, the set of audiological values to a first reduced data set, wherein the first reduced data has set has a second number of dimensions less than the first number of dimensions (S203), wherein converting the set of audiological values to the first reduced data set comprises performing a principal component analysis or another dimension reduction technique on the set of audiological values; fitting, using the processor, a first trajectory to the first reduced data set (S205), the first trajectory being a single-dimensional curve that best fits the first reduced data set, wherein positions in the first trajectory correspond to sets of signal processing parameter values for a hearing assistance device; sending the first trajectory to an external device (100; 108) including or associated with a hearing assistance device , to enable the sets of signal processing parameter values to be applied to the hearing assistance device (S207).
An antenna assembly comprising: a communication circuit ; and a Printed Circuit Board, PCB, including a front face , a back face on which the communication circuit is disposed, and at least one side face having an inclined manner between the front face and the back face so as to have an angle greater than or less than 90° with respect to the front face or the back face , wherein the PCB includes: one or more first antennas electrically coupled with the communication circuit and formed on the front face , and one or more second antennas formed on an outer region of the back face not overlapping a corresponding region of the front face , or on the at least one side face . a communication circuit ; and a Printed Circuit Board, PCB, including a front face , a back face on which the communication circuit is disposed, and at least one side face having an inclined manner between the front face and the back face so as to have an angle greater than or less than 90° with respect to the front face or the back face , wherein the PCB includes: one or more first antennas electrically coupled with the communication circuit and formed on the front face , and one or more second antennas formed on an outer region of the back face not overlapping a corresponding region of the front face , or on the at least one side face . one or more first antennas electrically coupled with the communication circuit and formed on the front face , and one or more second antennas formed on an outer region of the back face not overlapping a corresponding region of the front face , or on the at least one side face .