mhurhangee/patent-ind-claim-en huggingface dataset:
A sealing ring assembly for sealing against a bore of a cylinder, comprising: a ring comprising a first end face and a second end face defining an interface, at least one of the first and second end faces at least partially facing radially inward, wherein the ring is configured to cause the interface to widen as the ring wears, wherein the ring comprises a radially outer surface configured to seal against the bore; and a gap cover element configured to form a seal against the first and second end faces, wherein the gap cover comprises a wedge, characterized in that said wedge has a thickness less than a thickness of the ring, wherein the wedge is configured to seal against the first and second end faces, and wherein the gap cover element is configured to move radially outward to maintain the seal as the interface widens. a ring comprising a first end face and a second end face defining an interface, at least one of the first and second end faces at least partially facing radially inward, wherein the ring is configured to cause the interface to widen as the ring wears, wherein the ring comprises a radially outer surface configured to seal against the bore; and a gap cover element configured to form a seal against the first and second end faces, wherein the gap cover comprises a wedge, characterized in that said wedge has a thickness less than a thickness of the ring, wherein the wedge is configured to seal against the first and second end faces, and wherein the gap cover element is configured to move radially outward to maintain the seal as the interface widens.
A welding or additive manufacturing torch comprising a contact tip and a diffuser , wherein the contact tip is configured to be attached to the diffuser by rotating the contact tip within the diffuser by less than 360°, wherein the contact tip comprises: an electrically-conductive body extending from a proximal end of the body to a distal end of the body, characterized in the body forming: a first bore terminating at a first exit orifice at a distal end face of the body; and a second bore terminating at a second exit orifice at the distal end face of the body; wherein the first and second exit orifices are separated from each other by a distance configured to facilitate formation of a bridge droplet between a first wire electrode (E1, E2) delivered through the first bore and a second wire electrode (E1, E2) delivered through the second bore during a deposition operation, while preventing said electrodes (E1, E2) from contacting each other, other than the bridge droplet, wherein the body includes a mounting shank at the proximal end face of the body, and two or more entrance orifices, wherein the first entrance orifice and the second entrance orifice are located on the mounting shank , and the mounting shank includes a radially-projecting tab , wherein the radially-projecting tab is configured to be inserted into a slot in the interior wall of the diffuser , the slot comprising an axial portion and a helical portion . a first bore terminating at a first exit orifice at a distal end face of the body; and a second bore terminating at a second exit orifice at the distal end face of the body; wherein the first and second exit orifices are separated from each other by a distance configured to facilitate formation of a bridge droplet between a first wire electrode (E1, E2) delivered through the first bore and a second wire electrode (E1, E2) delivered through the second bore during a deposition operation, while preventing said electrodes (E1, E2) from contacting each other, other than the bridge droplet, wherein the body includes a mounting shank at the proximal end face of the body, and two or more entrance orifices, wherein the first entrance orifice and the second entrance orifice are located on the mounting shank , and the mounting shank includes a radially-projecting tab , wherein the radially-projecting tab is configured to be inserted into a slot in the interior wall of the diffuser , the slot comprising an axial portion and a helical portion .
A platform lift , in particular a stairlift , comprising a rail , a drive unit having a platform , in particular a chair , for driving along the rail , at least one control unit arranged at the drive unit , a base station located at a fixed location, one wireless transmission path connecting the control unit to the base station , wherein the base station comprises a telecommunication interface to connect the platform lift with a public telecommunication network , characterized in that the platform lift comprises a speech communication device located at the drive unit , and in that the one wireless transmission path connects the control unit and the speech communication device to the base station .
A method for preparing a polymer composition comprising a polymer and a solvent, comprising: (a) adding a metal scavenger to the polymer composition to form a complex with a metal contaminant in the polymer composition; (b) separating the metal scavenger and metal contaminant complex from the polymer; (c) adding a photocatalyst to the polymer composition; (d) exposing the polymer composition to ultraviolet (UV) light to remove color from the polymer composition; and (e) separating the photocatalyst from the polymer composition (a) adding a metal scavenger to the polymer composition to form a complex with a metal contaminant in the polymer composition; (b) separating the metal scavenger and metal contaminant complex from the polymer; (c) adding a photocatalyst to the polymer composition; (d) exposing the polymer composition to ultraviolet (UV) light to remove color from the polymer composition; and (e) separating the photocatalyst from the polymer composition
A syringe comprising: a barrel; a stopper slidably arranged within the barrel; a needle arranged on a distal end of the barrel; a plunger coupling coupled to the stopper and adapted to releasably engage a plunger ; and a needle retraction mechanism adapted to retract the needle into the barrel, characterized in the plunger coupling including one or more resilient coupling arms (10.1) adapted to releasably engage a coupling head (11.3) of the plunger , a finger flange (3.1) having a release rib (3.2) adapted to engage and deflect the one or more resilient coupling arms (10.1) and release the coupling head (11.3) from the plunger coupling . a barrel; a stopper slidably arranged within the barrel; a needle arranged on a distal end of the barrel; a plunger coupling coupled to the stopper and adapted to releasably engage a plunger ; and a needle retraction mechanism adapted to retract the needle into the barrel, characterized in the plunger coupling including one or more resilient coupling arms (10.1) adapted to releasably engage a coupling head (11.3) of the plunger , a finger flange (3.1) having a release rib (3.2) adapted to engage and deflect the one or more resilient coupling arms (10.1) and release the coupling head (11.3) from the plunger coupling .
A system for use in delivering pressurized fluid to a wellbore, the system comprising: a turbine generator that provides a dedicated source of electricity to an electrically powered fracturing equipment system, wherein the electrically powered fracturing equipment system comprises: an electrically powered fracturing module operatively associated with the source of electricity, the electrically powered fracturing module comprising an electric motor and a fluid pump coupled to the electric motor; an electrically powered control system operatively associated with the source of electricity configured to regulate the fracturing module to deliver a treatment fluid from a source of treatment fluid to the wellbore; and a fracturing trailer for housing the fracturing module, the fracturing module being adapted for removable mounting on the fracturing trailer in that the fracturing module has a frame structure in which the electric motor and the fluid pump are arranged, wherein the frame structure has openings for receiving forklift tines so that the fracturing module can be removed from the trailer. an electrically powered fracturing module operatively associated with the source of electricity, the electrically powered fracturing module comprising an electric motor and a fluid pump coupled to the electric motor; an electrically powered control system operatively associated with the source of electricity configured to regulate the fracturing module to deliver a treatment fluid from a source of treatment fluid to the wellbore; and a fracturing trailer for housing the fracturing module, the fracturing module being adapted for removable mounting on the fracturing trailer in that the fracturing module has a frame structure in which the electric motor and the fluid pump are arranged, wherein the frame structure has openings for receiving forklift tines so that the fracturing module can be removed from the trailer.
An integrated circuit for detecting and correcting undervoltage conditions, comprising: a sensor configured to detect a voltage present on a voltage supply node over each of first and second successive clock cycles, wherein the sensor includes first and second ring oscillators having different characteristics with respect to one another, wherein each of the first and second ring oscillators is coupled to provide respective frequency information to a computation circuit , wherein the computation circuit is configured to calculate the voltage at each of the first and second successive clock cycles based on the frequency information received from each of the first and second ring oscillators; comparison circuitry configured to compare the voltages detected at each of the first and second successive clock cycles to each of a plurality of voltage thresholds; a delta comparator configured to compare a rate of change of the voltage present on the voltage supply node from the first clock cycle to the second clock cycle to one or more slope thresholds; and control circuitry configured to determine if one or more voltage adjustment actions are to be taken based on comparisons performed by the comparison circuitry and the delta comparator, and further configured to perform the one or more voltage adjustment actions responsive to determining that at least one is to be taken. a sensor configured to detect a voltage present on a voltage supply node over each of first and second successive clock cycles, wherein the sensor includes first and second ring oscillators having different characteristics with respect to one another, wherein each of the first and second ring oscillators is coupled to provide respective frequency information to a computation circuit , wherein the computation circuit is configured to calculate the voltage at each of the first and second successive clock cycles based on the frequency information received from each of the first and second ring oscillators; comparison circuitry configured to compare the voltages detected at each of the first and second successive clock cycles to each of a plurality of voltage thresholds; a delta comparator configured to compare a rate of change of the voltage present on the voltage supply node from the first clock cycle to the second clock cycle to one or more slope thresholds; and control circuitry configured to determine if one or more voltage adjustment actions are to be taken based on comparisons performed by the comparison circuitry and the delta comparator, and further configured to perform the one or more voltage adjustment actions responsive to determining that at least one is to be taken.
A downlink control information obtaining method, comprising: determining, by a terminal, predefined search space based on aggregation levels supported by the terminal, wherein the predefined search space comprises search space corresponding to at least one of an aggregation level 16 and an aggregation level 24; and performing, by the terminal, blind detection in the predefined search space to obtain downlink control information, DCI; wherein before the determining, by the terminal, predefined search space based on aggregation levels supported by the terminal, the method further comprises: reporting, by the terminal to a base station, at least one aggregation level supported by the terminal, wherein the DCI is carried on a physical resource corresponding to an aggregation level N in the at least one aggregation level. determining, by a terminal, predefined search space based on aggregation levels supported by the terminal, wherein the predefined search space comprises search space corresponding to at least one of an aggregation level 16 and an aggregation level 24; and performing, by the terminal, blind detection in the predefined search space to obtain downlink control information, DCI; wherein before the determining, by the terminal, predefined search space based on aggregation levels supported by the terminal, the method further comprises: reporting, by the terminal to a base station, at least one aggregation level supported by the terminal, wherein the DCI is carried on a physical resource corresponding to an aggregation level N in the at least one aggregation level. reporting, by the terminal to a base station, at least one aggregation level supported by the terminal, wherein the DCI is carried on a physical resource corresponding to an aggregation level N in the at least one aggregation level.
A monitoring device for use in lateral flow testing for detecting presence or amount of an analyte in a liquid (L), the device comprising - a housing, the housing comprising a carrier holder for holding a carrier for transport of the liquid (L); - at least a first light source which is a resonant-cavity light source having a cavity (C); - an evaluation unit , operationally connected to at least the first light source for detecting a measurement signal; wherein the first light source is structured and arranged - to illuminate with light a test range in a test area of a carrier held in the carrier holder; and - to couple back into the cavity (C) of the first light source a portion of the light coming back from the test range. - a housing, the housing comprising a carrier holder for holding a carrier for transport of the liquid (L); - at least a first light source which is a resonant-cavity light source having a cavity (C); - an evaluation unit , operationally connected to at least the first light source for detecting a measurement signal; - to illuminate with light a test range in a test area of a carrier held in the carrier holder; and - to couple back into the cavity (C) of the first light source a portion of the light coming back from the test range.
A multi-segment component for an aerosol-generating article , the multi-segment component comprising: a combustible heat source ; an aerosol-forming substrate downstream of the combustible heat source ; and a wrapper circumscribing a rear portion of the combustible heat source and at least a front portion of the aerosol-forming substrate ; wherein a front portion of the combustible heat source extends beyond the wrapper so that the front portion of the combustible heat source is exposed during use, and wherein the multi-segment component further comprises an intumescent coating on all or part of the front portion of the combustible heat source , the intumescent coating being configured to form a heat insulating layer on the front portion of the combustible heat source in response to heating by the combustible heat source. a combustible heat source ; an aerosol-forming substrate downstream of the combustible heat source ; and a wrapper circumscribing a rear portion of the combustible heat source and at least a front portion of the aerosol-forming substrate ; wherein a front portion of the combustible heat source extends beyond the wrapper so that the front portion of the combustible heat source is exposed during use, and wherein the multi-segment component further comprises an intumescent coating on all or part of the front portion of the combustible heat source , the intumescent coating being configured to form a heat insulating layer on the front portion of the combustible heat source in response to heating by the combustible heat source.
A composition comprising: a polythiol, wherein the polythiol comprises a thiol-terminated prepolymer; a polyalkenyl, wherein the polyalkenyl comprises an alkenyl-terminated prepolymer, a polyalkenyl monomer, or a combination thereof; a metal complex; and an organic peroxide. a polythiol, wherein the polythiol comprises a thiol-terminated prepolymer; a polyalkenyl, wherein the polyalkenyl comprises an alkenyl-terminated prepolymer, a polyalkenyl monomer, or a combination thereof; a metal complex; and an organic peroxide.
A hydraulic apparatus comprising a casing having arranged therein a hydraulic machine , a shaft engaged in the casing and mounted to rotate relative to the casing by means of a bearing having at least two rolling elements , a braking system having a plurality of brake disks configured to prevent the shaft rotating relative to the casing in selective manner, and a control system for controlling said brake disks , the hydraulic system including an irrigation system adapted to cool said brake disks by means of a fluid, the irrigation system including a fluid inlet and a fluid outlet , the hydraulic system being characterized in that the fluid inlet and outlet of the irrigation system define a fluid flow within the casing in which the braking system is downstream from the hydraulic machine .
A method of forming an air delivery conduit for use in the treatment of sleep disordered breathing, comprising: laminating a polymer to a fabric sheet , wherein the polymer is laminated as diagonal lines across the fabric sheet or wherein the laminated polymer has a skeleton configuration; and forming the fabric sheet into a tubular shape thereby forming a conduit to deliver pressurized air, wherein the laminated polymer functions as a support structure and provides form to the conduit . laminating a polymer to a fabric sheet , wherein the polymer is laminated as diagonal lines across the fabric sheet or wherein the laminated polymer has a skeleton configuration; and forming the fabric sheet into a tubular shape thereby forming a conduit to deliver pressurized air, wherein the laminated polymer functions as a support structure and provides form to the conduit .
Ginsenoside M1 for use in the treatment and/or prevention of gout, wherein the ginsenoside M1 is effective in inhibiting monosodium urate crystals (MSU) or calcium pyrophosphate dehydrate (CPPD)-induced activation of NLRP3 inflammasome.
A motor control model conversion method for converting a first calculation model (M1) into a second calculation model (M2), wherein: the first calculation model (M1) is configured to output one or more manipulated variables (V3) used for control of the motor by receiving an input of one or more controlled variables (V1) or target values (V2) each indicating a state of the motor , and performing calculation configured to use one or more transfer functions (TF1) or state equations; the second calculation model (M2) is configured to output the one or more manipulated variables (V3) by receiving an input of the one or more controlled variables (V1) or target values (V2), and performing calculation in each of the one or more node layers (L1) each including a plurality of nodes (N1) configured to execute calculations in parallel; and in a step of converting the first calculation model (M1) into the second calculation model (M2), a coefficient (w0) multiplied by an input value input to the nodes (N1), and a function (f1) designating a multiplied value as an input variable are determined based on the one or more transfer functions (TF1) or state equations for each of the plurality of nodes (N1), wherein, in the step of converting the first calculation model (M1) into the second calculation model (M2), a number of the plurality of nodes (N1), and the coefficient (w0) of each of the plurality of nodes (N1) are determined based on a number of previous states of the one or more transfer functions (TF1) or state equations of the first calculation model (M1), and a connection relationship between the input and the output. the first calculation model (M1) is configured to output one or more manipulated variables (V3) used for control of the motor by receiving an input of one or more controlled variables (V1) or target values (V2) each indicating a state of the motor , and performing calculation configured to use one or more transfer functions (TF1) or state equations; the second calculation model (M2) is configured to output the one or more manipulated variables (V3) by receiving an input of the one or more controlled variables (V1) or target values (V2), and performing calculation in each of the one or more node layers (L1) each including a plurality of nodes (N1) configured to execute calculations in parallel; and in a step of converting the first calculation model (M1) into the second calculation model (M2), a coefficient (w0) multiplied by an input value input to the nodes (N1), and a function (f1) designating a multiplied value as an input variable are determined based on the one or more transfer functions (TF1) or state equations for each of the plurality of nodes (N1),
An electrical inspection method of a wafer comprising Fabry-Perot filter portions, the wafer being formed to be cut into individual Fabry-Perot filters, comprising: a step of preparing a wafer including a substrate layer and a plurality of pairs two-dimensionally arranged on the substrate layer , each of the plurality of pairs having a first mirror portion and a second mirror portion , a plurality of Fabry-Perot interference filter portions being formed in the wafer , each of the plurality of Fabry-Perot interference filter portions in which a gap is formed between the first mirror portion and the second mirror portion facing each other and a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force; and a step of inspecting electrical characteristics of each of the plurality of Fabry-Perot interference filter portions in a state of the wafer , wherein each of the plurality of Fabry-Perot interference filter portions is configured to be a respective Fabry-Perot interference filter after the wafer is cut. a step of preparing a wafer including a substrate layer and a plurality of pairs two-dimensionally arranged on the substrate layer , each of the plurality of pairs having a first mirror portion and a second mirror portion , a plurality of Fabry-Perot interference filter portions being formed in the wafer , each of the plurality of Fabry-Perot interference filter portions in which a gap is formed between the first mirror portion and the second mirror portion facing each other and a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force; and a step of inspecting electrical characteristics of each of the plurality of Fabry-Perot interference filter portions in a state of the wafer , wherein each of the plurality of Fabry-Perot interference filter portions is configured to be a respective Fabry-Perot interference filter after the wafer is cut.