mhurhangee/patent-ind-claim-en huggingface dataset:
A kit comprising: an implantable medical device; and a customizable anchorage device configured to anchor the implantable medical device within a patient's body, the anchorage device comprising: a substrate extending along a longitudinal axis between a first end comprising a first bonding area and an opposite second end comprising a second bonding area , the substrate comprising a third bonding area between the first and second bonding areas; wherein the bonding areas each include an adhesive and a nonstick material that covers the adhesive. an implantable medical device; and a customizable anchorage device configured to anchor the implantable medical device within a patient's body, the anchorage device comprising: a substrate extending along a longitudinal axis between a first end comprising a first bonding area and an opposite second end comprising a second bonding area , the substrate comprising a third bonding area between the first and second bonding areas; wherein the bonding areas each include an adhesive and a nonstick material that covers the adhesive.
A method of wireless communications, comprising: receiving , by a user equipment UE, a channel state information reference signal, CSI-RS, beam of a set of CSI-RS beams, wherein a waveform of a CSI-RS of the CSI-RS beam includes a change indication message; and determining , by the UE, whether the set of CSI-RS beams has changed based on a value of the change indication message. receiving , by a user equipment UE, a channel state information reference signal, CSI-RS, beam of a set of CSI-RS beams, wherein a waveform of a CSI-RS of the CSI-RS beam includes a change indication message; and determining , by the UE, whether the set of CSI-RS beams has changed based on a value of the change indication message.
A gas concentration sensor comprising: a sensor enclosure that includes a cylindrical body ; an ultrasonic transducer disposed at a first end of the cylindrical body ; an ultrasonic wave reflecting surface disposed at a second end of the cylindrical body , the ultrasonic wave reflecting surface intersecting an axial direction of the cylindrical body ; and a plurality of ventilation holes disposed in a peripheral wall of the cylindrical body , wherein the plurality of ventilation holes have corresponding through lines each extending in a direction perpendicular to an axial section of the cylindrical body , the through lines of the plurality of ventilation holes passing through different locations, characterized in that each of the ventilation holes has a shape extending in the axial direction of the cylindrical body and has a length in the axial direction that is longer than a lateral length, and the ratio of the area of openings of all the ventilation holes with respect to the area of a peripheral face of the sensor enclosure is 6% or greater and 20% or less. a sensor enclosure that includes a cylindrical body ; an ultrasonic transducer disposed at a first end of the cylindrical body ; an ultrasonic wave reflecting surface disposed at a second end of the cylindrical body , the ultrasonic wave reflecting surface intersecting an axial direction of the cylindrical body ; and a plurality of ventilation holes disposed in a peripheral wall of the cylindrical body , wherein the plurality of ventilation holes have corresponding through lines each extending in a direction perpendicular to an axial section of the cylindrical body , the through lines of the plurality of ventilation holes passing through different locations, characterized in that each of the ventilation holes has a shape extending in the axial direction of the cylindrical body and has a length in the axial direction that is longer than a lateral length, and the ratio of the area of openings of all the ventilation holes with respect to the area of a peripheral face of the sensor enclosure is 6% or greater and 20% or less.
A catheter, comprising: a catheter tube at least partially formed from a mixture comprising an oleophilic compound and a polymer wherein the oleophilic compound is in an amount of about 0.5 percent by weight (wt. %) to about 20 wt. % of the mixture, wherein the oleophilic compound is one or more of glycerol monooleate, oleoyl-rac-glycerol, glycerol tri-oleate, oleic acid and oleyl alcohol.
An electronic device comprising: a housing comprising a speaker hole ; a printed circuit board, PCB, disposed in the housing ; and a speaker module , stacked with at least portion of the PCB, comprising a speaker and an enclosure surrounding the speaker , wherein the enclosure of the speaker module comprises: a case , supporting the speaker , and a plate comprising: a first horizontal portion , contacted with one surface of the PCB facing the speaker , a second horizontal portion , spaced apart from the one surface of the PCB a third inclined portion connecting the first portion of the plate and the second portion of the plate , wherein a first portion of the case and the first horizontal portion of the plate forms a first audio path (S1) between the speaker and the plate , and wherein a second portion of the case and the second horizontal portion of the plate forms a second audio path (S2) connecting the first audio path (S1) to the speaker hole of the housing . a housing comprising a speaker hole ; a printed circuit board, PCB, disposed in the housing ; and a speaker module , stacked with at least portion of the PCB, comprising a speaker and an enclosure surrounding the speaker , wherein the enclosure of the speaker module comprises: a case , supporting the speaker , and a plate comprising: a first horizontal portion , contacted with one surface of the PCB facing the speaker , a second horizontal portion , spaced apart from the one surface of the PCB a third inclined portion connecting the first portion of the plate and the second portion of the plate , a case , supporting the speaker , and a plate comprising: a first horizontal portion , contacted with one surface of the PCB facing the speaker , a second horizontal portion , spaced apart from the one surface of the PCB a third inclined portion connecting the first portion of the plate and the second portion of the plate , a first horizontal portion , contacted with one surface of the PCB facing the speaker , a second horizontal portion , spaced apart from the one surface of the PCB a third inclined portion connecting the first portion of the plate and the second portion of the plate , wherein a first portion of the case and the first horizontal portion of the plate forms a first audio path (S1) between the speaker and the plate , and wherein a second portion of the case and the second horizontal portion of the plate forms a second audio path (S2) connecting the first audio path (S1) to the speaker hole of the housing .
A thermoplastic lignin polycondensate prepared by reacting a lactone-based compound with lignin and comprising a structure of Formula 1: wherein m, n, and p represent the numbers of repeating units and are integers of 1 or greater, and is a lignin monomer.
A PV module mounting and support assembly, for use on a support structure of the type having a deck on which PV modules are to be mounted, comprising: a base , having a lower base surface , mountable to a deck ; a deck-penetrating fastener engageable with the base and extendable into the deck so to secure the base to the deck, the lower base surface facing the deck; characterized in that the base comprising a PV module-support surface ; and PV module mounting hardware comprising an elongated fastener and a retaining element securable to the base by the elongated fastener at a position spaced apart from and not in contact with the PV module-support surface, whereby an edge of a PV module can be positioned on top of and be supported by the PV module-support surface with the edge of the PV module spaced apart from the deck and captured between the PV module-support surface and the retaining element , wherein the retaining element comprises a mounting clip securable directly to the base by the elongated fastener with the elongated fastener extending between and directly engaging the mounting clip and the base. a base , having a lower base surface , mountable to a deck ; a deck-penetrating fastener engageable with the base and extendable into the deck so to secure the base to the deck, the lower base surface facing the deck; characterized in that the base comprising a PV module-support surface ; and PV module mounting hardware comprising an elongated fastener and a retaining element securable to the base by the elongated fastener at a position spaced apart from and not in contact with the PV module-support surface, whereby an edge of a PV module can be positioned on top of and be supported by the PV module-support surface with the edge of the PV module spaced apart from the deck and captured between the PV module-support surface and the retaining element , wherein the retaining element comprises a mounting clip securable directly to the base by the elongated fastener with the elongated fastener extending between and directly engaging the mounting clip and the base.
A photosensitive composition comprising: a polysiloxane compound; a photo acid generator; a coloring agent; and a solvent, wherein the polysiloxane compound contains a cyclic polysiloxane structure and a cationically polymerizable functional group, and a content of the coloring agent is 5% by weight or more of a total solid content. a polysiloxane compound; a photo acid generator; a coloring agent; and a solvent, wherein the polysiloxane compound contains a cyclic polysiloxane structure and a cationically polymerizable functional group, and a content of the coloring agent is 5% by weight or more of a total solid content.
A computer-implemented method for determining spectra of full waveform sonic data, the method comprising: receiving full waveform sonic, FWS, data, wherein the FWS data are sonic waveforms recorded by a receiver array, and the sonic waveforms are excited by a transmitter and propagate along a borehole in a hydrocarbon reservoir; performing frequency-spatial, FX, transform on the FWS data; using a nonstationary predictive error filtering, PEF, inversion on the transformed FWS data to estimate local matrix L and matrix P, wherein using the nonstationary PEF inversion comprises formulating a nonstationary predictive error filter that includes frequency-dependent PEF coefficients, solving the nonstationary PEF inversion for all available orders to obtain frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency, and using the obtained frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency to estimate the local matrix L and matrix P; calculating an inverse covariance matrix based on the estimated local matrix L and matrix P; obtaining nonstationary maximum likelihood method, MLM, spectra based on the inverse covariance matrix; and estimating petrophysical properties of a borehole region based on the nonstationary MLM spectra. receiving full waveform sonic, FWS, data, wherein the FWS data are sonic waveforms recorded by a receiver array, and the sonic waveforms are excited by a transmitter and propagate along a borehole in a hydrocarbon reservoir; performing frequency-spatial, FX, transform on the FWS data; using a nonstationary predictive error filtering, PEF, inversion on the transformed FWS data to estimate local matrix L and matrix P, wherein using the nonstationary PEF inversion comprises formulating a nonstationary predictive error filter that includes frequency-dependent PEF coefficients, solving the nonstationary PEF inversion for all available orders to obtain frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency, and using the obtained frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency to estimate the local matrix L and matrix P; formulating a nonstationary predictive error filter that includes frequency-dependent PEF coefficients, solving the nonstationary PEF inversion for all available orders to obtain frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency, and using the obtained frequency-dependent PEF coefficients and their corresponding predictive errors at each frequency to estimate the local matrix L and matrix P; calculating an inverse covariance matrix based on the estimated local matrix L and matrix P; obtaining nonstationary maximum likelihood method, MLM, spectra based on the inverse covariance matrix; and estimating petrophysical properties of a borehole region based on the nonstationary MLM spectra.
A tape feeder configured to supply lead components removed from a carrier tape by cutting leads of a taped component , and discharge a waste tape outside of the tape feeder , the taped component being composed of the lead components , each having the leads , and the carrier tape holding the leads of the lead components , the waste tape being composed of remaining leads , which remain on the carrier tape after the leads are cut, and the carrier tape holding the remaining leads in a protruded state; wherein, the tape feeder further comprises: a path , inside the tape feeder , which is used for linearly feeding the taped component before cutting the leads and linearly feeding the waste tape after cutting the leads in a first direction, and then reversing to a second direction opposite to the first direction and linearly feeding in the second direction; a discharge port configured to discharge the waste tape , being fed from the downstream end of the path , downwardly from the tape feeder ; and a pushing section , being provided between the downstream end of the path and the discharge port , configured to push a portion of the carrier tape of the waste tape fed from the downstream end of the path in a direction intersecting the path characterized in that: a slit-shaped opening is formed in a wall surface of a side wall of the tape feeder so as to extend in the second direction of the waste tape , the wall surface being one among a pair of wall surfaces defining the path configured to feed the waste tape in the second direction; and multiple feeding holes of the carrier tape of the waste tape are exposed through the opening . a path , inside the tape feeder , which is used for linearly feeding the taped component before cutting the leads and linearly feeding the waste tape after cutting the leads in a first direction, and then reversing to a second direction opposite to the first direction and linearly feeding in the second direction; a discharge port configured to discharge the waste tape , being fed from the downstream end of the path , downwardly from the tape feeder ; and a pushing section , being provided between the downstream end of the path and the discharge port , configured to push a portion of the carrier tape of the waste tape fed from the downstream end of the path in a direction intersecting the path characterized in that: a slit-shaped opening is formed in a wall surface of a side wall of the tape feeder so as to extend in the second direction of the waste tape , the wall surface being one among a pair of wall surfaces defining the path configured to feed the waste tape in the second direction; and multiple feeding holes of the carrier tape of the waste tape are exposed through the opening .
A method performed by a network node for configuring a network slice, the method comprising, in response to a request to configure a network slice: configuring network resources for providing the network slice ; and configuring a state of the network slice to a first state , wherein in the first state the network slice is disabled, wherein the network slice is associated with an additional state and the additional state comprises a locked state or an unlocked state , or a shutting down state , wherein in the locked state and in the shutting down state the network slice does not accept new wireless devices, and the method comprises configuring the additional state of the network slice from the shutting down state to the locked state when a last wireless device leaves the network slice. configuring network resources for providing the network slice ; and configuring a state of the network slice to a first state , wherein in the first state the network slice is disabled, wherein the network slice is associated with an additional state and the additional state comprises a locked state or an unlocked state , or a shutting down state , wherein in the locked state and in the shutting down state the network slice does not accept new wireless devices, and the method comprises configuring the additional state of the network slice from the shutting down state to the locked state when a last wireless device leaves the network slice.
A composition comprising - an ester of a fatty acid and dextrin - a mixture of branched and linear saturated C15-C19 alkanes - a UV-filter of the formula (I) wherein the amount of branched saturated C15-C19 alkane in said mixture of branched and linear saturated C15-C19 alkanes is more than 80 % by weight, preferably more that 90 % by weight, most preferred more than 92 % by weight. - an ester of a fatty acid and dextrin - a mixture of branched and linear saturated C15-C19 alkanes - a UV-filter of the formula (I) wherein the amount of branched saturated C15-C19 alkane in said mixture of branched and linear saturated C15-C19 alkanes is more than 80 % by weight, preferably more that 90 % by weight, most preferred more than 92 % by weight.
Control apparatus for controlling lighting within an environment, comprising: - a first distance sensor configured to measure at least one first distance between the control apparatus and at least one light source in a respective first direction, - a second distance sensor configured to measure at least one second distance in a respective second direction in said environment, - a signal transmitter configured to receive first information indicative of said first and second distances and to transmit a first control signal for controlling lighting within said environment on the basis of at least said first information , characterized in that : - said second distance is a distance between the control apparatus and at least one user , - the control apparatus comprises a distance calculator configured to receive said first information and to calculate at least one distance between respective ones of said at least one light source and said at least one user based on said first information and on information of said first and second directions, - the control apparatus comprises a lighting control unit configured to receive second information indicative of said calculated at least one distance and to transmit control information based on said second information to at least one of said at least one light source, and - said first control signal is one of: said first information in transmitted form, said control information. - a first distance sensor configured to measure at least one first distance between the control apparatus and at least one light source in a respective first direction, - a second distance sensor configured to measure at least one second distance in a respective second direction in said environment, - a signal transmitter configured to receive first information indicative of said first and second distances and to transmit a first control signal for controlling lighting within said environment on the basis of at least said first information , - said second distance is a distance between the control apparatus and at least one user , - the control apparatus comprises a distance calculator configured to receive said first information and to calculate at least one distance between respective ones of said at least one light source and said at least one user based on said first information and on information of said first and second directions, - the control apparatus comprises a lighting control unit configured to receive second information indicative of said calculated at least one distance and to transmit control information based on said second information to at least one of said at least one light source, and - said first control signal is one of: said first information in transmitted form, said control information.
3-(5-Fluoroindolyl)-4-phenylmaleimide compounds of formula (I) wherein R 1 is methoxy; and R 2 is (CH 3 ) 2 CHCH 2 CH(NH 2 )C(O)OCH 2 CH 2 -, hydroxyethyl or hydroxypropyl; and the physiologically acceptable salts, solvates and solvates of the salts of the compounds of formula (I). R 1 is methoxy; and R 2 is (CH 3 ) 2 CHCH 2 CH(NH 2 )C(O)OCH 2 CH 2 -, hydroxyethyl or hydroxypropyl;
An apparatus to facilitate three-dimensional virtual imaging on computing devices comprising: computation and segmentation logic of a rendering engine to compute depth information of a real object based on high-resolution imagery of the real object and to segment, based on the depth information, the real object from a background associated with the real object ; dynamic 3D image computation and projection logic of the rendering engine to receive the depth information and object segmentation data relating to the high-resolution imagery of the real object and use this information to interpolate the imagery to generate a virtual 3D model of the real object , and to compute, based on the virtual 3D model, a unified surface image of the real object that is to be projected by two or more projectors onto a deformable surface , said deformable surface changing its geometry to match the depth information; and virtual image generation and rendering logic of the rendering engine to generate and render a virtual image of the real object via an optical imaging plate based on the unified surface image , wherein the optical imaging plate is configured to reverse the depth direction and contains an array of corner cube reflectors that are configured to optically re-image said deformable surface to form a real 3D virtual image of that in mid-air, wherein the unified surface image is reversed via the optical imaging plate and rendered in mid-air in front of the imaging plate in the same space as a viewer. computation and segmentation logic of a rendering engine to compute depth information of a real object based on high-resolution imagery of the real object and to segment, based on the depth information, the real object from a background associated with the real object ; dynamic 3D image computation and projection logic of the rendering engine to receive the depth information and object segmentation data relating to the high-resolution imagery of the real object and use this information to interpolate the imagery to generate a virtual 3D model of the real object , and to compute, based on the virtual 3D model, a unified surface image of the real object that is to be projected by two or more projectors onto a deformable surface , said deformable surface changing its geometry to match the depth information; and virtual image generation and rendering logic of the rendering engine to generate and render a virtual image of the real object via an optical imaging plate based on the unified surface image , wherein the optical imaging plate is configured to reverse the depth direction and contains an array of corner cube reflectors that are configured to optically re-image said deformable surface to form a real 3D virtual image of that in mid-air, wherein the unified surface image is reversed via the optical imaging plate and rendered in mid-air in front of the imaging plate in the same space as a viewer.