mhurhangee/patent-ind-claim-en huggingface dataset:
An adjustment securing device comprising a bolt , a pin , a frame component and a molded part , the molded part being provided for securing the bolt both against rotation and against axial displacement, and having a base body , wherein in the base body a bolt receptacle for receiving the bolt is arranged, the molded part additionally having a retaining lug and a securing lug which each extend from the base body to a free end, wherein a through-bore for receiving the pin is arranged in the bolt , characterized in that a receptacle for the bolt and a recess for the securing lug are provided in the frame component . wherein in the base body a bolt receptacle for receiving the bolt is arranged, the molded part additionally having a retaining lug and a securing lug which each extend from the base body to a free end, wherein a through-bore for receiving the pin is arranged in the bolt , characterized in that a receptacle for the bolt and a recess for the securing lug are provided in the frame component .
A laminate sheet , comprising in successive order: a base film formed from one or more of a biodegradable, degradable, and compostable material; an emboss coat; a metal or reflective film layer ; a heat resistant layer ; an adhesive ; and a substrate , wherein the base film and substrate are positioned as respective outermost layers on opposite sides of the laminate sheet. a base film formed from one or more of a biodegradable, degradable, and compostable material; an emboss coat; a metal or reflective film layer ; a heat resistant layer ; an adhesive ; and a substrate , wherein the base film and substrate are positioned as respective outermost layers on opposite sides of the laminate sheet.
Composition comprising: a) at least one copolymer, at least one of the repeat units of which comprises at least one amide functional group, b) at least one polyether with a weight-average molecular weight (M w ) of greater than 60 g.mol -1 , preferably of greater than 100 g.mol -1 , and c) optionally, but preferentially, at least one organic solvent, composition wherein the copolymer, at least one of the repeat units of which comprises at least one amide functional group, is a copolymer, the amide functional groups of which are branched on the polymer chain ("pendant" amide functional groups), the nitrogen atoms of said amide functional groups can be substituted, and are preferably substituted, more preferably monosubstituted, more preferentially disubstituted. a) at least one copolymer, at least one of the repeat units of which comprises at least one amide functional group, b) at least one polyether with a weight-average molecular weight (M w ) of greater than 60 g.mol -1 , preferably of greater than 100 g.mol -1 , and c) optionally, but preferentially, at least one organic solvent,
A wall feed-through , configured for the displaceable guidance of a line, a cable or a rod, having a multi-part hard component and a one-part, radially circumferentially sealing sealing part , wherein each part of the hard component has a continuous recess , which extends in the state built into a wall in a direction pointing out from a plane lying parallel to the wall , wherein the recesses of the parts of the hard component in the assembled state form a feed-through opening , wherein each part of the hard component has a first receptacle in the recess , in which a soft component separate from the sealing part is arranged, wherein the respective soft components abut against one another in a sealing manner in the mounted state of the parts of the hard component and radially surround the feed-through opening , wherein the parts of the hard component have one or a plurality of latching devices , which latch with the wall after the introduction of the wall feed-through into a through-hole of the wall , wherein each part of the hard component has at least a second receptacle for the sealing part on an outer side, and wherein the sealing part has a sealing region , which seals the parts of the hard component , which are assembled and latched with the wall at least between the second receptacle and the wall .
A method for determining the accuracy of image segmentation in a patient-specific model, comprising: receiving volume data representative of a patient's joint; processing the volume data to create a three-dimensional surface model of a portion of the patient's joint; displaying the volume data and the surface model together on a monitor as an integrated image; intersecting the integrated image with a plane oblique to the volume data to produce a border curve, wherein the border curve is defined as an intersection of the plane and the surface model; and comparing the intersection of the volume data and the plane with the border curve to evaluate accuracy of the surface model, wherein the comparison comprises selecting a point on the surface model to designate a landmark point and highlighting the corresponding location of the point in the plane. receiving volume data representative of a patient's joint; processing the volume data to create a three-dimensional surface model of a portion of the patient's joint; displaying the volume data and the surface model together on a monitor as an integrated image; intersecting the integrated image with a plane oblique to the volume data to produce a border curve, wherein the border curve is defined as an intersection of the plane and the surface model; and comparing the intersection of the volume data and the plane with the border curve to evaluate accuracy of the surface model, wherein the comparison comprises selecting a point on the surface model to designate a landmark point and highlighting the corresponding location of the point in the plane.
A method at a user equipment comprising: receiving, while in a connected mode with a network element of a macro cell, a connection release message including a de-prioritization request; storing the de-prioritization request from the macro cell; in an idle mode of the user equipment, entering a closed subscriber group cell having a frequency within the de-prioritization request; configuring the frequency as a highest priority frequency while the user equipment detects the closed subscriber group cell; receiving from the closed subscriber group cell a de-prioritization request for the serving frequency or radio access technology; storing an indication of de-prioritization for the closed subscriber group cell; and avoiding reselecting to a closed subscriber group cell on a frequency or radio access technology which is de-prioritized. receiving, while in a connected mode with a network element of a macro cell, a connection release message including a de-prioritization request; storing the de-prioritization request from the macro cell; in an idle mode of the user equipment, entering a closed subscriber group cell having a frequency within the de-prioritization request; configuring the frequency as a highest priority frequency while the user equipment detects the closed subscriber group cell; in an idle mode of the user equipment, entering a closed subscriber group cell having a frequency within the de-prioritization request; configuring the frequency as a highest priority frequency while the user equipment detects the closed subscriber group cell; receiving from the closed subscriber group cell a de-prioritization request for the serving frequency or radio access technology; storing an indication of de-prioritization for the closed subscriber group cell; and avoiding reselecting to a closed subscriber group cell on a frequency or radio access technology which is de-prioritized.
An electronic device in a wireless communication system, comprising circuitry , configured to: receive a signal from other electronic device in the wireless communication system; arrange an analysis filter bank based on parameters of a Non-Perfect Reconstruction filter bank, decompose the received signal into multiple paths of subband signals using the analysis filter bank and perform analysis filtering; and eliminate, for each path of subband signal among the multiple paths of subband signals, inter-subband interference in each path of subband signal, based on each path of subband signal and its neighboring subband signals; wherein the circuitry is configured to: configure the parameters of the Non-Perfect Reconstruction filter bank based on a frequency band division requirement and/or a subband overlapping design requirement; and transmit at least a part of the parameters of the Non-Perfect Reconstruction filter bank to the other electronic device in the wireless communication system. receive a signal from other electronic device in the wireless communication system; arrange an analysis filter bank based on parameters of a Non-Perfect Reconstruction filter bank, decompose the received signal into multiple paths of subband signals using the analysis filter bank and perform analysis filtering; and eliminate, for each path of subband signal among the multiple paths of subband signals, inter-subband interference in each path of subband signal, based on each path of subband signal and its neighboring subband signals; wherein the circuitry is configured to: configure the parameters of the Non-Perfect Reconstruction filter bank based on a frequency band division requirement and/or a subband overlapping design requirement; and transmit at least a part of the parameters of the Non-Perfect Reconstruction filter bank to the other electronic device in the wireless communication system. configure the parameters of the Non-Perfect Reconstruction filter bank based on a frequency band division requirement and/or a subband overlapping design requirement; and transmit at least a part of the parameters of the Non-Perfect Reconstruction filter bank to the other electronic device in the wireless communication system.
A method comprising: at a server, receiving a client request for information; determining that the client request corresponds to an anticipated overload state with respect to request-handling capabilities of the server, wherein the anticipated overload state corresponds to a request buffer condition of a client request buffer; and in response to determining the client request causes the anticipated overload state, discarding the client request and returning a retry response to the client instructing the client to retry the client request after a time delay. at a server, receiving a client request for information; determining that the client request corresponds to an anticipated overload state with respect to request-handling capabilities of the server, wherein the anticipated overload state corresponds to a request buffer condition of a client request buffer; and in response to determining the client request causes the anticipated overload state, discarding the client request and returning a retry response to the client instructing the client to retry the client request after a time delay.
A method of power management comprising: providing an integrated circuit, IC, having an adaptive voltage scaling, AVS, controller; sensing at least one state of the IC or an environment of the IC; performing a first AVS operation on a voltage supplied to a portion of the IC using the AVS controller under a first condition, wherein the first condition comprises a power conservation mode of the IC, the first AVS operation configured to dynamically control the voltage based on the at least one sensed state; and performing a second AVS operation on the voltage supplied to the portion of the IC under a second condition, wherein the second condition comprises a high-performance mode of the IC, the second AVS operation configured to statically control the voltage independently of the at least one sensed state. providing an integrated circuit, IC, having an adaptive voltage scaling, AVS, controller; sensing at least one state of the IC or an environment of the IC; performing a first AVS operation on a voltage supplied to a portion of the IC using the AVS controller under a first condition, wherein the first condition comprises a power conservation mode of the IC, the first AVS operation configured to dynamically control the voltage based on the at least one sensed state; and performing a second AVS operation on the voltage supplied to the portion of the IC under a second condition, wherein the second condition comprises a high-performance mode of the IC, the second AVS operation configured to statically control the voltage independently of the at least one sensed state.
A device for detecting and possibly identifying at least one target inside a determined volume (V), said device comprising an image acquisition system , the image acquisition system comprising, - at least one infrared camera sensitive to waves whose wavelength is between 780 and 1400 nm, - a thermal camera sensitive to waves between 3000 and 14000 micrometers and - a camera , referred to as a visible camera, sensitive to waves between 350 and 780 nm, in that said cameras are mounted on a common support in the form of an elongated beam-like body, in that the cameras are disposed on the common support with the fields of vision of said cameras having an intersection zone corresponding to the volume (V) to be observed, in that the optical axes of said cameras disposed on the common support are distinct, in that the distance (D) between the optical axes of at least two of the cameras is between 10 cm and 2 m, in that the device comprises, for at least one of the cameras , at least one cover for protecting the optic of said camera , said cover being mounted so as to slide along an axis parallel to the longitudinal axis of the elongated common support for movement of the part , referred to as active part, of said cover between an active position for protecting the optic of the camera , in which the active part of the cover extends at least partially facing said optic of the camera , and an inactive position, in which the optic of the camera is non-masked, in that the active part of the cover is provided internally, on the surface side of the cover facing the optics in the active position of said active part of the cover , with a shield mounted so as to be able to move in the direction closer to or away from the active part of the cover , said shield forming, in a position moved away from the cover and in the active position of the cover , a chamber capping at least the optic of the camera , this chamber interposed between the cover and the optic of the camera isolating the optic of the camera from the cover . - at least one infrared camera sensitive to waves whose wavelength is between 780 and 1400 nm, - a thermal camera sensitive to waves between 3000 and 14000 micrometers and - a camera , referred to as a visible camera, sensitive to waves between 350 and 780 nm,
An aerosol-generating device comprising a heating element ; a dosing assembly comprising: a cutting mechanism disposed in a cutting region and configured to cut a portion from an aerosol-generating article received by the aerosol-generating device , the cutting mechanism comprising: a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction ; or a blade grid ; and a transfer mechanism configured to transfer a cut portion of the aerosol-generating article from the cutting region to the heating element . a heating element ; a dosing assembly comprising: a cutting mechanism disposed in a cutting region and configured to cut a portion from an aerosol-generating article received by the aerosol-generating device , the cutting mechanism comprising: a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction ; or a blade grid ; and a transfer mechanism configured to transfer a cut portion of the aerosol-generating article from the cutting region to the heating element . a cutting mechanism disposed in a cutting region and configured to cut a portion from an aerosol-generating article received by the aerosol-generating device , the cutting mechanism comprising: a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction ; or a blade grid ; and a punch cutter comprising a hollow core surrounded by a blade; or a first blade with a first cutting direction and a second blade with a second cutting direction ; or a blade grid ; and a transfer mechanism configured to transfer a cut portion of the aerosol-generating article from the cutting region to the heating element .
A combination therapy and imaging instrument, the instrument comprising: a therapy probe for producing energy to alter tissue; and an imaging probe proximate the therapy probe for imaging the tissue altered with the therapy probe; wherein the therapy probe and imaging probe comprise a connection means for removably connecting the therapy probe to the imaging probe; wherein the connection means comprises a key formed on one of the therapy probe and the imaging probe and a mating keyway formed on the other of the therapy probe and the imaging probe so as to enable direct connection between the therapy probe and the imaging probe; and the therapy probe and imaging probe are configured to be arranged side by side along a surface of the tissue. a therapy probe for producing energy to alter tissue; and an imaging probe proximate the therapy probe for imaging the tissue altered with the therapy probe; wherein the therapy probe and imaging probe comprise a connection means for removably connecting the therapy probe to the imaging probe; wherein the connection means comprises a key formed on one of the therapy probe and the imaging probe and a mating keyway formed on the other of the therapy probe and the imaging probe so as to enable direct connection between the therapy probe and the imaging probe; and the therapy probe and imaging probe are configured to be arranged side by side along a surface of the tissue.
A gas-assisted scraping tool having a housing with a blade support and a blade attached to and extending forwardly of the blade support, the blade support having a cavity that is connectable to a source of a pressurized gas, a diffuser is attached to the blade support to space the blade from the cavity, the diffuser is shaped to direct a stream (A) of the pressurized gas from within the cavity lengthwise along the blade and distribute the pressurized gas transversely across a width of the blade, whereby material loosened by the blade is blown away from an end of the blade by the stream of the pressurized gas; wherein the blade support includes a rear wall , a pair of opposing side walls , a top wall , and a front lip , which together with the diffuser define the cavity ; characterized in that the diffuser includes a plurality of spaced teeth extending across a forward edge thereof, forming a plurality of the gaps therebetween, and the plurality of spaced teeth are positioned between the blade and the front lip , such that the plurality of gaps , bounded by the blade and the front lip, form a plurality of channels from the cavity spaced across the width of the blade that direct the stream of the pressurized gas from the cavity lengthwise along the blade.
A device for producing droplets comprising a flow path comprising: a) one or more sample inlets ; b) one or more reagent inlets ; c) one or more oil inlets ; d) one or more collection reservoirs ; e) a first and a second sample channel , each in fluid communication with the one or more sample inlets ; f) a first and a second reagent channel , each in fluid communication with the one or more reagent inlets ; g) a first, second, third, and fourth oil channel in fluid communication with the one or more oil inlets ; h) a first intersection at which the first reagent channel and the first sample channel intersect; i) a second intersection at which the second reagent channel and the second sample channel intersect; j) a first and a second droplet channel , wherein the first droplet channel is in fluid communication with the first intersection and the one or more collection reservoirs and the second droplet channel is in fluid communication with the second intersection and the one or more collection reservoirs ; k) a third intersection at which the first and second oil channels and the first droplet channel intersect, wherein the third intersection is fluidically disposed between the first intersection and the one or more collection reservoirs ; and l) a fourth intersection at which the third and fourth oil channels and the second droplet channel intersect, wherein the fourth intersection is fluidically disposed between the second intersection and the one or more collection reservoirs . a) one or more sample inlets ; b) one or more reagent inlets ; c) one or more oil inlets ; d) one or more collection reservoirs ; e) a first and a second sample channel , each in fluid communication with the one or more sample inlets ; f) a first and a second reagent channel , each in fluid communication with the one or more reagent inlets ; g) a first, second, third, and fourth oil channel in fluid communication with the one or more oil inlets ; h) a first intersection at which the first reagent channel and the first sample channel intersect; i) a second intersection at which the second reagent channel and the second sample channel intersect; j) a first and a second droplet channel , wherein the first droplet channel is in fluid communication with the first intersection and the one or more collection reservoirs and the second droplet channel is in fluid communication with the second intersection and the one or more collection reservoirs ; k) a third intersection at which the first and second oil channels and the first droplet channel intersect, wherein the third intersection is fluidically disposed between the first intersection and the one or more collection reservoirs ; and l) a fourth intersection at which the third and fourth oil channels and the second droplet channel intersect, wherein the fourth intersection is fluidically disposed between the second intersection and the one or more collection reservoirs .
Sensor layer for determining temperature profiles on a skin surface, comprising a contact layer with the skin surface, wherein the sensor layer comprises a lower ply and an upper ply and the contact layer is arranged on a top side of the upper ply , and the contact layer can be in contact with the skin surface via its layer top side, wherein conductor tracks are arranged between the lower ply and the upper ply , which conductor tracks are electrically connected to a plurality of temperature sensors arranged on the top side of the upper ply , wherein each temperature sensor is connected between two conductor tracks by means of an electrical connection such that the sensor layer is formed to be flexible and a temperature difference on the skin surface can be determined via the contact layer , wherein the conductor tracks are formed by a conductive paste that is insensitive to stretching, bending, elongation and/or buckling and the conductive paste is arranged between the lower ply and the upper ply .