mhurhangee/patent-ind-claim-en huggingface dataset:
A service type discovery method performed by a mobile device that is within radio communication range of a wireless network , the method comprising: receiving a layer 2 frame that conveys an announcement of one or more service types available within or accessible via the wireless network, wherein the layer 2 frame comprises a plurality of fields , at least one of the fields being a service type mask field storing a bit mask wherein each bit indicates the availability of a specific type of service within or accessible via the wireless network; and determining from the announcement the one or more announced service types available within or accessible via the wireless network, the method further comprising: making a determination whether the mobile device can make use of any of the one or more announced service types; and providing the determination to a network selection algorithm within the mobile device. receiving a layer 2 frame that conveys an announcement of one or more service types available within or accessible via the wireless network, wherein the layer 2 frame comprises a plurality of fields , at least one of the fields being a service type mask field storing a bit mask wherein each bit indicates the availability of a specific type of service within or accessible via the wireless network; and determining from the announcement the one or more announced service types available within or accessible via the wireless network, the method further comprising: making a determination whether the mobile device can make use of any of the one or more announced service types; and providing the determination to a network selection algorithm within the mobile device. making a determination whether the mobile device can make use of any of the one or more announced service types; and providing the determination to a network selection algorithm within the mobile device.
A process for creating multiple tufts for a toothbrush, the process comprising: providing an initial filament bundle comprising a first plurality of individual filaments ; directing the initial filament bundle into a first channel ; causing the initial filament bundle to move through the first channel ; splitting the initial filament bundle into a plurality of tufts according to a predetermined pattern, each tuft comprising a second plurality of individual filaments; and directing the plurality of tufts into a plurality of second channels such that each of the plurality of tufts moves through its own second channel defining a shape of the tuft moving therethrough. providing an initial filament bundle comprising a first plurality of individual filaments ; directing the initial filament bundle into a first channel ; causing the initial filament bundle to move through the first channel ; splitting the initial filament bundle into a plurality of tufts according to a predetermined pattern, each tuft comprising a second plurality of individual filaments; and directing the plurality of tufts into a plurality of second channels such that each of the plurality of tufts moves through its own second channel defining a shape of the tuft moving therethrough.
A heat exchanger comprising a plurality of first heat exchange plates and second heat exchange plates that are connected sequentially and at an interval; the first heat exchange plates and the second heat exchange plates each comprise a heat exchange sheet and a heat exchange frame disposed on side ends of the heat exchange sheet , an air inlet and an air outlet being formed, respectively, on the heat exchange frame ; the side ends of the heat exchange sheet are formed with a matching snap projection in a direction away from the heat exchange frame ; the heat exchange frame is formed with a snap groove for matching with the snap projection ; the first heat exchange plates and the second heat exchange plates are in interference connection through the engagement between the snap projection and the snap groove ; an air channel is formed between a first heat exchange plate and an adjacent second heat exchange plate , the air inlet of the first heat exchange plate and the air inlet of the second heat exchange plate have different directions, and the air outlet of the first heat exchange plate and the air outlet of the second heat exchange plate have different directions, characterized in that the snap projection and the snap groove have a folding edge structure through the structure of the heat exchange frame that has folding edges, and in that the heat exchange sheet is made of a heat exchange film, while all other parts of the heat exchanger are made of other plastic materials and the heat exchange sheet and other parts are injection molded into an integral structure.
A threaded tubular connection comprising: a first tubular component including a female portion defined on an interior surface of the first tubular component, the female portion including an inner threaded portion and an outer threaded portion which are offset radially with respect to a longitudinal axis (X) of the first tubular component by a first shoulder ; the female outer threaded portion being closer from a female free end than the female inner threaded portion and a second tubular component including a male portion defined on an exterior surface of the second tubular component, the male portion to be inserted into the female portion, the male portion including an inner threaded portion and an outer threaded portion which are offset radially with respect to a longitudinal axis (X) of the second tubular component by a second shoulder , the second shoulder to abut the first shoulder once the male portion is connected to the female portion, wherein an inner end portion of the female portion comprises a conical section , characterized in that an inner end portion of the male portion extending between the male inner threaded portion and a male free end comprises a domed section , such that the domed section and the conical section contact to form a fluid tight seal once the male portion is connected to the female portion, the male domed section comprises extremities such that a farthest extremity of that domed section from the free end is at an axial length of that male free end less than 10 mm. a first tubular component including a female portion defined on an interior surface of the first tubular component, the female portion including an inner threaded portion and an outer threaded portion which are offset radially with respect to a longitudinal axis (X) of the first tubular component by a first shoulder ; the female outer threaded portion being closer from a female free end than the female inner threaded portion and a second tubular component including a male portion defined on an exterior surface of the second tubular component, the male portion to be inserted into the female portion, the male portion including an inner threaded portion and an outer threaded portion which are offset radially with respect to a longitudinal axis (X) of the second tubular component by a second shoulder , the second shoulder to abut the first shoulder once the male portion is connected to the female portion, wherein an inner end portion of the female portion comprises a conical section , characterized in that an inner end portion of the male portion extending between the male inner threaded portion and a male free end comprises a domed section , such that the domed section and the conical section contact to form a fluid tight seal once the male portion is connected to the female portion, the male domed section comprises extremities such that a farthest extremity of that domed section from the free end is at an axial length of that male free end less than 10 mm.
A receiver of signals likely to be disturbed by an interfering signal , the receiver comprising an interference rejection filter comprising a multiplying gain applied respectively to an in-phase channel (I) and to an in-quadrature channel (Q) of a signal received and digitised by the receiver, the value of the multiplying gain being determined by a nonlinear function K i (ρ) of the modulus p of the received signal, the function K i (ρ) being determined so as to maximise the signal-to-noise ratio after application of the multiplying gain and demodulation of the received signal, the receiver further comprising an estimator of a J/N ratio between the power of an interfering signal and the power of a thermal noise, the nonlinear function K i (ρ) depending on said J/N ratio, the value of the multiplicative gain being calculated from said J/N ratio and said modulus ρ of the received signal, the not linear K i (ρ) function depending on the probability density f(ρ) of the signal received, a function of the modulus p of the signal.
A magnetic flowmeter sensor for detecting a flow rate of a process fluid flow, the sensor comprising: a conduit for conducting the process fluid flow through the sensor; two sensor faces , one on each end of the conduit , for connecting the sensor to the process fluid flow; a liner lining the conduit for preventing physical contact between the process fluid flow and the conduit; the liner extending the full length of the conduit, and extending across at least a portion of each sensor face to form a planar sealing surface at each end of the sensor; characterized in that the liner includes a plurality of holes ; and a plurality of mechanical fasteners passing through the plurality of holes to mechanically attach the liner to the flowmeter sensor to prevent shifting of the liner, wherein the mechanical fasteners are attached to the sensor faces or to a housing on the side of the magnetic flowmeter sensor, are axially closer to a mid-point (M) between the two sensor faces than the planar sealing surfaces are to the mid-point (M), and wherein the plurality of mechanical fasteners do not extend beyond the planar sealing surface at each end of the sensor. a conduit for conducting the process fluid flow through the sensor; two sensor faces , one on each end of the conduit , for connecting the sensor to the process fluid flow; a liner lining the conduit for preventing physical contact between the process fluid flow and the conduit; the liner extending the full length of the conduit, and extending across at least a portion of each sensor face to form a planar sealing surface at each end of the sensor; characterized in that the liner includes a plurality of holes ; and a plurality of mechanical fasteners passing through the plurality of holes to mechanically attach the liner to the flowmeter sensor to prevent shifting of the liner, wherein the mechanical fasteners are attached to the sensor faces or to a housing on the side of the magnetic flowmeter sensor, are axially closer to a mid-point (M) between the two sensor faces than the planar sealing surfaces are to the mid-point (M), and wherein the plurality of mechanical fasteners do not extend beyond the planar sealing surface at each end of the sensor.
A compound of general formula (I): wherein R 1 is OCH 2 CH 2 OCH 3 or OCH 3 , R' 1 is H or OH, R 2 is Cl, F, Br or I, with the proviso that when: R 1 is OCH 2 CH 2 OCH 3 then R' 1 is H, R 1 is OCH 3 then R' 1 is OH, or a pharmaceutically acceptable salt and/or optical isomer, tautomer, solvate or isotopic variation thereof. R 1 is OCH 2 CH 2 OCH 3 or OCH 3 , R' 1 is H or OH, R 2 is Cl, F, Br or I, with the proviso that when: R 1 is OCH 2 CH 2 OCH 3 then R' 1 is H, R 1 is OCH 3 then R' 1 is OH, or a pharmaceutically acceptable salt and/or optical isomer, tautomer, solvate or isotopic variation thereof. R 1 is OCH 2 CH 2 OCH 3 then R' 1 is H, R 1 is OCH 3 then R' 1 is OH, or a pharmaceutically acceptable salt and/or optical isomer, tautomer, solvate or isotopic variation thereof.
A method for manufacturing an intravascular stent comprising: loading a multi-element stent comprising multiple individual stent elements onto an inflatable balloon such that the stent elements are positioned serially along a longitudinal length of the balloon and the stent elements do not touch one another, wherein the stent elements are spaced such that the stent elements do not touch one another at a target vessel location during skeletal movement; wherein the distance (G) between each stent element is based on a diameter (D) of the stent element in an expanded state at a target vessel location and an angle (Θ) created between stent elements during maximal flexion of the target vessel location during skeletal movement, wherein the angle (Θ) is governed by the maximum bend radius and the maximum individual stent element length for the target vessel location; wherein the stent is configured to be radially rigid and longitudinally flexible after implantation at the target vessel location; and wherein the distance (G) between each stent element is greater than or equal to D 2 2 1 − cosθ . loading a multi-element stent comprising multiple individual stent elements onto an inflatable balloon such that the stent elements are positioned serially along a longitudinal length of the balloon and the stent elements do not touch one another, wherein the stent elements are spaced such that the stent elements do not touch one another at a target vessel location during skeletal movement; wherein the distance (G) between each stent element is based on a diameter (D) of the stent element in an expanded state at a target vessel location and an angle (Θ) created between stent elements during maximal flexion of the target vessel location during skeletal movement, wherein the angle (Θ) is governed by the maximum bend radius and the maximum individual stent element length for the target vessel location; wherein the stent is configured to be radially rigid and longitudinally flexible after implantation at the target vessel location; and wherein the distance (G) between each stent element is greater than or equal to D 2 2 1 − cosθ .
A method in an electronic device (301; 503; 603), comprising: communicating, via a communication module of the electronic device (301; 503; 603), with an external device (501; 601); when the electronic device (301; 503; 603) is located at a first reference position , the first reference position being located at a first distance from the external device (501; 601) that is within a first predetermined range, receiving, from the external device (501; 601), information of a current location of the external device (501; 601) in communication with the electronic device (301; 503; 603); while the electronic device (301; 503; 603) is moved to a second reference position , the second reference position being a second distance from the external device (501; 601) that is larger than the first distance, receiving information of the current location of the external device (501; 601), if the current location is changed; when the electronic device (301; 503; 603) is moved to a first movement position from the second reference position, obtaining path information corresponding to a sequence of location changes according to movement of the electronic device (301; 503; 603) from the second reference position to the first movement position, and storing the path information; and controlling, by a processor , a display of the electronic device (301; 503; 603) to display guide information including a generated path from the first movement position to the second reference position utilizing the obtained path information. communicating, via a communication module of the electronic device (301; 503; 603), with an external device (501; 601); when the electronic device (301; 503; 603) is located at a first reference position , the first reference position being located at a first distance from the external device (501; 601) that is within a first predetermined range, receiving, from the external device (501; 601), information of a current location of the external device (501; 601) in communication with the electronic device (301; 503; 603); while the electronic device (301; 503; 603) is moved to a second reference position , the second reference position being a second distance from the external device (501; 601) that is larger than the first distance, receiving information of the current location of the external device (501; 601), if the current location is changed; when the electronic device (301; 503; 603) is moved to a first movement position from the second reference position, obtaining path information corresponding to a sequence of location changes according to movement of the electronic device (301; 503; 603) from the second reference position to the first movement position, and storing the path information; and controlling, by a processor , a display of the electronic device (301; 503; 603) to display guide information including a generated path from the first movement position to the second reference position utilizing the obtained path information.
A conotoxin peptide ω-CPTx-btl1, which is a polypeptide having the amino acid sequence shown in SEQ ID NO: 1.
An audio product for obtaining biologically-relevant information associated with a user comprising: a first electrode placed on an ear tip of the audio product; a second electrode placed on the audio product; a processor coupled to the first and second electrodes, wherein the processor is configured to: receive, via the first electrode or the second electrode, signals affected by an action of the user, infer one or more states of the user based on the signals received via the first electrode or the second electrode, wherein inferring the one or more states of the user includes processing the signals received via the first electrode or the second electrode to determine the presence of alpha waves in the signals received via the first electrode or the second electrode and determining the eyes of the user are closed in response to the determined presence of alpha waves; and take one or more actions to control a wireless device based on the one or more inferred states of the user, the one or more actions including adjusting a volume of music played by the wireless device or entering a low power mode at the wireless device; and an electroacoustic transducer coupled to the processor. a first electrode placed on an ear tip of the audio product; a second electrode placed on the audio product; a processor coupled to the first and second electrodes, wherein the processor is configured to: receive, via the first electrode or the second electrode, signals affected by an action of the user, infer one or more states of the user based on the signals received via the first electrode or the second electrode, wherein inferring the one or more states of the user includes processing the signals received via the first electrode or the second electrode to determine the presence of alpha waves in the signals received via the first electrode or the second electrode and determining the eyes of the user are closed in response to the determined presence of alpha waves; and take one or more actions to control a wireless device based on the one or more inferred states of the user, the one or more actions including adjusting a volume of music played by the wireless device or entering a low power mode at the wireless device; and receive, via the first electrode or the second electrode, signals affected by an action of the user, infer one or more states of the user based on the signals received via the first electrode or the second electrode, wherein inferring the one or more states of the user includes processing the signals received via the first electrode or the second electrode to determine the presence of alpha waves in the signals received via the first electrode or the second electrode and determining the eyes of the user are closed in response to the determined presence of alpha waves; and take one or more actions to control a wireless device based on the one or more inferred states of the user, the one or more actions including adjusting a volume of music played by the wireless device or entering a low power mode at the wireless device; and an electroacoustic transducer coupled to the processor.
Sanitary outlet piece for inserting into a fitting outlet, wherein the sanitary outlet piece has an inlet side , an outlet side and more than two, preferably at least three, hose connection points which are formed in a manner spaced apart from one another on the inlet side and are each guided to the outlet side , characterized in that a holding plate having at least three recesses corresponding to the hose connection points is formed, into which in each case one hose is insertable by an insertion movement oriented transversely with respect to a longitudinal direction of the respective hose , and therefore a plug-in system can be produced, in which the hoses are connectable to the hose connection points without being screwed in.
A soft magnetic resin composition comprising: flat soft magnetic particles and a resin component, wherein the soft magnetic particles have a tap density of 1.1 g/cm 3 or less, the resin component contains epoxy resin, phenol resin, and acrylic resin, and the phenol resin is at least one kind selected from a group consisting of novolak phenol resin, resole phenol resin, and polyoxystyrene. flat soft magnetic particles and a resin component, wherein the soft magnetic particles have a tap density of 1.1 g/cm 3 or less, the resin component contains epoxy resin, phenol resin, and acrylic resin, and the phenol resin is at least one kind selected from a group consisting of novolak phenol resin, resole phenol resin, and polyoxystyrene.
A method including: moving a print medium in a forward direction from a rotating media roll , from which the print medium is being output, ; causing friction on the print medium using a rotating wiper roll contacting the surface of the print medium at a rotation speed; determining a radius of the media roll ; and adapting , based on the determined radius of the media roll , the rotation speed of the wiper roll or a back tension exerted by the media roll on the print medium so as to control the friction caused by the rotating wiper roll on the print medium . moving a print medium in a forward direction from a rotating media roll , from which the print medium is being output, ; causing friction on the print medium using a rotating wiper roll contacting the surface of the print medium at a rotation speed; determining a radius of the media roll ; and adapting , based on the determined radius of the media roll , the rotation speed of the wiper roll or a back tension exerted by the media roll on the print medium so as to control the friction caused by the rotating wiper roll on the print medium .