mhurhangee/patent-ind-claim-en huggingface dataset:
A method of adjusting transmission power of a terminal performed by the terminal, comprising: connecting (S11) to an accession point of a wireless network; obtaining (S12) a connection state of the terminal connecting to the accession point; calculating (S13) a connection evaluation score based on the connection state; obtaining (S14) a state of a screen of the terminal, setting a threshold connection score based on the state of the screen of the terminal; comparing (S15) the connection evaluation score to the threshold connection score; and reducing (S16) the transmission power of the terminal connecting to the wireless network in response to the connection evaluation score being greater than the threshold connection score; characterized in that the setting (S14) the threshold connection score based on the state of the screen comprises: setting a first threshold connection score in response to the screen being in black; setting a second threshold connection score in response to the screen being bright; and the first threshold connection score is less than the second threshold connection score. connecting (S11) to an accession point of a wireless network; obtaining (S12) a connection state of the terminal connecting to the accession point; calculating (S13) a connection evaluation score based on the connection state; obtaining (S14) a state of a screen of the terminal, setting a threshold connection score based on the state of the screen of the terminal; comparing (S15) the connection evaluation score to the threshold connection score; and reducing (S16) the transmission power of the terminal connecting to the wireless network in response to the connection evaluation score being greater than the threshold connection score; characterized in that the setting (S14) the threshold connection score based on the state of the screen comprises: setting a first threshold connection score in response to the screen being in black; setting a second threshold connection score in response to the screen being bright; and the first threshold connection score is less than the second threshold connection score. setting a first threshold connection score in response to the screen being in black; setting a second threshold connection score in response to the screen being bright; and the first threshold connection score is less than the second threshold connection score.
A method of laser machining a substrate to form a stent, comprising: providing a tube comprising a polymer and an absorber; and laser machining the polymer tube with a laser beam to form a scaffold, wherein the laser beam has a pulse width that provides multiphoton absorption of laser energy from the laser beam , characterized in that the laser beam has a wavelength such that the extinction coefficient of the polymer at the laser beam wavelength is less than 5% of the extinction coefficient of the polymer at one half the laser beam wavelength, and in that the absorber has a maximum absorbance at a wavelength within 50 nm of one half the laser beam wavelength and the extinction coefficient or weight percent extinction coefficient of the absorber is at least two times larger at one half the laser wavelength than the extinction coefficient or weight percent extinction coefficient of the polymer at one half the laser wavelength, and in that the absorber absorbs laser energy through multiphoton absorption mechanism at one half the laser wavelength which increases absorption of the laser energy in the tube , and further characterized by cutting through the wall in one pass of the laser beam using laser cutting speed of 10.2 - 50.8 cm/min (4 to 20 in/min) to form the scaffold. providing a tube comprising a polymer and an absorber; and laser machining the polymer tube with a laser beam to form a scaffold, wherein the laser beam has a pulse width that provides multiphoton absorption of laser energy from the laser beam , characterized in that the laser beam has a wavelength such that the extinction coefficient of the polymer at the laser beam wavelength is less than 5% of the extinction coefficient of the polymer at one half the laser beam wavelength, and in that the absorber has a maximum absorbance at a wavelength within 50 nm of one half the laser beam wavelength and the extinction coefficient or weight percent extinction coefficient of the absorber is at least two times larger at one half the laser wavelength than the extinction coefficient or weight percent extinction coefficient of the polymer at one half the laser wavelength, and in that the absorber absorbs laser energy through multiphoton absorption mechanism at one half the laser wavelength which increases absorption of the laser energy in the tube , and further characterized by cutting through the wall in one pass of the laser beam using laser cutting speed of 10.2 - 50.8 cm/min (4 to 20 in/min) to form the scaffold.
A nitrile rubber composition comprising a filler (B) in a content of 50 to 90 parts by weight and an adipic acid ester-based plasticizer and/or an ether ester-based plasticizer (C) in a content of 5 to 27.5 parts by weight in relation to 100 parts by weight of a nitrile group-containing highly saturated copolymer rubber (A) comprising an α,β-ethylenically unsaturated nitrile monomer unit in a proportion of 14 wt% or more to 20.5 wt%, and having an iodine value of 120 or less, wherein a mixture obtained by mixing two or more types of rubbers each having a different monomer composition and/or a different iodine value is used as the nitrile group-containing highly saturated copolymer rubber (A).
A method, comprising: establishing a secure hypertext transfer protocol (HTTPS) connection between a media server and one or more cameras selected by a client device through a web browser application; establishing a websocket secure (WSS) connection between the media server and the web browser application of the client device; receiving, at the media server, media chunks of live video from the selected one or more cameras through the HTTPS connection; and transmitting, from the media server, the media chunks of live video received from the selected one or more cameras to the web browser application of the client device through the WSS connection, wherein the media chunks are in fragmented MP4 format. establishing a secure hypertext transfer protocol (HTTPS) connection between a media server and one or more cameras selected by a client device through a web browser application; establishing a websocket secure (WSS) connection between the media server and the web browser application of the client device; receiving, at the media server, media chunks of live video from the selected one or more cameras through the HTTPS connection; and transmitting, from the media server, the media chunks of live video received from the selected one or more cameras to the web browser application of the client device through the WSS connection,
An apparatus comprising a first roller for moving a belt; a second roller for moving a belt; a belt tensioned around the first roller and the second roller; a deposition station positioned to face the belt, the deposition station comprising a first depositing element for depositing a first liquid comprising a first self-limiting monolayer forming material on the belt and affixing a monolayer of the first self-limiting monolayer forming material to the belt, a rinsing element downstream of the first depositing element to remove excess first liquid from the belt, and a second depositing element for depositing a second liquid comprising a second self-limiting monolayer forming material on the belt and affixing a monolayer of the second self-limiting monolayer forming material to the belt, the second depositing element being downstream of the rinsing element; and a directional gas curtain producing element and positioned downstream from the deposition station to provide a gas curtain blowing on the belt in an upstream direction that simultaneously meters liquid from the belt and dries the belt, wherein the apparatus does not include a rinsing element to remove the excess second liquid. a first roller for moving a belt; a second roller for moving a belt; a belt tensioned around the first roller and the second roller; a deposition station positioned to face the belt, the deposition station comprising a first depositing element for depositing a first liquid comprising a first self-limiting monolayer forming material on the belt and affixing a monolayer of the first self-limiting monolayer forming material to the belt, a rinsing element downstream of the first depositing element to remove excess first liquid from the belt, and a second depositing element for depositing a second liquid comprising a second self-limiting monolayer forming material on the belt and affixing a monolayer of the second self-limiting monolayer forming material to the belt, the second depositing element being downstream of the rinsing element; and a first depositing element for depositing a first liquid comprising a first self-limiting monolayer forming material on the belt and affixing a monolayer of the first self-limiting monolayer forming material to the belt, a rinsing element downstream of the first depositing element to remove excess first liquid from the belt, and a second depositing element for depositing a second liquid comprising a second self-limiting monolayer forming material on the belt and affixing a monolayer of the second self-limiting monolayer forming material to the belt, the second depositing element being downstream of the rinsing element; and a directional gas curtain producing element and positioned downstream from the deposition station to provide a gas curtain blowing on the belt in an upstream direction that simultaneously meters liquid from the belt and dries the belt, wherein the apparatus does not include a rinsing element to remove the excess second liquid.
A glass article comprising a glass composition, the glass composition comprising: SiO 2 in an amount in a range from 66 mol% to 80 mol%; Al 2 O 3 in an amount in a range from 2 mol% to 16 mol%; B 2 O 3 in an amount in a range from 0.9 mol% to 15 mol%; P 2 O 5 in an amount in a range from 1 mol% to 4 mol%; Li 2 O in an amount from 0.5 mol% to 12 mol%; a total amount of alkaline earth metal oxides that is in a range from 0 mol% to 2 mol%; and Na 2 O in an amount from 6 mol% to 15 mol%. SiO 2 in an amount in a range from 66 mol% to 80 mol%; Al 2 O 3 in an amount in a range from 2 mol% to 16 mol%; B 2 O 3 in an amount in a range from 0.9 mol% to 15 mol%; P 2 O 5 in an amount in a range from 1 mol% to 4 mol%; Li 2 O in an amount from 0.5 mol% to 12 mol%; a total amount of alkaline earth metal oxides that is in a range from 0 mol% to 2 mol%; and Na 2 O in an amount from 6 mol% to 15 mol%.
A method performed by a terminal (2e-01) in a wireless communication system, the method comprising: receiving (2e-10), from a base station (2e-02), a first radio resource control, RRC, reconfiguration message including first configuration information on a serving cell of the base station (2e-02), wherein the first configuration on the serving cell includes information on an uplink, UL, configuration for the serving cell and information on a supplementary uplink, SUL, configuration for the serving cell; communicating with the base station (2e-02) on an UL or an SUL, based on the information on the UL configuration or the information on the SUL configuration; receiving (2e-25), from the base station (2e-02), a second RRC reconfiguration message comprising reconfigurationwithsync and second configuration information on the serving cell, wherein the second configuration information on the serving cell includes the information on the UL configuration; and releasing the SUL configuration and applying only the UL configuration, in case that the second configuration information on the serving cell does not include the information on the SUL configuration, wherein a communication with the base station (2e-02) on the SUL is not performed, in case that a system information block type 1, SIB1, message including the information on the UL configuration and the information on the SUL configuration is received from the base station (2e-02), after releasing the SUL. receiving (2e-10), from a base station (2e-02), a first radio resource control, RRC, reconfiguration message including first configuration information on a serving cell of the base station (2e-02), wherein the first configuration on the serving cell includes information on an uplink, UL, configuration for the serving cell and information on a supplementary uplink, SUL, configuration for the serving cell; communicating with the base station (2e-02) on an UL or an SUL, based on the information on the UL configuration or the information on the SUL configuration; receiving (2e-25), from the base station (2e-02), a second RRC reconfiguration message comprising reconfigurationwithsync and second configuration information on the serving cell, wherein the second configuration information on the serving cell includes the information on the UL configuration; and releasing the SUL configuration and applying only the UL configuration, in case that the second configuration information on the serving cell does not include the information on the SUL configuration, wherein a communication with the base station (2e-02) on the SUL is not performed, in case that a system information block type 1, SIB1, message including the information on the UL configuration and the information on the SUL configuration is received from the base station (2e-02), after releasing the SUL.
Hexagonal plate-shaped zinc oxide particles having hexagonal-shaped surfaces, wherein the primary particle diameter is 0.01 μm or more and the aspect ratio is 2.5 or more, 50% or more of 250 particles in a transmission electron microscope photograph satisfy both the requirements and : the particle has a hexagonal-shaped surface; and Dmin/Dmax ≥ 0.3, where Dmax: a length of the largest diagonal line of three diagonal lines of the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle; and Dmin: a length of the smallest diagonal line of three diagonal lines of the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle, and the aspect ratio of the hexagonal plate-shaped zinc oxide particles is a value determined as a ratio of L/T where L is an average value of measured particle diameters (μm) of 250 particles, the particle diameter defined by a unidirectional diameter for particles in which the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle faces frontward (distance between two parallel lines in a fixed direction with a particle held therebetween; measurements are made in a fixed direction for particles in which the hexagonal-shaped surface on the image faces frontward), and T is an average value of measured thicknesses (μm) (length of the shorter side of rectangle) of 250 particles for particles in which the side surface of the hexagonal plate-shaped zinc oxide particle faces frontward (particles that appear rectangular), in a visual field of 2000 to 50000 magnification in a transmission electron microscope photograph or a scanning electron microscope photograph. the particle has a hexagonal-shaped surface; and Dmin/Dmax ≥ 0.3, where Dmax: a length of the largest diagonal line of three diagonal lines of the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle; and Dmin: a length of the smallest diagonal line of three diagonal lines of the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle, and Dmax: a length of the largest diagonal line of three diagonal lines of the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle; and Dmin: a length of the smallest diagonal line of three diagonal lines of the hexagonal-shaped surface of the hexagonal plate-shaped zinc oxide particle, and
A nucleic acid vector comprising an engineered host modifying (HM) CRISPR array for use in treating or preventing, in a human or animal subject, a condition or disease mediated by bacterial host cells by altering the relative ratio of sub-populations of first and second bacteria in a mixed population of bacteria, the second bacteria comprising host cells, wherein the mixed population is comprised by the subject, wherein the second sub-population consists of a different bacterial species to that of the first sub-population, wherein each host cell has a host target sequence and at least one nucleic acid sequence encoding a Cas nuclease endogenous to the host cell, wherein the engineered host modifying (HM) CRISPR array comprises a spacer sequence (HM-spacer) and repeats encoding a HM-crRNA, the HM-crRNA comprising a sequence that is capable of hybridising to the host target sequence; wherein the vector can transform the host cell, wherein the HM-crRNA guides the Cas nuclease to the target to modify the target sequence in the host cell, whereby the host cell is killed or host cell growth is reduced, wherein the nucleic acid vector is a plasmid vector comprised by a carrier bacterium, or the vector is a phage vector. wherein the second sub-population consists of a different bacterial species to that of the first sub-population, wherein each host cell has a host target sequence and at least one nucleic acid sequence encoding a Cas nuclease endogenous to the host cell, wherein the engineered host modifying (HM) CRISPR array comprises a spacer sequence (HM-spacer) and repeats encoding a HM-crRNA, the HM-crRNA comprising a sequence that is capable of hybridising to the host target sequence; wherein the vector can transform the host cell, wherein the HM-crRNA guides the Cas nuclease to the target to modify the target sequence in the host cell, whereby the host cell is killed or host cell growth is reduced, wherein the nucleic acid vector is a plasmid vector comprised by a carrier bacterium, or the vector is a phage vector.
An amplification optical fiber comprising: a core doped with an active element, through which multi-mode light can propagate; inner cladding surrounding the core and having a refractive index lower than a refractive index of the core; and outer cladding surrounding the inner cladding and having a refractive index lower than the refractive index of the inner cladding, wherein the inner cladding has a polygonal outline in a cross section perpendicular to a longitudinal direction, and the inner cladding has a permanent twist around a central axis of the core characterized in that : the twist has three or more but less than 30 turns per a length of one meter in a direction parallel to the longitudinal direction. a core doped with an active element, through which multi-mode light can propagate; inner cladding surrounding the core and having a refractive index lower than a refractive index of the core; and outer cladding surrounding the inner cladding and having a refractive index lower than the refractive index of the inner cladding, wherein the inner cladding has a polygonal outline in a cross section perpendicular to a longitudinal direction, and the inner cladding has a permanent twist around a central axis of the core characterized in that : the twist has three or more but less than 30 turns per a length of one meter in a direction parallel to the longitudinal direction.
A yarn tension sensor for weaving lines, which comprises: - a support , - a flexible arm which has a fixed end which is integral with the support , - a contact rod which extends laterally from a moveable end of said flexible arm and can be engaged slideably by a yarn (Y) proximate to a free end of the contact rod, said moveable end being adapted to move in relation to the tension variations of said yarn (Y), - a detection assembly adapted to generate a signal that is variable in relation to the movement of said moveable end , said contact rod being provided with a retention element which is shaped so as to laterally retain the yarn (Y) at least on the side of the free end, characterized in that said flexible arm consists of an elongated body which has, proximate to said fixed end , at least two recesses on respective opposite sides with respect to the flexing direction, said recesses being offset longitudinally so as to form a reduced-thickness area which is elastically flexible about an axis (C). - a support , - a flexible arm which has a fixed end which is integral with the support , - a contact rod which extends laterally from a moveable end of said flexible arm and can be engaged slideably by a yarn (Y) proximate to a free end of the contact rod, said moveable end being adapted to move in relation to the tension variations of said yarn (Y), - a detection assembly adapted to generate a signal that is variable in relation to the movement of said moveable end , said contact rod being provided with a retention element which is shaped so as to laterally retain the yarn (Y) at least on the side of the free end, characterized in that said flexible arm consists of an elongated body which has, proximate to said fixed end , at least two recesses on respective opposite sides with respect to the flexing direction, said recesses being offset longitudinally so as to form a reduced-thickness area which is elastically flexible about an axis (C).
A preparation method for ultralight thermal-insulating melt-blown non-woven fabric, wherein the preparation method comprises the following steps: preparing an aerogel-modified polypropylene, the preparation method for the aerogel-modified polypropylene comprises the following steps: before or during an in-situ polymerization reaction, adding aerogel to blend with reaction materials with low viscosities, thereby implementing uniform dispersion of the aerogel to prepare the aerogel-modified polypropylene through a propylene polymerization process; wherein the reaction materials comprises a propylene monomer, a catalyst, and an additive, without adding any dispersing additives, and the aerogel has a granularity falling within a range from 20 nm to 100 μm, a porosity falling within a range from 40% to 99.9%, and a stacking density falling within a range from 3 to 500 g/L; and enabling the aerogel-modified polypropylene to enter a melt-blown device to prepare the ultralight thermal-insulating melt-blown non-woven fabric; wherein the aerogel-modified polypropylene comprises 20-60% of the volume of the thermal-insulating melt-blown non-woven fabric. before or during an in-situ polymerization reaction, adding aerogel to blend with reaction materials with low viscosities, thereby implementing uniform dispersion of the aerogel to prepare the aerogel-modified polypropylene through a propylene polymerization process; wherein the reaction materials comprises a propylene monomer, a catalyst, and an additive, without adding any dispersing additives, and the aerogel has a granularity falling within a range from 20 nm to 100 μm, a porosity falling within a range from 40% to 99.9%, and a stacking density falling within a range from 3 to 500 g/L; and enabling the aerogel-modified polypropylene to enter a melt-blown device to prepare the ultralight thermal-insulating melt-blown non-woven fabric; wherein the aerogel-modified polypropylene comprises 20-60% of the volume of the thermal-insulating melt-blown non-woven fabric.
Power-transmission belt with a belt body , on which a power-transmission zone is configured, where the entire belt body or a belt layer which comprises the power-transmission zone is composed of an ethylene-alpha-olefin (EAO) elastomer, and where a coating made of a thermoplastic elastomer (TPE) lies directly on the power-transmission zone , characterized in that the thermoplastic elastomer of the coating is a TPEO or TPEV of the thermoplastic polyolefin (PO)/ethylene-alpha-olefin (EAO) elastomer type whose polyolefin content is 5 to 35% by weight, in that the coating consists of the thermoplastic elastomer, and in that the coating forms an exterior belt surface which during operation is directed towards the belt pulley, and forms a surface where the power-transmission zone acts on the belt pulley.