mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a silver particle coating composition for screen printing, said silver particle coating composition comprising: silver nano-particles whose surfaces are coated with a protective agent comprising an aliphatic hydrocarbon amine; and a dispersion solvent, wherein the dispersion solvent comprises a solvent selected from the group consisting of a glycol ether-based solvent and a glycol ester-based solvent, wherein the aliphatic hydrocarbon amine in the silver nano-particle comprises an aliphatic hydrocarbon monoamine (A) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total, and further comprises at least one of: an aliphatic hydrocarbon monoamine (B) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine (C) comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total. silver nano-particles whose surfaces are coated with a protective agent comprising an aliphatic hydrocarbon amine; and a dispersion solvent, wherein the dispersion solvent comprises a solvent selected from the group consisting of a glycol ether-based solvent and a glycol ester-based solvent, wherein the aliphatic hydrocarbon amine in the silver nano-particle comprises an aliphatic hydrocarbon monoamine (A) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 6 or more carbon atoms in total, and further comprises at least one of: an aliphatic hydrocarbon monoamine (B) comprising an aliphatic hydrocarbon group and one amino group, said aliphatic hydrocarbon group having 5 or less carbon atoms in total; and an aliphatic hydrocarbon diamine (C) comprising an aliphatic hydrocarbon group and two amino groups, said aliphatic hydrocarbon group having 8 or less carbon atoms in total.
A sliding member comprising: a lead-free resin composition, wherein assuming weight of the resin composition as 100, the resin composition contains more than 10 weight% and 35 weight% or less of a pitch-based carbon fiber, wherein the resin composition further contains any of or a combination of two or more of an aramid fiber, an iron oxide, molybdenum disulfide, a graphite, and zinc, zinc alloy or zinc compound, more than 0 weight% and 14 weight% or less of the aramid fiber is contained when the aramid fiber is added; more than 0 weight% and 37 weight% or less of the iron oxide is contained when the iron oxide is added; more than 0 weight% and 20 weight% or less of the molybdenum disulfide is contained when the molybdenum disulfide is added; more than 0 weight% and 10 weight% or less of the graphite is contained when the graphite is added; more than 0 weight% and 40 weight% or less of the zinc, zinc alloy or zinc compound is contained when the zinc, zinc alloy or zinc compound is added, and the remainder is a fluororesin. a lead-free resin composition, wherein assuming weight of the resin composition as 100, the resin composition contains more than 10 weight% and 35 weight% or less of a pitch-based carbon fiber, wherein the resin composition further contains any of or a combination of two or more of an aramid fiber, an iron oxide, molybdenum disulfide, a graphite, and zinc, zinc alloy or zinc compound, more than 0 weight% and 14 weight% or less of the aramid fiber is contained when the aramid fiber is added; more than 0 weight% and 37 weight% or less of the iron oxide is contained when the iron oxide is added; more than 0 weight% and 20 weight% or less of the molybdenum disulfide is contained when the molybdenum disulfide is added; more than 0 weight% and 10 weight% or less of the graphite is contained when the graphite is added; more than 0 weight% and 40 weight% or less of the zinc, zinc alloy or zinc compound is contained when the zinc, zinc alloy or zinc compound is added, and the remainder is a fluororesin.
A method of manufacturing an LED assembly, the method comprising: providing an LED package comprising one or more LEDs arranged in a support body and comprising a thermal contact region on one or more surfaces of the support body ; providing a heatpipe, wherein the heatpipe is an elongated metal part and has a triangular cross-section; and thermally coupling the thermal contact region of the LED package and a first end region of the heatpipe, the thermally coupling including: performing electrolytic growth over the region of the first end region of the heatpipe to prepare a first nanowire field, performing electrolytic growth over the region of the thermal contact region of the support body to prepare a complementary second nanowire field, and pressing the LED package onto the heatpipe to engage the first nanowire field and the complementary second nanowire field. providing an LED package comprising one or more LEDs arranged in a support body and comprising a thermal contact region on one or more surfaces of the support body ; providing a heatpipe, wherein the heatpipe is an elongated metal part and has a triangular cross-section; and thermally coupling the thermal contact region of the LED package and a first end region of the heatpipe, the thermally coupling including: performing electrolytic growth over the region of the first end region of the heatpipe to prepare a first nanowire field, performing electrolytic growth over the region of the thermal contact region of the support body to prepare a complementary second nanowire field, and pressing the LED package onto the heatpipe to engage the first nanowire field and the complementary second nanowire field. performing electrolytic growth over the region of the first end region of the heatpipe to prepare a first nanowire field, performing electrolytic growth over the region of the thermal contact region of the support body to prepare a complementary second nanowire field, and pressing the LED package onto the heatpipe to engage the first nanowire field and the complementary second nanowire field.
A light source comprising: a pump source configured to produce a continuous wave pump beam; an Optical Parametric Oscillator , OPO, comprising an optical cavity containing a nonlinear crystal configured to receive the continuous wave pump beam and produce a first output light beam and a second output light beam, the OPO having an OPO-oscillation threshold level; and a longitudinal mode-scrambling mechanism disposed on the resonant OPO-wave, wherein the pump source is configured to produce the pump beam at a power exceeding about 3 times the OPO-oscillation threshold level such that the OPO produces broadband and/or multi-mode emission comprising more than three longitudinal modes emission with a broadband and multimode bandwidth greater than 300 GHz, and the optical cavity is configured to resonate the first output light beam in a multi-longitudinal resonant mode. a pump source configured to produce a continuous wave pump beam; an Optical Parametric Oscillator , OPO, comprising an optical cavity containing a nonlinear crystal configured to receive the continuous wave pump beam and produce a first output light beam and a second output light beam, the OPO having an OPO-oscillation threshold level; and a longitudinal mode-scrambling mechanism disposed on the resonant OPO-wave, wherein the pump source is configured to produce the pump beam at a power exceeding about 3 times the OPO-oscillation threshold level such that the OPO produces broadband and/or multi-mode emission comprising more than three longitudinal modes emission with a broadband and multimode bandwidth greater than 300 GHz, and the optical cavity is configured to resonate the first output light beam in a multi-longitudinal resonant mode.
Method for operating a terminal in a wireless communication network, the terminal being adapted for dual connectivity, the method comprising determining a total configured maximum output power P CMAX of the terminal based on a synchronization level, the terminal being connected to a master network node via a master cell group, MCG, and to a secondary network node via a secondary cell group, SCG; characterised in that when a subframe p of the MCG overlaps with a subframe q of the SCG such that the first slot of subframe p overlaps with the first slot of subframe q, and subframe q leads in time compared to subframe p, subframe q is defined as reference subframe, and P CMAX for the reference subframe is determined considering the subframes p-1 and p of the MCG.
A lancing device for infant with an actuating button adapted for safely rotating and unlocking, comprising a shell and an actuating lancing system; said actuating lancing system comprising a triggering and actuating mechanism and an edge lancing mechanism; said edge lancing mechanism having a blade and a blade base ; or, said edge lancing mechanism formed as one integral element with lancing edge; said triggering and actuating mechanism is a pushing actuating-type structure, including a push-shooting button and an actuating arm , said push-shooting button slidably located on said shell and switching between two positions with respect to said shell by movement therebetween; wherein said push-shooting button is exposed to outside of said shell , said push-shooting button occupies two kinds of position attitudes during a sliding path with respect to said shell ; a first one attitude is an insurance lock-out state/position that said push-shooting button is locked to avoid an undesired trigger before actuation, and a second one attitude is a state that leaves away from the first one attitude where said push-shooting button is readily loaded to-be-launched/shot; during lancing, said push-shooting button is firstly locked in the insurance lock-out state/position and then rotated and loaded to a to-be-launch state/position; when the push-shooting button is pressed inwards, said blade base is actuated with said blade projecting from a lancing opening of said shell to make a V-shaped or an arc-shaped cut on a subject's skin and then retracted back into said shell. said actuating lancing system comprising a triggering and actuating mechanism and an edge lancing mechanism; said edge lancing mechanism having a blade and a blade base ; or, said edge lancing mechanism formed as one integral element with lancing edge; said triggering and actuating mechanism is a pushing actuating-type structure, including a push-shooting button and an actuating arm , said push-shooting button slidably located on said shell and switching between two positions with respect to said shell by movement therebetween; wherein said push-shooting button is exposed to outside of said shell , said push-shooting button occupies two kinds of position attitudes during a sliding path with respect to said shell ; a first one attitude is an insurance lock-out state/position that said push-shooting button is locked to avoid an undesired trigger before actuation, and a second one attitude is a state that leaves away from the first one attitude where said push-shooting button is readily loaded to-be-launched/shot; during lancing, said push-shooting button is firstly locked in the insurance lock-out state/position and then rotated and loaded to a to-be-launch state/position; when the push-shooting button is pressed inwards, said blade base is actuated with said blade projecting from a lancing opening of said shell to make a V-shaped or an arc-shaped cut on a subject's skin and then retracted back into said shell.
Nozzle body which is produced from a thermoplastic material by an injection moulding process or 3D printing process, the nozzle body having at least two hollow cone nozzle geometries each with a nozzle bore and a swirl chamber , characterized in that the swirl chamber has an asymmetrical cone geometry and is connected to a swirl channel .
Oxy-fuel torch comprising: - a handle by which the torch can be manipulated, - at least two gas channels arranged through said handle for conveying at least a flow of fuel gas and a flow of oxidizing gas between respective inlets ports and outlet ports , - inlet connectors in fluidic communication with each inlet ports , the inlet connectors being configured to fluidly connect each inlet port to a corresponding gas hose via intermediate connection means , wherein each inlet connector is a non-threaded connector, and - intermediate connection means configured to fluidly connect each inlet connectors to a corresponding gas hose, characterized in that each inlet connector is permanently connected with each respective inlet port , and in that the intermediate connection means are configured to be mechanically fastened independently from each other to the inlet connector at a one end, and are configured to be mechanically fastened to gas hose connectors at another end. - a handle by which the torch can be manipulated, - at least two gas channels arranged through said handle for conveying at least a flow of fuel gas and a flow of oxidizing gas between respective inlets ports and outlet ports , - inlet connectors in fluidic communication with each inlet ports , the inlet connectors being configured to fluidly connect each inlet port to a corresponding gas hose via intermediate connection means , wherein each inlet connector is a non-threaded connector, and - intermediate connection means configured to fluidly connect each inlet connectors to a corresponding gas hose,
A slide rail assembly being mounted to a first post of a rack and to a second post of the rack, comprising: a first frame , a second frame and a third frame movable longitudinally relative to each other; the first frame configured to accommodate and support a part of the second frame ; the second frame used to accommodate and support a part of the third frame ; a first rail , a second rail and a third rail respectively mounted on the first frame , the second frame and the third frame , and the first rail , the second rail and the third rail being located on the same side of the slide rail assembly ; a corresponding passage defined by the first rail , the second rail and the third rail ; and a movable rail , able to be mounted in the passage through one of the first rail and the third rail ; wherein the first rail , the second rail , and the third rail respectively comprises a first wall , a second wall , and a longitudinal wall connected between the first wall and the second wall , and the passage is defined by the first wall , the second wall , and the longitudinal wall of the first rail , the second rail , and the third rail ; wherein the passage is located between a front end (f) of the first rail and a rear end (r) of the third rail ; wherein the first rail and the third rail are capable of being in the extended state or the retracted state relative to each other. a first frame , a second frame and a third frame movable longitudinally relative to each other; the first frame configured to accommodate and support a part of the second frame ; the second frame used to accommodate and support a part of the third frame ; a first rail , a second rail and a third rail respectively mounted on the first frame , the second frame and the third frame , and the first rail , the second rail and the third rail being located on the same side of the slide rail assembly ; a corresponding passage defined by the first rail , the second rail and the third rail ; and a movable rail , able to be mounted in the passage through one of the first rail and the third rail ; wherein the first rail , the second rail , and the third rail respectively comprises a first wall , a second wall , and a longitudinal wall connected between the first wall and the second wall , and the passage is defined by the first wall , the second wall , and the longitudinal wall of the first rail , the second rail , and the third rail ; wherein the passage is located between a front end (f) of the first rail and a rear end (r) of the third rail ; wherein the first rail and the third rail are capable of being in the extended state or the retracted state relative to each other.
A thermal transfer image receiving sheet of the type which comprises a heat-insulating layer, an undercoat layer and a dye-receiving layer successively stacked on one surface of a substrate, characterized in that the undercoat layer comprises as a main component a polycondensate formed by using at least one of an alkoxide represented by the following formula , a hydrolyzate of an alkoxide and tin chloride, a water-soluble polymer, a vinyl pyrrolidone-vinyl imidazole copolymer, and a urethane resin, wherein the total amount of the at least one of an alkoxide, a hydrolyzate of an alkoxide and tin chloride, the water-soluble polymer, the vinyl pyrrolidone-vinyl imidazole copolymer and the urethane resin is greater than 50 mass% relative to the total of the undercoat layer after its formation; M(OR)n ... wherein, in the general formula , M represents a metal, R represents an alkyl group, and n is an integer of 1 to 4 that differs depending on the type of M.
A method of decoding video data, the method comprising: storing, by a video decoder and in a buffer, a set of reconstructed blocks of a current picture of the video data; determining, for the current block of the current picture a reference picture list index value into a reference picture list, which includes the current picture and at least one other picture and in which the current picture has a fixed index value; when the reference picture list index value determined for the current block has the fixed index value, determining, for the current block, a position of a reference block in the current picture, the reference block being a block among the set of reconstructed blocks of the current picture; forming a predictor block from the reference block among the set of reconstructed blocks of the current picture stored in the buffer; and reconstructing, by the video decoder, the current block of the video data based on the predictor block. storing, by a video decoder and in a buffer, a set of reconstructed blocks of a current picture of the video data; determining, for the current block of the current picture a reference picture list index value into a reference picture list, which includes the current picture and at least one other picture and in which the current picture has a fixed index value; when the reference picture list index value determined for the current block has the fixed index value, determining, for the current block, a position of a reference block in the current picture, the reference block being a block among the set of reconstructed blocks of the current picture; forming a predictor block from the reference block among the set of reconstructed blocks of the current picture stored in the buffer; and reconstructing, by the video decoder, the current block of the video data based on the predictor block.
A method of manufacturing a cetane-boosting fuel additive, the method comprising reacting formaldehyde and 2-ethylhexanol at a mole ratio of 10:1 to 1:1, or 5:1 to 1.5:1, or 4:1 to 2:1, or 3.5:1 to 2.5:1 in the presence of a heterogeneous acid catalyst at a temperature of 300 to 375 °K to obtain a cetane-boosting product mixture comprising H 3 C(CH 2 ) 3 CH(CH 2 CH 3 )CH 2 (OCH 2 ) n OH, H 3 C(CH 2 ) 3 CH(CH 2 CH 3 )CH 2 (OCH 2 ) n OCH 2 CH(CH 2 CH 3 )(CH 2 ) 3 CH 3 , or a combination thereof, wherein n has an average value of 2.8 to 3.2, preferably an average value of 3.
A humanized monoclonal antibody, or antigen-binding portion thereof, that binds specifically Staphylococcus aureus glucosaminidase, inhibits in vivo growth of S . aureus and comprises the complementarity determining region sequences of either: (i) amino acid residues TYGMS (CDRH1), WINTYSGVPTYADDFKG (CDRH2), and EEYSSGYAAWFP (CDRH3) of SEQ ID NO: 5 and amino acid residues RASQSISN (CDRL1), YASRSIS (CDRL2), and QQSNSWP (CDRL3) of SEQ ID NO: 12; (ii) amino acid residues DYYMN (CDRH1), VINPYNGDTTYSQKFKG (CDRH2), and NYDEYFDV (CDRH3) of SEQ ID NO: 1 and amino acid residues SASSSVS (CDRL1), DTSNLAS (CDRL2), and QQWSSYP (CDRL3) of SEQ ID NO: 8; (iii) amino acid residues DYFMN (CDRH1), VINPFNGGNRYNQNFKG (CDRH2), and DYDSPWFDY (CDRH3) of SEQ ID NO: 2 and amino acid residues SASQGISN (CDRL1), YTSSLHS (CDRL2), and QQYSKLP (CDRL3) of SEQ ID NO: 9; (iv) amino acid residues TYVMS (CDRH1), TISDGGGHTYYLDNVKG (CDRH2), and YYGSSYDAMDY (CDRH3) of SEQ ID NO: 3 and amino acid residues TASSSVSSS (CDRL1), STSNLAS (CDRL2), and HQYHRSP (CDRL3) of SEQ ID NO: 10; or (v) amino acid residues DAWMD (CDRH1), EIKDKTNNHATYYAESVKG (CDRH2), and PYFDY (CDRH3) of SEQ ID NO: 4 and amino acid residues KASQDVST (CDRL1), WTSTRHT (CDRL2), and QQHYTTP (CDRL3) of SEQ ID NO: 11. (i) amino acid residues TYGMS (CDRH1), WINTYSGVPTYADDFKG (CDRH2), and EEYSSGYAAWFP (CDRH3) of SEQ ID NO: 5 and amino acid residues RASQSISN (CDRL1), YASRSIS (CDRL2), and QQSNSWP (CDRL3) of SEQ ID NO: 12; (ii) amino acid residues DYYMN (CDRH1), VINPYNGDTTYSQKFKG (CDRH2), and NYDEYFDV (CDRH3) of SEQ ID NO: 1 and amino acid residues SASSSVS (CDRL1), DTSNLAS (CDRL2), and QQWSSYP (CDRL3) of SEQ ID NO: 8; (iii) amino acid residues DYFMN (CDRH1), VINPFNGGNRYNQNFKG (CDRH2), and DYDSPWFDY (CDRH3) of SEQ ID NO: 2 and amino acid residues SASQGISN (CDRL1), YTSSLHS (CDRL2), and QQYSKLP (CDRL3) of SEQ ID NO: 9; (iv) amino acid residues TYVMS (CDRH1), TISDGGGHTYYLDNVKG (CDRH2), and YYGSSYDAMDY (CDRH3) of SEQ ID NO: 3 and amino acid residues TASSSVSSS (CDRL1), STSNLAS (CDRL2), and HQYHRSP (CDRL3) of SEQ ID NO: 10; or (v) amino acid residues DAWMD (CDRH1), EIKDKTNNHATYYAESVKG (CDRH2), and PYFDY (CDRH3) of SEQ ID NO: 4 and amino acid residues KASQDVST (CDRL1), WTSTRHT (CDRL2), and QQHYTTP (CDRL3) of SEQ ID NO: 11.
A method for establishing connection between a first terminal and a second terminal, the method being performed at the first terminal, the method comprising: establishing (S101), at the first terminal, a P2P group over a wireless local area network; determining (S102) an SSID and a connection password of the P2P group; and sending (SI03) the SSID and the connection password to the second terminal by broadcasting a WIFI frame so that the second terminal is connected with the first terminal via the P2P group according to the SSID and the connection password; wherein the WIFI frame is a Probe Request frame, and the SSID and the connection password are placed in an SSID field of the Probe Request frame. establishing (S101), at the first terminal, a P2P group over a wireless local area network; determining (S102) an SSID and a connection password of the P2P group; and sending (SI03) the SSID and the connection password to the second terminal by broadcasting a WIFI frame so that the second terminal is connected with the first terminal via the P2P group according to the SSID and the connection password; wherein the WIFI frame is a Probe Request frame, and the SSID and the connection password are placed in an SSID field of the Probe Request frame.