mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication module, comprising: a wireless communication interface configured to operate at different times as a master device and as a slave device in separate communication relationships using the same communication protocol, wherein the interface is configured to switch back and forth between a master device mode and a slave device mode, by interleaving periods of advertising as a potential master device with periods of observing as a potential slave device, wherein the wireless communication interface is configured to perform the interleaving by adopting a communication schedule comprising: during a listening period listening in the master device mode for advertising data transmitted from another wireless communication module operating in the slave device mode; and during an advertising period transmitting in the slave device mode advertising data for transfer to another wireless communication module operating in the master device mode. during a listening period listening in the master device mode for advertising data transmitted from another wireless communication module operating in the slave device mode; and during an advertising period transmitting in the slave device mode advertising data for transfer to another wireless communication module operating in the master device mode.
A method for accessing an Augmented Reality, AR, user context, characterized by comprising: a Mobile AR client collecting information related to AR user context accessing, wherein the information related to the AR user context accessing comprises: different AR terminal capabilities, or AR terminal positioning capability, or enabled network support capability; the Mobile AR client determining, according to the collected information and a current AR service environment, a demand and/or a status of the AR user context accessing; and the Mobile AR client managing the AR user context accessing according to the determined demand and/or status of the AR user context accessing, wherein managing the AR user context accessing comprises accessing an appropriate AR terminal capability, or optimizing the accessing of an AR terminal capability, or utilizing an enabled network support capability. a Mobile AR client collecting information related to AR user context accessing, wherein the information related to the AR user context accessing comprises: different AR terminal capabilities, or AR terminal positioning capability, or enabled network support capability; the Mobile AR client determining, according to the collected information and a current AR service environment, a demand and/or a status of the AR user context accessing; and the Mobile AR client managing the AR user context accessing according to the determined demand and/or status of the AR user context accessing, wherein managing the AR user context accessing comprises accessing an appropriate AR terminal capability, or optimizing the accessing of an AR terminal capability, or utilizing an enabled network support capability.
An apparatus for providing an output signal, the apparatus comprising: an input for receiving a reference signal; an oscillator for providing an output signal; an offset signal generator for frequency multiplying the reference signal to generate an offset signal, the offset signal containing a comb of unfiltered offset frequencies; a mixer for mixing the unfiltered offset frequencies with the output signal to produce an unfiltered combined signal; a difference detector for detecting a phase difference between the reference signal and the unfiltered combined signal to provide a control signal based on the detected difference; and an offset frequency selector for controllably selecting a particular frequency band of the control signal to select a single comb frequency to control the oscillator, such that the output signal is at a predetermined frequency. an input for receiving a reference signal; an oscillator for providing an output signal; an offset signal generator for frequency multiplying the reference signal to generate an offset signal, the offset signal containing a comb of unfiltered offset frequencies; a mixer for mixing the unfiltered offset frequencies with the output signal to produce an unfiltered combined signal; a difference detector for detecting a phase difference between the reference signal and the unfiltered combined signal to provide a control signal based on the detected difference; and an offset frequency selector for controllably selecting a particular frequency band of the control signal to select a single comb frequency to control the oscillator, such that the output signal is at a predetermined frequency.
A method for maintaining session continuity in a packet data network, comprising: communicating a plurality of packet data connections with a first radio access network using a first radio access technology; determining a trigger exists for selectively pre-registering a respective packet data context for a selected one of the plurality of packet data connections; and pre-registering the selected packet data context with a second radio access network that uses a second radio access technology via a data tunnel established by the first radio access network. communicating a plurality of packet data connections with a first radio access network using a first radio access technology; determining a trigger exists for selectively pre-registering a respective packet data context for a selected one of the plurality of packet data connections; and pre-registering the selected packet data context with a second radio access network that uses a second radio access technology via a data tunnel established by the first radio access network.
Process for producing a composite article at least partially made of metal, such as a disc for disc brake, comprising the following steps: i) coupling by force with interference a first component at least partially made of cast iron and a second component at least partially made of steel; ii) arranging one or more wires of filler material at one or more separation zones between said first and second component; iii) in an inert atmosphere, directing a laser beam mostly or exclusively on the steel of the second component and on the filler material for occupying at least part of the separation zone at least with said molten steel and filler material; iv) solidifying by cooling at least the molten steel and filler material in at least three welding zones (16, 18) to join said first and second component, wherein said welding zones (16, 18) are located at a distance from each other, and thus obtaining said article. i) coupling by force with interference a first component at least partially made of cast iron and a second component at least partially made of steel; ii) arranging one or more wires of filler material at one or more separation zones between said first and second component; iii) in an inert atmosphere, directing a laser beam mostly or exclusively on the steel of the second component and on the filler material for occupying at least part of the separation zone at least with said molten steel and filler material; iv) solidifying by cooling at least the molten steel and filler material in at least three welding zones (16, 18) to join said first and second component, wherein said welding zones (16, 18) are located at a distance from each other, and thus obtaining said article.
A total air temperature probe comprising a probe head having an airflow inlet, a main airflow outlet, a main probe head wall extending from the airflow inlet to the main airflow outlet, and a flow separation bend wall positioned between the airflow inlet and the main airflow outlet, the flow separation bend wall being opposite the main probe head wall across a primary flow passage defined through the probe head from the airflow inlet to the main airflow outlet, wherein the probe further comprises a flow separation trip feature (122; 222) defined on an interior surface of the main probe head wall for tripping a boundary layer flow separation in flow in the primary flow passage, characterised in that: the flow separation trip feature includes: a notch set in from the interior surface of the main probe head wall; or a protrusion set out from the interior surface of the main probe head wall. the flow separation trip feature includes: a notch set in from the interior surface of the main probe head wall; or a protrusion set out from the interior surface of the main probe head wall. a notch set in from the interior surface of the main probe head wall; or a protrusion set out from the interior surface of the main probe head wall.
Cap or closure comprising a polyethylene composition having a density of at least 940 kg/m 3 and of at most 970 kg/m 3 and a high load melt index HLMI of at least 35 dg/min and of at most 180 dg/min, wherein the density is determined according to ISO 1183 at 23°C, wherein the HLMI is determined according to ISO 1133, condition G, at 190°C and 21.6 kg; said polyethylene composition consisting of a first polyethylene fraction and a second polyethylene fraction, wherein the first polyethylene fraction has a density of at least 920 kg/m 3 and of at most 945 kg/m 3 and a melt index HL275 of at least 3 dg/min and of at most 12 dg/min, wherein melt index HL275 is determined in the same way as the HLMI except that the die opening has a diameter 2.75 mm, HL275 can be converted to HLMI using the following equation HLMI=HL275/3.2, and wherein the second polyethylene fraction has a density of at least 965 kg/m 3 and of at most 980 kg/m 3; with the provision that the density and melt index of the second polyethylene fraction are chosen such that density and melt index of the polyethylene composition are as defined herein, and with properties calculated using the following equations log HLMI blend = w 1 • log HLMI 1 + w 2 • log HlMI 2 d blend = w 1 • d 1 + w 2 • d 2 with HLMI blend being the high load melt index HLMI of the polyethylene composition, HLMI 1 being the high load melt index HLMI of the first polyethylene fraction, HLMI 2 being the high load melt index of the second polyethylene fraction, d blend being the density of the polyethylene composition, d 1 being the density of the first polyethylene fraction, d 2 being the density of the second polyethylene fraction, w 1 being the wt% of the first and w 2 being the wt% of the second polyethylene fraction, relative to the total weight of the polyethylene composition.
A catalyst composition comprising: an intermetallic phase comprising Pt and a metal selected from the group consisting of Nb and Ta; and a dioxide of the metal. an intermetallic phase comprising Pt and a metal selected from the group consisting of Nb and Ta; and a dioxide of the metal.
A method of treating an elastane-containing fabric, comprising the steps of: a) providing a fabric treatment composition comprising an antioxidant and a surfactant; b) providing an elastane-containing fabric; and c) contacting the elastane-containing fabric with the fabric treatment composition in the presence of water, wherein the fabric treatment composition and the water form a treatment liquor having an antioxidant concentration of at least 25 ppb, a surfactant concentration of at least 10 ppm, and wherein the ratio of treatment liquor to elastane-containing fabric (w/w) is from 0.1:1 to 100:1; wherein at least some portion of the antioxidant is deposited onto the elastane-containing fabric; and wherein the method is to slow the formation of malodorous species generated from the autoxidation of soils. a) providing a fabric treatment composition comprising an antioxidant and a surfactant; b) providing an elastane-containing fabric; and c) contacting the elastane-containing fabric with the fabric treatment composition in the presence of water, wherein the fabric treatment composition and the water form a treatment liquor having an antioxidant concentration of at least 25 ppb, a surfactant concentration of at least 10 ppm, and wherein the ratio of treatment liquor to elastane-containing fabric (w/w) is from 0.1:1 to 100:1; wherein at least some portion of the antioxidant is deposited onto the elastane-containing fabric; and wherein the method is to slow the formation of malodorous species generated from the autoxidation of soils.
Process for preparing a solid electrolyte or a composite electrode incorporating a solid electrolyte, intended for an electrochemical system, in particular with a rechargeable battery, comprising at least the following steps: (i) synthesis, in a solvent medium, of at least one (co)polymer by ring-opening (co)polymerization of at least one five- to eight-membered cyclic carbonate and, optionally, of at least one five- to eight-membered lactone, said (co)polymerization reaction being catalysed by at least one Brønsted superacid capable of forming, after neutralization in step (ii) of the process of the invention, an ion-conducting alkali metal or alkaline earth metal salt; (ii) addition to the reaction medium obtained in step (i) of a sufficient amount of an alkali metal or alkaline earth metal hydride, in particular lithium hydride (LiH), in order to neutralize all of said catalyst and obtain an alkali metal or alkaline earth metal salt, and in order to protect said terminal hydroxyl group(s) of said synthesized (co)polymer(s); (iii) addition or not to the mixture obtained in step (ii) of at least one salt of said alkali metal or alkaline earth metal, in particular a lithium salt; and (iv) formation of a solid electrolyte by evaporation of the solvent medium or a composite electrode incorporating said solid electrolyte. (i) synthesis, in a solvent medium, of at least one (co)polymer by ring-opening (co)polymerization of at least one five- to eight-membered cyclic carbonate and, optionally, of at least one five- to eight-membered lactone, said (co)polymerization reaction being catalysed by at least one Brønsted superacid capable of forming, after neutralization in step (ii) of the process of the invention, an ion-conducting alkali metal or alkaline earth metal salt; (ii) addition to the reaction medium obtained in step (i) of a sufficient amount of an alkali metal or alkaline earth metal hydride, in particular lithium hydride (LiH), in order to neutralize all of said catalyst and obtain an alkali metal or alkaline earth metal salt, and in order to protect said terminal hydroxyl group(s) of said synthesized (co)polymer(s); (iii) addition or not to the mixture obtained in step (ii) of at least one salt of said alkali metal or alkaline earth metal, in particular a lithium salt; and (iv) formation of a solid electrolyte by evaporation of the solvent medium or a composite electrode incorporating said solid electrolyte.
A vacuum insulation material comprising: a core material; an inner bag made of an air-permeable film and primarily compressing and packing a surface of the core material; a cover material disposed on the inner bag through vacuum packing; and a getter inserted between the core material and the inner bag or between the inner bag and the cover material; said vacuum insulation material being characterized in that said core material includes binder-free glass wool that is compressed without being heated to glass transition temperature. a core material; an inner bag made of an air-permeable film and primarily compressing and packing a surface of the core material; a cover material disposed on the inner bag through vacuum packing; and a getter inserted between the core material and the inner bag or between the inner bag and the cover material;
Use of at least one peptide comprising at least one immobilized aromatic cycle and having the general formula A-(Xa)m-Xc-B, wherein: a) A is H or N-acyl group being • biotin or, • an alkyl, aryl, aralkyl, acyl, alcohol, sulfonyl, sugar or alkoxy chain from 1 to 24 carbons, linear, or branched or cyclic, substituted or unsubstituted, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non-sulfurated b) B is OR 1, or NR 2 R 3; with R 1, R 2 and R 3 independently either: • H, or • an alkyl, aryl, aralkyl, acyl, alcohol, sulfonyl, sugar or alkoxy chain from 1 to 24 carbons, linear, or branched or cyclic, substituted or unsubstituted, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non-sulfurated c) m=5, (Xa)m being a chain of 5 amino acids (Xa1 Xa2 Xa3 Xa4 Xa5) and Xa1 being His and Xa2 being Leu; d) Xc is an aromatic amino acid residue selected among L- or D-Trp, L- or D-Phe, L-or D-Tyr, L- or D-Tic, L- or D-7-hydroxy-Tic and L- or D-Tpi, for a topical cosmetic treatment for lightening the skin. a) A is H or N-acyl group being • biotin or, • an alkyl, aryl, aralkyl, acyl, alcohol, sulfonyl, sugar or alkoxy chain from 1 to 24 carbons, linear, or branched or cyclic, substituted or unsubstituted, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non-sulfurated • biotin or, • an alkyl, aryl, aralkyl, acyl, alcohol, sulfonyl, sugar or alkoxy chain from 1 to 24 carbons, linear, or branched or cyclic, substituted or unsubstituted, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non-sulfurated b) B is OR 1, or NR 2 R 3; with R 1, R 2 and R 3 independently either: • H, or • an alkyl, aryl, aralkyl, acyl, alcohol, sulfonyl, sugar or alkoxy chain from 1 to 24 carbons, linear, or branched or cyclic, substituted or unsubstituted, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non-sulfurated • H, or • an alkyl, aryl, aralkyl, acyl, alcohol, sulfonyl, sugar or alkoxy chain from 1 to 24 carbons, linear, or branched or cyclic, substituted or unsubstituted, saturated or unsaturated, hydroxylated or non-hydroxylated, sulfurated or non-sulfurated c) m=5, (Xa)m being a chain of 5 amino acids (Xa1 Xa2 Xa3 Xa4 Xa5) and Xa1 being His and Xa2 being Leu; d) Xc is an aromatic amino acid residue selected among L- or D-Trp, L- or D-Phe, L-or D-Tyr, L- or D-Tic, L- or D-7-hydroxy-Tic and L- or D-Tpi, for a topical cosmetic treatment for lightening the skin.
Method for in a device purifying contaminated bottom ash, wherein the contaminants in the bottom ash comprise at least a component of salt, wherein the device is provided with a salt section, wherein the method comprises the introduction of the contaminated bottom ash in the salt section, rinsing the contaminated bottom ash with salty scouring water that is substantially saturated with salt dissolved therein, wherein the salt present in the contaminated bottom ash is rinsed out as undissolved salt particles by the substantially saturated salty scouring water.
A process for making nuclear fusion energy by compressing a fusion-fuel, the process characterised in that the fusion-fuel comprises a catalytic material mixed with a deuteride of an alkaline earth metal or alkali metal, wherein said catalytic material comprises a mixture or a compound containing red phosphorus and a transition metal from Period 4 or Period 5 of the Periodic table.
Topical compositions comprising uncoated, highly porous silica beads having a particle size D v 0 of greater 0.3 μm, a D v 100 of less than 35 μm, a D v 50 selected in the range of 8 to 15 μm determined by a Coulter LS13320 or a Malvern Mastersizer 2000 and an oil absorption capacity selected in the range of 1.2-2.5 cc/g and a microfine double coated titanium dioxide, characterized in that the microfine double coated titanium dioxide is of the rutil type and has an inner silica coating and an outer dimethicone coating.
An electrical connector for use in connecting a phase winding wire of an electric motor of an electrical power assisted steering system to a conductive track of a circuit board, the connector comprising: a base part having a guide hole extending there through that in use is aligned with a corresponding through-hole in the track and at least one mounting hole which is through plated to connect electrically to the track, a support arm that is connected to the base part and extends away from the base part; a connecting part that is supported by the support arm, the support arm being resiliently flexible to permit relative movement between the connecting part and the base part; and characterised in that the support arm comprises an elongate member that is both flexible and resilient so that it acts as a spring when a load is applied and that gives the connector an overall C-shaped configuration and further comprises: securing means for enabling both physical and electrical connection to a printed circuit board, the securing means including at least one deformable pin that forms an interference fit with the mounting hole of the printed circuit board to provide both a physical and electrical connection. a base part having a guide hole extending there through that in use is aligned with a corresponding through-hole in the track and at least one mounting hole which is through plated to connect electrically to the track, a support arm that is connected to the base part and extends away from the base part; a connecting part that is supported by the support arm, the support arm being resiliently flexible to permit relative movement between the connecting part and the base part; and characterised in that the support arm comprises an elongate member that is both flexible and resilient so that it acts as a spring when a load is applied and that gives the connector an overall C-shaped configuration and further comprises: securing means for enabling both physical and electrical connection to a printed circuit board, the securing means including at least one deformable pin that forms an interference fit with the mounting hole of the printed circuit board to provide both a physical and electrical connection.
An air conditioning apparatus comprising, disposed inside a body casing, a blower that circulates air inside a room, and a passage through which the blower passes the air, an ion generating device unit comprising an ion generating element that generates positive and negative ions, a power supply for applying the voltage to the ion generating element, and a housing case in which the ion generating element, the power supply, and an ion blower are housed, wherein the ion generating device unit is fitted to the body casing such that the generated ions are mixed with the air passing through the passage, characterized in that the ion blower blows out the ion generated by the ion generating element.
A recombinant Lactobacillus spp. expressing on the surface one or more chimeric proteins, wherein the chimeric protein comprises: a. at least one single chain antibody against Salmonella surface protein, OmpD, having amino acid sequence as set forth in SEQ ID NO:61; and b. at least one surface protein that is expressed on the surface of the recombinant Lactobacillus spp., wherein the surface protein expressed in the recombinant Lactobacillus spp. is MuB or CnBP. a. at least one single chain antibody against Salmonella surface protein, OmpD, having amino acid sequence as set forth in SEQ ID NO:61; and b. at least one surface protein that is expressed on the surface of the recombinant Lactobacillus spp.,