mhurhangee/ep-ind-claims huggingface dataset:
A method for an operation of a device capable of communicating with another device, the method comprising: generating a message including device information of the device defined by a communication protocol used to connect to the other device; and transmitting the message comprising the device information using the communication protocol to the other device in response to receiving a request for the device information from the other device; wherein the device information comprises a device type of the device, vendor identification information of the device, and product identification information of the device; and wherein the device type, the vendor identification information, and the product identification information are used to determine an application to execute by the other device after the connection between devices is set. generating a message including device information of the device defined by a communication protocol used to connect to the other device; and transmitting the message comprising the device information using the communication protocol to the other device in response to receiving a request for the device information from the other device; wherein the device information comprises a device type of the device, vendor identification information of the device, and product identification information of the device; and wherein the device type, the vendor identification information, and the product identification information are used to determine an application to execute by the other device after the connection between devices is set.
A method of treating a fabric, comprising (i) contacting the fabric with an aqueous liquor comprising a fabric care component selected from the group consisting of cationic softening-compounds, silicone softening-compounds, paraffins, waxes, dispersible polyolefins and mixtures thereof; and (ii) contacting the fabric with an aqueous liquor comprising a nuclease enzyme, preferably a deoxyribonuclease or ribonuclease enzyme. (i) contacting the fabric with an aqueous liquor comprising a fabric care component selected from the group consisting of cationic softening-compounds, silicone softening-compounds, paraffins, waxes, dispersible polyolefins and mixtures thereof; and (ii) contacting the fabric with an aqueous liquor comprising a nuclease enzyme, preferably a deoxyribonuclease or ribonuclease enzyme.
Method for controlling the surface reactions on a steel strip running through a furnace comprising successively a first section, a second section and a third section separated by sealing means, the atmosphere in the second and third sections being oxidizing and reducing respectively, wherein, in the first section, the steel strip is heated between 600 and 750°C and the atmosphere is slightly oxidizing with: - a H 2 content inferior to 2%, - a O 2 content inferior to 0.1%, - a H 2 O or CO 2, or H 2 O+CO 2 content superior to 0.03% and, preferably, superior to 0.035%, - a controlled dew point ranging from -50 to -15°C, - a controlled concentration of CO+CO 2 maintained below 2%, all the percentages being expressed in volume. - a H 2 content inferior to 2%, - a O 2 content inferior to 0.1%, - a H 2 O or CO 2, or H 2 O+CO 2 content superior to 0.03% and, preferably, superior to 0.035%, - a controlled dew point ranging from -50 to -15°C, - a controlled concentration of CO+CO 2 maintained below 2%,
A plurality of semiconducting nanoparticles, comprising semiconducting nanoparticles comprising: a one-dimensional semiconducting nanoparticle having a first end and a second end; a first endcap contacting one of the first end or the second end; where the first endcap comprises a first semiconductor and where the first endcap extends from the one-dimensional nanoparticle to form a first nanocrystal heterojunction; and a second endcap that contacts the first endcap; where the second endcap comprises a second semiconductor and where the second endcap extends from the first endcap to form a second nanocrystal heterojunction; and where the first semiconductor is different from the second semiconductor, wherein said semiconducting nanoparticles in said plurality of semiconducting nanoparticles are substantially parallel to each other, characterised in that the one-dimensional nanoparticle comprises CdS, the first endcap comprises CdSe or CdTe and the second endcap comprises ZnSe. a one-dimensional semiconducting nanoparticle having a first end and a second end; a first endcap contacting one of the first end or the second end; where the first endcap comprises a first semiconductor and where the first endcap extends from the one-dimensional nanoparticle to form a first nanocrystal heterojunction; and a second endcap that contacts the first endcap; where the second endcap comprises a second semiconductor and where the second endcap extends from the first endcap to form a second nanocrystal heterojunction; and where the first semiconductor is different from the second semiconductor, wherein said semiconducting nanoparticles in said plurality of semiconducting nanoparticles are substantially parallel to each other, characterised in that the one-dimensional nanoparticle comprises CdS, the first endcap comprises CdSe or CdTe and the second endcap comprises ZnSe.
System for determining a temperature of an elastomer product, wherein the system comprises: an elastomer product with a first elastomer material and an elastomer resonator embedded in the first elastomer material, a transceiver, and an evaluation unit, which is coupled to the transceiver, wherein the transceiver is designed for generating an electromagnetic alternating field, wherein the elastomer resonator is designed to be coupled into the alternating field, so that the elastomer resonator interacts with the alternating field, wherein the elastomer resonator is designed to bring about a change in the alternating field in dependence on a temperature T of the elastomer resonator, wherein the transceiver is designed for sensing the alternating field and for generating a measuring signal that represents the alternating field and/or the change in the alternating field, and wherein the evaluation unit is designed for determining the temperature of the elastomer product on the basis of the measuring signal, characterized in that the elastomer resonator is formed by a strip of a second, electrically conductive elastomer material. an elastomer product with a first elastomer material and an elastomer resonator embedded in the first elastomer material, a transceiver, and an evaluation unit, which is coupled to the transceiver, wherein the transceiver is designed for generating an electromagnetic alternating field, wherein the elastomer resonator is designed to be coupled into the alternating field, so that the elastomer resonator interacts with the alternating field, wherein the elastomer resonator is designed to bring about a change in the alternating field in dependence on a temperature T of the elastomer resonator, wherein the transceiver is designed for sensing the alternating field and for generating a measuring signal that represents the alternating field and/or the change in the alternating field, and wherein the evaluation unit is designed for determining the temperature of the elastomer product on the basis of the measuring signal, characterized in that the elastomer resonator is formed by a strip of a second, electrically conductive elastomer material.
Detergent cosmetic composition intended for washing and/or cleansing keratin fibres, in particular human keratin fibres, such as the hair, especially coloured hair, comprising: - one or more anionic surfactants comprising, in their structure, one or more sulphate and/or sulphonate and/or phosphate groups, - one or more carboxylic anionic surfactants other than the anionic surfactants mentioned as, - one or more amphoteric and/or zwitterionic surfactants, - one or more alkyl(poly)glycoside non-ionic surfactants, - one or more cationic polymers, - one or more zinc salts, - and optionally one or more UV-screening agents, and having a weight ratio of the amount of anionic, amphoteric and/or zwitterionic, and non-ionic surfactant(s) to the amount of zinc element of said zinc salt(s) of less than 30. - one or more anionic surfactants comprising, in their structure, one or more sulphate and/or sulphonate and/or phosphate groups, - one or more carboxylic anionic surfactants other than the anionic surfactants mentioned as, - one or more amphoteric and/or zwitterionic surfactants, - one or more alkyl(poly)glycoside non-ionic surfactants, - one or more cationic polymers, - one or more zinc salts, - and optionally one or more UV-screening agents,
Mixture of compounds of general formula wherein R 1 is -(CH 2) n CH(CH 3) 2. R 2 is -(CH 2) n+2 CH(CH 3) 2. G 1 selected from monosaccharides with 4 to 6 carbon atoms, x in the range of from 1.1 to 4, n is a number in the range of from zero to 3. R 1 is -(CH 2) n CH(CH 3) 2. R 2 is -(CH 2) n+2 CH(CH 3) 2. G 1 selected from monosaccharides with 4 to 6 carbon atoms, x in the range of from 1.1 to 4, n is a number in the range of from zero to 3.
Ceramic article in the form of a sanitation, kitchen or laboratory article, characterized in that it comprises a ceramic main body which at least in sections has an antibacterial surface and/or an antibacterial surface coating containing a weight fraction of more than 35 weight percent of zinc oxide (ZnO) and in that the antibacterial surface and/or the antibacterial surface coating additionally contain a weight fraction of 0.1-20 weight percent of tin oxide (SnO 2), wherein the surface and/or the surface coating are generated by a firing of an unfired ceramic main body at a firing temperature in a range between 1100°C and 1350°C or by a firing of a pre-fired ceramic main body at a firing temperature in a range between 650°C and 1350°C.
A computer implemented method comprising: selecting a plurality of elements on a design page, each element associated with a set of element edges; for each selected element: determining a plurality of edge bleed pairs in respect of the selected element, each edge bleed pair including a particular edge of the set of element edges and a particular bleed of the design page; and for each edge bleed pair: processing the edge bleed pair to determine whether the selected element should be resized, the determination being based on the position of the particular edge relative to the particular bleed; and in response to determining that the element should be resized, resizing the selected element so that the element covers a greater portion of the particular bleed than was originally covered by the element, wherein the design page defines an area that is to be printed on a single sheet, and the particular bleed defines a region between an inner bleed edge and an outer bleed edge, the outer bleed edge being an edge of the single sheet. selecting a plurality of elements on a design page, each element associated with a set of element edges; for each selected element: determining a plurality of edge bleed pairs in respect of the selected element, each edge bleed pair including a particular edge of the set of element edges and a particular bleed of the design page; and for each edge bleed pair: processing the edge bleed pair to determine whether the selected element should be resized, the determination being based on the position of the particular edge relative to the particular bleed; and in response to determining that the element should be resized, resizing the selected element so that the element covers a greater portion of the particular bleed than was originally covered by the element, wherein determining a plurality of edge bleed pairs in respect of the selected element, each edge bleed pair including a particular edge of the set of element edges and a particular bleed of the design page; and for each edge bleed pair: processing the edge bleed pair to determine whether the selected element should be resized, the determination being based on the position of the particular edge relative to the particular bleed; and in response to determining that the element should be resized, resizing the selected element so that the element covers a greater portion of the particular bleed than was originally covered by the element, wherein processing the edge bleed pair to determine whether the selected element should be resized, the determination being based on the position of the particular edge relative to the particular bleed; and in response to determining that the element should be resized, resizing the selected element so that the element covers a greater portion of the particular bleed than was originally covered by the element, wherein the design page defines an area that is to be printed on a single sheet, and the particular bleed defines a region between an inner bleed edge and an outer bleed edge, the outer bleed edge being an edge of the single sheet.
Process for the preparation of an edible fat-continuous spread comprising at most 45 wt. % of fat using liquid oil, a fat powder comprising structuring fat and a water-phase, comprising the steps of: a. providing a mixture comprising the water-phase and the fat powder, a water-continuous slurry is formed by dispersing the fat powder in the water-continuous phase; b. subjecting said mixture to at least a partial vacuum; c. mixing the mixture prepared at step 'b' to provide a fat-continuous spread, wherein the liquid oil is added to the mixture at any of steps 'b', or 'c' or when added in parts in any combination at steps 'b' and 'c'. a. providing a mixture comprising the water-phase and the fat powder, a water-continuous slurry is formed by dispersing the fat powder in the water-continuous phase; b. subjecting said mixture to at least a partial vacuum; c. mixing the mixture prepared at step 'b' to provide a fat-continuous spread,
An operating device for a light means, having: - a transformer (54, 55), - a primary side with a primary-side coil of the transformer, - a secondary side with a secondary-side coil of the transformer, - a radio interference suppression element, wherein the radio interference suppression element is arranged between the primary side and the secondary side, - a filter for suppressing interferences, that is coupled with the radio interference suppression element; wherein the filter and the radio interference suppression element are arranged in a series circuit, and wherein said series circuit of filter and radio interference suppression element is arranged between a mass of the primary side and a mass of the secondary side, characterized in that the operating device furthermore has a ground connection and a series circuit of the filter capacitor and a radio interference suppression choke, wherein the series circuit of the filter capacitor and the radio interference suppression choke is arranged between the ground connection and the mass of the secondary side. - a transformer (54, 55), - a primary side with a primary-side coil of the transformer, - a secondary side with a secondary-side coil of the transformer, - a radio interference suppression element, - a filter for suppressing interferences, that is coupled with the radio interference suppression element;
A tyre comprising at least one structural element including a crosslinked elastomeric material obtained by crosslinking a crosslinkable elastomeric composition comprising: (a) 100 phr of at least one elastomeric polymer; (b) from 0.1 phr to 120 phr of at least one reinforcing filler; (c) from 0.01 phr to 20 phr of at least one oxetane derivative; and (d) from 0.01 phr to 10 phr of at least one amino acid. (a) 100 phr of at least one elastomeric polymer; (b) from 0.1 phr to 120 phr of at least one reinforcing filler; (c) from 0.01 phr to 20 phr of at least one oxetane derivative; and (d) from 0.01 phr to 10 phr of at least one amino acid.
A method implemented by a processor, the method comprising: accessing a first join graph representing tables in a database, wherein the first join graph has vertices corresponding to respective tables in the database and directed edges corresponding to many-to-one join relationships; receiving a first query that references data in two or more of the tables of the database; selecting a connected subgraph of the first join graph that includes the two or more tables referenced in the first query; generating multiple leaf queries that reference respective subject tables that are each a root table of the connected subgraph or a table including a measure referenced in the first query, wherein generating at least two of the leaf queries includes inserting a reference to a primary key column for a shared dimension table of the respective subject tables of the at least two of the leaf queries; generating a query graph that specifies joining of results from queries based on the multiple leaf queries to obtain a transformed query result for the first query, wherein the query graph has a single root node corresponding to the transformed query result; invoking a transformed query on the database that is based on the query graph and the queries based on the multiple leaf queries to obtain the transformed query result; and presenting data based on the transformed query result. accessing a first join graph representing tables in a database, wherein the first join graph has vertices corresponding to respective tables in the database and directed edges corresponding to many-to-one join relationships; receiving a first query that references data in two or more of the tables of the database; selecting a connected subgraph of the first join graph that includes the two or more tables referenced in the first query; generating multiple leaf queries that reference respective subject tables that are each a root table of the connected subgraph or a table including a measure referenced in the first query, wherein generating at least two of the leaf queries includes inserting a reference to a primary key column for a shared dimension table of the respective subject tables of the at least two of the leaf queries; generating a query graph that specifies joining of results from queries based on the multiple leaf queries to obtain a transformed query result for the first query, wherein the query graph has a single root node corresponding to the transformed query result; invoking a transformed query on the database that is based on the query graph and the queries based on the multiple leaf queries to obtain the transformed query result; and presenting data based on the transformed query result.
Timepiece barrel, including at least one mainspring cooperating at the inner end thereof with a core pivoting about a pivot axis, and at the outer end thereof with an inner track of a barrel drum by means of a resilient sliding bridle, wherein said inner track and said resilient sliding bridle are each of non-circular shape, and nest one inside the other in the free state of said resilient sliding bridle, and are arranged such that at least one outwardly radially projecting raised portion comprised in said resilient sliding bridle is abuttingly engaged with at least one inwardly radially projecting sill comprised in said inner track when the torque applied to said resilient sliding bridle is less than a torque limit value, and wherein at least one said raised portion of said resilient sliding bridle is subjected to a radial constriction when the torque applied to said resilient sliding bridle is greater than said torque limit value, to allow said raised portion to pass over said sill and to allow said bridle to travel angularly under the effect of said torque until the next encounter between one said sill and one said raised portion, and where said resilient sliding bridle forms a closed contour, characterized in that said resilient sliding bridle forms a closed contour surrounding said core, and in that said inner track includes a plurality of peripheral housings each including a base located at the greatest distance (DMAX) from said pivot axis and said housings are each separated from the next housing by a said sill located at the smallest distance (DMIN) from said pivot axis, and in that said sliding bridle is integral with said mainspring and forms a one-piece assembly therewith, and includes a plurality of said raised portions, each of which, in the free state, has a maximum radius (RMAX) with respect to said pivot axis and each of which is separated from the next raised portion by a joining surface including an area of minimum radius (RMIN) with respect to said pivot axis, said maximum radius (RMAX) in the free state being greater than said minimum distance (DMIN) and less than said maximum distance (DMAX).
A multipoint adaptive equalization control method for performing adaptive equalization control on sound detected at a plurality of control points (5 M, 5 S1,..., and 5 SK) in a room, comprising: applying an inverse phase characteristic to an audio signal (X(f)) output from an audio source, the inverse phase characteristic being opposite to a phase characteristic from a speaker to a main control point (5 M); outputting sound based on an input audio signal (X(f)) with the applied inverse phase characteristic from the speaker to an acoustic space; outputting error signals (E M, E S1, E SK) respectively indicating the differences between detection signals (Y M, Y S1, Y Sk), corresponding to the detected sound output from the speaker, in the respective control points and target signals (D M, D S1, D Sk) for the control points, the target signals determined from target response signals output by a target response setting unit which receives the input audio signal; receiving the error signals (E M, E S1,..., and E SK) in the respective control points (5 M, 5 S1,..., and 5 SK) and performing adaptive signal processing so that the sum of powers of the error signals is minimized to determine a gain of an audio signal; and applying the inverse phase characteristic and the gain to an audio signal (X(f) and supplying the resultant audio signal to the speaker. applying an inverse phase characteristic to an audio signal (X(f)) output from an audio source, the inverse phase characteristic being opposite to a phase characteristic from a speaker to a main control point (5 M); outputting sound based on an input audio signal (X(f)) with the applied inverse phase characteristic from the speaker to an acoustic space; outputting error signals (E M, E S1, E SK) respectively indicating the differences between detection signals (Y M, Y S1, Y Sk), corresponding to the detected sound output from the speaker, in the respective control points and target signals (D M, D S1, D Sk) for the control points, the target signals determined from target response signals output by a target response setting unit which receives the input audio signal; receiving the error signals (E M, E S1,..., and E SK) in the respective control points (5 M, 5 S1,..., and 5 SK) and performing adaptive signal processing so that the sum of powers of the error signals is minimized to determine a gain of an audio signal; and applying the inverse phase characteristic and the gain to an audio signal (X(f) and supplying the resultant audio signal to the speaker.
A support film for a tape material, comprising: a film-shaped support formed of polyurethane; a barrier layer containing an aromatic isocyanate-based polyurethane and a layered inorganic compound and formed on one surface of the support; and an overcoat layer containing a polyvinyl alcohol or an ethylene-vinyl alcohol copolymer and an organometallic chelating agent. a film-shaped support formed of polyurethane; a barrier layer containing an aromatic isocyanate-based polyurethane and a layered inorganic compound and formed on one surface of the support; and an overcoat layer containing a polyvinyl alcohol or an ethylene-vinyl alcohol copolymer and an organometallic chelating agent.