mhurhangee/patent-ind-claim-en huggingface dataset:
A system for providing personalized communication services to users, the system comprising service controllers arranged for handling respective sets of prime services, at least one of said sets including more than one prime service, databases including a user profile database (HSdb) relating to said users, a service database (Sdb) relating to said prime services and a logic database (UL,SL) relating to personalized services, and a service management controller arranged for interacting with said service controllers and said databases, the service management controller being further arranged for: - selectively enabling, by interacting with at least some of said databases, creation of a personalized service based on at least some of said prime services and defined with respect to a group of at least one user, and - after having enabled creation of said personalized service, saving in said logic database an indication of an order of the prime services on which said personalized service is based. - selectively enabling, by interacting with at least some of said databases, creation of a personalized service based on at least some of said prime services and defined with respect to a group of at least one user, and - after having enabled creation of said personalized service, saving in said logic database an indication of an order of the prime services on which said personalized service is based.
An apparatus for tissue treatment, the apparatus comprising: an elongate tubular member ; a support on the elongate tubular member, wherein the support comprises a plurality of barbs shaped to penetrate tissue; and a radioactive material on the support, wherein the plurality of barbs comprise the radioactive material, the radioactive material comprising further a plurality of seeds distributed at a plurality of locations on the support in order to treat the tissue with the plurality of seeds; wherein the support is configured to expand outwardly away from the elongate tubular member and place the support against the tissue to treat the tissue with the radioactive material. an elongate tubular member ; a support on the elongate tubular member, wherein the support comprises a plurality of barbs shaped to penetrate tissue; and a radioactive material on the support, wherein the plurality of barbs comprise the radioactive material, the radioactive material comprising further a plurality of seeds distributed at a plurality of locations on the support in order to treat the tissue with the plurality of seeds; wherein the support is configured to expand outwardly away from the elongate tubular member and place the support against the tissue to treat the tissue with the radioactive material.
An atomic layer polishing method comprising: scanning a surface of a specimen containing two different elements to determine a peak position of the specimen surface; spraying a first reactive gas toward the determined peak position such that a first reactive gas layer is formed in a surface of the peak, wherein the first reactive gas is capable of bonding to a first atom as a component of the specimen , wherein the first reactive gas has a higher bonding ability to the first atom than to other atoms besides the first atom, wherein the first reactive gas bonds to the first atom to form the first reactive gas layer; and applying energy to the peak position where the first reactive gas layer is deposited, thereby separating the first atom bonded to the first reactive gas from the specimen ; removing the first reactive gas layer remaining on the specimen by irradiating plasma of a gas capable of reacting with the first reactive gas; spraying a second reactive gas toward the determined peak position such that a second reactive gas layer is formed in a surface of the peak, wherein the second reactive gas is capable of bonding to a second atom as a component of the specimen , wherein the second reactive gas has a higher bonding ability to the second atom than to other atoms besides the second atom, wherein the second reactive gas bonds to the second atom to form the second reactive gas layer; and applying energy to the peak position where the second reactive gas layer is deposited, thereby separating the second atom bonded to the second reactive gas from the specimen . scanning a surface of a specimen containing two different elements to determine a peak position of the specimen surface; spraying a first reactive gas toward the determined peak position such that a first reactive gas layer is formed in a surface of the peak, wherein the first reactive gas is capable of bonding to a first atom as a component of the specimen , wherein the first reactive gas has a higher bonding ability to the first atom than to other atoms besides the first atom, wherein the first reactive gas bonds to the first atom to form the first reactive gas layer; and applying energy to the peak position where the first reactive gas layer is deposited, thereby separating the first atom bonded to the first reactive gas from the specimen ; removing the first reactive gas layer remaining on the specimen by irradiating plasma of a gas capable of reacting with the first reactive gas; spraying a second reactive gas toward the determined peak position such that a second reactive gas layer is formed in a surface of the peak, wherein the second reactive gas is capable of bonding to a second atom as a component of the specimen , wherein the second reactive gas has a higher bonding ability to the second atom than to other atoms besides the second atom, wherein the second reactive gas bonds to the second atom to form the second reactive gas layer; and applying energy to the peak position where the second reactive gas layer is deposited, thereby separating the second atom bonded to the second reactive gas from the specimen .
Method for manufacturing a component of a gas turbine by metal powder injection moulding, in which a green blank of a component construction is produced from an injection-mouldable metal powder mixture by metal powder injection moulding, is debinded to form a brown blank and is subsequently sintered, characterized in that , during the metal powder injection moulding, the green blank is provided with a supporting structure as an integral component part of the component construction, which is formed in one piece with the component construction and supports the component construction during the sintering and, after the sintering of the component construction for manufacturing the component , the supporting structure is completely removed by a machining process or is partially removed in such a way that, in the installed state of the component , a region of the supporting structure forms an end stop or a receptacle for a stopping element , which is connected to a housing of the gas turbine and, acting together with the end stop or the receptacle , serves for preventing a movement of the component in the circumferential direction of the gas turbine.
A method for producing an imager , comprising the following steps: a. a first step of attaching an imaging sensor to a first substrate ; b. a second step of cutting out the first substrate at a predefined distance around the attached imaging sensor ; c. a third step of attaching a driver circuit board of the imaging sensor to the cut-out first substrate , close to the attached imaging sensor ; d. a fourth step of connecting the driver circuit board of the imaging sensor to the attached imaging sensor in order to obtain a first tile associated with said first substrate of the first tile; e. repeating the first, second, third and fourth steps in order to obtain a second tile associated with said first substrate of the second tile; f. a fifth step of butting together the obtained first tile and second tile by placing the two cut-out first substrates in edge-to-edge contact; g. a sixth step of attaching the butted-together tiles to a main substrate ; h. a seventh step of connecting the driver circuit boards of the imaging sensors of the butted-together first tile and second tile to a motherboard of the imager . a. a first step of attaching an imaging sensor to a first substrate ; b. a second step of cutting out the first substrate at a predefined distance around the attached imaging sensor ; c. a third step of attaching a driver circuit board of the imaging sensor to the cut-out first substrate , close to the attached imaging sensor ; d. a fourth step of connecting the driver circuit board of the imaging sensor to the attached imaging sensor in order to obtain a first tile associated with said first substrate of the first tile; e. repeating the first, second, third and fourth steps in order to obtain a second tile associated with said first substrate of the second tile; f. a fifth step of butting together the obtained first tile and second tile by placing the two cut-out first substrates in edge-to-edge contact; g. a sixth step of attaching the butted-together tiles to a main substrate ; h. a seventh step of connecting the driver circuit boards of the imaging sensors of the butted-together first tile and second tile to a motherboard of the imager .
Method for producing a component from a fibre-composite material, wherein a) a plurality of fibre-tape pieces , which each comprise a thermoplastic fibre-tape piece matrix with fibre-tape-piece fibres embedded therein, are provided, b) the fibre-tape pieces are picked up in the solid state and arranged so as to form a fibre-tape pattern , c) a backing layer , which comprises a thermoplastic backing-layer matrix with backing-layer fibres embedded therein, is provided and heated such that the backing-layer matrix softens or melts, d) a preform is formed from the backing layer and the fibre-tape pattern in that the fibre-tape pattern is applied in the solid state to the heated backing layer and is heated thereby so that the fibre-tape-piece matrices soften or melt such that the preform is in a deformable state in which both the backing-layer matrix and the fibre-tape-piece matrices have been softened or melted, and e) the preform in the deformable state is deformed.
Electronic component for generating infrared radiation, characterized in that it comprises a first element and a second element arranged in such a manner as to form an enclosed cavity under vacuum within which at least one resistive element of the said electronic component is suspended, said at least one resistive element comprising metal, the said first and second elements being joined by eutectic soldering allowing the cavity to be sealed in a leak-tight manner, said electronic component comprising connection terminals situated outside of the enclosed cavity and electrically connected to the suspended resistive element , and in that the enclosed cavity has an internal pressure of less than 10 -2 mbar, and notably comprised between 10 -3 mbar and 10 -2 mbar, and in that the resistive element is suspended by suspension arms belonging to the first element .
A method of making a gypsum panel, comprising: combining gypsum stucco and a halide salt sequestration agent with water to form a gypsum slurry; and setting the gypsum slurry to form at least a portion of a gypsum core, wherein the halide salt sequestration agent is present in an amount effective to sequester at least 25 percent of halide salt present in the gypsum stucco, wherein the halide salt sequestration agent comprises alumina or perlite or a combination thereof, wherein the halide salt sequestration agent comprises activated alumina present in an amount of from about 0.01 to about 10 weight percent, by weight of the gypsum stucco; or wherein the halide salt sequestration agent comprises perlite present in an amount of from about 0.01 to about 10 weight percent, by weight of the gypsum stucco. combining gypsum stucco and a halide salt sequestration agent with water to form a gypsum slurry; and setting the gypsum slurry to form at least a portion of a gypsum core, wherein the halide salt sequestration agent is present in an amount effective to sequester at least 25 percent of halide salt present in the gypsum stucco, wherein the halide salt sequestration agent comprises alumina or perlite or a combination thereof, wherein the halide salt sequestration agent comprises activated alumina present in an amount of from about 0.01 to about 10 weight percent, by weight of the gypsum stucco; or wherein the halide salt sequestration agent comprises perlite present in an amount of from about 0.01 to about 10 weight percent, by weight of the gypsum stucco.
A catalyst regeneration process for a tar reforming catalyst within a catalyst bed in a tar reformer, said process comprising the steps of: - Admitting a main gas stream with controlled oxygen content to an inlet into said tar reformer; - Passing said main gas stream through said catalyst bed to form an oxygen depleted gas stream; - Exiting said oxygen depleted gas stream from said tar reformer; and - Recycling at least a part of the oxygen depleted gas stream exiting from said tar reformer back into said main gas stream upstream said tar reformer; wherein the temperature of said main gas stream at said inlet is controlled to be within the range from 500°C to 1000°C. - Admitting a main gas stream with controlled oxygen content to an inlet into said tar reformer; - Passing said main gas stream through said catalyst bed to form an oxygen depleted gas stream; - Exiting said oxygen depleted gas stream from said tar reformer; and - Recycling at least a part of the oxygen depleted gas stream exiting from said tar reformer back into said main gas stream upstream said tar reformer;
A radio frequency, RF, communications system comprising: a local wireless RF communications device ; a wired RF communications device ; an RF antenna comprising: a conical RF launch structure comprising a plurality of curved electrical conductors (16a', 16b', 16 c', 16d') each defining a conical helix coupled to said local wireless RF communications device , and an elongate electrical conductor coupled to the wired RF communications device and having a proximal end coupled to said conical RF launch structure whereby the elongate electrical conductor is provided to guide surface waves from the conical RF launch structure, and a distal end spaced apart from said conical RF launch structure to define an elongate RF coverage pattern; and at least one remote RF communications device within the elongate RF coverage pattern to wirelessly communicate with said local RF communications device . a local wireless RF communications device ; a wired RF communications device ; an RF antenna comprising: a conical RF launch structure comprising a plurality of curved electrical conductors (16a', 16b', 16 c', 16d') each defining a conical helix coupled to said local wireless RF communications device , and an elongate electrical conductor coupled to the wired RF communications device and having a proximal end coupled to said conical RF launch structure whereby the elongate electrical conductor is provided to guide surface waves from the conical RF launch structure, and a distal end spaced apart from said conical RF launch structure to define an elongate RF coverage pattern; and at least one remote RF communications device within the elongate RF coverage pattern to wirelessly communicate with said local RF communications device . a conical RF launch structure comprising a plurality of curved electrical conductors (16a', 16b', 16 c', 16d') each defining a conical helix coupled to said local wireless RF communications device , and an elongate electrical conductor coupled to the wired RF communications device and having a proximal end coupled to said conical RF launch structure whereby the elongate electrical conductor is provided to guide surface waves from the conical RF launch structure, and a distal end spaced apart from said conical RF launch structure to define an elongate RF coverage pattern; and at least one remote RF communications device within the elongate RF coverage pattern to wirelessly communicate with said local RF communications device .
Pump group for a vehicle cooling system, for example for a vehicle engine group, comprising: - an impeller rotatable around a rotating axis (X-X); - an impeller shaft extending along the impeller axis (X-X) integrally connected to the impeller 2 to move it in rotation ; - a mechanical drive ; - a command gearbox group interposed between the impeller and the mechanical drive , comprising a plurality of gear pairs that comprises at least two, preferably three, gear pairs , characterized in that said mechanical drive comprises a mechanical shaft commandable in rotation operatively connectable with mechanical movement means comprised in the vehicle, preferably operatively connected with the engine drive shaft of the vehicle and in that each pair of gears comprises: i) a first gear mounted solidly on said mechanical shaft and so commanded in rotation by the mechanical drive ; and ii) a second gear housed on the impeller shaft ; wherein the impeller is commanded in rotation by the gear pair that is commanded in reciprocating gearing so as vary the transmission ratio and vary the rotation speed of the impeller on command from the mechanical drive . - an impeller rotatable around a rotating axis (X-X); - an impeller shaft extending along the impeller axis (X-X) integrally connected to the impeller 2 to move it in rotation ; - a mechanical drive ; - a command gearbox group interposed between the impeller and the mechanical drive , comprising a plurality of gear pairs that comprises at least two, preferably three, gear pairs , characterized in that said mechanical drive comprises a mechanical shaft commandable in rotation operatively connectable with mechanical movement means comprised in the vehicle, preferably operatively connected with the engine drive shaft of the vehicle and in that each pair of gears comprises: i) a first gear mounted solidly on said mechanical shaft and so commanded in rotation by the mechanical drive ; and ii) a second gear housed on the impeller shaft ; i) a first gear mounted solidly on said mechanical shaft and so commanded in rotation by the mechanical drive ; and ii) a second gear housed on the impeller shaft ;
A medical electrical lead comprising: an elongate lead body extending from a proximal end to a distal end and comprising a proximal portion and a distal portion; an elongate electrode coil surrounding at least part of the distal portion of the elongate lead body; and a bonding strip extending axially along the elongate electrode coil and extending only partially around a circumference of the elongate electrode coil for at least part of a length of the bonding strip, wherein at least a portion of the bonding strip is bonded to the elongate lead body to fix a portion of the elongate electrode coil to the elongate lead body. an elongate lead body extending from a proximal end to a distal end and comprising a proximal portion and a distal portion; an elongate electrode coil surrounding at least part of the distal portion of the elongate lead body; and a bonding strip extending axially along the elongate electrode coil and extending only partially around a circumference of the elongate electrode coil for at least part of a length of the bonding strip, wherein at least a portion of the bonding strip is bonded to the elongate lead body to fix a portion of the elongate electrode coil to the elongate lead body.
A replaceable cartridge for user-installation in a printer system, comprising - a cartridge body ; - a cartridge lid covering the cartridge body , wherein the cartridge lid comprises a lid aperture to supply printing fluid into the cartridge body ; and - a lid manifold mounted to the cartridge lid , wherein the lid manifold comprises a lid manifold input port to be fluidly connected to and disconnected from a carriage manifold port of the printer system, a lid manifold output opening fluidly connected to the lid aperture , and a channel fluidly connecting the lid manifold input port and the lid manifold output opening , characterized in that the lid manifold output opening is in the form of a lid manifold output needle fluidly connected to the lid aperture which comprises a sealing septum , wherein the lid manifold output needle penetrates the sealing septum , wherein the sealing septum creates a liquid and air tight sealing between the corresponding lid aperture and the needle injected through the sealing septum . - a cartridge body ; - a cartridge lid covering the cartridge body , wherein the cartridge lid comprises a lid aperture to supply printing fluid into the cartridge body ; and - a lid manifold mounted to the cartridge lid , wherein the lid manifold comprises a lid manifold input port to be fluidly connected to and disconnected from a carriage manifold port of the printer system, a lid manifold output opening fluidly connected to the lid aperture , and a channel fluidly connecting the lid manifold input port and the lid manifold output opening , characterized in that
A light source device, comprising: a light source array , configured to emit an excitation light; a phosphor sheet arranged in a propagation direction of the excitation light and configured to receive the excitation light to emit an excited unsaturated amber light; and a cutoff filter arranged along a propagation direction of the unsaturated amber light and configured to filter the unsaturated amber light to obtain a saturated amber light; wherein the phosphor sheet is disposed above the light source array , and the cutoff filter is disposed above the phosphor sheet ; wherein the phosphor sheet is in contact with a light-emitting surface of the light source array or a gap is formed between the phosphor sheet and the light source array , and wherein the cutoff filter is in contact with a surface of the phosphor sheet or a gap is formed between the phosphor sheet and the cutoff filter ; characterized in that the excitation light has a wavelength range of approximately 440 nm to 475 nm, and the unsaturated amber light has a peak wavelength of approximately 520 nm to 580 nm; and wherein the cutoff filter has a cutoff wavelength of approximately 550 nm to 590 nm, and the saturated amber light has a peak wavelength of approximately 590 nm to 610 nm. a light source array , configured to emit an excitation light; a phosphor sheet arranged in a propagation direction of the excitation light and configured to receive the excitation light to emit an excited unsaturated amber light; and a cutoff filter arranged along a propagation direction of the unsaturated amber light and configured to filter the unsaturated amber light to obtain a saturated amber light; wherein the phosphor sheet is disposed above the light source array , and the cutoff filter is disposed above the phosphor sheet ; wherein the phosphor sheet is in contact with a light-emitting surface of the light source array or a gap is formed between the phosphor sheet and the light source array , and wherein the cutoff filter is in contact with a surface of the phosphor sheet or a gap is formed between the phosphor sheet and the cutoff filter ; characterized in that the excitation light has a wavelength range of approximately 440 nm to 475 nm, and the unsaturated amber light has a peak wavelength of approximately 520 nm to 580 nm; and wherein the cutoff filter has a cutoff wavelength of approximately 550 nm to 590 nm, and the saturated amber light has a peak wavelength of approximately 590 nm to 610 nm.
A personal care composition, comprising: one or more of surfactants, and a guar derivative, wherein the guar derivative is selected from 4-morpholinylethyl guar, 3-(1-imidazolyl)-2-hydroxypropyl guar and 3-(4-morpholinylethyl)-2-hydroxypropyl guar, each substituted on a galactomannan polymer through an ethoxyl, propoxyl, or hydroxypropoxyl linking group with a group selected from: morpholinyl, imidazolyl, benzimidazolyl, piperazinyl, 4-methylpiperazinyl, 4-ethylpiperazinyl, piperidinyl, and pyrrolidinyl.