mhurhangee/ep-ind-claims huggingface dataset:
A data processing apparatus, which is a User Equipment, UE, comprising: a sending module, configured to send updated metadata; an obtaining module, configured to obtain a code word for broadcasting, wherein the code word comprises a metadata index value corresponding to the updated metadata; and a broadcasting module, configured to broadcast the obtained code word. a sending module, configured to send updated metadata; an obtaining module, configured to obtain a code word for broadcasting, wherein the code word comprises a metadata index value corresponding to the updated metadata; and a broadcasting module, configured to broadcast the obtained code word.
A system comprising: a handheld electronic device and a holder (100, 100a) for the handheld electronic device, the holder (100, 100a) comprising: a container defining a space for receiving the handheld electronic device, the container including an inner surface facing inwardly towards the space, wherein the container is adjustable so as to effect an increase or a decrease to the space; a material provided at the inner surface, wherein the material is interactive with infrared light emitted from the handheld electronic device and received by the material, wherein the material is provided only on a portion of the inner surface and positioned so as to be aligned with an infrared-sensitive component of the handheld electronic device when the handheld electronic device is being inserted into the container, and wherein the material absorbs at least 50% of the infrared light emitted from the handheld electronic device, thereby the material being operative for preventing unintentional activation of the infrared-sensitive component. a handheld electronic device and a holder (100, 100a) for the handheld electronic device, the holder (100, 100a) comprising: a container defining a space for receiving the handheld electronic device, the container including an inner surface facing inwardly towards the space, wherein the container is adjustable so as to effect an increase or a decrease to the space; a material provided at the inner surface, wherein the material is interactive with infrared light emitted from the handheld electronic device and received by the material, wherein the material is provided only on a portion of the inner surface and positioned so as to be aligned with an infrared-sensitive component of the handheld electronic device when the handheld electronic device is being inserted into the container, and wherein the material absorbs at least 50% of the infrared light emitted from the handheld electronic device, thereby the material being operative for preventing unintentional activation of the infrared-sensitive component. a container defining a space for receiving the handheld electronic device, the container including an inner surface facing inwardly towards the space, wherein the container is adjustable so as to effect an increase or a decrease to the space; a material provided at the inner surface, wherein the material is interactive with infrared light emitted from the handheld electronic device and received by the material, wherein the material is provided only on a portion of the inner surface and positioned so as to be aligned with an infrared-sensitive component of the handheld electronic device when the handheld electronic device is being inserted into the container, and wherein the material absorbs at least 50% of the infrared light emitted from the handheld electronic device, thereby the material being operative for preventing unintentional activation of the infrared-sensitive component.
A method for treating a radioactive organic waste, the radioactive organic waste including a cation exchange resin adsorbing radionuclide ions, the method comprising the step of: an organic acid salt treatment process bringing the radioactive organic waste into contact with an organic acid salt aqueous solution containing an organic acid salt and whereby desorbing the radionuclide ions from the cation exchange resin, wherein the organic acid salt contained in the organic acid salt aqueous solution includes a cation that is more readily adsorbable by the cation exchange resin than hydrogen ion is, wherein the method further comprises the step of; an organic acid salt oxidization treatment process subjecting the organic acid salt aqueous solution after the step of desorbing to an oxidization treatment and whereby decomposing the organic acid salt, the organic acid salt aqueous solution containing the radionuclide ions desorbed from the cation exchange resin. an organic acid salt treatment process bringing the radioactive organic waste into contact with an organic acid salt aqueous solution containing an organic acid salt and whereby desorbing the radionuclide ions from the cation exchange resin, wherein the organic acid salt contained in the organic acid salt aqueous solution includes a cation that is more readily adsorbable by the cation exchange resin than hydrogen ion is,
Method for acquiring a dental object of a patient with an object volume, in particular at least a part of a skull, an upper jaw and/or a lower jaw, characterized in that a plurality of segment volume ranges (6, 8, 10) are defined in the object volume, wherein the segment volume ranges (6, 8, 10) overlap at most partially, and preferred directions (12, 13, 14) of the segment volume ranges (6, 8, 10) are not parallel to one another, wherein image data (19, 20, 21) of the segment volume ranges (6, 8, 10) is recorded by means of an MRI machine within a measuring volume of the MRI machine, wherein, computer-assisted, a two-dimensional composite image is generated from the image data (19, 20, 21) of the individual segment volume ranges (6, 8, 10) by projecting the image data (19, 20, 21) onto a target plane, wherein the target plane is disposed parallel to a defined midsagittal plane of the skull or corresponds to the midsagittal plane, wherein a first segment volume range at least partially comprises the midsagittal plane of the skull.
An image printing apparatus comprising: a conveyance unit capable of conveying a printing medium in a conveyance direction or in a returning direction (-Y) opposite to the conveyance direction; a printing unit configured to print an image on the printing medium conveyed by the conveyance unit between a most downstream nozzle position and a most upstream nozzle position in the conveyance direction; and a cutting unit provided at a cutting position on a downstream side in the conveyance direction of the printing unit and configured to cut the printing medium by moving in a first direction and return to a cutting standby position for a next cutting operation by moving in a second direction (-X) opposite to the first direction, wherein during a printing operation for a target page, after printing a first image position on the printing medium by the printing unit, an operation by the printing unit is suspended and at the same time, the conveyance unit performs a conveyance operation in the conveyance direction so that a second image position on the printing medium to be printed next by the printing unit passes the most downstream nozzle position, after the conveyance operation, a cutting operation by the cutting unit is performed, and after the cutting operation, in parallel to movement in the second direction of the cutting unit, the printing operation for the target page is resumed. a conveyance unit capable of conveying a printing medium in a conveyance direction or in a returning direction (-Y) opposite to the conveyance direction; a printing unit configured to print an image on the printing medium conveyed by the conveyance unit between a most downstream nozzle position and a most upstream nozzle position in the conveyance direction; and a cutting unit provided at a cutting position on a downstream side in the conveyance direction of the printing unit and configured to cut the printing medium by moving in a first direction and return to a cutting standby position for a next cutting operation by moving in a second direction (-X) opposite to the first direction, wherein during a printing operation for a target page, after printing a first image position on the printing medium by the printing unit, an operation by the printing unit is suspended and at the same time, the conveyance unit performs a conveyance operation in the conveyance direction so that a second image position on the printing medium to be printed next by the printing unit passes the most downstream nozzle position, after the conveyance operation, a cutting operation by the cutting unit is performed, and after the cutting operation, in parallel to movement in the second direction of the cutting unit, the printing operation for the target page is resumed.
Optical device comprising an optical guide (1.5; 4.5) adapted for propagating a light beam by successive total internal reflections and an injection device adapted for injecting the light beam into the optical guide via an injection section of said optical guide, said injection section being located on one of the faces of this optical guide, the injection device comprising a prism (1.4; 3.4; 4.4) and a set formed by a quarter-wave plate (1.6) and a curved mirror (1.7), the injection device being arranged in such a way that a light beam reflected in the prism by a polarising material in the direction of the curved mirror passes through the quarter-wave plate and is then reflected by the curved mirror in the direction of the polarising material and passes through the quarter-wave plate again, characterised in that the polarising material (1.9) is present between the optical guide and the prism of the injection device at the injection section in such a way that the polarizing material is located on said injection section of the optical guide and on a face of the prism of the injection device.
A method for producing a hydrogen-containing composition comprising the steps of: pumping a carrier liquid into at least one process tank; extracting gasses from the carrier liquid using a vacuum pump; agitating the carrier liquid; reducing a temperature of the carrier liquid within a range of 0° C to 20°C; pumping the chilled, agitated, degassed carrier liquid into a hydrogen reactor tank, the hydrogen reactor tank containing hydrogen gas, wherein the step of pumping the chilled, agitated, degassed carrier liquid into the hydrogen reactor tank containing hydrogen gas causes the hydrogen reactor tank to become pressurized by compressing the hydrogen gas in a head space of the hydrogen reactor tank; drawing the compressed hydrogen gas from the head space of the hydrogen reactor tank into an eductor tube; and pumping the carrier liquid through the eductor tube within the pressurized hydrogen reactor tank, the eductor tube being an array of filters that mixes the hydrogen gas with the carrier liquid by transferring the compressed hydrogen gas to the carrier liquid through bubbles created by the eductor tube, wherein a concentration of the hydrogen gas in the carrier liquid within the hydrogen reactor tank is in a range of 3 ppm to 10 ppm. pumping a carrier liquid into at least one process tank; extracting gasses from the carrier liquid using a vacuum pump; agitating the carrier liquid; reducing a temperature of the carrier liquid within a range of 0° C to 20°C; pumping the chilled, agitated, degassed carrier liquid into a hydrogen reactor tank, the hydrogen reactor tank containing hydrogen gas, wherein the step of pumping the chilled, agitated, degassed carrier liquid into the hydrogen reactor tank containing hydrogen gas causes the hydrogen reactor tank to become pressurized by compressing the hydrogen gas in a head space of the hydrogen reactor tank; drawing the compressed hydrogen gas from the head space of the hydrogen reactor tank into an eductor tube; and pumping the carrier liquid through the eductor tube within the pressurized hydrogen reactor tank, the eductor tube being an array of filters that mixes the hydrogen gas with the carrier liquid by transferring the compressed hydrogen gas to the carrier liquid through bubbles created by the eductor tube, wherein a concentration of the hydrogen gas in the carrier liquid within the hydrogen reactor tank is in a range of 3 ppm to 10 ppm.
A refrigeration appliance having a plurality of independent heat exchange circuits associated with a first and a second condenser, said condensers (2, 3) having refrigerant flow tubes in serpentine form allowing circulating of a refrigerant fluid pressurized by a compressor in association with each heat exchange circuit such that thermal energy is dissipated by a respective condenser (2, 3) of the refrigeration appliance, wherein - the condensers (2, 3) are disposed side by side in parallel along a rear wall of the appliance to be separated by a condenser fixation device and - inner lateral sides of the condensers (2, 3) are fixedly secured to the condenser fixation device, characterized in that - the condenser fixation device extends longitudinally perpendicular to the base of the refrigeration appliance, and - a fan is disposed at an extension part of the condenser fixation device and configured so that an inner volume of the condenser fixation device is used as an air guide to effect forced heat convection for cooling the condensers (2, 3) by blowing air thereon. - the condensers (2, 3) are disposed side by side in parallel along a rear wall of the appliance to be separated by a condenser fixation device and - inner lateral sides of the condensers (2, 3) are fixedly secured to the condenser fixation device, - the condenser fixation device extends longitudinally perpendicular to the base of the refrigeration appliance, and - a fan is disposed at an extension part of the condenser fixation device and configured so that an inner volume of the condenser fixation device is used as an air guide to effect forced heat convection for cooling the condensers (2, 3) by blowing air thereon.
A device for inserting an inflatable intragastric balloon of the type that uses a filament to guide same, comprising: - a first through channel from a proximal end to a distal end of said device, for the insertion of the guiding filament for said device; - said distal end having a flexible distal piece through which said first internal channel passes; - an internal compartment arranged adjacent and proximal with respect to said distal end and adjacent to a medial area of the device, an inflatable balloon being housed in said compartment, said compartment comprising a flexible external membrane surrounding said balloon; - a second through channel from the proximal end to said internal compartment, said second channel being connected to a balloon arranged inside said internal compartment, characterized in that said flexible external membrane is secured to said flexible distal piece and to the medial area of the device, said flexible membrane having a tear or pre-tear line to facilitate the emergence of the balloon during its inflation. - a first through channel from a proximal end to a distal end of said device, for the insertion of the guiding filament for said device; - said distal end having a flexible distal piece through which said first internal channel passes; - an internal compartment arranged adjacent and proximal with respect to said distal end and adjacent to a medial area of the device, an inflatable balloon being housed in said compartment, said compartment comprising a flexible external membrane surrounding said balloon; - a second through channel from the proximal end to said internal compartment, said second channel being connected to a balloon arranged inside said internal compartment,
A method of operating a hybrid coiled tubing-jointed tubing downhole tool string having a fluid flowpath therethrough in a well, comprising the steps of: retracting the tool string to place the connection of the coiled tubing to the jointed tubing in a section of the well capable of being isolated, wherein the section of the well capable of being isolated is located between two blowout preventers or between two stripper packers; isolating the section of the well containing the coiled tubing-jointed tubing connection to allow for pressurization of the section, wherein isolating the section of the well capable of being isolated is accomplished using the two blowout preventers or the two stripper packers; and sealing the fluid flowpath within the tubing string at the coiled tubing-jointed tubing connection, wherein sealing the fluid flowpath within the tubing string at the coiled tubing-jointed tubing connection comprises pumping fluid into the isolated section between the two blowout preventers or the two stripper packers; wherein the fluid flowpath is operable to be sealed by pressurizing the isolated section. retracting the tool string to place the connection of the coiled tubing to the jointed tubing in a section of the well capable of being isolated, wherein the section of the well capable of being isolated is located between two blowout preventers or between two stripper packers; isolating the section of the well containing the coiled tubing-jointed tubing connection to allow for pressurization of the section, wherein isolating the section of the well capable of being isolated is accomplished using the two blowout preventers or the two stripper packers; and sealing the fluid flowpath within the tubing string at the coiled tubing-jointed tubing connection, wherein sealing the fluid flowpath within the tubing string at the coiled tubing-jointed tubing connection comprises pumping fluid into the isolated section between the two blowout preventers or the two stripper packers; wherein the fluid flowpath is operable to be sealed by pressurizing the isolated section.
A method for processing biometric data, comprising verification of the result of calculation of distance between a biometric candidate datum (a) and at least one biometric reference datum (b) each comprising a number n of indexed components (a i, b i), said calculation of distance comprising that of a polynomial of the components of the biometric data, the method being executed by a proving entity and a verification entity, each entity being a processing unit comprising processing (11, 21) and communication (12, 22) means with the other entity, the method comprising steps during which: - the proving entity communicates to the verification entity the result of calculation of the distance between the candidate and reference biometric data, and said data, - the proving entity generates from each datum a function of a number d of variables f a (i 1,...,i d), f b (i 1,...,i d) where d=log 2 n, defined for each variable on the set {0,1}, by reformulation of the index i of each component (a i, b i) in binary format, - the proving entity generates from each function a polynomial of d variables ã(x 1,...x d), b̂ (x 1,...x d) defined on where is a finite field, such that each polynomial ã, b̂ coincides with the corresponding function f a, f b on the set {0,1} d, and generates from the polynomials ã, b̂ a polynomial p( x 1,..., x d) of d variables of the same expression as that of the distance between the data, and - the proving entity and the verification entity engage in a Sumcheck protocol applied to the polynomial p to verify the result of the calculation of the distance between the data. - the proving entity communicates to the verification entity the result of calculation of the distance between the candidate and reference biometric data, and said data, - the proving entity generates from each datum a function of a number d of variables f a (i 1,...,i d), f b (i 1,...,i d) where d=log 2 n, defined for each variable on the set {0,1}, by reformulation of the index i of each component (a i, b i) in binary format, - the proving entity generates from each function a polynomial of d variables ã(x 1,...x d), b̂ (x 1,...x d) defined on where is a finite field, such that each polynomial ã, b̂ coincides with the corresponding function f a, f b on the set {0,1} d, and generates from the polynomials ã, b̂ a polynomial p( x 1,..., x d) of d variables of the same expression as that of the distance between the data, and - the proving entity and the verification entity engage in a Sumcheck protocol applied to the polynomial p to verify the result of the calculation of the distance between the data.
A method of producing a bunter that is configured to stamp recessed headstamp indicia into a base of an ammunition cartridge case, the method comprising providing a bunter blank having a working face from which projects a radial center protrusion, the radial center protrusion being configured for receipt in a primer pocket of the cartridge case's base during stamping of the recessed headstamp indicia, the bunter blank's working face surrounding the radial center protrusion and having an outwardly rounded configuration, the method comprising providing a hub having a contact face that defines indicia recesses, the contact face of the hub surrounding a central pocket, the method comprising assembling the working face of the bunter blank against the contact face of the hub such that the bunter blank's radial center protrusion is received in the hub's central pocket and applying enough force to the thus assembled bunter blank and hub that material defining the outwardly rounded configuration of the bunter blank's working face is deformed into the hub's indicia recesses so as to form raised indicia on said working face.