mhurhangee/patent-ind-claim-en huggingface dataset:
A dosing machine for dosing fluid products, comprising: - a plurality of containers having respective vertical longitudinal axes (A), configured to contain respective fluid products, - a plurality of rotary stirring elements located inside respective containers and operable in rotation by respective electric motors , and - a dispensing head having a plurality of nozzles connected to respective containers , characterized in that each of said containers is associated with a respective level measuring device comprising: - a floater containing a permanent magnet and arranged inside the respective container , wherein the floater is free to move inside the container and, during operation, is moved around the vertical longitudinal axis (A) of the container by the respective stirring element , - a magnetic detector arranged outside the container and comprising a plurality of magnetic sensors spaced apart from each other in a vertical direction and each of which is configured to detect a variation in the magnetic field caused by the passage of said floater in its proximity , and - a control unit which analyzes the signals provided by said plurality of magnetic sensors to detect the level of the fluid inside the container , and the periodic passage of the floater in the vicinity of one or more of said magnetic sensors . - a plurality of containers having respective vertical longitudinal axes (A), configured to contain respective fluid products, - a plurality of rotary stirring elements located inside respective containers and operable in rotation by respective electric motors , and - a dispensing head having a plurality of nozzles connected to respective containers , - a floater containing a permanent magnet and arranged inside the respective container , wherein the floater is free to move inside the container and, during operation, is moved around the vertical longitudinal axis (A) of the container by the respective stirring element , - a magnetic detector arranged outside the container and comprising a plurality of magnetic sensors spaced apart from each other in a vertical direction and each of which is configured to detect a variation in the magnetic field caused by the passage of said floater in its proximity , and - a control unit which analyzes the signals provided by said plurality of magnetic sensors to detect the level of the fluid inside the container , and the periodic passage of the floater in the vicinity of one or more of said magnetic sensors .
Drinking container lid (100; 100'; 100") for a drinking bottle, at least including: a basis element , which has at least one outpouring opening in a floor plate which is surrounded by a lifted edge , a flexible drinking spout (23; 23'; 23") having an inner flow channel , which can be blocked by bending the flexible drinking spout (23; 23'; 23"), wherein the drinking spout (23; 23'; 23") is held in a guiding carriage mounted pivotably on the basis element , the bent drinking spout (23; 23'; 23") can be stored within a receiving chamber enclosed by the edge and a releasable block is provided, which holds the guiding carriage against the return force of the bent drinking spout (23; 23'; 23") in a blocking position; characterised in that the block is formed by an abutment surface (10.1) on the basis element and by a bearing edge on the rearward end, facing away from the drinking spout (23; 23'; 23"), of the guiding carriage , wherein the bearing edge can be removed from the abutment surface (10.1) by a radial displacement of the guiding carriage . a basis element , which has at least one outpouring opening in a floor plate which is surrounded by a lifted edge , a flexible drinking spout (23; 23'; 23") having an inner flow channel , which can be blocked by bending the flexible drinking spout (23; 23'; 23"), wherein the drinking spout (23; 23'; 23") is held in a guiding carriage mounted pivotably on the basis element , the bent drinking spout (23; 23'; 23") can be stored within a receiving chamber enclosed by the edge and a releasable block is provided, which holds the guiding carriage against the return force of the bent drinking spout (23; 23'; 23") in a blocking position; characterised in that the block is formed by an abutment surface (10.1) on the basis element and by a bearing edge on the rearward end, facing away from the drinking spout (23; 23'; 23"), of the guiding carriage , wherein the bearing edge can be removed from the abutment surface (10.1) by a radial displacement of the guiding carriage .
An antiballistic armor plate including a ceramic body consisting of a hard material, provided, on its inner face, with a back energy-dissipating coating, preferably consisting of a material having a hardness that is lower than that of the constituent material of the ceramic body, said plate being characterized in that : - said ceramic body being monolithic and having an area that is larger than 150 cm 2 , a thickness that is greater than 12 mm and a bulk density that is lower than 3.5 g/cm 3 ; - the constituent material of the ceramic body comprising grains of ceramic material having a Vickers hardness that is higher than 15 GPa, and a matrix binding said grains, said matrix consisting essentially of a silicon nitride phase and/or a silicon oxynitride phase or of a SiMON phase, where M is a metal chosen from Ca, Mg, Sr, Ba, said matrix representing between 5 and 40% by weight of said constituent material of the ceramic body; - the maximum equivalent diameter of said grains of ceramic material being smaller than or equal to 800 micrometers; - said constituent material of the ceramic body having an open porosity that is higher than 5% and lower than 14%; - the metallic silicon content in said material, expressed per mm of thickness of said body, being lower than 0.5% by weight. - said ceramic body being monolithic and having an area that is larger than 150 cm 2 , a thickness that is greater than 12 mm and a bulk density that is lower than 3.5 g/cm 3 ; - the constituent material of the ceramic body comprising grains of ceramic material having a Vickers hardness that is higher than 15 GPa, and a matrix binding said grains, said matrix consisting essentially of a silicon nitride phase and/or a silicon oxynitride phase or of a SiMON phase, where M is a metal chosen from Ca, Mg, Sr, Ba, said matrix representing between 5 and 40% by weight of said constituent material of the ceramic body; - the maximum equivalent diameter of said grains of ceramic material being smaller than or equal to 800 micrometers; - said constituent material of the ceramic body having an open porosity that is higher than 5% and lower than 14%; - the metallic silicon content in said material, expressed per mm of thickness of said body, being lower than 0.5% by weight.
A method for establishing a multi-access protocol data unit, MA PDU, session in a home session management function, H-SMF , in a wireless communication network, the method comprising: receiving, from a visited public land mobile network, VPLMN , in the wireless communication network, a MA PDU session establish request message for a user equipment, UE , registered to the VPLMN over 3rd Generation Partnership Project, 3GPP, access and to a home public land mobile network, HPLMN over non-3GPP access; identifying whether the MA PDU session is allowed, based on information received from a home policy control function, H-PCF and subscription data; and establishing a MA PDU session of the LTE with a home user plane function, H-UPF , based on the identifying, wherein the wireless communication network includes the VPLMN and the HPLMN . receiving, from a visited public land mobile network, VPLMN , in the wireless communication network, a MA PDU session establish request message for a user equipment, UE , registered to the VPLMN over 3rd Generation Partnership Project, 3GPP, access and to a home public land mobile network, HPLMN over non-3GPP access; identifying whether the MA PDU session is allowed, based on information received from a home policy control function, H-PCF and subscription data; and establishing a MA PDU session of the LTE with a home user plane function, H-UPF , based on the identifying, wherein the wireless communication network includes the VPLMN and the HPLMN .
A method for forming a sealant layer in a tire , the method comprising the steps of: providing a tire ; and applying a plurality of strip-shaped windings of a sealant material to form a sealant layer to the inside of the tire under the crown of the tire , wherein each winding has a straight portion aligned at a zero degree angle with respect to the tire mid-circumferential plane (L); characterized in that the sealant material is sprayed or extruded onto the inside of the tire in a continuous manner, wherein a number of 5 to 30 strip-shaped windings are applied, and wherein the strip-shaped windings are applied in an abutting manner such that the windings do not overlap or are applied in a spaced manner such that the windings do not overlap and that there is a gap between adjacent windings. providing a tire ; and applying a plurality of strip-shaped windings of a sealant material to form a sealant layer to the inside of the tire under the crown of the tire , wherein each winding has a straight portion aligned at a zero degree angle with respect to the tire mid-circumferential plane (L); characterized in that the sealant material is sprayed or extruded onto the inside of the tire in a continuous manner, wherein a number of 5 to 30 strip-shaped windings are applied, and wherein the strip-shaped windings are applied in an abutting manner such that the windings do not overlap or are applied in a spaced manner such that the windings do not overlap and that there is a gap between adjacent windings.
Construction panel with high resistance to fire, comprising: 1.1 Xonotlite; 1.2 expanded perlite; and, 1.3 fibers; wherein 1.4 xonotlite forms a matrix in which the expanded perlite and the fibers are embedded; and wherein 1.5 the construction panel comprises the expanded perlite amounting to at least 50% by mass, based on the total mass of the expanded perlite, in a grain size of at most 1.5 mm. 1.1 Xonotlite; 1.2 expanded perlite; and, 1.3 fibers; wherein 1.4 xonotlite forms a matrix in which the expanded perlite and the fibers are embedded; and wherein 1.5 the construction panel comprises the expanded perlite amounting to at least 50% by mass, based on the total mass of the expanded perlite, in a grain size of at most 1.5 mm.
A cubic boron nitride-based sintered material comprising: cubic boron nitride particles of 70 to 95 vol%, wherein in a structure of a cross-section of the sintered material, a binder phase with a width of 1 nm to 30 nm is present between the adjacent cubic boron nitride particles, the binder phase being made of a compound containing at least Al, B, and N, the width being measured by polishing a cross section of the sintered material after preparing the cBN sintered material and observing an interface where cBN particles are adjacent to each other using a scanning transmission electron microscope, characterized in that the binder phase has a ratio of an oxygen content to an Al content of 0.1 or less in terms of atomic ratio. cubic boron nitride particles of 70 to 95 vol%, wherein in a structure of a cross-section of the sintered material, a binder phase with a width of 1 nm to 30 nm is present between the adjacent cubic boron nitride particles, the binder phase being made of a compound containing at least Al, B, and N, the width being measured by polishing a cross section of the sintered material after preparing the cBN sintered material and observing an interface where cBN particles are adjacent to each other using a scanning transmission electron microscope, characterized in that the binder phase has a ratio of an oxygen content to an Al content of 0.1 or less in terms of atomic ratio.
A medical device for supporting and stabilizing a head of a patient during a medical procedure, wherein the medical device is configured to connect with an operating table directly or indirectly via one or more intermediate structures, wherein the medical device comprises: (a) a skull clamp , the skull clamp having a pair of extension bars and a locking member for receiving the extension bars, wherein each one of the extension bars has an upright portion , a base , and an upper end portion with a bore that is configured to receive a respective one of two or more lateral head supports , wherein each of the two or more lateral head supports is configured to provide lateral support to the head of the patient; (b) two or more single-chamber pads configured to contact the head of the patient, wherein each of the two or more pads is connectable with a respective one of the two or more lateral head supports, wherein each of the two or more single-chamber pads comprises a single chamber defining a single internal space configured to selectively retain a fill material and comprising a port configured to provide access to the internal space, wherein the chamber is further configured to be adjustably fillable with the fill material to change an amount of fill material within the chamber, wherein the fill material comprises a fluid; and (c) a tube, hose or conduit that fluidly connects the chamber of each of the two or more pads via the respective ports, such that the pressure within the chambers of each of the two pads is configured to be the same. (a) a skull clamp , the skull clamp having a pair of extension bars and a locking member for receiving the extension bars, wherein each one of the extension bars has an upright portion , a base , and an upper end portion with a bore that is configured to receive a respective one of two or more lateral head supports , wherein each of the two or more lateral head supports is configured to provide lateral support to the head of the patient; (b) two or more single-chamber pads configured to contact the head of the patient, wherein each of the two or more pads is connectable with a respective one of the two or more lateral head supports, wherein each of the two or more single-chamber pads comprises a single chamber defining a single internal space configured to selectively retain a fill material and comprising a port configured to provide access to the internal space, wherein the chamber is further configured to be adjustably fillable with the fill material to change an amount of fill material within the chamber, wherein the fill material comprises a fluid; and (c) a tube, hose or conduit that fluidly connects the chamber of each of the two or more pads via the respective ports,
A method for preventing short circuit of a conductive electrode for an inner surface of a shaped tube, comprising the following steps: preparing a high-molecular polymer solution, wherein the solvent of the solution is one selected from N-methylpyrrolidone (NMP) and N,N-dimethylformamide (DMF), and the solute of the solution is a high polymer material, which is one selected from polylactic acid (PLA), polyvinyl chloride (PVC); cleaning and drying an electrode to be used for penetrating into the shaped tube, and then cladding the surface of the electrode with the high-molecular polymer; using the electrode to penetrate into the shaped tube; and subjecting the shaped tube to electrochemical treatment, wherein the electrode serves as a cathode or an anode, and the shaped tube serves as the other electrode. preparing a high-molecular polymer solution, wherein the solvent of the solution is one selected from N-methylpyrrolidone (NMP) and N,N-dimethylformamide (DMF), and the solute of the solution is a high polymer material, which is one selected from polylactic acid (PLA), polyvinyl chloride (PVC); cleaning and drying an electrode to be used for penetrating into the shaped tube, and then cladding the surface of the electrode with the high-molecular polymer; using the electrode to penetrate into the shaped tube; and subjecting the shaped tube to electrochemical treatment, wherein the electrode serves as a cathode or an anode, and the shaped tube serves as the other electrode.
An elastomeric cover for papermaking rollers or acid pickling rollers, the elastomeric cover comprising a polyurethane layer having a hysteresis value of less than 70% and a permanent set of less than 30%; wherein the polyurethane layer comprises a polyurethane produced by curing a mixed composition comprised of at least a urethane prepolymer (A) and at least a curing agent (B) having an active hydrogen group (H), the urethane prepolymer (A) having at least one terminal isocyanate group and is obtained by reacting at least a polyisocyanate compound (a) with at least a polycarbonate diol compound (b) having a number average molecular weight of at least 1500 g/mol, and the curing agent (B) comprising at least an amine compound and at least the polycarbonate diol compound (b) having a number average molecular weight of at least 1500 g/mol.
An optical waveguide device comprising: a rib-type optical waveguide formed of a material having an electro-optic effect; and a reinforcing substrate that supports the rib-type optical waveguide , wherein one end of the rib-type optical waveguide has a tapered portion , structures are provided that are disposed apart from the tapered portion so as to sandwich the tapered portion and are disposed on the reinforcing substrate , the height of the structures is the same as or higher than the height of the rib-type optical waveguide , the clearance between the structures is set to be at least twice the width of the rib-type optical waveguide , an upper substrate is disposed above the tapered portion and the structures , an adhesive layer is disposed in a space sandwiched between the upper substrate and the reinforcing substrate and between the structures , and a refractive index of the adhesive layer is greater than refractive indexes of the reinforcing substrate and the upper substrate and the structures . a rib-type optical waveguide formed of a material having an electro-optic effect; and a reinforcing substrate that supports the rib-type optical waveguide , wherein one end of the rib-type optical waveguide has a tapered portion , structures are provided that are disposed apart from the tapered portion so as to sandwich the tapered portion and are disposed on the reinforcing substrate , the height of the structures is the same as or higher than the height of the rib-type optical waveguide , the clearance between the structures is set to be at least twice the width of the rib-type optical waveguide , an upper substrate is disposed above the tapered portion and the structures , an adhesive layer is disposed in a space sandwiched between the upper substrate and the reinforcing substrate and between the structures , and a refractive index of the adhesive layer is greater than refractive indexes of the reinforcing substrate and the upper substrate and the structures .
A tip protector assembly for use in an I.V. catheter assembly having a catheter hub having a central bore and including a catheter extending distally from a distal end of the catheter hub and a needle slidable through the catheter hub along the catheter, a resealable resilient septum positioned in the central bore the catheter hub , the tip protector assembly comprising: a tubular housing having an outer surface, a proximal end portion having a proximal circumferential opening, a distal end portion having a distal circumferential opening configured to fit onto the proximal end of the catheter hub, and an interior space defining a central axis therethrough; a needle guard within the interior space of the tubular housing configured to capture a sharp distal tip of the needle slidable along the central axis through the needle guard within the tubular housing ; and a push tab extending radially from the distal end portion of the tubular housing at an angle to the central axis, the size and shape of the push tab configured to fit a practitioner's thumb or finger to facilitate one-handed operation of the catheter assembly. a tubular housing having an outer surface, a proximal end portion having a proximal circumferential opening, a distal end portion having a distal circumferential opening configured to fit onto the proximal end of the catheter hub, and an interior space defining a central axis therethrough; a needle guard within the interior space of the tubular housing configured to capture a sharp distal tip of the needle slidable along the central axis through the needle guard within the tubular housing ; and a push tab extending radially from the distal end portion of the tubular housing at an angle to the central axis, the size and shape of the push tab configured to fit a practitioner's thumb or finger to facilitate one-handed operation of the catheter assembly.
A transdermal absorption-type patch preparation comprising an adhesive layer, the adhesive layer comprising zonisamide or an alkali metal salt thereof, an adhesive agent comprising a (meth)acrylic copolymer having a pyrrolidone group, and a transdermal absorption promoter comprising N-alkylpyrrolidone, wherein the N-alkylpyrrolidone is N-laurylpyrrolidone, N-octylpyrrolidone, N-heptylpyrrolidone, N-hexylpyrrolidone, N-nonylpyrrolidone, N-decylpyrrolidone, N-undecylpyrrolidone, N-tridecylpyrrolidone, N-tetradecylpyrrolidone, N-pentadecylpyrrolidone, N-hexadecylpyrrolidone, N-heptadecylpyrrolidone, or N-octadecylpyrrolidone.
A method of fabricating an array of phosphor pixels, the method comprising: in a first phosphor deposition step depositing a photoresist layer and patterning it to form an array of photoresist blocks separated from each other by gaps, the photoresist blocks and the gaps occupying alternating locations in a matrix array and forming a checkerboard pattern; depositing a first phosphor composition in the gaps, the first phosphor composition comprising phosphor particles dispersed in a condensation cure silicone system; after depositing the phosphor composition, curing the condensation cure silicone system using one or more vapor phase catalysts to form a first plurality of phosphor pixels occupying alternating locations in the matrix array; after curing the condensation cure silicone system, removing the photoresist blocks; after removing the photoresist blocks; depositing reflective structures on the side walls of the first plurality of phosphor pixels; after depositing the reflective structures, in a second phosphor deposition step depositing a second phosphor composition at locations in the matrix array formerly occupied by photoresist blocks; and curing the phosphor composition deposited in the second phosphor deposition step to form a second plurality of phosphor pixels occupying alternating locations in the matrix array, with adjacent phosphor pixels in the matrix array in contact with and spaced apart by one of the reflective structures. in a first phosphor deposition step depositing a photoresist layer and patterning it to form an array of photoresist blocks separated from each other by gaps, the photoresist blocks and the gaps occupying alternating locations in a matrix array and forming a checkerboard pattern; depositing a first phosphor composition in the gaps, the first phosphor composition comprising phosphor particles dispersed in a condensation cure silicone system; after depositing the phosphor composition, curing the condensation cure silicone system using one or more vapor phase catalysts to form a first plurality of phosphor pixels occupying alternating locations in the matrix array; after curing the condensation cure silicone system, removing the photoresist blocks; after removing the photoresist blocks; depositing reflective structures on the side walls of the first plurality of phosphor pixels; after depositing the reflective structures, in a second phosphor deposition step depositing a second phosphor composition at locations in the matrix array formerly occupied by photoresist blocks; and curing the phosphor composition deposited in the second phosphor deposition step to form a second plurality of phosphor pixels occupying alternating locations in the matrix array, with adjacent phosphor pixels in the matrix array in contact with and spaced apart by one of the reflective structures.