mhurhangee/patent-ind-claim-en huggingface dataset:
An electrically conductive hybrid material comprising: a covalent organic framework having meso-sized or micro-sized pores, the covalent organic framework being a polymer having a structure in which same or different plural aromatic cyclic groups form a cyclic repeating unit by a covalent bond; and a conductor material, wherein the covalent organic framework is supported on the conductor material, and wherein the conductor material is a carbon material having a form of nanoparticles, the carbon material has a particle diameter of 10 nm to 300 nm, and the particle diameter of the carbon material is obtained by observing the electrically conductive hybrid material by a scanning electron microscope. a covalent organic framework having meso-sized or micro-sized pores, the covalent organic framework being a polymer having a structure in which same or different plural aromatic cyclic groups form a cyclic repeating unit by a covalent bond; and a conductor material, wherein the covalent organic framework is supported on the conductor material, and wherein the conductor material is a carbon material having a form of nanoparticles, the carbon material has a particle diameter of 10 nm to 300 nm, and the particle diameter of the carbon material is obtained by observing the electrically conductive hybrid material by a scanning electron microscope.
A jetting dispenser for jetting droplets of fluid material, comprising: a fluid module including a fluid body member having within it a fluid body bore , and a nozzle having a dispensing opening, the fluid body bore being adapted to receive the fluid material from a fluid supply; and a plunger having a distal tip end surface that opposes and is generally complementary to a nozzle element surface of the nozzle adapted to cause at least one droplet of fluid material to be jetted out of the dispensing opening, wherein the plunger is moveable between a retracted position spaced from the dispensing opening and a forward position proximate to but spaced from the nozzle , and wherein the at least one droplet of the fluid material is jetted from the dispensing opening as the plunger moves from the retracted position to the forward position; wherein the jetting dispenser comprises an actuation module including an actuation body member that has within it an actuation body bore , the actuation body member including a first inner wall that extends generally along an axial direction of the actuation body member ; and a step that extends radially inwardly from the first inner wall , the step being adapted to be contacted by a piston coupled to the plunger such that the plunger is prevented from contacting the nozzle as the plunger moves from the retracted position to the forward position; and wherein the fluid module is partially received within the actuation module . a fluid module including a fluid body member having within it a fluid body bore , and a nozzle having a dispensing opening, the fluid body bore being adapted to receive the fluid material from a fluid supply; and a plunger having a distal tip end surface that opposes and is generally complementary to a nozzle element surface of the nozzle adapted to cause at least one droplet of fluid material to be jetted out of the dispensing opening, wherein the plunger is moveable between a retracted position spaced from the dispensing opening and a forward position proximate to but spaced from the nozzle , and wherein the at least one droplet of the fluid material is jetted from the dispensing opening as the plunger moves from the retracted position to the forward position; wherein the jetting dispenser comprises an actuation module including an actuation body member that has within it an actuation body bore , the actuation body member including a first inner wall that extends generally along an axial direction of the actuation body member ; and a step that extends radially inwardly from the first inner wall , the step being adapted to be contacted by a piston coupled to the plunger such that the plunger is prevented from contacting the nozzle as the plunger moves from the retracted position to the forward position; and wherein the fluid module is partially received within the actuation module .
Drywall comprising a sub-structure with drywall profiles arranged in a horizontal and vertical manner so that the horizontal profiles are fixable to the floor and the ceiling and the vertical profiles are fixed to the horizontal profiles, wherein each of the vertical profiles comprises a drywall profile and the drywall having at least one separate intermediate layer of plasterboards, the drywall profile comprising a profile section having a base portion at which a first flange and parallel thereto a second flange are formed so that the base portion , the first flange and the second flange are arranged in a u-shaped cross section, characterized in that the base portion comprises at least two pairwise arranged perforations , each of which forming a bendable portion capable of being bent out in a manner to form an abutting flap , both abutting flaps extend parallel in a distance to fix a plasterboard of the intermediate layer of plasterboards in between thereof, wherein the base portion comprises two pairs of two pairwise arranged perforations which are arranged in a distance so that the plasterboard of the intermediate layer of plasterboards is fixed in the longitudinal direction of the drywall profile , and wherein a further perforation (7; 8) is arranged at the base portion in the longitudinal direction of the drywall profile adjacent to the at least two pairwise arranged perforations so that the plasterboard of the intermediate layer of plasterboards is additionally fixed, and wherein the drywall comprises at least one first outer layer of plasterboards attached to the first flange of the drywall profile and at least one second outer layer of plasterboards arranged to the second flange of the drywall profile .
A device for controlling upstream transmission of bursts from optical network units (131-13n; A-G), abbreviated ONUs, to an optical line termination , abbreviated OLT, in a passive optical network, abbreviated PON, said upstream transmission being organized in time intervals (401-407) that form part of an upstream timeframe , wherein said device comprises: - means configured to obtain respective optical power levels received at said OLT for said ONUs (131-13n; A-G); - means configured to obtain respective extinction ratios at said OLT for said ONUs (131-13n; A-G); - means configured to obtain respective transmission wavelengths for said ONUs (131-13n; A-G); characterised in that the device further comprises: - means configured to distinguish pairable ONUs (B, C, D, F, G) and non-pairable ONUs (A, E) amongst said ONUs (A-G) at least based on said wavelengths; - means (301; 305) configured for pairing said pairable ONUs based on said optical power levels and/or said extinction ratios, thereby generating one or plural subsets of paired ONUs (D, F; B, C, G); - means configured for allowing paired ONUs (D, F; B, C, G) that belong to a same subset amongst said subsets to simultaneously transmit bursts within a time interval (406; 407) of said upstream timeframe . - means configured to obtain respective optical power levels received at said OLT for said ONUs (131-13n; A-G); - means configured to obtain respective extinction ratios at said OLT for said ONUs (131-13n; A-G); - means configured to obtain respective transmission wavelengths for said ONUs (131-13n; A-G); characterised in that the device further comprises: - means configured to distinguish pairable ONUs (B, C, D, F, G) and non-pairable ONUs (A, E) amongst said ONUs (A-G) at least based on said wavelengths; - means (301; 305) configured for pairing said pairable ONUs based on said optical power levels and/or said extinction ratios, thereby generating one or plural subsets of paired ONUs (D, F; B, C, G); - means configured for allowing paired ONUs (D, F; B, C, G) that belong to a same subset amongst said subsets to simultaneously transmit bursts within a time interval (406; 407) of said upstream timeframe .
Method for metering fluids, in particular liquid fluids, in which at least one fluid is conducted out of at least one fluid reservoir through a closable valve device in a discharge direction , wherein at least one valve opening of the valve device is closed or opened by means of a valve closing body to conduct the fluid through the valve opening or to block conduction, wherein the opening or closing is performed magnetically by moving the valve closing body , and the valve closing body is arranged and moved in the fluid reservoir on an upstream side of the valve opening, wherein the valve closing body is a freely moveable body of ferromagnetic material, wherein for an infinitely and variable flow opening for variable flow of the fluid, the valve closing body is deflected against a direction of flow in the fluid reservoir via magnets spaced apart and variable outside the fluid reservoir , wherein the fluid reservoir is a hollow body, wherein to effect a change in its position to interrupt the flow of the fluid, the freely moveable valve closing body pressurised via the fluid in the hollow body in the direction of flow is attracted towards a fluid-tight contact surface in the hollow body in the direction of flow by at least one first permanent magnet , wherein to effect a change in its position to allow the fluid to flow through the hollow body, the valve closing body is pulled away from a fluid-tight contact surface in the hollow body by at least one moveable second permanent magnet , which, at a suitable distance, acts on the valve closing body with a greater magnetic attraction force than the first magnet , and wherein depending on the distance between and position of the second magnet and the first magnet with regard to one another, a variable fluid flow and variable flow opening can be generated, wherein the first permanent magnet and the second permanent magnet are located outside the hollow body.
An apparatus for deposition of a fiber mat on a surface, the apparatus comprising: a reel for holding a roll of the fiber mat , the fiber mat having a length and a width, wherein the length extends along a laying direction and the width extends along a transverse direction; a first roller at a first transverse position and a second roller at a second transverse position for applying traction on the fiber mat to unroll the fiber mat from the reel in the laying direction, wherein the first roller is configured to be controlled independently from the second roller ; and a fiber mat tension compensator configured to adjust a tension in the fiber mat along the transverse direction, characterized in that at least one of the first and second rollers is configured to be translated along the transverse direction. a reel for holding a roll of the fiber mat , the fiber mat having a length and a width, wherein the length extends along a laying direction and the width extends along a transverse direction; a first roller at a first transverse position and a second roller at a second transverse position for applying traction on the fiber mat to unroll the fiber mat from the reel in the laying direction, wherein the first roller is configured to be controlled independently from the second roller ; and a fiber mat tension compensator configured to adjust a tension in the fiber mat along the transverse direction, characterized in that at least one of the first and second rollers is configured to be translated along the transverse direction.
An injection system for injecting an aqueous solution into a fuel-injected engine for automotive vehicle comprising: • a tank for an aqueous solution, • a first pump configured to transfer through an injection line , aqueous solution from said tank to at least one injector of the fuel-injected engine, • a second pump configured to transfer through a purge line , aqueous solution from said at least one injector of the fuel-injected engine to said tank , • decontamination means configured to decontaminate said aqueous solution passing through said purge line, said decontamination means comprising a first decontaminant capable of removing the organic contaminants present in said purged aqueous solution. • a tank for an aqueous solution, • a first pump configured to transfer through an injection line , aqueous solution from said tank to at least one injector of the fuel-injected engine, • a second pump configured to transfer through a purge line , aqueous solution from said at least one injector of the fuel-injected engine to said tank , • decontamination means configured to decontaminate said aqueous solution passing through said purge line, said decontamination means comprising a first decontaminant capable of removing the organic contaminants present in said purged aqueous solution.
A panel light assembly, comprising: a housing ; a light guide plate ; a light source comprising a light source plate and configured to emit a light passing through the light guide plate via a light incidence side of the light guide plate ; a support base configured for mounting the light source ; a heat dissipation structure fixed to a back side of the light source ;a deformable unit comprising a first elastic unit disposed between an inner side of a panel frame and a back side of the light source and disposed between the heat dissipation structure and an inner side of the housing ; and a stop piece disposed on a front side of the light source plate and configured for keeping at least a first distance between the light incidence side of the light guide plate and the light source when the light guide plate thermally expands so that the light incidence side of the light guide plate expands toward the light source , characterized in that , said deformable unit further comprises a second elastic unit disposed between a front side of the light source and the light guide plate ; wherein when the light guide plate thermally expands and engages the second elastic unit , the second elastic unit is deformed by the light guide plate until the lateral side of the light guide plate engages the stop piece and the deformation of the first elastic unit is larger than the deformation of the second elastic unit . a housing ; a light guide plate ; a light source comprising a light source plate and configured to emit a light passing through the light guide plate via a light incidence side of the light guide plate ; a support base configured for mounting the light source ; a heat dissipation structure fixed to a back side of the light source ;a deformable unit comprising a first elastic unit disposed between an inner side of a panel frame and a back side of the light source and disposed between the heat dissipation structure and an inner side of the housing ; and a stop piece disposed on a front side of the light source plate and configured for keeping at least a first distance between the light incidence side of the light guide plate and the light source when the light guide plate thermally expands so that the light incidence side of the light guide plate expands toward the light source , characterized in that , said deformable unit further comprises a second elastic unit disposed between a front side of the light source and the light guide plate ; wherein when the light guide plate thermally expands and engages the second elastic unit , the second elastic unit is deformed by the light guide plate until the lateral side of the light guide plate engages the stop piece and the deformation of the first elastic unit is larger than the deformation of the second elastic unit .
A method for inspecting a heating member being part of a cartridge of a device for generating inhalable vapours from a vaporizable liquid product, the method including the following steps: - processing an acquired image, being obtained by framing the heating member ; - identifying in the processed image a first closed region being associable to a first group of contact coils of a heating element being wound in coils about a wick , the first group of contact coils representing a first contact terminal configured to contact a respective first power electrode of the cartridge ; - identifying in the processed image a second closed region being associable to a second group of contact coils of the heating element , the second group of contact coils representing a second contact terminal configured to contact a respective second power electrode of the cartridge ; - calculating for the first closed region a respective first reference centre of the coils and calculating for the second closed region a respective second reference centre of the coils; - calculating a reference centre of the heating member being arranged between the first group of contact coils and the second group of contact coils , starting from the first reference centre of the coils and from the second reference centre of the coils, in order to use the reference centre of the heating member to be able to precisely couple the first and second terminal of the heating member , during a production step of the cartridge , respectively to the first power electrode of the cartridge and the second power electrode of the cartridge . - processing an acquired image, being obtained by framing the heating member ; - identifying in the processed image a first closed region being associable to a first group of contact coils of a heating element being wound in coils about a wick , the first group of contact coils representing a first contact terminal configured to contact a respective first power electrode of the cartridge ; - identifying in the processed image a second closed region being associable to a second group of contact coils of the heating element , the second group of contact coils representing a second contact terminal configured to contact a respective second power electrode of the cartridge ; - calculating for the first closed region a respective first reference centre of the coils and calculating for the second closed region a respective second reference centre of the coils; - calculating a reference centre of the heating member being arranged between the first group of contact coils and the second group of contact coils , starting from the first reference centre of the coils and from the second reference centre of the coils, in order to use the reference centre of the heating member to be able to precisely couple the first and second terminal of the heating member , during a production step of the cartridge , respectively to the first power electrode of the cartridge and the second power electrode of the cartridge .
An aqueous inkjet ink composition, comprising: a pigment; an alkali-soluble resin; a surfactant; a water-soluble solvent; and water, wherein the water-soluble solvent contains a solvent a selected from the group consisting of propylene glycol and 1,2-butanediol, and a solvent b selected from the group consisting of dipropylene glycol dimethyl ether and 3-methoxy-3-methyl-1-butanol, the total percentage of the solvent a and the solvent b in the water-soluble solvent being 95% by mass or more, and wherein the mass ratio of the solvent a to the solvent b (solvent a/solvent b) is of 0.8 or more and 3 or less, and wherein the aqueous inkjet ink composition has a total percentage of the solvent a and the solvent b of 20% by mass or more and 50% by mass or less. a pigment; an alkali-soluble resin; a surfactant; a water-soluble solvent; and water, wherein the water-soluble solvent contains a solvent a selected from the group consisting of propylene glycol and 1,2-butanediol, and a solvent b selected from the group consisting of dipropylene glycol dimethyl ether and 3-methoxy-3-methyl-1-butanol, the total percentage of the solvent a and the solvent b in the water-soluble solvent being 95% by mass or more, and wherein the mass ratio of the solvent a to the solvent b (solvent a/solvent b) is of 0.8 or more and 3 or less, and wherein the aqueous inkjet ink composition has a total percentage of the solvent a and the solvent b of 20% by mass or more and 50% by mass or less.
A process for preparing a biaxially oriented polyethylene terephthalate (BOPET) film comprising, the steps of - preparing a recycled polyethylene terephthalate (RPET) granules, comprises - depolymerization by glycolysis of a pre cleaned PET products to produce monomers, - polycondensation of monomers in a polycondensation reactor or an autoclave to produce recycled PET (RPET) granules, - preparing the biaxially oriented polyethylene terephthalate film, comprises - charging the RPET granules, along with a virgin PET granules (unless there is 100 % RPET), to an extruder to obtain a molten polyethylene terephthalate, - extruding the molten polyethylene terephthalate through a die, - quenching the extruded polyethylene terephthalate on chilled rollers and stretching to obtain biaxially oriented polyethylene terephthalate film, characterized in that , the glycolysis reaction is conducted in an esterification reactor by addition of glycol, at a temperature of 245-255 °C and at a pressure of 0.5-1 bar, and the RPET granules are charged to the extruder up to 90% for food or pharma packaging applications or up to 100% for industrial applications in the mixture of the RPET and virgin PET granules, charged to the extruder. - preparing a recycled polyethylene terephthalate (RPET) granules, comprises - depolymerization by glycolysis of a pre cleaned PET products to produce monomers, - polycondensation of monomers in a polycondensation reactor or an autoclave to produce recycled PET (RPET) granules, - depolymerization by glycolysis of a pre cleaned PET products to produce monomers, - polycondensation of monomers in a polycondensation reactor or an autoclave to produce recycled PET (RPET) granules, - preparing the biaxially oriented polyethylene terephthalate film, comprises - charging the RPET granules, along with a virgin PET granules (unless there is 100 % RPET), to an extruder to obtain a molten polyethylene terephthalate, - extruding the molten polyethylene terephthalate through a die, - quenching the extruded polyethylene terephthalate on chilled rollers and stretching to obtain biaxially oriented polyethylene terephthalate film, - charging the RPET granules, along with a virgin PET granules (unless there is 100 % RPET), to an extruder to obtain a molten polyethylene terephthalate, - extruding the molten polyethylene terephthalate through a die, - quenching the extruded polyethylene terephthalate on chilled rollers and stretching to obtain biaxially oriented polyethylene terephthalate film, characterized in that , the glycolysis reaction is conducted in an esterification reactor by addition of glycol, at a temperature of 245-255 °C and at a pressure of 0.5-1 bar, and the RPET granules are charged to the extruder up to 90% for food or pharma packaging applications or up to 100% for industrial applications in the mixture of the RPET and virgin PET granules, charged to the extruder.