mhurhangee/ep-ind-claims huggingface dataset:
An ink-jet printer comprising: a base material transport mechanism for transporting a base material along a transport path from upstream to downstream in a transport direction; at least one ink ejection head having a lower surface opposed to said transport path over said transport path, and an ink ejection port open toward said transport path in said lower surface and for ejecting ink toward said transport path; and a base plate having an opposite surface opposed to said transport path over said transport path, and at least one mounting hole open in said opposite surface, said ink ejection head being mounted in said mounting hole, said base plate including an air flow hole that is a through hole penetrating through said base plate, said air flow hole having at least one air outlet open in a location downstream in said transport direction of said ink ejection port in said opposite surface, wherein air passing through said air flow hole is ejected from said air outlet toward said transport path, and wherein said air flow hole is formed by an outer surface of said ink ejection head disposed inside said mounting hole and an inner surface of said mounting hole; and an air supply unit provided at the upper side of said base plate and for supplying air directed toward said air outlet to said air flow hole; characterised in that the ink-jet printer further comprises: a sealing material closing a gap between an upstream side in said transport direction on said inner surface of said mounting hole and an upstream side in said transport direction on said outer surface of said ink ejection head. a base material transport mechanism for transporting a base material along a transport path from upstream to downstream in a transport direction; at least one ink ejection head having a lower surface opposed to said transport path over said transport path, and an ink ejection port open toward said transport path in said lower surface and for ejecting ink toward said transport path; and a base plate having an opposite surface opposed to said transport path over said transport path, and at least one mounting hole open in said opposite surface, said ink ejection head being mounted in said mounting hole, said base plate including an air flow hole that is a through hole penetrating through said base plate, said air flow hole having at least one air outlet open in a location downstream in said transport direction of said ink ejection port in said opposite surface, wherein air passing through said air flow hole is ejected from said air outlet toward said transport path, and wherein said air flow hole is formed by an outer surface of said ink ejection head disposed inside said mounting hole and an inner surface of said mounting hole; and an air supply unit provided at the upper side of said base plate and for supplying air directed toward said air outlet to said air flow hole; characterised in that the ink-jet printer further comprises: a sealing material closing a gap between an upstream side in said transport direction on said inner surface of said mounting hole and an upstream side in said transport direction on said outer surface of said ink ejection head.
A vacuum cleaner (10, 210), comprising: an upright body (12, 212); a base (14, 214) operably coupled to the upright body (12, 212) and including a dry suction nozzle (30, 230) and adapted for movement along a surface to be cleaned; a wet extraction module selectively operably couplable and removable from the base (14, 214), the wet extraction module including a wet suction nozzle (42, 242, 442); and a suction source (32, 232) at least selectively fluidly coupled to the dry suction nozzle (30, 230) and the wet suction nozzle (42, 242, 442) via a fluid recovery pathway, characterized in that the wet extraction module further comprises a wet recovery tank (44, 244, 444) that can be removably mounted on the base (14, 214). an upright body (12, 212); a base (14, 214) operably coupled to the upright body (12, 212) and including a dry suction nozzle (30, 230) and adapted for movement along a surface to be cleaned; a wet extraction module selectively operably couplable and removable from the base (14, 214), the wet extraction module including a wet suction nozzle (42, 242, 442); and a suction source (32, 232) at least selectively fluidly coupled to the dry suction nozzle (30, 230) and the wet suction nozzle (42, 242, 442) via a fluid recovery pathway, characterized in that the wet extraction module further comprises a wet recovery tank (44, 244, 444) that can be removably mounted on the base (14, 214).
A spatial light modulator comprising: a control substrate having an upper portion with a plurality of electrodes connected to functional circuitry; a plurality of mirror pl ates, each mirror plate having an upper reflective surface and a lower conductive portion having a pair of torsion hinges embedded in a cavity in the lower conductive portion of the mirror plate; a plurality of hinge support posts on top of said control substrate, each pair of hinge support posts supporting the pair of torsion hinges to facilitate mirror plate rotation about an axis, wherein each pair of hinge support posts is positioned under the cavity of an associated mirror plate of the plurality of mirror plates. a control substrate having an upper portion with a plurality of electrodes connected to functional circuitry; a plurality of mirror pl ates, each mirror plate having an upper reflective surface and a lower conductive portion having a pair of torsion hinges embedded in a cavity in the lower conductive portion of the mirror plate; a plurality of hinge support posts on top of said control substrate, each pair of hinge support posts supporting the pair of torsion hinges to facilitate mirror plate rotation about an axis, wherein each pair of hinge support posts is positioned under the cavity of an associated mirror plate of the plurality of mirror plates
A dendritic cell that has been loaded in vitro with tumor-specific or tumor-derived RNA or pathogen-specific or pathogen-derived RNA, wherein said cell presents on its surface a tumor or pathogen epitope encoded by said RNA.
A multiple operator core network, MOCN, cell communication method, characterized by comprising: when receiving an access request sent by a user equipment, UE, detecting whether an idle channel exists in an MOCN cell whose access is requested by the UE; and if yes, assigning the idle channel to the UE, so that the UE accesses the MOCN cell for communication; and if not, processing, according to a preset rule, the access request sent by the UE so as to allow the UE to access the MOCN cell by preempting a channel resource which is being used by another UE, or reject access of the UE to the MOCN cell. when receiving an access request sent by a user equipment, UE, detecting whether an idle channel exists in an MOCN cell whose access is requested by the UE; and if yes, assigning the idle channel to the UE, so that the UE accesses the MOCN cell for communication; and if not, processing, according to a preset rule, the access request sent by the UE so as to allow the UE to access the MOCN cell by preempting a channel resource which is being used by another UE, or reject access of the UE to the MOCN cell.
Waste end stretching device for a weaving machine comprising a suction nozzle adapted to be arranged in the path of a waste end of an inserted weft thread projecting beyond an edge of a woven fabric, wherein the suction nozzle is adapted for applying a suction force along a longitudinal direction of the suction nozzle, wherein the suction nozzle is adapted for being attached to the weaving machine such that the longitudinal direction of the suction nozzle extends in parallel to the weft insertion direction, characterized in that the suction nozzle is provided with a lateral suction slit extending along the longitudinal direction of the suction nozzle for sucking waste ends into the suction nozzle and with an opening provided at a first end of the suction nozzle facing the edge of the woven fabric for conveying waste ends held in the suction nozzle in a direction perpendicular to the longitudinal direction of the suction nozzle, and wherein a deflecting element is provided between the opening and the edge of the woven fabric, which deflecting element at least partly projects beyond the opening for deflecting waste ends held in the suction nozzle in their path between the edge of the woven fabric and the opening.
Feeder for an adhesive binding machine with an essentially horizontal supply section for supplying book blocks in a transport direction, at least one front stop applied at the end of the feed section for slowing down a book block and two grippers positioned at the end of the supply section for gripping a book block, characterised in that the grippers have an axis of rotation and a rotary drive (10, 9, 14) for swivelling (s) a book block from its essentially horizontal position on the supply section into an essentially vertical position for delivering into a book block clamp of an adhesive binding machine, in which the axis of rotation runs parallel to a conveying plane of the supply section and at right angles to the transport direction and that each gripper is housed on a linear guide carriage and may be displaced in or against the transport direction by displacing the linear guide carriage along a linear guide allocated to it.
Aerated food composition having a continuous fat phase, the composition comprising between 20 and 60 wt.% of fat and between 40 and 80 wt.% of non-fat solids having a particle size distribution D90 of less than 250 μm, as measured by laser light scattering, the fat comprising a high-melting fat, a medium-melting fat, and a low-melting fat, wherein the aerated composition comprises, on a total fat basis, less than 50 wt.% of saturated fatty acids, between 9 and 60 wt.% of monounsaturated fatty acid, and less than 30 wt.% of polyunsaturated fatty acid, and wherein the high-melting fat has a melting point between 35 °C and 80 °C, the medium-melting fat has a melting point between 15 °C and 30 °C and the low-melting fat has a melting point between -50 °C and 5 °C and the aerated food composition is prepared by a method comprising the steps: providing a composition comprising the non-fat solids and the fat, the continuous fat phase comprised within the composition being liquid; letting the composition perform a first crystallization event; aerating the composition; and controlling the temperature of the aerated composition to allow a second crystallization event in the composition. between 20 and 60 wt.% of fat and between 40 and 80 wt.% of non-fat solids having a particle size distribution D90 of less than 250 μm, as measured by laser light scattering, the fat comprising a high-melting fat, a medium-melting fat, and a low-melting fat, wherein the aerated composition comprises, on a total fat basis, less than 50 wt.% of saturated fatty acids, between 9 and 60 wt.% of monounsaturated fatty acid, and less than 30 wt.% of polyunsaturated fatty acid, and wherein the high-melting fat has a melting point between 35 °C and 80 °C, the medium-melting fat has a melting point between 15 °C and 30 °C and the low-melting fat has a melting point between -50 °C and 5 °C and the aerated food composition is prepared by a method comprising the steps: providing a composition comprising the non-fat solids and the fat, the continuous fat phase comprised within the composition being liquid; letting the composition perform a first crystallization event; aerating the composition; and controlling the temperature of the aerated composition to allow a second crystallization event in the composition. providing a composition comprising the non-fat solids and the fat, the continuous fat phase comprised within the composition being liquid; letting the composition perform a first crystallization event; aerating the composition; and controlling the temperature of the aerated composition to allow a second crystallization event in the composition.
A binder comprising a polymeric product of a carbohydrate reactant and a nucleophile, wherein the binder comprises the following features: - wherein (a) the nucleophile is R 1 -Q-R 2, (b) Q is alkyl, cycloalkyl, heteroalkyl, or cycloheteroalkyl, each of which is optionally substituted having a nucleophilic moiety and a stabilization moiety, (c) R 1 is selected from the group consisting of an amine, an azide, a cyanate, an isocyanate, a thiol, a disulfide, a thiocyanate, a halogen, a haloformyl, a carboxyl, a carboxylate, a hydroxyl, and an alkoxide, and (d) R 2 is selected from the group consisting of an amine, an amide, an imine, an imide, a nitro, a nitrate, a pyridine, a phosphate, a phosphono, a hydroxyl, a hydrogen, a sulphono, a sulpho, a sulfinyl, and a sulfhydryl; and - wherein the carbohydrate reactant is selected from the group consisting of dextrose, xylose, fructose, dihydroxyacetone, and mixtures thereof; - wherein a mole ratio of the carbohydrate reactant to the nucleophile is in the range of about 1:1 to about 30:1; and - wherein the polymeric product is phenol-free and formaldehyde-free. - wherein (a) the nucleophile is R 1 -Q-R 2, (b) Q is alkyl, cycloalkyl, heteroalkyl, or cycloheteroalkyl, each of which is optionally substituted having a nucleophilic moiety and a stabilization moiety, (c) R 1 is selected from the group consisting of an amine, an azide, a cyanate, an isocyanate, a thiol, a disulfide, a thiocyanate, a halogen, a haloformyl, a carboxyl, a carboxylate, a hydroxyl, and an alkoxide, and (d) R 2 is selected from the group consisting of an amine, an amide, an imine, an imide, a nitro, a nitrate, a pyridine, a phosphate, a phosphono, a hydroxyl, a hydrogen, a sulphono, a sulpho, a sulfinyl, and a sulfhydryl; and (a) the nucleophile is R 1 -Q-R 2, (b) Q is alkyl, cycloalkyl, heteroalkyl, or cycloheteroalkyl, each of which is optionally substituted having a nucleophilic moiety and a stabilization moiety, (c) R 1 is selected from the group consisting of an amine, an azide, a cyanate, an isocyanate, a thiol, a disulfide, a thiocyanate, a halogen, a haloformyl, a carboxyl, a carboxylate, a hydroxyl, and an alkoxide, and (d) R 2 is selected from the group consisting of an amine, an amide, an imine, an imide, a nitro, a nitrate, a pyridine, a phosphate, a phosphono, a hydroxyl, a hydrogen, a sulphono, a sulpho, a sulfinyl, and a sulfhydryl; and - wherein the carbohydrate reactant is selected from the group consisting of dextrose, xylose, fructose, dihydroxyacetone, and mixtures thereof; - wherein a mole ratio of the carbohydrate reactant to the nucleophile is in the range of about 1:1 to about 30:1; and - wherein the polymeric product is phenol-free and formaldehyde-free.
A method for use in estimating blood glucose concentration and performed by a blood glucose control system, the method comprising: receiving a sensor signal representative of a blood glucose concentration; concurrently processing the sensor signal by a plurality of distinct filters (560, 562, 564) on associated filter-signal paths (554, 556, 558) to provide a plurality of respective candidate output signals; obtaining a measurement of noise of said sensor signal; mapping the measurement of noise to one of a plurality of discrete levels or values; and selecting an output signal for use in estimating said blood glucose concentration from among said plurality of candidate output signals based on said mapping. receiving a sensor signal representative of a blood glucose concentration; concurrently processing the sensor signal by a plurality of distinct filters (560, 562, 564) on associated filter-signal paths (554, 556, 558) to provide a plurality of respective candidate output signals; obtaining a measurement of noise of said sensor signal; mapping the measurement of noise to one of a plurality of discrete levels or values; and selecting an output signal for use in estimating said blood glucose concentration from among said plurality of candidate output signals based on said mapping.
An illumination system for a biological growth system having a biological chamber with an interior configured to contain biological material, comprising: a light source that generates light having a wavelength to which the biological material is sensitive; and at least one nanostructured optical fiber having a central axis, a silica based glass core, a glass cladding structure comprising the nanostructures, an outer surface and an end optically coupled to the light source, the fiber configured to have a plurality of bends formed therein so as to scatter guided light away from the central axis and through the outer surface to form a light-source fiber portion having a length that emits substantially uniform radiation over its length. a light source that generates light having a wavelength to which the biological material is sensitive; and at least one nanostructured optical fiber having a central axis, a silica based glass core, a glass cladding structure comprising the nanostructures, an outer surface and an end optically coupled to the light source, the fiber configured to have a plurality of bends formed therein so as to scatter guided light away from the central axis and through the outer surface to form a light-source fiber portion having a length that emits substantially uniform radiation over its length.
A method for preparing frozen coconut containing frozen coconut meat and frozen coconut water, in which the entire coconut shell is preserved intact with coconut meat and coconut water inside the coconut shell, the method comprising: a. dehusking a coconut to remove an outer green layer and at least a majority portion of a fibrous husk thereof; b. drying said dehusked coconut until it weighs at least 5% less than its weight prior to drying; and c. freezing the coconut in an environment at or below 0 degrees Celsius. a. dehusking a coconut to remove an outer green layer and at least a majority portion of a fibrous husk thereof; b. drying said dehusked coconut until it weighs at least 5% less than its weight prior to drying; and c. freezing the coconut in an environment at or below 0 degrees Celsius.
A method of making a mineral melt, the method comprising the steps of: providing a circulating combustion chamber; injecting fuel, preheated mineral material and combustion gas into the circulating combustion chamber; combusting the fuel in the circulating combustion chamber thereby melting the mineral material to form a mineral melt and generating exhaust gases; separating the exhaust gases from the mineral melt, collecting the mineral melt and passing the exhaust gases to a heat exchange system; wherein the mineral material comprises a first mineral material and a second mineral material, wherein the first mineral material has a sintering temperature higher than the second mineral material and wherein the first mineral material is a raw mineral material and the second mineral material is bonded mineral wool; the method being characterised in that the first and second mineral materials are provided separately to the heat exchange system, the first mineral material is preheated through contact with the exhaust gases and subsequently the second mineral material is preheated through contact with the exhaust gases and the preheated first mineral material. providing a circulating combustion chamber; injecting fuel, preheated mineral material and combustion gas into the circulating combustion chamber; combusting the fuel in the circulating combustion chamber thereby melting the mineral material to form a mineral melt and generating exhaust gases; separating the exhaust gases from the mineral melt, collecting the mineral melt and passing the exhaust gases to a heat exchange system; wherein the mineral material comprises a first mineral material and a second mineral material, wherein the first mineral material has a sintering temperature higher than the second mineral material and wherein the first mineral material is a raw mineral material and the second mineral material is bonded mineral wool; the method being characterised in that the first and second mineral materials are provided separately to the heat exchange system, the first mineral material is preheated through contact with the exhaust gases and subsequently the second mineral material is preheated through contact with the exhaust gases and the preheated first mineral material.
Pull rod device arrangement of a brake caliper, comprising a pull rod top (3a, 30), a pull rod bottom (3b, 31), and two vertical rods (5, 5'), wherein the pull rod top (3a, 30) and the pull rod bottom (3b, 31) of the pull rod device are connected to each other, wherein the pull rod top and the pull rod bottom of the pull rod device are designed as separate parts, wherein the pull rod top and the pull rod bottom of the pull rod device being separate parts are connected to each other by the two vertical rods (5, 5'), characterised in that the pull rod top has a triangular shape, wherein two side portions (30a, 30'a) form mirror-inverted lateral triangle legs having their vertex in a connection, wherein each free end of the side portions (30a, 30'a) is connected to a respective support portion (30b, 30'b), wherein transition areas of each connection of the side portions (30a, 30'a) and the respective support portions (30b, 30'b) are spaced apart and are connected via a cross-connector, wherein said cross-connector has a crescent-shape, which is bent to the connection, wherein each support portion (30b, 30'b) has a fastening boring (30e, 30'e), in which top ends (10, 10') of the vertical rods (5,5') are inserted, wherein the pull rod bottom has a crescent shape, wherein each end of the pull rod bottom is connected to a respective support portion (31a, 31'a), each support portion (31a, 31'a) having a fastening boring (31b, 31'b), in which bottom ends of the vertical rods (5, 5') are inserted. wherein the pull rod top and the pull rod bottom of the pull rod device are designed as separate parts, wherein the pull rod top and the pull rod bottom of the pull rod device being separate parts are connected to each other by the two vertical rods (5, 5'), characterised in that the pull rod top has a triangular shape, wherein two side portions (30a, 30'a) form mirror-inverted lateral triangle legs having their vertex in a connection, wherein each free end of the side portions (30a, 30'a) is connected to a respective support portion (30b, 30'b), wherein transition areas of each connection of the side portions (30a, 30'a) and the respective support portions (30b, 30'b) are spaced apart and are connected via a cross-connector, wherein said cross-connector has a crescent-shape, which is bent to the connection, wherein each support portion (30b, 30'b) has a fastening boring (30e, 30'e), in which top ends (10, 10') of the vertical rods (5,5') are inserted, wherein the pull rod bottom has a crescent shape, wherein each end of the pull rod bottom is connected to a respective support portion (31a, 31'a), each support portion (31a, 31'a) having a fastening boring (31b, 31'b), in which bottom ends of the vertical rods (5, 5') are inserted.
Plug-in piece for the sealing connection of two associated cylinder surfaces, comprising a supporting body, which is essentially in the form of a hollow body and has at least one annularly encircling sealing element, which, for the purpose of establishing a sealed connection, can be brought into engagement with one of the cylinder surfaces which is to be sealed, wherein the sealing element is designed in the form of a sealing bead, which encircles the outer surface of the supporting body in an annular manner and has a curved sealing surface, characterized in that, in the region of the curved sealing surface, the annularly encircling sealing bead (3, 30) has a grooved formation which follows the contour of the sealing bead, wherein the grooved formation is provided in the region of the curved surface of the sealing bead (3, 30), said curved surface forming the sealing surface.