mhurhangee/ep-ind-claims huggingface dataset:
A gasification system comprising: a gasification furnace configured to gasify fuel; a fuel supply apparatus configured to supply fuel to the gasification furnace; and an inner cylinder configured to introduce the fuel and air into the gasification furnace, the inner cylinder being included in the gasification furnace, the gasification system being configured to supply gas generated in the gasification furnace to an engine via a gas path, characterized in that the gasification system further includes: a detection unit (25,26a,26b,27a,27b) configured to detect whether or not a lower end portion of the inner cylinder is plugged with the fuel; and a control apparatus connected with the detection unit (25,26a,26b,27a,27b) and provided to control opening/closing of opening/closing valves (110,111,112) in the gasification system so as to stop the supply of the gas to the engine when it determines that the lower end portion of the inner cylinder is not plugged with the fuel based on a signal from the detection unit (25,26a,26b,27a,27b). a gasification furnace configured to gasify fuel; a fuel supply apparatus configured to supply fuel to the gasification furnace; and an inner cylinder configured to introduce the fuel and air into the gasification furnace, the inner cylinder being included in the gasification furnace, the gasification system being configured to supply gas generated in the gasification furnace to an engine via a gas path, characterized in that the gasification system further includes: a detection unit (25,26a,26b,27a,27b) configured to detect whether or not a lower end portion of the inner cylinder is plugged with the fuel; and a control apparatus connected with the detection unit (25,26a,26b,27a,27b) and provided to control opening/closing of opening/closing valves (110,111,112) in the gasification system so as to stop the supply of the gas to the engine when it determines that the lower end portion of the inner cylinder is not plugged with the fuel based on a signal from the detection unit (25,26a,26b,27a,27b). a detection unit (25,26a,26b,27a,27b) configured to detect whether or not a lower end portion of the inner cylinder is plugged with the fuel; and a control apparatus connected with the detection unit (25,26a,26b,27a,27b) and provided to control opening/closing of opening/closing valves (110,111,112) in the gasification system so as to stop the supply of the gas to the engine when it determines that the lower end portion of the inner cylinder is not plugged with the fuel based on a signal from the detection unit (25,26a,26b,27a,27b).
Cleaning unit for a device for cleaning a surface, comprising at least one motor and at least one first working body, wherein the first working body can be connected to the motor in such a way that the first working body can be directly rotated by the motor, wherein the motor is designed as an electric motor, characterized in that at least one second working body is present, and in that the second working body can be connected to the motor in such a way that the second working body can be directly rotated by the motor.
A method for heating an elongated polymer product, wherein infrared radiation is directed on the polymer product from at least two infrared radiators located within a heating zone, wherein the infrared radiators are arranged to move about the longitudinal axis of the polymer product along a circular arch in a continuous parallel movement during the heating of the polymer product, and wherein electric potential is introduced to the infrared radiators via one or more slip rings arranged to be rotated with the infrared radiators during the rotation of the infrared radiators, wherein the number of slip rings is at least two characterized in that they are arranged at a distance from each other, whereby a gas flow is directed between them during heating for cooling the infrared radiators.
A water-based ink composition for a ballpoint pen comprising: water; a coloring agent; and a copolymer obtained by copolymerizing a monomer represented by the following formula and a monomer represented by the following formula: (wherein R 1 is hydrogen or a methyl group) (wherein R 2 is hydrogen or a methyl group, and R 3 is a methyl group or an ethyl group), wherein the ratio of repeating unit derived from acrylic acid to repeating unit derived from methacrylic acid in the copolymer is 1: 0.01 to 1: 5 in terms of molar ratio. water; a coloring agent; and a copolymer obtained by copolymerizing a monomer represented by the following formula and a monomer represented by the following formula: (wherein R 1 is hydrogen or a methyl group) (wherein R 2 is hydrogen or a methyl group, and R 3 is a methyl group or an ethyl group), wherein the ratio of repeating unit derived from acrylic acid to repeating unit derived from methacrylic acid in the copolymer is 1: 0.01 to 1: 5 in terms of molar ratio.
Pulsator assembly for a milking plant comprising: - a pneumatic pulsator which in turn comprises: a body in which channels arranged for the passage of a pneumatic medium are provided; a main shaft which is linearly movable and carries a main slide valve suitable for selectively opening / closing communication clearances between said channels of said body and the milking assembly of said milking plant during the linear movement of said main shaft; means (109, 121) for periodically inverting the movement direction of said main shaft; an adjustment channel for the passage of said pneumatic medium, whereby the minimum cross-section of said adjustment channel determines the frequency at which the movement direction of said main shaft is inverted; - a stimulation device; and - connecting means (303, 305, 307) for connecting said channels of said pneumatic pulsator to said connecting elements of said stimulation device. characterized in that said stimulation device comprises a body with one or more by-pass channels provided in said body, which by-pass channels are in flow communication with said one or more channels for the passage of the pneumatic medium of said pulsator, said one or more by-pass channels having a section with a minimum cross-section, the diameter of which is greater than the minimum diameter of said one or more channels for the passage of the pneumatic medium of said pulsator, and in that said stimulation device comprises control means (211, 215) for allowing / preventing the flow communication between said by-pass channels and said one or more channels for the passage of the pneumatic medium of said pulsator. - a pneumatic pulsator which in turn comprises: a body in which channels arranged for the passage of a pneumatic medium are provided; a main shaft which is linearly movable and carries a main slide valve suitable for selectively opening / closing communication clearances between said channels of said body and the milking assembly of said milking plant during the linear movement of said main shaft; means (109, 121) for periodically inverting the movement direction of said main shaft; an adjustment channel for the passage of said pneumatic medium, whereby the minimum cross-section of said adjustment channel determines the frequency at which the movement direction of said main shaft is inverted; a body in which channels arranged for the passage of a pneumatic medium are provided; a main shaft which is linearly movable and carries a main slide valve suitable for selectively opening / closing communication clearances between said channels of said body and the milking assembly of said milking plant during the linear movement of said main shaft; means (109, 121) for periodically inverting the movement direction of said main shaft; an adjustment channel for the passage of said pneumatic medium, whereby the minimum cross-section of said adjustment channel determines the frequency at which the movement direction of said main shaft is inverted; - a stimulation device; and - connecting means (303, 305, 307) for connecting said channels of said pneumatic pulsator to said connecting elements of said stimulation device.
A system comprising: i) a surface sub-system comprising a pump configured to pump a fluid from a container, downhole into a wellbore; and a surface valve sub-assembly fluidically coupled to the pump and configured to receive a first portion of fluid pumped by the pump, the surface valve sub-assembly comprising: a dump valve, a surface controller communicatively coupled to the dump valve, the surface controller configured to adjust fluid flow through the dump valve, and a return line in fluid communication with the dump valve, the return line configured to flow fluid from the dump valve to the container; and ii) a downhole sub-system coupled to the surface valve sub-assembly and configured to be disposed within the wellbore, the downhole sub-system comprising a turbine-generator configured to generate an output in response to receiving a second portion of the fluid pumped by the pump, and a downhole controller coupled to the turbine-generator. i) a surface sub-system comprising a pump configured to pump a fluid from a container, downhole into a wellbore; and a surface valve sub-assembly fluidically coupled to the pump and configured to receive a first portion of fluid pumped by the pump, the surface valve sub-assembly comprising: a dump valve, a surface controller communicatively coupled to the dump valve, the surface controller configured to adjust fluid flow through the dump valve, and a return line in fluid communication with the dump valve, the return line configured to flow fluid from the dump valve to the container; and a pump configured to pump a fluid from a container, downhole into a wellbore; and a surface valve sub-assembly fluidically coupled to the pump and configured to receive a first portion of fluid pumped by the pump, the surface valve sub-assembly comprising: a dump valve, a surface controller communicatively coupled to the dump valve, the surface controller configured to adjust fluid flow through the dump valve, and a return line in fluid communication with the dump valve, the return line configured to flow fluid from the dump valve to the container; and a dump valve, a surface controller communicatively coupled to the dump valve, the surface controller configured to adjust fluid flow through the dump valve, and a return line in fluid communication with the dump valve, the return line configured to flow fluid from the dump valve to the container; and ii) a downhole sub-system coupled to the surface valve sub-assembly and configured to be disposed within the wellbore, the downhole sub-system comprising a turbine-generator configured to generate an output in response to receiving a second portion of the fluid pumped by the pump, and a downhole controller coupled to the turbine-generator. a turbine-generator configured to generate an output in response to receiving a second portion of the fluid pumped by the pump, and a downhole controller coupled to the turbine-generator.
A laminate film comprising a gas barrier film (11; 11a; 11b) and an adhesion-enhancing layer (10; 10a; 10b) formed on the gas barrier film (11; 11a; 11b), wherein: the adhesion-enhancing layer (10; 10a; 10b) contains a polymer that contains a group having a reactive carbon-carbon double bond and two or more hydroxyl groups, and polyisocyanate; and the adhesion-enhancing layer (10; 10a; 10b) has a thickness in a range of 0.01 μm or more to 1 μm or less. the adhesion-enhancing layer (10; 10a; 10b) contains a polymer that contains a group having a reactive carbon-carbon double bond and two or more hydroxyl groups, and polyisocyanate; and the adhesion-enhancing layer (10; 10a; 10b) has a thickness in a range of 0.01 μm or more to 1 μm or less.
Textile electromagnetic protection sheath, characterized in that the textile is formed of conductive filaments (11, 11') extending in a first direction corresponding to a first longitudinal direction of the sheath in order to provide electromagnetic protection and non-conductive filaments (12, 12') interlaced with said conductive filaments (11, 11'), the non-conductive filaments (12, 12') having a diameter greater than the diameter of the conductive filaments (11, 11') in order to protect the conductive filaments from wear by rubbing or abrasion.
A method of forming a carbon aerogel, comprising 3-D printing an ink to make a printed part, wherein the ink comprises solvent, a resorcinol-formaldehyde resin, and an organic thickener; removing the solvent from the printed part; and carbonizing the printed part to make the aerogel, wherein the resorcinol-formaldehyde resin comprises an acid catalyst and has a formaldehyde: resorcinol molar ratio greater than 1:1, wherein the thickener is soluble in water, is made of only C, H, and O atoms, and contains only ether or alcohol functional groups. 3-D printing an ink to make a printed part, wherein the ink comprises solvent, a resorcinol-formaldehyde resin, and an organic thickener; removing the solvent from the printed part; and carbonizing the printed part to make the aerogel, wherein the resorcinol-formaldehyde resin comprises an acid catalyst and has a formaldehyde: resorcinol molar ratio greater than 1:1, wherein the thickener is soluble in water, is made of only C, H, and O atoms, and contains only ether or alcohol functional groups.
A spray deposition system, comprising: a syringe attachment device (14, 1014) having a base with a coupling portion and a top portion, the syringe attachment device comprising: a needle adjacent a syringe channel, the syringe channel configured to receive a syringe; and a tube having a discharge end proximate a delivery end of the needle, the tube configured to deliver an air flow; a handheld device having an upper surface and including a movable slide disposed on the upper surface, wherein the handheld device is configured to be coupled to the coupling portion of the syringe attachment device in an assembled position of the system and control delivery of a treatment solution from the syringe; characterized in that a sterile cover (100, 1100) is positioned to provide an impervious barrier between at least a portion of the syringe attachment device (14, 1014) and the handheld device, during delivery of the treatment solution. a syringe attachment device (14, 1014) having a base with a coupling portion and a top portion, the syringe attachment device comprising: a needle adjacent a syringe channel, the syringe channel configured to receive a syringe; and a tube having a discharge end proximate a delivery end of the needle, the tube configured to deliver an air flow; a needle adjacent a syringe channel, the syringe channel configured to receive a syringe; and a tube having a discharge end proximate a delivery end of the needle, the tube configured to deliver an air flow; a handheld device having an upper surface and including a movable slide disposed on the upper surface, wherein the handheld device is configured to be coupled to the coupling portion of the syringe attachment device in an assembled position of the system and control delivery of a treatment solution from the syringe; characterized in that a sterile cover (100, 1100) is positioned to provide an impervious barrier between at least a portion of the syringe attachment device (14, 1014) and the handheld device, during delivery of the treatment solution.
A method for matching appearance of a target coating on a substrate, the method comprising: providing a coating chip comprising a chip coating layer having a neutral color and a chip coarseness: illuminating the chip coating layer with a light having an illumination color similar to the target color of the target coating, wherein the chip coating layer exhibits the chip coarseness and the illumination color in the presence of the light having the illumination color; and utilizing the chip coating layer exhibiting the chip coarseness and the illumination color for matching the appearance of the target coating. illuminating the chip coating layer with a light having an illumination color similar to the target color of the target coating, wherein the chip coating layer exhibits the chip coarseness and the illumination color in the presence of the light having the illumination color; and utilizing the chip coating layer exhibiting the chip coarseness and the illumination color for matching the appearance of the target coating.
A vehicular lamp fitting comprising: a lamp housing; an outer lens attached to the lamp housing, the outer lens comprising a recessed part and forming a first space between the outer lens and the lamp housing; a lamp unit disposed in the first space; a radar cover disposed in a state of covering the recessed part and forming a second space between the radar cover and the recessed part; a bracket disposed in the second space; a radar unit disposed in the second space in a state where the radar unit is detachably fixed to the bracket; and characterized by comprising a first fixing part (34d1, 34d2) fixing one end of the bracket to the outer lens; and a second fixing part fixing the other end of the bracket to the lamp housing, wherein, the first fixed part (34d1, 34d2) is provided above the radar unit, and the second fixed part is provided below the radar unit. a lamp housing; an outer lens attached to the lamp housing, the outer lens comprising a recessed part and forming a first space between the outer lens and the lamp housing; a lamp unit disposed in the first space; a radar cover disposed in a state of covering the recessed part and forming a second space between the radar cover and the recessed part; a bracket disposed in the second space; a radar unit disposed in the second space in a state where the radar unit is detachably fixed to the bracket; and characterized by comprising a first fixing part (34d1, 34d2) fixing one end of the bracket to the outer lens; and a second fixing part fixing the other end of the bracket to the lamp housing, wherein, the first fixed part (34d1, 34d2) is provided above the radar unit, and the second fixed part is provided below the radar unit. a first fixing part (34d1, 34d2) fixing one end of the bracket to the outer lens; and a second fixing part fixing the other end of the bracket to the lamp housing, wherein, the first fixed part (34d1, 34d2) is provided above the radar unit, and the second fixed part is provided below the radar unit.
A drug linker conjugate compound having the formula: A a ―W w -Y y ―D 1-4 or a salt or solvate thereof, wherein: A a -W w -Y y - is a Linker Unit; subscript a is 1 or 2; A- is a Stretcher Unit that has a maleimide moiety capable of forming a covalent bond to a sulfur atom of a Ligand Unit, wherein the Ligand Unit is selected from the group consisting of a protein, a polypeptide, and a peptide; -W- is a Glucuronide Unit having the formula: Su is a Sugar moiety; O'- represents an oxygen atom of a glycosidic bond cleavable by betaglucuronidase; each R is independently hydrogen, a halogen, -CN, or -NO 2; subscript w is 1, Y- is an optional Self-Immolative Spacer Unit, subscript y is 0, 1 or 2; and D is a Drug Unit; and wherein the wavy line indicates covalent attachment to the Stretcher Unit and the asterisk indicates covalent attachment to the optional Self-Immolative Spacer Unit, if present, or to the Drug Unit if the optional Self-Immolative Spacer Unit is absent, wherein the Drug Linker compound has the formula or a salt or solvate thereof. A a -W w -Y y - is a Linker Unit; subscript a is 1 or 2; A- is a Stretcher Unit that has a maleimide moiety capable of forming a covalent bond to a sulfur atom of a Ligand Unit, wherein the Ligand Unit is selected from the group consisting of a protein, a polypeptide, and a peptide; -W- is a Glucuronide Unit having the formula: Su is a Sugar moiety; O'- represents an oxygen atom of a glycosidic bond cleavable by betaglucuronidase; each R is independently hydrogen, a halogen, -CN, or -NO 2; subscript w is 1, Y- is an optional Self-Immolative Spacer Unit, subscript y is 0, 1 or 2; and D is a Drug Unit; and wherein the wavy line indicates covalent attachment to the Stretcher Unit and the asterisk indicates covalent attachment to the optional Self-Immolative Spacer Unit, if present, or to the Drug Unit if the optional Self-Immolative Spacer Unit is absent, wherein the Drug Linker compound has the formula or a salt or solvate thereof.
A system comprising: a catheter having a catheter basket including a plurality of electrodes disposed on a plurality of bendable splines; and a processor including a graphics processing unit, GPU, having a geometry shader, the processor, configured to: receive endpoint location data, known spline length, and spline tangent data for the catheter in the geometry shader of the GPU, wherein the endpoint location data comprises positions of a distal end and a proximal end of at least one spline of the catheter basket and wherein the spline tangent data includes a tangent of the at least one spline at a proximal end of the spline, process the endpoint location data, known spline length, and spline tangent data to calculate fourth order Bezier curve control points; and based on the fourth order Bezier curve control points, determine estimated electrode positions on the at least one spline of the catheter basket. a catheter having a catheter basket including a plurality of electrodes disposed on a plurality of bendable splines; and a processor including a graphics processing unit, GPU, having a geometry shader, the processor, configured to: receive endpoint location data, known spline length, and spline tangent data for the catheter in the geometry shader of the GPU, wherein the endpoint location data comprises positions of a distal end and a proximal end of at least one spline of the catheter basket and wherein the spline tangent data includes a tangent of the at least one spline at a proximal end of the spline, process the endpoint location data, known spline length, and spline tangent data to calculate fourth order Bezier curve control points; and based on the fourth order Bezier curve control points, determine estimated electrode positions on the at least one spline of the catheter basket. receive endpoint location data, known spline length, and spline tangent data for the catheter in the geometry shader of the GPU, wherein the endpoint location data comprises positions of a distal end and a proximal end of at least one spline of the catheter basket and wherein the spline tangent data includes a tangent of the at least one spline at a proximal end of the spline, process the endpoint location data, known spline length, and spline tangent data to calculate fourth order Bezier curve control points; and based on the fourth order Bezier curve control points, determine estimated electrode positions on the at least one spline of the catheter basket.