mhurhangee/patent-ind-claim-en huggingface dataset:
An image sensor, comprising: a substrate ; an isolation structure disposed on the substrate , wherein the isolation structure is electrically non-conductive and defines a plurality of pixel regions on the substrate ; a photoelectric conversion layer disposed on the pixel regions defined by the isolation structure , wherein the isolation structure prevents cross-talk of electrical signals in the photoelectric conversion layer among the pixel regions ; a transparent electrode layer disposed over the isolation structure and the photoelectric conversion layer ; an encapsulation layer disposed over the transparent electrode layer ; a color filter layer (CF) disposed over the encapsulation layer corresponding to the pixel regions ; and a micro-lens layer (ML) disposed on the color filter layer (CF), wherein the isolation structure comprises isolation walls , wherein the isolation walls are portions of the isolation structure between adjacent ones of the plurality of pixel regions , characterized in that the photoelectric conversion layer exposes at least a portion of sidewalls of the isolation walls . a substrate ; an isolation structure disposed on the substrate , wherein the isolation structure is electrically non-conductive and defines a plurality of pixel regions on the substrate ; a photoelectric conversion layer disposed on the pixel regions defined by the isolation structure , wherein the isolation structure prevents cross-talk of electrical signals in the photoelectric conversion layer among the pixel regions ; a transparent electrode layer disposed over the isolation structure and the photoelectric conversion layer ; an encapsulation layer disposed over the transparent electrode layer ; a color filter layer (CF) disposed over the encapsulation layer corresponding to the pixel regions ; and a micro-lens layer (ML) disposed on the color filter layer (CF), wherein the isolation structure comprises isolation walls , wherein the isolation walls are portions of the isolation structure between adjacent ones of the plurality of pixel regions , characterized in that the photoelectric conversion layer exposes at least a portion of sidewalls of the isolation walls .
Device for testing a sample via a gas stream, comprising: - an opening , - means for generating a gas stream in the device along at least one flow path passing through the opening, - at least one pressure sensor , each pressure sensor being arranged in order to measure a pressure of the gas stream along at least one flow path, and - a mass flowmeter , arranged in order to measure a parameter representing the mass flow rate of the gas stream along each flow path and wherein: - the at least one flow path comprises an exhaust path terminating at the opening, - the means for generating the gas stream are arranged in order to exhaust in the sample a leakage gas along the exhaust path, - the at least one pressure sensor comprises an exhaust pressure sensor arranged in order to measure a pressure of the leakage gas along the exhaust path, - the mass flowmeter is arranged in order to measure a parameter representing the mass flow rate of the leakage gas along the exhaust path, and wherein the device is characterized in that it further comprises calculation means arranged in order to determine the size of a leak hole , based on a measurement of the parameter representing the mass flow rate along the exhaust path the mass flowmeter being a mass flowmeter using thermal conductivity. - an opening , - means for generating a gas stream in the device along at least one flow path passing through the opening, - at least one pressure sensor , each pressure sensor being arranged in order to measure a pressure of the gas stream along at least one flow path, and - a mass flowmeter , arranged in order to measure a parameter representing the mass flow rate of the gas stream along each flow path - the at least one flow path comprises an exhaust path terminating at the opening, - the means for generating the gas stream are arranged in order to exhaust in the sample a leakage gas along the exhaust path, - the at least one pressure sensor comprises an exhaust pressure sensor arranged in order to measure a pressure of the leakage gas along the exhaust path, - the mass flowmeter is arranged in order to measure a parameter representing the mass flow rate of the leakage gas along the exhaust path,
Cracking furnace system for converting a hydrocarbon feedstock into cracked gas comprising a convection section , a radiant section and a cooling section, wherein the convection section includes a plurality of convection banks configured to receive and preheat hydrocarbon feedstock, wherein the radiant section includes a firebox comprising at least one radiant coil configured to heat up the feedstock to a temperature allowing a pyrolysis reaction, wherein the cooling section includes at least one transfer line exchanger , wherein the system is configured such that the feedstock is preheated by the transfer line exchanger before entry into the radiant section, wherein the convection section comprises a boiler coil configured to generate saturated steam, the system further comprising a steam drum which is connected to the boiler coil.
A method of producing at least one three dimensional printed part, the method comprising: continuously constructing to extend outwardly a diameter of a rotating cylindrical core via addition of a continuously deposited layer using a deposition system, wherein the cylindrical core is rotated by a rotating system; and defining a first pattern in the continuously deposited layer corresponding to a cross-section of the at least one 3D printed part, wherein the deposition system comprises a first subsystem configured to move radially with respect to the cylinder to continuously deposit a first portion of the layer on a curved outer surface of the rotating cylinder, and wherein the deposition system comprises a second subsystem configured to move radially with respect to the diameter of the cylinder to deposit a second portion of the layer on the curved outer surface of the rotating cylinder, and wherein the first portion comprises a first material and wherein the second portion comprises a second material , and wherein the rotating system comprises a support plate , wherein an axis of rotation of the cylindrical core is perpendicular to the support plate and the axis is oriented parallel to the direction of gravity. continuously constructing to extend outwardly a diameter of a rotating cylindrical core via addition of a continuously deposited layer using a deposition system, wherein the cylindrical core is rotated by a rotating system; and defining a first pattern in the continuously deposited layer corresponding to a cross-section of the at least one 3D printed part, wherein the deposition system comprises a first subsystem configured to move radially with respect to the cylinder to continuously deposit a first portion of the layer on a curved outer surface of the rotating cylinder, and wherein the deposition system comprises a second subsystem configured to move radially with respect to the diameter of the cylinder to deposit a second portion of the layer on the curved outer surface of the rotating cylinder, and wherein the first portion comprises a first material and wherein the second portion comprises a second material , and wherein the rotating system comprises a support plate , wherein an axis of rotation of the cylindrical core is perpendicular to the support plate and the axis is oriented parallel to the direction of gravity.
A flexible sensor unit for embedding in a tire , the flexible sensor unit comprising: a plurality of individual circuit boards , wherein each circuit board includes at least one electronic component, the at least one electronic component including at least one of a radio frequency identification integrated circuit , at least one a microcontroller unit , at least one sensor , at least one power source and at least one boost converter ; a plurality of electrically conductive flexible connecting ribbons or structures, each connecting ribbon or structure extending between selected ones of the individual circuit boards ; an end ribbon or structure being electrically connected to at least one of the circuit boards ; and an antenna being disposed on the end ribbon ; wherein the antenna is configured to transmit data from the at least one sensor as processed by the microcontroller unit and to transmit identification data from the radio frequency identification integrated circuit , to an external reader, characterized in that the connecting ribbons or structures are made of a single-layer polyimide. a plurality of individual circuit boards , wherein each circuit board includes at least one electronic component, the at least one electronic component including at least one of a radio frequency identification integrated circuit , at least one a microcontroller unit , at least one sensor , at least one power source and at least one boost converter ; a plurality of electrically conductive flexible connecting ribbons or structures, each connecting ribbon or structure extending between selected ones of the individual circuit boards ; an end ribbon or structure being electrically connected to at least one of the circuit boards ; and an antenna being disposed on the end ribbon ; wherein the antenna is configured to transmit data from the at least one sensor as processed by the microcontroller unit and to transmit identification data from the radio frequency identification integrated circuit , to an external reader, characterized in that the connecting ribbons or structures are made of a single-layer polyimide.
A method of making interconnected solar cells, comprising steps of a) providing a continuous layer stack on a substrate , the layer stack comprising a top electrode layer , a bottom electrode layer adjacent to the substrate, having a photo-voltaic active layer and a barrier layer adjacent to the bottom electrode layer interposed between the top and the bottom electrode layer; b) selectively removing the top electrode layer and the photo-voltaic layer for obtaining a first trench exposing the barrier layer using a first laser beam with a first wavelength; c) selectively removing the barrier layer and the bottom electrode layer inside the first trench for obtaining a second trench exposing the substrate using a second laser beam with a second wavelength, wherein the second trench and the first trench provide a separation of the continuous layer stack for forming a first solar cell and a second solar cell , and the second trench is inside the first trench leaving a portion of the barrier layer of the second solar cell inside the first trench and a portion of the bottom electrode layer of the second solar cell inside the first trench; d) filling the first trench and the second trench with an electrical insulating member ; wherein the first wavelength is within a range between 1 μm and 3 μm, and the first wavelength being larger than a wavelength corresponding with a bandgap energy of the photo-voltaic layer. a) providing a continuous layer stack on a substrate , the layer stack comprising a top electrode layer , a bottom electrode layer adjacent to the substrate, having a photo-voltaic active layer and a barrier layer adjacent to the bottom electrode layer interposed between the top and the bottom electrode layer; b) selectively removing the top electrode layer and the photo-voltaic layer for obtaining a first trench exposing the barrier layer using a first laser beam with a first wavelength; c) selectively removing the barrier layer and the bottom electrode layer inside the first trench for obtaining a second trench exposing the substrate using a second laser beam with a second wavelength, wherein the second trench and the first trench provide a separation of the continuous layer stack for forming a first solar cell and a second solar cell , and the second trench is inside the first trench leaving a portion of the barrier layer of the second solar cell inside the first trench and a portion of the bottom electrode layer of the second solar cell inside the first trench; d) filling the first trench and the second trench with an electrical insulating member ; wherein the first wavelength is within a range between 1 μm and 3 μm, and the first wavelength being larger than a wavelength corresponding with a bandgap energy of the photo-voltaic layer.
Recombinant bacteria, comprising a) at least one nucleic acid sequence functionally coupled to a prokaryotic, chloride-inducible promoter and encoding for at least one heterologous factor, said heterologous factor is independently a heterologous polypeptide, or a complex thereof, and b) at least one prokaryotic regulator gene, which controls activity of said chloride-inducible promoter, wherein said heterologous polypeptide comprises at least one eukaryotic polypeptide, at least one fragment thereof or a combination thereof, and wherein said heterologous polypeptide is selected from the group consisting of growth factors, cytokines, chemokines, enzymes, polypeptide hormones, neuropeptides, antibodies, cell surface receptors, soluble receptors, receptor ligands, intrabodies, co-factors, transcription factors, adhesion molecules, tumor antigens, precursors thereof, biologically active fragments thereof and combinations thereof from an eukaryotic species. a) at least one nucleic acid sequence functionally coupled to a prokaryotic, chloride-inducible promoter and encoding for at least one heterologous factor, said heterologous factor is independently a heterologous polypeptide, or a complex thereof, and b) at least one prokaryotic regulator gene, which controls activity of said chloride-inducible promoter, wherein said heterologous polypeptide comprises at least one eukaryotic polypeptide, at least one fragment thereof or a combination thereof, and wherein said heterologous polypeptide is selected from the group consisting of growth factors, cytokines, chemokines, enzymes, polypeptide hormones, neuropeptides, antibodies, cell surface receptors, soluble receptors, receptor ligands, intrabodies, co-factors, transcription factors, adhesion molecules, tumor antigens, precursors thereof, biologically active fragments thereof and combinations thereof from an eukaryotic species.
Processing device (10; 20) with a processing head , the processing head comprising a processing unit designed as a tool and/or applicator unit, in particular a printer unit, and a first positioning device for moving the processing head in order to position the processing unit with a first accuracy at a specified processing position , wherein the processing head has a second positioning device and the processing device (10; 20) is configured to position the processing unit at the specified processing position with a second accuracy using the second positioning device , the second accuracy being higher than the first accuracy, so that the lower accuracy of the first positioning device is compensated for by the positioning with the second positioning device , characterized in that the processing head is designed as a hand-guided processing device, so that the processing head can be positioned manually at the specified processing position , in a state in which the processing head is removed from the first positioning device , and the processing head is configured to position the processing unit with the second accuracy at the specified processing position using the second positioning device , so that a lower accuracy of the manual positioning is compensated by the positioning with the second positioning device .
A locking pin for fittings of windows, doors or the like comprising a foot part for arranging the locking pin at a displaceable connecting rod of a respective fitting; and a head part for a locking engagement into a closing part associated with the fitting in dependence on a respective position of the connecting rod, wherein the head part comprises an inner pin , which extends along a head part axis (K) away from the foot part , and a sleeve which is axially movably supported in the direction of the head part axis (K) to enable an adaptation of the axial length of the head part for an engagement with an exact fit into the closing part, wherein holding means for holding the sleeve in a defined axial position are provided at the head part , and wherein the holding means are configured to hold the sleeve in the defined position due to static friction, characterized in that the holding means comprise clamping lugs which are formed at the sleeve and which are adapted to exert a radial pressure on the inner pin . a head part for a locking engagement into a closing part associated with the fitting in dependence on a respective position of the connecting rod, wherein the head part comprises an inner pin , which extends along a head part axis (K) away from the foot part , and a sleeve which is axially movably supported in the direction of the head part axis (K) to enable an adaptation of the axial length of the head part for an engagement with an exact fit into the closing part, wherein holding means for holding the sleeve in a defined axial position are provided at the head part , and wherein the holding means are configured to hold the sleeve in the defined position due to static friction, characterized in that the holding means comprise clamping lugs which are formed at the sleeve and which are adapted to exert a radial pressure on the inner pin .
An aqueous intumescent coating composition comprising: a film forming resin which is an aqueous dispersion of polymeric particles selected from (meth)acrylics, vinyls, polyesters, polycarbonates, polylactides, polyethers, polysulfones, polyurethanes, polyamides, chlorinated polyolefins, polyureas, epoxies, and mixtures or copolymers thereof; an acid source selected from phytate derivatives, ammonium polyphosphate, melamine phosphate, magnesium sulphate, ammonium pentaborate, zinc borate, boric acid, and salts of sulphonic acid; and a non-ionic silicone surfactant comprising 10 to 50 percent by weight siloxane, 30 to 90 percent by weight alkylene oxide, and a molecular weight of 500 to 12,000 g/mol, wherein the percent by weight is based on the total weight of the non-ionic surfactant, wherein a cured coating deposited from the coating composition, when heated according to EN1363-1 on a 1 foot I-shaped W6x16 mild steel column substrate, has a char expansion ratio of 40 to 75. a film forming resin which is an aqueous dispersion of polymeric particles selected from (meth)acrylics, vinyls, polyesters, polycarbonates, polylactides, polyethers, polysulfones, polyurethanes, polyamides, chlorinated polyolefins, polyureas, epoxies, and mixtures or copolymers thereof; an acid source selected from phytate derivatives, ammonium polyphosphate, melamine phosphate, magnesium sulphate, ammonium pentaborate, zinc borate, boric acid, and salts of sulphonic acid; and a non-ionic silicone surfactant comprising 10 to 50 percent by weight siloxane, 30 to 90 percent by weight alkylene oxide, and a molecular weight of 500 to 12,000 g/mol, wherein the percent by weight is based on the total weight of the non-ionic surfactant, wherein a cured coating deposited from the coating composition, when heated according to EN1363-1 on a 1 foot I-shaped W6x16 mild steel column substrate, has a char expansion ratio of 40 to 75.
An ultrasonic atomizer, wherein the ultrasonic atomizer comprises a liquid storage cavity , an ultrasonic oscillation component and an air passage provided in an outer sleeve , and an electrode electrically connected with an external power supply for driving oscillation of the ultrasonic oscillation component ; the ultrasonic oscillation component comprises a piezoelectric ceramic piece and a liquid storage body , and the liquid storage body is covered on the piezoelectric ceramic piece; the piezoelectric ceramic piece is provided to extend along the longitudinal direction of the ultrasonic atomizer; at least one surface of the piezoelectric ceramic piece is in contact with the liquid storage body ; the liquid storage body communicates with the liquid storage cavity ; and one surface of the liquid storage body which is deviated from the piezoelectric ceramic piece communicates with the air passage ; the piezoelectric ceramic piece is a solid piezoelectric ceramic piece, that is to say, no hole is provided in the piezoelectric ceramic piece, and thus, the liquid cannot penetrate through the piezoelectric ceramic piece.
A method of process control in a process control system that controls a process, comprising: providing a first process controller that is coupled to a first set of input/output (I/O) modules (235a - 235d) that provide a plurality of first channels, the first process controller including an I/O software agent that is coupled to an I/O module pool which comprises a first I/O module and at least a second I/O module collectively providing a plurality of pooled channels, the plurality of first channels and the pooled channels each coupled by a respective field device collectively comprising sensors and actuators to a plurality of first and second processing equipment respectively, wherein the I/O software agent is configured to enable adding the first set of I/O modules to the I/O module pool; coupling a plurality of additional process controllers configured together in a controller pool to the first process controller; and enabling at least one of i) making any of the first channels available to any of the process controllers in the controller pool, and ii) making any of the pooled channels available to the first process controller. providing a first process controller that is coupled to a first set of input/output (I/O) modules (235a - 235d) that provide a plurality of first channels, the first process controller including an I/O software agent that is coupled to an I/O module pool which comprises a first I/O module and at least a second I/O module collectively providing a plurality of pooled channels, the plurality of first channels and the pooled channels each coupled by a respective field device collectively comprising sensors and actuators to a plurality of first and second processing equipment respectively, wherein the I/O software agent is configured to enable adding the first set of I/O modules to the I/O module pool; coupling a plurality of additional process controllers configured together in a controller pool to the first process controller; and enabling at least one of i) making any of the first channels available to any of the process controllers in the controller pool, and ii) making any of the pooled channels available to the first process controller.