mhurhangee/ep-ind-claims huggingface dataset:
An optoelectronic lighting module comprising - a heat sink having a heat sink top side, - a circuit board, - a carrier having a carrier top side and a carrier underside lying opposite said carrier top side, - at least one optoelectronic semiconductor chip which is attached to the carrier top side and is electrically connected to the carrier, - at least one holding device which is arranged directly on the carrier top side and which presses the carrier underside against the heat sink top side, wherein the carrier is electrically connected to the circuit board and the holding device is electrically insulated from the semiconductor chip, wherein - the carrier is distant from the circuit board in the direction parallel to the carrier top side so that, in a plan view of the heat sink top side, a gap is formed between the carrier and the circuit board, - the gap between the carrier and the circuit board is spanned by an electrical bridge, - the bridge has electrical conductor tracks on the carrier top side to corresponding electrical conductor tracks on a circuit board upper side of the circuit board, - the holding device is designed as a bracket, band or as a spring, and - the holding device is formed from a material having a thermal conductivity of at least 80 W/(K•m). - a heat sink having a heat sink top side, - a circuit board, - a carrier having a carrier top side and a carrier underside lying opposite said carrier top side, - at least one optoelectronic semiconductor chip which is attached to the carrier top side and is electrically connected to the carrier, - at least one holding device which is arranged directly on the carrier top side and which presses the carrier underside against the heat sink top side, - the carrier is distant from the circuit board in the direction parallel to the carrier top side so that, in a plan view of the heat sink top side, a gap is formed between the carrier and the circuit board, - the gap between the carrier and the circuit board is spanned by an electrical bridge, - the bridge has electrical conductor tracks on the carrier top side to corresponding electrical conductor tracks on a circuit board upper side of the circuit board, - the holding device is designed as a bracket, band or as a spring, and - the holding device is formed from a material having a thermal conductivity of at least 80 W/(K•m).
A compound of the formula I for use in the treatment of cancer, wherein: R 1 and R 2 are independently -H; k is 0; R 3 and R 4 together form =S; R 6 and R 7 together form =O; m is 0; R 5 is -H or CH 3; n is 1; R 8 is -H; R 9 is -H; R 10 is -H; or a stereoisomer, enantiomer and/or a pharmaceutically acceptable salt or hydrite thereof. R 1 and R 2 are independently -H; k is 0; R 3 and R 4 together form =S; R 6 and R 7 together form =O; m is 0; R 5 is -H or CH 3; n is 1; R 8 is -H; R 9 is -H; R 10 is -H; or a stereoisomer, enantiomer and/or a pharmaceutically acceptable salt or hydrite thereof.
A method of exchanging devices (W1, D1; W2, D2) which are connected to a robot and which communicate with a robot application, comprising the steps of: S2: detecting an interruption in a communication with a first device (W1, D1); S3: removing an address entry ("MAC1|IP1") for the first device from a communication directory; S4: establishing communication with a second device (W2, D2); and S5: creating an address entry ("MAC2|IP1") for the second device in the communication directory, wherein a device change command of the robot application is detected and the address entry for the first device is removed from the communication directory when a device change command of the robot application and the interruption in the communication with the first device have been detected. S2: detecting an interruption in a communication with a first device (W1, D1); S3: removing an address entry ("MAC1|IP1") for the first device from a communication directory; S4: establishing communication with a second device (W2, D2); and S5: creating an address entry ("MAC2|IP1") for the second device in the communication directory,
: A method of treating a wet or moist lignocellulosic material including the steps of maintaining a moisture content which is in a range from above the X fsp value of the lignocellulosic material down to 0.1 kg water/kg dry below the X fsp value, where X fsp is the lignocellulosic material fibre saturation point, while increasing the temperature of the wet or moist lignocellulosic to a level that components of the lignocellulosic material soften which results in improved properties of the lignocellulosic material, wherein the step of increasing the temperature of the lignocellulosic material involves raising the temperature from a temperature of 40°C to 70°C to a temperature of about 100°C.
Method for operating a shunting hump yard, wherein, for the respective humping operations (100, 101) in the form of cut humped wagons or groups of wagons, - a plurality of arc phases (P1, P2, P3, P4, P5) are ascertained in relation to at least one track curve lying in the travel path of the respective humping operation (100, 101), - at least one value for a curve resistance (w b) in the at least one track curve is determined, wherein different calculation models are used for the ascertained arc phases (P1, P2, P3, P4, P5) as part of the determination of the at least one value for the curve resistance, and - at least one rail brake (60, 70) of the hump yard is controlled, taking into consideration the at least one determined value for the curve resistance (w b). - a plurality of arc phases (P1, P2, P3, P4, P5) are ascertained in relation to at least one track curve lying in the travel path of the respective humping operation (100, 101), - at least one value for a curve resistance (w b) in the at least one track curve is determined, wherein different calculation models are used for the ascertained arc phases (P1, P2, P3, P4, P5) as part of the determination of the at least one value for the curve resistance, and - at least one rail brake (60, 70) of the hump yard is controlled, taking into consideration the at least one determined value for the curve resistance (w b).
Inductive nozzle heating assembly for an additive manufacturing system, comprising a rod shaped nozzle body of electrically conductive material provided with a passageway extending from an inlet end to an outlet end of the rod shaped nozzle body for dispensing an extrudable material; an induction coil unit for magnetic engagement with the rod shaped nozzle body to allow heating thereof, wherein the induction coil unit encloses at least in part the rod shaped nozzle body and wherein the induction coil unit and rod shaped nozzle body are spaced apart and separated by a minimum distance (Lg) larger than zero, and wherein the rod shaped nozzle body comprises a heating piece having a predetermined Curie temperature, and characterised in that the inductive nozzle heating assembly further comprises a plurality of rod shaped nozzle bodies, each being movably arranged between a first and a second position with respect to the induction coil unit for magnetic engagement and magnetic disengagement, respectively, with the induction coil unit.
An apparatus, comprising: a thermally-activated pyrotechnic train; and a linear shaped charge coupled with the pyrotechnic train, such that the pyrotechnic train comprises: a thermally-activated, deflagrating charge, a deflagration-to-detonation transition charge disposed proximate the deflagrating charge, a booster disposed between the transition charge and the linear shaped charge. a thermally-activated pyrotechnic train; and a linear shaped charge coupled with the pyrotechnic train, such that the pyrotechnic train comprises: a thermally-activated, deflagrating charge, a deflagration-to-detonation transition charge disposed proximate the deflagrating charge, a booster disposed between the transition charge and the linear shaped charge.
A light emitting device comprising: a substrate; a light emitting structure on the substrate and including a first conductive semiconductor layer, an active layer, and a second conductive semiconductor layer; a reflective electrode on the second conductive semiconductor layer; a bump, called second bump, on the reflective electrode; a first delamination prevention layer between the reflective electrode and the second bump; a plurality of electrode pads, called second electrode pads wherein at least one of the second electrode pads is between the first delamination prevention layer and the second bump, wherein the first delamination prevention layer comprises an inorganic insulation material, wherein the second electrode pads surround the first delamination prevention layer, and wherein the second electrode pads are disposed on the first delamination prevention layer characterised by a second bump pad between the first delamination prevention layer and the second bump and covering the delamination prevention layer and the second electrode pads, the second bump pad being disposed on a top surface and a side of the first delamination prevention layer, and being in contact with a top surface of the reflective electrode. a substrate; a light emitting structure on the substrate and including a first conductive semiconductor layer, an active layer, and a second conductive semiconductor layer; a reflective electrode on the second conductive semiconductor layer; a bump, called second bump, on the reflective electrode; a first delamination prevention layer between the reflective electrode and the second bump; a plurality of electrode pads, called second electrode pads wherein at least one of the second electrode pads is between the first delamination prevention layer and the second bump, wherein the first delamination prevention layer comprises an inorganic insulation material, wherein the second electrode pads surround the first delamination prevention layer, and wherein the second electrode pads are disposed on the first delamination prevention layer characterised by a second bump pad between the first delamination prevention layer and the second bump and covering the delamination prevention layer and the second electrode pads, the second bump pad being disposed on a top surface and a side of the first delamination prevention layer, and being in contact with a top surface of the reflective electrode.
Container comprising a first element and at least one second element movable relative to the first element between a closed position and an open position, and a drive device for moving the second element, characterized in that the container comprises at least one deformation measuring unit with a deformation sensor on at least one of the elements (2, 3) for detecting a force exerted on one of the elements (2, 3) and a control unit for receiving and evaluating a deformation signal transmitted by the deformation measuring unit and for actuating the drive device, wherein the deformation measuring unit comprises an accommodation element accommodating the deformation sensor, wherein the accommodation element is mounted in or on the first element, wherein the second element is supported against the deformation sensor, and wherein an additional switch for actuating the drive device is integrated into the accommodation element.
Composition comprising 1.) a metal carboxylate, wherein the metal M is selected from the group consisting of Fe and Zn, those metals being present as ions in a +2 or +3 charge state, and wherein the carboxylate anion is derived from a hydrocarbyl monocarboxylic acid having 5 to 20 carbon atoms, or a mixture of such acids, 2.) a solvent selected from the group consisting of water, glycol ethers having from 4 to 15 carbon atoms, alkyl alcohols having from 1 to 10 carbons, and aromatic hydrocarbon solvents having from 6 to 30 carbons, 3.) an emulsion breaker which is selected from the group consisting of a polymeric nonionic surfactant and dodecylbenzene sulfonic acid. 1.) a metal carboxylate, wherein the metal M is selected from the group consisting of Fe and Zn, those metals being present as ions in a +2 or +3 charge state, and wherein the carboxylate anion is derived from a hydrocarbyl monocarboxylic acid having 5 to 20 carbon atoms, or a mixture of such acids, 2.) a solvent selected from the group consisting of water, glycol ethers having from 4 to 15 carbon atoms, alkyl alcohols having from 1 to 10 carbons, and aromatic hydrocarbon solvents having from 6 to 30 carbons, 3.) an emulsion breaker which is selected from the group consisting of a polymeric nonionic surfactant and dodecylbenzene sulfonic acid.
Method for manufacturing a gas sensor, comprising the steps of - integrating a processing circuit in a gas sensor chip or arranging a processing circuit together with a gas sensor chip, on a substrate, - integrating a heater in the gas sensor chip, - applying a sensitive material to the gas sensor chip, for building a layer sensitive to gas, - mounting multiple gas sensor chips onto a carrier, which carrier is a common carrier configured to accept the multiple gas sensor chips, wherein the common carrier comprises sets of contact pads, wherein each set of contact pads electrically contacts one of the multiple gas sensor chips, wherein one of the contact pads out of each set is a supply contact pad, for supplying electrical current to the processing circuit of the corresponding gas sensor chip, - electrically interconnecting a set of supply contact pads by electrical interconnectors, - applying a current to at least one of the supply contact pads out of the set and via the interconnectors to all supply contact pads of the set, for supplying current to the corresponding processing circuits, - in response to applying the current, controlling a power controller, which is integrated in the corresponding gas sensor chip, by the corresponding processing circuit, and - in response to controlling the power controller, enabling a supply of current to the heater, for annealing the corresponding sensitive layer. - integrating a processing circuit in a gas sensor chip or arranging a processing circuit together with a gas sensor chip, on a substrate, - integrating a heater in the gas sensor chip, - applying a sensitive material to the gas sensor chip, for building a layer sensitive to gas, - mounting multiple gas sensor chips onto a carrier, which carrier is a common carrier configured to accept the multiple gas sensor chips, wherein the common carrier comprises sets of contact pads, wherein each set of contact pads electrically contacts one of the multiple gas sensor chips, wherein one of the contact pads out of each set is a supply contact pad, for supplying electrical current to the processing circuit of the corresponding gas sensor chip, - electrically interconnecting a set of supply contact pads by electrical interconnectors, - applying a current to at least one of the supply contact pads out of the set and via the interconnectors to all supply contact pads of the set, for supplying current to the corresponding processing circuits, - in response to applying the current, controlling a power controller, which is integrated in the corresponding gas sensor chip, by the corresponding processing circuit, and - in response to controlling the power controller, enabling a supply of current to the heater, for annealing the corresponding sensitive layer.
A plant cultivation method comprising: applying to a plant, a first environmental stimulus for controlling flower bud differentiation and/or leaf bud differentiation, wherein the plant is a blueberry plant; and applying to the plant, a second environmental stimulus for controlling a sprouting time for flower buds and /or leaf buds; said first environmental stimulus being applied by placing a plant in an environment having an air temperature of 16 to 40°C and a day length of 8 to 13 hours, and said second environmental stimulus being applied by placing a plant in an environment having an air temperature of 3 to 7°C for approximately 15 to 45 days, wherein the entire period of the second environmental stimulus is a dark period. applying to a plant, a first environmental stimulus for controlling flower bud differentiation and/or leaf bud differentiation, wherein the plant is a blueberry plant; and applying to the plant, a second environmental stimulus for controlling a sprouting time for flower buds and /or leaf buds; said first environmental stimulus being applied by placing a plant in an environment having an air temperature of 16 to 40°C and a day length of 8 to 13 hours, and said second environmental stimulus being applied by placing a plant in an environment having an air temperature of 3 to 7°C for approximately 15 to 45 days, wherein the entire period of the second environmental stimulus is a dark period.
An electrode for an energy storage device, comprising a current-collecting substrate, a carbon nanotube-containing undercoat layer formed on at least one side of the current-collecting substrate, and characterized in that the electrode further comprises an active material layer that includes 100 parts by weight of titanium oxide as an active material, 0.1 to 20 parts by weight of a binder polymer and, optionally 0.1 to 20 parts by weight of a thickener, and is formed on a surface of the undercoat layer.
A composition for treating cellulosic fibers used to make paper or paperboard comprising: a) cellulase; b) contaminant control polymer(s) selected from the group consisting of detackifier polymer(s), cationic fixative polymer(s), and mixtures thereof; c) cellulase protein stabilizer(s); and d) cellulase enhancer(s), wherein the active cellulase concentration is from about 2% by wt. of total composition to about 80% by wt. of total composition; the contaminant control detackifier and/or cationic fixative polymer is from about 2% by wt. of total composition to about 50% by wt. of total composition; the protein stabilizer content is from 0.1% by wt. of total composition to about 50% by wt. of total concentration, and the cellulase enhancer content is from 0.1% by wt. of total composition to about 0.5% by wt. of total composition; wherein the active weight percentage of the endo-cellulase or cellulase active in the cellulase composition is based on the assumption that the conventional cellulase is 100% active as it is obtained from a commercial source; wherein the active percentages of the contaminant control polymer, the protein stabilizer and cellulase enhancer in the cellulase composition are defined as non-aqueous parts of these polymers or chemicals in the cellulase composition; wherein the detackifier polymer is selected from the group consisting of poly(vinyl alcohol-co-vinyl acetate), hydrophobically end-capped polyethylene glycol, hydrophobically modified hydroxyethyl cellulose, hydrophobic/hydrophilic block copolymers, surface active proteins such as whey protein, egg protein, and soy protein, and mixtures thereof; and wherein the cationic fixative polymer is selected from the group consisting of poly(diallyldimethylammonium chloride), dimethylamine-epichlorohydrin-ethylenediamine condensation polymers, cationic poly(acrylamide), glyoxylated polyacrylamide, poly(ethyleneimine), epichlorohydrin-reacted poly(amidoamine), poly(vinylamine), hydrophobically modified cationic polymers, C8-C10 alkyl glycidyl ether modified poly(aminoamide), amphoteric polymers that are net cationic, and mixtures thereof. a) cellulase; b) contaminant control polymer(s) selected from the group consisting of detackifier polymer(s), cationic fixative polymer(s), and mixtures thereof; c) cellulase protein stabilizer(s); and d) cellulase enhancer(s),
A first communication device comprising: one or more circuits configured to: receive a call establishment request from a second communication device, including a subscriber identification number associated with a third communication device, via a first communication network that connects said first communication device with said second communication device, enable routing of a call between said second communication device and said third communication device by use of said received subscriber identification number, via a second communication network associated with a first subscriber module of said first communication device, based on said received call establishment request, and establish said call between said second communication device and said third communication device via said second communication network, by use of said first subscriber module, based on said received call establishment request, wherein said one or more circuits are further configured to disable a first audio input device and/or a first audio-output device associated with said first subscriber module, based on said establishment of said call, and characterized in that said first communication device comprises a second audio-input device and/or a second audio-output device associated with a second subscriber module of said first communication device which are enabled, during said routing and said establishment of said call, for use with other applications of said first communication device. receive a call establishment request from a second communication device, including a subscriber identification number associated with a third communication device, via a first communication network that connects said first communication device with said second communication device, enable routing of a call between said second communication device and said third communication device by use of said received subscriber identification number, via a second communication network associated with a first subscriber module of said first communication device, based on said received call establishment request, and establish said call between said second communication device and said third communication device via said second communication network, by use of said first subscriber module, based on said received call establishment request, wherein said one or more circuits are further configured to disable a first audio input device and/or a first audio-output device associated with said first subscriber module, based on said establishment of said call, and characterized in that said first communication device comprises a second audio-input device and/or a second audio-output device associated with a second subscriber module of said first communication device which are enabled, during said routing and said establishment of said call, for use with other applications of said first communication device.
A method for managing a supply of breast milk of a mother, the method comprising: receiving, via a computing device, at least one image of a container (100, 300) for receiving expressed breast milk, the container including a codification element (106, 306) associated therewith and the at least one image incorporating the codification element (106, 306); recognizing the codification element (106, 306) within the at least one image using the computing device; analyzing the at least one image and codification element (106, 306) using the computing device; and producing feedback regarding the supply of expressed breast milk based on the analysis. receiving, via a computing device, at least one image of a container (100, 300) for receiving expressed breast milk, the container including a codification element (106, 306) associated therewith and the at least one image incorporating the codification element (106, 306); recognizing the codification element (106, 306) within the at least one image using the computing device; analyzing the at least one image and codification element (106, 306) using the computing device; and producing feedback regarding the supply of expressed breast milk based on the analysis.