mhurhangee/ep-ind-claims huggingface dataset:
A reactive polyurethane prepolymer composition comprising (a) a first polyurethane prepolymer which is the reaction product of the reaction of methylene diphenyl diisocyanate with poly(1,6-hexamethylene adipate) glycol (PHAG) with a molecular weight (Mw) of 500 g/mol to 10,000 g/mol and with an NCO content of 0.5 wt% to 7 wt%, preferably of 3 wt% to 7 wt% and more preferably of 5 wt% to 7wt%, comprising less than 0.1 wt% free MDI monomer based on the total weight of the first polyurethane prepolymer, (b) a second polyurethane prepolymer which is the reaction product of the reaction of methylene diphenyl diisocyanate with polypropylene glycol or a succinic acid based polyester polyol with a molecular weight (Mw) of 250 g/mol to 4,000 g/mol and with an NCO content of 0.5 wt% to 12 wt%, preferably of 3 wt% to 11 wt% and more preferably of 5 wt% to 10 wt%, comprising less than 0.1 wt% free MDI monomer based on the total weight of the second polyurethane prepolymer and, optionally further comprising one or more short-chain polyols and (c) optionally one or more catalysts. (a) a first polyurethane prepolymer which is the reaction product of the reaction of methylene diphenyl diisocyanate with poly(1,6-hexamethylene adipate) glycol (PHAG) with a molecular weight (Mw) of 500 g/mol to 10,000 g/mol and with an NCO content of 0.5 wt% to 7 wt%, preferably of 3 wt% to 7 wt% and more preferably of 5 wt% to 7wt%, comprising less than 0.1 wt% free MDI monomer based on the total weight of the first polyurethane prepolymer, (b) a second polyurethane prepolymer which is the reaction product of the reaction of methylene diphenyl diisocyanate with polypropylene glycol or a succinic acid based polyester polyol with a molecular weight (Mw) of 250 g/mol to 4,000 g/mol and with an NCO content of 0.5 wt% to 12 wt%, preferably of 3 wt% to 11 wt% and more preferably of 5 wt% to 10 wt%, comprising less than 0.1 wt% free MDI monomer based on the total weight of the second polyurethane prepolymer and, optionally further comprising one or more short-chain polyols and (c) optionally one or more catalysts.
A high frequency switch including a first λ/4 signal transmission line for transmitting signal from a transmission terminal, a second λ/4 signal transmission line for receiving signal by a reception terminal, a first switch circuit connected between the first λ/4 signal transmission line and ground, and a second switch circuit connected between the second λ/4 signal transmission line and ground, the first switch circuit comprising a first λ/4 transmission line and a first circuit including one or more first PIN diode, connected in parallel to each other and representing a part of a parallel resonant circuit in case the first PIN diode is turned off, the first λ/4 transmission line and the first circuit being connected in series to each other; and the second switch circuit comprising a second λ/4 transmission line and a second circuit including one or more second PIN diode, connected in parallel to each other and representing a part of a parallel resonant circuit in case the second PIN diode is turned off, the second λ/4 transmission line and the second circuit being connected in series to each other, wherein the high frequency switch has an operating frequency band with a central frequency fo and a wavelength λ corresponding to the central frequency fo, characterized in that the high frequency switch comprises a third λ/4 signal transmission line connected between the reception terminal and the second λ/4 signal transmission line, and a third switch circuit connected between the third λ/4 signal transmission line and ground; the third switch circuit comprises a third λ/4 transmission line and a third circuit including one or more third PIN diode, connected in parallel to each other and representing a part of a parallel resonant circuit in case the third PIN diode is turned off, the third λ/4 transmission line and the third circuit being connected in series to each other; a resistor (Rr) for forming a terminating resistance is connected parallel to the third PIN diode, an impedance of the resistor (Rr) being same as a characteristic impedance of the third λ/4 transmission line; and each of the circuits (26a, 26b, 26c) is configured such that a resonant frequency thereof when the corresponding one of the PIN diodes (28a, 28b, 28c) is turned off is the same as the central frequency fo.
Induction hob having a plurality of induction heating elements, a control unit, which is designed to operate a number of induction heating elements to heat at least one flexibly definable heating zone in a synchronised manner and a measurement array for measuring a heating power (P, Pi) generated by the induction heating elements, wherein the measurement array is designed to measure a sum of the heating powers of at least two induction heating elements (10a, 10b), wherein the control unit is designed to use the sum of the heating powers to regulate the heating power (P, Pi), wherein the at least two induction heating elements (10a, 10b) are adjacent induction heating elements (10a, 10b) in a matrix of induction heating elements (10a, 10b), and wherein the measurement array comprises at least one current sensor for measuring a sum of the currents flowing through at least two induction heating elements (10a, 10b), characterised in that the current sensor is designed to measure an input current of an inverter, which supplies the at least two induction heating elements (10a, 10b).
An apparatus for wrapping a load with packaging material, the apparatus comprising: a packaging material dispenser for dispensing packaging material to the load; a load support for supporting the load during wrapping, wherein the packaging material dispenser and the load support are adapted for rotation relative to one another about a center of rotation; characterized by a controller configured to control a dispense rate of the packaging material dispenser during the relative rotation based upon a wrap speed model, wherein the controller is further configured to offset system lag by applying a rotational data shift to the wrap speed model, wherein the controller is configured to apply the rotational data shift to the wrap speed model by applying a rotational data shift to sensed data used by the wrap speed model or to a calculated dimension or position of the load to advance the wrap speed model to an earlier point in time or rotational position. a packaging material dispenser for dispensing packaging material to the load; a load support for supporting the load during wrapping, wherein the packaging material dispenser and the load support are adapted for rotation relative to one another about a center of rotation; characterized by a controller configured to control a dispense rate of the packaging material dispenser during the relative rotation based upon a wrap speed model, wherein the controller is further configured to offset system lag by applying a rotational data shift to the wrap speed model, wherein the controller is configured to apply the rotational data shift to the wrap speed model by applying a rotational data shift to sensed data used by the wrap speed model or to a calculated dimension or position of the load to advance the wrap speed model to an earlier point in time or rotational position.
An apparatus for installing a seal into a part comprising: a main body having two wings, a raised shoulder extending along the main body and the two wings; a bracket attached to the main body, the bracket having an internally threaded hole for engagement with a threaded knob; an installation member attached to the main body, the installation member including an insertion wheel attached to a wheel carrier and adapted to apply force to the seal, the wheel carrier configured to be slidably attached to the main body; wherein the main body is mounted on a first portion of the part and the seal is at least partially installed in a second portion of the part, such that upon relative rotation between the first portion of the part and the second portion of the part the installation member installs the seal, characterised in that the main body includes one or more magnets that are used to attach to a bearing. a main body having two wings, a raised shoulder extending along the main body and the two wings; a bracket attached to the main body, the bracket having an internally threaded hole for engagement with a threaded knob; an installation member attached to the main body, the installation member including an insertion wheel attached to a wheel carrier and adapted to apply force to the seal, the wheel carrier configured to be slidably attached to the main body; wherein the main body is mounted on a first portion of the part and the seal is at least partially installed in a second portion of the part, such that upon relative rotation between the first portion of the part and the second portion of the part the installation member installs the seal, characterised in that the main body includes one or more magnets that are used to attach to a bearing.
Abase station device, comprising: a time domain exchanging module, configured to receive a first time domain signal and a second time domain signal from a user equipment and transmit the first time domain signal and the second time domain signal to a baseband processing unit, wherein the first time domain signal is transmitted by the user equipment through a radio frequency channel of a serving cell of the user equipment, and the second time domain signal is transmitted by the user equipment through a radio frequency channel of a coordinating cell of the user equipment; wherein the baseband processing unit is associated with the serving cell of the user equipment, connected to the time domain exchanging module and configured to receive the first time domain signal and the second time domain signal from the time domain exchanging module; and wherein the baseband processing unit is further configured to perform time-frequency transformation and demapping on the first time domain signal and the second time domain signal to obtain frequency domain signals of the user equipment in the serving cell and the coordinating cell of the user equipment, wherein the time domain exchanging module comprises a time domain exchanging chip that is located outside a baseband board on which the baseband processing unit is located. a time domain exchanging module, configured to receive a first time domain signal and a second time domain signal from a user equipment and transmit the first time domain signal and the second time domain signal to a baseband processing unit, wherein the first time domain signal is transmitted by the user equipment through a radio frequency channel of a serving cell of the user equipment, and the second time domain signal is transmitted by the user equipment through a radio frequency channel of a coordinating cell of the user equipment; wherein the baseband processing unit is associated with the serving cell of the user equipment, connected to the time domain exchanging module and configured to receive the first time domain signal and the second time domain signal from the time domain exchanging module; and wherein the baseband processing unit is further configured to perform time-frequency transformation and demapping on the first time domain signal and the second time domain signal to obtain frequency domain signals of the user equipment in the serving cell and the coordinating cell of the user equipment, wherein the time domain exchanging module comprises a time domain exchanging chip that is located outside a baseband board on which the baseband processing unit is located.
Fire-extinguishing and/or fire-retardant compositions, especially for fires of fluorine- and/or phosphorus-containing materials, for example for fires involving hydrogen fluoride and/or phosphorus oxide trifluoride evolution, for example for fires of lithium ion batteries, comprising at least one swellable polymer, the swellable polymer having carboxyl groups, at least some of the carboxyl groups having been neutralized with alkaline earth metal ions, wherein the neutralized carboxyl groups of the swellable polymer have alkaline earth metal ions as counterion to an extent of at least 80 mol%.
A plant cultivation method for conducting a step of irradiating a red illuminative light to a plant and a step of irradiating a blue illuminative light to the plant separately and independently of each other, wherein the irradiation time of the step of irradiating the red illuminative light and the step of irradiating the blue illuminative light is 0.1 hour or more and less than 48 hours, the steps are conducted alternately and successively, and the light quantity ratio of the red illuminative light and the blue illuminative light is 3:1 to more than 1:1, i.e. a higher quantity of red light than blue light, wherein the light quantity is the photosynthetic photon flux density expressed as μmol/m 2 s.
An aluminum silicate complex comprising a layered clay mineral and an amorphous aluminum silicate, wherein the layered clay mineral comprises aluminium hydroxide, the layered clay mineral gives a powder X-ray diffraction pattern having no recognizable reflection peak in a powder X-ray diffraction pattern using Cu as an X-ray source, and the complex is characterized by having four peaks at 2θ = 20, 26, 35, 39° in a powder X-ray diffraction pattern using Cu as an X-ray source.
Catalytic converter for removing nitrogen oxides from the exhaust gas of diesel engines, made up of a supporting body of length L and a catalytically active coating composed of one or more material zones, comprising: • a zeolite or a zeolite-like compound containing 1 - 10 wt. % copper relative to the total weight of the zeolite or the zeolite-like compound, wherein the zeolite or the zeolite-like compound is selected from the group consisting of chabazite, SAPO-34, ALPO-34, and zeolite β; and • at least one compound selected from the group consisting of barium oxide, barium hydroxide, barium carbonate, strontium oxide, strontium hydroxide, strontium carbonate, praseodymium oxide, lanthanum oxide, magnesium oxide, magnesium/aluminum mixed oxide, alkali metal oxide, alkali metal hydroxide, alkali metal carbonate, and mixtures thereof. • a zeolite or a zeolite-like compound containing 1 - 10 wt. % copper relative to the total weight of the zeolite or the zeolite-like compound, wherein the zeolite or the zeolite-like compound is selected from the group consisting of chabazite, SAPO-34, ALPO-34, and zeolite β; and • at least one compound selected from the group consisting of barium oxide, barium hydroxide, barium carbonate, strontium oxide, strontium hydroxide, strontium carbonate, praseodymium oxide, lanthanum oxide, magnesium oxide, magnesium/aluminum mixed oxide, alkali metal oxide, alkali metal hydroxide, alkali metal carbonate, and mixtures thereof.
A vehicle HVAC (heating, ventilation, air-conditioning) unit, comprising: - a first inlet for outdoor air from an exterior space of the vehicle; - a first fan in communication with the first inlet to control an air inflow through the first inlet; - a second inlet for indoor air from an interior space of the vehicle; and - a second fan in communication with the second inlet to control an air inflow through the second inlet; - vehicle HVAC (heating, ventilation, air-conditioning) components, wherein the components include two heat exchangers (151, 152); - a housing for accommodating at least the first fan, the second fan, and the HVAC components, - the first inlet and the second inlet having a fixed aperture, - a mixing zone arranged inside the housing downstream of the first fan and the second fan and upstream of places of the HVAC components, the mixing zone being configured to mix the air from the first fan and the second fan, characterized in that it comprises a control unit configured to independently control the first fan and the second fan by a voltage signal to provide a desired mix of air to the vehicle HVAC components; and two supply openings for supplying an output of the HVAC components to a vehicle compartment, each of which being in communication with one of the two heat exchangers (151, 152) and being connected to one or more vehicle compartments - a first inlet for outdoor air from an exterior space of the vehicle; - a first fan in communication with the first inlet to control an air inflow through the first inlet; - a second inlet for indoor air from an interior space of the vehicle; and - a second fan in communication with the second inlet to control an air inflow through the second inlet; - vehicle HVAC (heating, ventilation, air-conditioning) components, wherein the components include two heat exchangers (151, 152); - a housing for accommodating at least the first fan, the second fan, and the HVAC components, - the first inlet and the second inlet having a fixed aperture, - a mixing zone arranged inside the housing downstream of the first fan and the second fan and upstream of places of the HVAC components, the mixing zone being configured to mix the air from the first fan and the second fan, a control unit configured to independently control the first fan and the second fan by a voltage signal to provide a desired mix of air to the vehicle HVAC components; and two supply openings for supplying an output of the HVAC components to a vehicle compartment, each of which being in communication with one of the two heat exchangers (151, 152) and being connected to one or more vehicle compartments
A process for monitoring hydrocarbon production where the process comprises: a) installing one or more fiber optic cables along a wellbore in a hydrocarbon formation; b) installing one or more interrogators on at least one fiber optic cable; c) interrogating at least one fiber optic cable with a Distributed Acoustic Sensing, DAS, interrogation signal; d) obtaining one or more DAS datasets from the interrogator; e) converting one or more DAS datasets from the interrogator into a continuous DAS record; f) transforming the continuous DAS record into a transformed DAS well signal by down sampling data; g) interpreting the transformed DAS well signal and; h) based on the interpreted transformed DAS well signal, monitoring and/or improving hydrocarbon production from said hydrocarbon formation; characterized in that: transforming the continuous DAS record in step f) is performed by filtering with a low-pass filter to 1-50 milliHz while down sampling the data. a) installing one or more fiber optic cables along a wellbore in a hydrocarbon formation; b) installing one or more interrogators on at least one fiber optic cable; c) interrogating at least one fiber optic cable with a Distributed Acoustic Sensing, DAS, interrogation signal; d) obtaining one or more DAS datasets from the interrogator; e) converting one or more DAS datasets from the interrogator into a continuous DAS record; f) transforming the continuous DAS record into a transformed DAS well signal by down sampling data; g) interpreting the transformed DAS well signal and; h) based on the interpreted transformed DAS well signal, monitoring and/or improving hydrocarbon production from said hydrocarbon formation;
A secondary battery, comprising: an electrode unit, comprising an electrode body and a tab extending from the electrode body, wherein the tab comprises a first part and a second part that are spaced apart along a height direction of the secondary battery; and a top cover assembly, disposed on one side of the electrode body toward the tab, wherein the top cover assembly comprises a top cover body and a hold-down beam, and a positioning bulge is disposed on a first surface of the top cover body toward the electrode unit, a positioning chute is disposed on the positioning bulge, and the hold-down beam is positioned between the first part and the second part, and is detachably disposed in the positioning chute. an electrode unit, comprising an electrode body and a tab extending from the electrode body, wherein the tab comprises a first part and a second part that are spaced apart along a height direction of the secondary battery; and a top cover assembly, disposed on one side of the electrode body toward the tab, wherein the top cover assembly comprises a top cover body and a hold-down beam, and a positioning bulge is disposed on a first surface of the top cover body toward the electrode unit, a positioning chute is disposed on the positioning bulge, and the hold-down beam is positioned between the first part and the second part, and is detachably disposed in the positioning chute.
A method of determining if a location has been cleaned, the method comprising: a. applying a fluorescent marking composition comprising a solvent and a water-dispersible fluorescent polymer to a location on an environmental surface; and b. determining if any of the fluorescent polymer remains on the location after one or more opportunities to clean the environmental surface, c. wherein the water-dispersible polymer is derived from polymerization of one or more polymerizable fluorescent monomer units and one or more polymerizable non-fluorescent monomer units. a. applying a fluorescent marking composition comprising a solvent and a water-dispersible fluorescent polymer to a location on an environmental surface; and b. determining if any of the fluorescent polymer remains on the location after one or more opportunities to clean the environmental surface, c. wherein the water-dispersible polymer is derived from polymerization of one or more polymerizable fluorescent monomer units and one or more polymerizable non-fluorescent monomer units.
A method of communication for an access terminal, comprising: determining, by the access terminal, a first identifier for establishing communication with a first access point; determining, by the access terminal, a type of the first identifier; determining, by the access terminal, based on the type of the first identifier, a second identifier for establishing communication with the first access point if confusion with respect to the first identifier is detected, wherein the access terminal autonomously determines when to acquire the second identifier without instructions by an external node, wherein the determination of the second identifier is further based on whether a value of the first identifier is one of a set of designated values that is associated with access points that are designated as not being confusion- free, a closed subscriber group, and access points of at least one designated type; wherein the first and second identifiers are used for identifying the first access point; and wherein the access terminal sends the second identifier to a second access point which is currently serving the access terminal. determining, by the access terminal, a first identifier for establishing communication with a first access point; determining, by the access terminal, a type of the first identifier; determining, by the access terminal, based on the type of the first identifier, a second identifier for establishing communication with the first access point if confusion with respect to the first identifier is detected, wherein the access terminal autonomously determines when to acquire the second identifier without instructions by an external node, wherein the determination of the second identifier is further based on whether a value of the first identifier is one of a set of designated values that is associated with access points that are designated as not being confusion- free, a closed subscriber group, and access points of at least one designated type; wherein the first and second identifiers are used for identifying the first access point; and wherein the access terminal sends the second identifier to a second access point which is currently serving the access terminal.