mhurhangee/ep-ind-claims huggingface dataset:
A system comprising an array of qubits arranged on a two-dimensional substrate, each qubit of the array of qubits comprising a first electrode (111, 121, 131, 141, 211, 221, 231, 241) corresponding to a first node and a second electrode (112, 122, 132, 142, 212, 222, 232, 242) corresponding to a second node, wherein, for a first qubit (110, 210) in the array of qubits and a next nearest neighbor second qubit (120, 220) in the array of qubits, the first qubit is positioned and oriented relative to the second qubit such that a charge present on the first qubit induces a same charge on each of the first node of the second qubit and the second node of the second qubit, such that coupling between the first qubit and the second qubit is reduced, wherein each of the first electrode of the first qubit and the second electrode of the first qubit are parallel to one another along a first direction, wherein the first electrode of the second qubit and the second electrode of the second qubit are parallel to one another along a second direction, wherein the first direction is orthogonal to the second direction, wherein the first qubit is positioned and oriented such that a distance between the first electrode of the first qubit and the first electrode of the second qubit is the same as the distance between the first electrode of the first qubit and the second electrode of the second qubit, and wherein none of the nodes share a common ground. wherein, for a first qubit (110, 210) in the array of qubits and a next nearest neighbor second qubit (120, 220) in the array of qubits, the first qubit is positioned and oriented relative to the second qubit such that a charge present on the first qubit induces a same charge on each of the first node of the second qubit and the second node of the second qubit, such that coupling between the first qubit and the second qubit is reduced, wherein each of the first electrode of the first qubit and the second electrode of the first qubit are parallel to one another along a first direction, wherein the first electrode of the second qubit and the second electrode of the second qubit are parallel to one another along a second direction, wherein the first direction is orthogonal to the second direction, wherein the first qubit is positioned and oriented such that a distance between the first electrode of the first qubit and the first electrode of the second qubit is the same as the distance between the first electrode of the first qubit and the second electrode of the second qubit, and wherein none of the nodes share a common ground.
A non-therapeutic method of deactivating norovirus, the method comprising deactivating norovirus using a lysozyme component that comprises at least one kind selected from lysozyme and/or a salt thereof, and a denatured product thereof, wherein the lysozyme component has a fluorescence intensity specified by the following definition of 4,000 or more: Fluorescence intensity: a fluorescence intensity measured under conditions of an excitation wavelength of 390 nm with an excitation band width of 10 nm, a fluorescence wavelength of 470 nm with a fluorescence band width of 10 nm for a liquid obtained by adding 25 μL of a methanol solution of 8 mM 1, 8-anilinonaphthalenesulfonic acid to 5 mL of a dilution obtained by diluting the lysozyme component with a phosphate buffer having a pH of 7.0 so as to have a concentration of the lysozyme component of 0.05 mass% in terms of solid content, and to have a concentration of phosphate of 0.2 M and then subjecting the liquid to a reaction at room temperature for 30 minutes.
A structured abrasive article comprising: an at least translucent film backing; and an abrasive layer disposed on the at least translucent film backing and comprising a plurality of shaped abrasive composites, wherein the shaped abrasive composites comprise abrasive particles dispersed in a binder, characterised in that the abrasive particles consist essentially of ceria particles having an average primary particle size of less than 100 nanometers, wherein the binder comprises a polyether acid and a reaction product of components comprising a carboxylic (meth)acrylate and a poly(meth)acrylate, and wherein, based on a total weight of the abrasive layer, the abrasive particles are present in an amount of at least 70 percent by weight. an at least translucent film backing; and an abrasive layer disposed on the at least translucent film backing and comprising a plurality of shaped abrasive composites, wherein the shaped abrasive composites comprise abrasive particles dispersed in a binder, characterised in that the abrasive particles consist essentially of ceria particles having an average primary particle size of less than 100 nanometers, wherein the binder comprises a polyether acid and a reaction product of components comprising a carboxylic (meth)acrylate and a poly(meth)acrylate, and wherein, based on a total weight of the abrasive layer, the abrasive particles are present in an amount of at least 70 percent by weight.
A power balancing system for a computing component, comprising: an interactive interface to configure one or more power allocation factors, the one or more power allocation factors including a charging parameter for a power consumer (108, 124, 126, 132, 134, 138); and a dynamic power allocator configured to: receive the one or more power allocation factors; and dynamically allocate power from at least one power provider (108, 126, 134, 142) to one or more power consumers (108, 124, 126, 132, 134, 138) based at least on the one or more power allocation factors, the one or more power consumers including at least one power consumer internal to the computing component with a dynamically changing power consumption demand, a first battery in a base unit of the computing component, and a second battery in a display unit of the computing component detachably coupled thereto; determine that the power consumption demand of the second battery has changed; and reallocate power from the power provider to at least the power consumer internal to the computing component and the first battery in response to the changed power consumption demand. an interactive interface to configure one or more power allocation factors, the one or more power allocation factors including a charging parameter for a power consumer (108, 124, 126, 132, 134, 138); and a dynamic power allocator configured to: receive the one or more power allocation factors; and dynamically allocate power from at least one power provider (108, 126, 134, 142) to one or more power consumers (108, 124, 126, 132, 134, 138) based at least on the one or more power allocation factors, the one or more power consumers including at least one power consumer internal to the computing component with a dynamically changing power consumption demand, a first battery in a base unit of the computing component, and a second battery in a display unit of the computing component detachably coupled thereto; determine that the power consumption demand of the second battery has changed; and reallocate power from the power provider to at least the power consumer internal to the computing component and the first battery in response to the changed power consumption demand. receive the one or more power allocation factors; and dynamically allocate power from at least one power provider (108, 126, 134, 142) to one or more power consumers (108, 124, 126, 132, 134, 138) based at least on the one or more power allocation factors, the one or more power consumers including at least one power consumer internal to the computing component with a dynamically changing power consumption demand, a first battery in a base unit of the computing component, and a second battery in a display unit of the computing component detachably coupled thereto; determine that the power consumption demand of the second battery has changed; and reallocate power from the power provider to at least the power consumer internal to the computing component and the first battery in response to the changed power consumption demand.
A method for preparing a Y type molecular sieve having a silica-to-alumina ratio in the backbone of ≥ 6; the method comprises the steps of: (a) mixing deionized water, a silicon source, an aluminum source, sodium hydroxide (NaOH) as an alkali source, and tetraethylammonium hydroxide (TEAOH) as a template agent; to obtain an initial gel mixture having the following molar ratios: - SiO 2 /Al 2 O 3 = 6-20; - NaOH/Al 2 O 3 = 1, wherein the mole number of the alkali source is the mole number of Na 2 O; - H 2 O/Al 2 O 3 = 100-400; and - TEAOH/Al 2 O 3 = 0.1-3; and (b) after aging the initial gel mixture obtained in step (a), feeding the gel mixture into a high pressure synthesis kettle, closing the kettle, performing crystallization at 70-130°C for 1-30 days, washing, and drying to obtain the Y type molecular sieve. (a) mixing deionized water, a silicon source, an aluminum source, sodium hydroxide (NaOH) as an alkali source, and tetraethylammonium hydroxide (TEAOH) as a template agent; to obtain an initial gel mixture having the following molar ratios: - SiO 2 /Al 2 O 3 = 6-20; - NaOH/Al 2 O 3 = 1, wherein the mole number of the alkali source is the mole number of Na 2 O; - H 2 O/Al 2 O 3 = 100-400; and - TEAOH/Al 2 O 3 = 0.1-3; and - SiO 2 /Al 2 O 3 = 6-20; - NaOH/Al 2 O 3 = 1, wherein the mole number of the alkali source is the mole number of Na 2 O; - H 2 O/Al 2 O 3 = 100-400; and - TEAOH/Al 2 O 3 = 0.1-3; and (b) after aging the initial gel mixture obtained in step (a), feeding the gel mixture into a high pressure synthesis kettle, closing the kettle, performing crystallization at 70-130°C for 1-30 days, washing, and drying to obtain the Y type molecular sieve.
Switching nut for a lock or a switching lock comprising a square-shaped opening to insert the square of a key, wherein a plurality of flat plate sections connected firmly to one another form a switching nut assembly, wherein the switching nut assembly is designed as a nut lever with a square-shaped opening area with four sides (12, 13, 14, 15) running at right angles to each other, at least one flat plate section designed as a retaining or bearing disc (9, 10), and at least two bearing sections (6, 7, 8) to support the nut lever and the at least one securing disc (9, 10), characterized in that a recess opening into the square opening area, is provided on at least two sides (12, 13, 14) of the square-shaped opening area for the lateral insertion of a bearing section (6, 7, 8), while a corresponding slot is provided on the bearing section (6, 7, 8) for the lateral insertion of the bearing section (6, 7, 8) in the recess.
Modular element or semi-module for making underground structures for basins designed to manage meteoric waters or underground structures for retaining soil, comprising: - a substantially plane base portion; - one or more pillars raising from said base portion; wherein each of said pillars is hollow and comprises a first external wall defining at least one through internal cavity, and wherein a stiffening element is provided inside said cavity, and wherein said first external wall is substantially tubular and defines said through cavity, and wherein inside said cavity there is said stiffening element that comprises a stiffening tubular internal wall which is spaced from said external wall and has a prismatic shape or a shape substantially corresponding to that of said external wall itself, characterized in that said external wall and said internal wall have substantially the same height, in such a way that the ends of said external wall and the ends (171, 172) of said internal wall substantially define a larger base and a smaller base of said pillars. - a substantially plane base portion; - one or more pillars raising from said base portion;
A system for cleaning a tube bundle of a heat exchanger core, the system comprising: a lance for directing a jet of fluid into spaces between the tubes of the bundle, a carriage for advancing the lance to penetrate into the bundle, a mount movable relative to the carriage for holding the lance, a spring acting on the mount to urge the lance towards the tube bundle, any reaction force on the lance being opposed by said spring, and a sensor for detecting relative movement between the lance and the carriage, so as to detect when a reaction force acting on the lance upon encountering an obstruction in the tube bundle exceeds a predetermined limit. a lance for directing a jet of fluid into spaces between the tubes of the bundle, a carriage for advancing the lance to penetrate into the bundle, a mount movable relative to the carriage for holding the lance, a spring acting on the mount to urge the lance towards the tube bundle, any reaction force on the lance being opposed by said spring, and a sensor for detecting relative movement between the lance and the carriage, so as to detect when a reaction force acting on the lance upon encountering an obstruction in the tube bundle exceeds a predetermined limit.
A random access method, applied to a contention-based access process, wherein the method comprises: determining, by a base station, that a detected first preamble value is a preamble value sent by a target terminal; calculating, by the base station, a preamble offset and a time offset of the target terminal; generating, by the base station, at least two random access response messages, wherein in the at least two random access response messages: at least one of the at least two random access response messages comprises a second preamble value and a second timing advance, TA, value, and at least one of the at least two random access response messages comprises a third preamble value and a third TA value; and the second preamble value is the same as the first preamble value, the second TA value is the same as a first TA value that corresponds to the first preamble value detected by the base station, the third preamble value is a sum of the first preamble value and the preamble offset or a difference between the first preamble value and the preamble offset, and the third TA value is a sum of the first TA value and the time offset or a difference between the first TA value and the time offset; and sending, by the base station, the at least two random access response messages to the target terminal. determining, by a base station, that a detected first preamble value is a preamble value sent by a target terminal; calculating, by the base station, a preamble offset and a time offset of the target terminal; generating, by the base station, at least two random access response messages, wherein in the at least two random access response messages: at least one of the at least two random access response messages comprises a second preamble value and a second timing advance, TA, value, and at least one of the at least two random access response messages comprises a third preamble value and a third TA value; and the second preamble value is the same as the first preamble value, the second TA value is the same as a first TA value that corresponds to the first preamble value detected by the base station, the third preamble value is a sum of the first preamble value and the preamble offset or a difference between the first preamble value and the preamble offset, and the third TA value is a sum of the first TA value and the time offset or a difference between the first TA value and the time offset; and sending, by the base station, the at least two random access response messages to the target terminal.
Motor vehicle lighting device comprising - at least one light source, - an optical device associated with the at least one light source, into which light from the at least one light source is irradiated, and - an optical imaging system which is assigned to the optical device and images light emerging from the optical device in front of the motor vehicle lighting device, the optical device being set up to bundle the light from the at least one light source and to direct it in the form of at least two spatially separated light beams - a first light beam and a second light beam - to the optical imaging system, and the optical imaging system is adapted to project each light beam in the form of a light distribution in front of the vehicle lighting device,- the first light beam in the form of a main light distribution and the second light beam in the form of a signlight partial light distribution, wherein at least one diaphragm arranged perpendicular to an optical axis of the optical imaging system is arranged downstream of the optical device and has at least one first opening and at least one second opening, wherein said at least one first opening is adapted to form said first light beam forming the main light distribution and said at least one second opening is adapted to form said second light beam forming the signlight partial light distribution, characterized in that it comprises a plurality of light sources (2a to 2g), preferably a plurality of LEDs, and the optical device has a plurality of light-conducting optical bodies (3a to 3g), each light-conducting optical body being assigned exactly one light source, each light-conducting optical body being arranged and/or designed with respect to the associated light source in such a way that only the light of the associated light source is coupled into the optical body, characterized in that the optical device is provided with a light-guiding optical body (3a to 3g), which is arranged and/or designed in such a way that only the light of the associated light source is coupled into the optical body, and in that the optical device is provided with a light-guiding optical body (3a to 3g), which is arranged and/or designed in such a way that only the light of the associated light source is coupled into the optical body. - at least one light source, - an optical device associated with the at least one light source, into which light from the at least one light source is irradiated, and - an optical imaging system which is assigned to the optical device and images light emerging from the optical device in front of the motor vehicle lighting device, the optical device being set up to bundle the light from the at least one light source and to direct it in the form of at least two spatially separated light beams - a first light beam and a second light beam - to the optical imaging system, and the optical imaging system is adapted to project each light beam in the form of a light distribution in front of the vehicle lighting device,- the first light beam in the form of a main light distribution and the second light beam in the form of a signlight partial light distribution,
A seal-forming structure for a patient interface, the seal-forming structure constructed and arranged to form a seal with a region of the patient's face surrounding an entrance to the patient's airways, the seal-forming structure constructed and arranged to maintain a therapeutic pressure of at least 6 cmH2O above ambient air pressure in a plenum chamber throughout the patient's respiratory cycle in use, the seal-forming structure comprising: a patient-contacting surface configured to engage the patient's facial skin to form a seal; a posterior opening formed in the patient-contacting surface, the posterior opening configured to provide the flow of air at said therapeutic pressure to the patient's nares; and a support structure extending from a first location on the patient contacting surface to a second location on an interior surface of the seal-forming structure, the support structure and the interior surface forming a continuous loop, wherein the patient interface is configured to allow the patient to breath from ambient through their mouth in the absence of a flow of pressurised air through the plenum chamber inlet port, or the patient interface is configured to leave the patient's mouth uncovered, and wherein a superior portion of the seal-forming structure is structured to engage the patient's nose inferior to the patient's nasal bone. a patient-contacting surface configured to engage the patient's facial skin to form a seal; a posterior opening formed in the patient-contacting surface, the posterior opening configured to provide the flow of air at said therapeutic pressure to the patient's nares; and a support structure extending from a first location on the patient contacting surface to a second location on an interior surface of the seal-forming structure, the support structure and the interior surface forming a continuous loop, wherein the patient interface is configured to allow the patient to breath from ambient through their mouth in the absence of a flow of pressurised air through the plenum chamber inlet port, or the patient interface is configured to leave the patient's mouth uncovered, and wherein a superior portion of the seal-forming structure is structured to engage the patient's nose inferior to the patient's nasal bone.
A distributed optical fibre sensor comprising: a monomode sensor optical fibre for disposing in an environment such that the birefringence of the sensor fibre is responsive to at least one environmental influence; a light source arranged to launch pulses of probe light each having a defined launch polarisation state into the sensor optical fibre; a detector arranged to receive probe light following backscatter of said pulses within the sensor optical fibre, and to detect retardation beat frequency signals from the received probe light using one or more detector polarisation states; and an analyser arranged to determine at least one parameter indicative of said environmental influence, as a profile along at least part of the sensor optical fibre, from properties of the retardation beat frequency signals, characterised in that: the light source is arranged to automatically launch a plurality of said pulses of probe light having a diversity of two or more different launch polarisation states. a monomode sensor optical fibre for disposing in an environment such that the birefringence of the sensor fibre is responsive to at least one environmental influence; a light source arranged to launch pulses of probe light each having a defined launch polarisation state into the sensor optical fibre; a detector arranged to receive probe light following backscatter of said pulses within the sensor optical fibre, and to detect retardation beat frequency signals from the received probe light using one or more detector polarisation states; and an analyser arranged to determine at least one parameter indicative of said environmental influence, as a profile along at least part of the sensor optical fibre, from properties of the retardation beat frequency signals, characterised in that: the light source is arranged to automatically launch a plurality of said pulses of probe light having a diversity of two or more different launch polarisation states. the light source is arranged to automatically launch a plurality of said pulses of probe light having a diversity of two or more different launch polarisation states.
A self-adhesive label incorporating an RFID inlay comprising: a substrate having a top face with an adhesive layer on the top face, the substrate having a top section and a bottom section, wherein the top section is folded on itself securing the RFID inlay within the fold, wherein the folded top section has at least one opening allowing the self-adhesive label to be hooked to a display, wherein the RFID inlay is incorporated around the at least one opening in the folded top section, and the bottom section is not folded on itself and is configured to be adhered to an article.