mhurhangee/ep-ind-claims huggingface dataset:
A vacuum cleaner nozzle comprising: a rotatable brush comprising a light distribution mechanism for distributing light from the rotatable brush; a transparent screen through which a user can see the rotatable brush; and a drive unit for rotating the rotatable brush; characterized by a sensor for measuring a rotation speed of the rotatable brush, and a controller for controlling the light distributed from the rotatable brush in dependence on the rotation speed of the rotatable brush. a rotatable brush comprising a light distribution mechanism for distributing light from the rotatable brush; a transparent screen through which a user can see the rotatable brush; and a drive unit for rotating the rotatable brush; a sensor for measuring a rotation speed of the rotatable brush, and a controller for controlling the light distributed from the rotatable brush in dependence on the rotation speed of the rotatable brush.
A multi-channel system for sorting particles according to one or more characteristics of theparticles, the system being characterised in that it includes: multiple flow cytometry units each of which is operable to sort a desired population of particles in a mixture of particles by interrogating a stream of fluid containing the particles using a beam of electromagnetic radiation, wherein each flow cytometry unit comprises a droplet sorting system, the units sharing an integrated platform including a common fluid delivery system for delivering fluid containing the particles to the flow cytometry units, wherein the common fluid delivery system is capable of supplying one or more of the units at a first flow rate and one or more of the units at a second flow rate.
A photovoltaic device comprising: • a solar concentrator having a ring-like shape, in turn comprising: ▪ an external conveyor arranged along an external portion of the ring; ▪ an external luminescent plate having a trapezoidal section and having an external peripheral receiving surface configured to receive a luminous radiation incident and coming from the conveyor; ▪ an internal luminescent plate arranged along an internal portion of the ring and having a trapezoidal section; ▪ a nanostructured semiconductor layer sandwiched between the two plates (21, 22) so that the major bases of the respective trapezoidal sections face thereon, said semiconductor layer being configured to receive a radiation transmitted by the external and internal plates (21, 22) and produce photovoltaic effect; • conveying means (3, 5), configured to gather and concentrate the incident luminous radiation at said peripheral receiving surface. • a solar concentrator having a ring-like shape, in turn comprising: ▪ an external conveyor arranged along an external portion of the ring; ▪ an external luminescent plate having a trapezoidal section and having an external peripheral receiving surface configured to receive a luminous radiation incident and coming from the conveyor; ▪ an internal luminescent plate arranged along an internal portion of the ring and having a trapezoidal section; ▪ a nanostructured semiconductor layer sandwiched between the two plates (21, 22) so that the major bases of the respective trapezoidal sections face thereon, said semiconductor layer being configured to receive a radiation transmitted by the external and internal plates (21, 22) and produce photovoltaic effect; ▪ an external conveyor arranged along an external portion of the ring; ▪ an external luminescent plate having a trapezoidal section and having an external peripheral receiving surface configured to receive a luminous radiation incident and coming from the conveyor; ▪ an internal luminescent plate arranged along an internal portion of the ring and having a trapezoidal section; ▪ a nanostructured semiconductor layer sandwiched between the two plates (21, 22) so that the major bases of the respective trapezoidal sections face thereon, said semiconductor layer being configured to receive a radiation transmitted by the external and internal plates (21, 22) and produce photovoltaic effect; • conveying means (3, 5), configured to gather and concentrate the incident luminous radiation at said peripheral receiving surface.
Power and/or telecommunications cable comprising at least one elongate conductive element and at least one composite electrically isolating layer surrounding said elongate conductive element, characterized in that the composite electrically isolating layer comprises an organic polymer material comprising open and/or semi-open cells, and a cement material filling at least part of said open and/or semi-open cells.
A process for the preparation of crystal form comprising malic acid salt of sunitinib, the process comprising the steps of: a) mixing a compound of formula I, N-(2-(diethylamino)ethyl)-5-formyl-2,4-dimethyl-1 H-pyrrole-3-carboxamide with a compound of formula II, 5-fluoroindolin-2-one in ethanol; b) refluxing the mixture obtained in step a); c) adding malic acid to the mixture subsequent to step b); and d) allowing the crystal form comprising malic acid salt of sunitinib to crystallize subsequent to step c), wherein steps a) to d) are carried out in one pot without intermediate isolation of the sunitinib base formed by steps a) and b), and wherein conditions, optionally including adjusting amounts of educts and/or reaction volume, are applied such that, until step d) is started, the concentration of sunitinib base does not exceed 25mg/ml. a) mixing a compound of formula I, N-(2-(diethylamino)ethyl)-5-formyl-2,4-dimethyl-1 H-pyrrole-3-carboxamide with a compound of formula II, 5-fluoroindolin-2-one in ethanol; b) refluxing the mixture obtained in step a); c) adding malic acid to the mixture subsequent to step b); and d) allowing the crystal form comprising malic acid salt of sunitinib to crystallize subsequent to step c), wherein steps a) to d) are carried out in one pot without intermediate isolation of the sunitinib base formed by steps a) and b), and wherein conditions, optionally including adjusting amounts of educts and/or reaction volume, are applied such that, until step d) is started, the concentration of sunitinib base does not exceed 25mg/ml.
Glass-glass solar module laminate with internal solar cells, wherein, between a front glass panel and a rear glass panel, bypass elements (1, 6, 14, 23) of the same or different heights are provided, furthermore the bypass elements (1, 6, 14, 23) comprise cross connectors (4, 5, 7) contacted to connecting surfaces (2, 3) of a diode chip, and with at least two junction boxes arranged at the module edge, characterized in that spacers are provided embracing the respective cross connector, wherein the height of the spacer is equal to or less than the gap width between the front glass panel and the rear glass panel (12; 13) after the laminating process, wherein the spacers serve the purpose of both positioning the cross connectors and forming a uniform gap height and a preferably constant parallelism between the front glass panel and the rear glass panel.
A supporting device for a ring of a gas turbine, the ring being intended to enclose moving blades of the turbine driven by a gas flow flowing from upstream to downstream, the device comprising at least one upstream hook, facing upstream, intended to be accommodated in an upstream groove of the ring, which groove is open in the downstream direction, and at least one downstream hook, facing downstream, intended to be accommodated in a downstream groove of the ring, which groove is open in the upstream direction, a pressurized cavity being formed between the upstream hook and downstream hook, the pressurized cavity being supplied with cooling gases, characterized in that the device comprises, upstream of the upstream hook, means for injecting cooling gases for cooling the upstream hook and/or comprising, downstream of the downstream hook, means (17, 18) for injecting cooling gases for cooling the downstream hook, said means being arranged so that this injection is done without going through said pressurized cavity.
A method used to determine the position of goods located on and/or being moved on a conveyor device, which goods are being transported in an ordered or unordered manner, standing or lying one after another and/or next to each other, in a multitude, and in horizontal direction via a conveyor line on a conveying and support surface, and which goods are detected within a defined path section of the conveyor line by means of a measuring apparatus for weight detection of the goods, wherein the measuring apparatus evaluates by means of a control and evaluation unit the output signals, which change over a course of time, of a plurality of weight sensors arranged in the range of the conveyor line in different positions and in each instance spaced apart from each other, wherein the control and evaluation unit calculates and determines from the weight sensors' output signals, which change over the course of time, a position of the goods within the conveyor line, characterised in that the conveyor line serves as buffer line, where a feed speed of the movable conveying and support surface is regulated by the control and evaluation unit based on the detected positions of the goods.
Rotor for an electrical asynchronous machine, comprising a squirrel-cage rotor which has bars which are arranged in a laminated core of the rotor and two short-circuiting rings which are arranged at end sides of the laminated core and electrically connect the bars, wherein the squirrel-cage rotor is cast onto the laminated core as a casting composed of an electrically conductive casting material, the laminated core having a passage opening which extends axially through the laminated core and has a diameter which is larger than a diameter of a shaft of the rotor, and in that a filler which is formed from the casting material and is cast onto the laminated core is arranged in the passage opening, wherein the shaft is cast onto the laminated core together with the filler composed of the casting material, characterized in that the shaft is formed as a plug-in coupling from the filler.
A reagent composition for a Karl Fischer titration, said reagent composition comprising: sulfur dioxide or a sulfite; a derivative of imidazole having the following structure: wherein each of R, R 1, and R 2 is independently a hydrogen atom, a phenyl group, a substituted phenyl group, a first hydrocarbyl group having from 1 to 6 carbon atoms, or a second hydrocarbyl group having 1 to 6 carbon atoms interrupted in at least one position with a heteroatom, provided that R, R 1, and R 2 are not all hydrogen atoms; an alcohol; and at least one amino acid present in an amount that is 0.1 to 2 weight percent based on a total weight of said reagent composition; wherein a molar ratio of the derivative of imidazole to the sulfur dioxide or a sulfite is greater than 1:1. sulfur dioxide or a sulfite; a derivative of imidazole having the following structure: wherein each of R, R 1, and R 2 is independently a hydrogen atom, a phenyl group, a substituted phenyl group, a first hydrocarbyl group having from 1 to 6 carbon atoms, or a second hydrocarbyl group having 1 to 6 carbon atoms interrupted in at least one position with a heteroatom, provided that R, R 1, and R 2 are not all hydrogen atoms; an alcohol; and at least one amino acid present in an amount that is 0.1 to 2 weight percent based on a total weight of said reagent composition;
A rotor blade with a blade root, a blade tip, a pressure surface and a suction surface, wherein the pressure surface and the suction surface are joined together in the area of an incoming flow and the blade tip comprises an end element (121, 221), wherein the end element comprises a first winglet fin (123, 223) and a second winglet fin (133, 233), wherein, on its pressure surface side, a first winglet fin longitudinal axis has an angle α1 of less than 180° or less than 150° or less than 120° or less than 90° or less than 60° relative to a first rotor blade longitudinal axis and, on its suction surface side, a second winglet fin longitudinal axis has an angle β1 of less than 180° or less than 150° or less than 120° or less than 90° or less than 60° relative to a second rotor blade longitudinal axis, so that the first winglet fin (123, 223) and the second winglet fin (133, 233) form a first winglet fin pair, characterized in that the end element (121, 221) comprises a third winglet fin (125, 225) and a fourth winglet fin (135, 235), which form a second winglet fin pair, and, on its pressure surface side, a third winglet fin longitudinal axis has an angle α2 of less than 180° or less than 150° or less than 120° or less than 90° or less than 60° relative to a third rotor blade longitudinal axis and, on its suction surface side, a fourth winglet fin longitudinal axis has an angle β2 of less than 180° or less than 150° or less than 120° or less than 90° or less than 60° relative to a fourth rotor blade longitudinal axis.
A method for acquiring and storing changed network state information comprising: registering, by a SIM card support capability ToolKit module, a network state notification to a Connectivity Management, CM, module; and notifying the SIM card support capability ToolKit module by the CM module when a network state recorded by the CM module changes, and acquiring changed network state information by the SIM card support capability ToolKit module; storing by the SIM card support capability ToolKit module an acquired network state after acquiring the changed network state information by the SIM card support capability ToolKit module characterised in that: the storing by the SIM card support capability ToolKit module an acquired network state comprises: changing, by the SIM card support capability ToolKit module, an acquired network state type into a cell location information change type, while calling a SIM card support capability ToolKit Envelop command processing function and writing corresponding network state information into a SIM card through a SIM module interface function. registering, by a SIM card support capability ToolKit module, a network state notification to a Connectivity Management, CM, module; and notifying the SIM card support capability ToolKit module by the CM module when a network state recorded by the CM module changes, and acquiring changed network state information by the SIM card support capability ToolKit module; storing by the SIM card support capability ToolKit module an acquired network state after acquiring the changed network state information by the SIM card support capability ToolKit module characterised in that: the storing by the SIM card support capability ToolKit module an acquired network state comprises: changing, by the SIM card support capability ToolKit module, an acquired network state type into a cell location information change type, while calling a SIM card support capability ToolKit Envelop command processing function and writing corresponding network state information into a SIM card through a SIM module interface function. the storing by the SIM card support capability ToolKit module an acquired network state comprises: changing, by the SIM card support capability ToolKit module, an acquired network state type into a cell location information change type, while calling a SIM card support capability ToolKit Envelop command processing function and writing corresponding network state information into a SIM card through a SIM module interface function. changing, by the SIM card support capability ToolKit module, an acquired network state type into a cell location information change type, while calling a SIM card support capability ToolKit Envelop command processing function and writing corresponding network state information into a SIM card through a SIM module interface function.
A ride vehicle, comprising: a platform comprising a front portion and a rear portion; and a row (22, 24) of seats disposed on the platform, wherein each seat of the row (22, 24) of seats is configured so that a passenger loads said seat from the rear of said seat and once seated the passenger faces the front portion, and the ride vehicle is configured so that each passenger enters the ride vehicle via the rear portion of said platform; and wherein each seat of the row (22, 24) of seats comprises a gesture tracking system coupled to a controller of the ride vehicle, wherein the gesture tracking system is configured to detect gestures of the passenger and to cause the controller to alter movement of the ride vehicle based on the detected gestures of the passenger. a platform comprising a front portion and a rear portion; and a row (22, 24) of seats disposed on the platform, wherein each seat of the row (22, 24) of seats is configured so that a passenger loads said seat from the rear of said seat and once seated the passenger faces the front portion, and the ride vehicle is configured so that each passenger enters the ride vehicle via the rear portion of said platform; and wherein each seat of the row (22, 24) of seats comprises a gesture tracking system coupled to a controller of the ride vehicle, wherein the gesture tracking system is configured to detect gestures of the passenger and to cause the controller to alter movement of the ride vehicle based on the detected gestures of the passenger.
A sample collection system (100, 200, 300), comprising: a sample collection vessel (102, 202, 302) for receiving a sample; a sealing cap (110, 310) configured to be removably engaged with the sample collection vessel; an inner vessel (106, 306) securely engaged with the sealing cap, the inner vessel for storing a reagent, the inner vessel comprising a body and a fluid vent located on the body; and an outer sleeve frictionally engaged with the inner vessel, the outer sleeve slidable translationally relative to the inner vessel between a first position and a second position, the outer sleeve at the first position covering the fluid vent and at the second position opening the fluid vent, wherein, when the sample collection vessel is fully engaged with the sealing cap, the sample collection vessel is configured to push the outer sleeve to the second position, thereby opening the fluid vent, and wherein the outer sleeve comprises an inner layer and an outer layer, and the inner layer is made of a first material and an outer layer is made of a second material, different from the first material, wherein the second material is stiffer than the first material. a sample collection vessel (102, 202, 302) for receiving a sample; a sealing cap (110, 310) configured to be removably engaged with the sample collection vessel; an inner vessel (106, 306) securely engaged with the sealing cap, the inner vessel for storing a reagent, the inner vessel comprising a body and a fluid vent located on the body; and an outer sleeve frictionally engaged with the inner vessel, the outer sleeve slidable translationally relative to the inner vessel between a first position and a second position, the outer sleeve at the first position covering the fluid vent and at the second position opening the fluid vent, wherein, when the sample collection vessel is fully engaged with the sealing cap, the sample collection vessel is configured to push the outer sleeve to the second position, thereby opening the fluid vent, and wherein the outer sleeve comprises an inner layer and an outer layer, and the inner layer is made of a first material and an outer layer is made of a second material, different from the first material, wherein the second material is stiffer than the first material.
A compound for use in a method of treating, preventing, ameliorating, or delaying the onset of one or more symptoms associated with or resulting from a respiratory viral infection in a subject, comprising administering a compound, or a pharmaceutically acceptable salt, solvate, hydrate, or stereoisomer thereof; wherein the compound is 3-(3,4-dimethoxyphenyl)-3-(1-oxoisoindolin-2-yl)propanamide: or wherein the compound is 2-[1-(3-ethoxy-4-methoxyphenyl)-2-methylsulfonylethyl]-4-acetylaminoisoindoline-1,3-dione: or wherein the compound is N-{2-[1-(3-ethoxy-4-methoxyphenyl)-2-(methylsulfonyl)ethyl]-3-oxoisoindolin-4-yl} cyclopropanecarboxamide: and wherein the respiratory viral infection is influenza infection.
A portable communication device comprising: a memory (244, 246, 248); a radio frequency signal transceiver configured to receive an instruction signal; and control electronics configured to: detect that said instruction signal has been received by said transceiver; determine location data pertaining to a location of said portable communication device, said location data comprising data stored in said memory indicating a last determined location of the portable communication device; and cause the transceiver to transmit a beacon signal comprising the location data, responsive to the instruction signal being detected by said control electronics. a memory (244, 246, 248); a radio frequency signal transceiver configured to receive an instruction signal; and control electronics configured to: detect that said instruction signal has been received by said transceiver; determine location data pertaining to a location of said portable communication device, said location data comprising data stored in said memory indicating a last determined location of the portable communication device; and cause the transceiver to transmit a beacon signal comprising the location data, responsive to the instruction signal being detected by said control electronics. detect that said instruction signal has been received by said transceiver; determine location data pertaining to a location of said portable communication device, said location data comprising data stored in said memory indicating a last determined location of the portable communication device; and cause the transceiver to transmit a beacon signal comprising the location data, responsive to the instruction signal being detected by said control electronics.