mhurhangee/ep-ind-claims huggingface dataset:
Waste collection container, adapted to be at at least partially buried in the ground, comprising a waste opening for the introduction of waste in the container, this waste opening being located in a part of the container which is not intended to be buried in the ground, and a second opening, separate from the waste opening, formed in a side wall of the container and located in a part of the container intended to be buried in the ground, characterised in that it comprises a bottom with two leaves.
A rotary machine comprising: a rotating shaft (103; 103C) that is configured to rotate around a center axis by a rotation driving force input from an outside; a pair of radial bearings (102, 102C) for rotatably supporting the rotating shaft (103; 103C) around the center axis; a thrust bearing (107, 107C) for restraining movement of the rotating shaft (103; 103C) in a center axis direction; impellers (104, 104C) fixed to the rotating shaft (103; 103C) at a position separated from the radial bearings in the center axis direction, and integrally rotating with the rotating shaft (103; 103C); and additional masses (150, 150C, 150D) fixed to the rotating shaft (103; 103C) at positions separated from both the radial bearings (102, 102C) and the impellers (104, 104C) in the center axis direction, whereby the impellers (104, 104C) are fixed to the rotating shaft on both outer sides in the center axis direction with respect to a space in which the pair of radial bearings (102, 102C) are disposed, and characterized in that the additional masses (150, 150C, 150D) are fixed to the rotating shaft (103; 103C) in the center axis direction between each impeller (104, 104C) and the radial bearing (102, 102C) that is adjacent to the impeller, and are applying a load to an entire circumference of the rotating shaft so as to move positions of amplitude increase regions where an amplitude of vibration in a radial direction of the rotating shaft starts to increase. a rotating shaft (103; 103C) that is configured to rotate around a center axis by a rotation driving force input from an outside; a pair of radial bearings (102, 102C) for rotatably supporting the rotating shaft (103; 103C) around the center axis; a thrust bearing (107, 107C) for restraining movement of the rotating shaft (103; 103C) in a center axis direction; impellers (104, 104C) fixed to the rotating shaft (103; 103C) at a position separated from the radial bearings in the center axis direction, and integrally rotating with the rotating shaft (103; 103C); and additional masses (150, 150C, 150D) fixed to the rotating shaft (103; 103C) at positions separated from both the radial bearings (102, 102C) and the impellers (104, 104C) in the center axis direction, whereby the impellers (104, 104C) are fixed to the rotating shaft on both outer sides in the center axis direction with respect to a space in which the pair of radial bearings (102, 102C) are disposed, and characterized in that the additional masses (150, 150C, 150D) are fixed to the rotating shaft (103; 103C) in the center axis direction between each impeller (104, 104C) and the radial bearing (102, 102C) that is adjacent to the impeller, and are applying a load to an entire circumference of the rotating shaft so as to move positions of amplitude increase regions where an amplitude of vibration in a radial direction of the rotating shaft starts to increase.
An ultrasonic sensor comprising an ultrasonic transducer, the ultrasonic transducer comprising: a piezoelectric element; and an active electrode and a counter electrode adapted for electrical connection to the piezoelectric element; wherein the piezoelectric element, the active electrode and the counter electrode are comprised in at least part of an electrical circuit for operating the piezoelectric element; the ultrasonic sensor is configured to be mountable to an entity to be sensed; and characterised in that the ultrasonic sensor is adapted such that removal of the ultrasonic sensor from the entity causes a breaking of the electrical circuit so as to render the ultrasonic sensor inoperable or irreversibly inoperable. a piezoelectric element; and an active electrode and a counter electrode adapted for electrical connection to the piezoelectric element; wherein the piezoelectric element, the active electrode and the counter electrode are comprised in at least part of an electrical circuit for operating the piezoelectric element; the ultrasonic sensor is configured to be mountable to an entity to be sensed; and characterised in that the ultrasonic sensor is adapted such that removal of the ultrasonic sensor from the entity causes a breaking of the electrical circuit so as to render the ultrasonic sensor inoperable or irreversibly inoperable.
A multilayer sheet, comprising: a core layer comprising a composition comprising about 60 to about 90 weight percent of polyphenylene, about 0 to about 20 weight percent of polystyrene, about 10 to about 20 weight percent of a hydrogenated block copolymer of an alkenyl aromatic compound and a conjugated diene, and optionally, a flame retardant additive; and a first cap layer disposed on a surface of the core layer, wherein the first cap layer comprises polypropylene; wherein the multilayer sheet further comprises a second cap layer disposed on another surface of the core layer, wherein the second cap layer comprises polypropylene. a core layer comprising a composition comprising about 60 to about 90 weight percent of polyphenylene, about 0 to about 20 weight percent of polystyrene, about 10 to about 20 weight percent of a hydrogenated block copolymer of an alkenyl aromatic compound and a conjugated diene, and optionally, a flame retardant additive; and a first cap layer disposed on a surface of the core layer, wherein the first cap layer comprises polypropylene; wherein the multilayer sheet further comprises a second cap layer disposed on another surface of the core layer, wherein the second cap layer comprises polypropylene.
A composition for generating oxygen, comprising at least one oxygen source, at least one ionic liquid, and at least one metal oxide compound, wherein - the oxygen source comprises a peroxide compound, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C, and - the metal oxide compound is an oxide of one single metal or of two or more different metals, said metal(s) being selected from the metals of groups 2 to 14 of the periodic table of the elements. - the oxygen source comprises a peroxide compound, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C, and - the metal oxide compound is an oxide of one single metal or of two or more different metals, said metal(s) being selected from the metals of groups 2 to 14 of the periodic table of the elements.
A composite fan blade having a body formed from a plurality of fibre reinforced non-metallic layers and comprising a root, a tip, a trailing edge and a leading edge, the body comprising: a delamination region configured so as to permit delamination; and a deflector region configured so as to resist delamination such that in the event of delamination, the delamination is deflected to and continues to propagate in the delamination region, wherein the deflector region covers 10 to 40% of the overall area of the pressure and/or suction face of the fan blade and wherein the deflector region includes an elongate deflector portion extending in a spanwise direction and spaced from the leading or trailing edge by a distance greater than or equal to a chordwise width of the elongate deflector portion. a delamination region configured so as to permit delamination; and a deflector region configured so as to resist delamination such that in the event of delamination, the delamination is deflected to and continues to propagate in the delamination region, wherein the deflector region covers 10 to 40% of the overall area of the pressure and/or suction face of the fan blade and wherein the deflector region includes an elongate deflector portion extending in a spanwise direction and spaced from the leading or trailing edge by a distance greater than or equal to a chordwise width of the elongate deflector portion.
A method for position-independent transmission and receipt of data with a large-capacity passenger aircraft, characterized by the steps of: installing at least one antenna in the commercial aircraft in close proximity of a window on the inside of the aircraft, said antenna being designed for communication with a flying communication hub, transmitting and/or receiving the data between at least the antenna and a flying communication hub during flight, and transmitting the data within the aircraft between the antenna and a routing means connected with the antenna, characterized in that the antenna is mounted in close proximity of the window such that a direct visual connection exists between the antenna and the communication hub through the window, so that the radio waves transmitted between the antenna and the communication hub are transmitted through the window. installing at least one antenna in the commercial aircraft in close proximity of a window on the inside of the aircraft, said antenna being designed for communication with a flying communication hub, transmitting and/or receiving the data between at least the antenna and a flying communication hub during flight, and transmitting the data within the aircraft between the antenna and a routing means connected with the antenna, characterized in that the antenna is mounted in close proximity of the window such that a direct visual connection exists between the antenna and the communication hub through the window, so that the radio waves transmitted between the antenna and the communication hub are transmitted through the window.
A method for determining a microbial pathogen and an anti-infective resistance thereof in a sample comprising the microbial pathogen and an anti-infective, comprising the following steps: - cultivating the sample comprising at least one microbial pathogen and an anti-infective; - determining Raman spectra of the microbial pathogen by Raman spectroscopy of the sample under at least two different anti-infective conditions, - determining quantitative morphology parameters of the microbial pathogen by optical detection of the sample under at least two different anti-infective conditions, - determining the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen, - determining the anti-infective resistance of the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen. - cultivating the sample comprising at least one microbial pathogen and an anti-infective; - determining Raman spectra of the microbial pathogen by Raman spectroscopy of the sample under at least two different anti-infective conditions, - determining quantitative morphology parameters of the microbial pathogen by optical detection of the sample under at least two different anti-infective conditions, - determining the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen, - determining the anti-infective resistance of the microbial pathogen based on the Raman spectra and the quantitative morphology parameters of the microbial pathogen.
A method for a first network element acting as a slave unit to join a cluster having a second network element acting as a master unit, the method comprising: receiving a first request message from the first network element using an out-of-band control link, the first request message requesting system parameters associated with the cluster; sending a first reply message to the first network element using the out-of-band control link, the first reply message including system parameters associated with the cluster; receiving a request message from the first network element using the out-of-band control link, the request message including a request to bundle a first port associated with the first network element into a channel group associated with a cluster that includes a plurality of clustered network elements; deciding a status of the first port with respect to the channel group as either bundled with the channel group or in a standby status; and sending a reply message to the first network element, the reply message indicating the determined status of the first port of the first network element. receiving a first request message from the first network element using an out-of-band control link, the first request message requesting system parameters associated with the cluster; sending a first reply message to the first network element using the out-of-band control link, the first reply message including system parameters associated with the cluster; receiving a request message from the first network element using the out-of-band control link, the request message including a request to bundle a first port associated with the first network element into a channel group associated with a cluster that includes a plurality of clustered network elements; deciding a status of the first port with respect to the channel group as either bundled with the channel group or in a standby status; and sending a reply message to the first network element, the reply message indicating the determined status of the first port of the first network element.
An aircraft system comprising: a fuel tank containing a cryogenic fuel; an engine configured to consume the cryogenic fuel; and an environmental control system including a precooler arranged along a flow path between the fuel tank and the engine, the precooler configured to receive the cryogenic fuel as a first working fluid and engine bleed air as a second working fluid, wherein the precooler comprises: a first heat exchanger configured to receive the cryogenic fuel at a first state and output the cryogenic fuel at a second state; and a second heat exchanger configured to receive the cryogenic fuel at the second state and output the cryogenic fuel at a third state, wherein the first state of the fuel has a first density, the second state of the fuel has a second density, and the third state of the fuel has a third density, wherein the first density is greater than the second density, and the second density is greater than the third density, and wherein the engine bleed air is directed through the second heat exchanger of the precooler first and then through the first heat exchanger of the precooler a fuel tank containing a cryogenic fuel; an engine configured to consume the cryogenic fuel; and an environmental control system including a precooler arranged along a flow path between the fuel tank and the engine, the precooler configured to receive the cryogenic fuel as a first working fluid and engine bleed air as a second working fluid, wherein the precooler comprises: a first heat exchanger configured to receive the cryogenic fuel at a first state and output the cryogenic fuel at a second state; and a second heat exchanger configured to receive the cryogenic fuel at the second state and output the cryogenic fuel at a third state, wherein the first state of the fuel has a first density, the second state of the fuel has a second density, and the third state of the fuel has a third density, wherein the first density is greater than the second density, and the second density is greater than the third density, and wherein the engine bleed air is directed through the second heat exchanger of the precooler first and then through the first heat exchanger of the precooler a first heat exchanger configured to receive the cryogenic fuel at a first state and output the cryogenic fuel at a second state; and a second heat exchanger configured to receive the cryogenic fuel at the second state and output the cryogenic fuel at a third state, wherein the first state of the fuel has a first density, the second state of the fuel has a second density, and the third state of the fuel has a third density, wherein the first density is greater than the second density, and the second density is greater than the third density, and wherein the engine bleed air is directed through the second heat exchanger of the precooler first and then through the first heat exchanger of the precooler
An apparatus for extracting a solute from a solution, comprising: a solute trapping column having at one end an injection part equipped with an injection port for the solution, the column having a discharge port at the other end and including multiple trapping agent layers (340, 350) capable of trapping the solute, the layers packed in the column with a space interposed therebetween; a first supplying pathway for supplying the solute trapping column at said one end with a solvent for developing the solute within the solute trapping column; a second supplying pathway for supplying the solute trapping column at said other end with a solvent for extracting the solute; a supplying device for switching a supply of the developing solvent to the first supplying pathway and a supply of the extraction solvent to the second supplying pathway, wherein solute trapping column has branched pathways (320, 330) respectively extending from said injection part and said space for the flow of the extraction solvent from the second supplying pathway; and a controlling device for controlling the extraction solvent supplied to the solute trapping column so that the extraction solvent flows in one of the branched pathways (320, 330) sequentially selected from the extraction solvent supply side while the flow of the extraction solvent in the other of the branched pathways and the injection port is blocked, and also for controlling the developing solvent supplied to the solute trapping column so that the flow of the developing solvent to the branched pathways (320, 330) is blocked. a solute trapping column having at one end an injection part equipped with an injection port for the solution, the column having a discharge port at the other end and including multiple trapping agent layers (340, 350) capable of trapping the solute, the layers packed in the column with a space interposed therebetween; a first supplying pathway for supplying the solute trapping column at said one end with a solvent for developing the solute within the solute trapping column; a second supplying pathway for supplying the solute trapping column at said other end with a solvent for extracting the solute; a supplying device for switching a supply of the developing solvent to the first supplying pathway and a supply of the extraction solvent to the second supplying pathway, wherein solute trapping column has branched pathways (320, 330) respectively extending from said injection part and said space for the flow of the extraction solvent from the second supplying pathway; and a controlling device for controlling the extraction solvent supplied to the solute trapping column so that the extraction solvent flows in one of the branched pathways (320, 330) sequentially selected from the extraction solvent supply side while the flow of the extraction solvent in the other of the branched pathways and the injection port is blocked, and also for controlling the developing solvent supplied to the solute trapping column so that the flow of the developing solvent to the branched pathways (320, 330) is blocked.
A method comprising: providing a fluid dispenser having a sensor that senses a property of an external surface presented by a user's hand, and a pump mechanism that, when activated, dispenses an allotment of fluid onto the user's hand; and using the sensor to sense the property of the external surface presented by the user's hand; characterized in that the method further comprises: determining, based on the property of the external surface presented by the user's hand, whether the user's hand is wearing a glove. providing a fluid dispenser having a sensor that senses a property of an external surface presented by a user's hand, and a pump mechanism that, when activated, dispenses an allotment of fluid onto the user's hand; and using the sensor to sense the property of the external surface presented by the user's hand; characterized in that the method further comprises: determining, based on the property of the external surface presented by the user's hand, whether the user's hand is wearing a glove.
A capsule cosmetics manufacturing assembly, comprising: a one-piece type capsule container having on a side thereof an opening; a sealing member configured to seal and block the opening of the capsule container; a liquid cosmetic material and a porous impregnation member configured to be put into the capsule container to manufacture the cosmetics, wherein the porous impregnation member further comprises a filling hole formed in the porous impregnation member; and a pressing plate adapted to pressurize the porous impregnation member; characterized by a filling member comprising a nozzle, wherein the nozzle is received by the filling hole, wherein the liquid cosmetic material is received by the nozzle, wherein in order to forcibly load the liquid cosmetic material to the porous impregnation member, the pressing plate and the filling member are adapted to pressurize the porous impregnation member, and wherein the porous impregnation member is adapted to return from a compressed state to an original state when the pressurizing force is released, so that a rapid absorption and impregnation of the loaded liquid cosmetic material is enabled. a one-piece type capsule container having on a side thereof an opening; a sealing member configured to seal and block the opening of the capsule container; a liquid cosmetic material and a porous impregnation member configured to be put into the capsule container to manufacture the cosmetics, wherein the porous impregnation member further comprises a filling hole formed in the porous impregnation member; and a pressing plate adapted to pressurize the porous impregnation member; characterized by a filling member comprising a nozzle, wherein the nozzle is received by the filling hole, wherein the liquid cosmetic material is received by the nozzle, wherein in order to forcibly load the liquid cosmetic material to the porous impregnation member, the pressing plate and the filling member are adapted to pressurize the porous impregnation member, and wherein the porous impregnation member is adapted to return from a compressed state to an original state when the pressurizing force is released, so that a rapid absorption and impregnation of the loaded liquid cosmetic material is enabled.
A composition comprising: (a) from 30% by weight to 97% by weight of polymer, wherein the polymer comprises polyetherimide, polyetheretherketone, polyamide, polyoxyalkylene, or polyalkylene terephthalate, or a mixture thereof; and (b) from 3% by weight to 30% by weight ultra-high molecular weight polyethylene modified with one or more surface modifiers, wherein the ultra-high molecular weight polyethylene comprises above 0% by weight to 10% by weight of the surface modifier. (a) from 30% by weight to 97% by weight of polymer, wherein the polymer comprises polyetherimide, polyetheretherketone, polyamide, polyoxyalkylene, or polyalkylene terephthalate, or a mixture thereof; and (b) from 3% by weight to 30% by weight ultra-high molecular weight polyethylene modified with one or more surface modifiers, wherein the ultra-high molecular weight polyethylene comprises above 0% by weight to 10% by weight of the surface modifier.