mhurhangee/ep-ind-claims huggingface dataset:
Proxy node (12, 13) for a telecommunication network comprising: - a receiving entity configured to receive a service request message from a subscriber device, - a search entity configured to search, in proxy for the subscriber device, for a first server within a group of servers (8, 9, 10), each of the servers (8, 9, 10) being configured to provide the requested service to the subscriber device, the search entity considering in that search, at least a location of the subscriber device and a location of the first server, wherein the proxy node is further configured to cause the first server to search a second server having currently enough resources to provide the service to the subscriber device, wherein the proxy node separates a wireless and fixed network domain; characterized in that the search entity of the proxy node is configured to send an overlay anycast message to the group of servers (8, 9, 10) that are offering the requested service, the message causing each server to compare its own location with that of the subscriber device that is noted within the message, the server being configured to note, if the distance is lower than all other distances that have been considered before, its position within the message and the anycast continuing, the server that is closest to the subscriber device being noted within the message and being informed by the last visited server; and in that the proxy node is configured to cause, a first server, at which server a LALA-algorithm is provisioned, to find, a second server providing enough computational or other resources to provide the service. - a receiving entity configured to receive a service request message from a subscriber device, - a search entity configured to search, in proxy for the subscriber device, for a first server within a group of servers (8, 9, 10), each of the servers (8, 9, 10) being configured to provide the requested service to the subscriber device, the search entity considering in that search, at least a location of the subscriber device and a location of the first server, wherein the proxy node is further configured to cause the first server to search a second server having currently enough resources to provide the service to the subscriber device,
A method of forming an array of microprotrusions, comprising: (a) dispensing onto a mold having an array of cavities corresponding to the negative of the microprotrusions a solution comprising: (i) a polymer, (ii) an active ingredient, and (iii) a solvent, said solution dispensed in an amount sufficient to fill the microprotrusion cavities, said dispensing carried out under an atmosphere comprising a gas which passes more readily through the solution than air; (b) drying the solution to remove the solvent; and (c) demolding from the mold a microprotrusion array. (a) dispensing onto a mold having an array of cavities corresponding to the negative of the microprotrusions a solution comprising: (i) a polymer, (ii) an active ingredient, and (iii) a solvent, said solution dispensed in an amount sufficient to fill the microprotrusion cavities, said dispensing carried out under an atmosphere comprising a gas which passes more readily through the solution than air; (i) a polymer, (ii) an active ingredient, and (iii) a solvent, (b) drying the solution to remove the solvent; and (c) demolding from the mold a microprotrusion array.
A respiratory humidifier for use with a ventilator, consisting of a lower part of housing with a heating element, a top part of housing and an elastomeric middle part, with the middle part having a sealing support to the lower part of housing characterized by the fact that the humidifier is connected on the side area to the ventilator and that the airway runs through the bypass to the humidifier and back again into the ventilator, with the tube connection, to which a ventilation tube with ventilation mask or nasal cannula can be connected, staying on the ventilator and with the middle part being designed as one piece and which has elements for flow guidance and/or flow channels (28, 29, 30, 31, 32) and sealing elements (22, 28a, 32a) for pneumatic sealing.
Arrangement for cooling a support having at least one electric and/or electronic component, comprising a housing having an interior space with - a base plate forming the bottom of the housing, wherein the support is supported on the base plate, and channels carrying a cooling fluid extend between the support and the base plate, channels which are connected to at least one inlet and to at least one outlet opening (207, 208), - a peripheral wall surrounding the support, and - a cover extending above the support and closing the interior space of the housing, characterized in that the interior space is subjected to a gas with a pressure that is greater than the pressure generated by the cooling fluid and exerted on the support. - a base plate forming the bottom of the housing, wherein the support is supported on the base plate, and channels carrying a cooling fluid extend between the support and the base plate, channels which are connected to at least one inlet and to at least one outlet opening (207, 208), - a peripheral wall surrounding the support, and - a cover extending above the support and closing the interior space of the housing,
A pull-out guide for a furniture part able to be pulled out of a furniture carcass, comprising a first guide rail (3; 4) and a second guide rail (4; 5) which with respect to the first guide rail (3; 4) is displaceably mounted in and against a displacement direction (6;7) over a displacement path, wherein at at least one end of the displacement path, the braking of the second guide rail (4;5) is damped by a stop damper (22; 47), arranged on one of the guide rails (3, 4, 5), against which there strikes a counter stop element (20, 21; 46; 66) arranged on the other guide rail (3, 4, 5), characterized in that the stop damper (22; 47) has a transmission part (23; 48) which is movably mounted with respect to the guide rail (3, 4, 5) on which the stop damper (22; 47) is arranged and which upon striking of the counter stop element (20, 21; 46; 66) against the stop damper (22; 47) is moved against a restoring force of at least one elastic damping part (24, 25; 50) of an elastomeric material, and in that from a limit value of the force exerted upon the stop damper (22; 47) by the counter stop element (20, 21; 46; 66), the transmission part (23; 48) or the counter stop element cooperates with an end stop (42, 43; 55).
Method for generating and transmitting electrical energy from an offshore wind farm to a land-based energy supply network, - wherein, in the wind farm, electrical energy is generated in each case from wind power by means of a plurality of wind power installations, - wherein the electrical energy generated within the respective wind power installation is converted to an operating frequency (f) by means of a respective converter and is transformed to a source voltage by means of a respective transformer arranged downstream of the respective converter, - wherein, proceeding from the wind power installations, the electrical energy is fed to an offshore conversion device common to the wind power installations, in which conversion device the electrical energy is rectified, - wherein, proceeding from the conversion device, the electrical energy is fed to an infeed device arranged on land or close to land, from which infeed device the electrical energy is fed into the land-based energy supply network, - wherein the operating frequency (f) is at least 100 Hz, characterized in that the source voltage is at least 80 kV. - wherein, in the wind farm, electrical energy is generated in each case from wind power by means of a plurality of wind power installations, - wherein the electrical energy generated within the respective wind power installation is converted to an operating frequency (f) by means of a respective converter and is transformed to a source voltage by means of a respective transformer arranged downstream of the respective converter, - wherein, proceeding from the wind power installations, the electrical energy is fed to an offshore conversion device common to the wind power installations, in which conversion device the electrical energy is rectified, - wherein, proceeding from the conversion device, the electrical energy is fed to an infeed device arranged on land or close to land, from which infeed device the electrical energy is fed into the land-based energy supply network, - wherein the operating frequency (f) is at least 100 Hz, characterized in that
A method for processing a transport stream (TS, 1) using a media player (MP, 10), the transport stream (TS, 1) being received from a content source outside of the media player, the media player comprising: a conditional access module (DECR, CA); a local storage device (MEM, 19) for storing at least one identifiable pre-stored content (EV-R, S2'); and a presentation module (DISP) to present the processed transport stream to a user; the transport stream (TS, 1) comprising: a plurality of contents (EV, S1, S2, S3) of the first type being programmed events and of the second type being repeatable events; and a piece of metadata (EIT, ECM) comprising encrypted switching information (ID, 24) indicating a substitutable content received in the content stream as being suitable for being substituted by an alternative content identified with an encrypted unique identifier in the switching information; the method comprising: decrypting the encrypted switching information using the conditional access module; if the switching information identifies the pre-stored content as being the alternative content, then: substituting the indicated at least one from the plurality of contents by at least part of the thus identified alternative content; wherein access to said storage device is locked to prevent any reload of the memory with contents chosen by the user. a conditional access module (DECR, CA); a local storage device (MEM, 19) for storing at least one identifiable pre-stored content (EV-R, S2'); and a presentation module (DISP) to present the processed transport stream to a user; a plurality of contents (EV, S1, S2, S3) of the first type being programmed events and of the second type being repeatable events; and a piece of metadata (EIT, ECM) comprising encrypted switching information (ID, 24) indicating a substitutable content received in the content stream as being suitable for being substituted by an alternative content identified with an encrypted unique identifier in the switching information; decrypting the encrypted switching information using the conditional access module; if the switching information identifies the pre-stored content as being the alternative content, then: substituting the indicated at least one from the plurality of contents by at least part of the thus identified alternative content; substituting the indicated at least one from the plurality of contents by at least part of the thus identified alternative content; wherein access to said storage device is locked to prevent any reload of the memory with contents chosen by the user.
A method for storing a parking location by a mobile device with access to a memory, the method comprising: detecting a first motion state (310, 210), which is a driving state; detecting a second motion state (320, 230), which comprises all natural human movements; detecting a third motion state, which is a stopped state where the location remains unchanged for a period of time associated with the transition between the first motion state (310, 210) and the second motion state (320, 230); storing, in the memory, a geographic position associated with the stopped state as the parking location (330, 240). detecting a first motion state (310, 210), which is a driving state; detecting a second motion state (320, 230), which comprises all natural human movements; detecting a third motion state, which is a stopped state where the location remains unchanged for a period of time associated with the transition between the first motion state (310, 210) and the second motion state (320, 230); storing, in the memory, a geographic position associated with the stopped state as the parking location (330, 240).
The method of assembling of a flexible tunnel skylight for conducting the sunlight into a room inside a building, said skylight in prefabrication supply condition consists of an outer element, an inner element and a light-bearing tunnel, wherein said inner element is mounted substantially within the inner partition of the building, said light-bearing tunnel has the length matched during the assembly and said outer element is mounted in the opening of the outer partition of the building, wherein the light-bearing tunnel comprises a rigid tube and a flexible tube integrated with an elastic flexible spiral coil, wherein said flexible tube in prefabrication supply condition is compressed axially and is slid over the rigid tube, and said light-bearing tunnel is engaged with the inner or the outer element in the assembly process at the building wherein increasing the length of the light-bearing tunnel in assembly operations is carried out in the operation of stretching, and subsequential sliding coil after coil of the flexible tube from the rigid tube by pulling of the flexible tube by its free end, characterized in that the flexible tube integrated with the coil in the prefabrication supply condition is slipped substantially wholly on the rigid tube and a resilient pressure of the flexible tube using a spiral to the outer surface of the rigid tube provides protection against the flexible tube accidentally slipping.
An electric power transmission device (1∼6) which wirelessly transmits an electric power in a conducting medium (12, 23, 33), comprising: a power transmitting unit (11∼61) which is configured to wirelessly transmit an electric power; and a power receiving unit (12∼62) which is configured to receive the electric power transmitted from the power transmitting unit (11∼61); and at least one of the power transmitting unit (11∼61) and the power receiving unit (12∼62) includes an impedance adjustment unit (113, 123) which varies the impedance thereof, characterized in that: each of the power transmitting unit (11∼61) and the power receiving unit (12∼62) includes a coil (111, 121) for electric power transmission or reception respectively and an inclusion unit (112, 122) formed of a dielectric material covering the coil (111, 121); and the electric power is transmitted at a resonance frequency of a synthetic impedance of an impedance of the power transmitting unit (11∼61), an impedance of the power receiving unit (12∼62), and an impedance of the conducting medium (12, 23, 33). a power transmitting unit (11∼61) which is configured to wirelessly transmit an electric power; and a power receiving unit (12∼62) which is configured to receive the electric power transmitted from the power transmitting unit (11∼61); and at least one of the power transmitting unit (11∼61) and the power receiving unit (12∼62) includes an impedance adjustment unit (113, 123) which varies the impedance thereof, each of the power transmitting unit (11∼61) and the power receiving unit (12∼62) includes a coil (111, 121) for electric power transmission or reception respectively and an inclusion unit (112, 122) formed of a dielectric material covering the coil (111, 121); and the electric power is transmitted at a resonance frequency of a synthetic impedance of an impedance of the power transmitting unit (11∼61), an impedance of the power receiving unit (12∼62), and an impedance of the conducting medium (12, 23, 33).
A method for producing a transparent and conductive auto-supported silver nanowire film, said method comprising at least the following steps: 1) a first step of preparing a dispersion of silver nanowires in a liquid medium comprising at least one solvent and triphenylphosphine or a derivative thereof, said derivative being chosen among Bis(2,4-dimethoxyphenyl)phenylphosphine, (methylphenyl)diphenylphosphine and 1,2-bis(diphenylphosphino)ethane, 2) a second step of depositing the dispersion obtained in step 1) onto a substrate to obtain an assembly comprising a silver nanowire film supported on said substrate, 3) a third step of drying the assembly obtained in step 2) to obtained a dried assembly, 4) a fourth step of separating the silver nanowire film from the substrate of the dried assembly obtained in step 3) to obtain a transparent and conductive auto-supported silver nanowire film. 1) a first step of preparing a dispersion of silver nanowires in a liquid medium comprising at least one solvent and triphenylphosphine or a derivative thereof, said derivative being chosen among Bis(2,4-dimethoxyphenyl)phenylphosphine, (methylphenyl)diphenylphosphine and 1,2-bis(diphenylphosphino)ethane, 2) a second step of depositing the dispersion obtained in step 1) onto a substrate to obtain an assembly comprising a silver nanowire film supported on said substrate, 3) a third step of drying the assembly obtained in step 2) to obtained a dried assembly, 4) a fourth step of separating the silver nanowire film from the substrate of the dried assembly obtained in step 3) to obtain a transparent and conductive auto-supported silver nanowire film.
A method performed by a terminal (1a-35) in a wireless communication system, the method comprising: receiving a first control message for releasing a radio resource control, RRC, connection, the first control message including first information configuring an RRC inactive state; suspending an acknowledged mode, AM, data radio bearer, DRB, suspending a packet data convergence protocol, PDCP, entity, and setting a count value to an initial value in response to receiving the first control message; receiving, from a base station (1a-05), a second control message for resuming the RRC connection, the second control message requesting a re-establishment of the PDCP entity; identifying, in response to receiving the second control message, a stored first PDCP service data unit, SDU, with a count value already assigned, wherein a successful delivery of a corresponding PDCP protocol data unit, PDU, has not been confirmed by a lower layer for the first PDCP SDU of the suspended AM DRB; associating, starting from the first PDCP SDU, a new count value which was set to the initial value to at least one PDCP SDU; and transmitting, to the base station, the at least one PDCP SDU starting from the first PDCP SDU in ascending order of the associated count value. receiving a first control message for releasing a radio resource control, RRC, connection, the first control message including first information configuring an RRC inactive state; suspending an acknowledged mode, AM, data radio bearer, DRB, suspending a packet data convergence protocol, PDCP, entity, and setting a count value to an initial value in response to receiving the first control message; receiving, from a base station (1a-05), a second control message for resuming the RRC connection, the second control message requesting a re-establishment of the PDCP entity; identifying, in response to receiving the second control message, a stored first PDCP service data unit, SDU, with a count value already assigned, wherein a successful delivery of a corresponding PDCP protocol data unit, PDU, has not been confirmed by a lower layer for the first PDCP SDU of the suspended AM DRB; associating, starting from the first PDCP SDU, a new count value which was set to the initial value to at least one PDCP SDU; and transmitting, to the base station, the at least one PDCP SDU starting from the first PDCP SDU in ascending order of the associated count value.
A system for producing carbon dioxide from a process gas, said process gas comprising a hydrocarbon, said system comprising: a combustion subsystem configured to combust said hydrocarbon and output a combustion effluent, wherein said combustion effluent comprises carbon dioxide and water; a first separation subsystem configured to separate, by a physical adsorption process, a first quantity of said carbon dioxide from said combustion effluent; a second separation subsystem configured to separate, by chemisorption, a second quantity of said carbon dioxide from said combustion effluent; and a cooling subsystem interposed between said combustion subsystem and said first separation subsystem, the cooling subsystem being configured to separate water from the effluent; wherein said second separation subsystem is in series with said first separation subsystem and downstream of said first separation subsystem. a combustion subsystem configured to combust said hydrocarbon and output a combustion effluent, wherein said combustion effluent comprises carbon dioxide and water; a first separation subsystem configured to separate, by a physical adsorption process, a first quantity of said carbon dioxide from said combustion effluent; a second separation subsystem configured to separate, by chemisorption, a second quantity of said carbon dioxide from said combustion effluent; and a cooling subsystem interposed between said combustion subsystem and said first separation subsystem, the cooling subsystem being configured to separate water from the effluent; wherein said second separation subsystem is in series with said first separation subsystem and downstream of said first separation subsystem.
Method for manufacturing light alloy castings by hot chamber injection die casting with disposable cores (71, 72) placed in cavities of a metal mold, comprising a first phase of filling said cavities of said mold around said cores (71, 72) in which the parameters of pressure and speed of the molten alloy are controlled at levels tolerable by the cores (71, 72) until the cavities around the latter are filled by the molten alloy, and a second phase of filling the mold, thereafter, in which said pressure and speed parameters are controlled at levels suitable for completing and compacting the casting, characterized in that in said first filling phase the parameters of pressure and speed of the molten alloy are respectively controlled at values between 1 to 10 bar and 0,3 to 3 m/s, in said second filling phase the parameters of pressure and speed of the molten alloy are respectively controlled at values between 10 to 300 bar and 3 to 15 m/s, in that the molten alloy is injected in the mold at a point close to the centroid of the cores (71, 72), and in that the alloy is heated substantially along the whole path between a pump that pressurizes it and the entrance to the cavities around the cores (71, 72) so as to keep it at a temperature comprised between its upper melting temperature and a temperature at which the solid fraction content of the molten alloy is not greater than 25% of the liquid fraction content.
A method of communicating data through a bus, the method comprising: authenticating a surgical component utilizing a microchip communicatively-coupled through a single wire bus to a microprocessor capable of demultiplexing transmit and receive lines using a ground wire of the microchip; and controlling a receive mode and a transmit mode over the single wire bus, wherein in order to transmit over the single wire bus, the ground wire is turned off and the microprocessor selects the transmit mode, and in order to receive over the single wire bus, the ground wire is turned on and the microprocessor selects the receive mode. authenticating a surgical component utilizing a microchip communicatively-coupled through a single wire bus to a microprocessor capable of demultiplexing transmit and receive lines using a ground wire of the microchip; and controlling a receive mode and a transmit mode over the single wire bus, wherein in order to transmit over the single wire bus, the ground wire is turned off and the microprocessor selects the transmit mode, and in order to receive over the single wire bus, the ground wire is turned on and the microprocessor selects the receive mode.