mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for generating a temperature-controlled, cold gas stream, comprising a storage tank for storing cryogenically liquefied gas and a withdrawal line , connected to the storage tank , for withdrawing liquefied gas from the storage tank and comprising an evaporator unit integrated in the withdrawal line , wherein branching off of the withdrawal line , downstream of the storage tank and upstream of the evaporator unit , is a liquid feed line which leads into the withdrawal line downstream of the evaporator unit at an introduction device , wherein the introduction device is equipped with a measuring device for recording the temperature in the withdrawal line downstream of the evaporator unit and with a control valve , operatively connected to the measuring device , for controlling the introduction of liquefied gas into the withdrawal line , characterized in that the evaporator unit comprises a heat exchanger with a heat-exchanger surface for causing the liquefied gas to come into indirect thermal contact with a heat transfer fluid, an air evaporator arranged parallel to the heat exchanger , and a switching arrangement for the controlled switching on and off of the heat exchanger and/or air evaporator . wherein branching off of the withdrawal line , downstream of the storage tank and upstream of the evaporator unit , is a liquid feed line which leads into the withdrawal line downstream of the evaporator unit at an introduction device , wherein the introduction device is equipped with a measuring device for recording the temperature in the withdrawal line downstream of the evaporator unit and with a control valve , operatively connected to the measuring device , for controlling the introduction of liquefied gas into the withdrawal line , characterized in that the evaporator unit comprises a heat exchanger with a heat-exchanger surface for causing the liquefied gas to come into indirect thermal contact with a heat transfer fluid, an air evaporator arranged parallel to the heat exchanger , and a switching arrangement for the controlled switching on and off of the heat exchanger and/or air evaporator .
A method for sending control information, comprising: determining (S201), by a network device, a plurality of resource element groups corresponding to a control channel, wherein the control channel occupies multiple symbols, each resource element group of the plurality of resource element groups corresponding to the control channel comprises a first resource element for carrying downlink control information and a second resource element for carrying a demodulation reference signal, DMRS, and the DMRS is used to demodulate the downlink control information carried by the resource element group; and sending (S202), by the network device, the downlink control information by using the control channel and sending the DMRS, wherein for each resource element group of the plurality of resource element groups corresponding to the control channel, resource elements comprised in the resource element group are distributed in all symbols occupied by the control channel; and wherein for each resource element group of the plurality of resource element groups corresponding to the control channel, frequency domain resources occupied by the resource element group are the same in all symbols occupied by the control channel. determining (S201), by a network device, a plurality of resource element groups corresponding to a control channel, wherein the control channel occupies multiple symbols, each resource element group of the plurality of resource element groups corresponding to the control channel comprises a first resource element for carrying downlink control information and a second resource element for carrying a demodulation reference signal, DMRS, and the DMRS is used to demodulate the downlink control information carried by the resource element group; and sending (S202), by the network device, the downlink control information by using the control channel and sending the DMRS, wherein for each resource element group of the plurality of resource element groups corresponding to the control channel, resource elements comprised in the resource element group are distributed in all symbols occupied by the control channel; and wherein for each resource element group of the plurality of resource element groups corresponding to the control channel, frequency domain resources occupied by the resource element group are the same in all symbols occupied by the control channel.
An apparatus for assessing a filter medium of a test article, comprising: a test chamber comprising an introduction opening on a surface of the test chamber , an inlet , and an outlet ; an introduction system configured to introduce a test pollutant through the introduction opening into the test chamber such that the test pollutant is entrained in air flowing from the inlet to the outlet ; a support configured to retain the test article, wherein the support defines a passageway downstream of a location of the test article such that air flowing from the inlet to the outlet passes through the filter medium prior to entering the passageway; an air flow apparatus configured to draw air from within the test chamber through the passageway and the outlet , and also configured to introduce air through the outlet and the passageway into the test chamber a test pollutant collector positioned in an airflow path within the passageway such that air drawn from the test chamber through the passageway contacts the test pollutant collector and a respiratory conditions simulation system configured to simulate an aspect of respiration, or an external environment simulation system configured to simulate an aspect of an external environment, or both the respiratory conditions simulation system and the external environment simulation system . a test chamber comprising an introduction opening on a surface of the test chamber , an inlet , and an outlet ; an introduction system configured to introduce a test pollutant through the introduction opening into the test chamber such that the test pollutant is entrained in air flowing from the inlet to the outlet ; a support configured to retain the test article, wherein the support defines a passageway downstream of a location of the test article such that air flowing from the inlet to the outlet passes through the filter medium prior to entering the passageway; an air flow apparatus configured to draw air from within the test chamber through the passageway and the outlet , and also configured to introduce air through the outlet and the passageway into the test chamber a test pollutant collector positioned in an airflow path within the passageway such that air drawn from the test chamber through the passageway contacts the test pollutant collector and a respiratory conditions simulation system configured to simulate an aspect of respiration, or an external environment simulation system configured to simulate an aspect of an external environment, or both the respiratory conditions simulation system and the external environment simulation system .
A cover , comprising: three flexible hinges disposed substantially parallel to an edge of the cover; a first and second cover section connected by a first hinge of the three flexible hinges ; a third cover section connected to the second cover section by a second hinge of the three flexible hinges ; and a connector configured to attach the cover to a computing device , the connector connected to the first cover section by a third hinge of the three flexible hinges , wherein the first, second, and third hinges , and the three first, second, and third cover sections , are configured such that the cover forms a contour to accommodate an object located on a back side of the computing device , wherein the cover includes electrical circuitry and a sensor configured to determine a presence or absence of the object within the cover and to send information relating to the presence or absence of the object to the computing device . three flexible hinges disposed substantially parallel to an edge of the cover; a first and second cover section connected by a first hinge of the three flexible hinges ; a third cover section connected to the second cover section by a second hinge of the three flexible hinges ; and a connector configured to attach the cover to a computing device , the connector connected to the first cover section by a third hinge of the three flexible hinges , wherein the first, second, and third hinges , and the three first, second, and third cover sections , are configured such that the cover forms a contour to accommodate an object located on a back side of the computing device , wherein the cover includes electrical circuitry and a sensor configured to determine a presence or absence of the object within the cover and to send information relating to the presence or absence of the object to the computing device .
A signaling system comprising: a user device; and a personal computing device separate from the user device and configured for informing a user about the user device based on information received by the personal computing device from a remote server; wherein the user device has an indicator adapted to alert the user to use the personal computing device to get information relating to the user device. a user device; and a personal computing device separate from the user device and configured for informing a user about the user device based on information received by the personal computing device from a remote server; wherein the user device has an indicator adapted to alert the user to use the personal computing device to get information relating to the user device.
A system comprising: a support structure configured to support a body , wherein the body is rotatable with respect to the support structure; the body including: a first runner and a second runner that are intertwined and helically wound around each other in a double helix that forms a toroidal shape, the toroidal shape having a center, wherein the toroidal shape is bisected by a plane that includes the center and divides the toroidal shape into two similar circular halves; and a first conductive wire spirally wound around the first runner ; and a second conductive wire spirally wound around the second runner ; and one or more power sources configured to provide one or more alternating currents to the first conductive wire, and configured to provide power to rotate the body with respect to the support structure at more than one revolution per second, wherein the body is rotatable around a rotational axis, wherein the rotational axis is positioned within the plane, wherein the rotational axis intersects the center, wherein the body is configured to accommodate an organism near the center, and wherein the system is configured to generate an electromagnetic effect responsive to the one or more alternating current being provided. a support structure configured to support a body , wherein the body is rotatable with respect to the support structure; the body including: a first runner and a second runner that are intertwined and helically wound around each other in a double helix that forms a toroidal shape, the toroidal shape having a center, wherein the toroidal shape is bisected by a plane that includes the center and divides the toroidal shape into two similar circular halves; and a first conductive wire spirally wound around the first runner ; and a second conductive wire spirally wound around the second runner ; and one or more power sources configured to provide one or more alternating currents to the first conductive wire, and configured to provide power to rotate the body with respect to the support structure at more than one revolution per second, wherein the body is rotatable around a rotational axis, wherein the rotational axis is positioned within the plane, wherein the rotational axis intersects the center, wherein the body is configured to accommodate an organism near the center, and wherein the system is configured to generate an electromagnetic effect responsive to the one or more alternating current being provided.
A method for assigning computational tasks in a vehicle context, the method comprising: receiving a computational task; determining a processing resource requirement of the computational task; estimating a task duration of the computational task; determining available processing resources of a first temporal vehicular virtual server, TVVS, at a first timestamp, the first TVVS comprising first participant vehicles proximally located relative to one another on a road segment at the first timestamp; determining vehicle movement data of the first participant vehicles; estimating available processing resources of the first TVVS at a second timestamp based on the vehicle movement data of the first participant vehicles, the second timestamp being subsequent to the first timestamp and based on the first timestamp and the task duration of the computational task; determining to execute the computational task on the first TVVS based on the processing resource requirement of the computation task, the available processing resources of the first TVVS at the first timestamp, and the estimated available processing resources of the first TVVS at the second timestamp; and responsive to determining to execute the computational task on the first TVVS, assigning the computational task to the first TVVS to perform an execution of the computational task. receiving a computational task; determining a processing resource requirement of the computational task; estimating a task duration of the computational task; determining available processing resources of a first temporal vehicular virtual server, TVVS, at a first timestamp, the first TVVS comprising first participant vehicles proximally located relative to one another on a road segment at the first timestamp; determining vehicle movement data of the first participant vehicles; estimating available processing resources of the first TVVS at a second timestamp based on the vehicle movement data of the first participant vehicles, the second timestamp being subsequent to the first timestamp and based on the first timestamp and the task duration of the computational task; determining to execute the computational task on the first TVVS based on the processing resource requirement of the computation task, the available processing resources of the first TVVS at the first timestamp, and the estimated available processing resources of the first TVVS at the second timestamp; and responsive to determining to execute the computational task on the first TVVS, assigning the computational task to the first TVVS to perform an execution of the computational task.
A data processing device configured to process a stream for transmission to a receiving device, the data processing device comprising: a split unit configured to split an input stream of transport stream, TS, packets into a plurality of split streams of TS packets, said plurality of split streams comprising a split stream per transmission channel for each of a plurality of transmission channels; and a generation unit (23 1 , 23 2 , ..., 23 N ) configured to generate, per transmission channel, a channel stream including the split stream and identification information unique for the input stream split into the split streams, characterized in that the generation unit (23 1 , 23 2 , ..., 23 N ) is configured to generate for each of said channel streams Physical Layer, PL, frames of DVB-S2 each having an extension PL header containing channel bonding signaling, said channel bonding signaling comprising said identification information and information about a location of the transmission frequency band of the other channel stream(s) relative to the transmission frequency band of said channel stream. a split unit configured to split an input stream of transport stream, TS, packets into a plurality of split streams of TS packets, said plurality of split streams comprising a split stream per transmission channel for each of a plurality of transmission channels; and a generation unit (23 1 , 23 2 , ..., 23 N ) configured to generate, per transmission channel, a channel stream including the split stream and identification information unique for the input stream split into the split streams, characterized in that the generation unit (23 1 , 23 2 , ..., 23 N ) is configured to generate for each of said channel streams Physical Layer, PL, frames of DVB-S2 each having an extension PL header containing channel bonding signaling, said channel bonding signaling comprising said identification information and information about a location of the transmission frequency band of the other channel stream(s) relative to the transmission frequency band of said channel stream.
A calibration device for precise calibration of a microwave radiometer , wherein the calibration device has a housing that partially encompasses a calibration chamber , wherein the housing comprises a microwave transparent portion that is provided at a wall of the housing , wherein the microwave transparent portion defines an entry for microwaves into the calibration chamber , wherein the microwave transparent portion is made by a microwave transparent material that is insulating, wherein an absorber at a defined temperature is provided within the calibration chamber , wherein an entry interface between the microwave transparent portion and the calibration chamber is provided, which ensures a substantially reflection free entry of the microwaves into the calibration chamber , wherein the housing has a structure on at least one internal side of the housing , and wherein the internal side delimits the calibration chamber , characterized in that the substantially reflection free entry of the microwaves corresponds to capturing at least 3 orders of reflection of the microwaves by the absorber located in the calibration chamber such that all direct and reflected paths up to that third order are terminated on the absorber , wherein a remainder of the housing is made of a metal or comprises a reflective and non-absorbing material coated on an inner side of the housing .
A method for manufacturing an iron core product , the method comprising: providing an iron core body which includes a magnet insertion hole (16, 16A 1 , 16A 2 ) in which a permanent magnet is disposed; injecting a molten resin (M) into the magnet insertion hole (16, 16A 1 , 16A 2 ) of the iron core body at a first pressure (P1); and setting a pressure applied to the molten resin (M) to a second pressure (P2) lower than the first pressure (P1) after the molten resin (M) is injected into the magnet insertion hole (16, 16A 1 , 16A 2 ) and before the molten resin (M) is cured. providing an iron core body which includes a magnet insertion hole (16, 16A 1 , 16A 2 ) in which a permanent magnet is disposed; injecting a molten resin (M) into the magnet insertion hole (16, 16A 1 , 16A 2 ) of the iron core body at a first pressure (P1); and setting a pressure applied to the molten resin (M) to a second pressure (P2) lower than the first pressure (P1) after the molten resin (M) is injected into the magnet insertion hole (16, 16A 1 , 16A 2 ) and before the molten resin (M) is cured.
Rotary switch comprising: - a rotor supporting at least one electro-conductive rotary contact bridge ; - a plurality of stationary contacts ; - a housing accommodating the stationary contacts and the rotor, the rotor being rotatable within the housing between a plurality of positions, in which the rotary contact bridge contacts different combinations of stationary contacts; - the housing comprising a plurality of sides extending between a top side and a bottom side, at least two of these sides being provided with access openings , said sides making an angle with each other, the switch being a multideck switch, the housing comprising a stack of decks , wherein at least one of the decks accommodates two stationary contacts at each side of the deck, characterised in that each access opening provides access to an associated one of said plurality of stationary contacts; and further in that the housing comprises recesses along corner edges between two adjacent sides, said access openings being provided in said recesses. - a rotor supporting at least one electro-conductive rotary contact bridge ; - a plurality of stationary contacts ; - a housing accommodating the stationary contacts and the rotor, the rotor being rotatable within the housing between a plurality of positions, in which the rotary contact bridge contacts different combinations of stationary contacts; - the housing comprising a plurality of sides extending between a top side and a bottom side, at least two of these sides being provided with access openings , said sides making an angle with each other, the switch being a multideck switch, the housing comprising a stack of decks , wherein at least one of the decks accommodates two stationary contacts at each side of the deck, characterised in that each access opening provides access to an associated one of said plurality of stationary contacts; and further in that the housing comprises recesses along corner edges between two adjacent sides, said access openings being provided in said recesses.
A method of authenticating a certificate , wherein authenticating said certificate comprises - reading a form-control number that has been printed onto said certificate ; - obtaining, from a backend server , authorization to issue an adhesive sticker , using said form-control number , to be placed on said certificate , said adhesive sticker having a chip , a memory and a transponder integrated therein; - storing particular information that is printed on said certificate in said memory ; - obtaining, from said chip , information identifying said chip , And characterized by - calculating a first hash based on said information identifying said chip , said particular information on said certificate , and said form-control number ; - storing said first hash in a block chain , and placing said sticker on said certificate . - reading a form-control number that has been printed onto said certificate ; - obtaining, from a backend server , authorization to issue an adhesive sticker , using said form-control number , to be placed on said certificate , said adhesive sticker having a chip , a memory and a transponder integrated therein; - storing particular information that is printed on said certificate in said memory ; - obtaining, from said chip , information identifying said chip , - calculating a first hash based on said information identifying said chip , said particular information on said certificate , and said form-control number ; - storing said first hash in a block chain , and placing said sticker on said certificate .