mhurhangee/patent-ind-claim-en huggingface dataset:
A centrifugal separator for separation of particles from a gas stream, comprising a frame comprising a first frame portion , a gas inlet and a gas outlet arranged in the first frame portion , a centrifugal rotor arranged to be rotatable in the frame around a rotational axis (x) and comprising a separating member , a central gas chamber in the rotor communicating with a radially inner portion of the separating member and the gas outlet , a space surrounding the rotor and communicating with a radially outer portion of the separation member and the gas inlet , drive means providing rotation of the centrifugal rotor for separating particles from the gas stream being conducted from the space surrounding the rotor , through the separation member and towards the central gas chamber , characterized in that a ring-formed sealing arranged between and in sealingly contact with the first frame portion and the centrifugal rotor, wherein the ring-formed sealing has an inner surface facing the space and an outer surface facing the outlet and runs free in a groove in either the rotor or in the first frame portion with a small clearance, and wherein the groove or the sealing has a cross section that enables the pressure in the space surrounding the rotor to act on said inner surface and partly on said outer surface.
Centrifugal pendulum having a pendulum flange which can be rotated about an axis of rotation and a plurality of pendulum masses which are distributed over the circumference and which can be pivoted with respect to the pendulum flange to a limited degree, wherein at least one pendulum mass has a radial force element via which a radially outwardly acting radial force (F R ) can be applied to a centre of the pendulum mass as considered in the circumferential direction , characterized in that the radial force element has a guide contour for guiding a central connecting element of the pendulum mass with the pendulum flange , and the guide contour is formed in such a way that a predeterminable profile of the radial force (F R ) is achieved in dependence on the deflection angle (φ) of the connecting element.
A method performed by a terminal in a wireless communication system, the method comprising: receiving , from an access and mobility management function, AMF, a user equipment, UE, configuration update message including mapping information received from a policy control function, PCF, in case that a UE policy update is triggered by the PCF, the mapping information for mapping between at least one vehicle to everything, V2X, service type and at least one radio access technology, RAT type; selecting at least one RAT type corresponding to a V2X message to be transmitted, based on the mapping information; and transmitting the V2X message using the selected at least one RAT type, wherein the selecting the at least one RAT type is performed by a V2X layer of the terminal. receiving , from an access and mobility management function, AMF, a user equipment, UE, configuration update message including mapping information received from a policy control function, PCF, in case that a UE policy update is triggered by the PCF, the mapping information for mapping between at least one vehicle to everything, V2X, service type and at least one radio access technology, RAT type; selecting at least one RAT type corresponding to a V2X message to be transmitted, based on the mapping information; and transmitting the V2X message using the selected at least one RAT type, wherein the selecting the at least one RAT type is performed by a V2X layer of the terminal.
A method for producing tetrafluoromethane, the method comprising: introducing fluorine gas to a raw material liquid containing a fluorinated hydrocarbon represented by chemical formula C p H q Cl r F s (in the chemical formula, p is an integer of 3 or more and 18 or less, q is an integer of 0 or more and 3 or less, r is an integer of 0 or more and 9 or less, and s is an integer of 5 or more and 30 or less) and having no carbon-carbon unsaturated bond and concurrently introducing a reaction inducer in a gas state, wherein the reaction inducer is reacted with the fluorine gas to induce a reaction of forming tetrafluoromethane from the fluorinated hydrocarbon and the fluorine gas and is at least one reaction inducer selected from a hydrocarbon gaseous at normal temperature and pressure and hydrogen gas. introducing fluorine gas to a raw material liquid containing a fluorinated hydrocarbon represented by chemical formula C p H q Cl r F s (in the chemical formula, p is an integer of 3 or more and 18 or less, q is an integer of 0 or more and 3 or less, r is an integer of 0 or more and 9 or less, and s is an integer of 5 or more and 30 or less) and having no carbon-carbon unsaturated bond and concurrently introducing a reaction inducer in a gas state, wherein the reaction inducer is reacted with the fluorine gas to induce a reaction of forming tetrafluoromethane from the fluorinated hydrocarbon and the fluorine gas and is at least one reaction inducer selected from a hydrocarbon gaseous at normal temperature and pressure and hydrogen gas.
Partial high beam module for a motor vehicle headlight , with a light source field comprising n adjacent, successive pairs of light sources (16.1, ..., 16.n), whereby n is greater than or equal to 3 and whereby each of the light sources is designed to radiate light in a light bundle comprising a primary light radiation direction , with a primary optic field comprising n primary optic sub-areas (22.1, ..., 22.n), whereby each primary optic sub-area comprises exactly one collecting lens (38.1, ..., 38.n) comprising a light intake surface and a light output surface, convexly shaped in two spatial directions, whereby each collecting lens is assigned exactly one light source and each light source is assigned exactly one collecting lens such that the collecting lens lies in the light bundle emitted by the assigned light source and divides the primary radiation direction of this light source, and with a secondary optic unit designed and arranged to project a light distribution in a space before the headlight that is based on the light output surfaces of the primary optic field when the light sources are activated and comprising multiple adjacent, striped light fields, whereby each projected light field is generated by light from one of the light sources and formation of the light output surface of the collecting lens illuminated by this light source, whereby a primary optic sub-area (22.n) the furthest out to the side, in addition to its collecting lens (38.n), comprises an additional optic element positioned next to its collecting lens, characterised in that the optic element is designed to direct light cast from the light source assigned to this primary optic sub-area (22.n), propagated past this collecting lens, onto the secondary optic unit, whereby the intensity of this light is minor compared to that of the light redirected by the collecting lens, and becomes less intense with distance, so that, for the outermost primary optic sub-area, there is a light field that is sharply demarcated from the closest adjacent light field of the adjacent primary optic sub-area and that is not outwardly sharply demarcated, and rather gradually fades into the non-illuminated area even further outward.
Lock cylinder comprising a housing , having a housing cavity , and a cylinder core which is rotatably mounted in the housing cavity and has a key channel for the insertion of a matching key , wherein core pin bores open into the key channel which are aligned with housing pin bores in a locking position and in which core pins are mounted which can be brought into a release position by coding depressions cut into the key on the front and which have a locking portion and a tracing portion protruding eccentrically therefrom, wherein the tracing portion has a rounded outline and protrudes into the key channel through an opening eccentrically arranged in the bottom of the core pin bore .
An aerosol generation device, comprising: a storage unit configured to store an aerosol source or an aerosol base material configured to retain the aerosol source; a load configured to generate heat upon receipt of power supply from a power source and to atomize the aerosol source, and in which a value of an electric resistance changes in response to a temperature; characterized by : a sensor configured to detect the value of the electric resistance of the load or an electric value related to the electric resistance; and a control unit configured to monitor a cooling process of the load after a temperature of the load increases up to a temperature in which the aerosol source can be atomized or higher, based on a time-series change in a value detected by the sensor , in a manner that retains a correlation between the time-series change in the value detected by the sensor and a decrease in the temperature of the load wherein the control unit is configured to determine, based on the cooling process, whether depletion of the aerosol source in the storage unit or the aerosol base material has occurred. a storage unit configured to store an aerosol source or an aerosol base material configured to retain the aerosol source; a load configured to generate heat upon receipt of power supply from a power source and to atomize the aerosol source, and in which a value of an electric resistance changes in response to a temperature; characterized by : a sensor configured to detect the value of the electric resistance of the load or an electric value related to the electric resistance; and a control unit configured to monitor a cooling process of the load after a temperature of the load increases up to a temperature in which the aerosol source can be atomized or higher, based on a time-series change in a value detected by the sensor , in a manner that retains a correlation between the time-series change in the value detected by the sensor and a decrease in the temperature of the load wherein the control unit is configured to determine, based on the cooling process, whether depletion of the aerosol source in the storage unit or the aerosol base material has occurred. a sensor configured to detect the value of the electric resistance of the load or an electric value related to the electric resistance; and a control unit configured to monitor a cooling process of the load after a temperature of the load increases up to a temperature in which the aerosol source can be atomized or higher, based on a time-series change in a value detected by the sensor , in a manner that retains a correlation between the time-series change in the value detected by the sensor and a decrease in the temperature of the load wherein the control unit is configured to determine, based on the cooling process, whether depletion of the aerosol source in the storage unit or the aerosol base material has occurred.
A streamer cleaning apparatus comprising: a housing comprising an inlet configured to receive a streamer and an outlet configured to dispatch the streamer, wherein the housing further comprises a front streamer guide for guiding the streamer through the housing; scraper lamellas coupled to the housing, wherein the scraper lamellas are positioned along an inner diameter of the housing and arranged to contact the streamer as it passes through the housing; and spring-loaded arms coupled to the scaper lamellas for biasing the scraper lamellas against the streamer. a housing comprising an inlet configured to receive a streamer and an outlet configured to dispatch the streamer, wherein the housing further comprises a front streamer guide for guiding the streamer through the housing; scraper lamellas coupled to the housing, wherein the scraper lamellas are positioned along an inner diameter of the housing and arranged to contact the streamer as it passes through the housing; and spring-loaded arms coupled to the scaper lamellas for biasing the scraper lamellas against the streamer.
A domain name system DNS server allocation method, wherein the method comprises: receiving , by a session management function SMF, a session establishment request message sent by a user equipment UE, wherein the request message comprises a name of a data network to be accessed by the UE; obtaining (302-305), by the SMF, an IP address of a first DNS server based on the name of the data network and a geographical location of the UE; and sending , by the SMF, a session establishment response message to the UE, wherein the response message comprises the IP address of the first DNS server; wherein the data network is a local data network, the first DNS server is located in the local data network, and the local network comprises a multi-access edge computing, MEC, server and an MEC application service. receiving , by a session management function SMF, a session establishment request message sent by a user equipment UE, wherein the request message comprises a name of a data network to be accessed by the UE; obtaining (302-305), by the SMF, an IP address of a first DNS server based on the name of the data network and a geographical location of the UE; and sending , by the SMF, a session establishment response message to the UE, wherein the response message comprises the IP address of the first DNS server; wherein the data network is a local data network, the first DNS server is located in the local data network, and the local network comprises a multi-access edge computing, MEC, server and an MEC application service.
A method comprising: capturing , in a fake base station, at least one wireless message containing an encrypted subscriber identity of a fifth generation mobile phone system transmitted from a mobile subscriber apparatus interoperable both with the fifth generation mobile phone system and a fourth generation mobile phone system; in response to the captured at least one wireless message of the fifth generation mobile phone system, transmitting , by the fake base station, a reject message of the fifth generation mobile phone system for the mobile subscriber apparatus; after transmitting the reject message, capturing , in the fake base station, at least one wireless message of the fourth generation mobile phone system transmitted from the mobile subscriber apparatus; detecting , by the fake base station, an unencrypted subscriber identity from the at least one captured wireless message of the fourth generation mobile phone system; after detecting the unencrypted subscriber identity, transmitting , by the fake base station, a disconnect message of the fourth generation mobile phone system for the mobile subscriber apparatus; keeping the mobile subscriber apparatus connected to a fifth generation fake cell implemented by the fake base station for a maximum allowed time before transmitting the reject message; and generating a distance estimate related to the mobile subscriber apparatus based on radio parameters of the fourth generation mobile phone system and the fifth generation mobile phone system. capturing , in a fake base station, at least one wireless message containing an encrypted subscriber identity of a fifth generation mobile phone system transmitted from a mobile subscriber apparatus interoperable both with the fifth generation mobile phone system and a fourth generation mobile phone system; in response to the captured at least one wireless message of the fifth generation mobile phone system, transmitting , by the fake base station, a reject message of the fifth generation mobile phone system for the mobile subscriber apparatus; after transmitting the reject message, capturing , in the fake base station, at least one wireless message of the fourth generation mobile phone system transmitted from the mobile subscriber apparatus; detecting , by the fake base station, an unencrypted subscriber identity from the at least one captured wireless message of the fourth generation mobile phone system; after detecting the unencrypted subscriber identity, transmitting , by the fake base station, a disconnect message of the fourth generation mobile phone system for the mobile subscriber apparatus; keeping the mobile subscriber apparatus connected to a fifth generation fake cell implemented by the fake base station for a maximum allowed time before transmitting the reject message; and generating a distance estimate related to the mobile subscriber apparatus based on radio parameters of the fourth generation mobile phone system and the fifth generation mobile phone system.
A process for reducing the number of viable microorganisms present on the surface of a meat item, comprising the steps of: a) placing an untreated meat item in a chamber wherein the chamber atmosphere has a temperature T 1 between -5 and 20°C; b) reducing the temperature of the chamber atmosphere at a selected cooling rate of between 0.1 and 10°Cs -1 to a temperature T 2 below -20 °C; c) maintaining the chamber atmosphere at temperature T 2 for a selected period of time; d) allowing the meat item to warm, at a selected warming rate of less than 20 °Cs -1 , by adjusting the temperature of the chamber atmosphere to a temperature T 3 above - 20 °C; wherein the temperature of the meat item does not fall below -2 °C and the meat item remains unfrozen. a) placing an untreated meat item in a chamber wherein the chamber atmosphere has a temperature T 1 between -5 and 20°C; b) reducing the temperature of the chamber atmosphere at a selected cooling rate of between 0.1 and 10°Cs -1 to a temperature T 2 below -20 °C; c) maintaining the chamber atmosphere at temperature T 2 for a selected period of time; d) allowing the meat item to warm, at a selected warming rate of less than 20 °Cs -1 , by adjusting the temperature of the chamber atmosphere to a temperature T 3 above - 20 °C;
An exercise apparatus comprising: a placement part on which both legs of a user are placed; a main body part which has an arc part and rotationally moves over a predetermined range by alternate movement of the legs of the user placed on the placement part; and restraining means (E1, E2) which restrains movement of the main body part within a horizontal plane, the restraining means having a recessed part formed by removing a portion of the arc part of the main body part, and a base part to be placed on a floor surface, the projection part being fixed on an upper surface of the base part, wherein a surface of the arc part is configured to contact to the upper surface of the base part when the main body is rotationally moved, characterized in that a projection part is fitted into the recessed part, wherein a length of the projection part is less than a length of the recessed part and the projection part is covered by the recessed part, and the depth of the recessed part is set to be substantially the same as a height of the projection part. a placement part on which both legs of a user are placed; a main body part which has an arc part and rotationally moves over a predetermined range by alternate movement of the legs of the user placed on the placement part; and restraining means (E1, E2) which restrains movement of the main body part within a horizontal plane, the restraining means having a recessed part formed by removing a portion of the arc part of the main body part, and a base part to be placed on a floor surface, the projection part being fixed on an upper surface of the base part, wherein a surface of the arc part is configured to contact to the upper surface of the base part when the main body is rotationally moved, characterized in that a projection part is fitted into the recessed part, wherein a length of the projection part is less than a length of the recessed part and the projection part is covered by the recessed part, and the depth of the recessed part is set to be substantially the same as a height of the projection part.
A method for manufacturing a fiber reinforced plastic molded body , the method comprising: performing thermocompression molding, by using a molding die , on a molding precursor which is obtained by arranging a prepreg including a thermosetting resin and a fiber around a core comprising a wax and a barrier layer formed around the wax , wherein, in the thermocompression molding, at least a part of the wax is melted and the melted product thereof is suppressed by the barrier layer from leaking outside the prepreg .
Method for securing the time synchronization of an Ethernet on-board network of a motor vehicle , in which the following steps are carried out: - determining a delay time of a first signal on a first connecting path between a first control unit of the Ethernet on-board network and a second control unit of the Ethernet on-board network ; - determining a maximum speed of the first connecting path on the basis of the delay time ; and - determining a type of a transmission medium of the first connecting path on the basis of the maximum speed , characterized in that the determination of the delay time of a first signal and the determination of the maximum speed of the first connecting path and the determination of the type of a transmission medium of the first connecting path result in an entropy source being formed that is used to ascertain at least one dynamic key for the connecting path that is used to encrypt a time synchronization message for the connecting path . - determining a delay time of a first signal on a first connecting path between a first control unit of the Ethernet on-board network and a second control unit of the Ethernet on-board network ; - determining a maximum speed of the first connecting path on the basis of the delay time ; and - determining a type of a transmission medium of the first connecting path on the basis of the maximum speed ,