mhurhangee/patent-ind-claim-en huggingface dataset:
A method for application information risk management on a network device, the method comprising: receiving target application information that a user selects and requests for validation by using a user device (S31), wherein the target application information comprises an SMS message; validating the target application information to determine corresponding risk information (S32); transmitting the rogue base station prompt information to the user device based on the risk information (S33); characterized in that , if the corresponding risk information indicates that the SMS message comprises false information sent by a rogue based station, the method further comprises: sending rogue base station prompt information to other user devices near the user device, wherein a distance between each other user device and the user device is less than or equal to a predetermined device distance threshold. receiving target application information that a user selects and requests for validation by using a user device (S31), wherein the target application information comprises an SMS message; validating the target application information to determine corresponding risk information (S32); transmitting the rogue base station prompt information to the user device based on the risk information (S33); characterized in that , if the corresponding risk information indicates that the SMS message comprises false information sent by a rogue based station, the method further comprises: sending rogue base station prompt information to other user devices near the user device, wherein a distance between each other user device and the user device is less than or equal to a predetermined device distance threshold.
A sulfur-carbon composite, comprising micro-porous carbon nanosheets and sulfur, wherein sulfur is loaded into the micropores, wherein the mircopores have a pore size smaller than 1 nm, of the micro-porous carbon nanosheets, wherein the pore volumes of micropores in the micro-porous carbon nanosheets as measured by the method according to the description are no less than 75%, preferably no less than 80%, more preferably no less than 85% based on the total pore volumes of micropores and of mesopores, wherein the mesopores have a pore size bigger than 1 nm, wherein the micro-porous carbon nanosheets are doped with N, or P, or B, or any combination of N, P and B.
Hydraulic damper comprising a damper piston sliding in an inner tube , moving axially during compression in a direction called front (AV) turned towards a damper bottom , this damper piston receiving towards the front a rod comprising at its end a stop piston entering into an end-of-travel stop tube having holes which brake the fluid leaving this stop tube , characterized in that it comprises a plug a slide fitted between the abutment tube and the inner tube by closing a front chamber having a leakage flow, this slide being held axially between a front return spring arranged in the front chamber , bearing on the shock absorber base to return it into a rear position, and a rear return spring bearing on the shock absorber piston to return it into a front position, the slide comprising a main bearing surface on the stop tube closes in the rear position of the rear bores of the tube and in the front position of the front bores of the tube .
A multi-disc clutch assembly for a motor vehicle drive train, having a pressure plate , a pressing plate that is axially movable relative to the pressure plate , an intermediate plate arranged axially between the pressure plate and the pressing plate and also axially movable relative to the pressure plate , and a clutch disc having two component discs , wherein a first component disc is arranged axially between the pressure plate and the intermediate plate and a second component disc is arranged axially between the intermediate plate and the pressing plate , wherein each component disc has an axially resilient spring plate unit and at least one friction lining connected to the spring plate unit , and wherein the independently acting spring plate units are fastened directly to an output shaft , characterized in that the spring plate unit of the first component disc is directly connected to at least one friction lining and the spring plate unit of the second component disc is connected to at least one friction lining via a spacer bolt connection .
A method for controlling a timer, implemented in a user equipment, comprising: receiving (S101) a first message from a network device, wherein the first message is used to switch from a first bandwidth part to a second bandwidth part, wherein a target timer is running based on a unit time length of the first bandwidth part when receiving the first message; and characterized by performing bandwidth part switching from the first bandwidth part to the second bandwidth part in response to the first message; controlling (S102-a) the target timer to perform timing based on the unit time length of the first bandwidth part until the target timer is stopped or the target timer expires; after the target timer is stopped or expires, controlling the target timer to perform timing based on a unit time length of the second bandwidth part. receiving (S101) a first message from a network device, wherein the first message is used to switch from a first bandwidth part to a second bandwidth part, wherein a target timer is running based on a unit time length of the first bandwidth part when receiving the first message; and characterized by performing bandwidth part switching from the first bandwidth part to the second bandwidth part in response to the first message; controlling (S102-a) the target timer to perform timing based on the unit time length of the first bandwidth part until the target timer is stopped or the target timer expires; after the target timer is stopped or expires, controlling the target timer to perform timing based on a unit time length of the second bandwidth part.
Ventilation module, in particular for a stretching system for stretching a plastics film, having the following features: - a ventilation outlet channel having a gas flow inlet side and an opposite gas flow outlet side is provided, - the ventilation outlet channel is separated in the longitudinal direction between its gas flow inlet side and its opposite gas flow outlet side to form at least two ventilation outlet channel portions , such that the at least two ventilation outlet channel portions are adjustable away from and towards one another transversely to the longitudinal extent of the ventilation outlet channel , whereby the width (B) of the ventilation outlet channel and thus the flow cross section can be increased or decreased. - a ventilation outlet channel having a gas flow inlet side and an opposite gas flow outlet side is provided, - the ventilation outlet channel is separated in the longitudinal direction between its gas flow inlet side and its opposite gas flow outlet side to form at least two ventilation outlet channel portions , such that the at least two ventilation outlet channel portions are adjustable away from and towards one another transversely to the longitudinal extent of the ventilation outlet channel , whereby the width (B) of the ventilation outlet channel and thus the flow cross section can be increased or decreased.
A key telephone system comprising a terminal (22-1∼22-3) and a primary device connected to each other with a wire-line for mutual internet protocol, IP, communication, wherein the primary device comprises a transmitting means configured to transmit a command for transition into a power-saving state to the terminal (22-1∼22-3), together with a power-saving duration time datum that is a datum showing a power-saving duration time as a time period for continuing the power-saving state and/or a power-saving deactivating time datum that is a datum showing a power-saving deactivating time as a time for transition from the power-saving state into an operating state, when the time reaches a power-saving state transition time that is a time for transition into the power-saving state which is a state of further reduced power consumption; and the terminal (22-1∼22-3) comprises, a communication means configured to communicate with the primary device , a timekeeper means configured to measure a lapse of time specified and/or measuring the time, and a control means configured to specify the power-saving duration time and/or the power-saving deactivating time in the timekeeper means , and halting the communication means , at the time of receiving the command for transition into the power-saving state together with the power-saving duration time datum and/or the power-saving deactivating time datum from the primary device , and activating the communication means being halted, at a time when the timekeeper means has measured the lapse of the power-saving duration time and/or the power-saving deactivating time, wherein the terminal (22-1∼22-3) is an internet protocol, IP, telephone set; the power saving state includes halting the terminal's communication means , display and voice input/output unit, wherein halting the communication means includes turning off power to the communication means ; at the time that the power-saving duration has passed or the power-saving deactivation time is reached, the timekeeper means is configured to notify, via an interrupt, the control means that the power-saving duration time and/or the power-saving deactivating time has been reached; and in response to the interrupt, the control means is configured to activate the communication means , the display, and the voice input/output unit.
A blow molding apparatus configured to supply a pressurized liquid (L) into a bottomed tubular preform (PF) fitted to a mold used for blow molding and configured to mold the preform (PF) into a shape conforming to a cavity of the mold , the blow molding apparatus comprising: a blow nozzle configured to be fitted to a mouth tubular portion (PFb) of the preform (PF); a sealing body configured to open and close the blow nozzle ; a pressurized liquid supply unit connected to the blow nozzle via a liquid flow path ; an accumulator that is in branch connection with the liquid flow path ; and an opening-closing valve of the accumulator (V3) that is disposed between the liquid flow path and the accumulator , wherein the accumulator is configured to accumulate a pressure in advance, with the opening-closing valve of the accumulator (V3) being closed, and characterized in that , when the pressurized liquid (L) is supplied into the preform (PF) through the blow nozzle when the pressurized liquid supply unit is actuated and when the sealing body is opened, the opening-closing valve of the accumulator (V3) is configured to be opened to thereby apply the pressure accumulated in the accumulator to the liquid supplied into the preform (PF). a blow nozzle configured to be fitted to a mouth tubular portion (PFb) of the preform (PF); a sealing body configured to open and close the blow nozzle ; a pressurized liquid supply unit connected to the blow nozzle via a liquid flow path ; an accumulator that is in branch connection with the liquid flow path ; and an opening-closing valve of the accumulator (V3) that is disposed between the liquid flow path and the accumulator , wherein the accumulator is configured to accumulate a pressure in advance, with the opening-closing valve of the accumulator (V3) being closed, and characterized in that , when the pressurized liquid (L) is supplied into the preform (PF) through the blow nozzle when the pressurized liquid supply unit is actuated and when the sealing body is opened, the opening-closing valve of the accumulator (V3) is configured to be opened to thereby apply the pressure accumulated in the accumulator to the liquid supplied into the preform (PF).
A method for performing sidelink communication by a first apparatus, the method comprising: receiving (S1810), from a second apparatus, sidelink capability information related to the second apparatus, wherein the sidelink capability information includes information related to modulation order supported by the second apparatus, information related to frequency band supported by the second apparatus, information related to band combination supported by the second apparatus, and information related to a number of sidelink HARQ processes supported by the second apparatus; transmitting (S1820), to a base station, BS, a radio resource control, RRC, message including the sidelink capability information received from the second apparatus; and performing (S1860) the sidelink communication based on the RRC message. receiving (S1810), from a second apparatus, sidelink capability information related to the second apparatus, wherein the sidelink capability information includes information related to modulation order supported by the second apparatus, information related to frequency band supported by the second apparatus, information related to band combination supported by the second apparatus, and information related to a number of sidelink HARQ processes supported by the second apparatus; transmitting (S1820), to a base station, BS, a radio resource control, RRC, message including the sidelink capability information received from the second apparatus; and performing (S1860) the sidelink communication based on the RRC message.
Method for baking bakery, Viennese pastry and pastry products, wherein: - dough pieces are deposited on a solid support plate ; - said plate loaded with dough pieces is transferred to at least one baking chamber , through an inlet ; wherein it consists in: - placing said plate on transport means being in the form of at least two endless chains, spaced apart laterally, leaving between them at least one heating space designed capable of permitting the direct heating by convection of at least the underside of the solid support plate ; and - directly preheating from below said plate through each heating space, at the level of a preheating station located at the level of said inlet . - dough pieces are deposited on a solid support plate ; - said plate loaded with dough pieces is transferred to at least one baking chamber , through an inlet ; - placing said plate on transport means being in the form of at least two endless chains, spaced apart laterally, leaving between them at least one heating space designed capable of permitting the direct heating by convection of at least the underside of the solid support plate ; and - directly preheating from below said plate through each heating space, at the level of a preheating station located at the level of said inlet .
A gateway for a communication network comprising: a service control interaction manager, SCIM, residing in the gateway which is configured to provide management of services to a plurality of mobile nodes having different capabilities and management of interactions between the plurality of mobile nodes and at least one application server in the communication network; a call session control function, CSCF, in communication with the SCIM and residing in the gateway, which is configured to handle session initiation protocol sessions and interworking; and a computer readable medium storing filter criteria and triggers which are used to determine service changes; wherein the SCIM is configured to: receive from a mobile node a request for service to be provided by the at least one application server ; modify the request for service to hide the capabilities of the mobile node from the at least one application server ; forward the modified request to the at least one application server ; receive a packet flow for the mobile node ; and process the packet flow to provide the mobile node with the service appropriate to the capabilities of the mobile node. a service control interaction manager, SCIM, residing in the gateway which is configured to provide management of services to a plurality of mobile nodes having different capabilities and management of interactions between the plurality of mobile nodes and at least one application server in the communication network; a call session control function, CSCF, in communication with the SCIM and residing in the gateway, which is configured to handle session initiation protocol sessions and interworking; and a computer readable medium storing filter criteria and triggers which are used to determine service changes; wherein the SCIM is configured to: receive from a mobile node a request for service to be provided by the at least one application server ; modify the request for service to hide the capabilities of the mobile node from the at least one application server ; forward the modified request to the at least one application server ; receive a packet flow for the mobile node ; and process the packet flow to provide the mobile node with the service appropriate to the capabilities of the mobile node. receive from a mobile node a request for service to be provided by the at least one application server ; modify the request for service to hide the capabilities of the mobile node from the at least one application server ; forward the modified request to the at least one application server ; receive a packet flow for the mobile node ; and process the packet flow to provide the mobile node with the service appropriate to the capabilities of the mobile node.
A switching method, wherein the method is performed by a portable electronic device comprising a barometer and a sound sensor, and the method comprises: determining whether the portable electronic device approaches a vehicle; upon determining that the portable electronic device approaches the vehicle, obtaining barometric data collected by the barometer in a preset duration and sound intensity data collected by the sound sensor in the preset duration, wherein the barometric data comprises n groups of collection moments and barometric values, the sound intensity data comprises n groups of collection moments and sound intensity values, the barometer and the sound sensor perform collection synchronously, and n is an integer greater than 1; and determining whether the barometric data and the sound intensity data meet a preset condition, and upon determining that the barometric data and the sound intensity data meet the preset condition, switching a first positioning algorithm to a second positioning algorithm or switching a first positioning technology to a second positioning technology, wherein the preset condition comprises the following: an average value of all the barometric values in the barometric data is greater than a first threshold and an average value of all the sound intensity values in the sound intensity data is greater than a second threshold. determining whether the portable electronic device approaches a vehicle; upon determining that the portable electronic device approaches the vehicle, obtaining barometric data collected by the barometer in a preset duration and sound intensity data collected by the sound sensor in the preset duration, wherein the barometric data comprises n groups of collection moments and barometric values, the sound intensity data comprises n groups of collection moments and sound intensity values, the barometer and the sound sensor perform collection synchronously, and n is an integer greater than 1; and determining whether the barometric data and the sound intensity data meet a preset condition, and upon determining that the barometric data and the sound intensity data meet the preset condition, switching a first positioning algorithm to a second positioning algorithm or switching a first positioning technology to a second positioning technology, wherein the preset condition comprises the following: an average value of all the barometric values in the barometric data is greater than a first threshold and an average value of all the sound intensity values in the sound intensity data is greater than a second threshold.
An air intake for a turboprop gas turbine engine of an aircraft, the air intake being configured to channel air pushed aft by a propeller coupled to a turboprop gas turbine engine toward an engine inlet of the turboprop gas turbine engine , the air intake having a reference axis (RA) that is substantially coaxial with a longitudinal axis (LA) of the gas turbine engine when the air intake is installed on the gas turbine engine , the air intake comprising: an intake inlet for receiving a flow of air (F) therein from the air pushed aft by the propeller , the intake inlet being configured to be generally forward-facing relative to the gas turbine engine and offset radially outwardly relative to the reference axis (RA); an intake duct in fluid communication with the intake inlet , the intake duct being configured to channel the flow of air (F) received in the intake inlet ; and an intake outlet in fluid communication with and downstream from the intake duct , the intake outlet being configured to discharge the flow of air (F) toward the engine inlet ; characterised in that : at least part of the intake duct adjacent the intake inlet extends along an intake axis (IA) that is non-parallel to the reference axis (RA), the intake axis (IA) being oriented toward a predetermined flow direction of the air pushed aft by the propeller upstream of the intake inlet during operation of the gas turbine engine , the intake axis (IA) being at an angle (β1) that is greater than 0 degree and less than 5 degrees from the reference axis (RA) measured in a horizontal plane (HP) relative to the installed orientation of the air intake on the gas turbine engine . an intake inlet for receiving a flow of air (F) therein from the air pushed aft by the propeller , the intake inlet being configured to be generally forward-facing relative to the gas turbine engine and offset radially outwardly relative to the reference axis (RA); an intake duct in fluid communication with the intake inlet , the intake duct being configured to channel the flow of air (F) received in the intake inlet ; and an intake outlet in fluid communication with and downstream from the intake duct , the intake outlet being configured to discharge the flow of air (F) toward the engine inlet ; characterised in that : at least part of the intake duct adjacent the intake inlet extends along an intake axis (IA) that is non-parallel to the reference axis (RA), the intake axis (IA) being oriented toward a predetermined flow direction of the air pushed aft by the propeller upstream of the intake inlet during operation of the gas turbine engine , the intake axis (IA) being at an angle (β1) that is greater than 0 degree and less than 5 degrees from the reference axis (RA) measured in a horizontal plane (HP) relative to the installed orientation of the air intake on the gas turbine engine .