mhurhangee/patent-ind-claim-en huggingface dataset:
A device for reversibly attaching a panel , wherein at least a portion of the panel is magnetically neutral, to a support structure , wherein said device comprising a locking mechanism disposed on a first side of the panel; a ferromagnetic lock flap ( having an engaged position and a disengaged position; the ferromagnetic lock flap comprising a first portion with ferromagnetic properties; a second portion configured to engage with a latch when in the engaged position; and a hinge that hingedly connects the first portion and the second portion to the support structure or the panel; wherein when the ferromagnetic lock flap is in the engaged position, the first portion is in a first position that forces the hingedly connected second portion to engage with the latch, thereby locking the locking mechanism; and when the ferromagnetic lock flap is in the disengaged position, the first portion is in a second position that forces the hingedly connected second portion to disengage from the latch, thereby unlocking the locking mechanism, and wherein the device is configured to cause the ferromagnetic lock flap to enter the disengaged position when placing a magnet on a second side of the panel. a locking mechanism disposed on a first side of the panel; a ferromagnetic lock flap ( having an engaged position and a disengaged position; the ferromagnetic lock flap comprising a first portion with ferromagnetic properties; a second portion configured to engage with a latch when in the engaged position; and a hinge that hingedly connects the first portion and the second portion to the support structure or the panel; a first portion with ferromagnetic properties; a second portion configured to engage with a latch when in the engaged position; and a hinge that hingedly connects the first portion and the second portion to the support structure or the panel; wherein when the ferromagnetic lock flap is in the engaged position, the first portion is in a first position that forces the hingedly connected second portion to engage with the latch, thereby locking the locking mechanism; and when the ferromagnetic lock flap is in the disengaged position, the first portion is in a second position that forces the hingedly connected second portion to disengage from the latch, thereby unlocking the locking mechanism, and
Method for testing electrical components comprising the steps of: - inputting an input signal having an alternating voltage to the electrical component , - detecting an electrical output signal that comprises partial discharge pulses due to partial discharges in the electrical component , - generating a trigger signal when a partial discharge pulse is detected, and - acquiring time-limited measurement signal samples of at least one measurement signal in response to the trigger signal , characterized in that the trigger signal is only generated if at least the phase angle (φ) of the voltage of the input signal and the amplitude (q) of the partial discharge pulse of the electrical output signal are within a predefined trigger condition area , and that the acquired time-limited measurement signal samples of the at least one measurement signal, being the electrical output signal and/or electric signals of acoustic sensors are assigned to a cluster of measurement signals corresponding to the predefined trigger condition area. - inputting an input signal having an alternating voltage to the electrical component , - detecting an electrical output signal that comprises partial discharge pulses due to partial discharges in the electrical component , - generating a trigger signal when a partial discharge pulse is detected, and - acquiring time-limited measurement signal samples of at least one measurement signal in response to the trigger signal ,
A heat exchanger comprising: a plurality of heat transfer tubes arranged in parallel to each other; and a plurality of plate-shaped fins each having a plurality of tube receiving openings in which the heat transfer tubes are inserted, wherein each of the fins is arranged such that its longitudinal direction corresponds to an up-and-down direction, chacterized in that each of the fins has a plurality of opening rows each of which is constituted of the plurality of tube receiving openings arranged in a row in the longitudinal direction of the fin , and the lowermost one of the tube receiving openings in each of the opening rows is a tube-free opening in which no heat transfer tube is inserted. each of the fins is arranged such that its longitudinal direction corresponds to an up-and-down direction, chacterized in that is arranged such that its longitudinal direction corresponds to an up-and-down direction, chacterized in that each of the fins has a plurality of opening rows each of which is constituted of the plurality of tube receiving openings arranged in a row in the longitudinal direction of the fin , and the lowermost one of the tube receiving openings in each of the opening rows is a tube-free opening in which no heat transfer tube is inserted.
Vacuum pump for generating a negative pressure in a negative-pressure chamber , in particular of a brake force booster , by sucking in air from the negative-pressure chamber , having at least one working chamber which is able to be delimited by a movable wall and by a cover element of a cover , said cover element comprising - a first cover element section for delimiting the working chamber , and - a second cover element section for placement onto first cover element section , wherein an air inlet opening and an air outlet opening are passed through the two cover element sections , characterized in that the air inlet opening and the air outlet opening are correspondingly assigned an air inlet channel and an air outlet channel for guiding the sucked-in air , which are able to be formed in the second cover element section with a further cover element which is able to be placed onto the second cover element section , - wherein the first cover element section is formed from a metal. - a first cover element section for delimiting the working chamber , and - a second cover element section for placement onto first cover element section , wherein an air inlet opening and an air outlet opening are passed through the two cover element sections , characterized in that the air inlet opening and the air outlet opening are correspondingly assigned an air inlet channel and an air outlet channel for guiding the sucked-in air , which are able to be formed in the second cover element section with a further cover element which is able to be placed onto the second cover element section , - wherein the first cover element section is formed from a metal.
A method for resource sensing by a wireless device , the method comprising: acquiring, from a network node , an indication of resources associated with a first resource pool, the first resource pool for use in an exceptional communication with another device; acquiring, from the network node , an indication of resources associated with a second resource pool, the second resource pool for use in normal communication with the other device; identifying, by the wireless device , a triggering event associated with signalling from the network node ; based on the triggering event, determining, by the wireless device , a need for the exceptional communication with the other device; sensing resources in at least one of the first resource pool and the second resource pool; selecting at least one resource from the second resource pool based on the sensing of the resources, if the sensing of the resources is completed; randomly selecting at least one resource from the first resource pool if the sensing of the resources is not completed or is unsuccessful; and transmitting, by the wireless device , a message using the at least one resource selected from the first resource pool. acquiring, from a network node , an indication of resources associated with a first resource pool, the first resource pool for use in an exceptional communication with another device; acquiring, from the network node , an indication of resources associated with a second resource pool, the second resource pool for use in normal communication with the other device; identifying, by the wireless device , a triggering event associated with signalling from the network node ; based on the triggering event, determining, by the wireless device , a need for the exceptional communication with the other device; sensing resources in at least one of the first resource pool and the second resource pool; selecting at least one resource from the second resource pool based on the sensing of the resources, if the sensing of the resources is completed; randomly selecting at least one resource from the first resource pool if the sensing of the resources is not completed or is unsuccessful; and transmitting, by the wireless device , a message using the at least one resource selected from the first resource pool.
Method for determining antenna matching in the case of a node (1-1, 1-n) that is capable of wireless communication, in which method detuning of the antenna of the node (1-1, 1-n) is reduced or compensated for on the basis of different antenna impedance matchings (S_match1-S_matchN) of an antenna matching network , characterized in that the respective DC current consumption and/or supply voltage of the power amplifier are/is measured in the case of N different antenna impedance matchings (S_match1-S_matchN), one antenna matching of the N different antenna impedance matchings (S_match1-S_matchN) is selected on the basis of the respective measurement result, and the node (1-1, 1-n) performs a respective RF transmission in the case of the N different antenna impedance matchings (S_match1-S_matchN) in order to measure the respective DC current consumption and/or supply voltage of the power amplifier . the respective DC current consumption and/or supply voltage of the power amplifier are/is measured in the case of N different antenna impedance matchings (S_match1-S_matchN), one antenna matching of the N different antenna impedance matchings (S_match1-S_matchN) is selected on the basis of the respective measurement result, and the node (1-1, 1-n) performs a respective RF transmission in the case of the N different antenna impedance matchings (S_match1-S_matchN) in order to measure the respective DC current consumption and/or supply voltage of the power amplifier .
A battery bridge for an electronic device, preferably, for an electronic implant, comprising an electrically conductive first contact element , an electrically conductive second contact element , and an insulator , , wherein, in a first state of the battery bridge, the first contact element is distanced from the second contact element via a predefined air gap characterized in that the first contact element is electrically insulated from the second contact element by the air gap and the insulator, wherein the first contact element and the second contact element comprise a weldable material, and wherein the battery bridge is configured in such a way that it can be transferred, by welding the first contact element and the second contact element to one another, into a second state, in which the air gap between the first contact element and the second contact element is closed electrically conductively, at least in part.
A packet processing method, applied to a first service function forwarder proxy SFF proxy , wherein the method comprises: receiving a first packet from a first device, wherein the first packet comprises first identification information and first service function chain SFC header encapsulation information; re-encapsulating the first packet to obtain a second packet; and sending the second packet to a second device based on the first SFC header encapsulation information, characterized in that the method further comprises generating first index information based on the first identification information, and establishing an association relationship between the first index information, the first identification information and the first SFC header encapsulation information by generating an index table that includes one or more pieces of index information and associated data corresponding to each piece of index information, where the associated data includes the SFC header encapsulation information and the first identification information that are associated with the index information; and the second packet comprises the first index information and the first identification information and does not comprise the first SFC header encapsulation information. receiving a first packet from a first device, wherein the first packet comprises first identification information and first service function chain SFC header encapsulation information; re-encapsulating the first packet to obtain a second packet; and sending the second packet to a second device based on the first SFC header encapsulation information, characterized in that the method further comprises generating first index information based on the first identification information, and establishing an association relationship between the first index information, the first identification information and the first SFC header encapsulation information by generating an index table that includes one or more pieces of index information and associated data corresponding to each piece of index information, where the associated data includes the SFC header encapsulation information and the first identification information that are associated with the index information; and the second packet comprises the first index information and the first identification information and does not comprise the first SFC header encapsulation information.
A surgery supporting apparatus capable of performing a manipulation using a surgical instrument to be inserted into a body cavity, wherein the surgical instrument is a handheld medical instrument , comprising: measurement means arranged to measure an insertion depth and an insertion angle, with respect to the body cavity, of a shaft of the surgical instrument inserted into the body cavity, as input of the manipulation for controlling the motion of a robot medical instrument , characterized in that the measurement means is arranged to measure the insertion depth by measuring a sound wave propagating in a space between a transmitter attached to one of the surgical instrument and a sheath tube through which a part of the surgical instrument is inserted into the body cavity, and a receiver attached to the other, and in order to measure the insertion depth, the measurement means is arranged to measure a change amount of a distance between the transmitter and the receiver , based on a phase difference between a sound wave signal transmitted from the transmitter and a sound wave signal received by the receiver , by excluding a movement of the surgical instrument at a velocity exceeding a predetermined threshold, wherein the predetermined threshold of the velocity is half the sonic speed and wherein the surgical instrument does not move over a half wavelength during a given sampling interval. measurement means arranged to measure an insertion depth and an insertion angle, with respect to the body cavity, of a shaft of the surgical instrument inserted into the body cavity, as input of the manipulation for controlling the motion of a robot medical instrument , characterized in that the measurement means is arranged to measure the insertion depth by measuring a sound wave propagating in a space between a transmitter attached to one of the surgical instrument and a sheath tube through which a part of the surgical instrument is inserted into the body cavity, and a receiver attached to the other, and in order to measure the insertion depth, the measurement means is arranged to measure a change amount of a distance between the transmitter and the receiver , based on a phase difference between a sound wave signal transmitted from the transmitter and a sound wave signal received by the receiver , by excluding a movement of the surgical instrument at a velocity exceeding a predetermined threshold, wherein the predetermined threshold of the velocity is half the sonic speed and wherein the surgical instrument does not move over a half wavelength during a given sampling interval.
An assembly configured for use in a system for forming filament windings on a vessel having a circumference and a length, the assembly comprising: an endless belt configured to wrap partially around the circumference of the vessel to contact and impart pressure on a filament winding disposed on an outside surface of the vessel ; and first and second rollers about which the endless belt moves; characterised in that a space is disposed between the first and second rollers to allow a filament wind eye of the system to move in a reciprocal motion along the length of the vessel . an endless belt configured to wrap partially around the circumference of the vessel to contact and impart pressure on a filament winding disposed on an outside surface of the vessel ; and first and second rollers about which the endless belt moves; characterised in that a space is disposed between the first and second rollers to allow a filament wind eye of the system to move in a reciprocal motion along the length of the vessel .
A random access method for use in a communications network in which at least one first network device and at least one second network device may serve a user equipment , the method comprising: sending , by the user equipment , a preamble sequence; receiving , by the user equipment , a random access response from the at least one first network device , wherein the random access response comprises information for sending a message 3; determining, by the user equipment based on the information for sending the message 3, a beam for sending the message 3; and sending , by the user equipment , the message 3 by using the determined beam at least to the at least one second network device , wherein the at least one second network device is a network device that does not send the random access response; wherein the method is applied to a high frequency scenario; wherein the information for sending the message 3 comprises network device information and beam information that is used by a network device to receive the preamble sequence; and the determining, by the user equipment based on the information for sending the message 3, the beam for sending the message 3 is specifically: determining, by the user equipment based on the network device information and the beam information that is used by the network device to receive the preamble sequence, the beam for sending the message 3. sending , by the user equipment , a preamble sequence; receiving , by the user equipment , a random access response from the at least one first network device , wherein the random access response comprises information for sending a message 3; determining, by the user equipment based on the information for sending the message 3, a beam for sending the message 3; and sending , by the user equipment , the message 3 by using the determined beam at least to the at least one second network device , wherein the at least one second network device is a network device that does not send the random access response; wherein the method is applied to a high frequency scenario; wherein the information for sending the message 3 comprises network device information and beam information that is used by a network device to receive the preamble sequence; and the determining, by the user equipment based on the information for sending the message 3, the beam for sending the message 3 is specifically: determining, by the user equipment based on the network device information and the beam information that is used by the network device to receive the preamble sequence, the beam for sending the message 3.
An apparatus, comprising: an inlet manifold ; an outlet manifold ; first and second flow paths coupled between the inlet and outlet manifolds; and an analyzer to determine the flow rate (Q) of fluid flowing through the first and second flow paths, wherein the apparatus is at least one of a mobile multiphase flow meter or a permanently-installed multiphase flow meter , wherein the first flow path includes a first Venturi section , wherein the apparatus includes a first pressure sensor and second pressure sensor coupled to the first flow path to determine a pressure difference through the first flow path across the first Venturi section , wherein the apparatus includes a source and a detector coupled to the first flow path , the analyzer to use values obtained by the detector to determine a phase fraction of the fluid flowing (Q 1 , Q' 1 ) through the first flow path , wherein the apparatus includes a valve to control fluid flow (Q 2 , Q' 2 ) through the second flow path , wherein the analyzer is configured to determine if the valve is in a first position and Z to actuate J Z the valve from the first position to a second position based on the pressure difference satisfying a first threshold, and wherein the analyzer is configured to determine if the valve is in the second position and to actuate the valve from the second position to the first position based on the pressure difference satisfying a second threshold, the flow rate (Q) through the first and second flow paths being determined based on the pressure difference, the phase fraction and the position of the valve . an inlet manifold ; an outlet manifold ; first and second flow paths coupled between the inlet and outlet manifolds; and an analyzer to determine the flow rate (Q) of fluid flowing through the first and second flow paths, wherein the apparatus is at least one of a mobile multiphase flow meter or a permanently-installed multiphase flow meter , wherein the first flow path includes a first Venturi section , wherein the apparatus includes a first pressure sensor and second pressure sensor coupled to the first flow path to determine a pressure difference through the first flow path across the first Venturi section , wherein the apparatus includes a source and a detector coupled to the first flow path , the analyzer to use values obtained by the detector to determine a phase fraction of the fluid flowing (Q 1 , Q' 1 ) through the first flow path , wherein the apparatus includes a valve to control fluid flow (Q 2 , Q' 2 ) through the second flow path , wherein the analyzer is configured to determine if the valve is in a first position and Z to actuate J Z the valve from the first position to a second position based on the pressure difference satisfying a first threshold, and wherein the analyzer is configured to determine if the valve is in the second position and to actuate the valve from the second position to the first position based on the pressure difference satisfying a second threshold, the flow rate (Q) through the first and second flow paths being determined based on the pressure difference, the phase fraction and the position of the valve .