mhurhangee/patent-ind-claim-en huggingface dataset:
A starter/generator system for an aircraft turbomachine, the starter/generator system comprising at least one brushless drive motor/generator , at least one control module and at least one power module , the brushless drive motor/generator being configured to be positioned in a housing in a non-pressurised zone (NP) to start a turbomachine of the aircraft, the power module being configured to be connected to an electrical wiring system of the aircraft, the power module being configured to provide/receive electric energy from the brushless drive motor/generator , the control module being connected to the brushless drive motor/generator through a control cable (L1) in order to control its operation, the system being characterised in that : - the power module is configured to be mounted into the housing of the non-pressurised zone (NP) so as to be located adjacently to the brushless drive motor/generator and - the control module is configured to be mounted into a pressurised zone (P) of the aircraft, the control module being connected to the power module by a bidirectional communication cable (L3) in order to control its operation. - the power module is configured to be mounted into the housing of the non-pressurised zone (NP) so as to be located adjacently to the brushless drive motor/generator and - the control module is configured to be mounted into a pressurised zone (P) of the aircraft, the control module being connected to the power module by a bidirectional communication cable (L3) in order to control its operation.
A method, characterized by comprising: generating, by a controller device, thermal coefficients at an adaptive filter bank to characterize heat transfer of a volume associated with a thermal system, wherein the adaptive filter bank comprises a plurality of adaptive filters corresponding to a plurality of transfer functions, and wherein at least a first adaptive filter of the plurality of adaptive filters comprises an Infinite Impulse Response, IIR, filter; adapting a sampling rate based on a filter operation associated with the IIR filter of the plurality of adaptive filters; applying , by the controller device, one or more filters to the thermal coefficients based on the adapted sampling rate; responsive to the applying the filters, generating , by the controller device, one or more estimate thermal coefficient thresholds based on the sampling rate, comprising determining whether a sequence of thermal coefficient vectors support a definition of a diagnostic event; determining , by the controller device, whether at least one of the thermal coefficients satisfies at least one of the estimated thermal coefficient thresholds; and providing , by the controller device, alert information indicative of the diagnostic event associated with the thermal system based on the determining. generating, by a controller device, thermal coefficients at an adaptive filter bank to characterize heat transfer of a volume associated with a thermal system, wherein the adaptive filter bank comprises a plurality of adaptive filters corresponding to a plurality of transfer functions, and wherein at least a first adaptive filter of the plurality of adaptive filters comprises an Infinite Impulse Response, IIR, filter; adapting a sampling rate based on a filter operation associated with the IIR filter of the plurality of adaptive filters; applying , by the controller device, one or more filters to the thermal coefficients based on the adapted sampling rate; responsive to the applying the filters, generating , by the controller device, one or more estimate thermal coefficient thresholds based on the sampling rate, comprising determining whether a sequence of thermal coefficient vectors support a definition of a diagnostic event; determining , by the controller device, whether at least one of the thermal coefficients satisfies at least one of the estimated thermal coefficient thresholds; and providing , by the controller device, alert information indicative of the diagnostic event associated with the thermal system based on the determining.
A device comprising a positioning measuring system formed by an array of marks and an optical sensor for detecting the marks of the positioning measuring system , wherein the optical sensor and the positioning measuring system are arranged to be movable relative to each other, wherein position information and a checksum are encoded in each mark, wherein an evaluation unit of the optical sensor is set up to evaluate the position information and the checksum, and wherein an error check is carried out on the basis of the checksum, wherein the entire optical sensor has a single-channel structure, characterised in that the function of the evaluation unit is checked by detecting errors in the evaluation unit by binding, in that the checksum of a mark is not recognised, and in that an error signal is generated in the evaluation unit when errors are detected in the position information of the marks, as well as when errors are detected in the evaluation unit , whereby the error signal is output to an external unit so that suitable countermeasures can be initiated with it to rectify the error. wherein the optical sensor and the positioning measuring system are arranged to be movable relative to each other, wherein position information and a checksum are encoded in each mark, wherein an evaluation unit of the optical sensor is set up to evaluate the position information and the checksum, and wherein an error check is carried out on the basis of the checksum, wherein the entire optical sensor has a single-channel structure, characterised in that the function of the evaluation unit is checked by detecting errors in the evaluation unit by binding, in that the checksum of a mark is not recognised, and in that an error signal is generated in the evaluation unit when errors are detected in the position information of the marks, as well as when errors are detected in the evaluation unit , whereby the error signal is output to an external unit so that suitable countermeasures can be initiated with it to rectify the error.
A mixing unit suitable for the production of ready-to-use flushing solutions for medical purposes including a mixing chamber and conduits communicating therewith for ultrapure water and for concentrate in order to form the ready-to-use flushing solutions in the mixing chamber, further including a concentrate bag , which may be filled with concentrate, and which is provided with a concentrate bag connector , and including a connector for the mixing chamber , which is connectable to the concentrate bag connector , characterised in that the connector for the mixing chamber is connected to a pivotable concentrate flap , which so covers the connector in its closed state, that a sealed flushing space is defined around the connector , and that the mixing unit has a flushing conduit , which is provided with a pump and a flushing valve and communicates with a rear annular gap of the connector , wherein peripheral flushing bores lead from there into the flushing space so that when the pump is running the connector may be thoroughly cleaned internally and externally.
A head-mounted display configured to display an image to a user, the head-mounted display comprising: a protruding member disposed on an outer surface member of the head-mounted display, and in proximity to a heat generation source arranged inside the head-mounted display; and a heat transfer member disposed between the protruding member and the heat generation source , being made of a deformable sheet, wherein the heat transfer member is deformed along and in close contact with the outer surface member having a curved shape and the protruding member , wherein the protruding member is made of a material having lower thermal conductivity than the heat transfer member , and wherein the protruding member is composed of a surface in contact with the heat generation source via the heat transfer member , and of ribs configuring surfaces in contact with the outer surface member . a protruding member disposed on an outer surface member of the head-mounted display, and in proximity to a heat generation source arranged inside the head-mounted display; and a heat transfer member disposed between the protruding member and the heat generation source , being made of a deformable sheet, wherein the heat transfer member is deformed along and in close contact with the outer surface member having a curved shape and the protruding member , wherein the protruding member is made of a material having lower thermal conductivity than the heat transfer member , and wherein the protruding member is composed of a surface in contact with the heat generation source via the heat transfer member , and of ribs configuring surfaces in contact with the outer surface member .
A sensor receiver comprising: a Rydberg cell configured to be exposed to a radio frequency, RF, signal characterized in a probe source configured to generate a plurality of spaced apart pulsed probe beams within the Rydberg cell, with the pulsed probe beams being offset in time from one another; and a detector downstream from the Rydberg cell. a Rydberg cell configured to be exposed to a radio frequency, RF, signal characterized in a probe source configured to generate a plurality of spaced apart pulsed probe beams within the Rydberg cell, with the pulsed probe beams being offset in time from one another; and a detector downstream from the Rydberg cell.
Method of protecting the components of a power electronics module of a starter-alternator system for a vehicle, said starter-alternator system comprising a control module designed to control the power electronics module , characterized in that the supply current of the power electronics module is disconnected when a temperature (Tjunction) of at least one of the components of said power electronics module is determined as being greater than a predefined temperature threshold value (VTS), said component temperature being determined by estimation using the formula: Tjunction = Tleadframe + ΔT , where Tleadframe is the temperature of the substrate on which said power electronics component is mounted and ΔT is a change in temperature induced in the power electronics component by the current passing through said component during the start-up phase, the change ΔT in temperature being determined as a function of at least a rotational speed (Speed) of the rotor of the starter-alternator, of the temperature (Tchip) of the control module and the value of the current travelling through the power component. characterized in that the supply current of the power electronics module is disconnected when a temperature (Tjunction) of at least one of the components of said power electronics module is determined as being greater than a predefined temperature threshold value (VTS), said component temperature being determined by estimation using the formula: Tjunction = Tleadframe + ΔT , where Tleadframe is the temperature of the substrate on which said power electronics component is mounted and ΔT is a change in temperature induced in the power electronics component by the current passing through said component during the start-up phase, the change ΔT in temperature being determined as a function of at least a rotational speed (Speed) of the rotor of the starter-alternator, of the temperature (Tchip) of the control module and the value of the current travelling through the power component.
Wave energy or tidal energy recovery system comprising an arrangement for a surface area adjustment of a reciprocating wing system where the wave energy or tidal energy recovery system comprises at least a body , a set of wings fastened to a support means that is hinged at its lower ends onto the body to make a reciprocating motion in response to kinetic energy of waves or tidal currents, and a power-take-off (PTO) means , and adjustment means , characterized in that the wings are fastened to the support means individually so that they are arranged to be moved separately by the adjustment means in a slant direction to adjust the vertical and horizontal position of the wings of the set of wings so as to adjust the total effective surface area of the set of wings .
An immunogenic composition comprising a fusion protein comprising (i) a biotin-binding protein or a functional portion thereof, and (ii) a polypeptide comprising an amino acid sequence having at least 90% identity to the amino acid sequence of SEQ ID NO:34 or a fragment thereof comprising a polypeptide having at least 90% identity to the amino acid sequence of SEQ ID NO: 190, or an immunogenic portion thereof wherein the immunogenic composition, when administered to a subject, induces an IL-17A immune response in the subject.
A mobile x-ray imaging apparatus comprising: a slot configured to store an x-ray detector ; a first damping unit installed at a base plate of the slot and configured to absorb an impact on the x-ray detector when the x-ray detector is inserted in the slot; a connector installed at the base plate and electrically connected to a terminal of the x-ray detector when the x-ray detector is inserted into the slot; and a connector magnetic body installed near the connector, the connector magnetic body configured to interact with a detector magnetic body included in the x-ray detector and fix the x-ray detector when the x-ray detector is inserted into the slot, characterized in that the first damping unit comprises a piston rod , a cylinder configured to accommodate air compressed by movement of the piston rod , and a spring configured to be elastically deformed according to the movement of the piston rod , wherein the piston rod protrudes over the base plate and the connector in a direction opposite to an insertion direction of the x-ray detector in the slot, and that the first damping unit is configured for attenuating moving speed of the inserted x-ray detector such that the terminal of the x-ray detector can be accurately docked to the connector. a slot configured to store an x-ray detector ; a first damping unit installed at a base plate of the slot and configured to absorb an impact on the x-ray detector when the x-ray detector is inserted in the slot; a connector installed at the base plate and electrically connected to a terminal of the x-ray detector when the x-ray detector is inserted into the slot; and a connector magnetic body installed near the connector, the connector magnetic body configured to interact with a detector magnetic body included in the x-ray detector and fix the x-ray detector when the x-ray detector is inserted into the slot, characterized in that the first damping unit comprises a piston rod , a cylinder configured to accommodate air compressed by movement of the piston rod , and a spring configured to be elastically deformed according to the movement of the piston rod , wherein the piston rod protrudes over the base plate and the connector in a direction opposite to an insertion direction of the x-ray detector in the slot, and that the first damping unit is configured for attenuating moving speed of the inserted x-ray detector such that the terminal of the x-ray detector can be accurately docked to the connector.
A surgical stapler, comprising: (a) a body ; (b) an end effector extending distally from the body, wherein the end effector comprises a stapling assembly operable to drive staples into tissue; and (c) a control system in communication with the end effector, wherein the control system comprises: (i) a motor operable to drive the stapling assembly, (ii) a firing trigger , (iii) a switch assembly comprising a switch in communication with the motor, (iv) a movable member rotatable about an axis , wherein the firing trigger is operable to drive the movable member through a first range of angular motion, and (v) a resilient member engaged with the movable member; characterised in that the resilient member is operable to drive the movable member through a second range of angular motion in order for the movable member to engage the switch, the second range being contiguous with the first range of angular motion, wherein the firing trigger and the resilient member are configured to cooperate to move the movable member into engagement with the switch to thereby activate the motor. (a) a body ; (b) an end effector extending distally from the body, wherein the end effector comprises a stapling assembly operable to drive staples into tissue; and (c) a control system in communication with the end effector, wherein the control system comprises: (i) a motor operable to drive the stapling assembly, (ii) a firing trigger , (iii) a switch assembly comprising a switch in communication with the motor, (iv) a movable member rotatable about an axis , wherein the firing trigger is operable to drive the movable member through a first range of angular motion, and (v) a resilient member engaged with the movable member; characterised in that the resilient member is operable to drive the movable member through a second range of angular motion in order for the movable member to engage the switch, the second range being contiguous with the first range of angular motion, wherein the firing trigger and the resilient member are configured to cooperate to move the movable member into engagement with the switch to thereby activate the motor. (i) a motor operable to drive the stapling assembly, (ii) a firing trigger , (iii) a switch assembly comprising a switch in communication with the motor, (iv) a movable member rotatable about an axis , wherein the firing trigger is operable to drive the movable member through a first range of angular motion, and (v) a resilient member engaged with the movable member; characterised in that the resilient member is operable to drive the movable member through a second range of angular motion in order for the movable member to engage the switch, the second range being contiguous with the first range of angular motion, wherein the firing trigger and the resilient member are configured to cooperate to move the movable member into engagement with the switch to thereby activate the motor.
Microbial consortium comprising at least one strain of Clostridium acetobutylicum, at least one strain of Clostridium sporogenes, and at least one strain of Clostridium sphenoides.
A joining method with a joining member non-penetrating through a joined member for a lithium battery, the method comprising: keeping a joining member having a protruding part by a receiving mold so that the protruding part is exposed; placing a joined member over the joining member so that the protruding part of the joining member is positioned in a blind hole of the joined member , and compressing the joined member against the receiving mold to plastically deform the joined member and the joining member at the same time and to wrap excess thickness of the joined member around an undercut part while forming the undercut part on the joining member , thereby non-detachably joining both the members , wherein the joined member is made of a material softer than the joining member , and the joining member is caused to be deformed using work-hardening of the joined member ,. keeping a joining member having a protruding part by a receiving mold so that the protruding part is exposed; placing a joined member over the joining member so that the protruding part of the joining member is positioned in a blind hole of the joined member , and compressing the joined member against the receiving mold to plastically deform the joined member and the joining member at the same time and to wrap excess thickness of the joined member around an undercut part while forming the undercut part on the joining member , thereby non-detachably joining both the members , wherein the joined member is made of a material softer than the joining member , and the joining member is caused to be deformed using work-hardening of the joined member ,.
An apparatus comprising at least one processing core , at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processing core , cause the apparatus at least to: - initiate communications toward a configuration server based on a resource locator of the configuration server, the resource locator comprising an identifier of the apparatus; - receive from the configuration server authentication information based on a cryptographic certificate specific to the apparatus, and receive from the configuration server a private key associated with the cryptographic certificate, and - responsive to the certificate specific to the apparatus being validated by the apparatus, and an authentication of the configuration server based on it, receive configuration data from the configuration server, the validation comprising checking that the identifier of the apparatus is embedded in the cryptographic certificate and that a cryptographic signature of the cryptographic certificate is correct. - initiate communications toward a configuration server based on a resource locator of the configuration server, the resource locator comprising an identifier of the apparatus; - receive from the configuration server authentication information based on a cryptographic certificate specific to the apparatus, and receive from the configuration server a private key associated with the cryptographic certificate, and - responsive to the certificate specific to the apparatus being validated by the apparatus, and an authentication of the configuration server based on it, receive configuration data from the configuration server, the validation comprising checking that the identifier of the apparatus is embedded in the cryptographic certificate and that a cryptographic signature of the cryptographic certificate is correct.
An uplink, UL, multi-user, MU, transmission method of an STA in a wireless communication system, the method comprising: receiving a trigger frame , the trigger frame comprising resource allocation information for an UL MU transmission of a station, STA; and sending an UL MU physical protocol data unit, PPDU, generated based on the trigger frame , wherein the UL MU PPDU comprises a first part having a first inverse discrete Fourier transform/discrete Fourier transform, IDFT/DFT, period and a second part having a second IDFT/DFT period which is four times the first IDFT/DFT period, wherein the first part is transmitted through at least one 20 MHz channel of a frequency location including at least some of a frequency resource indicated by the resource allocation information, wherein the second part is transmitted using the frequency resource indicated by the resource allocation information, and characterized in that , when the frequency resource is less than a 20MHz channel and includes a frequency location of a plurality of the at least one 20MHz channel, the first part is duplicated in a 20 MHz unit, by the size of the plurality of 20MHz channels, and transmitted only through the plurality of 20 MHz channels. receiving a trigger frame , the trigger frame comprising resource allocation information for an UL MU transmission of a station, STA; and sending an UL MU physical protocol data unit, PPDU, generated based on the trigger frame , wherein the UL MU PPDU comprises a first part having a first inverse discrete Fourier transform/discrete Fourier transform, IDFT/DFT, period and a second part having a second IDFT/DFT period which is four times the first IDFT/DFT period, wherein the first part is transmitted through at least one 20 MHz channel of a frequency location including at least some of a frequency resource indicated by the resource allocation information, wherein the second part is transmitted using the frequency resource indicated by the resource allocation information, and characterized in that , when the frequency resource is less than a 20MHz channel and includes a frequency location of a plurality of the at least one 20MHz channel, the first part is duplicated in a 20 MHz unit, by the size of the plurality of 20MHz channels, and transmitted only through the plurality of 20 MHz channels.