mhurhangee/patent-ind-claim-en huggingface dataset:
Safety valve with - an electronic control unit for generation of a control voltage, - an electrofluidic pilot stage , which comprises a piezo bending transducer that can be actuated by means of the control voltage between a working and a safety position and that influences the flow of a secondary control fluid flow in position-dependent manner, and - a fluid-mechanical main stage having an influencing device for influencing the flow of a primary working fluid flow, wherein the influencing device can be actuated by means of the secondary control fluid flow discharging into a control chamber of the main stage , characterized in that the control unit is configured for performance, to be repeated iteratively in fully automatic manner and after expiration of specified time intervals, of a function test of the electrofluidic pilot stage , and in that a change in the position of the piezo bending transducer is induced during the function test by suitable variation of the control voltage, which change is so transient and/or so small that, on the one hand, correct functioning of the piezo bending transducer can indeed be checked by simultaneously occurring determination of an actually occurring deflection movement thereof, but on the other hand the flow of the primary working fluid flow through the main stage is not influenced in any way. - an electronic control unit for generation of a control voltage, - an electrofluidic pilot stage , which comprises a piezo bending transducer that can be actuated by means of the control voltage between a working and a safety position and that influences the flow of a secondary control fluid flow in position-dependent manner, and - a fluid-mechanical main stage having an influencing device for influencing the flow of a primary working fluid flow, wherein the influencing device can be actuated by means of the secondary control fluid flow discharging into a control chamber of the main stage ,
A vehicle control device for hybrid vehicles comprising: a power source including an engine (ENG) and a motor (MG); a high power battery (BAT) that supplies power to the motor; and an electric leakage detection means that detects an occurrence of an electric leakage of a strong current system that is routed from the high power battery to the motor, characterized by a mode controller that prohibits a mode switch between an HEV mode for traveling by a drive force of the engine and the motor, and an EV mode for traveling by the drive force of only the motor, during a period in which a presence /absence of an electric leakage is being detected by the electric leakage detection means. a power source including an engine (ENG) and a motor (MG); a high power battery (BAT) that supplies power to the motor; and an electric leakage detection means that detects an occurrence of an electric leakage of a strong current system that is routed from the high power battery to the motor, characterized by a mode controller that prohibits a mode switch between an HEV mode for traveling by a drive force of the engine and the motor, and an EV mode for traveling by the drive force of only the motor, during a period in which a presence /absence of an electric leakage is being detected by the electric leakage detection means.
An electronic device comprising: a memory including a contiguous memory allocation region ; and a memory management unit configured to manage segmentation of the contiguous memory allocation region, wherein the memory management unit is configured to: set a segment list of the contiguous memory allocation region , the segment list including a plurality of segments of the contiguous memory allocation region, each segment associated with a page unit memory allocation requester and a contiguous memory allocation requester, wherein the page unit memory allocation requester and the contiguous memory allocation requester associated with each segment do not simultaneously request memory allocation, receive a memory allocation request from a first memory allocation requester, and confirm whether the first memory allocation requester is included in the segment list, and, if the memory allocation requester is included in the segment list, allocate a page of a segment having the first memory allocation requester as one of the associated page unit memory allocation requester or the associated contiguous memory allocation requester. a memory including a contiguous memory allocation region ; and a memory management unit configured to manage segmentation of the contiguous memory allocation region, wherein the memory management unit is configured to: set a segment list of the contiguous memory allocation region , the segment list including a plurality of segments of the contiguous memory allocation region, each segment associated with a page unit memory allocation requester and a contiguous memory allocation requester, wherein the page unit memory allocation requester and the contiguous memory allocation requester associated with each segment do not simultaneously request memory allocation, receive a memory allocation request from a first memory allocation requester, and confirm whether the first memory allocation requester is included in the segment list, and, if the memory allocation requester is included in the segment list, allocate a page of a segment having the first memory allocation requester as one of the associated page unit memory allocation requester or the associated contiguous memory allocation requester. set a segment list of the contiguous memory allocation region , the segment list including a plurality of segments of the contiguous memory allocation region, each segment associated with a page unit memory allocation requester and a contiguous memory allocation requester, wherein the page unit memory allocation requester and the contiguous memory allocation requester associated with each segment do not simultaneously request memory allocation, receive a memory allocation request from a first memory allocation requester, and confirm whether the first memory allocation requester is included in the segment list, and, if the memory allocation requester is included in the segment list, allocate a page of a segment having the first memory allocation requester as one of the associated page unit memory allocation requester or the associated contiguous memory allocation requester.
A method of operating a data processing system comprising: operating a first processing core and a second processing core in a lockstep mode, the second processing core shadowing the first processing core ; detecting a fault by comparing output signals from the first processing core and the second processing core ; entering a safe mode based upon detecting the fault; completing transactions while in the safe mode; determining whether the fault corresponds to a hard error; and based upon the fault corresponding to a hard error: identifying one of processing cores as a faulty core, the faulty core associated with the hard error; and inhibiting the faulty core from executing instructions by way of a first multiplexer coupled to receive a first control signal and allowing the other processing core to resume executing instructions by way of a second multiplexer coupled to receive a second control signal and a third multiplexer allowing input signals to be routed to the second processing core, the third multiplexer coupled to receive a third control signal. operating a first processing core and a second processing core in a lockstep mode, the second processing core shadowing the first processing core ; detecting a fault by comparing output signals from the first processing core and the second processing core ; entering a safe mode based upon detecting the fault; completing transactions while in the safe mode; determining whether the fault corresponds to a hard error; and based upon the fault corresponding to a hard error: identifying one of processing cores as a faulty core, the faulty core associated with the hard error; and inhibiting the faulty core from executing instructions by way of a first multiplexer coupled to receive a first control signal and allowing the other processing core to resume executing instructions by way of a second multiplexer coupled to receive a second control signal and a third multiplexer allowing input signals to be routed to the second processing core, the third multiplexer coupled to receive a third control signal. identifying one of processing cores as a faulty core, the faulty core associated with the hard error; and inhibiting the faulty core from executing instructions by way of a first multiplexer coupled to receive a first control signal and allowing the other processing core to resume executing instructions by way of a second multiplexer coupled to receive a second control signal and a third multiplexer allowing input signals to be routed to the second processing core, the third multiplexer coupled to receive a third control signal.
A method for communication in a wireless telecommunication system, the method comprising: generating, by a network element , a sequence of signals of an enhanced physical HARQ, hybrid automatic repeat request, indicator channel, E-PHICH, wherein the E-PHICH comprises resource element groups, REGs, carrying one E-PHICH group multiplexed and interleaved with REGs of other E-PHICH groups, wherein each E-PHICH group consists of three REGs which represent its three repetitions; mapping, by the network element , the sequence of signals of the E-PHICH to a first set of resource elements, wherein the first set of resource elements is multiplexed with a second set of resource elements over a set of virtual resource blocks, and wherein the second set of resource elements carries at least one of an enhanced physical downlink control channel, E-PDCCH, and a physical downlink shared channel, PDSCH; wherein, when the second set of resource elements carries the PDSCH, the E-PHICH is mapped to a first group of resource elements from the first set of resource elements that would otherwise be used for PDSCH transmission; and transmitting, by the network element , the sequence of E-PHICH signals in separate virtual resource blocks, wherein the separate virtual resource blocks are mapped to physical resource blocks such that the E-PHICH is transmitted in a different physical resource block or physical resource block pair from an E-PDCCH, wherein the PDSCH data is punctured at locations of the first group of resource elements. generating, by a network element , a sequence of signals of an enhanced physical HARQ, hybrid automatic repeat request, indicator channel, E-PHICH, wherein the E-PHICH comprises resource element groups, REGs, carrying one E-PHICH group multiplexed and interleaved with REGs of other E-PHICH groups, wherein each E-PHICH group consists of three REGs which represent its three repetitions; mapping, by the network element , the sequence of signals of the E-PHICH to a first set of resource elements, wherein the first set of resource elements is multiplexed with a second set of resource elements over a set of virtual resource blocks, and wherein the second set of resource elements carries at least one of an enhanced physical downlink control channel, E-PDCCH, and a physical downlink shared channel, PDSCH; wherein, when the second set of resource elements carries the PDSCH, the E-PHICH is mapped to a first group of resource elements from the first set of resource elements that would otherwise be used for PDSCH transmission; and transmitting, by the network element , the sequence of E-PHICH signals in separate virtual resource blocks, wherein the separate virtual resource blocks are mapped to physical resource blocks such that the E-PHICH is transmitted in a different physical resource block or physical resource block pair from an E-PDCCH, wherein the PDSCH data is punctured at locations of the first group of resource elements.
A compound of formula (I-Z) wherein Za is CH or N; R 5 is C 1 -C 4 haloalkyl; and when Za is CH then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen, cyano, C 1 -C 4 haloalkyl and C 1 -C 4 alkoxy; and when Za is N then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen and cyano. wherein Za is CH or N; R 5 is C 1 -C 4 haloalkyl; and when Za is CH then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen, cyano, C 1 -C 4 haloalkyl and C 1 -C 4 alkoxy; and when Za is N then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen and cyano. wherein each Rx is, independently selected from hydrogen, halogen, cyano, C 1 -C 4 haloalkyl and C 1 -C 4 alkoxy; and when Za is N then Qa 5 is selected from the group consisting of wherein each Rx is, independently selected from hydrogen, halogen and cyano.
- A circuit for controlling the firing of an exploding-foil pyrotechnic component , the circuit comprising at least one capacitor that can be discharged in the pyrotechnic component in order to initiate it, and a switch means ensuring the discharge of the capacitor in the pyrotechnic component , the control circuit being characterized in that the capacitor is connected to the pyrotechnic component by an array of at least three diodes (D1, D2, D3) connected in series and in a direction that prevents the discharge of the capacitor , the sum of the reverse voltages of these diodes being greater than the maximum voltage that can be delivered by the capacitor , the switch means comprising at least two field effect transistors (Q1, Q2), whose gates can be controlled simultaneously and which are associated with the diode array (D1, D2, D3), each transistor (Q1, Q2) being connected by one of its outputs between two diodes of the array, the control of the transistors causing the successive short-circuits of the three diodes (D1, D2, D3) and the firing.
An automotive solid-state lamp for a vehicle, comprising: a housing extending in a longitudinal direction (X12) between opposed electrically-conductive end caps with a light-permeable portion of the housing between the end caps , a solid-state light source arranged at the light-permeable portion of the housing , electrically-conductive support formations between the end caps and the light source , the support formations configured to support the light source and to provide a power supply path between the end caps through the light source , wherein the lamp comprises at least one spring-like element having a length (L; L1, L2) in said longitudinal direction (X12) and being deformable to vary said length (L; L1, L2) in said longitudinal direction (X12), wherein the solid-state light source comprises a support member having at least one light generator thereon with said at least one spring-like element provided at said support member of the light source , characterized in that at least one of the support formations comprises a wire-like member with at least one second spring-like element provided at said wire-like member . a housing extending in a longitudinal direction (X12) between opposed electrically-conductive end caps with a light-permeable portion of the housing between the end caps , a solid-state light source arranged at the light-permeable portion of the housing , electrically-conductive support formations between the end caps and the light source , the support formations configured to support the light source and to provide a power supply path between the end caps through the light source , wherein the lamp comprises at least one spring-like element having a length (L; L1, L2) in said longitudinal direction (X12) and being deformable to vary said length (L; L1, L2) in said longitudinal direction (X12), wherein the solid-state light source comprises a support member having at least one light generator thereon with said at least one spring-like element provided at said support member of the light source , characterized in that at least one of the support formations comprises a wire-like member with at least one second spring-like element provided at said wire-like member .
Carbine with a weapon median plane , with a barrel with a barrel bore axis , a gas drive , a sliding block , a closing spring unit , and a charging handle arranged in front of the sliding block , wherein the charging handle has two operating handles (21a,b) rotatably mounted about pivot pins (23a,b) on a charging handle body , said operating handles (21a,b) being pushed about the pivot pins (23a,b) into a rest position by at least one handle spring, wherein the charging handle body is mounted on a carriage which is arranged axially in front of the sliding block and movable in the axial direction, wherein said operating handles (21a,b) exhibit elongated holes for guiding them along said pivot pins (23a,b), said elongated holes , in an unfolded position of the operating handles (21a,b), run parallel to the barrel bore axis , in the charging handle body , a catch slider is slidably mounted normal to the weapon median plane , said catch slider being pushed by a catch slider spring into a position symmetrical to the weapon median plane , in which it is located axially in front of a housing-mounted control element and, upon pivoting an operating handle (21a,b), the catch slider is shifted, due to its contour, against the force of the catch slider spring from its rest position, placing it next to the housing-mounted control element . run parallel to the barrel bore axis , in the charging handle body , a catch slider is slidably mounted normal to the weapon median plane , said catch slider being pushed by a catch slider spring into a position symmetrical to the weapon median plane , in which it is located axially in front of a housing-mounted control element and, upon pivoting an operating handle (21a,b), the catch slider is shifted, due to its contour, against the force of the catch slider spring from its rest position, placing it next to the housing-mounted control element .
A method of wireless communication by a Base Station, BS, comprising: assigning a set of sequences to a set of user equipments, UEs wherein the set of sequences is designed to meet one or more criteria for low cross correlation across the sequences in the set of sequences and the sequences in the set of sequences are generated based on a spreading factor, SF , and number of UEs, N, in the set of UEs; receiving a signal including transmissions from one or more of the set of UEs, wherein each transmission from a UE is scrambled using one of the sequences in the set of sequences as a scrambling sequence and spread based on the spreading factor; determining , for each transmission, the scrambling sequence; and decoding each transmission based on the determined scrambling sequence. assigning a set of sequences to a set of user equipments, UEs wherein the set of sequences is designed to meet one or more criteria for low cross correlation across the sequences in the set of sequences and the sequences in the set of sequences are generated based on a spreading factor, SF , and number of UEs, N, in the set of UEs; receiving a signal including transmissions from one or more of the set of UEs, wherein each transmission from a UE is scrambled using one of the sequences in the set of sequences as a scrambling sequence and spread based on the spreading factor; determining , for each transmission, the scrambling sequence; and decoding each transmission based on the determined scrambling sequence.
A delivery system comprising: an implantable medical device ; an actuation line configured to steer the implantable medical device during delivery thereof; a tether coupled to a portion of the implantable medical device arranged through the actuation line and configured to couple the actuation line to the implantable medical device; and a releasable knot including portions of the tether forming a first loop , a second loop , and a third loop with the third loop arranged through the second loop and the second loop arranged through the first loop and configured to couple the actuation line to the implantable medical device . an implantable medical device ; an actuation line configured to steer the implantable medical device during delivery thereof; a tether coupled to a portion of the implantable medical device arranged through the actuation line and configured to couple the actuation line to the implantable medical device; and a releasable knot including portions of the tether forming a first loop , a second loop , and a third loop with the third loop arranged through the second loop and the second loop arranged through the first loop and configured to couple the actuation line to the implantable medical device .
An over-the-needle catheter assembly , comprising: a catheter comprising a body having an outer diameter , the body comprising a proximal end and a distal end , the body defining a lumen extending from the proximal end to the distal end; a hub configured with the proximal end of the catheter ; a needle configured within the lumen of the catheter , the needle extending from said proximal end to said distal end ; and characterised by comprising, an expandable sleeve coaxially mounted onto the outer diameter of the catheter at a transition location between the hub and the catheter , the expandable sleeve being expandable between a compressed position and an expanded position, wherein, in the expanded position, at least a portion of an interior surface of the sleeve contacts the outer diameter of the body of the catheter ; wherein the expandable sleeve comprises a first portion and a second portion , the first portion being configured with the hub , and the second portion being configured with the catheter , the second portion being configured to move or slide along the outer diameter of the catheter; wherein the second portion of the expandable sleeve comprises a plurality of bellows to allow the sleeve to expand between the compressed position and the expanded position, and wherein the compressed position maximizes a catheter penetration length. a catheter comprising a body having an outer diameter , the body comprising a proximal end and a distal end , the body defining a lumen extending from the proximal end to the distal end; a hub configured with the proximal end of the catheter ; a needle configured within the lumen of the catheter , the needle extending from said proximal end to said distal end ; and characterised by comprising, an expandable sleeve coaxially mounted onto the outer diameter of the catheter at a transition location between the hub and the catheter , the expandable sleeve being expandable between a compressed position and an expanded position, wherein, in the expanded position, at least a portion of an interior surface of the sleeve contacts the outer diameter of the body of the catheter ; wherein the expandable sleeve comprises a first portion and a second portion , the first portion being configured with the hub , and the second portion being configured with the catheter , the second portion being configured to move or slide along the outer diameter of the catheter; wherein the second portion of the expandable sleeve comprises a plurality of bellows to allow the sleeve to expand between the compressed position and the expanded position, and wherein the compressed position maximizes a catheter penetration length.