mhurhangee/patent-ind-claim-en huggingface dataset:
A root complex endpoint RCEP, (106; 508) for an extended peripheral component interconnect express PCI e , fabric (118; 510), wherein the RCEP (106; 508) is configured to be an endpoint of a host PCIe fabric (100; 500) having a first memory mapped input/output MMIO, space and a first set of bus numbers; and wherein the RCEP is configured to host the extended PCIe fabric (118; 510) having a second MMIO space and a second set of bus numbers, wherein the second set of bus numbers is separate from the first set of bus numbers, and the second MMIO space is separate from the first MMIO space of the host PCIe fabric, wherein the second MMIO space of the extended PCIe fabric (118; 510) is mapped into the first MMIO space of the host PCIe fabric (100; 500).
Stabilizer for a lower link of a three-point hitch of a tractor having a first stabilizer member and a second stabilizer member which is resiliently supported with respect to the first stabilizer member along a common longitudinal axis , wherein the two stabilizer members are able to be rotated relative to each other in order to adjust the total length of the stabilizer in relation to the common longitudinal axis , and wherein there is provided a locking means which is connected to the first stabilizer member and which can be moved into a predetermined locking position in order to limit a resilient movement which occurs between the two stabilizer members , wherein the second stabilizer member has a locking collar which is constructed in a rotationally symmetrical manner with respect to the common longitudinal axis and which, when the locking means is located in the predetermined locking position, engages in a recess which is arranged in the locking means in such a manner that a deflection and rebound movement which occurs between the two stabilizer members is prevented, wherein the second stabilizer member can be secured with respect to the first stabilizer member by way of a securing means , wherein the securing means comprises a curved resilient member which engages in a recess which is provided on the periphery of the locking collar , characterized in that a securing flap which is arranged on the first stabilizer member serves to retain the curved resilient member , wherein the securing flap has two transverse holes which are spaced apart in the direction of the common longitudinal axis , each of which receives an open end of the curved resilient member .
A method comprising: receiving, by a wireless device in a radio resource control, RRC, connected state, an RRC release message comprising configuration parameters for use in transmission during an RRC inactive state, the configuration parameters comprising: an identifier of a first synchronization signal block, SSB, among a plurality of SSBs of a cell; one or more resource parameters of an uplink resource, corresponding to the first SSB, for use in the transmission during the RRC inactive state; and a first threshold for validating the transmission via the uplink resource; transitioning, by the wireless device and based on the RRC release message, from the RRC connected state to the RRC inactive state; determining, by the wireless device, that the uplink resource is valid for use in the transmission during the RRC inactive state, wherein the determining is based on a beam measurement value of the first SSB being higher than or equal to a reference signal received power, RSRP, measurement threshold value based on the first threshold; and transmitting, based on the determining, a transport block via the uplink resource. receiving, by a wireless device in a radio resource control, RRC, connected state, an RRC release message comprising configuration parameters for use in transmission during an RRC inactive state, the configuration parameters comprising: an identifier of a first synchronization signal block, SSB, among a plurality of SSBs of a cell; one or more resource parameters of an uplink resource, corresponding to the first SSB, for use in the transmission during the RRC inactive state; and a first threshold for validating the transmission via the uplink resource; an identifier of a first synchronization signal block, SSB, among a plurality of SSBs of a cell; one or more resource parameters of an uplink resource, corresponding to the first SSB, for use in the transmission during the RRC inactive state; and a first threshold for validating the transmission via the uplink resource; transitioning, by the wireless device and based on the RRC release message, from the RRC connected state to the RRC inactive state; determining, by the wireless device, that the uplink resource is valid for use in the transmission during the RRC inactive state, wherein the determining is based on a beam measurement value of the first SSB being higher than or equal to a reference signal received power, RSRP, measurement threshold value based on the first threshold; and transmitting, based on the determining, a transport block via the uplink resource.
Rogowski coil assembly for measurement of high frequency electrical currents, comprising coil segments characterised in that said segments are disposed in series with retrospective impedance influence reduction coupling wherein the coils segments are not directly connected to each other but through the retrospective impedance coupling..
A method for getting a user validation of a key stored on a user equipment using a graphical user interface, GUI, the method being carried out by a processor of the user equipment controlling the GUI and comprising the acts of: - executing a key exchange protocol with another user equipment, - associating to one or more graphical sub-elements to be rendered in a first graphical element of the GUI a parameter set at an initial value function of the key, - generating another graphical element on the GUI comprising the one or more graphical sub-elements, each one of the graphical sub-elements being displayed with a parameter set to an altered value different from its initial value, the parameter being editable through one or more user inputs on said graphical sub-element, - receiving user inputs on the one or more graphical sub-elements to edit its parameter by the user of the user equipment looking at a graphical element rendered on the another user equipment screen, so as to generate a second graphical element on the GUI, wherein the validation of the key corresponds to the matching of the first and second graphical elements, and wherein the graphical element being rendered on the another user equipment is equal to the first graphical element such that the parameter of the one or more graphical sub-elements to be rendered in the graphical element rendered on the another user equipment are set at the initial value function of the key. - executing a key exchange protocol with another user equipment, - associating to one or more graphical sub-elements to be rendered in a first graphical element of the GUI a parameter set at an initial value function of the key, - generating another graphical element on the GUI comprising the one or more graphical sub-elements, each one of the graphical sub-elements being displayed with a parameter set to an altered value different from its initial value, the parameter being editable through one or more user inputs on said graphical sub-element, - receiving user inputs on the one or more graphical sub-elements to edit its parameter by the user of the user equipment looking at a graphical element rendered on the another user equipment screen, so as to generate a second graphical element on the GUI,
An improved method of resin-reinforcement of a block of stone material, having cracks (D) and/or shallow or deep defects, said method comprising the steps of: a) laying a sheet of flexible waterproof plastic material on a base resting on the ground and placing a block to be resin-reinforced on said sheet ; b) applying a plurality of spacer members to one or more walls of the block ; c) attaching a plurality of panels of rigid sheet material on the walls of the block with said spacer members interposed, to leave a gap between the panels and the walls of the block ; d) folding said sheet on the walls of the block covered with said panels , to form a container ; e) hermetically sealing said container ; f) applying at least one first connector to the outer surface of said container and connecting it to a vacuum pump via first pipes to create a negative pressure in said container ; g) applying at least one second connector , distinct from the first connector , and extending through said panels , to said container ; h) introducing a resin (R) in the liquid or pasty state into the container via second pipes connected to said container through said second connector , to fill said gap ; i) maintaining the vacuum in the container for a predetermined time (t) to allow the resin (R) to penetrate the gap and the cracks and/or defects (D) until the resin (R) is at least partially cured; j) disconnecting said first and second pipes from the container and removing the resin-reinforced block from said container . a) laying a sheet of flexible waterproof plastic material on a base resting on the ground and placing a block to be resin-reinforced on said sheet ; b) applying a plurality of spacer members to one or more walls of the block ; c) attaching a plurality of panels of rigid sheet material on the walls of the block with said spacer members interposed, to leave a gap between the panels and the walls of the block ; d) folding said sheet on the walls of the block covered with said panels , to form a container ; e) hermetically sealing said container ; f) applying at least one first connector to the outer surface of said container and connecting it to a vacuum pump via first pipes to create a negative pressure in said container ; g) applying at least one second connector , distinct from the first connector , and extending through said panels , to said container ; h) introducing a resin (R) in the liquid or pasty state into the container via second pipes connected to said container through said second connector , to fill said gap ; i) maintaining the vacuum in the container for a predetermined time (t) to allow the resin (R) to penetrate the gap and the cracks and/or defects (D) until the resin (R) is at least partially cured; j) disconnecting said first and second pipes from the container and removing the resin-reinforced block from said container .
A management device communicable with a plurality of terminals (SD1, SDn) configured to transmit data, with a plurality of destination devices (ASV1,ASVn,DBSV1,DBSVn) configured to perform respective predetermined processes based on the data transmitted from the terminals (SD1, SDn), and with a relay device arranged via networks between the terminals (SD1, SDn) and the destination devices (ASV1,ASVn,DBSV1,DBSVn), the management device comprising a processor and a memory coupled to the processor, wherein the processor is configured to: receive from the destination devices (ASV1,ASVn,DBSV1,DBSVn) a request regarding data required by individual ones of the destination devices (ASV1,ASVn,DBSV1,DBSVn), and store the request in the memory; and based on the request stored in the memory, generate a data integration instruction to instruct a relay device to integrate data items that are to be relayed to the destination devices (ASV1,ASVn,DBSV1,DBSVn) and transmit the data integration instruction to the relay device ; determine a priority order for the destination devices (ASV1,ASVn,DBSV1,DBSVn); monitor performance of a network between the terminals (SD1, SDn) and the relay device or performance of a network between the relay device and the destination devices; and generate a data relay instruction that instructs the relay device to transmit the integrated data items to the destination devices (ASV1,ASVn,DBSV1,DBSVn) at a frequency of data transmission designated for each of the destination devices (ASV1,ASVn,DBSV1,DBSVn) based on the result of the monitoring and the priority order; and transmit the data relay instruction to the relay device . receive from the destination devices (ASV1,ASVn,DBSV1,DBSVn) a request regarding data required by individual ones of the destination devices (ASV1,ASVn,DBSV1,DBSVn), and store the request in the memory; and based on the request stored in the memory, generate a data integration instruction to instruct a relay device to integrate data items that are to be relayed to the destination devices (ASV1,ASVn,DBSV1,DBSVn) and transmit the data integration instruction to the relay device ; determine a priority order for the destination devices (ASV1,ASVn,DBSV1,DBSVn); monitor performance of a network between the terminals (SD1, SDn) and the relay device or performance of a network between the relay device and the destination devices; and generate a data relay instruction that instructs the relay device to transmit the integrated data items to the destination devices (ASV1,ASVn,DBSV1,DBSVn) at a frequency of data transmission designated for each of the destination devices (ASV1,ASVn,DBSV1,DBSVn) based on the result of the monitoring and the priority order; and transmit the data relay instruction to the relay device .
A method of detecting an allelic form of a target, the method comprising: creating partitions collectively containing at least one first allelic form and a second allelic form of a target, each partition containing (i) a same pair of primers to prime amplification of the first and second allelic forms of the target, (ii) a same probe capable of binding specifically to each of the first and second allelic forms of the target and (iii) a competitor configured to bind selectively to the second allelic form relative to the at least one first allelic form and to block binding of the probe to the second allelic form, wherein the probe and the competitor are complementary to partially overlapping regions of the second allelic form of the target; amplifying the at least one first allelic form of the target in the partitions using the pair of primers; detecting a signal from a label of the probe while the label is contained by the partitions; and determining a number of partitions that are positive for the at least one first allelic form, or a number of partitions that are negative for the at least one first allelic form, based on the signal. creating partitions collectively containing at least one first allelic form and a second allelic form of a target, each partition containing (i) a same pair of primers to prime amplification of the first and second allelic forms of the target, (ii) a same probe capable of binding specifically to each of the first and second allelic forms of the target and (iii) a competitor configured to bind selectively to the second allelic form relative to the at least one first allelic form and to block binding of the probe to the second allelic form, wherein the probe and the competitor are complementary to partially overlapping regions of the second allelic form of the target; amplifying the at least one first allelic form of the target in the partitions using the pair of primers; detecting a signal from a label of the probe while the label is contained by the partitions; and determining a number of partitions that are positive for the at least one first allelic form, or a number of partitions that are negative for the at least one first allelic form, based on the signal.
A motor-vehicle headlamp comprising a lighting device having lighting elements and a cover connected downstream of the lighting device in the optical beam direction, the lighting elements of the lighting device being hidden behind the cover , the cover having an electrically activable cover element , which can be switched, as a function of an applied electric voltage, between at least one transparent state and a non-transparent state for the light emitted by the lighting device and which has an inner surface and an outer surface , characterized in that the cover comprises a partially transparent layer connected downstream of the electrically activable cover element in the optical beam direction, wherein the partially transparent layer has a reflectance for visible light of 10% to 40%.
An information measurement method, comprising: simultaneously transmitting a first measurement signal and a second measurement signal; receiving , as a first reflected signal, a signal obtained through reflecting the first measurement signal by a target, and receiving, as a second reflected signal, a signal obtained through reflecting the second measurement signal by the target; and calculating status information of the target based on a difference between the first measurement signal and the first reflected signal and a difference between the second measurement signal and the second reflected signal, wherein the status information comprises one or more of motion information and position information; wherein a relative change rate between the frequency of the first measurement signal and the frequency of the second measurement signal, in one measurement period, changes linearly with time; wherein the simultaneously transmitting a first measurement signal and a second measurement signal means that the transmission time interval between the first measurement signal and the second measurement signal is less than a target time interval. simultaneously transmitting a first measurement signal and a second measurement signal; receiving , as a first reflected signal, a signal obtained through reflecting the first measurement signal by a target, and receiving, as a second reflected signal, a signal obtained through reflecting the second measurement signal by the target; and calculating status information of the target based on a difference between the first measurement signal and the first reflected signal and a difference between the second measurement signal and the second reflected signal, wherein the status information comprises one or more of motion information and position information; wherein a relative change rate between the frequency of the first measurement signal and the frequency of the second measurement signal, in one measurement period, changes linearly with time; wherein the simultaneously transmitting a first measurement signal and a second measurement signal means that the transmission time interval between the first measurement signal and the second measurement signal is less than a target time interval.
An immediate release naproxen sodium formulation for use in a method for the treatment of pain, which method comprises administering said formulation to a fasted subject in need thereof so that the blood plasma concentration levels of naproxen range from and include at least 15-20 μg/ml in 10 minutes or less, wherein said formulation comprises an intragranular portion comprising naproxen sodium, and an extragranular portion comprising a carbonate compound in an amount from about 300 mg to 500 mg, wherein the mean particle size of the carbonate is from about 50 microns to about 200 microns, and wherein the mean particle size of the intragranular portion is from about 200 microns to about 400 microns. which method comprises administering said formulation to a fasted subject in need thereof so that the blood plasma concentration levels of naproxen range from and include at least 15-20 μg/ml in 10 minutes or less, wherein said formulation comprises an intragranular portion comprising naproxen sodium, and an extragranular portion comprising a carbonate compound in an amount from about 300 mg to 500 mg, wherein the mean particle size of the carbonate is from about 50 microns to about 200 microns, and wherein the mean particle size of the intragranular portion is from about 200 microns to about 400 microns.
A head chip comprising: an actuator plate having a plurality of ejection channels (Cle, C2e) respectively communicated with nozzle holes (H1, H2) and electrodes (Edc) disposed on inner walls of the respective ejection channels; a bonded plate to be bonded to the actuator plate , and having a liquid contact surface which, in operation, liquid that has entered the ejection channels (C1e, C2e) has contact with; an adhesive layer (AL1) disposed between the bonded plate and the actuator plate , and adapted to bond the bonded plate and the actuator plate to each other; and a protective film (P) adapted to cover continuously from inner walls of the respective ejection channels to at least a part of the liquid contact surface via an end surface of the adhesive layer exposed on the ejection channel side, a nozzle plate having the nozzle holes (H1, H2), wherein the bonded plate is disposed between the nozzle plate and the actuator plate , the bonded plate has communication holes adapted to respectively communicate the ejection channels (C1e, C2e) and the nozzle holes (H1, H2) with each other, wherein each communication hole has a slit-like shape and a size of the width of the communication hole in a longitudinal direction is larger than a size of the width of the ejection channel (C1e, C2e) in the longitudinal direction, and the actuator plate further has non-ejection channels (C1d, C2d) each disposed between the ejection channels adjacent to each other, and closed by the bonded plate . an actuator plate having a plurality of ejection channels (Cle, C2e) respectively communicated with nozzle holes (H1, H2) and electrodes (Edc) disposed on inner walls of the respective ejection channels; a bonded plate to be bonded to the actuator plate , and having a liquid contact surface which, in operation, liquid that has entered the ejection channels (C1e, C2e) has contact with; an adhesive layer (AL1) disposed between the bonded plate and the actuator plate , and adapted to bond the bonded plate and the actuator plate to each other; and a protective film (P) adapted to cover continuously from inner walls of the respective ejection channels to at least a part of the liquid contact surface via an end surface of the adhesive layer exposed on the ejection channel side, a nozzle plate having the nozzle holes (H1, H2), wherein the bonded plate is disposed between the nozzle plate and the actuator plate , the bonded plate has communication holes adapted to respectively communicate the ejection channels (C1e, C2e) and the nozzle holes (H1, H2) with each other, wherein each communication hole has a slit-like shape and a size of the width of the communication hole in a longitudinal direction is larger than a size of the width of the ejection channel (C1e, C2e) in the longitudinal direction, and the actuator plate further has non-ejection channels (C1d, C2d) each disposed between the ejection channels adjacent to each other, and closed by the bonded plate .
A one-sided electrode for a secondary battery, comprising: a current collector; an electrode mixture layer applied on one surface of the current collector; and an electrode distortion-preventing layer formed on the other side of the current collector on which no electrode mixture is applied, wherein the current collector and the electrode distortion-preventing layer are integrally formed as a clad metal; wherein a tensile strength of the electrode distortion-preventing layer is 80% to 120% of a tensile strength of the electrode mixture layer; and wherein the electrode distortion-preventing layer is made of a metal that is different from a material of the current collector, and the thickness of the electrode mixture layer is between 40 μm and 300 μm, a current collector; an electrode mixture layer applied on one surface of the current collector; and an electrode distortion-preventing layer formed on the other side of the current collector on which no electrode mixture is applied, wherein the current collector and the electrode distortion-preventing layer are integrally formed as a clad metal; wherein a tensile strength of the electrode distortion-preventing layer is 80% to 120% of a tensile strength of the electrode mixture layer; and wherein the electrode distortion-preventing layer is made of a metal that is different from a material of the current collector, and the thickness of the electrode mixture layer is between 40 μm and 300 μm,