mhurhangee/patent-ind-claim-en huggingface dataset:
A method for Discontinuous Reception, DRX, operation, the method comprising: while a user equipment, UE, is in Discontinuous Reception, DRX, operation in an LTE_ACTlVE state, waking up a receiver of the UE; characterised in that the method further comprises: checking if a current time is a preconfigured wake up time, the preconfigured wake up time corresponding to a radio frame number equal to a radio frame offset plus N times a DRX interval, wherein N is an integer greater than or equal to zero; if the current time is the preconfigured wake up time, checking whether a Continuous Reception Command has been received at the UE, wherein if a Continuous Reception Command has been received, the method comprises deactivating DRX and going to continuous reception, or if a Continuous Reception Command has not been received, the method comprises reactivating the DRX; and if the current time is not the preconfigured wake up time, reactivating the DRX. while a user equipment, UE, is in Discontinuous Reception, DRX, operation in an LTE_ACTlVE state, waking up a receiver of the UE; characterised in that the method further comprises: checking if a current time is a preconfigured wake up time, the preconfigured wake up time corresponding to a radio frame number equal to a radio frame offset plus N times a DRX interval, wherein N is an integer greater than or equal to zero; if the current time is the preconfigured wake up time, checking whether a Continuous Reception Command has been received at the UE, wherein if a Continuous Reception Command has been received, the method comprises deactivating DRX and going to continuous reception, or if a Continuous Reception Command has not been received, the method comprises reactivating the DRX; and if the current time is not the preconfigured wake up time, reactivating the DRX. checking if a current time is a preconfigured wake up time, the preconfigured wake up time corresponding to a radio frame number equal to a radio frame offset plus N times a DRX interval, wherein N is an integer greater than or equal to zero; if the current time is the preconfigured wake up time, checking whether a Continuous Reception Command has been received at the UE, wherein if a Continuous Reception Command has been received, the method comprises deactivating DRX and going to continuous reception, or if a Continuous Reception Command has not been received, the method comprises reactivating the DRX; and if the current time is not the preconfigured wake up time, reactivating the DRX.
A powder formed by "core-shell" type particles comprising a core and N shell(s), where N is an integer greater than or equal to 1, said shell(s) covering the core; the core and said shell(s) each comprising a crystalline coordination polymer of the respective formula (TR (i) X) ∞ , where for any i ranging from 0 to N, TR (i) represents a rare earth trivalent cation or a mixture of rare earth trivalent cations, the consecutive TR (i) s having a different composition, at least two of the TR (i) s respectively comprising at least one luminescent rare earth cation; and where X represents a ligand adapted to the formation of coordination polymers; said powder being likely to be obtained by a method comprising the following successive steps: - providing a ligand X salt and TR (i) salts, the ligand X salt being provided so as to be at least in stoichiometric proportions with respect to the cumulative set of TR (i) s for the formation of the coordination polymers (TR (i) X) ∞ ; - mixing the TR salt with the ligand X salt, to form a coordination polymer precipitate of the formula (TR X) ∞ by precipitation; and, - for any j ranging from 0 to N-1, adding the TR (j+1) salt in order to form said (j+1) th shell (TR (j+1) X) ∞ covering (TR (j) X) ∞ by precipitation and epitaxial growth. the core and said shell(s) each comprising a crystalline coordination polymer of the respective formula (TR (i) X) ∞ , where for any i ranging from 0 to N, TR (i) represents a rare earth trivalent cation or a mixture of rare earth trivalent cations, the consecutive TR (i) s having a different composition, at least two of the TR (i) s respectively comprising at least one luminescent rare earth cation; and where X represents a ligand adapted to the formation of coordination polymers; said powder being likely to be obtained by a method comprising the following successive steps: - providing a ligand X salt and TR (i) salts, the ligand X salt being provided so as to be at least in stoichiometric proportions with respect to the cumulative set of TR (i) s for the formation of the coordination polymers (TR (i) X) ∞ ; - mixing the TR salt with the ligand X salt, to form a coordination polymer precipitate of the formula (TR X) ∞ by precipitation; and, - for any j ranging from 0 to N-1, adding the TR (j+1) salt in order to form said (j+1) th shell (TR (j+1) X) ∞ covering (TR (j) X) ∞ by precipitation and epitaxial growth. - providing a ligand X salt and TR (i) salts, the ligand X salt being provided so as to be at least in stoichiometric proportions with respect to the cumulative set of TR (i) s for the formation of the coordination polymers (TR (i) X) ∞ ; - mixing the TR salt with the ligand X salt, to form a coordination polymer precipitate of the formula (TR X) ∞ by precipitation; and, - for any j ranging from 0 to N-1, adding the TR (j+1) salt in order to form said (j+1) th shell (TR (j+1) X) ∞ covering (TR (j) X) ∞ by precipitation and epitaxial growth.
An actuation system for driving a probe of a scanning probe microscope, the system comprising: an optical system arranged to illuminate the probe at two or more locations on the probe; actuation light sources arranged to generate first and second beams ; and a modulation system arranged to modulate the intensity of the illumination differently at the two or more locations, wherein the optical system comprises a lens arranged to receive the first and second beams and direct them onto the probe at first and second locations, characterised in that the modulation system is arranged to modulate the intensity of the illumination at the first location in accordance with a first drive signal, and the modulation system is arranged to modulate the intensity of the illumination at the second location in accordance with a second drive signal which is different to the first drive signal.
A turboengine blading component , comprising at least one receiving platform member and at least one received airfoil member , the receiving platform member comprising at least one receiver opening, the received airfoil member comprising a body and at least one fixation post extending from said body , the fixation post being received in a receiver opening of the receiving platform member and forming a joint with the receiving platform member inside the receiver opening, wherein at least one retainer cavity is formed at the joint, the retainer cavity being comprised of at least one first retainer groove provided at an inner surface of the receiver opening and at least one second retainer groove provided on a surface of the fixation post , said retainer cavity having a cross section and a lengthwise extent, a retainer member being provided in the retainer cavity , the retainer member having a cross section and a longitudinal extent, wherein the longitudinal extent of the retainer member is aligned with the lengthwise extent of the retainer cavity , wherein further the retainer cavity is arranged and configured such that the retainer member is displaceable within the retainer cavity along the lengthwise extent, characterized in that the retainer cavity is open at two front faces and the lengthwise extent extends between said two open front faces and the open front faces of the retainer cavity are provided at the joint of the fixation post and the receiving platform member , wherein the fixation post and the receiver opening are arranged and configured such as to allow access to the open front faces of the retainer cavity from within the receiver opening, and wherein spaces are provided inside the receiver opening adjacent at the open front faces, which enable applying a pushing force through one of the open front faces at one end of the retainer member , thereby displacing the retainer member from the retainer cavity into said space through the other of the open front faces by a displacement along the lengthwise extent.
A method of processing a biological sample, the method comprising: disrupting a biological sample in a sample disrupter to produce a first disrupted biological sample; and acoustically separating larger components from smaller components in the first disrupted biological sample in an acoustic separator comprising an inlet and an outlet that are in fluid communication with the sample disrupter; characterized in that the method further comprises assessing, by feedback monitoring, the degree of disruption of the acoustically separated larger components and smaller components with a detector at the outlet of the acoustic separator that is configured to convey the acoustically separated larger components back to the sample disrupter in response to the feedback monitoring. disrupting a biological sample in a sample disrupter to produce a first disrupted biological sample; and acoustically separating larger components from smaller components in the first disrupted biological sample in an acoustic separator comprising an inlet and an outlet that are in fluid communication with the sample disrupter; characterized in that the method further comprises assessing, by feedback monitoring, the degree of disruption of the acoustically separated larger components and smaller components with a detector at the outlet of the acoustic separator that is configured to convey the acoustically separated larger components back to the sample disrupter in response to the feedback monitoring.
An apparatus for cooling and/or for heat recovery having at least one heat exchanger , wherein a plurality of heat exchanger modules , which can be assembled together, each have a heat exchanger and the heat exchanger modules can be assembled together in such a way that the heat exchangers thereof can be operated in parallel, wherein each heat exchanger module has a housing which surrounds the heat exchanger and has an air inlet opening and an air outlet opening at each of the end faces , whereby each of the successive heat exchanger modules has two air inlet openings and two air outlet openings , wherein the air inlet openings and the air outlet openings of successive heat exchanger modules are situated one above the other and the heat exchanger modules have the common supply air duct and the common exhaust air duct , wherein the air inlet openings and the air outlet openings of successive heat exchanger modules can be equally supplied by the common exhaust air guide and the common supply air guide in parallel with the respective supply air and exhaust air, wherein the heat exchanger modules are assigned a common wetting water reservoir for wetting water, which has at least one pump , by means of which the wetting water from the wetting water reservoir can be fed to the heat exchanger modules , wherein the wetting water reservoir also has a housing , as a result of which the heat exchanger modules can be stacked one on top of the other on the wetting water reservoir and the heat exchanger modules stacked one on top of the other and the wetting water reservoir can be coupled together to form a unit.
An electrosurgical instrument for the electrocoagulation of tissue, comprising a jaw part which has two instrument branches of which at least one is movable in relation to the other so that the jaw part can be brought into an opened position or into a closed position, wherein facing sides of the instrument branches are respectively configured as grip faces for the clamping hold of tissue to be coagulated in the closed position and have at least one electrode face each, wherein the grip faces are configured to be electrically insulating; the at least one electrode face is arranged in the grip face of the respective instrument branch ; and the at least one electrode face is sunk in relative to the grip face thereof on at least one instrument branch ; characterized in that the grip faces are in the form of a net-like matrix having insulating grip face lands and clearances located therebetween and exposing the electrode faces .
A set of shafts for an aircraft turbomachine, the set comprising: - a first shaft comprising external splines oriented parallel to an axis (A) of rotation of the shaft, - a second shaft comprising internal splines complementary to said external splines, this second shaft being axially engaged with the first shaft and these shafts rotating as one by engagement of their splines, and - a system for axially locking the shafts with respect to one another, characterised in that said system comprises screws which are oriented radially with respect to said axis, each of these screws being screwed into a first orifice of one of the shafts and comprising a free end capable of being engaged in a second orifice of the other of the shafts, each of these screws being movable by screwing from a first radial position in which its free end is engaged in the said second orifice and ensures axial locking of the shafts, and a second radial position in which its free end is disengaged from said second orifice and ensures axial unlocking of the shafts. - a first shaft comprising external splines oriented parallel to an axis (A) of rotation of the shaft, - a second shaft comprising internal splines complementary to said external splines, this second shaft being axially engaged with the first shaft and these shafts rotating as one by engagement of their splines, and - a system for axially locking the shafts with respect to one another,
Control arm for the articulated connection of a flap holder to a flap, folding flap, door or the like, the control arm having at least a first telescopic arm and a second telescopic arm guided adjustably thereon for adjusting its length, and the control arm having at least one fixing device for fixing the position of the two telescopic arms relative to one another wherein the control arm is associated with a detent connection acting in the direction of its length change between the telescopic arms , which detent connection has at least two or more detent positions arranged along the length change of the control arm and spaced apart by a detent distance (42.5), wherein on at least one of the telescopic arms , latching receptacles (42.4) of the latching connection are arranged, in which a resiliently mounted latching element of the latching connection engages, wherein in a first operating position, the locking device is designed to lock the latching element in a first of the latching receptacles (42.4), characterized in that the locking device has a blocking element which, in the first operating position, is in engagement with a further one of the latching receptacles (42.4) and, in a second operating position in which the latching element is not blocked by the locking device in the first latching receptacle, is out of engagement with the further latching receptacle (42.4).
Mobile device for heating spaces, comprising a heating battery provided with one or more radiant elements in which a heated heat transfer fluid flows, and associated with a control panel configured to regulate and control the functioning of said heating battery , a thermal protection assembly positioned between said heating battery and said control panel and configured to allow an increase in heat exchange of the heating battery with the surrounding space and a decrease in heat exchange with the control panel , said heating battery having at least one free surface facing said control panel and in contact with the space that surrounds the mobile device, said thermal protection assembly comprising at least one heat exchange zone , disposed between said heating battery and said control panel and created thanks to the reciprocal distancing between said heating battery and said control panel , said control panel being positioned on a support which allows it to be distanced from said heating battery and to at least partly create said heat exchange zone , said mobile device being characterized in that said thermal protection assembly comprises at least one metal box-like element positioned between said heating battery and said support , around which said heat exchange zone is at least partly created.
Method for producing a spray jet from a liquid/gas mixture with a two-component nozzle (10; 60; 70; 80) having a nozzle housing (12; 72), with the steps of blending a supplied liquid and a supplied gas and producing a spray jet consisting of gas and liquid drops, producing at least one gas jet and mixing the gas jet with the spray jet, wherein the spray jet has a core jet and an outer jet surrounding the core jet, wherein the gas jet is first of all mixed with the core jet of the spray jet, characterized by introducing the gas jet into a core jet of the spray jet in the form of a plurality of partial flows, wherein the plurality of partial flows have a main movement component which is directed radially outwards with respect to a central longitudinal axis of the spray jet.
A microbial cell expressing a mutant AlkB enzyme, the mutant AlkB enzyme comprising at least one point mutation in the wild type sequence of AlkB, wherein the point mutation is at amino acid position V129 and/or T136 of the wild type AlkB enzyme, wherein the point mutation at amino acid V129 is selected from the group consisting of V129T and V129A, wherein the wild type AlkB comprises a polypeptide with sequence identity of at least 60% to a polypeptide SEQ ID NO: 1. wherein the point mutation at amino acid V129 is selected from the group consisting of V129T and V129A, wherein the wild type AlkB comprises a polypeptide with sequence identity of at least 60% to a polypeptide SEQ ID NO: 1.
An instrument accessory device , comprising: a body having a proximal end , a distal end , a longitudinal axis , and a wall defining an instrument lumen extending between the proximal end and the distal end along the longitudinal axis of the body , the instrument lumen having an inlet and an outlet at the respective proximal end and distal end of the body , the instrument lumen configured to slidingly receive a length of an instrument extendible therethrough; an expandable member disposed about the wall at the distal end of the body , the expandable member extending between a proximal end and a distal end along a longitudinal axis of the expandable member ; an elongate delivery member attached to the body and in communication with the expandable member at a distal end of the delivery member , the delivery member configured to slide the instrument lumen of the body and the expandable member along the length of the instrument when extended therethrough; a handle at a proximal end of the elongate delivery member ; and a stylet having a cap at a proximal end of the stylet , the cap reversibly coupled to the handle . a body having a proximal end , a distal end , a longitudinal axis , and a wall defining an instrument lumen extending between the proximal end and the distal end along the longitudinal axis of the body , the instrument lumen having an inlet and an outlet at the respective proximal end and distal end of the body , the instrument lumen configured to slidingly receive a length of an instrument extendible therethrough; an expandable member disposed about the wall at the distal end of the body , the expandable member extending between a proximal end and a distal end along a longitudinal axis of the expandable member ; an elongate delivery member attached to the body and in communication with the expandable member at a distal end of the delivery member , the delivery member configured to slide the instrument lumen of the body and the expandable member along the length of the instrument when extended therethrough; a handle at a proximal end of the elongate delivery member ; and a stylet having a cap at a proximal end of the stylet , the cap reversibly coupled to the handle .
Drill bit in cemented steel, characterized in that the drill bit is in a steel whose composition in weight percentages is: - 0.1% ≤ C ≤ 0.15%; - 0.8% ≤ Mn ≤ 2%; - 1% ≤ Cr ≤ 2.5%; - 0.2% ≤ Mo ≤ 0.6%; - trace elements ≤ Si ≤ 0.35%; - trace elements ≤ Ni ≤ 0.7%, - trace elements ≤ B ≤ 0.005%; - trace elements ≤ Ti ≤ 0.1%, - trace elements ≤ N ≤ 0.01% if 0.0005 % ≤ B ≤ 0.005%, and trace elements ≤ N ≤ 0.02 % if trace elements ≤ B ≤ 0.0005 %; - trace elements ≤ Al ≤ 0.1%; - trace elements ≤ V ≤ 0.3%; - trace elements ≤ P ≤ 0.025%; - trace elements ≤ Cu ≤ 1%, preferably ≤ 0.6%; - trace elements ≤ S ≤ 0.1%; the remainder being iron and impurities resulting from production and it has undergone cementation. - 0.1% ≤ C ≤ 0.15%; - 0.8% ≤ Mn ≤ 2%; - 1% ≤ Cr ≤ 2.5%; - 0.2% ≤ Mo ≤ 0.6%; - trace elements ≤ Si ≤ 0.35%; - trace elements ≤ Ni ≤ 0.7%, - trace elements ≤ B ≤ 0.005%; - trace elements ≤ Ti ≤ 0.1%, - trace elements ≤ N ≤ 0.01% if 0.0005 % ≤ B ≤ 0.005%, and trace elements ≤ N ≤ 0.02 % if trace elements ≤ B ≤ 0.0005 %; - trace elements ≤ Al ≤ 0.1%; - trace elements ≤ V ≤ 0.3%; - trace elements ≤ P ≤ 0.025%; - trace elements ≤ Cu ≤ 1%, preferably ≤ 0.6%; - trace elements ≤ S ≤ 0.1%;
A sidelink communication method, comprising: receiving, by a first terminal device, a physical sidelink shared channel, PSSCH, sent by a second terminal device; obtaining, by the first terminal device, sidelink control information, SCI, sent by the second terminal device; characterized by determining, by the first terminal device, a transmission resource of a sidelink reference signal according to a transmission resource of the PSSCH when the SCI indicates to send the sidelink reference signal. receiving, by a first terminal device, a physical sidelink shared channel, PSSCH, sent by a second terminal device; obtaining, by the first terminal device, sidelink control information, SCI, sent by the second terminal device; characterized by determining, by the first terminal device, a transmission resource of a sidelink reference signal according to a transmission resource of the PSSCH when the SCI indicates to send the sidelink reference signal.
A system in a datacenter comprising: two or more sensors , each sensor being configured to: capture a packet; describe the packet in a packet log; send the packet log to a collector ; the collector being configured to: receive such packet logs from the two or more sensors ; determine that the packet logs describe a connection between two endpoints in the datacenter; describe the connection in a flow log; and an analytics module configured to: receive the flow log from the collector ; determine a status of the datacenter using the flow log; detect an attack that originated from within the datacenter based on the determined status of the datacenter; and modify a security policy based on the status of the datacenter. two or more sensors , each sensor being configured to: capture a packet; describe the packet in a packet log; send the packet log to a collector ; capture a packet; describe the packet in a packet log; send the packet log to a collector ; the collector being configured to: receive such packet logs from the two or more sensors ; determine that the packet logs describe a connection between two endpoints in the datacenter; describe the connection in a flow log; and determine that the packet logs describe a connection between two endpoints in the datacenter; describe the connection in a flow log; and an analytics module configured to: receive the flow log from the collector ; determine a status of the datacenter using the flow log; detect an attack that originated from within the datacenter based on the determined status of the datacenter; and modify a security policy based on the status of the datacenter. receive the flow log from the collector ; determine a status of the datacenter using the flow log; detect an attack that originated from within the datacenter based on the determined status of the datacenter; and modify a security policy based on the status of the datacenter.