mhurhangee/patent-ind-claim-en huggingface dataset:
A color-scanning grating-based backlight comprising: a plate light guide configured to guide a beam of light ; a multibeam diffraction grating configured to diffractively couple out a portion of the guided light beam as a plurality of coupled-out light beams directed away from a surface of the plate light guide at a predetermined principal angular direction, a light beam of the plurality of coupled-out light beams having a different principal angular direction from other light beams of the coupled-out light beam plurality; and a multicolor light source configured to provide light to the plate light guide as the guided light beam according to a color scanning protocol, wherein provided light of a first color in a first region of the plate light guide is separated from provided light of a second color in a second region of the plate light guide, one or both by an intervening dark region of the plate light guide and by a light-confining wall of the plate light guide. a plate light guide configured to guide a beam of light ; a multibeam diffraction grating configured to diffractively couple out a portion of the guided light beam as a plurality of coupled-out light beams directed away from a surface of the plate light guide at a predetermined principal angular direction, a light beam of the plurality of coupled-out light beams having a different principal angular direction from other light beams of the coupled-out light beam plurality; and a multicolor light source configured to provide light to the plate light guide as the guided light beam according to a color scanning protocol, wherein provided light of a first color in a first region of the plate light guide is separated from provided light of a second color in a second region of the plate light guide, one or both by an intervening dark region of the plate light guide and by a light-confining wall of the plate light guide.
A catheter system comprising a jugular catheter , the jugular catheter comprises: - a flexible, axially hollow shaft having a proximal end and an opposite distal end ; - a support element , which is fixedly associated with said proximal end , has a passage substantially coaxial with said shaft characterised in that the catheter system further comprises a positioning needle adapted to extend through the passage in the shaft and wherein said positioning needle has a tip , slightly projecting out of the distal end of the shaft when the needle is inserted into the passage of the shaft in a ready-for introduction state, and configured to be introduced in the jugular vein through the neck of a patient, and wherein the positioning needle further comprises a support element equipped with an additional element wherein a filter avoiding back flows is accommodated, and in that said shaft of the jugular catheter has both: - a calibrated length (L1) ranging from 5.5 cm to 10 cm and an outside diameter ranging from 1,2 mm to 2,8 mm (12 Gauge to 18 Gauge) - a flexible, axially hollow shaft having a proximal end and an opposite distal end ; - a support element , which is fixedly associated with said proximal end , has a passage substantially coaxial with said shaft - a calibrated length (L1) ranging from 5.5 cm to 10 cm and an outside diameter ranging from 1,2 mm to 2,8 mm (12 Gauge to 18 Gauge)
A computer implemented method for automated configuration deployment in network operations systems of a communication network, the method performed in an automation system, the method comprising receiving a start deployment request , wherein the start deployment request comprises identification of a target item and a work definition, wherein the work definition comprises information about a physical change that is being made in the communication network; responsive to the start deployment request, starting a process corresponding to the work definition; deleting from the network operations systems any already existing configuration concerning the target item ; fetching a new configuration for the target item from a design system; and deploying the new configuration in the network operations systems . receiving a start deployment request , wherein the start deployment request comprises identification of a target item and a work definition, wherein the work definition comprises information about a physical change that is being made in the communication network; responsive to the start deployment request, starting a process corresponding to the work definition; deleting from the network operations systems any already existing configuration concerning the target item ; fetching a new configuration for the target item from a design system; and deploying the new configuration in the network operations systems .
A data center computation node comprising: a processor executing a control plane node of a cellular telecommunications network; a memory storing a stored identifier of a last encapsulated control message received from an access point; an agent configured, for an encapsulated control message received from an access point , to check a received identifier of the encapsulated control message and to ignore the encapsulated control message if the received identifier is lower than the stored identifier of the last encapsulated control message received from the access point ; characterized in that the agent is configured to: establish a lock on a persistent store of state of the control plane node, before the control message is processed by the control plane node; process the control message using the control plane node executing at the processor; update the persistent store to reflect a current state of the control plane node before releasing the lock; and send an acknowledgement message comprising the received identifier of the encapsulated control message, to the access point , after processing the control message by the control plane node. a processor executing a control plane node of a cellular telecommunications network; a memory storing a stored identifier of a last encapsulated control message received from an access point; an agent configured, for an encapsulated control message received from an access point , to check a received identifier of the encapsulated control message and to ignore the encapsulated control message if the received identifier is lower than the stored identifier of the last encapsulated control message received from the access point ; establish a lock on a persistent store of state of the control plane node, before the control message is processed by the control plane node; process the control message using the control plane node executing at the processor; update the persistent store to reflect a current state of the control plane node before releasing the lock; and send an acknowledgement message comprising the received identifier of the encapsulated control message, to the access point , after processing the control message by the control plane node.
A composition or kit-of-parts comprising: (i) a first composition comprising an amount of cationic liposomes free, or essentially free, of nucleic acid molecules; (ii) a second composition comprising: an amount of non-viral expression vectors, wherein said non-viral expression vectors are CpG-free or CpG-reduced, and wherein said non-viral expression vectors each comprise a first nucleic acid sequence encoding: i) a first therapeutic protein, and/or ii) a first biologically active nucleic acid molecule, and (iii) dexamethasone palmitate or dexamethasone, wherein said dexamethasone palmitate or dexamethasone is part of said first and/or second composition, or present in a third composition. (i) a first composition comprising an amount of cationic liposomes free, or essentially free, of nucleic acid molecules; (ii) a second composition comprising: an amount of non-viral expression vectors, wherein said non-viral expression vectors are CpG-free or CpG-reduced, and wherein said non-viral expression vectors each comprise a first nucleic acid sequence encoding: i) a first therapeutic protein, and/or ii) a first biologically active nucleic acid molecule, and (iii) dexamethasone palmitate or dexamethasone, wherein said dexamethasone palmitate or dexamethasone is part of said first and/or second composition, or present in a third composition.
A cervical orthotic with a U-shaped frame , which is intended and designed to rest on a patient's chest, with a chin rest which is U-shaped and at its two end regions is connected via a pivot connection to the end regions of the U-shaped frame , and with a support for the back of the head, which support is connected or is connectable to the U-shaped frame in order to, together with the U-shaped frame , close the cervical orthotic in a ring-like fashion, the frame and the chin rest being connected to one another in front of the pivot connection via a height-adjustable fixing device , the height-adjustable fixing device having at least one catch rail with at least two catch openings for locking the chin rest at least at two different heights, the height-adjustable fixing device having at least one retainer , which is operatively connected to a compression spring in such a way that the retainer engages in one of the catch openings in the catch rail , and the retainer being connected via an elongate unlocking connection to an unlocking element displaceable against the pressure direction of the compression spring , characterised in that the catch rail is fixedly connected to the chin rest .
Device for packaging and dispensing a composition sensitive to oxidation by atmospheric oxygen, comprising - a body formed at least partially from a sheet of a multilayer complex, comprising within one layer at least one pulverulent filler in a mass proportion, within the layer, of preferably greater than or equal to 5% - a cap which is fitted on a neck secured to the body comprising a central protrusion which is inserted into the neck to reduce the dead volume therein when the device is closed, the central protrusion coming into sealing contact with the internal surface of the neck at the base of the latter, or at the base of the latter and close to its upper end, and being closed by an end face. - a body formed at least partially from a sheet of a multilayer complex, comprising within one layer at least one pulverulent filler in a mass proportion, within the layer, of preferably greater than or equal to 5% - a cap which is fitted on a neck secured to the body comprising a central protrusion which is inserted into the neck to reduce the dead volume therein when the device is closed, the central protrusion coming into sealing contact with the internal surface of the neck at the base of the latter, or at the base of the latter and close to its upper end, and being closed by an end face.
A communication method performed by a terminal, comprising: receiving at least first indication information from a network device, wherein the first indication information indicates a time-frequency resource and a modulation and coding scheme MCS of first data, the time-frequency resource comprises a first time-frequency resource and a second time-frequency resource, the first time-frequency resource is a time-frequency resource carrying the first data, and the second time-frequency resource is a time-frequency resource carrying second data; determining the first time-frequency resource, the second time-frequency resource, and an MCS of the second data, wherein at least one of the first time-frequency resource, the second time-frequency resource, or the MCS of the second data is determined based on the at least first indication information; and sending the first data to the network device on the first time-frequency resource based on the MCS of the first data, and sending the second data to the network device on the second time-frequency resource based on the MCS of the second data; or receiving the first data from the network device on the first time-frequency resource based on the MCS of the first data, and receiving the second data from the network device on the second time-frequency resource based on the MCS of the second data, wherein the first data and the second data are transmitted in a same physical channel. receiving at least first indication information from a network device, wherein the first indication information indicates a time-frequency resource and a modulation and coding scheme MCS of first data, the time-frequency resource comprises a first time-frequency resource and a second time-frequency resource, the first time-frequency resource is a time-frequency resource carrying the first data, and the second time-frequency resource is a time-frequency resource carrying second data; determining the first time-frequency resource, the second time-frequency resource, and an MCS of the second data, wherein at least one of the first time-frequency resource, the second time-frequency resource, or the MCS of the second data is determined based on the at least first indication information; and sending the first data to the network device on the first time-frequency resource based on the MCS of the first data, and sending the second data to the network device on the second time-frequency resource based on the MCS of the second data; or receiving the first data from the network device on the first time-frequency resource based on the MCS of the first data, and receiving the second data from the network device on the second time-frequency resource based on the MCS of the second data, wherein the first data and the second data are transmitted in a same physical channel.
A method for performing a random access process in an unlicensed band, the method comprising: transmitting, by a wireless device , a random access preamble; and receiving, by the wireless device , a random access response as a response to the random access preamble, wherein the random access response includes an uplink resource allocation assigned to a transmission of a scheduled message, a timing advance command, TAC, to be applied to the transmission of the scheduled message, and a listen before talk, LBT, parameter to be applied to a LBT operation for the transmission of the scheduled message; and sensing, by the wireless device , a channel based on the LBT parameter before transmitting the scheduled message, wherein based on the LBT parameter indicating a first LBT scheme, the scheduled message is transmitted by the wireless device after the channel is sensed to be idle for a predefined time, and based on the LBT parameter indicating a second LBT scheme, the scheduled message is transmitted by the wireless device after the channel is sensed to be idle for a channel detection time which is randomly selected by the wireless device . transmitting, by a wireless device , a random access preamble; and receiving, by the wireless device , a random access response as a response to the random access preamble, wherein the random access response includes an uplink resource allocation assigned to a transmission of a scheduled message, a timing advance command, TAC, to be applied to the transmission of the scheduled message, and a listen before talk, LBT, parameter to be applied to a LBT operation for the transmission of the scheduled message; and sensing, by the wireless device , a channel based on the LBT parameter before transmitting the scheduled message, wherein based on the LBT parameter indicating a first LBT scheme, the scheduled message is transmitted by the wireless device after the channel is sensed to be idle for a predefined time, and based on the LBT parameter indicating a second LBT scheme, the scheduled message is transmitted by the wireless device after the channel is sensed to be idle for a channel detection time which is randomly selected by the wireless device .
A pulverulent composition preparable by contacting a powder with 0.01 to 50 wt%, based on the overall mass of the composition, of a liquid component comprising at least one copolymer obtainable by polymerizing a mixture of monomers comprising (I) at least one ethylenically unsaturated monomer which comprises at least one radical from the series carboxylic acid, carboxylic salt, carboxylic ester, carboxylic amide, carboxylic anhydride, and carboxylic imide and (II) at least one ethylenically unsaturated monomer having a polyalkylene oxide radical, the liquid component comprising at least 1 wt% of the at least one copolymer and at least 30 wt% of an organic solvent, and the powder which is contacted with the liquid component comprising no inorganic binder, wherein the powder is coated with the liquid component. (I) at least one ethylenically unsaturated monomer which comprises at least one radical from the series carboxylic acid, carboxylic salt, carboxylic ester, carboxylic amide, carboxylic anhydride, and carboxylic imide and (II) at least one ethylenically unsaturated monomer having a polyalkylene oxide radical,
Toggle fixing for fixing to a panel, having a crosspiece which has a screw hole for screwing in a screw transversely with respect to the crosspiece , and having a strip pivotally connected to the crosspiece for handling the toggle fixing during fixing, which strip is pivotable into a position in which it projects from the crosspiece and into a position longitudinal with respect to the crosspiece and at a side of the crosspiece , characterised by a counter-bearing on the strip , against which the crosspiece is supported in a pushing direction of the strip once the strip has been pivoted into the position longitudinal with respect to the crosspiece at the side of the crosspiece .
Computer-implemented method for configuring a control device (CTL) for a technical system (TS), wherein a) an operating signal (BS) of the technical system is fed into a first machine learning module (NN1) that is trained, on the basis of the operating signal (BS) of the technical system, to reproduce a behaviour signal of the technical system that arises specifically without current application of a control action and to output the reproduced behaviour signal (VSR1) as first output signal, b) the first output signal (VSR1) is fed into a second machine learning module (NN2) that is trained, on the basis of a control action signal (AS) that specifies or triggers a control action of the technical system, to reproduce a resultant behaviour signal of the technical system and to output the reproduced behaviour signal (VSR2) as second output signal, c) the operating signal (BS) of the technical system is fed into a third machine learning module (NN3), d) a third output signal (AS) of the third machine learning module (NN3) is fed into the trained second machine learning module (NN2), e) a control action performance (Q) is determined on the basis of the second output signal (VSR2), f) the third machine learning module (NN3) is trained to optimize the control action performance (Q) on the basis of the operating signal (BS) of the technical system, and g) the control device (CTL) is configured, on the basis of the third machine learning module (NN3), to control the technical system by way of an output signal (AS) of the trained third machine learning module (NN3). a) an operating signal (BS) of the technical system is fed into a first machine learning module (NN1) that is trained, on the basis of the operating signal (BS) of the technical system, to reproduce a behaviour signal of the technical system that arises specifically without current application of a control action and to output the reproduced behaviour signal (VSR1) as first output signal, b) the first output signal (VSR1) is fed into a second machine learning module (NN2) that is trained, on the basis of a control action signal (AS) that specifies or triggers a control action of the technical system, to reproduce a resultant behaviour signal of the technical system and to output the reproduced behaviour signal (VSR2) as second output signal, c) the operating signal (BS) of the technical system is fed into a third machine learning module (NN3), d) a third output signal (AS) of the third machine learning module (NN3) is fed into the trained second machine learning module (NN2), e) a control action performance (Q) is determined on the basis of the second output signal (VSR2), f) the third machine learning module (NN3) is trained to optimize the control action performance (Q) on the basis of the operating signal (BS) of the technical system, and g) the control device (CTL) is configured, on the basis of the third machine learning module (NN3), to control the technical system by way of an output signal (AS) of the trained third machine learning module (NN3).
Method to validate a dynamic security code (DSC) generated for a payment transaction, said method comprising the steps of: - providing for a given payment transaction a dynamic security code (DSC) associated to an identifier of said transaction; - verifying using a verification memory if the provided dynamic security code (DSC) has already been validated when associated to the same associated identifier and if yes, refuse the payment transaction; - if not, verifying the validity of the provided dynamic security code (DSC) by searching the provided dynamic security code (DSC) within a range of acceptable dynamic security codes (DSC); - if the provided dynamic security code (DSC) is valid, memorizing in the verification memory the provided dynamic security code (DSC), the associated identifier of the payment transaction; wherein the step of verifying if the provided dynamic security code (DSC) has already been validated when associated to the same associated identifier considers a range of dynamic security codes (DSC) memorized in the verification memory, this range of dynamic security codes (DSC) being the same as the range used in the step of verifying the validity of the provided dynamic security code (DSC); wherein the range of dynamic security codes (DSC) is a range of dynamic security codes considered valid; wherein the range of dynamic security codes further takes into consideration circumstances for the reception of the provided dynamic security code, said circumstances including a type of transaction being performed, or a communication method through which the transaction was received; wherein the range of dynamic security codes considered valid - is increased when the type of transaction is batch, and decreased when a single transaction is received; or - is increased when the communication method of the transaction is a regular file based transmission and decreased when the communication method is a direct Internet-based communication. - providing for a given payment transaction a dynamic security code (DSC) associated to an identifier of said transaction; - verifying using a verification memory if the provided dynamic security code (DSC) has already been validated when associated to the same associated identifier and if yes, refuse the payment transaction; - if not, verifying the validity of the provided dynamic security code (DSC) by searching the provided dynamic security code (DSC) within a range of acceptable dynamic security codes (DSC); - if the provided dynamic security code (DSC) is valid, memorizing in the verification memory the provided dynamic security code (DSC), the associated identifier of the payment transaction; - is increased when the type of transaction is batch, and decreased when a single transaction is received; or - is increased when the communication method of the transaction is a regular file based transmission and decreased when the communication method is a direct Internet-based communication.