mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, wherein the method comprises: receiving , by a centralized unit, a data packet sent in a multicast manner; generating , by the centralized unit, a packet data convergence protocol, PDCP, data unit based on the data packet, wherein the PDCP data unit comprises the data packet and a PDCP header; and sending , by the centralized unit, the PDCP data unit to a distributed unit; wherein the data packet comprises a synchronization protocol header and a payload, and in the data packet, the payload is located after the synchronization protocol header, and in the PDCP data unit, the payload is located after the PDCP header, and the synchronization protocol header is located after the payload, or in the PDCP data unit, the PDCP header is located after the synchronization protocol header, and the payload is located after the PDCP header; or the data packet comprises a first synchronization packet data unit, the first synchronization packet data unit comprises a synchronization protocol header and a payload, and in the first synchronization packet data unit, the payload is located after the synchronization protocol header; in the PDCP data unit, the PDCP header is located before a second synchronization packet data unit; and the second synchronization packet data unit is obtained by reversing a bit stream of the first synchronization packet data unit; or in the data packet, the synchronization protocol header is located after the payload; and in the PDCP data unit, the PDCP header is located before the payload. receiving , by a centralized unit, a data packet sent in a multicast manner; generating , by the centralized unit, a packet data convergence protocol, PDCP, data unit based on the data packet, wherein the PDCP data unit comprises the data packet and a PDCP header; and sending , by the centralized unit, the PDCP data unit to a distributed unit; wherein the data packet comprises a synchronization protocol header and a payload, and in the data packet, the payload is located after the synchronization protocol header, and in the PDCP data unit, the payload is located after the PDCP header, and the synchronization protocol header is located after the payload, or in the PDCP data unit, the PDCP header is located after the synchronization protocol header, and the payload is located after the PDCP header; or the data packet comprises a first synchronization packet data unit, the first synchronization packet data unit comprises a synchronization protocol header and a payload, and in the first synchronization packet data unit, the payload is located after the synchronization protocol header; in the PDCP data unit, the PDCP header is located before a second synchronization packet data unit; and the second synchronization packet data unit is obtained by reversing a bit stream of the first synchronization packet data unit; or in the data packet, the synchronization protocol header is located after the payload; and in the PDCP data unit, the PDCP header is located before the payload.
A coloured effect pigment, comprising - a substrate made of aluminium or an aluminium alloy which is optionally coated with one or more passivation layers, and - an aluminium-doped iron oxide layer. - a substrate made of aluminium or an aluminium alloy which is optionally coated with one or more passivation layers, and - an aluminium-doped iron oxide layer.
An isolated or recombinant integrin alpha 5 (ITGA5) binding peptide consisting of 6 to 25 amino acids and comprising an amino acid sequence TTVRYYRITYGETGGN or comprising a variant of said amino acid sequence, said variant: - consisting of 6-16 consecutive amino acids of said sequence, said 6-16 consecutive amino acids comprising at least the amino acids at positions 5-10 of said sequence, and - having up to one substitution of an amino acid selected from amino acids at positions 1, 2, 3, 4, 5, 7, 8, 10, 11, 12, 13, 14, 15 and 16 of said sequence by another amino acid. - consisting of 6-16 consecutive amino acids of said sequence, said 6-16 consecutive amino acids comprising at least the amino acids at positions 5-10 of said sequence, and - having up to one substitution of an amino acid selected from amino acids at positions 1, 2, 3, 4, 5, 7, 8, 10, 11, 12, 13, 14, 15 and 16 of said sequence by another amino acid.
Apparatus for manufacturing filled containers including a transport unit that is suitable and designed for transporting containers that are filled with a liquid and are closed with a closure cap , including a penetration unit that is suitable and designed for generating an opening in at least an area of the closure cap and/or of the container , including an application unit that applies a flowable and in particular gaseous medium to an internal space of the container through the opening and a closing unit , which closes the opening , wherein the closing unit has an ultrasound generation unit , the ultrasound generation unit has a processing head that can be fed towards the opening , with a surface that can be turned towards the opening , characterised in that the surface is formed concave curved for urging molten material in the direction of the opening and that the ultrasound generation unit includes a sonotrode, wherein two sonotrode elements with concave curved surfaces are provided on the processing head . the ultrasound generation unit has a processing head that can be fed towards the opening , with a surface that can be turned towards the opening , characterised in that the surface is formed concave curved for urging molten material in the direction of the opening and that the ultrasound generation unit includes a sonotrode, wherein two sonotrode elements with concave curved surfaces are provided on the processing head .
A lactic acid bacterium belonging to genus Lactobacillus with Accession No. NITE BP-02005 in NITE Patent Microorganisms Depositary (NPMD) of Incorporated Administrative Agency National Institute of Technology and Evaluation (NITE).
A heating control apparatus that controls heating of a conveyance member configured to convey a planar conveyed object in a state in which the planar conveyed object is in close contact with a conveyance surface including an adhesive layer, the heating control apparatus comprising: a heat source configured to radiate heat to the conveyance member , the heat source being disposed to face an area of conveyance surface of the conveyance member on which the planar conveyed object is not contact; a shielding member provided to be movable forward and backward between a shielding position at which radiation of heat from the heat source to the conveyance member is shielded and a position retracted from the shielding position; and a control means configured to perform control to advance the shielding member to the shielding position in a case where it is instructed that conveyance of the conveyance member is stopped. a heat source configured to radiate heat to the conveyance member , the heat source being disposed to face an area of conveyance surface of the conveyance member on which the planar conveyed object is not contact; a shielding member provided to be movable forward and backward between a shielding position at which radiation of heat from the heat source to the conveyance member is shielded and a position retracted from the shielding position; and a control means configured to perform control to advance the shielding member to the shielding position in a case where it is instructed that conveyance of the conveyance member is stopped.
A polymer composition, the composition comprising: a) from 90 % to 99 % of an olefin polymer by weight of the composition; and b) from 1 % to 10 % of a bonding agent comprising vinyl alcohol based polymer and a pozzolanic material, by weight of the composition. a) from 90 % to 99 % of an olefin polymer by weight of the composition; and b) from 1 % to 10 % of a bonding agent comprising vinyl alcohol based polymer and a pozzolanic material, by weight of the composition.
A method for wireless communication by a User Equipment, UE , comprising: determining one or more System Frame Number, SFN, hypotheses, each of the one or more SFN hypotheses representing a possible SFN at which the UE can wake up from a sleep state of a Discontinuous Reception, DRX, cycle; for at least one of the one or more SFN hypotheses: generating a detection metric based at least partially on a Physical Broadcast Control Channel, PBCH, sequence received from a base station ; and determining , based on a value of the detection metric, whether the at least one SFN hypothesis represents a current SFN in accordance with a clock source used by the base station for communicating with the UE ; determining , based on the at least one SFN hypothesis, a timing to be used for communicating with the base station , when the at least one SFN hypothesis is determined as representing the current SFN; and communicating with the base station based on the determined timing. determining one or more System Frame Number, SFN, hypotheses, each of the one or more SFN hypotheses representing a possible SFN at which the UE can wake up from a sleep state of a Discontinuous Reception, DRX, cycle; for at least one of the one or more SFN hypotheses: generating a detection metric based at least partially on a Physical Broadcast Control Channel, PBCH, sequence received from a base station ; and determining , based on a value of the detection metric, whether the at least one SFN hypothesis represents a current SFN in accordance with a clock source used by the base station for communicating with the UE ; generating a detection metric based at least partially on a Physical Broadcast Control Channel, PBCH, sequence received from a base station ; and determining , based on a value of the detection metric, whether the at least one SFN hypothesis represents a current SFN in accordance with a clock source used by the base station for communicating with the UE ; determining , based on the at least one SFN hypothesis, a timing to be used for communicating with the base station , when the at least one SFN hypothesis is determined as representing the current SFN; and communicating with the base station based on the determined timing.
An on-vehicle display device comprising: an image display unit for displaying graphically various data indicating states of the vehicle; wiring boards mounting a control circuit for controlling the image display unit ; a magnesium alloy case of which front recess receives the image display unit , and of which rear recess receives the wiring boards ; a shield member attached to the magnesium alloy case so as to cover the rear recess; and a sun shade disposed in front of the front recess receiving the image display unit ; and a front cover attached to the sun shade , wherein the magnesium alloy case is thermally coupled to the image display unit and works as a heat radiating device, and wherein the magnesium alloy case is electrically coupled to the shield member and works as an electromagnetic shield device together with the shield member . an image display unit for displaying graphically various data indicating states of the vehicle; wiring boards mounting a control circuit for controlling the image display unit ; a magnesium alloy case of which front recess receives the image display unit , and of which rear recess receives the wiring boards ; a shield member attached to the magnesium alloy case so as to cover the rear recess; and a sun shade disposed in front of the front recess receiving the image display unit ; and a front cover attached to the sun shade , wherein the magnesium alloy case is thermally coupled to the image display unit and works as a heat radiating device, and wherein the magnesium alloy case is electrically coupled to the shield member and works as an electromagnetic shield device together with the shield member .
An operating method for a portable electronic device , the portable electronic device comprising a body and edge sensors disposed adjacent to edges of the body of the portable device, on a first side (S3) and a second side (S4) of the body, the first side (S3) being opposite to the second side (S4), the operating method comprising: determining whether a first squeezing action sensed by the edge sensors corresponds to an effective squeezing action according to the force of the first squeezing action, a first squeezing threshold (TH1), and a first releasing threshold (TH2), wherein the first releasing threshold (TH2) is smaller than the first squeezing threshold (TH1), the first squeezing threshold (TH1) is configured to determine the begin of the effective squeezing action and the first releasing threshold (TH2) is configured to determine the finish of the effective squeezing action; and performing a predefined function in response to determining that the first squeezing action corresponds to the effective squeezing action; wherein the force of the first squeezing action reaches the first squeezing threshold (TH1) at a first time point (TM2) and the force of the first squeezing action decreases to the first releasing threshold (TH2) at a second time point (TM3), wherein the predefined function is performed according to a first time period (PT1) between the first time point (TM2) and the second time point (TM3) and the first squeezing action corresponds to the effective squeezing action. determining whether a first squeezing action sensed by the edge sensors corresponds to an effective squeezing action according to the force of the first squeezing action, a first squeezing threshold (TH1), and a first releasing threshold (TH2), wherein the first releasing threshold (TH2) is smaller than the first squeezing threshold (TH1), the first squeezing threshold (TH1) is configured to determine the begin of the effective squeezing action and the first releasing threshold (TH2) is configured to determine the finish of the effective squeezing action; and performing a predefined function in response to determining that the first squeezing action corresponds to the effective squeezing action;
A bioink composition for a dermis regeneration sheet, the bioink composition comprising: a first liquid comprising an adipose tissue-derived stromal vascular fraction, an adipose tissue-derived extracellular matrix, and fibrinogen, wherein a content of the adipose tissue-derived extracellular matrix in the first liquid is 20 wt% to 60 wt%; and a second liquid comprising thrombin, wherein a concentration of thrombin in the second liquid is 40 IU/ml to 250 IU/ml. a first liquid comprising an adipose tissue-derived stromal vascular fraction, an adipose tissue-derived extracellular matrix, and fibrinogen, wherein a content of the adipose tissue-derived extracellular matrix in the first liquid is 20 wt% to 60 wt%; and a second liquid comprising thrombin, wherein a concentration of thrombin in the second liquid is 40 IU/ml to 250 IU/ml.
A drive mechanism of a drug delivery device for dispensing of a dose of a medicament, the mechanism comprising: - an elongated housing extending in an axial direction , - a piston rod to operably engage with a piston of a cartridge to displace the piston in axial distal direction , characterized by - a drive wheel axially fixed to the housing , engaged with the piston rod and rotatable relative to the housing for driving the piston rod in distal direction , - wherein the drive wheel comprises a threaded orifice threadedly engaged with an outer threaded portion of the piston rod , or - wherein the piston rod with its outer threaded portion is threadedly engaged with a guiding portion of the housing and wherein the piston rod is rotatably engaged with the drive wheel , wherein the outer threaded portion is intersected by at least one longitudinally extending groove that is engaged with a correspondingly-shaped radially inwardly extending protrusion of the drive wheel , - a drive sleeve axially displaceable relative to the drive wheel to rotatably engage with the drive wheel in a distal dose dispensing position and to disengage from the drive wheel in a proximal dose setting position, - wherein the drive sleeve is rotatably secured to the housing in the proximal dose setting position by means of a ratchet member . - an elongated housing extending in an axial direction , - a piston rod to operably engage with a piston of a cartridge to displace the piston in axial distal direction , characterized by - a drive wheel axially fixed to the housing , engaged with the piston rod and rotatable relative to the housing for driving the piston rod in distal direction , - wherein the drive wheel comprises a threaded orifice threadedly engaged with an outer threaded portion of the piston rod , or - wherein the piston rod with its outer threaded portion is threadedly engaged with a guiding portion of the housing and wherein the piston rod is rotatably engaged with the drive wheel , wherein the outer threaded portion is intersected by at least one longitudinally extending groove that is engaged with a correspondingly-shaped radially inwardly extending protrusion of the drive wheel , - wherein the drive wheel comprises a threaded orifice threadedly engaged with an outer threaded portion of the piston rod , or - wherein the piston rod with its outer threaded portion is threadedly engaged with a guiding portion of the housing and wherein the piston rod is rotatably engaged with the drive wheel , wherein the outer threaded portion is intersected by at least one longitudinally extending groove that is engaged with a correspondingly-shaped radially inwardly extending protrusion of the drive wheel , - a drive sleeve axially displaceable relative to the drive wheel to rotatably engage with the drive wheel in a distal dose dispensing position and to disengage from the drive wheel in a proximal dose setting position, - wherein the drive sleeve is rotatably secured to the housing in the proximal dose setting position by means of a ratchet member .
An optical scanning device, comprising: a pivotable reflecting unit ; a light-emitting unit that emits a detection light toward the reflecting unit; a detection unit that receives the detection light, which is reflected at the reflecting unit; and a light-blocking unit that is provided with a plurality of slits (s) wherethrough the detection light passes; wherein the light-blocking unit is provided on an optical path whereby the detection light reflected from the reflecting unit advances to the detection unit , each slit (s) of the light-blocking unit has an aspect ratio of a length (D) in a direction along which the optical path extends, of the slit (s) to a width (W), in a direction along a pivoting direction of the reflecting unit , of an opening end portion of the slit (s) that is not less than 1, and the detection unit is configured to detect a pivot angle (θ) of the reflecting unit by receiving the detection light that passes through the slits (s), wherein the light-blocking unit includes a first support member , a second support member , a plurality of slit members interposed in a stacked manner between the first support member and the second support member , and partitioning members between adjacent slit members, each slit (s) being formed by a portion surrounded by 1 two of the first support member , the second support member , and the partitioning members , and two of the slit members . a pivotable reflecting unit ; a light-emitting unit that emits a detection light toward the reflecting unit; a detection unit that receives the detection light, which is reflected at the reflecting unit; and a light-blocking unit that is provided with a plurality of slits (s) wherethrough the detection light passes; wherein the light-blocking unit is provided on an optical path whereby the detection light reflected from the reflecting unit advances to the detection unit , each slit (s) of the light-blocking unit has an aspect ratio of a length (D) in a direction along which the optical path extends, of the slit (s) to a width (W), in a direction along a pivoting direction of the reflecting unit , of an opening end portion of the slit (s) that is not less than 1, and the detection unit is configured to detect a pivot angle (θ) of the reflecting unit by receiving the detection light that passes through the slits (s), wherein the light-blocking unit includes a first support member , a second support member , a plurality of slit members interposed in a stacked manner between the first support member and the second support member , and partitioning members between adjacent slit members, each slit (s) being formed by a portion surrounded by 1 two of the first support member , the second support member , and the partitioning members , and two of the slit members .
Control system for controlling at least one propeller of a compound rotorcraft , said control system generating a control order for controlling, collectively, a pitch of the blades of said at least one propeller , said control system comprising: • a first piloting control making it possible for a first control setpoint to be generated; • a second piloting control making it possible for at least one second control setpoint different from said first control setpoint to be generated, and • a control unit configured to generate said control order depending on said first control setpoint and said second control setpoint, said control unit implementing a control law generating said control order as a function of said first control setpoint and said second control setpoint, characterised in that , in said control law, said first control setpoint is representative of a first control parameter and said second control setpoint is representative of a second control parameter corresponding to a primitive of said first control parameter. said control system comprising: • a first piloting control making it possible for a first control setpoint to be generated; • a second piloting control making it possible for at least one second control setpoint different from said first control setpoint to be generated, and • a control unit configured to generate said control order depending on said first control setpoint and said second control setpoint, said control unit implementing a control law generating said control order as a function of said first control setpoint and said second control setpoint, • a first piloting control making it possible for a first control setpoint to be generated; • a second piloting control making it possible for at least one second control setpoint different from said first control setpoint to be generated, and • a control unit configured to generate said control order depending on said first control setpoint and said second control setpoint, said control unit implementing a control law generating said control order as a function of said first control setpoint and said second control setpoint, characterised in that , in said control law, said first control setpoint is representative of a first control parameter and said second control setpoint is representative of a second control parameter corresponding to a primitive of said first control parameter.