mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: using, by a network apparatus, a time division multiple access technique with a fixed slot structure on an air interface, the fixed slot structure having a fixed starting time of a transmission of an uplink burst in relation to a time slot allocated for the transmission and defining a fixed guard period between two uplink bursts in two consecutive slots; providing at least one cell controlled by the network apparatus with a minimum path delay value for the cell or information with which the minimum path delay value may for the cell be determined by the network apparatus; if the minimum path delay value is zero, scheduling, by the network apparatus, sending of synchronization burst using the fixed starting time; and if the minimum path delay value is bigger than zero, calculating, by the network apparatus, a shifting time, in the at least one cell based on the minimum path delay value and scheduling sending of synchronization bursts using a time obtained by adding to the fixed starting time the shifting time. using, by a network apparatus, a time division multiple access technique with a fixed slot structure on an air interface, the fixed slot structure having a fixed starting time of a transmission of an uplink burst in relation to a time slot allocated for the transmission and defining a fixed guard period between two uplink bursts in two consecutive slots; providing at least one cell controlled by the network apparatus with a minimum path delay value for the cell or information with which the minimum path delay value may for the cell be determined by the network apparatus; if the minimum path delay value is zero, scheduling, by the network apparatus, sending of synchronization burst using the fixed starting time; and if the minimum path delay value is bigger than zero, calculating, by the network apparatus, a shifting time, in the at least one cell based on the minimum path delay value and scheduling sending of synchronization bursts using a time obtained by adding to the fixed starting time the shifting time.
A crystalline Form A of nintedanib diethanesulfonate represented by Formula (II), wherein the X-ray powder diffraction spectrum of the crystalline Form A has diffraction peaks expressed by 2θ values at 14.64, 18.79, 19.31, 20.11, 21.20, 22.45 and 26.71 degrees.
An antifoulant formulation comprising: (a) at least one ammonium salt of linear alkyl benzene sulphonic acid; (b) at least one aromatic hydrocarbon; (c) at least one diluent; (d) polyisobutylene succinic anhydride; and (e) at least one alkyl amine. (a) at least one ammonium salt of linear alkyl benzene sulphonic acid; (b) at least one aromatic hydrocarbon; (c) at least one diluent; (d) polyisobutylene succinic anhydride; and (e) at least one alkyl amine.
A liquid discharging apparatus , comprising: a carriage ; a discharging unit that includes a nozzle row (N) configured to discharge a liquid and which is mounted to the carriage that is adapted to reciprocate in a first direction (B) that intersects the nozzle row; a transport unit that is adapted to intermittently transport a medium (P) in a second direction (A) that intersects the first direction, wherein the liquid discharging apparatus is adapted to form an adjustment pattern (P) for adjusting a transport amount of one transport in intermittent transport, and the adjustment pattern is formed using both of an outward direction movement pattern formed while moving the discharging unit in the outward direction (B1) from the first direction and a return direction movement pattern formed while moving the discharging unit in the return direction (B2) from the first direction, wherein the adjustment pattern includes a reference pattern (P1) formed from one of the outward direction movement pattern and the return direction movement pattern, and a transport amount adjustment pattern (P2) formed after the medium is transported a predetermined amount after the reference pattern is formed, and along therewith formed from the other of the outward direction movement pattern and the return direction movement pattern; and wherein the transport amount adjustment pattern (P2) is formed at a position overlapping the reference pattern (P1) when viewed from the second direction. a carriage ; a discharging unit that includes a nozzle row (N) configured to discharge a liquid and which is mounted to the carriage that is adapted to reciprocate in a first direction (B) that intersects the nozzle row; a transport unit that is adapted to intermittently transport a medium (P) in a second direction (A) that intersects the first direction, wherein the liquid discharging apparatus is adapted to form an adjustment pattern (P) for adjusting a transport amount of one transport in intermittent transport, and the adjustment pattern is formed using both of an outward direction movement pattern formed while moving the discharging unit in the outward direction (B1) from the first direction and a return direction movement pattern formed while moving the discharging unit in the return direction (B2) from the first direction, wherein the adjustment pattern includes a reference pattern (P1) formed from one of the outward direction movement pattern and the return direction movement pattern, and a transport amount adjustment pattern (P2) formed after the medium is transported a predetermined amount after the reference pattern is formed, and along therewith formed from the other of the outward direction movement pattern and the return direction movement pattern; and wherein the transport amount adjustment pattern (P2) is formed at a position overlapping the reference pattern (P1) when viewed from the second direction.
A dry film structure, comprising: a carrier substrate comprising at least one plastic film; and a photosensitive polymeric layer supported by the carrier substrate, in which the photosensitive polymeric layer comprises at least one fully imidized polyimide polymer and the at least one fully imidized polyimide polymer is at least 90% imidized; wherein the photosensitive polymeric layer has a film thickness of at most 5 μm (microns). a carrier substrate comprising at least one plastic film; and a photosensitive polymeric layer supported by the carrier substrate, in which the photosensitive polymeric layer comprises at least one fully imidized polyimide polymer and the at least one fully imidized polyimide polymer is at least 90% imidized; wherein the photosensitive polymeric layer has a film thickness of at most 5 μm (microns).
Hand-held power tool , having a drive unit for driving a receivable insert tool that can be operated by means of the hand-held power tool , and having an open-loop or closed-loop control unit for controlling the drive unit by open-loop or closed-loop control, characterized in that a first sensor unit has a first image sensor which is oriented toward an operator of the hand-held power tool , and in that the first sensor unit is configured to sense vital data, in particular a heart rate and/or a state of fatigue, or an accessory means, in particular safety eyewear, of the operator and to process same by means of the open-loop or closed-loop control unit in such a manner that the drive unit is controlled, by open-loop or closed-loop control, in dependence on the sensed data, and in that at least one second sensor unit , which is spaced apart from the first sensor unit , is oriented toward the work area.
An intravascular renal neuromodulation catheter, comprising: an elongated shaft having a proximal portion and a distal portion, wherein the distal portion of the shaft is configured for intravascular delivery to a renal artery of a human patient; a conformable portion at the distal portion of the shaft and a shaping member disposed through the conformable portion, wherein the conformable portion is moveable between- a delivery arrangement, when the shaping member is removed from the central lumen; and a treatment arrangement, when the shaping member is received within the central lumen; a plurality of electrodes carried by the conformable portion; and a delivery guide wire configured to deliver the conformable portion to the renal artery, wherein the elongated shaft comprises: a guide wire lumen configured to receive the guide wire; and a control member lumen configured to receive the shaping member, and wherein the guide wire lumen and the control member lumen merge together into the central lumen. an elongated shaft having a proximal portion and a distal portion, wherein the distal portion of the shaft is configured for intravascular delivery to a renal artery of a human patient; a conformable portion at the distal portion of the shaft and a shaping member disposed through the conformable portion, wherein the conformable portion is moveable between- a delivery arrangement, when the shaping member is removed from the central lumen; and a treatment arrangement, when the shaping member is received within the central lumen; a delivery arrangement, when the shaping member is removed from the central lumen; and a treatment arrangement, when the shaping member is received within the central lumen; a plurality of electrodes carried by the conformable portion; and a delivery guide wire configured to deliver the conformable portion to the renal artery, wherein the elongated shaft comprises: a guide wire lumen configured to receive the guide wire; and a control member lumen configured to receive the shaping member, and wherein the guide wire lumen and the control member lumen merge together into the central lumen. a guide wire lumen configured to receive the guide wire; and a control member lumen configured to receive the shaping member, and wherein the guide wire lumen and the control member lumen merge together into the central lumen.
An information transmission method, comprising: determining (S201), by a terminal device at a moment n, that a beam failure occurs on a physical downlink control channel PDCCH on a first control resource set; and if the terminal device detects (S203), within a first time period after the moment n, that channel quality of the PDCCH on the first control resource set meets a first preset condition, canceling, by the terminal device, sending of beam failure recovery request information, and/or stopping, by the terminal device, timing of a beam failure recovery clock; wherein an end moment of the first time period is earlier than or equal to a moment at which the terminal device receives reconfigured quasi co-location QCL assumption information for the first time after receiving beam failure recovery response information. determining (S201), by a terminal device at a moment n, that a beam failure occurs on a physical downlink control channel PDCCH on a first control resource set; and if the terminal device detects (S203), within a first time period after the moment n, that channel quality of the PDCCH on the first control resource set meets a first preset condition, canceling, by the terminal device, sending of beam failure recovery request information, and/or stopping, by the terminal device, timing of a beam failure recovery clock; wherein an end moment of the first time period is earlier than or equal to a moment at which the terminal device receives reconfigured quasi co-location QCL assumption information for the first time after receiving beam failure recovery response information.
A cartridge for an ultrasonic medical instrument, comprising: a cartridge housing detachably mounted on a handpiece; a first movement unit accommodated in the cartridge housing, and configured such that a first movable body reciprocates in a first axial direction; a second movement unit coupled to one side of the first movable body, of which a location in the first axial direction is changed by the first movement unit, and configured such that a second movable body reciprocates in a second axial direction that is perpendicular to the first axial direction; and an ultrasonic wave generating unit coupled to the second movable body, and configured to generate high-intensity focused ultrasound having a specific focusing distance, wherein a disposition location of the second movement unit in the first axial direction in the cartridge is set according to a location movement of the first movable body, wherein the second movement unit includes a piezoelectric motor driven based on an electrical signal by a power source, and wherein the first movement unit and the second movement unit are controlled by a controller included in the handpiece or a body, to which the handpiece is connected, characterized in that the piezoelectric motor is a piezoelectric rotary motor coupled to the first movement body, the piezoelectric rotary motor has a driving shaft disposed along the second axial direction, and the second movement body is installed to be reciprocally movable in the second axial direction through rotation of the driving shaft. a cartridge housing detachably mounted on a handpiece; a first movement unit accommodated in the cartridge housing, and configured such that a first movable body reciprocates in a first axial direction; a second movement unit coupled to one side of the first movable body, of which a location in the first axial direction is changed by the first movement unit, and configured such that a second movable body reciprocates in a second axial direction that is perpendicular to the first axial direction; and an ultrasonic wave generating unit coupled to the second movable body, and configured to generate high-intensity focused ultrasound having a specific focusing distance, wherein a disposition location of the second movement unit in the first axial direction in the cartridge is set according to a location movement of the first movable body, wherein the second movement unit includes a piezoelectric motor driven based on an electrical signal by a power source, and wherein the first movement unit and the second movement unit are controlled by a controller included in the handpiece or a body, to which the handpiece is connected, characterized in that the piezoelectric motor is a piezoelectric rotary motor coupled to the first movement body, the piezoelectric rotary motor has a driving shaft disposed along the second axial direction, and the second movement body is installed to be reciprocally movable in the second axial direction through rotation of the driving shaft.
A reading device for identifying a tag or an object adapted to be identified, said reading device comprising: a first reading element for reading a first set of identification features located in the tag or the object adapted to be identified, wherein the first reading element is a magneto-optical reading element adapted for reading magnetic features in the tag or object; and a second reading element for reading a second set of identification features located in the tag or the object adapted to be identified, wherein the second reading element is selected from the group consisting of a barcode scanner, a radio frequency identification tag reader, a character recognition reader, an optical image capturing system, a gaussmeter, a magnetometer, a fluorescence meter, a residumeter and a transponder; wherein the reading device is configured such that a first signal generated from reading the first set of identification features and a second signal generated from reading the second set of identification features are independently used to derive a first signature and a second signature for identifying the tag or object, wherein the magneto-optical reading element comprises at least one optical processing unit and at least one magneto-optical substrate ; characterized in that the first reading element comprises an engagement element for positioning the magneto-optical substrate over an area of the first set of identification features, wherein the engagement element surrounds the magneto-optical substrate. a first reading element for reading a first set of identification features located in the tag or the object adapted to be identified, wherein the first reading element is a magneto-optical reading element adapted for reading magnetic features in the tag or object; and a second reading element for reading a second set of identification features located in the tag or the object adapted to be identified, wherein the second reading element is selected from the group consisting of a barcode scanner, a radio frequency identification tag reader, a character recognition reader, an optical image capturing system, a gaussmeter, a magnetometer, a fluorescence meter, a residumeter and a transponder; wherein the reading device is configured such that a first signal generated from reading the first set of identification features and a second signal generated from reading the second set of identification features are independently used to derive a first signature and a second signature for identifying the tag or object, wherein the magneto-optical reading element comprises at least one optical processing unit and at least one magneto-optical substrate ; characterized in that the first reading element comprises an engagement element for positioning the magneto-optical substrate over an area of the first set of identification features, wherein the engagement element surrounds the magneto-optical substrate.
A composition comprising: (a) 10-20 wt% acidifying bacteria, (b) 30-40 wt% of an oxidising agent, (c) 5-15 wt% of an organic acid, and (d) 1-10 wt% of a chelating agent. (a) 10-20 wt% acidifying bacteria, (b) 30-40 wt% of an oxidising agent, (c) 5-15 wt% of an organic acid, and (d) 1-10 wt% of a chelating agent.
LED module for connection to a separate electronic ballast , ECG, the LED module having at least one row of series-connected LEDs which are supplied with a supply current (I) when connected to an ECG , wherein one or more of the LEDs in at least one of the rows are bridged with at least one thermal switch , and the thermal switch is arranged to short-circuit the at least one or more bypassed LEDs when a predetermined temperature is exceeded, wherein at least two LED groups are bridged by a respective thermal switch , each LED group comprising at least one LED , characterized in that the two thermal switches have different triggering temperatures and are arranged to short-circuit the respective bridged LEDs when they are exceeded.
A vinylidene-fluoride resin film comprising: a vinylidene-fluoride resin , and crosslinked acrylic acid ester resin particles , wherein the crosslinked acrylic acid ester resin particles have an average particle diameter (as measured according to the description) of 5% or more and 40% or less to a thickness of the vinylidene-fluoride resin film , and an arithmetic average surface roughness (Ra) (as measured according to the description) of the vinylidene-fluoride resin film is 0.4 μm or more and less than 2 μm. a vinylidene-fluoride resin , and crosslinked acrylic acid ester resin particles , wherein the crosslinked acrylic acid ester resin particles have an average particle diameter (as measured according to the description) of 5% or more and 40% or less to a thickness of the vinylidene-fluoride resin film , and an arithmetic average surface roughness (Ra) (as measured according to the description) of the vinylidene-fluoride resin film is 0.4 μm or more and less than 2 μm.
A method of assembling a tower section of a wind turbine tower , comprising the steps of - arranging the tower section of the wind turbine tower in a horizontal orientation; - transporting a damper unit to a position inside the tower section while the tower section is arranged in the horizontal orientation; and - mounting the damper unit to the tower section , wherein the damper unit is configured to damp motions of the wind turbine tower , wherein the damper unit extends in a longitudinal direction , characterized in that transporting the damper unit into the tower section comprises - orienting the damper unit such that its longitudinal direction is substantially parallel to a horizontal transport direction; - transporting the damper unit along the horizontal transport direction to a position inside the tower section ; and - rotating the damper unit while the damper unit is located inside the tower section such that its longitudinal direction is substantially perpendicular to the horizontal transport direction. - arranging the tower section of the wind turbine tower in a horizontal orientation; - transporting a damper unit to a position inside the tower section while the tower section is arranged in the horizontal orientation; and - mounting the damper unit to the tower section , wherein the damper unit is configured to damp motions of the wind turbine tower , - orienting the damper unit such that its longitudinal direction is substantially parallel to a horizontal transport direction; - transporting the damper unit along the horizontal transport direction to a position inside the tower section ; and - rotating the damper unit while the damper unit is located inside the tower section such that its longitudinal direction is substantially perpendicular to the horizontal transport direction.
A power line communication apparatus (10, 20, 30, 50, 110 -1 to 110 -n used in a power generation system, comprising: a positive input terminal (11, 21, 31, 51, 111 -1 to 111 -n ) to be connected to a positive pole of a generator; a negative input terminal (12, 22, 32, 52, 112 -1 to 112 -n ) to be connected to a negative pole of the generator; a positive output terminal (13, 23, 33, 53, 113 -1 to 113 -n ) to be connected to a downstream side of a power line in which power generated by the generator is be transmitted; a negative output terminal (14, 24, 34, 54, 114 -1 to 114 -n ) to be connected to an upstream side of the power line; a current pulse generator (15, 25, 35, 55, 115 -1 to 115 -n ) to be connected between the negative input terminal (12, 22, 32, 52, 112 -1 to 112 -n ) and the positive output terminal (13, 23, 33, 53, 113 -1 to 113 -n ), to generate a current pulse in the power line; and a controllable unidirectional device (16, 26, 36, 56, 116 -1 to 116 -n ) to be connected between the positive input terminal (11, 21, 31, 51, 111 -1 to 111 -n ) and the positive output terminal (13, 23, 33, 53, 113 -1 to 113 -n ), characterised in that the impedance is controllable by a switch which is different from components of the current pulse generator (15, 25, 35, 55, 115 -1 to 115 -n ). a positive input terminal (11, 21, 31, 51, 111 -1 to 111 -n ) to be connected to a positive pole of a generator; a negative input terminal (12, 22, 32, 52, 112 -1 to 112 -n ) to be connected to a negative pole of the generator; a positive output terminal (13, 23, 33, 53, 113 -1 to 113 -n ) to be connected to a downstream side of a power line in which power generated by the generator is be transmitted; a negative output terminal (14, 24, 34, 54, 114 -1 to 114 -n ) to be connected to an upstream side of the power line; a current pulse generator (15, 25, 35, 55, 115 -1 to 115 -n ) to be connected between the negative input terminal (12, 22, 32, 52, 112 -1 to 112 -n ) and the positive output terminal (13, 23, 33, 53, 113 -1 to 113 -n ), to generate a current pulse in the power line; and a controllable unidirectional device (16, 26, 36, 56, 116 -1 to 116 -n ) to be connected between the positive input terminal (11, 21, 31, 51, 111 -1 to 111 -n ) and the positive output terminal (13, 23, 33, 53, 113 -1 to 113 -n ), characterised in that the impedance is controllable by a switch which is different from components of the current pulse generator (15, 25, 35, 55, 115 -1 to 115 -n ).