mhurhangee/ep-ind-claims huggingface dataset:
Production plant which comprises in a row a thin-slab continuous casting plant upstream of a roller hearth furnace, the roller hearth furnace, which receives the cast strip or at least a part length separated therefrom of the cast strip, and a rolling train, which rolls out the cast strip heated or kept warm in the roller hearth furnace or the at least one part length separated therefrom and which is downstream of the roller hearth furnace, with an associated coiler, wherein the continuous casting plant and the rolling train are operable in an endless operating mode and wherein associated with the outlet side of the roller hearth furnace is a furnace ferry system arranged laterally of the roller hearth furnace and the rolling train comprises a first stand group and a second stand group, which is spaced therefrom, with a heating device, particularly induction heating means, arranged between the first and second stand groups (12, 13), and wherein in addition a first slab or strip separating device, particularly strip shears, preferably pendulating shears, is arranged at the inlet side in front of the roller path furnace in slab entry direction, and a second slab or strip separating device is arranged at the outlet side after the roller hearth furnace in strip exit direction and in front of a first stand group of the rolling train, wherein the second slab or strip separating device is constructed as a torch cutting device and wherein a third slab or strip separating device, which is constructed as a torch cutting device, is arranged in the outlet region of the roller hearth furnace in front of a length section, which corresponds preferably at least approximately with the length dimension of a furnace ferry of the furnace ferry system, and that a fourth slab or strip separating device, particularly strip shears, preferably drum shears, is arranged at the outlet side of the first stand group of the rolling train in strip running direction in front of the entry into the heating device.
An optical modulation device comprising: a driving circuit substrate; a plurality of reflectors located on the driving circuit substrate; a plurality of nano-antennas respectively located on the plurality of reflectors; an active layer located between the plurality of reflectors and the plurality of nano-antennas, wherein the active layer is patterned so as to have a plurality of openings therein; a first insulating layer located between the plurality of reflectors and the active layer; a second insulating layer located between the active layer and the plurality of nano-antennas; a plurality of first connection members which electrically connect the driving circuit substrate to the plurality of reflectors; and a plurality of second connection members which electrically connect the driving circuit substrate to the plurality of nano-antennas, and characterised in that via holes are formed in the first and second insulating layers, and in that the plurality of second connection members are formed in the via holes formed in the first and second insulating layers to pass through the plurality of openings of the active layer and be connected to the plurality of nano-antennas. a driving circuit substrate; a plurality of reflectors located on the driving circuit substrate; a plurality of nano-antennas respectively located on the plurality of reflectors; an active layer located between the plurality of reflectors and the plurality of nano-antennas, wherein the active layer is patterned so as to have a plurality of openings therein; a first insulating layer located between the plurality of reflectors and the active layer; a second insulating layer located between the active layer and the plurality of nano-antennas; a plurality of first connection members which electrically connect the driving circuit substrate to the plurality of reflectors; and a plurality of second connection members which electrically connect the driving circuit substrate to the plurality of nano-antennas, and characterised in that via holes are formed in the first and second insulating layers, and in that the plurality of second connection members are formed in the via holes formed in the first and second insulating layers to pass through the plurality of openings of the active layer and be connected to the plurality of nano-antennas.
A medical system comprising: one or more optical fiber sensors configured to be coupled to a patient's chest; and an ablation catheter; a controller configured to: determine orientation variables of the patient's body based on signals received from the one or more optical fiber sensors determine a property of respiration of the patient based on signals received from the one or more optical fiber sensors; and deliver ablation energy to the ablation catheter at the same point in the respiratory cycle of the patient. one or more optical fiber sensors configured to be coupled to a patient's chest; and an ablation catheter; a controller configured to: determine orientation variables of the patient's body based on signals received from the one or more optical fiber sensors determine a property of respiration of the patient based on signals received from the one or more optical fiber sensors; and deliver ablation energy to the ablation catheter at the same point in the respiratory cycle of the patient. determine orientation variables of the patient's body based on signals received from the one or more optical fiber sensors determine a property of respiration of the patient based on signals received from the one or more optical fiber sensors; and deliver ablation energy to the ablation catheter at the same point in the respiratory cycle of the patient.
A router, comprising: a motor assembly; comprising a motor housing and a driven shaft which may be configured to grip and hold a cutting tool a first rail and a second rail the motor assembly being capable of transversing along the rails (110A, 110B) in an axial direction: and a first rolling element pair (240A, 240B) mounted to the motor assembly and a second rolling element pair (242A, 242B) mounted to the motor assembly, wherein the first rolling element pair (240A, 240B) engages the first rail and the second rolling element pair (242A, 242B) engages the second rail; the router further comprising a housing comprising a top member and a base, wherein the first rail and the second rail are attached to inside walls of the housing; characterized in that the base has an aperture which allows the motor assembly to transverse downward in an axial direction to enable a cutting tool to penetrate through the aperture; wherein the first rail and the second rail are attached at one end to the top member and at an other end to the base. a motor assembly; comprising a motor housing and a driven shaft which may be configured to grip and hold a cutting tool a first rail and a second rail the motor assembly being capable of transversing along the rails (110A, 110B) in an axial direction: and a first rolling element pair (240A, 240B) mounted to the motor assembly and a second rolling element pair (242A, 242B) mounted to the motor assembly, wherein the first rolling element pair (240A, 240B) engages the first rail and the second rolling element pair (242A, 242B) engages the second rail; the router further comprising a housing comprising a top member and a base, wherein the first rail and the second rail are attached to inside walls of the housing; characterized in that the base has an aperture which allows the motor assembly to transverse downward in an axial direction to enable a cutting tool to penetrate through the aperture; wherein the first rail and the second rail are attached at one end to the top member and at an other end to the base.
A motor control device (400, 400B, 440C, 400D, 400E) configured to perform PWM control of an inverter that drives a three-phase brushless motor based on a current command value, comprising: a voltage command value computation unit configured to calculate a voltage command value (Duty_d; Duty_q) using a motor electric angle (Θe) acquired for each control cycle and a motor rotation speed acquired from the three-phase brushless motor for each control cycle, and the current command value (I ref_m) the motor control device being characterized in that it further comprises: an electric angle interpolation unit (240, 240B-240E) configured to estimate an interpolated electric angle (Θs) from the motor electric angle (Θe) at a division interval obtained by dividing the control cycle; a converter configured to calculate three-phase Duty command value (Duty_n) from the voltage command value (Duty_d; Duty_q) and the motor electric angle, and to calculate a three-phase interpolated Duty command value (Duty_n_m1) from the voltage command value (Duty_d; Duty_q) and the interpolated electric angle (Θs); and an output setting unit (160A-1) that switches and outputs the three-phase Duty command value (Duty_n) and the three-phase interpolated Duty command value (Duty_n_m1) in accordance with the division interval. an electric angle interpolation unit (240, 240B-240E) configured to estimate an interpolated electric angle (Θs) from the motor electric angle (Θe) at a division interval obtained by dividing the control cycle; a converter configured to calculate three-phase Duty command value (Duty_n) from the voltage command value (Duty_d; Duty_q) and the motor electric angle, and to calculate a three-phase interpolated Duty command value (Duty_n_m1) from the voltage command value (Duty_d; Duty_q) and the interpolated electric angle (Θs); and an output setting unit (160A-1) that switches and outputs the three-phase Duty command value (Duty_n) and the three-phase interpolated Duty command value (Duty_n_m1) in accordance with the division interval.
A sleeve for covering a roller for conveying glass panels, said sleeve being a fabric, said fabric comprising yarns, said yarns comprising both glass fibres or ceramic fibres and metal fibres, in which said fabric is a tubular fabric.
A method for utilizing operational capacity of container handling vehicles when assigned tasks of delivering or retrieving identified storage containers at same port of an automated storage and retrieval system comprising a framework structure defining a storage grid for storing storage containers in storage columns, and where the storage containers are handled by the container handling vehicles running on top of the storage grid, and where the port is used for transferring storage containers to and from the storage and retrieval system, characterised in that the following steps are performed by a control system communicating with a vehicle controller in each container handling vehicle: - assigning tasks without deadlines and with deadlines for the container handling vehicles to arrive at the port; - calculating end times and end positions of the container handling vehicles when the assigned tasks without a deadline complete; - checking if container handling vehicles can meet a deadline after first completing a task without a deadline; - ranking the tasks assigned to the container handling vehicles, where tasks that can meet the deadline, after first finishing a task without a deadline, are ranked first, and further according to arrival times of the container handling vehicles at the port; - executing tasks by communicating instructions to the container handling vehicles according to the ranking of tasks. - assigning tasks without deadlines and with deadlines for the container handling vehicles to arrive at the port; - calculating end times and end positions of the container handling vehicles when the assigned tasks without a deadline complete; - checking if container handling vehicles can meet a deadline after first completing a task without a deadline; - ranking the tasks assigned to the container handling vehicles, where tasks that can meet the deadline, after first finishing a task without a deadline, are ranked first, and further according to arrival times of the container handling vehicles at the port; - executing tasks by communicating instructions to the container handling vehicles according to the ranking of tasks.
A coating apparatus for applying an e-coat over an electrically conductive contoured surface of an article, the apparatus comprising: an arrangement for applying an electrodepositable coating composition having an electrical conductivity over the conductive contoured surface of the article, and an electrically conducting contact device (158, 164, 184) comprising a pair of jaw members (184, 186) biased toward one another, wherein at least one of the jaw members (184, 186) comprises an electrically conductive malleable material. an arrangement for applying an electrodepositable coating composition having an electrical conductivity over the conductive contoured surface of the article, and an electrically conducting contact device (158, 164, 184) comprising a pair of jaw members (184, 186) biased toward one another, wherein at least one of the jaw members (184, 186) comprises an electrically conductive malleable material.
A compound of the Formula wherein R 1 is methyl or ethyl; and R 2 is (C2-3)alkyl substituted by hydroxy; or a pharmaceutically-acceptable salt thereof. R 1 is methyl or ethyl; and R 2 is (C2-3)alkyl substituted by hydroxy;
A method of wireless communication performed by a user equipment, UE, comprising: receiving activation signaling for a configuration of a semi-persistent transmission procedure; activating the semi-persistent transmission procedure based at least in part on receiving the activation signaling; and deactivating the semi-persistent transmission procedure based at least in part on a deactivation time; detecting further transmission activity during the semi-persistent transmission procedure; and extending the semi-persistent transmission procedure based at least in part on detecting the further transmission activity; and characterised wherein deactivating the semi-persistent transmission procedure comprises deactivating the semi-persistent transmission procedure based at least in part on extending the semi-persistent transmission procedure. receiving activation signaling for a configuration of a semi-persistent transmission procedure; activating the semi-persistent transmission procedure based at least in part on receiving the activation signaling; and deactivating the semi-persistent transmission procedure based at least in part on a deactivation time; detecting further transmission activity during the semi-persistent transmission procedure; and extending the semi-persistent transmission procedure based at least in part on detecting the further transmission activity; and characterised wherein deactivating the semi-persistent transmission procedure comprises deactivating the semi-persistent transmission procedure based at least in part on extending the semi-persistent transmission procedure.
Method for controlling an elevator installed in a building, which elevator comprises - an elevator car, which is arranged to travel in the elevator hoistway between floor landings (F 1, F 2) that are at different heights, - one or more ropings (2, 2') connected to the elevator car, preferably at least a roping by which the elevator car is suspended, - a hoisting machine for moving the elevator car, - control means for controlling the hoisting machine, in which method these phases are performed: a) the sway data of the building is determined, which data describes the strength of the sway of the building, preferably by measuring the sway of the building or the excitation of the sway of the building, and b) the starting position data of the elevator car is determined, which starting position data contains data about the starting position of the elevator car and/or data about how long the elevator car has been in the starting position, and c) after performing phases a and b, the settings for the run speed of the next run are determined on the basis of the aforementioned starting position data and the aforementioned sway data. - an elevator car, which is arranged to travel in the elevator hoistway between floor landings (F 1, F 2) that are at different heights, - one or more ropings (2, 2') connected to the elevator car, preferably at least a roping by which the elevator car is suspended, - a hoisting machine for moving the elevator car, - control means for controlling the hoisting machine, in which method these phases are performed: a) the sway data of the building is determined, which data describes the strength of the sway of the building, preferably by measuring the sway of the building or the excitation of the sway of the building, and b) the starting position data of the elevator car is determined, which starting position data contains data about the starting position of the elevator car and/or data about how long the elevator car has been in the starting position, and c) after performing phases a and b, the settings for the run speed of the next run are determined on the basis of the aforementioned starting position data and the aforementioned sway data. a) the sway data of the building is determined, which data describes the strength of the sway of the building, preferably by measuring the sway of the building or the excitation of the sway of the building, and b) the starting position data of the elevator car is determined, which starting position data contains data about the starting position of the elevator car and/or data about how long the elevator car has been in the starting position, and c) after performing phases a and b, the settings for the run speed of the next run are determined on the basis of the aforementioned starting position data and the aforementioned sway data.
A steel material comprising: a chemical composition consisting of, in mass%, C: 0.15 to 0.45%, Si: 0.05 to 1.00%, Mn: 0.01 to 1.00%, P: 0.030% or less, S: 0.0050% or less, Al: 0.005 to 0.100%, Cr: 0.60 to 1.80%, Mo: 0.80 to 2.30%, Ti: 0.002 to 0.020%, V: 0.05 to 0.30%, Nb: 0.002 to 0.100%, B: 0.0005 to 0.0040%, Cu: 0.01 to 0.50%, Ni: 0.01 to 0.50%, N: 0.0020 to 0.0100%, O: 0.0020% or less, Ca: 0 to 0.0100%, Mg: 0 to 0.0100%, Zr: 0 to 0.0100%, rare earth metal: 0 to 0.0100%, Co: 0 to 0.50%, and W: 0 to 0.50%, with the balance being Fe and impurities, wherein in the steel material, a number density of BN is within a range of 10 to 100 particles/100 μm 2, and a yield strength is 758 MPa or more, as measured according to the method described in the description, where, the BN is defined as a precipitate having an equivalent circular diameter within a range of 10 to 100 nm, and the number density of the BN is measured according to the method described in the description. a chemical composition consisting of, in mass%, C: 0.15 to 0.45%, Si: 0.05 to 1.00%, Mn: 0.01 to 1.00%, P: 0.030% or less, S: 0.0050% or less, Al: 0.005 to 0.100%, Cr: 0.60 to 1.80%, Mo: 0.80 to 2.30%, Ti: 0.002 to 0.020%, V: 0.05 to 0.30%, Nb: 0.002 to 0.100%, B: 0.0005 to 0.0040%, Cu: 0.01 to 0.50%, Ni: 0.01 to 0.50%, N: 0.0020 to 0.0100%, O: 0.0020% or less, Ca: 0 to 0.0100%, Mg: 0 to 0.0100%, Zr: 0 to 0.0100%, rare earth metal: 0 to 0.0100%, Co: 0 to 0.50%, and W: 0 to 0.50%, with the balance being Fe and impurities, in the steel material, a number density of BN is within a range of 10 to 100 particles/100 μm 2, and a yield strength is 758 MPa or more, as measured according to the method described in the description, where, the BN is defined as a precipitate having an equivalent circular diameter within a range of 10 to 100 nm, and the number density of the BN is measured according to the method described in the description.
A modal tailboom flight control system (20, 102) configured to be attached to a compound helicopter (10, 104), the modal tailboom flight control system (20, 102) being operable in a plurality of modes including a forward thrust mode and an anti-torque mode, the modal tailboom flight control system (20, 102) comprising: a tailboom (22, 116); a drivetrain extending through the tailboom (22, 116); an anti-torque system coupled to the drivetrain and rotatable to generate anti-torque thrust for the compound helicopter (10, 104) in the anti-torque mode; and a pusher propeller (32, 106) coupled to the drivetrain and rotatable to generate forward thrust for the compound helicopter (10, 104) in the forward thrust mode; 2. characterized in that the pusher propeller (32, 106) is positioned forward of the anti-torque system. a tailboom (22, 116); a drivetrain extending through the tailboom (22, 116); an anti-torque system coupled to the drivetrain and rotatable to generate anti-torque thrust for the compound helicopter (10, 104) in the anti-torque mode; and a pusher propeller (32, 106) coupled to the drivetrain and rotatable to generate forward thrust for the compound helicopter (10, 104) in the forward thrust mode; 2. characterized in that the pusher propeller (32, 106) is positioned forward of the anti-torque system.
A scanning endoscope system comprising a light scanning device (202, 210) comprising a confocal optical unit configured to cause light emitted from a light source to scan periodically within a predetermined scanning area and a calibration apparatus, wherein the confocal optical unit comprises a convergence point and a center axis of the light emitted from the light scanning device (202, 204, 210) when the light scanning device (202, 210) is not scanning wherein the calibration apparatus comprises: a lens to which light emitted from the light scanning device (202, 204, 210) enters; and a light detection unit configured to receive light emerging from the lens and detect a scanning trajectory of the received light on a light receiving surface of the light detection unit; and wherein the scanning endoscope system comprises a correction unit configured to correct a scanning parameter of the light emitted from the light scanning device (202, 204, 210) so that the scanning trajectory detected by the light detection unit becomes a reference scanning trajectory, characterized in that the lens is a relay lens which magnifies the predetermined scanning area and comprises a frontal focal point and a rear focal point, and the calibration apparatus further comprises a moving unit configured to move the calibration apparatus with respect to the light scanning device (202, 204, 210) in three dimensions, wherein the correction unit is adapted to control the moving unit to move the calibration apparatus so that a center of the predetermined scanning area substantially coincides with the center axis, and so that a position of a frontal focal point of the relay lens substantially coincides with the convergence point. a lens to which light emitted from the light scanning device (202, 204, 210) enters; and a light detection unit configured to receive light emerging from the lens and detect a scanning trajectory of the received light on a light receiving surface of the light detection unit; and wherein the scanning endoscope system comprises a correction unit configured to correct a scanning parameter of the light emitted from the light scanning device (202, 204, 210) so that the scanning trajectory detected by the light detection unit becomes a reference scanning trajectory, characterized in that the lens is a relay lens which magnifies the predetermined scanning area and comprises a frontal focal point and a rear focal point, and the calibration apparatus further comprises a moving unit configured to move the calibration apparatus with respect to the light scanning device (202, 204, 210) in three dimensions, wherein the correction unit is adapted to control the moving unit to move the calibration apparatus so that a center of the predetermined scanning area substantially coincides with the center axis, and so that a position of a frontal focal point of the relay lens substantially coincides with the convergence point.
HIP/PAP protein or derivative thereof, for its use in treating or managing cancer and preferentially solid tumors, wherein said derivative comprises an amino acid sequence having at least 90 % amino acid identity with a polypeptide selected from the group consisting of the polypeptide of SEQ ID No 1 to 4.