mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for operating an access node, the method comprising: generating, by the access node, an initial block and a time-dependent signal for transmission in a channel occupancy time, COT, of a shared communications channel, the initial block including a time-independent initial sequence that enables the initial block to be transmitted over any slot in the COT, wherein the time-dependent signal is transmitted after the initial block; and transmitting, by the access node, the initial block and the time-dependent signal in a first slot of the COT. generating, by the access node, an initial block and a time-dependent signal for transmission in a channel occupancy time, COT, of a shared communications channel, the initial block including a time-independent initial sequence that enables the initial block to be transmitted over any slot in the COT, wherein the time-dependent signal is transmitted after the initial block; and transmitting, by the access node, the initial block and the time-dependent signal in a first slot of the COT.
A control unit for controlling driving of a motor, the control unit being formed integrally with the motor so as to be coaxial with a motor output shaft of the motor, and comprising: a control board that is housed in the interior of a housing forming an outer covering of the control unit, and that is configured to calculate a control signal for the motor and to output the calculated control signal; an inverter circuit that is configured to supply power to the motor in accordance with the control signal; and a frame that serves as an intermediate member provided between the control board and the inverter circuit, characterized in that the frame has upper and lower surfaces that extend in a perpendicular direction to the motor output shaft, donut-shaped conductive plates (41, 42) are mounted respectively on the upper and lower surfaces, and the conductive plates (41, 42) both include connection-forming terminal portions (41a, 41b, 42a, 42b) provided on inner and outer peripheral sides thereof, the inverter circuit is constituted by a power module formed from a plurality of switching elements (31, 32, 34), a power supply terminal is provided on one side of a package forming the power module, while an output terminal connected to a winding terminal for supplying power to the motor and a control terminal (35a, 35b) connected to the control signal are provided on an opposing side, and the terminal portions (41a, 41b, 42a, 42b) on the inner peripheral sides of the conductive plates (41, 42) are connected to the power supply terminal of the power module, and the control board is connected to the control terminal (35a, 35b) of the power module. a control board that is housed in the interior of a housing forming an outer covering of the control unit, and that is configured to calculate a control signal for the motor and to output the calculated control signal; an inverter circuit that is configured to supply power to the motor in accordance with the control signal; and a frame that serves as an intermediate member provided between the control board and the inverter circuit,
Haptic device for vibrating a segment of a control stick on command, the haptic device comprising: - a base, - a mass assembly comprising at least one swinging branch (41, 42, 43), said at least one branch (41, 42, 43) extending circumferentially over at least 45 degrees around a central axis, said central axis being configured to be in a mounting position coinciding with a median extension axis of said segment, each branch (41, 42, 43) being connected to the base by a mobility means conferring a degree of freedom in rotation on said branch (41, 42, 43) about an axis of rotation (AX3, AX4, AX5) relative to the base, said axis of rotation (AX3, AX4, AX5) being distinct from said central axis, - an excitation member comprising an electrical excitation means configured to cause said at least one branch (41, 42, 43) to swing in rotation about the axis of rotation (AX3, AX4, AX5) from a rest position to an activated position, - an elastic return means tending to maintain each branch (41, 42, 43) in the corresponding rest position. - a base, - a mass assembly comprising at least one swinging branch (41, 42, 43), said at least one branch (41, 42, 43) extending circumferentially over at least 45 degrees around a central axis, said central axis being configured to be in a mounting position coinciding with a median extension axis of said segment, each branch (41, 42, 43) being connected to the base by a mobility means conferring a degree of freedom in rotation on said branch (41, 42, 43) about an axis of rotation (AX3, AX4, AX5) relative to the base, said axis of rotation (AX3, AX4, AX5) being distinct from said central axis, - an excitation member comprising an electrical excitation means configured to cause said at least one branch (41, 42, 43) to swing in rotation about the axis of rotation (AX3, AX4, AX5) from a rest position to an activated position, - an elastic return means tending to maintain each branch (41, 42, 43) in the corresponding rest position.
A composite metal oxide represented by the following formula: Na x Fe y Mn 1-y O 2 ··· wherein the value of x is 2/3 ≤ x ≤ 5/6, and the value of y is 1/3 ≤ y ≤ 1/2, and wherein the composite metal oxide is constituted of an oxide having a P2 structure and a lamellar oxide, with some extent of stacking faults, having an octahedral structure and/or a triangular-prism structure.
A method comprising: receiving, by a processing thread executing on a host server, a container request to create a container on the host server by employing a container engine, wherein the container request indicates a first resource constraint and a second resource constraint for executing an application within the container, wherein the second resource constraint indicates an absolute amount of resource required for the execution of the application; analyzing, by the processing thread, the container request to determine that the container engine does not allow resource allocation according to the second resource constraint; directing, by the processing thread, the container engine to create an operating environment for the container according to the first resource constraint and to execute the container on the host server when the container engine allows resource allocation according to the first resource constraint; reserving, by the processing thread, a first resource from an operating system, OS, of the host server according to the second resource constraint of the container request when the container engine does not allow resource allocation according to the second resource constraint; and updating dynamically, by the processing thread, the operating environment of the container to enable the container to directly utilize the reserved first resource for execution of the application to meet the second resource constraint of the container request. receiving, by a processing thread executing on a host server, a container request to create a container on the host server by employing a container engine, wherein the container request indicates a first resource constraint and a second resource constraint for executing an application within the container, wherein the second resource constraint indicates an absolute amount of resource required for the execution of the application; analyzing, by the processing thread, the container request to determine that the container engine does not allow resource allocation according to the second resource constraint; directing, by the processing thread, the container engine to create an operating environment for the container according to the first resource constraint and to execute the container on the host server when the container engine allows resource allocation according to the first resource constraint; reserving, by the processing thread, a first resource from an operating system, OS, of the host server according to the second resource constraint of the container request when the container engine does not allow resource allocation according to the second resource constraint; and updating dynamically, by the processing thread, the operating environment of the container to enable the container to directly utilize the reserved first resource for execution of the application to meet the second resource constraint of the container request.
A blade part for a hair removal device, the blade part comprising: a fixed blade; and a movable blade that reciprocatingly slides with respect to the fixed blade, the blade part being adapted to cut hair with the fixed blade and the movable blade, wherein the fixed blade has a plurality of fixed blade bars arranged side by side in a reciprocating sliding direction of the movable blade with respect to the fixed blade, and a plurality of fixed blade grooves arranged side by side in the reciprocating sliding direction, the movable blade has a plurality of movable blade bars arranged side by side in the reciprocating sliding direction, and a plurality of movable blade grooves arranged side by side in the reciprocating sliding direction, and each of the fixed blade bars is formed to have a bar width in the reciprocating sliding direction to be larger than a groove width of each of the movable blade grooves in the reciprocating sliding direction, characterized in that each of the movable blade bars is formed to have a bar width in the reciprocating sliding direction to be larger than a groove width of each of the fixed blade grooves in the reciprocating sliding direction, and each of the fixed blade grooves and each of the movable blade grooves are formed to have a blade groove angle at least on an opening side to be a positive angle with an intersection positioned on a depth side (453b, 463b). a fixed blade; and a movable blade that reciprocatingly slides with respect to the fixed blade, the blade part being adapted to cut hair with the fixed blade and the movable blade, wherein the fixed blade has a plurality of fixed blade bars arranged side by side in a reciprocating sliding direction of the movable blade with respect to the fixed blade, and a plurality of fixed blade grooves arranged side by side in the reciprocating sliding direction, the movable blade has a plurality of movable blade bars arranged side by side in the reciprocating sliding direction, and a plurality of movable blade grooves arranged side by side in the reciprocating sliding direction, and each of the fixed blade bars is formed to have a bar width in the reciprocating sliding direction to be larger than a groove width of each of the movable blade grooves in the reciprocating sliding direction, characterized in that each of the movable blade bars is formed to have a bar width in the reciprocating sliding direction to be larger than a groove width of each of the fixed blade grooves in the reciprocating sliding direction, and each of the fixed blade grooves and each of the movable blade grooves are formed to have a blade groove angle at least on an opening side to be a positive angle with an intersection positioned on a depth side (453b, 463b).
A method for controlling a windfarm having a plurality of wind power installations and feeding into an electrical supply network at a network connection point, comprising the following steps: - inputting at least one control error (e) at a control error input of a windfarm control module, - generating at least one manipulated variable (u) depending on the at least one control error (e) by means of at least one controller (66, 68), - outputting the at least one manipulated variable (u) at a manipulated variable output for transmitting to the wind power installations, - recording in each case at least one state of the windfarm, the windpower installations thereof and/or an ambient condition as farm state at a state input of the control module, - altering or predefining at least one property of the at least one controller (66, 68) depending on the at least one recorded farm state by means of a controller setting device, wherein the altering or predefining at least of one property of the at least one controller (66, 68) is carried out before a start-up. - inputting at least one control error (e) at a control error input of a windfarm control module, - generating at least one manipulated variable (u) depending on the at least one control error (e) by means of at least one controller (66, 68), - outputting the at least one manipulated variable (u) at a manipulated variable output for transmitting to the wind power installations, - recording in each case at least one state of the windfarm, the windpower installations thereof and/or an ambient condition as farm state at a state input of the control module, - altering or predefining at least one property of the at least one controller (66, 68) depending on the at least one recorded farm state by means of a controller setting device, wherein the altering or predefining at least of one property of the at least one controller (66, 68) is carried out before a start-up.
A carrier selection method, wherein the method comprises: obtaining channel busy ratios, CBRs, of a plurality of candidate carriers; and selecting, when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers, characterized in that the selecting, when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers comprises: when the location of the terminal device moves from the first zone to the second zone, determining whether a CBR of a first carrier exceeds a third threshold, wherein the first carrier is a carrier used in current data transmission; and if the CBR of the first carrier exceeds the third threshold, selecting a carrier from the plurality of carriers according to the CBRs of the plurality of carriers. obtaining channel busy ratios, CBRs, of a plurality of candidate carriers; and selecting, when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers, characterized in that the selecting, when a location of a terminal device moves from a first zone to a second zone, a carrier from the plurality of carriers according to the CBRs of the plurality of carriers comprises: when the location of the terminal device moves from the first zone to the second zone, determining whether a CBR of a first carrier exceeds a third threshold, wherein the first carrier is a carrier used in current data transmission; and if the CBR of the first carrier exceeds the third threshold, selecting a carrier from the plurality of carriers according to the CBRs of the plurality of carriers. when the location of the terminal device moves from the first zone to the second zone, determining whether a CBR of a first carrier exceeds a third threshold, wherein the first carrier is a carrier used in current data transmission; and if the CBR of the first carrier exceeds the third threshold, selecting a carrier from the plurality of carriers according to the CBRs of the plurality of carriers.
A rotary machine comprising a pump chamber comprising a base, a cover and a lateral wall defining an inner space; a rotor housed in the inner space of the pump chamber, this rotor comprising at least one slot; at least one vane, each vane being at least partially introduced in one slot of the rotor; an electric motor having a drive shaft passing through a central opening of the base to drive the rotor; at least one inlet port for sucking air form a device where pressure is aimed to be lowered, the inlet port being in fluid communication with at least an inlet hole of the pump chamber, at least one outlet port in fluid communication with an outside zone of the rotary machine for discharging compressed air exiting the pump chamber through at least one outlet hole of the pump chamber, a noise reduction element comprising at least one damping conduct intended to reduce the sound pressure level of the compressed air an intermediate chamber between the base of the pump chamber and the motor, the inlet port and the outlet port being connected to this intermediate chamber, characterized by comprising an intermediate conduct housed at least partially in the intermediate chamber for communicating the inlet port with the at least one inlet hole of the pump chamber, the intermediate conduct leaving a free space in the intermediate chamber and the noise reduction element being placed at least partially within a part of this free space, and wherein the at least one outlet hole opens into this free space of the intermediate chamber such that the compressed air exiting the pump chamber through the outlet hole enters the damping conduct of the noise reduction element. a pump chamber comprising a base, a cover and a lateral wall defining an inner space; a rotor housed in the inner space of the pump chamber, this rotor comprising at least one slot; at least one vane, each vane being at least partially introduced in one slot of the rotor; an electric motor having a drive shaft passing through a central opening of the base to drive the rotor; at least one inlet port for sucking air form a device where pressure is aimed to be lowered, the inlet port being in fluid communication with at least an inlet hole of the pump chamber, at least one outlet port in fluid communication with an outside zone of the rotary machine for discharging compressed air exiting the pump chamber through at least one outlet hole of the pump chamber, a noise reduction element comprising at least one damping conduct intended to reduce the sound pressure level of the compressed air an intermediate chamber between the base of the pump chamber and the motor, the inlet port and the outlet port being connected to this intermediate chamber,
Ship provided with a ship screw for use under water that may comprise fish, wherein the screw is driven by the ship's engine via a drive shaft, the screw comprising a front side and a rear side, wherein water is forced from the front side to the rear side in use, and comprising a hub and at least two blades extending from said hub, wherein a tubular housing having a free rear side end is provided around the blades, wherein the blades are substantially helical-shaped, wherein the blades extend from the hub in the direction of the outer circumference and the front side of the screw in a helical shape, characterized in that the blades taper off to a point in the outer circumference of the screw at the front side resulting in sickle-shaped blades with free ends near the outer circumference at the front side of the screw, the blades extending in a continuous manner from the front side end to the free rear side end of the tubular housing, wherein the effective surface area of the blades increases continuously from the front side toward the place where they are mounted on the hub, so that the fish in the water are mostly guided along the hub without being touched by the blades, the water with the fish leaving the free rear side end of the tubular housing unguided.
A silicone hydrogel formed from a reaction mixture comprising 30 to 75 wt% of at least one slow-reacting hydrophilic monomer having a slow-reacting hydrophilic monomer kinetic half life; at least one silicone-containing component having a silicone-containing component kinetic half life, which may be optionally substituted with at least one hydroxyl containing group; at least one visible light photoinitiator; at least one hydroxyl-containing component selected from said silicone-containing components substituted with at least one hydroxyl group, at least one hydroxyalkyl monomer, and mixtures thereof; and at least one UV absorbing compound, wherein the ratio of said slow-reacting hydrophilic component half life to said silicone-containing component half life is at least 2, and wherein polymerization of the reaction mixture is initiated using visible light.
A method for sending uplink control signaling, comprising: performing, by a terminal, data processing separately for uplink control signaling and uplink data that are scheduled by a base station; determining, by the terminal, a multiplexing mode, wherein the multiplexing mode is to let the uplink control signaling and uplink data be carried in the same resource block group in a system bandwidth or to let the uplink control signaling and uplink data be carried in different resource block groups in the system bandwidth, and the multiplexing mode is determined based on uplink scheduling signaling of the base station; if the terminal determines that the multiplexing mode is to let the uplink control signaling and uplink data be carried in different resource block groups in the system bandwidth, performing, by the terminal, resource mapping separately for the data-processed uplink control signaling and uplink data to obtain a frequency domain signal, wherein the performing resource mapping separately refers to mapping the data-processed uplink control signaling and uplink data to different resource block groups of a system bandwidth separately, and the resource block group is formed by at least one resource block; and performing, by the terminal, frequency-to-time conversion for the obtained frequency domain signal to obtain a time domain signal, and then sending the signal to the base station. performing, by a terminal, data processing separately for uplink control signaling and uplink data that are scheduled by a base station; determining, by the terminal, a multiplexing mode, wherein the multiplexing mode is to let the uplink control signaling and uplink data be carried in the same resource block group in a system bandwidth or to let the uplink control signaling and uplink data be carried in different resource block groups in the system bandwidth, and the multiplexing mode is determined based on uplink scheduling signaling of the base station; if the terminal determines that the multiplexing mode is to let the uplink control signaling and uplink data be carried in different resource block groups in the system bandwidth, performing, by the terminal, resource mapping separately for the data-processed uplink control signaling and uplink data to obtain a frequency domain signal, wherein the performing resource mapping separately refers to mapping the data-processed uplink control signaling and uplink data to different resource block groups of a system bandwidth separately, and the resource block group is formed by at least one resource block; and performing, by the terminal, frequency-to-time conversion for the obtained frequency domain signal to obtain a time domain signal, and then sending the signal to the base station.
A cardiac assistance device having a supporting component which surrounds the heart and on the inside of which a plurality of adjacent inflatable and deflatable chambers (24, 126, 226, 326) are provided, via which an inside wall can be displaced inward, wherein the chambers (24, 126, 226, 326) have a fluidic connection to at least one pump via lines, wherein a plurality of supply valves are on the supply side between pump and chambers (24, 126, 226, 326), wherein at least individual chambers (24, 126, 226, 326) are assigned a dedicated supply valve, or groups of chambers (24, 126, 226, 326) are assigned dedicated supply valves, in order to control the chambers (24, 126, 226, 326) independently, either individually or in groups, wherein an intracorporeal fluid refill tank, which can be coupled to the fluid circuit via an intracorporeal refill tank valve, in order to allow fluid to flow into the fluid circuit when the refill tank valve is opened, characterized in that the refill tank valve is coupled to a central control system or can be controlled from outside the body, and that the central control system is configured in such a way that, in the event of fluid loss in the fluid circuit, it automatically drives the refill tank valve into the open position.