mhurhangee/ep-ind-claims huggingface dataset:
A broadcast bearer management method, characterized by comprising: sending, by a service server, a first message to a first bearer management server, wherein the first message comprises a group identifier of a service group; establishing, by the first bearer management server, a first broadcast bearer based on the first message; sending, by the first bearer management server, a broadcast bearer announcement message to at least one terminal, wherein the broadcast bearer announcement message carries bearer information of the first broadcast bearer; receiving (S221, S260), by the first bearer management server, reception status information of the first broadcast bearer from the at least one terminal; determining, by the first bearer management server according to the reception status information of the first broadcast bearer, the first broadcast bearer for the service group; and sending, by the first bearer management server, a second message to the service server, wherein the second message carries user plane information of the first broadcast bearer. sending, by a service server, a first message to a first bearer management server, wherein the first message comprises a group identifier of a service group; establishing, by the first bearer management server, a first broadcast bearer based on the first message; sending, by the first bearer management server, a broadcast bearer announcement message to at least one terminal, wherein the broadcast bearer announcement message carries bearer information of the first broadcast bearer; receiving (S221, S260), by the first bearer management server, reception status information of the first broadcast bearer from the at least one terminal; determining, by the first bearer management server according to the reception status information of the first broadcast bearer, the first broadcast bearer for the service group; and sending, by the first bearer management server, a second message to the service server, wherein the second message carries user plane information of the first broadcast bearer.
An aerofoil for a turbomachine comprising: - an outer wall and an inner wall, and - a cooling channel located between the outer wall and the inner wall for guiding a coolant fluid during operation of the aerofoil, wherein the inner wall comprises a protrusion extending from a surface of the inner wall into the cooling channel, wherein the protrusion on the inner wall is arranged and profiled such that the protrusion on the inner wall directs at least a part of the coolant fluid, when the coolant fluid is flowing through the cooling channel and over the protrusion on the inner wall, for impinging the coolant fluid on to a first region of the outer wall, characterized in that - the outer wall further comprises a protrusion, wherein the protrusion on the outer wall extends from a surface of the outer wall into the cooling channel, and wherein the protrusion on the outer wall is arranged and profiled such that the protrusion on the outer wall directs at least a part of the coolant fluid, when the coolant fluid is flowing through the cooling channel and over the protrusion on the outer wall, for impinging on to a second region of the inner wall. - an outer wall and an inner wall, and - a cooling channel located between the outer wall and the inner wall for guiding a coolant fluid during operation of the aerofoil, - the outer wall further comprises a protrusion, wherein the protrusion on the outer wall extends from a surface of the outer wall into the cooling channel, and
System for digitally monitoring a pressure vessel for holding compressed gas, wherein the system comprises a sensor unit placeable on the pressure vessel for gathering information regarding the condition of the pressure vessel, a communication unit for wirelessly communicating the gathered information to a receiver (30,31,32) wherein the sensor unit comprises: • a temperature sensor for measuring the temperature of the pressure vessel, • a gas pressure sensor, • at least one power unit for supplying power to the sensors and the communication unit, characterised in that the sensor unit is in the form of a strip adapted to extend substantially the vertical length of the pressure vessel. • a temperature sensor for measuring the temperature of the pressure vessel, • a gas pressure sensor, • at least one power unit for supplying power to the sensors and the communication unit,
A power tool comprising a housing, a motor housed in the housing, and a handle formed on the housing, the handle being provided with a speed regulating mechanism for adjusting a rotational speed of the motor, and a speed limiting mechanism cooperating with the speed regulating mechanism, characterized in that said speed limiting mechanism comprises a first knob and a second knob disposed on two sides of the handle, said first knob and said second knob are interlocked to each other and toggleable, such that the motor is limited to operate at a fixed rotational speed, when toggled, wherein said speed regulating mechanism comprises a speed regulating switch for adjusting the rotational speed of said motor, and a switch trigger coupled to said speed regulating switch and pivotally mounted on said handle, said speed regulating switch is provided with a pressing portion, said switch trigger comprises a pivoting portion mounted on said handle, and a push arm and an abutting arm are located on both sides of said pivoting portion, which is rotatable around the pivoting portion, said abutting arm abuts said pressing portion to adjust the rotational speed of said motor.
A method for determining a displacement of an anchor, the method comprising the steps of: (a) determining an initial position of the anchor; (b) determining a displacement of the anchor by i. measuring anchor velocity by means of a velocity sensor, in particular an ultrasonic Doppler velocity sensor, or an image processing based velocity sensor, ii. measuring at least one further physical quantity associated with the anchoring, said at least one further physical quantity being suitable to be used in deciding whether the anchor is at rest or in motion, iii. deciding whether the anchor is at rest or in motion, wherein a value of the further physical quantity is taken into account in the decision, iv. during intervals when the anchor is deemed to be in motion, integrating the velocity values over time to determine the displacement of the anchor. (a) determining an initial position of the anchor; (b) determining a displacement of the anchor by i. measuring anchor velocity by means of a velocity sensor, in particular an ultrasonic Doppler velocity sensor, or an image processing based velocity sensor, ii. measuring at least one further physical quantity associated with the anchoring, said at least one further physical quantity being suitable to be used in deciding whether the anchor is at rest or in motion, iii. deciding whether the anchor is at rest or in motion, wherein a value of the further physical quantity is taken into account in the decision, iv. during intervals when the anchor is deemed to be in motion, integrating the velocity values over time to determine the displacement of the anchor. i. measuring anchor velocity by means of a velocity sensor, in particular an ultrasonic Doppler velocity sensor, or an image processing based velocity sensor, ii. measuring at least one further physical quantity associated with the anchoring, said at least one further physical quantity being suitable to be used in deciding whether the anchor is at rest or in motion, iii. deciding whether the anchor is at rest or in motion, wherein a value of the further physical quantity is taken into account in the decision, iv. during intervals when the anchor is deemed to be in motion, integrating the velocity values over time to determine the displacement of the anchor.
A method of mounting a reduction gear of longitudinal axis X, comprising an outer sun gear and planet gears meshing with an inner sun gear and with the outer sun gear and each mounted for free rotation on a planet carrier, the outer sun gear comprising a first crown having a first toothing and a second crown having a second toothing each meshing with first and second toothings of the planet gears, the method comprising the following steps: a) Providing an assembly comprising the inner sun gear, the planet gears meshing with the inner sun gear and carried by the planet carrier, b) Mounting the first crown and the second crown around the planet gears so that toothings (34, 36) of the first crown and the second crown mesh with the first toothings of the planet gears and the second toothings of the planet gears, respectively, and characterized by the following step c) Applying a first torque to the first crown centred on the axis of the first crown and a second torque to the second crown centred on the axis of the second crown, the first torque and the second torque having identical values and being applied in the same direction of rotation about the axes of the first and second crowns (14a, 14b). a) Providing an assembly comprising the inner sun gear, the planet gears meshing with the inner sun gear and carried by the planet carrier, b) Mounting the first crown and the second crown around the planet gears so that toothings (34, 36) of the first crown and the second crown mesh with the first toothings of the planet gears and the second toothings of the planet gears, respectively, and characterized by the following step c) Applying a first torque to the first crown centred on the axis of the first crown and a second torque to the second crown centred on the axis of the second crown, the first torque and the second torque having identical values and being applied in the same direction of rotation about the axes of the first and second crowns (14a, 14b).
A secondary electrochemical battery (100, 200), comprising a battery case (101, 206) with a recessed loop line structure (107, 205) at one end thereof adjacent to a negative electrode cap (103, 203, 303), a positive electrode cap connected to the battery case (101, 206) so as to constitute a positive electrode of the secondary battery, a battery cell (102, 204) disposed within the battery case (101, 206) and located between the positive electrode cap and the recessed loop line structure (107, 205), a secondary electrochemical battery sealing body (200, 300, 400) with a packaged chip shielding structure, which is used for sealing an opening portion of the battery case (101, 206), wherein the sealing body (200, 300, 400) comprises the negative electrode cap (103, 203, 303), a circuit board module (104, 201, 202, 301, 302) and an insulating washer (106, 207), the circuit board module (104, 201, 202, 301, 302) is located between the recessed loop line structure (107, 205) and the negative electrode cap (103, 203, 303), and a plurality of electronic components for generating electromagnetic radiation during operation are arranged on the circuit board module (104, 201, 202, 301, 302), the diameter of the circuit board module is sized to be between an inner diameter of a recess composed by the recessed loop line structure (107, 205) and an inner diameter of the battery case, so that the circuit board module may be clamped in one side of the recessed loop line structure (107, 205) for sealing the opening portion of the battery case (101, 206); the circuit board module (104, 201, 202, 301, 302) and the negative electrode cap (103, 203, 303) are connected through an electrically-conductive material, the negative electrode cap (103, 203, 303) and the circuit board module (104, 201, 202, 301, 302) constitute a first enclosed electromagnetic shielding space, the battery case (101, 206) and the circuit board module (104, 201, 202, 301, 302) constitute a second enclosed electromagnetic shielding space, and the electronic components are arranged within the first enclosed electromagnetic shielding space and the second enclosed electromagnetic shielding space; a metal ring is arranged on a contact part between the circuit board module (104, 201, 202, 301, 302) and the negative electrode cap (103, 203, 303), clamp slots (305, 402) are provided within the metal ring, and the metal ring is in conductive contact with the clamp slots, so as to constitute an enclosed electromagnetic shielding space with the negative electrode cap; and the insulating washer (106, 207) has a " "-shaped section, and is disposed within gaps among the battery case, the circuit board module and the negative electrode cap, so as to press and fix the circuit board module between the recessed loop line structure (107, 205) and the battery case (101, 206), and isolate the battery case from the negative electrode cap, wherein clamp protrusions corresponding to the clamp slots (305, 402) are provided at the edge of the negative electrode cap, for fixing the negative electrode cap on the circuit board module.
A transformer assembly, comprising: a housing; transformer oil disposed within the housing; a plurality of coils (24, 26) of electrically conductive wire, disposed in the housing and in contact with the transformer oil; and aliphatic polyamide insulation material (4, 6, 25) operable to insulate the coils (24, 26) disposed within the oil, which insulation material (4, 6, 25) includes: 0.1% to 10% by weight of stabilizing compounds that provide thermal and chemical stability; 0.1% to about 10.0% by weight of nano-fillers; and a remainder by weight of aliphatic polyamide, wherein the nano-fillers are sized within the range of 1 nm to 100 nm. a housing; transformer oil disposed within the housing; a plurality of coils (24, 26) of electrically conductive wire, disposed in the housing and in contact with the transformer oil; and aliphatic polyamide insulation material (4, 6, 25) operable to insulate the coils (24, 26) disposed within the oil, which insulation material (4, 6, 25) includes: 0.1% to 10% by weight of stabilizing compounds that provide thermal and chemical stability; 0.1% to about 10.0% by weight of nano-fillers; and a remainder by weight of aliphatic polyamide, 0.1% to 10% by weight of stabilizing compounds that provide thermal and chemical stability; 0.1% to about 10.0% by weight of nano-fillers; and a remainder by weight of aliphatic polyamide, wherein the nano-fillers are sized within the range of 1 nm to 100 nm.
A process of preparing a composition comprising a racemate of a compound of Formula Ia: comprising: a) treating a composition comprising an enantiomeric excess of the - or -enantiomer of a compound of Formula Ia with a compound of Formula D-1: in the presence of a first base under conditions sufficient to form a compound of Formula IV: and (b) reacting a compound of Formula IV with a compound of Formula D-1 in the presence of a second base; wherein: * is a chiral carbon; P 1 is a protecting group; and R 1 is selected from C 3-7 cycloalkyl, C 1-6 alkyl, and C 1-6 fluoroalkyl. a) treating a composition comprising an enantiomeric excess of the - or -enantiomer of a compound of Formula Ia with a compound of Formula D-1: in the presence of a first base under conditions sufficient to form a compound of Formula IV: and (b) reacting a compound of Formula IV with a compound of Formula D-1 in the presence of a second base; * is a chiral carbon; P 1 is a protecting group; and R 1 is selected from C 3-7 cycloalkyl, C 1-6 alkyl, and C 1-6 fluoroalkyl.
A system for performing frequency response health monitoring of a servo valve prior to flight of an aircraft, comprising: the servo valve; and a brake controller in electrical communication with the servo valve, characterised in that the brake controller configured to: determine the brake controller is powering up, supply a variable current to the servo valve to perform the frequency response health monitoring to the servo valve in response to determining the brake controller is powering up, and determine a health status of the servo valve based on the frequency response health monitoring. the servo valve; and a brake controller in electrical communication with the servo valve, characterised in that the brake controller configured to: determine the brake controller is powering up, supply a variable current to the servo valve to perform the frequency response health monitoring to the servo valve in response to determining the brake controller is powering up, and determine a health status of the servo valve based on the frequency response health monitoring. determine the brake controller is powering up, supply a variable current to the servo valve to perform the frequency response health monitoring to the servo valve in response to determining the brake controller is powering up, and determine a health status of the servo valve based on the frequency response health monitoring.
A synthetic resin cup container comprising two members of: a cup body having a cylindrical shape and a bottom disposed at a lower end of a round peripheral sidewall of this cup body, and a flange unit comprising a fitting cylinder and a brim-like flange, an inner edge portion of the flange being integrally connected to an upper end of the fitting cylinder, wherein the flange unit is detachably fitted in an upper portion of the cup body by fitting the fitting cylinder in an upper portion of the peripheral sidewall, characterized in that a rim portion of a circular seal film is adhered to an upper surface of the flange of the flange unit to seal an upper opening of the flange unit. a cup body having a cylindrical shape and a bottom disposed at a lower end of a round peripheral sidewall of this cup body, and a flange unit comprising a fitting cylinder and a brim-like flange, an inner edge portion of the flange being integrally connected to an upper end of the fitting cylinder,
Motor starter having a control unit and a first current path via which energy can be supplied to a downstream electric motor, wherein the first current path comprises a semiconductor switch and an electromechanical switch element, wherein the semiconductor switch and the switch element are connected in series, characterised in that the control unit is designed such that, in order to establish an energy supply via the first current path it ensures in a first step that the voltage currently applied via the switch element in respect of a previous opening of the switch element is below the maximum allowable blocking voltage of the semiconductor switch and, subsequently in a second step, first closes the switch element and then switches the semiconductor switch to be conductive.
A terminal comprising: a receiving section configured to receive a DL signal including a UL grant; and a control section configured to control UL data transmission based on the UL grant and a channel access procedure before UL transmission, wherein the control section is configured to, when a plurality of consecutive UL time units are scheduled, determine an LBT condition to apply to transmission in a current UL time unit based on a listening result in an earlier UL time unit, and wherein the control section is configured to, when the plurality of consecutive UL time units are scheduled, change an LBT condition for a subsequent time unit to a time unit indicating idle as the listening result among the plurality of consecutive UL time units, characterized in that the control section is configured to apply the LBT condition with a shorter transmission defer period than before change, to the subsequent time unit. a receiving section configured to receive a DL signal including a UL grant; and a control section configured to control UL data transmission based on the UL grant and a channel access procedure before UL transmission, wherein the control section is configured to, when a plurality of consecutive UL time units are scheduled, determine an LBT condition to apply to transmission in a current UL time unit based on a listening result in an earlier UL time unit, and wherein the control section is configured to, when the plurality of consecutive UL time units are scheduled, change an LBT condition for a subsequent time unit to a time unit indicating idle as the listening result among the plurality of consecutive UL time units, characterized in that the control section is configured to apply the LBT condition with a shorter transmission defer period than before change, to the subsequent time unit.
Intervertebral implant - comprising at least two upper and two lower contact bodies (2.1-2.4) having contact surfaces (2.1.1-2.4.1), - comprising an actuator having a threaded body which has an extension axis and is provided with opposite-handed threads (4.1, 4.2) arranged one behind the other, - comprising wedges which sit on the threaded body in an axially moveable manner, can be moved along said threaded body by rotating same, and comprise ramps (5.2.1, 5a.2.1) of at least one ramp body (5.2, 5a.2) of a wedge, which ramps engage at least with counter-surfaces of at least some of the contact bodies and extend toward one another at a finite angle of less than 90°, characterized in that - the wedges are designed as double wedges having, in the direction of the extension axis, two ramp bodies arranged one behind the other, - the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of one ramp body (5.1, 5.2) are oriented differently to the ramps (5.2.1, 5.2.2, 5a.2.1, 5a.2.2) of the other ramp body (5a.1, 5a.2), - the ramps (5.2.1, 5.2.2; 5a.2.1, 5a.2.2) of the first ramp body (5.2, 5a.2) engage directly with the contact bodies (2.1-2.4) laterally, while the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of the second ramp body (5.1, 5a.1) engage directly with the contact bodies (2.1-2.4) in the vertical direction. - comprising at least two upper and two lower contact bodies (2.1-2.4) having contact surfaces (2.1.1-2.4.1), - comprising an actuator having a threaded body which has an extension axis and is provided with opposite-handed threads (4.1, 4.2) arranged one behind the other, - comprising wedges which sit on the threaded body in an axially moveable manner, can be moved along said threaded body by rotating same, and comprise ramps (5.2.1, 5a.2.1) of at least one ramp body (5.2, 5a.2) of a wedge, which ramps engage at least with counter-surfaces of at least some of the contact bodies and extend toward one another at a finite angle of less than 90°, characterized in that - the wedges are designed as double wedges having, in the direction of the extension axis, two ramp bodies arranged one behind the other, - the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of one ramp body (5.1, 5.2) are oriented differently to the ramps (5.2.1, 5.2.2, 5a.2.1, 5a.2.2) of the other ramp body (5a.1, 5a.2), - the ramps (5.2.1, 5.2.2; 5a.2.1, 5a.2.2) of the first ramp body (5.2, 5a.2) engage directly with the contact bodies (2.1-2.4) laterally, while the ramps (5.1.1, 5.1.2; 5a.1.1, 5a.1.2) of the second ramp body (5.1, 5a.1) engage directly with the contact bodies (2.1-2.4) in the vertical direction.