mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (100, 200, 300, 1100), comprising: a first cap (140, 240, 340, 440, 540, 1240, 1340); a second cap (110, 210, 310, 410, 1210, 1310) including a proximal end, a distal end, and a longitudinal axis; a needle hub (120, 220, 320, 420, 520, 1220, 1320) connected to the second cap; a needle (130, 230, 330, 430, 630, 1230, 1330) including a first, beveled end configured to receive an implant (1239, 1339), and a second end disposed within a hub pocket (126, 226, 1226) of the needle hub, the first cap connected to the needle hub and disposed at a proximal end of the second cap; a pusher wire (124, 224, 324, 424, 724, 1324) and a pusher wire connector (122, 222, 322, 422, 822, 1322) disposed within the needle hub; wherein the pusher wire, the pusher wire connector, and the needle are substantially aligned with one another along the longitudinal axis of the second cap; and an applicator including a wheel axle and a wheel hub operably configured to move a shuttle using a thread connected to the wheel hub and the shuttle, wherein movement of the shuttle causes movement of the pusher wire. a first cap (140, 240, 340, 440, 540, 1240, 1340); a second cap (110, 210, 310, 410, 1210, 1310) including a proximal end, a distal end, and a longitudinal axis; a needle hub (120, 220, 320, 420, 520, 1220, 1320) connected to the second cap; a needle (130, 230, 330, 430, 630, 1230, 1330) including a first, beveled end configured to receive an implant (1239, 1339), and a second end disposed within a hub pocket (126, 226, 1226) of the needle hub, the first cap connected to the needle hub and disposed at a proximal end of the second cap; a pusher wire (124, 224, 324, 424, 724, 1324) and a pusher wire connector (122, 222, 322, 422, 822, 1322) disposed within the needle hub; wherein the pusher wire, the pusher wire connector, and the needle are substantially aligned with one another along the longitudinal axis of the second cap; and an applicator including a wheel axle and a wheel hub operably configured to move a shuttle using a thread connected to the wheel hub and the shuttle, wherein movement of the shuttle causes movement of the pusher wire.
A treatment device using a magnetic field, comprising: a magnetic field generating coil disposed below a contact surface that closely contacts a portion of a body; a cooling unit configured to supply a fluid that cools the magnetic field generating coil; and a duct configured to guide the fluid between the cooling unit and the magnetic field generating coil, wherein the cooling unit is disposed below the magnetic field generating coil and disposed so that an angle between a fluid supply direction from the cooling unit and a central axis of the magnetic field generating coil is equal to or less than the right angle, wherein the cooling unit comprises an inlet cooling unit configured to supply a fluid from the outside to the inside of the treatment device to the magnetic field generating coil and an outlet cooling unit configured to exhaust a fluid passed through the magnetic field generating coil to the outside; and characterized in that: the treatment device comprises a housing enclosing the inlet cooling unit and the outlet cooling unit, wherein the inlet cooling unit is selected from a fan, a blower, a compressor, and a pump, and wherein the outlet cooling unit is selected from a fan, a blower, a compressor, and a pump. a magnetic field generating coil disposed below a contact surface that closely contacts a portion of a body; a cooling unit configured to supply a fluid that cools the magnetic field generating coil; and a duct configured to guide the fluid between the cooling unit and the magnetic field generating coil, wherein the cooling unit is disposed below the magnetic field generating coil and disposed so that an angle between a fluid supply direction from the cooling unit and a central axis of the magnetic field generating coil is equal to or less than the right angle, wherein the cooling unit comprises an inlet cooling unit configured to supply a fluid from the outside to the inside of the treatment device to the magnetic field generating coil and an outlet cooling unit configured to exhaust a fluid passed through the magnetic field generating coil to the outside; and characterized in that: the treatment device comprises a housing enclosing the inlet cooling unit and the outlet cooling unit, wherein the inlet cooling unit is selected from a fan, a blower, a compressor, and a pump, and wherein the outlet cooling unit is selected from a fan, a blower, a compressor, and a pump.
Use of thermoplastic starch in the manufacture of an adhesive and ultrathin waterproof-breathable film, that is to say with a thickness of less than or equal to 25 μm, said thermoplastic starch being provided in the form of an alloy with at least one hydrophilic functionalized polyolefin obtained either by copolymerization or by grafting of a polyolefin backbone with an unsaturated monomer, said unsaturated monomer being grafted by PEGs and/or forming a metal salt.
Rotor blade having an intake side and a pressure side for a wind turbine, having: - a rotor blade root of a hub region for connecting the rotor blade to a rotor hub, and - a rotor blade tip (5, 7) which is arranged at the side of a tip region facing away from the rotor blade root, wherein, - in the region of the hub region, the rotor blade at least partially has a thickness profile which has at the rear edge thereof a mandrel expansion, wherein, - in the region of the hub region, the rear edge is a flat or curved rear edge and the thickness profile at least partially has: - at the intake side a first mandrel expansion at the rear edge, and - at the pressure side a second mandrel expansion at the rear edge, characterised in that - in the region of the hub region, the thickness profile at least partially has a flow stabiliser and/or a vortex generator at the intake side and/or pressure side. - a rotor blade root of a hub region for connecting the rotor blade to a rotor hub, and - a rotor blade tip (5, 7) which is arranged at the side of a tip region facing away from the rotor blade root, wherein, - in the region of the hub region, the rotor blade at least partially has a thickness profile which has at the rear edge thereof a mandrel expansion, wherein, - in the region of the hub region, the rear edge is a flat or curved rear edge and the thickness profile at least partially has: - at the intake side a first mandrel expansion at the rear edge, and - at the pressure side a second mandrel expansion at the rear edge, characterised in that - in the region of the hub region, the thickness profile at least partially has a flow stabiliser and/or a vortex generator at the intake side and/or pressure side.
An image forming apparatus comprising: a human sensor that detects a human; and a controller that performs a predetermined process when a warming-up process for increasing a temperature of a fixing device is started in a state where the human sensor does not detect the human, characterized in that the controller counts up a counter when new warming-up process is started before the warming-up process is terminated, and performs the predetermined process when the counter reaches a threshold. a human sensor that detects a human; and a controller that performs a predetermined process when a warming-up process for increasing a temperature of a fixing device is started in a state where the human sensor does not detect the human, characterized in that the controller counts up a counter when new warming-up process is started before the warming-up process is terminated, and performs the predetermined process when the counter reaches a threshold.
Electric bicycle battery holder assembly for tool-free insertion of a traction accumulator on an electric bicycle frame section with a swivelling movement in the locking direction, or for tool-free removal of the traction accumulator from the electric bicycle battery holder assembly with a swivelling movement in the removal direction, wherein the traction accumulator has two end faces (91, 92) facing away from each other at its two longitudinal ends (LG, LV), having a pivot joint retaining arrangement at the pivot longitudinal end of the traction accumulator and a locking retaining arrangement at the locking longitudinal end of the traction accumulator, wherein the pivot joint retaining arrangement is defined by a frame-fixed frame joint module and by a traction accumulator-side accumulator joint module, wherein the accumulator joint module has a convex partial cylinder body (541, 542) and the frame joint module has a corresponding concave partial hollow cylinder in which the partial cylinder body (541, 542) engages substantially without play, wherein the cylinder axis of the partial cylinder body (541, 542) or of the partial hollow cylinder forms the pivot axis of the pivot joint retaining arrangement, the partial cylinder body (541, 542) and the partial hollow cylinder being arranged on the side of the traction accumulator and of the frame section facing the removal direction, and wherein the frame hinge module is fixed to the electric bicycle battery holder assembly by a fixing arrangement, characterised in that the cylinder axis and the fixing plane of the fixing arrangement are spaced less than 15 mm apart in a direction transverse to the longitudinal axis of the traction accumulator. a pivot joint retaining arrangement at the pivot longitudinal end of the traction accumulator and a locking retaining arrangement at the locking longitudinal end of the traction accumulator, wherein the pivot joint retaining arrangement is defined by a frame-fixed frame joint module and by a traction accumulator-side accumulator joint module, wherein the accumulator joint module has a convex partial cylinder body (541, 542) and the frame joint module has a corresponding concave partial hollow cylinder in which the partial cylinder body (541, 542) engages substantially without play, wherein the cylinder axis of the partial cylinder body (541, 542) or of the partial hollow cylinder forms the pivot axis of the pivot joint retaining arrangement, the partial cylinder body (541, 542) and the partial hollow cylinder being arranged on the side of the traction accumulator and of the frame section facing the removal direction, and wherein the frame hinge module is fixed to the electric bicycle battery holder assembly by a fixing arrangement, characterised in that the cylinder axis and the fixing plane of the fixing arrangement are spaced less than 15 mm apart in a direction transverse to the longitudinal axis of the traction accumulator.
A method for the torque measurement in the drive train of a wind energy facility with at least two incremental encoders (7, 8) which are positioned at two different positions on at least one shaft of the drive train and which each provide periodic rotation signals, wherein the phases of the rotation signals are evaluated for determining a phase shift and a torque of the shaft is determined from the phase shift, wherein the determined phase shift is corrected in dependence on a zero-load phase shift (A ZERO) and using a stiffness factor K, wherein an in-situ calibration is carried out before and/or between the torque evaluations, for determining the zero-load phase shift (A ZERO) and the stiffness factor K, and the in-situ calibration comprises the following step: - measuring a first zero-load signal of the first incremental encoder and a second zero-load signal of the second incremental encoder over a first measuring time period and determining a temporally averaged zero-load phase shift (A ZERO) between the first zero-load signal and the second zero-load signal, wherein the wind energy facility during the first measuring time period is operated below a nominal speed and a generator torque is equal to zero, the method being characterized in that the in-situ calibration further comprises the step of: - measuring a first nominal load signal of the first incremental encoder and a second nominal load signal of the second incremental encoder over a second measuring time period, determining a temporally averaged nominal load phase shift between the first nominal load signal and the second nominal load signal and determining the stiffness factor K in dependence on the nominal load phase shift, wherein the wind energy facility is operated at the nominal speed during the second measuring time period and the generator torque of the wind energy facility is kept larger than zero. - measuring a first zero-load signal of the first incremental encoder and a second zero-load signal of the second incremental encoder over a first measuring time period and determining a temporally averaged zero-load phase shift (A ZERO) between the first zero-load signal and the second zero-load signal, wherein the wind energy facility during the first measuring time period is operated below a nominal speed and a generator torque is equal to zero, - measuring a first nominal load signal of the first incremental encoder and a second nominal load signal of the second incremental encoder over a second measuring time period, determining a temporally averaged nominal load phase shift between the first nominal load signal and the second nominal load signal and determining the stiffness factor K in dependence on the nominal load phase shift, wherein the wind energy facility is operated at the nominal speed during the second measuring time period and the generator torque of the wind energy facility is kept larger than zero.
A method for compensating cyclical faults during the operation of a pump driven by an electric motor, in which a closed-loop control of the electric motor takes place using a closed control loop, in which a pilot control takes place, the method comprising the following steps: - providing a set-point-value signal for controlling the angular speed of the electric motor; - using the set-point-value signal for controlling the angular speed of the electric motor; - detecting at least two successive interference pulses in a signal used for controlling the electric motor, which signal is formed by a current set-point-value signal or by a current actual-value signal of an internal closed control loop for the closed-loop control of a current flowing in the electric motor; - generating a synchronous periodic compensation signal for the detected interference pulses; - forming a compensating set-point-value signal by connecting the periodic compensation signal to the set-point-value signal, so that the periodic compensation signal is used together with the set-point-value signal for the pilot control; and - using the compensating set-point-value signal for controlling the angular speed of the electric motor. - providing a set-point-value signal for controlling the angular speed of the electric motor; - using the set-point-value signal for controlling the angular speed of the electric motor; - detecting at least two successive interference pulses in a signal used for controlling the electric motor, which signal is formed by a current set-point-value signal or by a current actual-value signal of an internal closed control loop for the closed-loop control of a current flowing in the electric motor; - generating a synchronous periodic compensation signal for the detected interference pulses; - forming a compensating set-point-value signal by connecting the periodic compensation signal to the set-point-value signal, so that the periodic compensation signal is used together with the set-point-value signal for the pilot control; and - using the compensating set-point-value signal for controlling the angular speed of the electric motor.
A method, comprising: receiving, at a computing system, an authorization profile associated with a voice profile that includes an adapted voice of a speaker based on a personalization of a speech model to one or more speech samples, wherein the one or more speech samples include a plurality of utterances spoken by the speaker, wherein the authorization profile identifies one or more respective other users whom are different from the speaker and authorized to use the voice profile on at least one other computing device associated with the one or more respective other users; and based at least in part on the authorization profile, the computing system providing the voice profile to the at least one other computing device associated with the one or more respective other users and the computing system preventing access of the voice profile by users not identified in the authorization profile. receiving, at a computing system, an authorization profile associated with a voice profile that includes an adapted voice of a speaker based on a personalization of a speech model to one or more speech samples, wherein the one or more speech samples include a plurality of utterances spoken by the speaker, wherein the authorization profile identifies one or more respective other users whom are different from the speaker and authorized to use the voice profile on at least one other computing device associated with the one or more respective other users; and based at least in part on the authorization profile, the computing system providing the voice profile to the at least one other computing device associated with the one or more respective other users and the computing system preventing access of the voice profile by users not identified in the authorization profile.
Storage tank of an agricultural distribution machine, having a covering tarpaulin, the upper tank opening of which storage tank can be covered by means of the covering tarpaulin, wherein the covering tarpaulin is fastened on its one side to the storage tank and on its opposite side to a first longitudinal bar, wherein the first longitudinal bar is fastened to a pivot arm that is pivotable about a pivot pin located approximately in the middle of the storage tank and/or is part of the pivot arm, wherein the pivot arm is articulated in a pivotable manner on the storage tank, wherein the covering tarpaulin is pivotable away by means of the pivot arm in order to clear the filling opening of the storage tank, wherein at least one further longitudinal bar is arranged on the covering tarpaulin and is fastened parallel to that side of the storage tank to which the covering tarpaulin runs, and to the first longitudinal bar, characterized in that the further longitudinal bar is likewise fastened pivotably to the storage tank by means of a pivot arm and/or as part of a pivot arm, in that the further longitudinal bar is fastened to the covering tarpaulin closer to the side (3, 6) at which the covering tarpaulin is fastened to the storage tank than to the side at which the covering tarpaulin is fastened to the first longitudinal bar.
A preparation method of electrical contact material comprising following steps: In a 1st step, adopting chemical plating to cover a nickel coating on aquadag or metallic oxide particles; in a 2nd step, adopting chemical plating to further cover a silver coating on the aquadag or metallic oxide particles with nickel-coating by the 1st step; in a 3rd step, adopting nitrogen protection to conduct sintering granulation to the powder of Ag-Ni-C or Ag-Ni-MeO core-shell structure which is formed by the 2nd step, and obtaining the intermediate composite particle powder, then sieving; in a 4th step, mixing the intermediate composite particles after sieving by the 3rd step with pure silver powder to reduce the content of aquadag or metallic oxide to a setting value; in a 5th step, making the well-mixed powder of the 4th step pressed and nitrogen protection atmosphere sintered, then by extruding and optionally drawing obtaining the electrical contact material where aquadag or metallic oxide particles are in fibrous arrangement in some regions, wherein in these regions, there are mainly nickel and a small quantity of silver besides aquadag reinforcement or metallic oxide reinforcement. In a 1st step, adopting chemical plating to cover a nickel coating on aquadag or metallic oxide particles; in a 2nd step, adopting chemical plating to further cover a silver coating on the aquadag or metallic oxide particles with nickel-coating by the 1st step; in a 3rd step, adopting nitrogen protection to conduct sintering granulation to the powder of Ag-Ni-C or Ag-Ni-MeO core-shell structure which is formed by the 2nd step, and obtaining the intermediate composite particle powder, then sieving; in a 4th step, mixing the intermediate composite particles after sieving by the 3rd step with pure silver powder to reduce the content of aquadag or metallic oxide to a setting value; in a 5th step, making the well-mixed powder of the 4th step pressed and nitrogen protection atmosphere sintered, then by extruding and optionally drawing obtaining the electrical contact material where aquadag or metallic oxide particles are in fibrous arrangement in some regions, wherein in these regions, there are mainly nickel and a small quantity of silver besides aquadag reinforcement or metallic oxide reinforcement.
Aqueous conditioning shampoo comprising cleansing surfactant and a conditioning gel network, the gel network comprising a particulate having a melting point above 70°C and glyceryl monostearate, the conditioning gel network obtainable by melting the glyceryl monostearate in water then adding the particulate, which is a hydrophobically-modified clay.
Wrought product made of aluminium alloy having the composition, in % by weight, Mg: 4.0 - 5.0; Li: 1.0 - 1.8; Mn: 0.35 - 0.45; Zr: 0.05 - 0.15; Ag: ≤ 0.5; Fe: ≤ 0.1; Ti: < 0.15; Si: ≤ 0.05; other elements ≤ 0.05 each and ≤ 0.15 in combination; the balance being aluminium.