mhurhangee/ep-ind-claims huggingface dataset:
A blood treatment device, in particular a dialysis machine, having at least one weighing system, that is preferably designed for the determination of the weight of at least one solution, in particular a dialysis solution, wherein the weighing system has at least one load cell that emits at least one signal that is characteristic of the weight present on the weighing system, wherein the blood treatment device is configured with at least one apparatus for inspecting the weighing system, wherein the apparatus has at least one plunger, at least one coil,which has at least one hollow space and in which the plunger is movably received, as well as at least one power source which applies current to the coil at least at times, wherein the coil or the plunger is arranged at the weighing system to apply a defined force to the load cell when the coil is flowed through by current, wherein the current source is configured such that current is applied to the coil while the blood treatment device is in operation, i e. during the blood treatment-
A signal processing device in a wind profiler that emits an electromagnetic wave pulse into a space, switches from transmitting to receiving, receives an electromagnetic wave reflected from a target to be observed, and measures wind speed from a Doppler frequency of the received electromagnetic wave, characterized by - a detector that detects a noise section in which switching noise occurs due to the switching between transmitting and receiving; - a signal suppressor that converts a received signal in the noise section to substantially insignificant data; - a Fourier transform processor that applies a Fourier transform to the received signal data; - an incoherent integrator that computes a power spectrum from data of a received signal Fourier-transformed by the Fourier transform processor, and that accumulates a power spectrum obtained at a plurality of times during an incoherent integration time; - wherein the detector detects the noise section by determining whether or not a noise signal is present from a power spectrum accumulated by the incoherent integrator, and sets a replacing section in which the received signal is to be replaced with a fixed value, and - wherein the signal suppressor includes - an unnecessary data eraser that, on the basis of a replacing section set by the detector, replaces data of the received signal in the replacing section with a fixed value; and - a DC component remover that removes a DC component of the power spectrum that is generated by replacing data of a received signal with the fixed value in the unnecessary data eraser. - a detector that detects a noise section in which switching noise occurs due to the switching between transmitting and receiving; - a signal suppressor that converts a received signal in the noise section to substantially insignificant data; - a Fourier transform processor that applies a Fourier transform to the received signal data; - an incoherent integrator that computes a power spectrum from data of a received signal Fourier-transformed by the Fourier transform processor, and that accumulates a power spectrum obtained at a plurality of times during an incoherent integration time; - wherein the detector detects the noise section by determining whether or not a noise signal is present from a power spectrum accumulated by the incoherent integrator, and sets a replacing section in which the received signal is to be replaced with a fixed value, and - wherein the signal suppressor includes - an unnecessary data eraser that, on the basis of a replacing section set by the detector, replaces data of the received signal in the replacing section with a fixed value; and - a DC component remover that removes a DC component of the power spectrum that is generated by replacing data of a received signal with the fixed value in the unnecessary data eraser.
A coin identification device which identifies a plated coin comprising an identification sensor (3, 203, 303) oscillating at a relatively high frequency formed of coils arranged on a wall face of a coin passage in which the coin rotatively moves, in a position where a thickly plated part of layer of the coin passes through, characterized by determination means for determining coin genuineness by obtaining the thickness of the plated layer (12, 14) in the margin from output of the identification sensor characteristic data including characteristics of both of a plated layer and a core material (11, 13) of the coin and reflecting the difference (A-B) of the plated layer (12, 14) thickness between the genuine and the forged layer and wherein the voltage and its frequency output from the identification sensor (3, 203, 303) change differently in comparison between the case where the genuine coin has passed and the case where the forged coin has passed, and the difference enables the genuine coin and the forged coin to be determined.
A tissue puncture closure device, comprising: an anchor; a sealing plug; a compaction member configured to compress the sealing plug towards the anchor; a suture coupled to the sealing plug and anchor; a handle portion arranged proximal of the sealing plug and anchor; a sheath attachment member, the tissue puncture closure device characterised in that said sheath attachment member is distally extending from the handle portion and in that it further comprises a sheath adapter having a first end portion and a second end portion, the second end portion being configured to mount to a procedural sheath that is inserted into a tissue puncture, wherein the first end portion and the sheath attachment member are each configured such that the sheath attachment member can be inserted into the first end portion. an anchor; a sealing plug; a compaction member configured to compress the sealing plug towards the anchor; a suture coupled to the sealing plug and anchor; a handle portion arranged proximal of the sealing plug and anchor; a sheath attachment member, the tissue puncture closure device characterised in that said sheath attachment member is distally extending from the handle portion and in that it further comprises a sheath adapter having a first end portion and a second end portion, the second end portion being configured to mount to a procedural sheath that is inserted into a tissue puncture, wherein the first end portion and the sheath attachment member are each configured such that the sheath attachment member can be inserted into the first end portion.
A compound having formula I, or a pharmaceutically acceptable salt or enantiomer or tautomer thereof: wherein, each of R 1, R 2 and R 3 is independently selected from hydrogen, halogen, C 1 -C 3 alkyl, amino and hydroxyl; is selected from: R 6 is selected from deuterium, halogen, amino and hydroxyl; n is 0, 1 or 2; Q is aryl or heteroaryl optionally substituted with one or more halogens, the aryl group is phenyl, and the heteroaryl is selected from furyl, pyrrolyl, thienyl and pyridyl; the enantiomer is racemate or R isomer. each of R 1, R 2 and R 3 is independently selected from hydrogen, halogen, C 1 -C 3 alkyl, amino and hydroxyl; is selected from: R 6 is selected from deuterium, halogen, amino and hydroxyl; n is 0, 1 or 2; Q is aryl or heteroaryl optionally substituted with one or more halogens, the aryl group is phenyl, and the heteroaryl is selected from furyl, pyrrolyl, thienyl and pyridyl; the enantiomer is racemate or R isomer.
At least one chemical entity chosen from compounds of Formula I and pharmaceutically acceptable salts thereof, wherein R 1 is chosen from hydrogen, optionally substituted alkyl, optionally substituted acyl, optionally substituted aminocarbonyl, optionally substituted alkoxycarbonyl,-P(=O)(OR a)(OR b), and -C(R c)(R d)OP(=O)(OR a)(OR b), where R a, R b, R c, and R d are independently chosen from hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocycloalkyl, optionally substituted aryl, and optionally substituted heteroaryl; X is chosen from -OR 2 and -NR 3 R 4; R 2 is chosen from hydrogen, optionally substituted alkyl, optionally substituted aryl, optionally substituted cycloalkyl, optionally substituted heteroaryl, optionally substituted heteroclycloalkyl, optionally substituted acyl, optionally substituted aminocarbonyl, and optionally substituted alkoxycarbonyl; R 3 is chosen from hydrogen, optionally substituted alkyl, optionally substituted aryl, optionally substituted cycloalkyl, optionally substituted heteroaryl, optionally substituted heteroclycloalkyl, optionally substituted acyl, optionally substituted aminocarbonyl, optionally substituted alkoxycarbonyl, and optionally substituted sulfonyl; and R 4 is chosen from hydrogen, optionally substituted alkyl, optionally substituted aryl, optionally substituted cycloalkyl, optionally substituted heteroaryl, optionally substituted heteroclycloalkyl, optionally substituted alkoxy, optionally substituted cycloalkyloxy, and optionally substituted heterocycloalkyloxy; or R 3 and R 4 may optionally be joined together with any intervening atoms to form an optionally substituted heterocycloalkyl ring provided that the compound of Formula I is not (6bS,8aS,11R,12aR,12bS,14aR)-3-hydroxy-11-(hydroxymethyl)-4,6b,8a,11,12b,14a-hexamethyl-7,8,8a,9,10,11,12,12a,12b,13,14,14a-dodecahydropicen-2 -one.
A surgical apparatus for the treatment of an aneurysm, comprising: a stent, a delivery guide wire, an introducer sheath and a microcatheter, wherein: the stent is self-expanding; the delivery guide wire is placed in the inner cavity of the introducer sheath, with the stent restrained on the outside thereof; and the introducer sheath is connected with the microcatheter, with lumens communicating to form a passageway through which the delivery guide wire and the stent are deliverable into a human body, wherein the delivery guide wire comprises: a metal core for delivering and supporting the stent; a spring element covering the metal core; a boss fixed on the metal core, for providing a pushing force for the stent during delivery; and a plurality of delivery positioning elements fixed on the external surface of the spring element, for providing pushing or withdrawing forces for the stent during delivery. the stent is self-expanding; the delivery guide wire is placed in the inner cavity of the introducer sheath, with the stent restrained on the outside thereof; and the introducer sheath is connected with the microcatheter, with lumens communicating to form a passageway through which the delivery guide wire and the stent are deliverable into a human body, wherein the delivery guide wire comprises: a metal core for delivering and supporting the stent; a spring element covering the metal core; a boss fixed on the metal core, for providing a pushing force for the stent during delivery; and a plurality of delivery positioning elements fixed on the external surface of the spring element, for providing pushing or withdrawing forces for the stent during delivery. a metal core for delivering and supporting the stent; a spring element covering the metal core; a boss fixed on the metal core, for providing a pushing force for the stent during delivery; and a plurality of delivery positioning elements fixed on the external surface of the spring element, for providing pushing or withdrawing forces for the stent during delivery.
Method for supply of liquid from a liquid storage to a casing string (10, 12,14) which from a deck on an installation is conveyed down in a well with the help of a pipe handler comprising an elevator, where the liquid is supplied via an uppermost casing which is added to the casing string, and the liquid is supplied via a filling pipe to the top of the casing already during screwing of the pipe into the casing string (10,12, 14...) where the filling pipe is extended during the liquid supply until the casing string is lowered down into a position where it is locked to the deck, and there is added liquid to a suitable level in the casing string, characterized in that - the filling pipe comprises a telescopically, axially moveable pipe end part with a constricted outlet which leads to the pipe end part being pushed axially outwards and extends the filling pipe when the liquid is supplied under pressure, and - the pipe end part is pushed outwards under the countereffect of a prestressing force, and is pulled back under influence of said prestressing force when the liquid supply stops. - the filling pipe comprises a telescopically, axially moveable pipe end part with a constricted outlet which leads to the pipe end part being pushed axially outwards and extends the filling pipe when the liquid is supplied under pressure, and - the pipe end part is pushed outwards under the countereffect of a prestressing force, and is pulled back under influence of said prestressing force when the liquid supply stops.
A cartridge including a non-combustible tobacco vaping insert, comprising: a housing; a reservoir within the housing, the reservoir configured to contain a pre-vapor formulation; a first tube extending longitudinally within the housing, wherein at least one of the first tube and the housing at least partially defines an air passage; a wick in communication with at least one first portion of the air passage, distal ends of the wick being in communication with the reservoir; a heater configured to vaporize the pre-vapor formulation that is communicated to the heater by the wick; and a non-combustible tobacco vaping insert being positioned in at least one second portion of the air passage, the non-combustible tobacco vaping insert being configured to allow vapor that is generated by the heater to pass through the non-combustible tobacco vaping insert prior to being discharged from the cartridge, the non-combustible tobacco vaping insert including, a filter having a first diameter, and a non-combustible tobacco element with a first end contacting the filter, at least one first portion of the tobacco element having a second diameter that is smaller than the first diameter of the filter. a housing; a reservoir within the housing, the reservoir configured to contain a pre-vapor formulation; a first tube extending longitudinally within the housing, wherein at least one of the first tube and the housing at least partially defines an air passage; a wick in communication with at least one first portion of the air passage, distal ends of the wick being in communication with the reservoir; a heater configured to vaporize the pre-vapor formulation that is communicated to the heater by the wick; and a non-combustible tobacco vaping insert being positioned in at least one second portion of the air passage, the non-combustible tobacco vaping insert being configured to allow vapor that is generated by the heater to pass through the non-combustible tobacco vaping insert prior to being discharged from the cartridge, the non-combustible tobacco vaping insert including, a filter having a first diameter, and a non-combustible tobacco element with a first end contacting the filter, at least one first portion of the tobacco element having a second diameter that is smaller than the first diameter of the filter. a filter having a first diameter, and a non-combustible tobacco element with a first end contacting the filter, at least one first portion of the tobacco element having a second diameter that is smaller than the first diameter of the filter.
A service brake valve for at least one pneumatic brake circuit of a pneumatic or electropneumatic braking device of a vehicle, containing a service brake valve housing, a tappet actuable by a foot brake plate, a tappet receptacle with a spring plate, spring means for transmitting the actuating forces acting on the tappet to at least one relay piston, and at least one electric switch for changing an electric signal directly after actuation of the foot brake plate, characterized in that the electric switch can be directly actuated by the relay piston.
Motor vehicle drive train with a hydrodynamic retarder, 1.1 having a rotor which can be brought into rotation via a drive unit and a fixed stator or a stator rotating in opposite direction to the rotor, whereas 1.2 the rotor and the stator comprise bladed wheels, which form together a working chamber which can be filled with working medium; 1.3 the drive unit is provided with a separating clutch, by means of which the rotor can be disconnected for its immobilisation, comprising a driven primary side (5.1) and a secondary side (5.2) associated with the rotor; 1.4 having a control device which controls the opening and closing of the separating clutch for switching the retarder on and off; characterised in that 1.5 the control device when closing the separating clutch detects the run-up behaviour of the secondary side (5.2) of the separating clutch and/or of the rotor via at least one associated sensor or defines the run-up behaviour from at least one input value supplied thereto and according to the run-up behaviour initiates either the continuous closing of the separating clutch for slip bridging between the primary side (5.1) and the secondary side (5.2) for accelerating the rotor or the interruption of the closing process of the separating clutch. 1.1 having a rotor which can be brought into rotation via a drive unit and a fixed stator or a stator rotating in opposite direction to the rotor, whereas 1.2 the rotor and the stator comprise bladed wheels, which form together a working chamber which can be filled with working medium; 1.3 the drive unit is provided with a separating clutch, by means of which the rotor can be disconnected for its immobilisation, comprising a driven primary side (5.1) and a secondary side (5.2) associated with the rotor; 1.4 having a control device which controls the opening and closing of the separating clutch for switching the retarder on and off; characterised in that 1.5 the control device when closing the separating clutch detects the run-up behaviour of the secondary side (5.2) of the separating clutch and/or of the rotor via at least one associated sensor or defines the run-up behaviour from at least one input value supplied thereto and according to the run-up behaviour initiates either the continuous closing of the separating clutch for slip bridging between the primary side (5.1) and the secondary side (5.2) for accelerating the rotor or the interruption of the closing process of the separating clutch.
A fitting arrangement for a leaf of a window, of a door or the like having a leaf part configured for attachment to the leaf and having a frame part configured for attachment to a fixed-position frame, with the leaf part and the frame part being pivotably coupled to one another about a pivot axis, and with the frame part and the leaf part being movable relative to one another for adjustment purposes in a direction in parallel with the pivot axis by means of a longitudinal adjustment mechanism of an adjustment unit, wherein the longitudinal adjustment mechanism has self-locking properties; wherein the adjustment unit is arranged at the frame part or at the leaf part and cooperates with a slide which is movable for adjustment purposes, with the frame part and/or the leaf part being movable relative to the slide; and wherein the slide is arranged in a housing (28, 30), with guide elements (38, 40) for guiding the slide being provided at the slide and at the housing (28, 30), in particular with the housing (28, 30) substantially completely covering the adjustment unit, characterized in that the slide is associated with the frame part or with the leaf part; in that a tab is associated with the other part (14 or 12) and engages into the slide; and in that the guide elements (38, 40) comprise complementary ribs and grooves which form a bearing for pivoting the slide about an axis in parallel with the pivot axis.
An apparatus, comprising: a motor; a first scanner coupled to the motor, the motor configured to rotate the first scanner at a first angular velocity about a rotation axis to deflect a first beam incident in a third plane on the first scanner into a first plane different from the third plane, wherein the first beam is generated by a laser source; and a second scanner coupled to the motor, the motor configured to rotate the second scanner at a second angular velocity different from the first angular velocity about the rotation axis to deflect a second beam incident in the third plane on the second scanner into a second plane different from the third plane. a motor; a first scanner coupled to the motor, the motor configured to rotate the first scanner at a first angular velocity about a rotation axis to deflect a first beam incident in a third plane on the first scanner into a first plane different from the third plane, wherein the first beam is generated by a laser source; and a second scanner coupled to the motor, the motor configured to rotate the second scanner at a second angular velocity different from the first angular velocity about the rotation axis to deflect a second beam incident in the third plane on the second scanner into a second plane different from the third plane.
A method for detecting an active signal, wherein the method comprises: when it is determined that an audio signal is an unvoiced signal, determining an enhanced segmental signal-to-noise ratio, SSNR, of the audio signal, wherein the enhanced SSNR is greater than a reference SSNR and the reference SSNR is calculated by adding up all sub-band SNRs of the audio signal; and comparing the enhanced SSNR with a voice activity detection, VAD, decision threshold to determine whether the audio signal is an active signal, wherein determining the enhanced SSNR of the audio signal comprises: determining the reference SSNR of the audio signal; and determining the enhanced SSNR according to the reference SSNR of the audio signal. when it is determined that an audio signal is an unvoiced signal, determining an enhanced segmental signal-to-noise ratio, SSNR, of the audio signal, wherein the enhanced SSNR is greater than a reference SSNR and the reference SSNR is calculated by adding up all sub-band SNRs of the audio signal; and comparing the enhanced SSNR with a voice activity detection, VAD, decision threshold to determine whether the audio signal is an active signal, wherein determining the enhanced SSNR of the audio signal comprises: determining the reference SSNR of the audio signal; and determining the enhanced SSNR according to the reference SSNR of the audio signal. determining the reference SSNR of the audio signal; and determining the enhanced SSNR according to the reference SSNR of the audio signal.
A rotor of a turbomachine compressor, including a rotor disk which holds blades (14, 16) each of which has an extrados surface and an intrados surface, where the disk is fitted, at its radially outer end, with a wall forming the inner end of an annular flow channel of a primary gas flow in the turbomachine, where this wall is formed from multiple angular sectors, each of which is delimited between the extrados surface of a first blade and the intrados surface of a second blade which follows the said first blade directly in a circumferential direction, where each of the said sectors includes a bulging portion which is convex in the axial direction and in the circumferential direction and has an apex located radially outside relative to an imaginary surface of revolution around the axis of the said rotor disk and passing through four points defined by the intersection of the said wall with, respectively, the leading edge (44, 46) of each of the said first and second blades (14, 16), and the trailing edge (48, 50) of each of the said blades (14, 16), where the said apex is separated circumferentially from the extrados surface of the said first blade by a distance of between 30% and 70% of the circumferential distance between the said extrados and intrados surfaces of the said blades (14, 16) measured at the said apex, where the said wall also includes, upstream from the said bulging portion, a troughed portion concave in the axial direction, where the said rotor is characterised in that the troughed portion is also concave in the circumferential direction and has a base which is roughly punctiform.