mhurhangee/patent-ind-claim-en huggingface dataset:
An electrically powered tool comprising: a rectifier circuit configured to rectify an AC voltage supplied from a commercial power supply to a pulsating DC voltage, a smoothing circuit having a smoothing capacitor configured to reduce a pulsation state of the pulsating DC voltage, a circuit configured to supply a DC voltage smoothed by the smoothing circuit to a motor , and a power transmission mechanism configured to transmit a driving force of the motor to a tip tool, and characterised in that a current continuously flows to the motor when the motor is driven in a state in which no load is applied to the tip tool, and in a state in which a load is applied to the tip tool, when the load applied to the tip tool is increased, the current flowing to the motor becomes intermittent. a rectifier circuit configured to rectify an AC voltage supplied from a commercial power supply to a pulsating DC voltage, a smoothing circuit having a smoothing capacitor configured to reduce a pulsation state of the pulsating DC voltage, a circuit configured to supply a DC voltage smoothed by the smoothing circuit to a motor , and a power transmission mechanism configured to transmit a driving force of the motor to a tip tool, and characterised in that a current continuously flows to the motor when the motor is driven in a state in which no load is applied to the tip tool, and in a state in which a load is applied to the tip tool, when the load applied to the tip tool is increased, the current flowing to the motor becomes intermittent.
Magnetic bearing comprising a stator and a rotor wherein the rotor is arranged coaxial in a cavity of the stator , and said cavity is defined by an internal surface of the stator and is extended along a longitudinal direction (L), wherein said rotor is rotatable around an axis of rotation (X) in said cavity , wherein said rotor comprises a plurality of magnets arranged at the region of an external surface of the rotor facing, and spaced apart with respect to, said internal surface of the stator , wherein each magnet of said plurality of magnets is polarized in a radial direction (Y) and wherein said stator comprises at least three magnetic groups arranged consecutively along said longitudinal direction (L) on said internal surface of the stator and arranged staggered one with respect to the other in a radial direction (Y) around said axis of rotation and (X) and distributed along the internal surface of the stator around said rotor, wherein each magnetic group is polarized in said radial direction (Y) in the opposite direction with respect to said plurality of magnets of the rotor to create a repulsive force between said rotor and said stator , and wherein each magnetic group is configured to create a first force region and a second force region radially opposite to said first force region with respect to said axis of rotation (X), wherein the repulsive force between said stator and said rotor is greater in said first force region than the repulsive force between said stator and said rotor in said second force region , characterized in that said at least three magnetic groups , when viewed from an axial end of the cavity , cover an entire cylindrical wall of the internal surface of the stator around said rotor.
Use of an angiopoietin-like 4 (Angptl4) polypeptide in the manufacture of a medicament for the treatment or prevention of proteinuria.
Pneumatic massage device for a vehicle seat comprising: an array of distributed inflatable air cells (22, 22', 22") equipped with an air conduit structure which is connectable to receive pressurized air for inflation and to vent off air from the air cell array for deflation, and which has for each air cell a flow connection for air flow to and from the air cell; a valve arrangement for controlling flow into and out of the air cell array by selectively establishing inflation and deflation states, wherein the valve arrangement is configured to permit, in the inflation state, pressurized air flow to the air cell array, and to permit, in the deflation state, air to flow from the air cells out of the conduit structure for venting off; and a plurality of flow resistors arranged in the array of air cells such that the flow resistance to the air cells is increasing along the air cell array, and such that expansion of air cells due to inflation is propagating through the array and reaching at last a pneumatic end region of the array with a time delay; characterized in that at least some of the flow resistors of the array of air cells are asymmetric flow resistors in terms of flow direction in that the flow resistance generated by each asymmetric flow resistor for the flow direction during inflation is higher than the flow resistance generated for flow in reverse direction during deflation. an array of distributed inflatable air cells (22, 22', 22") equipped with an air conduit structure which is connectable to receive pressurized air for inflation and to vent off air from the air cell array for deflation, and which has for each air cell a flow connection for air flow to and from the air cell; a valve arrangement for controlling flow into and out of the air cell array by selectively establishing inflation and deflation states, wherein the valve arrangement is configured to permit, in the inflation state, pressurized air flow to the air cell array, and to permit, in the deflation state, air to flow from the air cells out of the conduit structure for venting off; and a plurality of flow resistors arranged in the array of air cells such that the flow resistance to the air cells is increasing along the air cell array, and such that expansion of air cells due to inflation is propagating through the array and reaching at last a pneumatic end region of the array with a time delay; characterized in that at least some of the flow resistors of the array of air cells are asymmetric flow resistors in terms of flow direction in that the flow resistance generated by each asymmetric flow resistor for the flow direction during inflation is higher than the flow resistance generated for flow in reverse direction during deflation.
A track mechanism for a door unit of a front-loading washing machine comprising a base, the base being provided with a track portion configured to guide a movable body to move along the track portion , wherein the base comprises a supporting body and a track body , the track portion is arranged on the track body , the supporting body and the track body are stacked and combined relative to each other, the supporting body is provided with a guide portion in a corresponding shape and position to the track portion , and wear resistance of the track body is higher than that of the supporting body .
Machine for additive manufacturing by powder bed deposition, the machine comprising a work top , a work area , a device for depositing a layer of powder onto the work area and a heat or energy source used to selectively consolidate a layer of powder deposited onto the work area, the device for depositing a layer of powder comprising a movable element for receiving powder moving relative to the work top and in the vicinity of the work area, a device for dispensing a bead of powder onto the movable element and a device for spreading the bead of powder from the movable element towards the work area, the additive manufacturing machine is characterized in that the movable element assumes the form of a slide mounted to translationally move in a transverse horizontal direction (D36) relative to the work area and moving between a retracted position, in which said slide is located outside the trajectory of the powder spreading device , and a deployed position, in which said slide at least partly extends into the trajectory of the powder spreading device or the movable element externally surrounding the work area over its entire circumference and rotationally moving around the work area , at least part of the upper surface (S28, S128) of said movable element is located above the upper surface (S18) of the work top and/or at least part of the upper surface (S28, S128) of said movable element is located below the upper surface (S18) of the work top, machine for additive manufacturing wherein at least part of the upper surface of said movable element is located in the extension of the upper surface of the work top, and wherein this movable element also comprises at least one raised form rising above its upper surface and/or at least one recessed form extending below its upper surface.
A method of reducing heating at an electrode on a lead of an implantable medical system during an MRI scan, wherein the lead includes one or more stimulation conductors and a shunt conductor , the method comprising: monitoring a temperature at the one or more electrodes during an MRI scan; and upon detecting that the temperature being monitored exceeds a threshold, then shunting, within the shunt conductor of the lead , electrical current from the one or more stimulation conductors to a heat sink externally located on the implantable medical system . monitoring a temperature at the one or more electrodes during an MRI scan; and upon detecting that the temperature being monitored exceeds a threshold, then shunting, within the shunt conductor of the lead , electrical current from the one or more stimulation conductors to a heat sink externally located on the implantable medical system .
A combination comprising therapeutically effective doses of dabrafenib and trametinib for use in providing adjuvant treatment to a patient with a prior diagnosis of melanoma which has been resected, wherein administration of dabrafenib and trametinib is for a time period sufficient to increase relapse-free survival (RFS).
A rectangular substrate which is to be provided with a topological pattern for use as a mold, the substrate having A-side and B-side opposed surfaces, the A-side surface being to be provided with the topological pattern, wherein the A-side surface includes a central rectangular region which is 1 to 50 mm by 1 to 50 mm in size and to be provided with the topological pattern, the central rectangular region having a flatness up to 350 nm; characterised in that a distance t1' between the central rectangular region of the A-side surface and the B-side surface is greater than a distance t1 between a peripheral region of the A-side surface, excluding the central rectangular region , and the B-side surface , i.e. t1' > t1; and the value of t1'-t1 is 10 μm to 3 mm.
An A-type polymorphic substance of yonkenafil hydrochloride, wherein the X-ray powder diffraction pattern of the polymorphic substance comprises diffraction peaks at more than three 2θ values selected from 8.4° ± 0.2°, 11.3° ± 0.2°, 13.9° ± 0.2°, 14.2° ± 0.2°, 14.7° ± 0.2°, 16.8° ± 0.2°, 17.1° ± 0.2°, 19.7° ± 0.2°, 21.0° ± 0.2° , 21.7° ± 0.2°, 22.4° ± 0.2°, 23.3° ± 0.2°, 23.8° ± 0.2°, 26.8° ± 0.2°, 27.5° ± 0.2° and 28.0° ± 0.2°.
Method for controlling a vehicle dynamics control device which is designed to influence the braking of wheels of a motor vehicle, wherein the vehicle dynamics control device has a pump with at least two pump elements for delivering a brake fluid and an electric motor comprising a rotor and a stator for driving the pump elements , and characterized in that the method comprises the following steps: detecting the position of the rotor relative to the stator; and setting an ideal position of the rotor relative to the stator, wherein the sum of the torques for moving the pump elements lies below a specified torque limit value, in particular is at a minimum, in the ideal position, wherein the ideal position is determined by way of a specified counterpressure against the delivery of the brake fluid by means of the pump being generated and the required current of the electric motor for delivering the brake fluid against the generated counterpressure by means of the pump elements being detected, wherein that position of the rotor relative to the stator in which the required current for the electric motor lies below a specified current value, in particular is at a minimum, is determined as the ideal position. detecting the position of the rotor relative to the stator; and setting an ideal position of the rotor relative to the stator, wherein the sum of the torques for moving the pump elements lies below a specified torque limit value, in particular is at a minimum, in the ideal position, wherein the ideal position is determined by way of a specified counterpressure against the delivery of the brake fluid by means of the pump being generated and the required current of the electric motor for delivering the brake fluid against the generated counterpressure by means of the pump elements being detected, wherein that position of the rotor relative to the stator in which the required current for the electric motor lies below a specified current value, in particular is at a minimum, is determined as the ideal position.
A test troubleshooting system for automatic provision of test failure data, TFD, used to identify and/or remedy testing faults in a test setup , the test troubleshooting system including a troubleshooting device ; and at least one test and measurement device adapted to generate log files, LogF, supplied by said test and measurement device via a network to the troubleshooting device of said test troubleshooting system , wherein the troubleshooting device comprises an analyzing unit adapted to search for patterns in the received log and analyze the received log files, LogF, to identify testing faults in the test setup , and a generation unit adapted to generate automatically test failure data, TFD, for the identified testing faults transmitted by the troubleshooting device to said test and measurement device and/or to a user workstation (7-1, 7-2) of said test troubleshooting system , wherein the test failure data, TFD, include information about the identified testing faults, information about failure correction of the identified testing faults and/or configuration parameters used to reconfigure automatically an applied test case scenario, TCS. a troubleshooting device ; and at least one test and measurement device adapted to generate log files, LogF, supplied by said test and measurement device via a network to the troubleshooting device of said test troubleshooting system , wherein the troubleshooting device comprises an analyzing unit adapted to search for patterns in the received log and analyze the received log files, LogF, to identify testing faults in the test setup , and a generation unit adapted to generate automatically test failure data, TFD, for the identified testing faults transmitted by the troubleshooting device to said test and measurement device and/or to a user workstation (7-1, 7-2) of said test troubleshooting system , wherein the test failure data, TFD, include information about the identified testing faults, information about failure correction of the identified testing faults and/or configuration parameters used to reconfigure automatically an applied test case scenario, TCS. an analyzing unit adapted to search for patterns in the received log and analyze the received log files, LogF, to identify testing faults in the test setup , and a generation unit adapted to generate automatically test failure data, TFD, for the identified testing faults transmitted by the troubleshooting device to said test and measurement device and/or to a user workstation (7-1, 7-2) of said test troubleshooting system , wherein the test failure data, TFD, include information about the identified testing faults, information about failure correction of the identified testing faults and/or configuration parameters used to reconfigure automatically an applied test case scenario, TCS.
An agricultural implement comprising: a frame ; a trench opener for opening a soil trench in a soil surface ; and, a first ultrasonic sensor (1020-1) disposed to send and receive a first signal to and from, respectively, the soil surface , characterized in that the first signal is sent and received to and from, respectively, a first side (7-1) of said soil trench ; and the implement further comprises: a second ultrasonic sensor (1020-2) disposed to send and receive a second signal to and from, respectively, a second side (7-2) of said soil trench , and, a trench implement disposed in said soil trench . a frame ; a trench opener for opening a soil trench in a soil surface ; and, a first ultrasonic sensor (1020-1) disposed to send and receive a first signal to and from, respectively, the soil surface , characterized in that the first signal is sent and received to and from, respectively, a first side (7-1) of said soil trench ; and the implement further comprises: a second ultrasonic sensor (1020-2) disposed to send and receive a second signal to and from, respectively, a second side (7-2) of said soil trench , and, a trench implement disposed in said soil trench . a second ultrasonic sensor (1020-2) disposed to send and receive a second signal to and from, respectively, a second side (7-2) of said soil trench , and, a trench implement disposed in said soil trench .
A cable tie comprising: - a cord having a first end and a second end , which cord comprises cellulosic fibers; and - a locking head fixedly attached to the first end , said locking head being adapted to receive the second end and retain the cable tie in a closed loop configuration, wherein said locking head defines (a) wall(s) that encircles a passage having an inlet and an outlet and comprises a metal blade that extends into the passage for engaging the cord and which is arranged to allow displacement of the cord in a first direction towards the outlet while preventing displacement of the cord in a second direction towards the inlet . - a cord having a first end and a second end , which cord comprises cellulosic fibers; and - a locking head fixedly attached to the first end , said locking head being adapted to receive the second end and retain the cable tie in a closed loop configuration,
An apparatus for providing arrhythmia information using an esophageal probe comprising a catheter and having an longitudinal axis oriented in the direction of the esophagus where it is intended to be lodged, the probe comprising at least three electrode portions spaced in the longitudinal esophageal direction of the probe, the apparatus comprising a control unit, wherein the electrode portions are connected to the control unit, wherein the control unit is configured to detect potential differences between different pairs of the electrode portions, characterized in that the control unit is configured to determine and use a repeating heart beat pattern as basis for a determination of the potential in the direction of the longitudinal axis of the esophageal probe using compressive sensing, wherein the control unit is configured to extract, in a pre-processing step, pattern repetitions over multiple heart beats by signal processing clustering, wherein the control unit is further configured to estimate, in a first processing step, the movement of the catheter relative to the heart based on the determined pattern repetition through arbitrary spatial sampling along the longitudinal esophageal direction of the probe due to small but arbitrarily varying catheter positions, and, in turn, electrode positions, and is configured to determine, in a second processing step, based on the estimated movement of the catheter relative to the heart, the catheter position, and in turn, the electrode position and the potential measurement for each heart cycle.
A device for fastening a wristlet to a watch case , comprising: - an end body (10A; 10B) of the wristlet, - at least one movable fastening element comprising a pivot part and mounted in the end body (10A; 10B) to be movable between an engagement position in which the pivot part is arranged to engage with the case for example in a bore of a horn of the case , and a retracted position in which the pivot part is arranged to disengage from the case so as to be able to release the end body (10A; 10B) from the case , - a lever (30; 30B; 30C) movably mounted in rotation on the end body (10A; 10B), - at least one movable cam engaged with the lever (30; 30B; 30C) to switch the movable fastening element from the engagement position to the retracted position during a rotation of the lever (30; 30B; 30C), characterized: - in that the device comprises at least one static cam fixedly mounted on the end body (10A; 10B) facing the movable cam , to impose an axial movement on the movable cam during its rotation, - and in that the movable cam is directly formed on the movable fastening element , and arranged between the lever (30; 30B; 30C) and the static cam . - an end body (10A; 10B) of the wristlet, - at least one movable fastening element comprising a pivot part and mounted in the end body (10A; 10B) to be movable between an engagement position in which the pivot part is arranged to engage with the case for example in a bore of a horn of the case , and a retracted position in which the pivot part is arranged to disengage from the case so as to be able to release the end body (10A; 10B) from the case , - a lever (30; 30B; 30C) movably mounted in rotation on the end body (10A; 10B), - at least one movable cam engaged with the lever (30; 30B; 30C) to switch the movable fastening element from the engagement position to the retracted position during a rotation of the lever (30; 30B; 30C), - in that the device comprises at least one static cam fixedly mounted on the end body (10A; 10B) facing the movable cam , to impose an axial movement on the movable cam during its rotation, - and in that the movable cam is directly formed on the movable fastening element , and arranged between the lever (30; 30B; 30C) and the static cam .
A method implemented in a CELP-based sound signal encoder or a CELP-based sound signal decoder for converting, when the encoder or the decoder switches from a first frame with an internal sampling rate S1 to a second frame with an internal sampling rate S2, linear predictive, LP, filter parameters of the first frame from the internal sampling rate S1 to the internal sampling rate S2, the method being characterized by : computing, at the internal sampling rate S1, a power spectrum of a LP synthesis filter using the LP filter parameters; modifying the power spectrum of the LP synthesis filter to convert it from the internal sampling rate S1 to the internal sampling rate S2; inverse transforming the modified power spectrum of the LP synthesis filter to determine autocorrelations of the LP synthesis filter at the internal sampling rate S2; and using the autocorrelations to compute the LP filter parameters at the internal sampling rate S2. computing, at the internal sampling rate S1, a power spectrum of a LP synthesis filter using the LP filter parameters; modifying the power spectrum of the LP synthesis filter to convert it from the internal sampling rate S1 to the internal sampling rate S2; inverse transforming the modified power spectrum of the LP synthesis filter to determine autocorrelations of the LP synthesis filter at the internal sampling rate S2; and using the autocorrelations to compute the LP filter parameters at the internal sampling rate S2.