mhurhangee/ep-ind-claims huggingface dataset:
Vertical lathe, with a vertically mounted workpiece spindle which has a workpiece holder on the underneath, and at least one tool spindle (11, 12) each with a tool holder to receive rotating tools and which is arranged on a spindle support which is able to pivot about a horizontal pivotal axis and which is mounted on each side along the pivotal axis, wherein the spindle support is supported with two pivotal bearings which are arranged opposite one another relative to the tool spindle(s) (12, 13), wherein the spindle support is yoke-shaped and is configured as a rocker arm so that the cutting regions of the rotating tools are located in the area of the pivotal axis of the spindle support, wherein the tool spindle is movable along a first direction, characterised in that the first direction (x) is at least substantially parallel to the direction of the pivotal axis of the spindle support, and a workpiece supply and storage device is arranged next to the spindle support in the direction of its pivotal axis.
An apparatus comprising: a feed-forward active noise reduction system for reducing acoustic noise in a vehicle cabin, comprising a transducer for transducing acoustic noise at a location in the vehicle cabin, to a noise signal; circuitry for determining the amplitude of the noise signal over a limited portion of a broadband frequency range, after having filtered the noise signal by band pass filtering the noise signal with a pass band between frequencies (f1, f2) between amplitude peaks of the vehicle engine noise, or by low pass filtering the noise signal with a break frequency below the first amplitude peak of the engine noise; circuitry for comparing the amplitude of the noise signal in the limited portion of the broadband frequency range with a limited frequency range threshold; and circuitry for modifying the noise signal if the amplitude of the noise signal in the limited portion of broadband frequency range exceeds the limited frequency range threshold, by reducing a gain applied to the noise signal for a period of time or by applying band limited attenuation. a feed-forward active noise reduction system for reducing acoustic noise in a vehicle cabin, comprising a transducer for transducing acoustic noise at a location in the vehicle cabin, to a noise signal; circuitry for determining the amplitude of the noise signal over a limited portion of a broadband frequency range, after having filtered the noise signal by band pass filtering the noise signal with a pass band between frequencies (f1, f2) between amplitude peaks of the vehicle engine noise, or by low pass filtering the noise signal with a break frequency below the first amplitude peak of the engine noise; circuitry for comparing the amplitude of the noise signal in the limited portion of the broadband frequency range with a limited frequency range threshold; and circuitry for modifying the noise signal if the amplitude of the noise signal in the limited portion of broadband frequency range exceeds the limited frequency range threshold, by reducing a gain applied to the noise signal for a period of time or by applying band limited attenuation.
An endovascular management and tracking system, comprising: a track (70, 70', 70"); and at least one shuttle (72, 72') to which at least one elongate medical device (26, 26') can be respectively affixed, each of the at least one shuttle (72, 72') configured for being mechanically coupled to the track (70, 70', 70"), and comprising a sled (90, 90') configured for riding on the track (70, 70', 70"), an axial drive mechanism (92, 92') carried by the sled (90, 90') and configured for being actuated to axially translate the respective shuttle (72, 72') along the track (70, 70', 70"), and an actuator (94, 94', 102, 102') carried by the sled (90, 90') and configured for actuating the axial drive mechanism (92, 92'), characterized in that: each of the at least one shuttle (72, 72') further comprises a locking mechanism carried by the sled (90, 90') and configured for being manually operated to alternately engage and disengage the axial drive mechanism (92, 92') to the track (70, 70', 70"). a track (70, 70', 70"); and at least one shuttle (72, 72') to which at least one elongate medical device (26, 26') can be respectively affixed, each of the at least one shuttle (72, 72') configured for being mechanically coupled to the track (70, 70', 70"), and comprising a sled (90, 90') configured for riding on the track (70, 70', 70"), an axial drive mechanism (92, 92') carried by the sled (90, 90') and configured for being actuated to axially translate the respective shuttle (72, 72') along the track (70, 70', 70"), and an actuator (94, 94', 102, 102') carried by the sled (90, 90') and configured for actuating the axial drive mechanism (92, 92'), characterized in that: each of the at least one shuttle (72, 72') further comprises a locking mechanism carried by the sled (90, 90') and configured for being manually operated to alternately engage and disengage the axial drive mechanism (92, 92') to the track (70, 70', 70").
A two-piece cable tie comprising: i) a composition wherein the composition comprises: a) a base plastic, wherein the base plastic is polyamide, and b) an antimicrobial additive, wherein the antimicrobial additive is silver sodium hydrogen zirconium phosphate, and ii) a metallic barb, wherein the metallic barb is an antimicrobial metallic barb, comprising a copper alloy, wherein the copper alloy is C28000. i) a composition wherein the composition comprises: a) a base plastic, wherein the base plastic is polyamide, and b) an antimicrobial additive, wherein the antimicrobial additive is silver sodium hydrogen zirconium phosphate, and a) a base plastic, wherein the base plastic is polyamide, and b) an antimicrobial additive, wherein the antimicrobial additive is silver sodium hydrogen zirconium phosphate, and ii) a metallic barb,
A method of identification distribution using a distributed battery management system comprising a battery management control module and a plurality of data acquisition modules, characterized in that the plurality of data acquisition modules are electrically coupled with the battery management control module respectively, and the method comprises the steps of: a) the plurality of data acquisition modules sending identification distribution requests to the battery management control module; b) the battery management control module activating any one of the plurality of data acquisition modules by controlling a status of an activation line between the one data acquisition module and the battery management control module, and sending to the one of the plurality of data acquisition modules an identification message corresponding to the identification distribution request from the data acquisition module; c) the one of the plurality of data acquisition modules determining itself whether it is activated, and if yes, receiving and storing the identification message and sending an identification distribution reply and the identification message received to the battery management control module, otherwise, the one of the plurality of data acquisition modules sending another identification distribution request to the battery management control module and the battery management control module performing step b) to activate the one of the plurality of data acquisition modules; and d) after the battery management control module receiving the identification distribution reply and the identification message, the distributed battery management system performing step b) to step d) to realize an identification distribution of a next data acquisition module. a) the plurality of data acquisition modules sending identification distribution requests to the battery management control module; b) the battery management control module activating any one of the plurality of data acquisition modules by controlling a status of an activation line between the one data acquisition module and the battery management control module, and sending to the one of the plurality of data acquisition modules an identification message corresponding to the identification distribution request from the data acquisition module; c) the one of the plurality of data acquisition modules determining itself whether it is activated, and if yes, receiving and storing the identification message and sending an identification distribution reply and the identification message received to the battery management control module, otherwise, the one of the plurality of data acquisition modules sending another identification distribution request to the battery management control module and the battery management control module performing step b) to activate the one of the plurality of data acquisition modules; and d) after the battery management control module receiving the identification distribution reply and the identification message, the distributed battery management system performing step b) to step d) to realize an identification distribution of a next data acquisition module.
A carbon nanotube wire, being formed from a single carbon nanotube aggregate constituted of a plurality of carbon nanotubes each having a single- or multi-walled structure, or formed by bundling a plurality of the carbon nanotube aggregates, wherein a proportion of a total number of the carbon nanotubes having a double-walled or triple-walled structure based on a total number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; a proportion of a total number of the carbon nanotubes having an average diameter of the innermost wall of 1.7 nm or smaller based on the number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; and a full-width at half maximum Δθ in azimuth angle in azimuth intensity distribution by small-angle X-ray scattering indicating orientation of the plurality of carbon nanotube aggregates is 60° or smaller. wherein a proportion of a total number of the carbon nanotubes having a double-walled or triple-walled structure based on a total number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; a proportion of a total number of the carbon nanotubes having an average diameter of the innermost wall of 1.7 nm or smaller based on the number of the carbon nanotubes constituting the carbon nanotube wire is 75% or higher; and a full-width at half maximum Δθ in azimuth angle in azimuth intensity distribution by small-angle X-ray scattering indicating orientation of the plurality of carbon nanotube aggregates is 60° or smaller.
An overtube with a balloon including a tubular body attachable to a periphery of an inserter of an endoscope and a balloon mounted on a periphery face of a tip of said body, said inserter being insertable into a body cavity while inflating and deflating said balloon, said overtube including at least a first air hole (90, 121) and a second air hole (91, 122) located at front and rear of said balloon, wherein the first air hole (90, 121) and the second air hole (91, 122) connect each other to allow air flow between front side and rear side in the body cavity walled by said balloon, characterized in that said body is formed with an accommodation hole where the inserter is insertable, and an area between said first air hole and said second air hole in a gap between the periphery of said inserter when inserted and the inner surface of said accommodation hole forms a connection path for connecting said first air hole and said second air hole.
Electromechanical actuating drive for rack-and-pinion steering, wherein the actuating drive has a stator and a rotor, and wherein the actuating drive has an electronic system, wherein the electronic system has at least one first electronic sub-system with a first power output stage, a first control unit and a first rotor-position sensor arrangement and a second electronic sub-system with a second power output stage, a second control unit and a second rotor-position sensor arrangement, wherein the first electronic sub-system and the second electronic sub-system are together operatively connected to the stator and the rotor, characterized in that the first electronic sub-system is arranged at least on a first circuit carrier plane and a second circuit carrier plane and the second electronic sub-system is arranged at least on the first circuit carrier plane and a third circuit carrier plane, wherein the first, second and third circuit carrier planes (91, 92, 93) are arranged perpendicular to an axis of rotation of the rotor and spaced apart from one another along the axis of rotation, wherein the first power output stage, the second power output stage, the first rotor-position sensor arrangement and the second rotor-position sensor arrangement are arranged on the first circuit carrier plane, the first control unit is arranged on the second circuit carrier plane and the second control unit is arranged on the third circuit carrier plane.
A method for at least partially disrupting or removing deposits formed on a surface of a heat exchanger component in a nuclear steam supply system, comprising: a. adding an effective amount of an elemental metal in solid form and water to a surface of the deposit; b. applying an anodic or cathodic current locally to the surface of the deposit; and c. following the adding and the applying steps a and b, applying mechanical stress to the surface of the deposit, wherein, the method is conducted at ambient temperature. a. adding an effective amount of an elemental metal in solid form and water to a surface of the deposit; b. applying an anodic or cathodic current locally to the surface of the deposit; and c. following the adding and the applying steps a and b, applying mechanical stress to the surface of the deposit,
A device for cleaning at least regions of a central impression cylinder of a flexographic printing machine, having at least one nozzle, which when viewed counter to the rotational direction of the impression cylinder is arranged between the line of contact of the printing material web and the separation line of the printing material web, wherein an outlet direction of the nozzle is directed towards the impression cylinder characterized in that gaseous and/or liquid carbon dioxide can be led out of the nozzle in the outlet direction, wherein the gaseous and/or the liquid carbon dioxide can be supplied to the nozzle via a supply line, wherein the carbon dioxide can be led out of the nozzle by means of a carrier fluid.
A method of generating an ultrasound image of velocity, the method comprising: transmitting an ultrasound signal to a predetermined point (P) included in an object and receiving at least three response signals (R 1, R 2, R 3) reflected from the predetermined point (P), each of the at least three response signals (R 1, R 2, R 3) respectively has a Doppler frequency and a reception angle (θ 1, θ 2, θ 3); extracting at least three response signal pairs (R 12, R 13, R 23) by combining each of the received at least three response signals (R 1, R 2, R 3) with each of the other signals (R 1, R 2, R 3); obtaining at least three pieces of prediction vector information (V 12, V 13, V 23), each of the at least three pieces of prediction vector information (V 12, V 13, V 23) indicating a prediction velocity magnitude and a prediction velocity direction of the predetermined point, based on reception angles and Doppler frequencies of the response signals included in the at least three response signal pairs (R 12, R 13, R 23); and determining two-dimensional vector information indicating a velocity magnitude and a velocity direction of the predetermined point, based on the at least three pieces of prediction vector information (V 12, V 13, V 23). transmitting an ultrasound signal to a predetermined point (P) included in an object and receiving at least three response signals (R 1, R 2, R 3) reflected from the predetermined point (P), each of the at least three response signals (R 1, R 2, R 3) respectively has a Doppler frequency and a reception angle (θ 1, θ 2, θ 3); extracting at least three response signal pairs (R 12, R 13, R 23) by combining each of the received at least three response signals (R 1, R 2, R 3) with each of the other signals (R 1, R 2, R 3); obtaining at least three pieces of prediction vector information (V 12, V 13, V 23), each of the at least three pieces of prediction vector information (V 12, V 13, V 23) indicating a prediction velocity magnitude and a prediction velocity direction of the predetermined point, based on reception angles and Doppler frequencies of the response signals included in the at least three response signal pairs (R 12, R 13, R 23); and determining two-dimensional vector information indicating a velocity magnitude and a velocity direction of the predetermined point, based on the at least three pieces of prediction vector information (V 12, V 13, V 23).
Ring assembly and inserting device for forming and inserting a ring assembly of at least one ring or a plurality of concentrically arranged rings (14a-14c) of preferably U-shaped electrical conductors into a component of an electrical machine, comprising a collecting receptacle having a plurality of grooves arranged annularly about an axis and bounded by radial webs, a web moving device for radially moving the webs, a component positioning device for positioning the component in a position aligned with the collecting receptacle, and a ring assembly inserting device for axially inserting the ring assembly into the component with the webs retracted from the collecting receptacle, characterized in that the webs are movable to a positioning web position in which the webs narrow the grooves for positioning the conductors for insertion into component grooves.
Device for controlling automatic cleaning of a filter unit for an electric vacuum cleaner with a suction nozzle, a dust separation unit and a motor/fan unit, comprising: - means for determining a first value of a suction air flow of the vacuum cleaner; and - a device for adjusting a second value of the motor/fan unit of the vacuum cleaner as a function of the determined first value of the suction air flow, and the device is designed to activate automatic cleaning of the filter unit, characterised in that activation takes place when a predetermined limit value (L max) of the motor/fan unit of the vacuum cleaner is exceeded by the second value and a predetermined limit value (V min) of the suction air flow of the vacuum cleaner is undershot by the first value. - means for determining a first value of a suction air flow of the vacuum cleaner; and - a device for adjusting a second value of the motor/fan unit of the vacuum cleaner as a function of the determined first value of the suction air flow, and the device is designed to activate automatic cleaning of the filter unit, characterised in that activation takes place when a predetermined limit value (L max) of the motor/fan unit of the vacuum cleaner is exceeded by the second value and a predetermined limit value (V min) of the suction air flow of the vacuum cleaner is undershot by the first value.
A sample dispensing apparatus which is adapted to dispense, by use of a disposable nozzle tip, a serum constituent contained in a primary sample obtained by having blood collected in an aliquot tube separated into a blood clot constituent, a separating agent, and a serum constituent by a centrifugal separator, the apparatus comprising: a moving mechanism which is adapted to vertically move the nozzle tip; a suction unit which is adapted to generate a negative pressure for suction at the nozzle tip; a pressure sensor which is adapted to detect the pressure in the nozzle tip; and an aliquot control unit which is configured to control the moving mechanism and the suction unit to simultaneously lower the nozzle tip and suck the serum constituent in the primary sample, to detect clogging at the nozzle tip, based on a value detected by the pressure sensor, and, after clogging by the separating agent is detected at the nozzle tip, to stop suction and to raise the nozzle tip, characterised in that the aliquot control unit is adapted to control said raising of the nozzle tip in order to make an attempt to dissolve clogging of an opening at a leading end of the nozzle tip caused by the separating agent, and perform supervising of the residual pressure in the nozzle tip with the pressure sensor to judge whether clogging of the opening at the leading end of the nozzle tip has been dissolved. a moving mechanism which is adapted to vertically move the nozzle tip; a suction unit which is adapted to generate a negative pressure for suction at the nozzle tip; a pressure sensor which is adapted to detect the pressure in the nozzle tip; and an aliquot control unit which is configured to control the moving mechanism and the suction unit to simultaneously lower the nozzle tip and suck the serum constituent in the primary sample, to detect clogging at the nozzle tip, based on a value detected by the pressure sensor, and, after clogging by the separating agent is detected at the nozzle tip, to stop suction and to raise the nozzle tip, characterised in that the aliquot control unit is adapted to control said raising of the nozzle tip in order to make an attempt to dissolve clogging of an opening at a leading end of the nozzle tip caused by the separating agent, and perform supervising of the residual pressure in the nozzle tip with the pressure sensor to judge whether clogging of the opening at the leading end of the nozzle tip has been dissolved.
A method of controlling an electronic device, the electronic device operating on hierarchical data, the hierarchical data having a plurality of hierarchical levels (0...3), the hierarchical levels comprising a lowest hierarchical level and a plurality of higher hierarchical levels, wherein the lowest hierarchical level comprises a plurality of items, each higher hierarchical level comprises at least one category, and each item within the lowest hierarchical level belongs to one category within each of the higher hierarchical levels, the method comprising: detecting a gesture of a plurality of gestures (130b..130o) on a touch-sensitive input mechanism of the electronic device while a current item within the lowest hierarchical level is selected, each gesture of the plurality of gestures being associated with a respective higher hierarchical level, the gesture detection being independent of a presentation on the touch-sensitive input mechanism, and the gesture requiring continuous contact with the touch-sensitive input mechanism for the duration of the gesture; evaluating one or more properties of the gesture; determining the higher hierarchical level associated with the gesture based on the one or more properties of the gesture; and selecting another item within the lowest hierarchical level and belonging to a second category within the determined higher hierarchical level associated with the gesture, said second category being different than a first category which is within said higher hierarchical level associated with the gesture and to which said current item belongs. detecting a gesture of a plurality of gestures (130b..130o) on a touch-sensitive input mechanism of the electronic device while a current item within the lowest hierarchical level is selected, each gesture of the plurality of gestures being associated with a respective higher hierarchical level, the gesture detection being independent of a presentation on the touch-sensitive input mechanism, and the gesture requiring continuous contact with the touch-sensitive input mechanism for the duration of the gesture; evaluating one or more properties of the gesture; determining the higher hierarchical level associated with the gesture based on the one or more properties of the gesture; and selecting another item within the lowest hierarchical level and belonging to a second category within the determined higher hierarchical level associated with the gesture, said second category being different than a first category which is within said higher hierarchical level associated with the gesture and to which said current item belongs.