mhurhangee/ep-ind-claims huggingface dataset:
An operating unit for a breast pump system, comprising a housing and a vacuum pump received in said housing, the housing having a connector for attaching a tube, and an outer surface about which a tube can be wrapped, wherein at least a section of the outer surface is curved so that the tube can be wrapped about the housing without buckling, wherein the outer surface comprises a recess and the connector is located in the recess, characterised in that a surface (17, 29) of the recess curves away from the connector so that the surface (17, 29) of the recess guides and supports a tube when the tube is connected to the connector, such that a portion of the tube proximal to the connector does not buckle.
Electromechanical brake system for a motor vehicle, having four wheel brake devices, having four primary electric motors, having four secondary electric motors, having four controllers, and having a backup controller, - wherein the controllers and/or the backup controller are designed to acquire and/or evaluate sensor data from the wheel brake devices and/or sensors assigned to the motor vehicle, - wherein each of the wheel brake devices is assigned one of the primary electric motors and one of the secondary electric motors for actuating the respective wheel brake devices, and - wherein each of the controllers is assigned to one of the primary electric motors of one of the wheel brake devices and the backup controller is assigned to the four secondary electric motors of the wheel brake devices for actuating the electric motors (3, 4). - wherein the controllers and/or the backup controller are designed to acquire and/or evaluate sensor data from the wheel brake devices and/or sensors assigned to the motor vehicle, - wherein each of the wheel brake devices is assigned one of the primary electric motors and one of the secondary electric motors for actuating the respective wheel brake devices, and - wherein each of the controllers is assigned to one of the primary electric motors of one of the wheel brake devices and the backup controller is assigned to the four secondary electric motors of the wheel brake devices for actuating the electric motors (3, 4).
A medical device for delivery of a haemostatic agent to a wound, said device comprising a flexible receptacle selected from a bag, pouch or sachet containing said haemostatic agent within the receptacle, wherein at least a part of the receptacle is formed of a water-soluble or water-dispersible material, wherein the water-soluble or water dispersible material is susceptible to dissolution or dispersal on contact with body fluid(s) at temperatures of 45°C or below, wherein the haemostatic agent comprises a chitosan salt.
A notification device comprising: a speaker installed in a seat; a sweep signal generator configured to generate a detection sweep signal capable of continuously changing a frequency of vibration that the speaker causes a user to feel, by changing a frequency of a predetermined wave at a constant speed in a frequency band in which the user can be caused to feel a signal in the form of the vibration; a vibration detector configured to detect vibration outputted from the speaker using the detection sweep signal generated by the sweep signal generator; and a sound measurement unit configured to detect a frequency band indicating a signal level equal to or higher than a predetermined threshold as a sweep frequency band in frequency characteristics of the vibration detected by the vibration detector, wherein the sweep signal generator generates a resonance sweep signal by changing the frequency of the predetermined wave at a constant speed in the sweep frequency band detected by the sound measurement unit, and the speaker generates vibration in the seat using the resonance sweep signal. a speaker installed in a seat; a sweep signal generator configured to generate a detection sweep signal capable of continuously changing a frequency of vibration that the speaker causes a user to feel, by changing a frequency of a predetermined wave at a constant speed in a frequency band in which the user can be caused to feel a signal in the form of the vibration; a vibration detector configured to detect vibration outputted from the speaker using the detection sweep signal generated by the sweep signal generator; and a sound measurement unit configured to detect a frequency band indicating a signal level equal to or higher than a predetermined threshold as a sweep frequency band in frequency characteristics of the vibration detected by the vibration detector, wherein the sweep signal generator generates a resonance sweep signal by changing the frequency of the predetermined wave at a constant speed in the sweep frequency band detected by the sound measurement unit, and the speaker generates vibration in the seat using the resonance sweep signal.
A method for solid state device, SSD, simulation, comprising: executing an application at a virtual machine; sending buffer pointers for application data of the executed application, from the virtual machine, to a shared memory; copying the application data from the virtual machine to data buffer pages of the shared memory; sending the buffer pointers, from the shared memory, to an SSD simulator; and storing the buffer pointers and corresponding references to the application data at the shared memory, in pages of a cache of the SSD simulator. executing an application at a virtual machine; sending buffer pointers for application data of the executed application, from the virtual machine, to a shared memory; copying the application data from the virtual machine to data buffer pages of the shared memory; sending the buffer pointers, from the shared memory, to an SSD simulator; and storing the buffer pointers and corresponding references to the application data at the shared memory, in pages of a cache of the SSD simulator.
A three-dimensional porous polyurethane scaffold for repairing central nerve injuries, wherein the scaffold comprises three-dimensional freeze-dried porous polyurethane, wherein the compression modulus of the three-dimensional porous polyurethane is 1.0MPa, wherein the pore diameter is 80μm, characterized in that the porosity of the three-dimensional porous polyurethane is 90%. wherein the scaffold comprises three-dimensional freeze-dried porous polyurethane, wherein the compression modulus of the three-dimensional porous polyurethane is 1.0MPa, wherein the pore diameter is 80μm, characterized in that the porosity of the three-dimensional porous polyurethane is 90%.
An air quality system comprising: an air precleaner having a precleaner housing and a filter disposed inside the precleaner housing; a filter identification component positioned within the precleaner housing at a first position, the filter identification component being mounted on the filter; and a control module positioned within the precleaner housing at a second position and being configured to: emit an electrical field; and communicate with the filter identification component via the emitted electrical field; wherein the control module has a first antenna mounted in the precleaner housing and having a horseshoe shape; the filter identification component has a second antenna, and the control module is configured to: emit the electrical field via the first antenna; and communicate with the filter identification component by exchanging data between the first and second antennas (118, 201). an air precleaner having a precleaner housing and a filter disposed inside the precleaner housing; a filter identification component positioned within the precleaner housing at a first position, the filter identification component being mounted on the filter; and a control module positioned within the precleaner housing at a second position and being configured to: emit an electrical field; and communicate with the filter identification component via the emitted electrical field; emit an electrical field; and communicate with the filter identification component via the emitted electrical field; emit the electrical field via the first antenna; and communicate with the filter identification component by exchanging data between the first and second antennas (118, 201).
An extractor system comprising: - a blower disposed in a base unit and configured to produce a positive pressure gas stream and a negative pressure gas stream; - a negative pressure conduit configured to convey the negative pressure gas stream from a work area; - a filter element disposed in a filter box in the base unit to filter debris from the negative pressure gas stream, the filter box defining a region around or adjacent to the filter from which air is drawn during operation of the base unit; - a baffle placed near a bottom region of the filter box for separating the debris from a vicinity of the filter element to reduce re-uptake of debris released from the filter element, the bottom region being configured to collect the debris, - the filter box being covered by a cover or door, - the filter element being hollow and closed by a cap, - a filter cleaner configured to release the debris from the filter element, wherein the filter cleaner comprises jets that direct air or a gas against the interior surface of the filter element during a cleaning sequence, wherein during this cleaning sequence the base unit is not in operation to draw air from the workspace, characterized by a positive pressure conduit configured to convey the positive pressure gas stream towards the work area and by the baffle fashioned as a plate with openings through which the debris may fall. - a blower disposed in a base unit and configured to produce a positive pressure gas stream and a negative pressure gas stream; - a negative pressure conduit configured to convey the negative pressure gas stream from a work area; - a filter element disposed in a filter box in the base unit to filter debris from the negative pressure gas stream, the filter box defining a region around or adjacent to the filter from which air is drawn during operation of the base unit; - a baffle placed near a bottom region of the filter box for separating the debris from a vicinity of the filter element to reduce re-uptake of debris released from the filter element, the bottom region being configured to collect the debris, - the filter box being covered by a cover or door, - the filter element being hollow and closed by a cap, - a filter cleaner configured to release the debris from the filter element, wherein the filter cleaner comprises jets that direct air or a gas against the interior surface of the filter element during a cleaning sequence, wherein during this cleaning sequence the base unit is not in operation to draw air from the workspace, characterized by a positive pressure conduit configured to convey the positive pressure gas stream towards the work area and by the baffle fashioned as a plate with openings through which the debris may fall.
A road-side gateway node (NN5; NN6), the road-side gateway node (NN5; NN6) comprising a processor, a memory, a first radio module for operating in a cell-supported radio communications network, a second radio module for operating in an adhoc radio communications network, and at least one antenna, the road-side gateway node (NN5; NN6) being configured to: - discover at least one further road-side network node in the vicinity of the road-side gateway node as a gateway node, wherein the at least one further road-side node has the capability to exchange data across the cell-supported radio communications network and the adhoc radio communications network; and - exchange data across the cell-supported radio communications network and the adhoc radio communications network in dependence on the discovered at least one further road-side network node, wherein the road-side gateway node (NN5; NN6) is configured to receive a data entity from the further road-side network node comprising an indication that the further road-side network node has transmitted contents of the data entity on the sidelink radio channel and the adhoc radio channel, the roadside gateway node (NN5; NN6) being configured to refrain from transmitting data via a sidelink channel of the cell-supported radio communications network and via an adhoc channel of the adhoc radio communications network based on said indication. - discover at least one further road-side network node in the vicinity of the road-side gateway node as a gateway node, wherein the at least one further road-side node has the capability to exchange data across the cell-supported radio communications network and the adhoc radio communications network; and - exchange data across the cell-supported radio communications network and the adhoc radio communications network in dependence on the discovered at least one further road-side network node, wherein the road-side gateway node (NN5; NN6) is configured to receive a data entity from the further road-side network node comprising an indication that the further road-side network node has transmitted contents of the data entity on the sidelink radio channel and the adhoc radio channel, the roadside gateway node (NN5; NN6) being configured to refrain from transmitting data via a sidelink channel of the cell-supported radio communications network and via an adhoc channel of the adhoc radio communications network based on said indication.
A process for preparing a titanium dioxide macroscopic fiber continuously comprising the following steps: i) the preparation of a dispersion of titanium dioxide nanoparticles in a solution of at least one vinyl alcohol polymer dissolved in a solvent, ii) the continuous and unidirectional extrusion of the dispersion obtained above in the preceding step in a coagulation bath suitable for giving rise to the solidification of said polymer, said extrusion being carried out by means of a, or a set of, cylindrical injection needle(s) having a diameter between 250 and 350 μm, in order to form a pre-fiber made of a composite material comprising the titanium dioxide nanoparticles and the solidified vinyl alcohol polymer, iii) the continuous extraction of the pre-fiber formed above in step ii) out of the coagulation bath, said extraction being carried out coaxially relative to the axis of extrusion of the dispersion in said coagulation bath, iv) the continuous washing of the pre-fiber extracted from the coagulation bath, v) the continuous drying of the pre-fiber from the preceding step in order to obtain a dry composite material fiber, vi) the elimination of the vinyl alcohol polymer by calcination of the dry composite material pre-fiber from the preceding step, in order to obtain a titanium dioxide macroscopic fiber. i) the preparation of a dispersion of titanium dioxide nanoparticles in a solution of at least one vinyl alcohol polymer dissolved in a solvent, ii) the continuous and unidirectional extrusion of the dispersion obtained above in the preceding step in a coagulation bath suitable for giving rise to the solidification of said polymer, said extrusion being carried out by means of a, or a set of, cylindrical injection needle(s) having a diameter between 250 and 350 μm, in order to form a pre-fiber made of a composite material comprising the titanium dioxide nanoparticles and the solidified vinyl alcohol polymer, iii) the continuous extraction of the pre-fiber formed above in step ii) out of the coagulation bath, said extraction being carried out coaxially relative to the axis of extrusion of the dispersion in said coagulation bath, iv) the continuous washing of the pre-fiber extracted from the coagulation bath, v) the continuous drying of the pre-fiber from the preceding step in order to obtain a dry composite material fiber, vi) the elimination of the vinyl alcohol polymer by calcination of the dry composite material pre-fiber from the preceding step, in order to obtain a titanium dioxide macroscopic fiber.
An electrical assembly comprising: a dielectric substrate; a metallic conductive trace overlying the substrate, the metallic conductive trace having a hollow cross-section that forms a duct; an annular member protruding from the metallic conductive trace, the annular member having an opening in communication with the duct, the opening for receiving pressurized air or gas, wherein the duct comprises a plurality of channels that meet the opening at a curved interior surface of the opening. a dielectric substrate; a metallic conductive trace overlying the substrate, the metallic conductive trace having a hollow cross-section that forms a duct; an annular member protruding from the metallic conductive trace, the annular member having an opening in communication with the duct, the opening for receiving pressurized air or gas, wherein the duct comprises a plurality of channels that meet the opening at a curved interior surface of the opening.
A compound of formula B: wherein Carbohydrate is a C-linked glycoside, each of R 1 and R 2, independently, is hydrogen, linear saturated or unsaturated alkyl, branched saturated or unsaturated alkyl, substituted linear saturated or unsaturated alkyl, substituted branched saturated or unsaturated alkyl, saturated or unsaturated non-aromatic cycloalkyl, or substituted saturated or unsaturated non-aromatic cycloalkyl, each of the two dotted lines ------, independently, is absent or a bond, and Y is O or OR 8, in which R 8 is hydrogen or C 1 -C 10 saturated or unsaturated alkyl.
A method of capacitive measurement between an object and an electrode plane performed by a processor unit, comprising: applying an excitation signal (U(t)) to the electrode plane, the excitation signal (U(t)) being a non-sinusoidal signal having at least one discontinuity; receiving a measurement signal (s(t)) originating from the electrode plane; attenuating the measurement signal (s(t)) within a temporal window (τ), the temporal window (τ) being the time period encompassing the at least one discontinuity; and determining a capacitance value from the measurement signal (s(t)) when the measurement signal (s(t)) is unattenuated. applying an excitation signal (U(t)) to the electrode plane, the excitation signal (U(t)) being a non-sinusoidal signal having at least one discontinuity; receiving a measurement signal (s(t)) originating from the electrode plane; attenuating the measurement signal (s(t)) within a temporal window (τ), the temporal window (τ) being the time period encompassing the at least one discontinuity; and determining a capacitance value from the measurement signal (s(t)) when the measurement signal (s(t)) is unattenuated.
An audio decoder (200; 400) for providing a decoded audio information (220; 412) on the basis of an encoded audio information (210;410), the audio decoder comprising: an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; the audio decoder is characterised in that the error concealment (240;480;600) is configured to obtain an information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame, and wherein the error concealment is configured to compare the information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame with a threshold value, to decide whether to input a deterministic time domain excitation signal with the addition of a noise like time domain excitation signal into an LPC synthesis, or whether to input only a noise time domain excitation signal into the LPC synthesis. an error concealment (240; 480; 600) configured to provide an error concealment audio information (242;482;612) for concealing a loss of an audio frame, wherein the error concealment is configured to modify a time domain excitation signal (452,456;610) obtained for one or more audio frames preceding a lost audio frame, in order to obtain the error concealment audio information; the audio decoder is characterised in that the error concealment (240;480;600) is configured to obtain an information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame, and wherein the error concealment is configured to compare the information about an intensity of a deterministic signal component in one or more audio frames preceding a lost audio frame with a threshold value, to decide whether to input a deterministic time domain excitation signal with the addition of a noise like time domain excitation signal into an LPC synthesis, or whether to input only a noise time domain excitation signal into the LPC synthesis.
Power semiconductor module, comprising a housing and a substrate being arranged inside the housing, on which substrate at least one conductive path is located, further comprising at least one power semiconductor device being arranged inside the housing and being arranged on said conductive path and electrically connected hereto, and at least one contact for externally contacting said semiconductor device, wherein the module further comprises a self-sustaining sensor system being arranged inside the housing, the sensor system comprising a sensor for detecting a physical parameter and/or a chemical substance, a transmission device for wireless transmitting data provided by the sensor to a recipient outside the module, and an energy source for providing all required energy to the sensor system, and wherein the sensor comprises at least one sensor for detecting current, at least one sensor for detecting voltage magnetic fields, at least one sensor for detecting mechanical stress, and at least one sensor for detecting humidity.
An electric drive unit for a construction machine equipped with an electricity storage device, a motor/generator which supplies and receives electric power to/from the electricity storage device, a hydraulic pump of the variable displacement type which is driven by the motor/generator, a plurality of hydraulic actuators (22, 23), a plurality of operating means (37A, 37B) which command the operation of the hydraulic actuators (22, 23), and a plurality of directional control valves (33, 34; 33A, 34A) which respectively control the direction and the flow rate of hydraulic fluid supplied from the hydraulic pump to the hydraulic actuators (22, 23) according to operating directions and operation amounts of the plurality of operating means (37A, 37B), comprising: pump control means which performs variable control on the displacement volume of the hydraulic pump; motor/generator control means which performs variable control on the revolution speed of the motor/generator; and command control means (45; 45A; 66; 70) which calculates command values for the pump control means and the motor/generator control means according to the change in a demanded flow rate determined based on operation command levels from the plurality of operating means (37A, 37B), wherein the motor/generator control means performs regeneration control for converting inertial force of a rotor of the motor/generator into electric power and thereby charging the electricity storage device when the revolution speed of the motor/generator is decreased in response to a decrease in the demanded flow rate. pump control means which performs variable control on the displacement volume of the hydraulic pump; motor/generator control means which performs variable control on the revolution speed of the motor/generator; and command control means (45; 45A; 66; 70) which calculates command values for the pump control means and the motor/generator control means according to the change in a demanded flow rate determined based on operation command levels from the plurality of operating means (37A, 37B), wherein the motor/generator control means performs regeneration control for converting inertial force of a rotor of the motor/generator into electric power and thereby charging the electricity storage device when the revolution speed of the motor/generator is decreased in response to a decrease in the demanded flow rate.