mhurhangee/ep-ind-claims huggingface dataset:
System for diagnosing cochlear hydrops of a person or an animal, the system comprising - an acoustic stimulus generating unit comprising a stimulus generator and an output transducer, where the acoustic stimulus generating unit is configured to provide an audio stimulus by the stimulus generator to at least one of the ears of the person or animal via the output transducer, - wherein the acoustic stimulus generating unit is configured to provide a plurality of audio stimuli, - a recording unit configured to record one or more auditory electrophysiological responses of the person or animal in response to the one or more audio stimuli being provided by the acoustic stimulus generating unit to at least one of the ears of the person or animal, and characterized in that - said plurality of audio stimuli comprising at least a first click audio stimulus and a first chirp audio stimulus, or at least a first and a second chirp audio stimuli, and in that - the system further comprises a diagnostic unit configured to process the recorded auditory electrophysiological responses, comprising the diagnostic unit being configured to compare wave V amplitudes of the recorded one or more auditory electrophysiological responses based on the at least first click audio stimulus and at least first chirp audio stimulus, or based on the at least first and second chirp audio stimuli. - an acoustic stimulus generating unit comprising a stimulus generator and an output transducer, where the acoustic stimulus generating unit is configured to provide an audio stimulus by the stimulus generator to at least one of the ears of the person or animal via the output transducer, - wherein the acoustic stimulus generating unit is configured to provide a plurality of audio stimuli, - a recording unit configured to record one or more auditory electrophysiological responses of the person or animal in response to the one or more audio stimuli being provided by the acoustic stimulus generating unit to at least one of the ears of the person or animal, and characterized in that - said plurality of audio stimuli comprising at least a first click audio stimulus and a first chirp audio stimulus, or at least a first and a second chirp audio stimuli, and in that - the system further comprises a diagnostic unit configured to process the recorded auditory electrophysiological responses, comprising the diagnostic unit being configured to compare wave V amplitudes of the recorded one or more auditory electrophysiological responses based on the at least first click audio stimulus and at least first chirp audio stimulus, or based on the at least first and second chirp audio stimuli.
An electrochemical cell stack comprising: a plurality of electrochemical cell units, each comprising a cathode, an anode, and an electrolyte disposed between the cathode and the anode; and a plurality of interconnects, each interconnect being disposed between adjacent electrochemical cell units, each of the plurality of interconnects comprising an interconnect main body defining a longitudinal channel along a longitudinal axis thereof, and a plurality of corrugations defined circumferentially around the longitudinal channel; wherein a fuel channel is defined between each anode and a respective adjacent interconnect, the fuel channel having a fuel inlet and a fuel outlet; wherein an oxidant channel is defined between each cathode and a respective adjacent interconnect, the oxidant channel having an oxidant inlet and an oxidant outlet; and wherein the plurality of electrochemical cell units and interconnects include a first electrochemical cell unit, a first interconnect adjacent the first electrochemical cell unit, a second electrochemical cell unit adjacent the first interconnect, and a second interconnect adjacent the second electrochemical cell unit, the second interconnect being rotationally offset from the first interconnect about a longitudinal axis of the electrochemical cell stack. a plurality of electrochemical cell units, each comprising a cathode, an anode, and an electrolyte disposed between the cathode and the anode; and a plurality of interconnects, each interconnect being disposed between adjacent electrochemical cell units, each of the plurality of interconnects comprising an interconnect main body defining a longitudinal channel along a longitudinal axis thereof, and a plurality of corrugations defined circumferentially around the longitudinal channel; wherein a fuel channel is defined between each anode and a respective adjacent interconnect, the fuel channel having a fuel inlet and a fuel outlet; wherein an oxidant channel is defined between each cathode and a respective adjacent interconnect, the oxidant channel having an oxidant inlet and an oxidant outlet; and wherein the plurality of electrochemical cell units and interconnects include a first electrochemical cell unit, a first interconnect adjacent the first electrochemical cell unit, a second electrochemical cell unit adjacent the first interconnect, and a second interconnect adjacent the second electrochemical cell unit, the second interconnect being rotationally offset from the first interconnect about a longitudinal axis of the electrochemical cell stack.
A computer-implemented method of micro-segmenting virtual computing elements based on applications running thereon, the method comprising: identifying one or more multi-tier applications (601, 602) comprising a plurality of virtual machines, wherein each application tier (621, 622, 623) of the one or more multi-tier applications (601, 602) comprises at least one of the plurality of virtual machines, and wherein the identifying comprises querying the virtual machines for process information that identifies processes executing thereon and automatically identifying the one or more multi-tier applications (601, 602) based on the process information from the virtual machines; maintaining information about the one or more multi-tier applications (601, 602), wherein the information at least indicates a security group for each virtual machine of the plurality of virtual machines; identifying communication traffic flows between the applications of the virtual machines of the plurality of virtual machines; identifying one or more removable traffic flows (611, 612) of the communication traffic flows based, at least in part, on the information; and blocking the one or more removable traffic flows (611, 612). identifying one or more multi-tier applications (601, 602) comprising a plurality of virtual machines, wherein each application tier (621, 622, 623) of the one or more multi-tier applications (601, 602) comprises at least one of the plurality of virtual machines, and wherein the identifying comprises querying the virtual machines for process information that identifies processes executing thereon and automatically identifying the one or more multi-tier applications (601, 602) based on the process information from the virtual machines; maintaining information about the one or more multi-tier applications (601, 602), wherein the information at least indicates a security group for each virtual machine of the plurality of virtual machines; identifying communication traffic flows between the applications of the virtual machines of the plurality of virtual machines; identifying one or more removable traffic flows (611, 612) of the communication traffic flows based, at least in part, on the information; and blocking the one or more removable traffic flows (611, 612).
A control device for controlling at least two different functions of an instrument in communication with the control device, the control device comprising an actuation element configured to be actuated in at least two different ways, wherein the control device is configured to be operated in a calibration mode and an actuation mode, such that in the calibration mode the control device is configured to determine its relative position with respect to a user, wherein in the calibration mode a respective function of the at least two functions can be assigned to the at least two different ways of actuating the actuation element, and such that in the actuation mode an actuation of the actuation element of the calibrated control element in either one of the at least two different ways of actuating the actuation element actuates the function assigned to the respective way of actuating the actuation element.
A dispersion plate, comprising: a plurality of gas injection holes over the entire region of the dispersion plate, wherein the plurality of gas injection holes are positioned in the dispersion plate such that a plurality of spout nozzles (212, 214, 216) are formed by dense groupings of the gas injection holes, wherein the spout nozzle (212, 214, 216) means a region of the dispersion plate in which the density of the gas injection holes is higher than that of the other region of the dispersion plate except for the spout nozzle (212, 214, 216), wherein one of the plurality of spout nozzles (212, 214, 216) is disposed at a center of the dispersion plate, and other ones (214, 216) of the plurality of spout nozzles (212, 214, 216) are arranged along a plurality of virtual concentric circles (201, 202) distributed from the center of the dispersion plate to a peripheral edge of the dispersion plate, and wherein with respect to two adjacent ones of the virtual concentric circles (201, 202), a number of spout nozzles arranged along an outer concentric circle is twice a number of spout nozzles arranged along an inner concentric circle, and an angle of an arrangement interval of the spout nozzles arranged along the outer concentric circle is half of an angle of an arrangement interval of the spout nozzles arranged along the inner concentric circle. a plurality of gas injection holes over the entire region of the dispersion plate, wherein the plurality of gas injection holes are positioned in the dispersion plate such that a plurality of spout nozzles (212, 214, 216) are formed by dense groupings of the gas injection holes, wherein the spout nozzle (212, 214, 216) means a region of the dispersion plate in which the density of the gas injection holes is higher than that of the other region of the dispersion plate except for the spout nozzle (212, 214, 216), wherein one of the plurality of spout nozzles (212, 214, 216) is disposed at a center of the dispersion plate, and other ones (214, 216) of the plurality of spout nozzles (212, 214, 216) are arranged along a plurality of virtual concentric circles (201, 202) distributed from the center of the dispersion plate to a peripheral edge of the dispersion plate, and wherein with respect to two adjacent ones of the virtual concentric circles (201, 202), a number of spout nozzles arranged along an outer concentric circle is twice a number of spout nozzles arranged along an inner concentric circle, and an angle of an arrangement interval of the spout nozzles arranged along the outer concentric circle is half of an angle of an arrangement interval of the spout nozzles arranged along the inner concentric circle.
Cutting plate for a chip-removing cutting tool, comprising a cutting plate upper face and a cutting plate lower face, one or more lateral faces, cutting edges at the transition from the cutting plate upper face to the lateral face(s), and comprising a circular clamping trough in the cutting plate upper face, which has an outer diameter d1, with 2 mm < d1 <= 6 mm, preferably 2 mm < d1 < 5 mm, applying to the outer diameter d1 of the clamping trough, characterized in that the clamping trough has an inner circular protrusion, the tip of the protrusion being above the base of the clamping trough and below the cutting plate upper face, and the protrusion having an outer diameter d2 and a height h from the base of the clamping trough to the tip of the protrusion, and the diameter d2 being measured at half the height h of the protrusion and 0.8 mm < d2 < 3.5 mm applying to the diameter d2 of the protrusion.
A method of depositing a coating on a substrate, the method comprising: (a) depositing a first layer of ta-C on a substrate via a CVA process, said first layer having a first hardness and a thickness of from 100nm to 800nm; (b) depositing a second layer of ta-C on a substrate via a CVA process, said second layer having a second hardness and a thickness of from 2nm to 10nm, and (c) repeating step (a) at least once, wherein the ratio of the first thickness to the second thickness is from 500:1 to 150:1 and the hardnesses of the first layers are greater than the hardnesses of the second layers. (a) depositing a first layer of ta-C on a substrate via a CVA process, said first layer having a first hardness and a thickness of from 100nm to 800nm; (b) depositing a second layer of ta-C on a substrate via a CVA process, said second layer having a second hardness and a thickness of from 2nm to 10nm, and (c) repeating step (a) at least once,
Composition comprising i. a pectinolytic enzyme and ii. polyvinylpyrrolidone wherein the pectinolytic enzyme is a pectate lyase. i. a pectinolytic enzyme and ii. polyvinylpyrrolidone
Equipment for breaking and drying plastic film waste to recycle wherein it comprises: - an intake hopper, - a breaker comprising a rotating blade (2.1), - a discharge hopper, - a dosing feeder comprising a worm screw (4.1), and - a ventilator comprising a ventilator inlet port (5.1), ventilation grilles (5.2), a ventilator outlet port (5.3), a turbine (5.4), fan blades (5.5), a transmission (5.6) and a ventilator motor (5.7), wherein the equipment is configured so that in a disintegration stage, the plastic film enters the intake hopper and so that after the plastic has been properly disintegrated by the rotating blade (2.1), the separation and feeding phase begins with the plastic falling due to gravity into the discharge hopper where the dosing feeder separates it further and so that the 3 rd stage, during which drying and transport take place, is carried out into the ventilator wherein the material guided by the dosing feeder enters the ventilator through the ventilator inlet port (5.1) by means of the air flow caused by the movement of the turbine (5.4), which is put into operation by the ventilator motor (5.7) that transmits the movement to the transmission (5.6), which in turn is transmitted to the turbine (5.4) and is conducted to the fan blades (5.5) that promote its final separation, being sent to the ventilator outlet port (5.3). - an intake hopper, - a breaker comprising a rotating blade (2.1), - a discharge hopper, - a dosing feeder comprising a worm screw (4.1), and - a ventilator comprising a ventilator inlet port (5.1), ventilation grilles (5.2), a ventilator outlet port (5.3), a turbine (5.4), fan blades (5.5), a transmission (5.6) and a ventilator motor (5.7),
An abrasive product comprising a backing and an abrasive surface on the backing, wherein the abrasive surface comprises at least a first abrasive area and a second abrasive area, wherein abrasive properties of the first abrasive area are different from abrasive properties of the second abrasive area, and characterised by a borderline between the first abrasive area and the second abrasive area, which is a fluctuating borderline.
A piston ring having increased fatigue resistance, comprising a ductile, plastically deformable material, the piston ring having a running face, which is delimited at the top by an upper running face edge and at the bottom by a lower running face edge, characterised in that compressive stresses are introduced by roller burnishing into the upper running face edge and/or into the lower running face edge at least along a part of a circumference of the piston ring, wherein each running face edge (1, 3) into which the compressive stresses are introduced is also provided with a bevel or a radius of curvature between 20 and 100μm by the roller burnishing.
Foot for a pallet, a lower part and an upper part being defined in the foot, the lower part being formed by a lateral wall and a bottom wall and the lower part having a cross section smaller than the upper part, so that when stacking one pallet on top of another pallet, the feet can be fitted thus reducing the height of the resulting stack, a geometric envelope being defined in the lower part, characterized in that the lateral wall comprises a movable part, the movable part being displaceable between a hidden position in which it does not protrude from the geometric envelope, and an extension position in which it protrudes from the geometric envelope.
Device for collecting, saving, analyzing and making available the results of the analysis of data from mechanical watches, comprising - a plurality of electronic modules, each of which is adapted to be housed within one of a plurality of mechanical watches of which each comprises a mechanical movement, - a remote central analysis unit adapted to assign a first unique identification to each of said watches, - a plurality of access and display devices, each electronic module comprising at least one measuring means adapted to capture data relating to the running of the watch and a transfer unit adapted to communicate the data to said remote central analysis unit, the remote central analysis unit comprising analysis means for analyzing the data received from each transfer unit of the electronic modules and storage means hosting a database in which are stored: ° identification data and information specific to each of said watches, ° the data captured by the measuring means, ° the results of the analysis of the data received from each electronic module relating to an identified watch, as well as ° the evolutionary results of the analysis of data accumulated over time from a single watch and/or several watches, each access and display device providing access to the information contained in the database. - a plurality of electronic modules, each of which is adapted to be housed within one of a plurality of mechanical watches of which each comprises a mechanical movement, - a remote central analysis unit adapted to assign a first unique identification to each of said watches, - a plurality of access and display devices, each electronic module comprising at least one measuring means adapted to capture data relating to the running of the watch and a transfer unit adapted to communicate the data to said remote central analysis unit, the remote central analysis unit comprising analysis means for analyzing the data received from each transfer unit of the electronic modules and storage means hosting a database in which are stored: ° identification data and information specific to each of said watches, ° the data captured by the measuring means, ° the results of the analysis of the data received from each electronic module relating to an identified watch, as well as ° the evolutionary results of the analysis of data accumulated over time from a single watch and/or several watches, ° identification data and information specific to each of said watches, ° the data captured by the measuring means, ° the results of the analysis of the data received from each electronic module relating to an identified watch, as well as ° the evolutionary results of the analysis of data accumulated over time from a single watch and/or several watches, each access and display device providing access to the information contained in the database.
A fan speed regulation system, configured in a network device, and comprising a monitoring board, a signal backplane, at least one temperature sensor array, at least one fan integration board, and at least one fan array, the monitoring board, the temperature sensor array and the fan integration board being communicatively connected to the signal backplane, and the fan integration board being communicatively connected to the fan array; wherein: the monitoring board or the fan integration board is configured to calculate a rotational speed of the fan array according to temperature information and a preset speed regulation mode, and generate corresponding rotational speed control information, wherein the rotational speed control information comprises a target rotational speed of each fan and a corresponding relationship between a fan and a temperature sensor subarray; the signal backplane is configured to transmit information; the temperature sensor array is configured to acquire temperature information of single boards in a network device; the fan integration board is further configured to regulate a rotational speed of each fan in the fan array according to the rotational speed control information; and the fan array is configured to dissipate heat of the network device; characterized in that, a separate control system is arranged on the fan integration board, the separate control system is able to independently obtain the temperature information acquired by the temperature sensor array, so as to generate corresponding rotational speed control information and control and drive a rotational speed of fans in the fan array, and thus the rotational speed of the fans is independently controlled and regulated by the fan integration board without the monitoring board. the monitoring board or the fan integration board is configured to calculate a rotational speed of the fan array according to temperature information and a preset speed regulation mode, and generate corresponding rotational speed control information, wherein the rotational speed control information comprises a target rotational speed of each fan and a corresponding relationship between a fan and a temperature sensor subarray; the signal backplane is configured to transmit information; the temperature sensor array is configured to acquire temperature information of single boards in a network device; the fan integration board is further configured to regulate a rotational speed of each fan in the fan array according to the rotational speed control information; and the fan array is configured to dissipate heat of the network device; characterized in that, a separate control system is arranged on the fan integration board, the separate control system is able to independently obtain the temperature information acquired by the temperature sensor array, so as to generate corresponding rotational speed control information and control and drive a rotational speed of fans in the fan array, and thus the rotational speed of the fans is independently controlled and regulated by the fan integration board without the monitoring board.