mhurhangee/ep-ind-claims huggingface dataset:
A device for sealing a piston rod of a reciprocating piston machine, which rod moves back and forth in an essentially linear fashion relative to a through opening, having sealing means (8a, 8b, 8c, 8d) surrounding the piston rod and embodied in the form of an internally clamping sealing ring (8a, 8b, 8c, 8d) that is situated in the region of the through opening in an essentially stationary fashion relative to a seal housing (4, 5); at least two sealing rings (8a, 8b) are provided, which are supported in the seal housing (4, 5) so that they are able to move in a radial direction, particularly in a floating fashion; between at least two of the sealing rings (8a, 8b, 8c, 8d), a spacer ring (9a, 9b, 9c) is provided, whose radial outside is guided without play or with a small amount of play in the seal housing (4, 5) and whose radial inside has a radially larger amount of play relative to the piston rod and which - together with the sealing rings (8a, 8b, 8c, 8d) and the piston rod, forming an accumulation chamber (10a, 10b, 10c) for medium that is to be sealed, e.g. for oil - does not touch the piston rod and is in particular situated so that it is spaced apart from the piston rod; and the spacer ring (9a, 9b, 9c) has at least one passage for draining off medium from the accumulation chamber (10a, 10b, 10c), characterized in that the outer circumference of the spacer ring (9a, 9b, 9c) has a crenelated form.
A method of operating a device comprising an interface controller to give one of a plurality, n, of predetermined outputs (228, 239), the method comprising: receiving an input signal (211, 221, 231), comparing a duration of said input signal (211, 221, 231) with up to n-1 threshold durations (t1, t2), where n is at least 3; and generating an output (228, 239) dependent on which of said threshold durations (t1, t2) said input signal duration exceeds and/or which of said threshold durations (t1, t2) said input signal duration does not exceed; wherein the interface controller is configurable by a user for incorporation in a non-predetermined controlled device. receiving an input signal (211, 221, 231), comparing a duration of said input signal (211, 221, 231) with up to n-1 threshold durations (t1, t2), where n is at least 3; and generating an output (228, 239) dependent on which of said threshold durations (t1, t2) said input signal duration exceeds and/or which of said threshold durations (t1, t2) said input signal duration does not exceed; wherein the interface controller is configurable by a user for incorporation in a non-predetermined controlled device.
A method for providing thermal image data using a device comprising an IR sensor arranged to receive IR radiation from the surroundings in a field of view, and position determining means able to determine a position and orientation of the IR sensor, the method involving the steps: a) the IR sensor determining, with at least a predetermined frequency, an IR sensor value corresponding to a temperature of the field of view, b) sweeping the field of view over the area of interest for which the thermal image data is to be produced, where the sweeping is done such that two consecutive IR sensor value determinations have overlapping corresponding fields of view, c) the position determining means determining the respective current relative position and orientation of the device for each determination in step a), during the field of view is being swept, d) using the determined IR sensor values, together with their respective detected positions and orientations, to determine thermal image data of the area of interest, characterised in that a temperature for an area of the image is determined by determining temperatures for two partially overlapping fields of view, such that an overlap between two fields of view are associated with two non-common fields (102,103), which are not common for the two overlapping fields of view, and where a temperature value for a non-common field (102, 103) is determined by using the temperature difference between the two partially overlapping fields of view and the proportion of the area of the non-common field (102, 103) in relation to the area of the field of view. a) the IR sensor determining, with at least a predetermined frequency, an IR sensor value corresponding to a temperature of the field of view, b) sweeping the field of view over the area of interest for which the thermal image data is to be produced, where the sweeping is done such that two consecutive IR sensor value determinations have overlapping corresponding fields of view, c) the position determining means determining the respective current relative position and orientation of the device for each determination in step a), during the field of view is being swept, d) using the determined IR sensor values, together with their respective detected positions and orientations, to determine thermal image data of the area of interest,
An injection molding machine comprising: a mold clamping unit configured to clamp a mold unit; an injection unit configured to fill the mold unit clamped by the mold clamping unit with a molding material; an ejector unit configured to eject a molding product from the mold unit after the molding material filled by the injection unit is cooled and solidified; a controller configured to execute start processing or ending processing of the injection molding machine including setting or updating of a parameter or a program regarding predetermined processing; and a display unit, wherein the display unit is configured to display that the injection molding machine is in an operation state related to the setting or updating of the parameter or the program while the controller executes the start processing or the ending processing of the injection molding machine. a mold clamping unit configured to clamp a mold unit; an injection unit configured to fill the mold unit clamped by the mold clamping unit with a molding material; an ejector unit configured to eject a molding product from the mold unit after the molding material filled by the injection unit is cooled and solidified; a controller configured to execute start processing or ending processing of the injection molding machine including setting or updating of a parameter or a program regarding predetermined processing; and a display unit, wherein the display unit is configured to display that the injection molding machine is in an operation state related to the setting or updating of the parameter or the program while the controller executes the start processing or the ending processing of the injection molding machine.
Adjuster for a brake system, in particular a drum brake, comprising an actuating element and a holding unit, the actuating element being rotatable about an actuating axis and being secured against movement along the actuating axis, the holding unit having a first holding region and a second holding region, it being possible for the first holding region to be brought into engagement with a first engagement region of the actuating element, in order to transmit a torque about the actuating axis, the second holding region being fixed directly or indirectly on a housing and being secured against rotation about the actuating axis, a play being provided between the first holding region and the first engagement region, within which play a rotation of the actuating element relative to the holding unit about the actuating axis is possible, the play angle (α) assuming values of from 3° to 30°.
A driving control method for a driving control apparatus to set driving characteristics applied to automated driving in a vehicle that is capable of switching manual driving to run the vehicle according to driving operations of an occupant and the automated driving to automatically run the vehicle from one to another, comprising: comparing occupant's driving characteristics of manual driving in a present trip of the vehicle with reference driving characteristics stored in advance, and if a predetermined deviation occurs between the occupant's driving characteristics of manual driving in the present trip and the reference driving characteristics, setting, according to the occupant's driving characteristics of manual driving in the present trip, the driving characteristics applied to the automated driving, wherein the driving characteristics applied to the automated driving are set within a predetermined range of the reference driving characteristics. comparing occupant's driving characteristics of manual driving in a present trip of the vehicle with reference driving characteristics stored in advance, and if a predetermined deviation occurs between the occupant's driving characteristics of manual driving in the present trip and the reference driving characteristics, setting, according to the occupant's driving characteristics of manual driving in the present trip, the driving characteristics applied to the automated driving, wherein the driving characteristics applied to the automated driving are set within a predetermined range of the reference driving characteristics.
Sealing arrangement for a gas turbine, in particular an aircraft gas turbine, comprising: a first component which has a first flange portion and a second component which has a second flange portion, the first component and the second component being releasably coupled to one another in the region of the first flange portion and the second flange portion by means of a screw connection (38, 46), a variable distance (AB, ABn, ABx) being provided between the first component, in particular a rounded portion, and the second component, in particular the second flange portion, which distance is at least partially sealed by at least one sealing element, the sealing element having a first sealing portion that rests against the first component, in particular against the rounded portion, and having a second sealing portion that rests against the second component, in particular against the second flange portion, the first sealing portion and the second sealing portion being interconnected and arranged at an inclination with respect to one another, characterized in that the sealing element has a coupling portion which adjoins the second sealing portion, an opening being provided in the coupling portion, through which opening a shank of a bolt of the screw connection is passed.
A method of training a neural network model, wherein the neural network model comprises a first network and a second network, and the method comprises: determining, based on a first speech feature, a first principal component analysis, PCA, coefficient by using the first network; determining, based on a second speech feature, a second PCA coefficient by using the first network, and correcting the second PCA coefficient by using the second network; generating a lip movement information based on the corrected second PCA coefficient and a PCA parameter for the neural network model, and applying the lip movement information to a pre-constructed 3D basic avatar model to obtain a 3D video with a lip movement effect; calculating a first loss function between the first PCA coefficient and a reference PCA coefficient, and a second loss function between the generated lip movement information and a target lip movement information; and adjusting, based on the first loss function and the second loss function, a parameter of the first network and a parameter of the second network; wherein, the method further comprises: generating training data based on 4D data and 2D data, wherein the training data comprises the first speech feature, the second speech feature, the reference PCA coefficient, the PCA parameter, and the target lip movement information. determining, based on a first speech feature, a first principal component analysis, PCA, coefficient by using the first network; determining, based on a second speech feature, a second PCA coefficient by using the first network, and correcting the second PCA coefficient by using the second network; generating a lip movement information based on the corrected second PCA coefficient and a PCA parameter for the neural network model, and applying the lip movement information to a pre-constructed 3D basic avatar model to obtain a 3D video with a lip movement effect; calculating a first loss function between the first PCA coefficient and a reference PCA coefficient, and a second loss function between the generated lip movement information and a target lip movement information; and adjusting, based on the first loss function and the second loss function, a parameter of the first network and a parameter of the second network; wherein, the method further comprises: generating training data based on 4D data and 2D data, wherein the training data comprises the first speech feature, the second speech feature, the reference PCA coefficient, the PCA parameter, and the target lip movement information.
An energy harvesting circuit for harvesting energy from at least one energy source, the circuit comprising: - an oscillating circuit (Le, Ce) comprising an inductor (Le) and a first capacitor (Ce) for temporarily storing charges from the at least one energy source and connected in series with the inductor (Le), the inductor (Le) being connected to a first oscillating circuit node, while the first capacitor (Ce) being connected to a second oscillating circuit node; - a first switch (S1, S2, S3, S4) connected between the first oscillating circuit node and the at least one energy source for selectively connecting and disconnecting the at least one energy source to or from the oscillating circuit (Le, Ce); - a second switch connected between the first oscillating circuit node and a third oscillating circuit node, which is at the lowest electric potential of the energy harvesting circuit, for generating a negative voltage across the first capacitor (Ce) during oscillations of the oscillating circuit (Le, Ce) for collecting charges from the at least one energy source when the voltage across the first capacitor (Ce) is negative; - a voltage regulating element configured to control voltage across the at least one energy source; - a control circuit configured to control opening and closing of the first and second switches (S1, S2, S3, S4, 9); and - a clock signal generator configured to provide a first clock signal to the control circuit to allow opening and closing the first and second switches (S1, S2, S3, S4, 9) in a timely coordinated manner. - an oscillating circuit (Le, Ce) comprising an inductor (Le) and a first capacitor (Ce) for temporarily storing charges from the at least one energy source and connected in series with the inductor (Le), the inductor (Le) being connected to a first oscillating circuit node, while the first capacitor (Ce) being connected to a second oscillating circuit node; - a first switch (S1, S2, S3, S4) connected between the first oscillating circuit node and the at least one energy source for selectively connecting and disconnecting the at least one energy source to or from the oscillating circuit (Le, Ce); - a second switch connected between the first oscillating circuit node and a third oscillating circuit node, which is at the lowest electric potential of the energy harvesting circuit, for generating a negative voltage across the first capacitor (Ce) during oscillations of the oscillating circuit (Le, Ce) for collecting charges from the at least one energy source when the voltage across the first capacitor (Ce) is negative; - a voltage regulating element configured to control voltage across the at least one energy source; - a control circuit configured to control opening and closing of the first and second switches (S1, S2, S3, S4, 9); and - a clock signal generator configured to provide a first clock signal to the control circuit to allow opening and closing the first and second switches (S1, S2, S3, S4, 9) in a timely coordinated manner.
A fume extractor hood comprising: - a box containing a motor-fan assembly comprising a motor that actuates at least one fan, and - a muffler module disposed under said box of the motor-fan assembly, said muffler module comprising: - a bearing frame (40, 41, 42) defining an air extractor conduit with axis, - an active noise suppression system comprising at least two electro-acoustic transducers and at least two microphones (6, 7) connected to a control unit, - a passive noise suppression system comprising sound absorbent material disposed between said microphones (6, 7), characterized in that said two electro-acoustic transducers are connected to the walls of said bearing frame, in opposite positions with respect the axis of the conduit, in such manner to leave the central part of said conduit free; each electro-acoustic transducer having a sound emission surface inclined by an angle (θ) comprised in the range from 40° to 65° with respect to the axis of the conduit to generate a sound beam with axis inclined by an angle (α) lower than 90° with respect to the axis of the conduit, in such manner that the sound beams coming from said two electro-acoustic transducers can be mutually combined, obtaining a resulting sound beam that can be directed in a preferred direction, by means of beam forming algorithms. - a box containing a motor-fan assembly comprising a motor that actuates at least one fan, and - a muffler module disposed under said box of the motor-fan assembly, said muffler module comprising: - a bearing frame (40, 41, 42) defining an air extractor conduit with axis, - an active noise suppression system comprising at least two electro-acoustic transducers and at least two microphones (6, 7) connected to a control unit, - a passive noise suppression system comprising sound absorbent material disposed between said microphones (6, 7),
An alloy, which contains the following elements (data in wt%): 24% - 26% cobalt (Co), 12% - 14% chromium (Cr), 10% - 12% aluminum (Al), 0.2% - 0.5%, of at least one element from the group comprising scandium and the rare earth elements, 0.3% to 3% tantalum (Ta), remainder nickel. 24% - 26% cobalt (Co), 12% - 14% chromium (Cr), 10% - 12% aluminum (Al), 0.2% - 0.5%, of at least one element from the group comprising scandium and the rare earth elements, 0.3% to 3% tantalum (Ta), remainder nickel.
A particle accelerator comprising: a cavity; a voltage source configured to provide in operation a radio frequency voltage to the cavity to accelerate particles from a plasma column at the centre of the cavity, the cavity is in operation subject to a magnetic field to cause particles accelerated from the plasma column to move orbitally within the cavity; an extraction channel configured to receive the particles accelerated from the plasma column and to output the received particles from the cavity; and a regenerator configured to provide a magnetic field bump within the cavity to thereby change successive orbits of the particles accelerated from the plasma column so that, eventually, particles output to the extraction channel, wherein one of a) and b), a) the magnetic field is to be at least 4 Tesla and the magnetic field bump is at most 2 Tesla; and b) the particle accelerator is configured to vary an energy of the particles that move orbitally within the cavity; the accelerator is characterised in that the regenerator has an irregular cross-sectional shape that comprises an angular feature on a portion of the regenerator facing towards the centre of the cavity, the angular feature comprising an edge comprising a non-orthogonal intersection of two faces (772,773). a cavity; a voltage source configured to provide in operation a radio frequency voltage to the cavity to accelerate particles from a plasma column at the centre of the cavity, the cavity is in operation subject to a magnetic field to cause particles accelerated from the plasma column to move orbitally within the cavity; an extraction channel configured to receive the particles accelerated from the plasma column and to output the received particles from the cavity; and a regenerator configured to provide a magnetic field bump within the cavity to thereby change successive orbits of the particles accelerated from the plasma column so that, eventually, particles output to the extraction channel, wherein one of a) and b), a) the magnetic field is to be at least 4 Tesla and the magnetic field bump is at most 2 Tesla; and b) the particle accelerator is configured to vary an energy of the particles that move orbitally within the cavity; the accelerator is characterised in that the regenerator has an irregular cross-sectional shape that comprises an angular feature on a portion of the regenerator facing towards the centre of the cavity, the angular feature comprising an edge comprising a non-orthogonal intersection of two faces (772,773). a) the magnetic field is to be at least 4 Tesla and the magnetic field bump is at most 2 Tesla; and b) the particle accelerator is configured to vary an energy of the particles that move orbitally within the cavity; the accelerator is characterised in that the regenerator has an irregular cross-sectional shape that comprises an angular feature on a portion of the regenerator facing towards the centre of the cavity, the angular feature comprising an edge comprising a non-orthogonal intersection of two faces (772,773).
A method, comprising: generating by a visitors location register, VLR (115, 225), in response to a SGsAP-UPLINK-UNITDATA message received from a mobility management entity, MME (120, 220), in case of an error condition or abnormal condition at the VLR related to the SGs association between the MME (120, 220) and the VLR (115, 225) for a mobile unit, a SGsAP-RELEASE-REQUEST message including a SGs cause information element indicating a cause of the error condition or the abnormal condition; and transmitting the SGsAP-RELEASE-REQUEST message by the VLR (115, 225) to the MME (120, 220). generating by a visitors location register, VLR (115, 225), in response to a SGsAP-UPLINK-UNITDATA message received from a mobility management entity, MME (120, 220), in case of an error condition or abnormal condition at the VLR related to the SGs association between the MME (120, 220) and the VLR (115, 225) for a mobile unit, a SGsAP-RELEASE-REQUEST message including a SGs cause information element indicating a cause of the error condition or the abnormal condition; and transmitting the SGsAP-RELEASE-REQUEST message by the VLR (115, 225) to the MME (120, 220).
Non-surgical method for determining the focus position of a laser beam (60, 60a) in an ophthalmological laser projection system, comprising the steps of: passing over at least one measurement marking (3, 3a, 3b, 3c, 3d) applied to a reference area by means of the laser beam (60, 60a) along a scanning path (9, 9a, 9b), capturing a measurement signal created by passing over the measurement marking (3, 3a, 3b, 3c, 3d), characterized by determining time values (T2, T3, T4, T4') of at least one signal edge created in the measurement signal when passing over edges (311, 312, 321, 322) of the measurement marking (3, 3a, 3b, 3c, 3d), and establishing the focus position on the basis of the time values (T2, T3, T4, T4'). passing over at least one measurement marking (3, 3a, 3b, 3c, 3d) applied to a reference area by means of the laser beam (60, 60a) along a scanning path (9, 9a, 9b), capturing a measurement signal created by passing over the measurement marking (3, 3a, 3b, 3c, 3d), characterized by determining time values (T2, T3, T4, T4') of at least one signal edge created in the measurement signal when passing over edges (311, 312, 321, 322) of the measurement marking (3, 3a, 3b, 3c, 3d), and establishing the focus position on the basis of the time values (T2, T3, T4, T4').