mhurhangee/ep-ind-claims huggingface dataset:
Electronic power module for an electric drive system of an electric or hybrid vehicle, comprising a casing housing an element that is under load when said system is functioning, said element being accessible via a cover of said casing, said cover being fixed on said casing by detachable fixing means, characterized in that it comprises means (O1, O2) for immobilizing the detachment of said fixing means, said immobilizing means (O1, O2) being connected to a safety device capable of actuating a discharge circuit of at least one capacity linked to said element under load when said immobilizing means (O1, O2) are deactivated.
A wind turbine having a rotor, which has at least one rotor blade adjustable about its longitudinal axis by means of a pitch control, and a generator, driven by the rotor, having - a speed regulator (n_Reg 14), which takes a control difference in the rotational speed and generates a control variable for the pitch control, and - a generator regulator, which takes a power conductance and determines a rotational speed setpoint and a power setpoint, wherein a pilot control (10, 59) is provided that uses an inverse controlled system to determine a control variable for the pitch control, the inverse controlled system determining a power torque (Mp) from the rotational speed setpoint and the power setpoint and also an acceleration torque (M B) from the change in the rotational speed setpoint over time and outputting the control variable for the pitch control as an output variable that provides pilot control for the output variable from the speed regulator. - a speed regulator (n_Reg 14), which takes a control difference in the rotational speed and generates a control variable for the pitch control, and - a generator regulator, which takes a power conductance and determines a rotational speed setpoint and a power setpoint,
An audio signal encoding apparatus comprising: an encoding unit which is configured to encode a quantization value of a frequency spectrum of an input signal through a plurality of encoding algorithms; an amplitude change amount calculation unit which is configured to calculate an amplitude change amount with respect to the frequency spectrum based on a spectrum envelope of the frequency spectrum; an encoding selection unit which is configured to select the encoding algorithm from among the plurality of the encoding algorithms corresponding to a degree of deflection of an occurrence probability distribution of the quantization value according to the amplitude change amount, and an amplitude reference value generation unit which is configured to generate an amplitude reference value with respect to a subband in the frequency band of the frequency spectrum as the spectrum envelope based on a maximum level of the frequency spectrum extracted in each of the subbands, wherein the amplitude change amount calculation unit is configured to calculate the amplitude change amount in each subband based on the amplitude reference value with respect to a change amount calculation band that is a predetermined subband among the plurality of the subbands, and wherein, in the case where the amplitude change amount with respect to the subband is large, the encoding selection unit is configured to select the encoding algorithm for encoding the quantization value corresponding to the subband, where the degree of deflection is large, in the subband. an encoding unit which is configured to encode a quantization value of a frequency spectrum of an input signal through a plurality of encoding algorithms; an amplitude change amount calculation unit which is configured to calculate an amplitude change amount with respect to the frequency spectrum based on a spectrum envelope of the frequency spectrum; an encoding selection unit which is configured to select the encoding algorithm from among the plurality of the encoding algorithms corresponding to a degree of deflection of an occurrence probability distribution of the quantization value according to the amplitude change amount, and an amplitude reference value generation unit which is configured to generate an amplitude reference value with respect to a subband in the frequency band of the frequency spectrum as the spectrum envelope based on a maximum level of the frequency spectrum extracted in each of the subbands, wherein the amplitude change amount calculation unit is configured to calculate the amplitude change amount in each subband based on the amplitude reference value with respect to a change amount calculation band that is a predetermined subband among the plurality of the subbands, and wherein, in the case where the amplitude change amount with respect to the subband is large, the encoding selection unit is configured to select the encoding algorithm for encoding the quantization value corresponding to the subband, where the degree of deflection is large, in the subband.
A method for realising a prefabricated wall for a column and beam construction made of reinforced concrete, comprising steps of: arranging, resting on a horizontal plane, a frame which comprises a first portion comprising a first wall, a second wall, a third wall and a fourth wall which form a quadrilateral and which define a frame volume; connecting, to the first portion of the frame, reinforcing means for reinforcing a layer of concrete so that the reinforcing means: are borne by the frame; and comprise a first part which is arranged internally of the first portion of the frame and which partly occupies the frame volume; and which comprises a second part that projects externally from the first portion of the frame; casting a layer of concrete internally of the first portion of the frame so as to sink the first part of the reinforcing means and so as to fill a first part of the frame volume; characterised in that the method further comprises the step of casting a layer of acoustically insulating material facing the layer of concrete and internally of the first portion of the frame so as to occupy a second part of the frame volume, wherein the height of the first portion of the frame, the step of casting the layer of concrete and the thickness of the layer of acoustically insulating material are such that a third part of the frame volume is defined, which is adjacent to the second part of the frame volume, so that it remains a space available internally of the frame volume of the realised prefabricated wall. arranging, resting on a horizontal plane, a frame which comprises a first portion comprising a first wall, a second wall, a third wall and a fourth wall which form a quadrilateral and which define a frame volume; connecting, to the first portion of the frame, reinforcing means for reinforcing a layer of concrete so that the reinforcing means: are borne by the frame; and comprise a first part which is arranged internally of the first portion of the frame and which partly occupies the frame volume; and which comprises a second part that projects externally from the first portion of the frame; casting a layer of concrete internally of the first portion of the frame so as to sink the first part of the reinforcing means and so as to fill a first part of the frame volume; characterised in that the method further comprises the step of casting a layer of acoustically insulating material facing the layer of concrete and internally of the first portion of the frame so as to occupy a second part of the frame volume, wherein the height of the first portion of the frame, the step of casting the layer of concrete and the thickness of the layer of acoustically insulating material are such that a third part of the frame volume is defined, which is adjacent to the second part of the frame volume, so that it remains a space available internally of the frame volume of the realised prefabricated wall.
A side portion for a chain link of an energy guiding chain designed for guiding supply lines, in which adjacent chain links are connected pivotably relative to each other about a pivot axis (s), wherein the side portion for the pivotable arrangement of adjacent chain links has at the end a respective overlap region (31, 32) which for limiting the pivotal movement is provided with corresponding abutment surfaces (312, 322) and with a pivot axis (s), that is to say a first overlap region having first abutment surfaces and a second overlap region having second abutment surfaces, and a slide plane for slip movement of the two overlap regions (31, 32) in the position of installation against the respectively associated overlap region (32, 31) of adjacent chain links, and for damping the deceleration of the pivotal movement there is arranged in front of at least each first abutment surface a damping element in the form of a spring lip resiliently deformable about a bending axis (b) parallel to the pivot axis (s), characterised in that the spring lip is arranged fixed in opposite relationship to its extension direction (e) perpendicular to the slide plane at least partially at a side wall of the side portion and has an end region extending away from the side portion which is axial with respect to its bending axis (b) for at least predominantly coupling in the kinetic energy which is transmitted to said spring lip by way of the second abutment surface which in the position of installation of the side portion in the chain link of the energy guiding chain corresponds in abutment-operative relationship with the first abutment surface, said second abutment surface being the abutment surface of the second overlap region of the chain link which is adjacent in the position of installation.
Vehicle door handle with an electronic module, having at least one circuit board, which has conductor tracks and is fitted with electronic units, characterised in that the circuit board has at least one section with a material weakening for forming a bending area (3, 3'), wherein the material weakening of the circuit board is formed by a material abrasion of the circuit board, wherein the electronic module has a one-piece or multi-piece holder for fixing the circuit board which forms a bending gauge for the circuit board.
Distance sensor for determining the distance of objects in a monitoring area, having a transmitter and a receiver, wherein transmission pulses emitted by the transmitter are guided to the object and reflected by the latter as a reception pulse to the receiver, and having an evaluation unit in which the distance of the object to the distance sensor is determined from the transit time of the transmission pulses to the object, wherein two independently asynchronously operating oscillators (9, 10) are provided, one oscillator generating pulse-shaped, periodic clock signals for transmitter operation and one oscillator forming a clock generator which generates periodic clock signals for controlling components of the evaluation unit, wherein the clock generator generates a clock signal which is asynchronous to the transmission pulse, in that the evaluation unit comprises at least one TDC unit, wherein this has a coarse measuring unit and two fine measuring units (20, 20'), each with a delay line, wherein the coarse measuring unit is constructed as follows counting whole clock pulses (a) of the clock signal, in that a first fine measuring unit is started with a transmission pulse, the coarse measuring unit being started with this and the time interval (c) between transmission of the transmission pulse and the subsequent start of a clock pulse (a) of the clock signal being measured, in that the second fine measuring unit is started with the receive pulse following the transmit pulse, the coarse measuring unit being stopped with this and the time interval (c) between receiving the receive pulse and the subsequent start of a clock pulse (a) of the clock signal being measured.
A process for preparing a compound of Formula comprising: providing a compound of Formula combined with a first solvent; and coupling the compound of Formula with a compound of Formula in a second solvent, wherein, R 1 is C 10-20 alkyl; R 2 is C 1-4 alkyl; X is a leaving group; and the first solvent is an ether solvent and is the same as the second solvent; and wherein the coupling of the compound of Formula with the compound of Formula is carried out in the presence of an organic base. providing a compound of Formula combined with a first solvent; and coupling the compound of Formula with a compound of Formula in a second solvent, R 1 is C 10-20 alkyl; R 2 is C 1-4 alkyl; X is a leaving group; and the first solvent is an ether solvent and is the same as the second solvent; and wherein the coupling of the compound of Formula with the compound of Formula is carried out in the presence of an organic base.
A shaft seal (24a-24e; 24g, 24h), including - an annular base body (26a-26e; 26g, 26h) whereof one lateral surface (28a-28e; 28g, 28h) forms a circumferential sealing surface and whereof the other, opposing, lateral surface (32a-32e; 32g, 32h) has at least two circumferential sealing lips (34a-34e; 34g, 34h, 36a-36e; 36g, 36h) extending radially therefrom, between which an outwardly open outer cavity (38a-38e; 38g, 38h) is delimited, and including - a pressure-medium inlet (54a-54e; 54g, 54h) in an outer wall of the base body (26a-26e; 26g, 26h) and a pressure-medium outlet (56a-56e; 56g, 56h), which leads into the outer cavity (38a-38e; 38g, 38h) and is in fluid connection with the inlet (54a-54e; 54g, 54h), wherein the base body (26a-26e; 26g, 26h) has an inner cavity (60a-60e; 60g, 60h) which is separated from the outer cavity (38a-38e; 38g, 38h) in pressure-tight manner, and wherein the lateral outer walls of the shaft seal (24a-24e; 24g, 24h) which delimit the inner cavity (60a-60e; 60g, 60h) are formed by the base body (26a-26e; 26g, 26h). - an annular base body (26a-26e; 26g, 26h) whereof one lateral surface (28a-28e; 28g, 28h) forms a circumferential sealing surface and whereof the other, opposing, lateral surface (32a-32e; 32g, 32h) has at least two circumferential sealing lips (34a-34e; 34g, 34h, 36a-36e; 36g, 36h) extending radially therefrom, between which an outwardly open outer cavity (38a-38e; 38g, 38h) is delimited, and including - a pressure-medium inlet (54a-54e; 54g, 54h) in an outer wall of the base body (26a-26e; 26g, 26h) and a pressure-medium outlet (56a-56e; 56g, 56h), which leads into the outer cavity (38a-38e; 38g, 38h) and is in fluid connection with the inlet (54a-54e; 54g, 54h),
Arrangement comprising a supply unit of an industrial control system, wherein a superordinate computing unit is assigned to the supply unit, wherein the supply unit comprises at least one electronic part, wherein the at least one electronic part has at least one electronic component (108,109), and the superordinate computing unit is configured to calculate a second temperature of the at least one electronic component (108,109) by means of a second thermal model, characterised in that the supply unit is designed to calculate a first temperature of the at least one electronic component (108,109) by means of a first thermal model when this supply unit is energised, and the supply unit and the superordinate computing unit interact in such a way that at least the first temperature or the second temperature of the at least one electronic component (108,109) is calculated, wherein the supply unit is configured to provide the superordinate computing unit with relevant data for the calculation of the second thermal model, and the superordinate computing unit is configured to calculate the second temperature when the supply unit is not energised. the supply unit is designed to calculate a first temperature of the at least one electronic component (108,109) by means of a first thermal model when this supply unit is energised, and the supply unit and the superordinate computing unit interact in such a way that at least the first temperature or the second temperature of the at least one electronic component (108,109) is calculated, wherein the supply unit is configured to provide the superordinate computing unit with relevant data for the calculation of the second thermal model, and the superordinate computing unit is configured to calculate the second temperature when the supply unit is not energised.
Endovascular apparatus for crossing through an obstruction in a blood vessel, the apparatus comprising: an elongate endovascular element, a source of ultrasonic energy comprising an ultrasonic transducer in a transducer housing, and a coupling for, in use, transmitting the ultrasonic energy along the endovascular element from the source to an active tip portion at a distal end of the endovascular element, the coupling being arranged to couple the source to the endovascular element at any of a plurality of discrete operational positions along the length of the endovascular element for said transmission of ultrasonic energy to the active tip portion, the coupling further being arranged to clamp the endovascular element when at any of the operational positions, the endovascular element extending through the coupling and the source and having portions that extend, respectively, proximally and distally from the coupling and the source, wherein the endovascular apparatus further comprises damping features (45, 46, 48, 49, 51, 71, 73, 74, 76, 77, 78, 81, 82, 83, 84, 85, 94, 96, 100, 102, 104, 105, 112) that are mechanically coupled to the endovascular element to attenuate lateral displacement of the endovascular element at positions away from the distal tip portion proximally and/or distally of the transducer. an elongate endovascular element, a source of ultrasonic energy comprising an ultrasonic transducer in a transducer housing, and a coupling for, in use, transmitting the ultrasonic energy along the endovascular element from the source to an active tip portion at a distal end of the endovascular element, the coupling being arranged to couple the source to the endovascular element at any of a plurality of discrete operational positions along the length of the endovascular element for said transmission of ultrasonic energy to the active tip portion, the coupling further being arranged to clamp the endovascular element when at any of the operational positions, the endovascular element extending through the coupling and the source and having portions that extend, respectively, proximally and distally from the coupling and the source, wherein the endovascular apparatus further comprises damping features (45, 46, 48, 49, 51, 71, 73, 74, 76, 77, 78, 81, 82, 83, 84, 85, 94, 96, 100, 102, 104, 105, 112) that are mechanically coupled to the endovascular element to attenuate lateral displacement of the endovascular element at positions away from the distal tip portion proximally and/or distally of the transducer.
A system for checking the interior of hermetically sealed cushioning devices for contamination, comprising a hermetically sealed cushioning device (1, 2, 3) having a sealable port adapted to allow extraction of air from interior of the cushioning device (1, 2 3), and means adapted for extracting air from the interior of the cushioning device, and means for analysing said extracted air to determine if it contains contaminants and wherein the means for analysing said extracted air to determine if it contains contaminants comprises microbial detection means;
A device for detecting signal pulses in an analogue measurement signal of a particle counter, wherein the device comprises an AD-converter and an evaluation unit, wherein the evaluation unit includes a slope evaluation unit, which determines signal pulses by evaluating the slopes between adjacent samples in the digital data stream of the AD-converter in real time, characterized in that the evaluation unit includes a drift detection unit that determines and evaluates criteria for detecting and/or evaluating the drift behavior of the measurement signal.
A method of operating a telephone directory list in an electronic communication device adapted to make PTT communication with other electronic communication devices through a network and a server, the telephone directory list storing therein telephone numbers of the users of the other electronic communication devices in an order, the method comprising; on receipt of voice data in the electronic communication device from the other electronic communication devices through the server, counting up a number of speeches made by the users of the other electronic communication devices stored in the telephone directory list, rearranging, when PTT communication is terminated, the order of telephone numbers of the users of the other electronic communication devices stored in the telephone directory list such that a user who made speeches in a greater number is in a higher position in a rearranged telephone directory list, and displaying, when a user of the electronic communication device is going to start a next process of PTT communication, the rearranged telephone directory list.
A method comprising: determining a trajectory for each of one or more audio objects, wherein the trajectories are time dependent directions; determining each of the audio objects to be a transient object or a non-transient object; and causing a respective audio object to be differently extended in time to synchronize with a video signal that is to be played back in slow motion, wherein causing the respective audio object to be differently extended in time is dependent upon whether the audio object is determined to be a transient object or a non-transient object and comprises: in an instance in which the respective audio object is determined to be a transient object, splitting the transient object into transient segments, each having an associated trajectory that is a corresponding segment of the trajectory of the transient object, and extending the transient object in time by inserting silent segments between the transient segments; and in an instance in which the respective audio object is determined to be a non-transient object, extending the non-transient object in time by repeating the non-transient object, wherein the trajectory of the non-transient object is stretched over time to create a trajectory of the extended non-transient object. determining a trajectory for each of one or more audio objects, wherein the trajectories are time dependent directions; determining each of the audio objects to be a transient object or a non-transient object; and causing a respective audio object to be differently extended in time to synchronize with a video signal that is to be played back in slow motion, wherein causing the respective audio object to be differently extended in time is dependent upon whether the audio object is determined to be a transient object or a non-transient object and comprises: in an instance in which the respective audio object is determined to be a transient object, splitting the transient object into transient segments, each having an associated trajectory that is a corresponding segment of the trajectory of the transient object, and extending the transient object in time by inserting silent segments between the transient segments; and in an instance in which the respective audio object is determined to be a non-transient object, extending the non-transient object in time by repeating the non-transient object, wherein the trajectory of the non-transient object is stretched over time to create a trajectory of the extended non-transient object. in an instance in which the respective audio object is determined to be a transient object, splitting the transient object into transient segments, each having an associated trajectory that is a corresponding segment of the trajectory of the transient object, and extending the transient object in time by inserting silent segments between the transient segments; and in an instance in which the respective audio object is determined to be a non-transient object, extending the non-transient object in time by repeating the non-transient object, wherein the trajectory of the non-transient object is stretched over time to create a trajectory of the extended non-transient object.