mhurhangee/ep-ind-claims huggingface dataset:
Brake system, comprising four hydraulically actuable wheel brakes (4, 6, 8, 10), each wheel brake (4, 6, 8, 10) being assigned in each case one normally closed outlet valve (90, 92, 120, 122), and each wheel brake (4, 6, 8, 10) being assigned in each case one normally open inlet valve (86, 88, 110, 114), comprising a simulator which can be actuated by way of a brake pedal, two pressure provision devices (14, 16) being provided for the active build-up of pressure in the wheel brakes (4, 6, 8, 10), two brake circuits (I, II) being formed hydraulically, in each case one pressure provision device (14, 16) being connected hydraulically to two wheel brakes (4, 6, 8, 10) in each brake circuit (I, II), characterized in that two separate on-board electrical systems (18, 20) are provided, each pressure provision device (14, 16) being fed in each case by one of the two on-board electrical systems (18, 20), and a disconnecting apparatus being provided, by way of which the two brake circuits (I, II) are connected hydraulically to one another in a connecting position in such a way that each wheel brake (4, 6, 8, 10) is connected hydraulically to each of the two pressure provision devices (14, 16), and they are disconnected hydraulically from one another in a disconnecting position, the disconnecting apparatus being fed by each of the two on-board electrical systems (18, 20). comprising a simulator which can be actuated by way of a brake pedal, two pressure provision devices (14, 16) being provided for the active build-up of pressure in the wheel brakes (4, 6, 8, 10), two brake circuits (I, II) being formed hydraulically, in each case one pressure provision device (14, 16) being connected hydraulically to two wheel brakes (4, 6, 8, 10) in each brake circuit (I, II), characterized in that two separate on-board electrical systems (18, 20) are provided, each pressure provision device (14, 16) being fed in each case by one of the two on-board electrical systems (18, 20), and a disconnecting apparatus being provided, by way of which the two brake circuits (I, II) are connected hydraulically to one another in a connecting position in such a way that each wheel brake (4, 6, 8, 10) is connected hydraulically to each of the two pressure provision devices (14, 16), and they are disconnected hydraulically from one another in a disconnecting position, the disconnecting apparatus being fed by each of the two on-board electrical systems (18, 20).
An instrument for sucking saliva or other secretions or objects out of a patient's mouth, nose, throat or lower respiratory tract, and for removing by suction water or other materials generated or used in connection with procedures carried out in the region of the mouth, nose or respiratory tract, the instrument being capable of being mounted on a finger and comprising: a substantially tubular, elastic frame provided with a channel arranged therein for a suction flow; a finger part (3, 6) for attaching the instrument to a finger, said finger part (3, 6) being fixedly or detachably fastened to the frame; characterized by said finger part (3, 6) being generally sheath-like, comprising one or more openings for leaving a distal interphalangeal joint and/or a proximal interphalangeal joint of the finger free, the finger part (3, 6) being configured to receive the finger such that the outermost joint of the finger is between both axial ends of the finger part; a separate tip part fixedly or detachably fastened to the end of the frame to locate the tip part in an axial direction, farther out than the finger part (3, 6) and including a suction inlet communicating with the channel, the tip part being arranged to be rotated around the axial direction of the frame, to be locked at predetermined angles, and being adjustable in a longitudinal direction with respect to the frame. a substantially tubular, elastic frame provided with a channel arranged therein for a suction flow; a finger part (3, 6) for attaching the instrument to a finger, said finger part (3, 6) being fixedly or detachably fastened to the frame; characterized by said finger part (3, 6) being generally sheath-like, comprising one or more openings for leaving a distal interphalangeal joint and/or a proximal interphalangeal joint of the finger free, the finger part (3, 6) being configured to receive the finger such that the outermost joint of the finger is between both axial ends of the finger part; a separate tip part fixedly or detachably fastened to the end of the frame to locate the tip part in an axial direction, farther out than the finger part (3, 6) and including a suction inlet communicating with the channel, the tip part being arranged to be rotated around the axial direction of the frame, to be locked at predetermined angles, and being adjustable in a longitudinal direction with respect to the frame.
An electric discharge machine having a machining tank which is provided therein with a table and stores machining liquid, the table having a workpiece placed thereon, and machining the workpiece by relatively moving the table and an electrode, the electric discharge machine comprising a controller, the controller comprising: a workpiece density storing section in which density of the workpiece is stored; a liquid level measuring section which measures a liquid level of the machining tank; a stored-liquid amount calculating section which, when the workpiece is mounted in the machining tank, calculates a stored-liquid amount when machining liquid is stored in the machining tank until a liquid level of the machining liquid reaches a predetermined value; a volume calculating section in the machining tank calculating a volume of an amount of liquid which can be stored in the machining tank using the liquid level obtained by the liquid level measuring section when there is no workpiece in the machining tank; a workpiece volume calculating section which calculates a volume of the workpiece from a difference between values calculated by the stored-liquid amount calculating section and by the volume calculating section in the machining tank; and a workpiece weight calculating section which calculates a weight of the workpiece from the volume of the workpiece calculated by the workpiece volume calculating section using the density of the workpiece which is called up from the workpiece density storing section. a workpiece density storing section in which density of the workpiece is stored; a liquid level measuring section which measures a liquid level of the machining tank; a stored-liquid amount calculating section which, when the workpiece is mounted in the machining tank, calculates a stored-liquid amount when machining liquid is stored in the machining tank until a liquid level of the machining liquid reaches a predetermined value; a volume calculating section in the machining tank calculating a volume of an amount of liquid which can be stored in the machining tank using the liquid level obtained by the liquid level measuring section when there is no workpiece in the machining tank; a workpiece volume calculating section which calculates a volume of the workpiece from a difference between values calculated by the stored-liquid amount calculating section and by the volume calculating section in the machining tank; and a workpiece weight calculating section which calculates a weight of the workpiece from the volume of the workpiece calculated by the workpiece volume calculating section using the density of the workpiece which is called up from the workpiece density storing section.
Test system designed to test electrical connections, particularly solder connections, between electronic components and a printed circuit board to be tested, comprising: - a housing; - a component accommodated in a mobile manner in the housing; and - a current and/or voltage source to provide energy to the printed circuit board to be tested, wherein the current and/or voltage source is arranged in the housing in a mobile manner in at least two spatial directions, wherein the component is designed as a communication interface, wherein the communication interface has at least three electrically conductive contact points (22, 32) which, by establishing contact with a contact arrangement on the printed circuit board with multiple contact points, enables data exchange according to a communication protocol with a data memory of the printed circuit board to be tested. - a housing; - a component accommodated in a mobile manner in the housing; and - a current and/or voltage source to provide energy to the printed circuit board to be tested, wherein the current and/or voltage source is arranged in the housing in a mobile manner in at least two spatial directions, wherein the component is designed as a communication interface, wherein the communication interface has at least three electrically conductive contact points (22, 32) which, by establishing contact with a contact arrangement on the printed circuit board with multiple contact points, enables data exchange according to a communication protocol with a data memory of the printed circuit board to be tested.
A relay transmission method, comprising: receiving (S101'), by a relay node, RN, configuration information about a relay link subframe, wherein the relay link subframe is configured according to a basic pattern or a combination of basic patterns periodically in a period equivalent to four frames, each frame includes 10 subframes; wherein the basic pattern includes downlink, DL, subframes and uplink, UL, subframes, an interval between the UL subframes is 8ms or 16ms and an interval between the DL subframes is 8ms or 16ms; and performing (S102'), by the RN, relay link transmission on the relay link subframe, wherein the maximum number of Hybrid Automatic Repeat Request, HARQ, processes on a relay link is equal to the number of basic patterns in the period equivalent to four frames. receiving (S101'), by a relay node, RN, configuration information about a relay link subframe, wherein the relay link subframe is configured according to a basic pattern or a combination of basic patterns periodically in a period equivalent to four frames, each frame includes 10 subframes; wherein the basic pattern includes downlink, DL, subframes and uplink, UL, subframes, an interval between the UL subframes is 8ms or 16ms and an interval between the DL subframes is 8ms or 16ms; and performing (S102'), by the RN, relay link transmission on the relay link subframe, wherein the maximum number of Hybrid Automatic Repeat Request, HARQ, processes on a relay link is equal to the number of basic patterns in the period equivalent to four frames.
A transmit resonator (300, 400) comprising: at least two inductors (302, 402); a switching network (304, 404) electrically connected to the inductors (302, 402); a plurality of capacitive electrodes (306, 406) electrically connected to the switching network (304, 404); a detector communicatively connected to a controller (310, 410), the detector configured to detect impedance, the detector comprising a first detector (308, 408) configured to detect impedance presented to the electrodes (306, 406); and the controller (310, 410) communicatively connected to the switching network (304, 404) and the detector, the controller (310, 410) configured to control the switching network (304, 404) to connect two or more electrodes (306, 406) to the inductors (302, 402) based on the detected impedance being greater than a threshold impedance which is the lowest value of a range of impedances that allows the transmit resonator (300, 400) to resonate at a resonant frequency, wherein the inductors (302, 402) and electrodes (306, 406) are configured to resonate at the resonant frequency to generate an electric field. at least two inductors (302, 402); a switching network (304, 404) electrically connected to the inductors (302, 402); a plurality of capacitive electrodes (306, 406) electrically connected to the switching network (304, 404); a detector communicatively connected to a controller (310, 410), the detector configured to detect impedance, the detector comprising a first detector (308, 408) configured to detect impedance presented to the electrodes (306, 406); and the controller (310, 410) communicatively connected to the switching network (304, 404) and the detector, the controller (310, 410) configured to control the switching network (304, 404) to connect two or more electrodes (306, 406) to the inductors (302, 402) based on the detected impedance being greater than a threshold impedance which is the lowest value of a range of impedances that allows the transmit resonator (300, 400) to resonate at a resonant frequency, wherein the inductors (302, 402) and electrodes (306, 406) are configured to resonate at the resonant frequency to generate an electric field.
A method for preparing alpha-methylstyrene, the method comprising dehydrating a dimethylbenzyl alcohol solution in a reactor under an acid catalyst to prepare alpha-methylstyrene, wherein a reaction product after the dehydration reaction comprises a first reaction product comprising a first alpha-methylstyrene; and a second reaction product comprising vapor (H 2 O), a second alpha-methylstyrene and unreacted materials; a temperature inside the reactor during the dehydration reaction is 135°C or higher; a content of the acid catalyst is from 100 ppm to 1,500 ppm based on a total weight of dimethylbenzyl alcohol of the dimethylbenzyl alcohol solution, and the method comprising, after separating the second reaction product from the reactor, separating the second alpha-methylstyrene and the unreacted materials comprised in the second reaction product and recirculating the second alpha-methylstyrene and the unreacted materials to the reactor. wherein a reaction product after the dehydration reaction comprises a first reaction product comprising a first alpha-methylstyrene; and a second reaction product comprising vapor (H 2 O), a second alpha-methylstyrene and unreacted materials; a temperature inside the reactor during the dehydration reaction is 135°C or higher; a content of the acid catalyst is from 100 ppm to 1,500 ppm based on a total weight of dimethylbenzyl alcohol of the dimethylbenzyl alcohol solution, and the method comprising, after separating the second reaction product from the reactor, separating the second alpha-methylstyrene and the unreacted materials comprised in the second reaction product and recirculating the second alpha-methylstyrene and the unreacted materials to the reactor.
A motor vehicle comprising an illumination device and a roof, comprising: - at least one laser diode or optical fiber coupled to a laser source arranged to emit light; and - at least one transparent body arranged to refract the light emitted by the laser diode or optical fiber coupled to a laser source comprising at least one incident surface arranged to receive light emitted by the laser diode or the optical fiber coupled to a laser source, and wherein said at least one incident surface is arranged to direct coherent light in a plurality of directions into said at least one transparent body said transparent body further comprising a plurality of emitting surfaces arranged to project toward the interior area of the horn an image with a plurality of patterns, the emitting surfaces having at least two non-parallel planar faces characterized in that the illumination device allows to obtain patterns projected onto the interior area of the roof of the motor vehicle so as to create a luminous ambiance, said at least one incident surface is at least partially grained and/or has at least partially an arithmetic roughness of at least 0.2 micrometers. - at least one laser diode or optical fiber coupled to a laser source arranged to emit light; and - at least one transparent body arranged to refract the light emitted by the laser diode or optical fiber coupled to a laser source
Method of controlling a microelectromechanical sensor (200; 700) comprising a single phase-locked loop or a single self-oscillating loop, the method comprising the following steps: exciting, with a same first periodic signal (FSL; FREF) from the phase-locked loop or from the self-oscillating loop, a first resonant element (206L; 803), the first signal having a frequency substantially equal, preferably equal, to the resonance frequency (fresL; f1) of the first resonant element; exciting, with the first signal, at the resonance frequency of the first resonant element (206L; 803), one or a plurality of second resonant elements (206R; 706x, 706y, 706z) respectively coupled to one or a plurality of seismic masses (202; 702x, 702y, 702z); and estimating, by one or a plurality of phase detectors (504; 804x, 804y, 804z), one or a plurality of phase shifts (Δφ; Δφx, Δφy, Δφz) between the first signal and one or a plurality of second signals (FSR; FSx, FSy, FSz) which are respectively images of vibrations, at the resonance frequency of the first resonant element (206L; 803), of the second resonant element(s) (206R; 706x, 706y, 706z), wherein each phase shift (Δφ; Δφx, Δφy, Δφz) is a function of an acceleration undergone by the seismic mass coupled to said second resonant element and is used as an error signal in a force feedback loop applying, to said seismic mass, a compensation force (Fcomp; Fcompx, Fcompy, Fcompz) enabling to bring the seismic mass towards its equilibrium position. exciting, with a same first periodic signal (FSL; FREF) from the phase-locked loop or from the self-oscillating loop, a first resonant element (206L; 803), the first signal having a frequency substantially equal, preferably equal, to the resonance frequency (fresL; f1) of the first resonant element; exciting, with the first signal, at the resonance frequency of the first resonant element (206L; 803), one or a plurality of second resonant elements (206R; 706x, 706y, 706z) respectively coupled to one or a plurality of seismic masses (202; 702x, 702y, 702z); and estimating, by one or a plurality of phase detectors (504; 804x, 804y, 804z), one or a plurality of phase shifts (Δφ; Δφx, Δφy, Δφz) between the first signal and one or a plurality of second signals (FSR; FSx, FSy, FSz) which are respectively images of vibrations, at the resonance frequency of the first resonant element (206L; 803), of the second resonant element(s) (206R; 706x, 706y, 706z),
A method performed by a wireless mobile device, the method comprising: accessing private informational content associated with a single user, the private informational content stored on a wireless server in a private content retainer associated with the single user, and the private informational content received from the private content retainer by the wireless mobile device by synchronizing the wireless mobile device with the wireless server using a synchronization table retained on the wireless server, wherein the synchronization table is configured to provide synchronization to a plurality of users; accessing shared informational content associated with the single user and at least one other user from the plurality of users, the shared informational content stored on the wireless server in a shared content retainer associated with the single user and the at least one other user from the plurality of users, and the shared informational content received by the wireless mobile device from the shared content retainer by synchronizing the wireless mobile device with the wireless server using the synchronization table; and displaying the synchronized private informational content and the shared informational content on a user interface for the single user. accessing private informational content associated with a single user, the private informational content stored on a wireless server in a private content retainer associated with the single user, and the private informational content received from the private content retainer by the wireless mobile device by synchronizing the wireless mobile device with the wireless server using a synchronization table retained on the wireless server, wherein the synchronization table is configured to provide synchronization to a plurality of users; accessing shared informational content associated with the single user and at least one other user from the plurality of users, the shared informational content stored on the wireless server in a shared content retainer associated with the single user and the at least one other user from the plurality of users, and the shared informational content received by the wireless mobile device from the shared content retainer by synchronizing the wireless mobile device with the wireless server using the synchronization table; and displaying the synchronized private informational content and the shared informational content on a user interface for the single user.
Crane (1 a, 1 b), in particular a bridge crane or gantry crane, having at least one horizontally extending transverse girder in the form of a truss having a top flange and a bottom flange, on which transverse girder a trolley having a hoist is displaceable, the transverse girder comprising, at at least one of its two opposite ends, an adapter to which a running gear unit (7, 8) is fastened, the adapter being positioned against the top flange and bottom flange in a desired position relative to the top flange and bottom flange and the adapter then being welded to the top flange and bottom flange, characterised in that the adapter comprises a connecting plate for fastening to the running gear unit (7, 8), a top plate for fastening to the top flange, and adapter walls for fastening to the bottom flange, and in that the adapter walls are fastened to the top plate, the top plate rests horizontally on the top flange of the transverse girder and is welded to the top flange in the desired position, and the adapter walls terminate in the region of the bottom flange and are welded to the bottom flange in the desired position.
A hydraulic pressure generating device comprising a base body having a master cylinder configured to generate a brake hydraulic pressure and a slave cylinder configured to generate a brake hydraulic pressure, wherein the base body is provided with an electric motor configured as a driving source for the slave cylinder and an electronic control device configured to control the electric motor, characterized in that a motor shaft of the electric motor, a cylinder axis of the master cylinder, and a cylinder axis of the slave cylinder are disposed in parallel with each other, wherein when a virtual plane including the cylinder axis of the master cylinder is set as a reference plane, a housing of the electronic control device is disposed on one side of the reference plane and the electric motor is disposed on the other side of the reference plane, wherein the electric motor comprises a motor connector to be electrically connected to a control board contained in the housing, the motor connector being extended toward the housing, and wherein a cylinder axis (L21, L22) of the motor connector is perpendicular to the motor shaft.
A rotationally actuated flapper valve (10; 210; 310) comprising: a flapper (12; 212; 312); a sinuous edge (16; 316) perimetrically about the flapper (12, 212, 312); and a congruous sinuous edge (18; 318) disposed at another component of the valve (10; 210; 310), said another component being rotatable to misalign the congruous sinuous edge (18; 318) with the sinuous edge (18; 318) of the flapper (12; 212; 312) whereby the flapper (12; 212; 312) is urged out of a closed position. a flapper (12; 212; 312); a sinuous edge (16; 316) perimetrically about the flapper (12, 212, 312); and a congruous sinuous edge (18; 318) disposed at another component of the valve (10; 210; 310), said another component being rotatable to misalign the congruous sinuous edge (18; 318) with the sinuous edge (18; 318) of the flapper (12; 212; 312) whereby the flapper (12; 212; 312) is urged out of a closed position.