mhurhangee/ep-ind-claims huggingface dataset:
Apparatus, configured and adapted to separate substances of different flowability that are mixed together, comprising a frame structure, a hollow drum which is driven in rotation and mounted on the frame structure and has a perforated circumferential surface and at least one at least partially open end side (S V, S H), an endless press belt driven in rotation which is wrapped around part of the circumferential surface of the hollow drum and can be pressed from outside against the hollow drum, a product intake wedge formed by the press belt and the hollow drum for guiding into the apparatus a product flow consisting of material to be pressed into the space between the hollow drum and the press belt in an inlet region of the product flow, a support apparatus for the press belt with at least one support element which is located on the side of the press belt opposite the hollow drum, and a device for discharging separation material pressed through the perforated circumferential surface into the hollow space of the hollow drum from the at least partially open end side (S V, S H) of the hollow drum, characterised in that a cooling device configured and adapted to cool the separation material during processing by means of a cryogenic cooling medium is assigned to the hollow drum, wherein the cooling device is disposed in the hollow space of the hollow drum and comprises at least one nozzle which is connected to a reservoir of cooling medium via a supply line.
Appliance for drying articles to be dried, in particular a commercial tumble dryer, a commercial dishwasher or automatic cleaning and disinfection machine, comprising a chamber for receiving articles to be dried, a process air duct, in which process air is heated by means of a heating device and subsequently fed to the chamber, said air then being conducted out of the chamber and subsequently cooled in a condensation device and thereby dehumidified, and comprising a heat pump device, in which cooling agent is conveyed in the circuit via an evaporator, a compressor, a condenser and a throttle or a capillary, the condensation device containing the evaporator and the heating device containing the condenser, and the heat pump device consisting of at least two heat pump units each comprising an evaporator, a compressor, a condenser, a throttle or a capillary, characterised in that the process air flows through each of the heat pump units at the same time, in that the amount of process air which is supplied to the evaporators of each of the heat pump units can be determined by means of a distribution device that is arranged inside part of a process air line of the process air duct, which part is provided upstream of the heat pump units, and in that the amount of process air that can be supplied to the evaporators of the respective heat pump units can be modified by the distribution device.
A low-pressure hydroelectric power station, comprising an inlet channel (17, 20), a headwater level, a turbine chamber, a centripetal turbine with vertical turbine shaft, a suction end and an outlet channel with a tailwater level, wherein there is a head of water (Hf) between the headwater level and the tailwater level, characterized in that the entire inlet channel (17, 20) is formed as a trough and comprises an acceleration channel which increasingly tapers in the direction of flow and comprises an outlet opening at the narrowest point which opens into the turbine chamber, wherein the centripetal turbine comprises a turbine wheel with turbine blades, a turbine cover plate and a turbine base plate, and the turbine base plate is positioned at a height (Hu) above the tailwater level which lies in a range of 25% to 50% of the entire head of water (Hf), wherein the suction end reaches beneath the tailwater level and the suction effect of the suction end leads to a congestion-free flow in the critical region, at maximum possible flow rate, from the orifice of the inlet channel (17, 20) to the turbine chamber, presses the flow against the inner wall of the turbine chamber and leads it through the centripetal turbine.
A system for joint replacement comprising: a constrained acetabular insert with its perimeter extending beyond hemisphere; a dual mobility liner with its perimeter extending beyond hemisphere and configured to tilt and rotate within the constrained acetabular insert; and a femoral head configured to tilt and rotate within the dual mobility liner; characterised in that the constrained acetabular insert comprises a plurality of tabs; and wherein the dual mobility liner comprises screw threads for receiving the plurality of tabs. a constrained acetabular insert with its perimeter extending beyond hemisphere; a dual mobility liner with its perimeter extending beyond hemisphere and configured to tilt and rotate within the constrained acetabular insert; and a femoral head configured to tilt and rotate within the dual mobility liner; characterised in that the constrained acetabular insert comprises a plurality of tabs; and wherein the dual mobility liner comprises screw threads for receiving the plurality of tabs.
A method to control communication of data in a return path to a source system in an interactive television system, the method including: at the source system, generating a hint value based on conditions in the interactive television system; and at the source system, broadcasting the hint value to a plurality of receiver systems; characterised in that: each receiver system comprises a read hint value module to control the communication of the data in the return path by comparing the hint value to a random value generated by said receiver system, wherein the generating of the hint value and the broadcasting of the hint value are repetitively performed in real-time. at the source system, generating a hint value based on conditions in the interactive television system; and at the source system, broadcasting the hint value to a plurality of receiver systems; characterised in that: each receiver system comprises a read hint value module to control the communication of the data in the return path by comparing the hint value to a random value generated by said receiver system, wherein the generating of the hint value and the broadcasting of the hint value are repetitively performed in real-time.
An interrupt control method for a control unit of an electronic system, the electronic system comprising a host and an electronic device, the interrupt control method comprising the following steps carried out by the control unit: receiving digital data generated by the electronic device; determining a value of the digital data; and sending interrupt signals to the host by one of the following methods according to the value of the digital data: switching the control unit to another signal sending status when the control unit is in a signal sending status and after the value of the digital data increases to be greater than a threshold value and remains greater than the threshold value for a specific period of time; and/or switching the control unit to the signal sending status when the control unit is in the other signal sending status and after the value of the digital data decreases to be smaller than another threshold value and remains smaller than the other threshold value for another specific period of time; wherein the other threshold value is smaller than the threshold value; characterized in that the interrupt signals are continuously sent to the host when the control unit is in the other signal sending status and no interrupt signals are sent to the host when the control unit is in the signal sending status, or the interrupt signals are continuously sent to the host when the control unit is in the signal sending status and no interrupt signals are sent to the host when the control unit is in the other signal sending status; wherein the signal sending status and the other signal sending status are configured based on regions defined by the threshold values (TH1, TH2). receiving digital data generated by the electronic device; determining a value of the digital data; and sending interrupt signals to the host by one of the following methods according to the value of the digital data: switching the control unit to another signal sending status when the control unit is in a signal sending status and after the value of the digital data increases to be greater than a threshold value and remains greater than the threshold value for a specific period of time; and/or switching the control unit to the signal sending status when the control unit is in the other signal sending status and after the value of the digital data decreases to be smaller than another threshold value and remains smaller than the other threshold value for another specific period of time; switching the control unit to another signal sending status when the control unit is in a signal sending status and after the value of the digital data increases to be greater than a threshold value and remains greater than the threshold value for a specific period of time; and/or switching the control unit to the signal sending status when the control unit is in the other signal sending status and after the value of the digital data decreases to be smaller than another threshold value and remains smaller than the other threshold value for another specific period of time;
A mobile communication method of allowing a mobile station and a plurality of base stations (20, 30) to communicate based on an HSDPA communication mode, comprising: when said mobile station moves from one base station into an area of another base station, transmitting an HS-SCCH signal with a dummy signal for notifying base station switching included in part 1 information of said HS-SCCH signal from said other base station as a moving destination to said mobile station prior to transmission of actual information; characterized by further comprising: determining whether said dummy signal is included in said received HS-SCCH signal by said mobile station; in response to reception of said dummy signal, decoding an HS-SCCH signal up to part 2 information by said mobile station; examining CRC included in said part 2 information; and when said CRC is normal, executing base station switching, wherein a bit string of the part 1 information yet to be used is used as said dummy signal, wherein said mobile station refrains from decoding up to said part 2 information of said HS-SCCH signal until reception of said dummy signal. when said mobile station moves from one base station into an area of another base station, transmitting an HS-SCCH signal with a dummy signal for notifying base station switching included in part 1 information of said HS-SCCH signal from said other base station as a moving destination to said mobile station prior to transmission of actual information; characterized by further comprising: determining whether said dummy signal is included in said received HS-SCCH signal by said mobile station; in response to reception of said dummy signal, decoding an HS-SCCH signal up to part 2 information by said mobile station; examining CRC included in said part 2 information; and when said CRC is normal, executing base station switching, wherein a bit string of the part 1 information yet to be used is used as said dummy signal, wherein said mobile station refrains from decoding up to said part 2 information of said HS-SCCH signal until reception of said dummy signal. determining whether said dummy signal is included in said received HS-SCCH signal by said mobile station; in response to reception of said dummy signal, decoding an HS-SCCH signal up to part 2 information by said mobile station; examining CRC included in said part 2 information; and when said CRC is normal, executing base station switching, wherein a bit string of the part 1 information yet to be used is used as said dummy signal, wherein said mobile station refrains from decoding up to said part 2 information of said HS-SCCH signal until reception of said dummy signal.
An X-ray detector (100, 200, 400, 500) comprising: a photoconductor (110, 260, 360, 460, 570); a first diffusion barrier film (112, 250, 450, 560) on a first surface of the photoconductor, wherein the first diffusion barrier film is formed of an oxide semiconductor and has a thickness from 0.1μm to 100μm; at least one pixel electrode (111, 240, 340, 440, 550) on the first diffusion barrier film, wherein the first diffusion barrier film is located between the pixel electrode and the photoconductor; a signal transmitting unit configured to process electrical signals output from the at least one pixel electrode; and a common electrode (114, 280, 480, 590) on a second surface of the photoconductor, the second surface of the photoconductor being opposite to the first surface of the photoconductor; characterized in that the first diffusion barrier film covers the pixel electrode and has a resistance of from 1 μΩ.cm to 100 MΩ.cm and in that the at least one pixel electrode is formed of Al, Cu or an alloy thereof. a photoconductor (110, 260, 360, 460, 570); a first diffusion barrier film (112, 250, 450, 560) on a first surface of the photoconductor, wherein the first diffusion barrier film is formed of an oxide semiconductor and has a thickness from 0.1μm to 100μm; at least one pixel electrode (111, 240, 340, 440, 550) on the first diffusion barrier film, wherein the first diffusion barrier film is located between the pixel electrode and the photoconductor; a signal transmitting unit configured to process electrical signals output from the at least one pixel electrode; and a common electrode (114, 280, 480, 590) on a second surface of the photoconductor, the second surface of the photoconductor being opposite to the first surface of the photoconductor;
An acoustic logging tool that comprises: a controller; a digital-to-analog converter that converts a digital waveform from the controller into an analog waveform; an acoustic dipole transducer that converts an electrical signal into an acoustic signal; a linear driver that receives the analog waveform from the digital-to-analog converter and responsively provides a positive electrical signal and a negative electrical signal which are converted to the electrical signal input to the acoustic dipole transducer, wherein the electric signal input to the acoustic dipole transducer is proportional to the analog waveform, wherein the linear driver further includes a summing amplifier comprising an operation amplifier with a feedback path connecting the output of the operation amplifier with the inverting input of the operation amplifier, and the summing amplifier receives at the inverting input weighted positive and negative electrical signals derived from the respective positive and negative electrical signals and a weighted analog waveform derived from the analog waveform for reducing any difference between the electrical signal and the analog waveform. a controller; a digital-to-analog converter that converts a digital waveform from the controller into an analog waveform; an acoustic dipole transducer that converts an electrical signal into an acoustic signal; a linear driver that receives the analog waveform from the digital-to-analog converter and responsively provides a positive electrical signal and a negative electrical signal which are converted to the electrical signal input to the acoustic dipole transducer, wherein the electric signal input to the acoustic dipole transducer is proportional to the analog waveform, wherein the linear driver further includes a summing amplifier comprising an operation amplifier with a feedback path connecting the output of the operation amplifier with the inverting input of the operation amplifier, and the summing amplifier receives at the inverting input weighted positive and negative electrical signals derived from the respective positive and negative electrical signals and a weighted analog waveform derived from the analog waveform for reducing any difference between the electrical signal and the analog waveform.
A device, comprising a unit for generating and emitting electric pulses, two or more electrodes or plates (2a, 2b) of a capacitor that are arranged in one electric circuit of said unit, and a treatment space arranged between said electrodes or plates (2a, 2b) so that the treatment space can be penetrated by the emitted electric pulses and an electric field resulting therefrom, wherein at least one additional adjustable resistor is arranged in said electric circuit, characterised in that a unit for measuring the electric conductivity of a material to be treated in the treatment space is provided to generate data for automatically adjusting said at least one adjustable resistor, so as to apply matched load conditions onto the treatment space.
Processing system comprising a first processing cell and a second processing cell for processing a component as well as a handling unit and a scanning unit, characterised in that the first and second processing cells (10, 20) are each provided with an identification element (100, 100'; 200, 200'), which identification elements (100, 100'; 200, 200') can be scanned by means of a scanning unit of the handling unit, wherein the identification elements (100, 100'; 200, 200') comprise a marking element (100a, 100a'; 200a, 200a') which defines a local coordinate system and an information carrier element (100b, 100b'; 200b, 200b') which contains information on the first or second processing cell (10, 20) and/or a processing unit (11, 21) and/or provides a link for this purpose. characterised in that the first and second processing cells (10, 20) are each provided with an identification element (100, 100'; 200, 200'), which identification elements (100, 100'; 200, 200') can be scanned by means of a scanning unit of the handling unit, wherein the identification elements (100, 100'; 200, 200') comprise a marking element (100a, 100a'; 200a, 200a') which defines a local coordinate system and an information carrier element (100b, 100b'; 200b, 200b') which contains information on the first or second processing cell (10, 20) and/or a processing unit (11, 21) and/or provides a link for this purpose.
A rigid inner mold comprising an annular inner mold body having a tire molding surface for forming a green tire and put into a vulcanizing metallic mold with the green tire so as to vulcanize the green tire between the vulcanizing metallic mold and the inner mold body; the inner mold body comprises a plurality of first inner mold segments having circumferential end surfaces inclined in the direction of which circumferential width increases toward the radially inward, a plurality of second inner mold segments having circumferential end surfaces inclined in the direction of which circumferential width decreases toward the radially inward and disposed alternately in the circumferential direction the first inner mold segments, and butting members disposed between the first inner mold segment and the second inner mold segment; characterized in that the butting members are fixed to one of the circumferential end surfaces (5As, 5Bs) of the adjacent first and second inner mold segments (5A, 5B); and Young's modulus Ea of the butting members is smaller than Young's modulus Eb of the first and second inner mold segments (5A, 5B). a plurality of first inner mold segments having circumferential end surfaces inclined in the direction of which circumferential width increases toward the radially inward, a plurality of second inner mold segments having circumferential end surfaces inclined in the direction of which circumferential width decreases toward the radially inward and disposed alternately in the circumferential direction the first inner mold segments, and butting members disposed between the first inner mold segment and the second inner mold segment; characterized in that the butting members are fixed to one of the circumferential end surfaces (5As, 5Bs) of the adjacent first and second inner mold segments (5A, 5B); and Young's modulus Ea of the butting members is smaller than Young's modulus Eb of the first and second inner mold segments (5A, 5B).
A method for measuring an active power (Pe) and/or a mechanical power (Pm) and/or an active energy and/or a mechanical energy of an electric motor, wherein a real current of the motor is measured by at least one measurement sensor, at least a nominal power datum (Pn) of the motor, a nominal speed datum (Wn) of the motor, a nominal current datum (In) of the motor, a nominal voltage datum (Un) of the motor, a power factor datum (cosφ) of the motor and the real current of the motor are inputted on at least one input interface of a calculator, a no-load current of the motor is calculated in the calculator according to a first recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the nominal voltage datum (Un) of the motor and on the power factor datum (cosφ) of the motor, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy are/is calculated in the calculator according to at least one second recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the real current and on the no-load current having been calculated, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy, having been calculated, are/is provided on an output interface of the calculator. a real current of the motor is measured by at least one measurement sensor, at least a nominal power datum (Pn) of the motor, a nominal speed datum (Wn) of the motor, a nominal current datum (In) of the motor, a nominal voltage datum (Un) of the motor, a power factor datum (cosφ) of the motor and the real current of the motor are inputted on at least one input interface of a calculator, a no-load current of the motor is calculated in the calculator according to a first recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the nominal voltage datum (Un) of the motor and on the power factor datum (cosφ) of the motor, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy are/is calculated in the calculator according to at least one second recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the real current and on the no-load current having been calculated, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy, having been calculated, are/is provided on an output interface of the calculator.