mhurhangee/ep-ind-claims huggingface dataset:
Room temperature controller for electrical installation engineering, comprising a rotary operator control system, comprising a device base, a central plate and a central rotary knob as a first input operator control element, completed by a covering frame, • wherein the rotary knob is fastened in a rotatable manner to the device base or its base cover by means of a roller bearing, • wherein the central plate is designed in the form of a rocker with floating bearing in relation to the device base or its base cover and with a central recess for the rotary knob to pass through, • wherein the corners (19, 20, 21, 22) of the central plate or its front panel embody further input operator control elements and each corner (19, 20, 21, 22) is marked for this purpose and, when force is applied, an associated switch/pushbutton is acted on individually by means of a switching and return pin, and • wherein a central display which is stationary relative to the rotational mobility of the rotary knob is arranged below a transparent front plate of the rotary knob. • wherein the rotary knob is fastened in a rotatable manner to the device base or its base cover by means of a roller bearing, • wherein the central plate is designed in the form of a rocker with floating bearing in relation to the device base or its base cover and with a central recess for the rotary knob to pass through, • wherein the corners (19, 20, 21, 22) of the central plate or its front panel embody further input operator control elements and each corner (19, 20, 21, 22) is marked for this purpose and, when force is applied, an associated switch/pushbutton is acted on individually by means of a switching and return pin, and • wherein a central display which is stationary relative to the rotational mobility of the rotary knob is arranged below a transparent front plate of the rotary knob.
A mobile agricultural planting machine, comprising: ground engaging elements that carry the machine over a field; a valve configured to be controlled with a pulsed control signal, the valve comprising an inlet end configured to be connected to a source of liquid to be applied to the field and an outlet end; a pump pumping the liquid from the source to the valve; and an application assembly comprising: a proximal end connected to the outlet end of the valve; a distal end through which pulses of the liquid pass to be applied to the field; and a conduit extending between the proximal end and the distal end the conduit comprising: a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid. ground engaging elements that carry the machine over a field; a valve configured to be controlled with a pulsed control signal, the valve comprising an inlet end configured to be connected to a source of liquid to be applied to the field and an outlet end; a pump pumping the liquid from the source to the valve; and an application assembly comprising: a proximal end connected to the outlet end of the valve; a distal end through which pulses of the liquid pass to be applied to the field; and a conduit extending between the proximal end and the distal end the conduit comprising: a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid. a proximal end connected to the outlet end of the valve; a distal end through which pulses of the liquid pass to be applied to the field; and a conduit extending between the proximal end and the distal end the conduit comprising: a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid. a first hose section comprising a first inner diameter, the first hose section defining a first section of the conduit, characterized in that the conduit further comprises a second hose section comprising a second inner diameter, smaller than the first inner diameter, the second hose section defining a second section of the conduit, the second section of the conduit lengthening the pulses of the liquid.
A laundry dryer with a heat pump system, said heat pump system comprises a closed refrigerant circuit for a refrigerant and a drying air circuit for drying air, wherein - the refrigerant circuit includes a compressor, a first heat exchanger, throttle means and a second heat exchanger, - the drying air circuit includes the first heat exchanger, the second heat exchanger, a laundry chamber and at least one fan, - the refrigerant circuit and the air stream circuit are thermally coupled by first heat exchanger and the second heat exchanger, - the first heat exchanger is provided for heating up the air stream and cooling down the refrigerant, - the second heat exchanger is provided for cooling down the air stream and heating up the refrigerant, - the refrigerant circuit comprises a low pressure side between the outlet of the throttle means and the inlet of the compressor, - the refrigerant circuit comprises a high pressure side between the outlet of the compressor and the inlet of the throttle means, and - the low pressure side and the high pressure side are thermally coupled by at least one internal heat exchanger (22, 40, 42), characterized in, that the refrigerant circuit includes at least one bypass line (28; 38) for bypassing at least a part of the low pressure side and/or high pressure side of the internal heat exchanger (22; 40, 42). - the refrigerant circuit includes a compressor, a first heat exchanger, throttle means and a second heat exchanger, - the drying air circuit includes the first heat exchanger, the second heat exchanger, a laundry chamber and at least one fan, - the refrigerant circuit and the air stream circuit are thermally coupled by first heat exchanger and the second heat exchanger, - the first heat exchanger is provided for heating up the air stream and cooling down the refrigerant, - the second heat exchanger is provided for cooling down the air stream and heating up the refrigerant, - the refrigerant circuit comprises a low pressure side between the outlet of the throttle means and the inlet of the compressor, - the refrigerant circuit comprises a high pressure side between the outlet of the compressor and the inlet of the throttle means, and - the low pressure side and the high pressure side are thermally coupled by at least one internal heat exchanger (22, 40, 42), characterized in, that the refrigerant circuit includes at least one bypass line (28; 38) for bypassing at least a part of the low pressure side and/or high pressure side of the internal heat exchanger (22; 40, 42).
Clock recovery method for coherent polarization multiplex receivers (1 - 14), comprising the steps of - coherent demodulating a received polarization multiplex signal and deriving orthogonal signal components (xi, xq; yi, yq), - sampling and converting the orthogonal signal components (xi, xq; yi, yq) into digital component values (XI, XQ; YI, YQ), - feeding said component values (XI, XQ; YI, YQ) to an equalizer, - deriving phase error values (X PEi; i = 1, 2,..., N) from output values (X Ei; i = 1, 2,..., N) of said equalizer and from the component values (XI, XQ; YI, YQ), - calculating resulting phase error values (X PE, Y PE) from at least two derived phase error values (X PE1 X PE2, X PE3, X PE4), - deriving an oscillator control signal from said resulting phase error values (X PE, Y PE), and - controlling at least one controllable oscillator (19, 29) generating a sample signal (CL1, CL2) for sampling said orthogonal signal components (xi, xq; yi, yq) or re-sampling the component values. - coherent demodulating a received polarization multiplex signal and deriving orthogonal signal components (xi, xq; yi, yq), - sampling and converting the orthogonal signal components (xi, xq; yi, yq) into digital component values (XI, XQ; YI, YQ), - feeding said component values (XI, XQ; YI, YQ) to an equalizer, - deriving phase error values (X PEi; i = 1, 2,..., N) from output values (X Ei; i = 1, 2,..., N) of said equalizer and from the component values (XI, XQ; YI, YQ), - calculating resulting phase error values (X PE, Y PE) from at least two derived phase error values (X PE1 X PE2, X PE3, X PE4), - deriving an oscillator control signal from said resulting phase error values (X PE, Y PE), and - controlling at least one controllable oscillator (19, 29) generating a sample signal (CL1, CL2) for sampling said orthogonal signal components (xi, xq; yi, yq) or re-sampling the component values.
A lumbar support device for a seat having a seat back and a seat shell mounted to a seat frame, frame, the seat back and seat shell configured to receive an operator with the operator's back against the seat back, comprising: a lumbar panel resillently flexibly attachable to the seat frame and/or seat shell to permit fore and aft movement of the lumbar panel relative to the seat back, the lumbar panel arranged to bear against the seat back; a cam element having a cam surface bearing against the lumbar panel to apply force to the lumbar panel toward the seat back, the cam element supportable on the seat frame frame and/or seat shell for movement relative to the lumbar panel and relative to the seat shell and/or seat frame, the cam element configured to vary the force applied to the seat back based on the movement of the cam element; and characterized in that it further comprises an elongated shaft extending laterally across the seat shell and/or seat frame one end of the shaft pivotably supportable on the seat shell and/or seat frame to pivot relative thereto in a generally vertical plane, and the opposite end of the shaft accessible to the operator to manually pivot the elongated shaft, wherein the cam element is fastened to the elongated shaft between the one end and the opposite end for movement upon pivoting of the shaft whereby the cam element applies a force at a different generally vertical location on the lumbar panel as the shaft is pivoted. a lumbar panel resillently flexibly attachable to the seat frame and/or seat shell to permit fore and aft movement of the lumbar panel relative to the seat back, the lumbar panel arranged to bear against the seat back; a cam element having a cam surface bearing against the lumbar panel to apply force to the lumbar panel toward the seat back, the cam element supportable on the seat frame frame and/or seat shell for movement relative to the lumbar panel and relative to the seat shell and/or seat frame, the cam element configured to vary the force applied to the seat back based on the movement of the cam element; and characterized in that it further comprises an elongated shaft extending laterally across the seat shell and/or seat frame one end of the shaft pivotably supportable on the seat shell and/or seat frame to pivot relative thereto in a generally vertical plane, and the opposite end of the shaft accessible to the operator to manually pivot the elongated shaft, wherein the cam element is fastened to the elongated shaft between the one end and the opposite end for movement upon pivoting of the shaft whereby the cam element applies a force at a different generally vertical location on the lumbar panel as the shaft is pivoted.
An apparatus for soft demapping, the apparatus comprising: a receiver configured to receive a rotated quadrature amplitude modulation, QAM, signal corresponding to a signal that is modulated to an in-phase, I, signal received via an I channel and a quadrature, Q, signal received via a Q channel; a determining unit configured to: determine a signal that has a channel gain above a threshold between signals of the I channel and the Q channel, and select at least one interference cancellation unit from among various interference cancellation units based on the channel gains with respect to the I channel and the Q channel; the selected at least one interference cancellation unit configured to cancel interference that is included in the rotated QAM signal; and a demapping processing unit configured to perform one-dimensional, ID, soft demapping on the interference-cancelled rotated QAM signal. a receiver configured to receive a rotated quadrature amplitude modulation, QAM, signal corresponding to a signal that is modulated to an in-phase, I, signal received via an I channel and a quadrature, Q, signal received via a Q channel; a determining unit configured to: determine a signal that has a channel gain above a threshold between signals of the I channel and the Q channel, and select at least one interference cancellation unit from among various interference cancellation units based on the channel gains with respect to the I channel and the Q channel; determine a signal that has a channel gain above a threshold between signals of the I channel and the Q channel, and select at least one interference cancellation unit from among various interference cancellation units based on the channel gains with respect to the I channel and the Q channel; the selected at least one interference cancellation unit configured to cancel interference that is included in the rotated QAM signal; and a demapping processing unit configured to perform one-dimensional, ID, soft demapping on the interference-cancelled rotated QAM signal.
An apparatus for transferring a force to an object, comprising: an outer wall defining an inner space and comprising an opening for an object to be inserted therein; and a plurality of actuators (410, 420, 430, 440, 450) being disposed within the outer wall to transfer forces from a plurality of directions to the object; characterized in that the apparatus comprises an inner wall, the actuators being arranged between the inner and outer wall, and in that each of the plurality of actuators (410, 420, 430, 440, 450) is expanded in correspondence with a magnitude of a force to be transferred to the object from each of the plurality of different directions, corresponding with each of the plurality of actuators (410, 420, 430, 440, 450) so as to directly transfer, to the object, a magnitude of the force transferred via the actuator (410, 420, 430, 440, 450). an outer wall defining an inner space and comprising an opening for an object to be inserted therein; and a plurality of actuators (410, 420, 430, 440, 450) being disposed within the outer wall to transfer forces from a plurality of directions to the object; characterized in that the apparatus comprises an inner wall, the actuators being arranged between the inner and outer wall, and in that each of the plurality of actuators (410, 420, 430, 440, 450) is expanded in correspondence with a magnitude of a force to be transferred to the object from each of the plurality of different directions, corresponding with each of the plurality of actuators (410, 420, 430, 440, 450) so as to directly transfer, to the object, a magnitude of the force transferred via the actuator (410, 420, 430, 440, 450).
An air purifier comprising: a) a body having an air inlet and an air outlet; b) a blower; c) an electric control box; d) an electrostatic absorption device; wherein: the blower is disposed in the air outlet and the electrostatic absorption device is disposed in the air inlet; characterized in that the air purifier further comprises a CO2 sensor and the CO2 sensor is disposed in the air outlet. a) a body having an air inlet and an air outlet; b) a blower; c) an electric control box; d) an electrostatic absorption device; the blower is disposed in the air outlet and the electrostatic absorption device is disposed in the air inlet;
A plug assembly comprising: a plug stem having a plug stem base having a first beveled edge; a plug head having a second beveled edge; and a fastening mechanism for fastening the plug stem base to the plug head, the fastening mechanism comprising: at least two retainer clamps that surround and provide an interference fit between the first beveled edge of the plug stem base and the second beveled edge of the plug head; and an interconnecting mechanism comprising two or more bolts joining the at least two retainer clamps on at least one end of the at least two retainer clamps, wherein the at least two retainer clamps and the two or more bolts are configured to form at least one gap between a first retainer clamp of the at least two retainer clamps and an adjacent retainer clamp of the at least two retainer clamps to which the first retainer clamp is joined, the at least one gap sized and configured to provide access to the interconnecting mechanism extending between the first retainer clamp and the adjacent retainer clamp. a plug stem having a plug stem base having a first beveled edge; a plug head having a second beveled edge; and a fastening mechanism for fastening the plug stem base to the plug head, the fastening mechanism comprising: at least two retainer clamps that surround and provide an interference fit between the first beveled edge of the plug stem base and the second beveled edge of the plug head; and an interconnecting mechanism comprising two or more bolts joining the at least two retainer clamps on at least one end of the at least two retainer clamps, wherein the at least two retainer clamps and the two or more bolts are configured to form at least one gap between a first retainer clamp of the at least two retainer clamps and an adjacent retainer clamp of the at least two retainer clamps to which the first retainer clamp is joined, the at least one gap sized and configured to provide access to the interconnecting mechanism extending between the first retainer clamp and the adjacent retainer clamp. at least two retainer clamps that surround and provide an interference fit between the first beveled edge of the plug stem base and the second beveled edge of the plug head; and an interconnecting mechanism comprising two or more bolts joining the at least two retainer clamps on at least one end of the at least two retainer clamps, wherein the at least two retainer clamps and the two or more bolts are configured to form at least one gap between a first retainer clamp of the at least two retainer clamps and an adjacent retainer clamp of the at least two retainer clamps to which the first retainer clamp is joined, the at least one gap sized and configured to provide access to the interconnecting mechanism extending between the first retainer clamp and the adjacent retainer clamp.
A raw mixture for producing gas concrete, consisting of ground granulated blast furnace slag, sodium hydroxide, sodium silicate solution, aluminum powder as a gas-forming agent, and a product of condensation of sulfonated naphthalene with formaldehyde, in the following proportion of the components, % by weight: Ground granulated blast furnace slag 63.0 - 69.0 Sodium silicate solution 30.6 - 36.7 Aluminum powder 0.07 - 0.11 Product of condensation of sulfonated naphthalene with formaldehyde 0.11 - 0.13 Sodium hydroxide 0.12 - 0.16
Tester device for a cam-driven fuel injection system, in particular a pump nozzle injection system or a pump line nozzle injection system having a cam shaft which can act indirectly on a piston of the fuel injection system, wherein a rotation angle sensor is arranged at least indirectly on the cam shaft, characterized in that during operation the cam shaft can act on the piston via a lever in that the cam shaft has a multiplicity of different cams arranged one next to the other, in that the lever can be slid, together with an attachment device for the fuel injection system, in the axial direction of the cam shaft into different operating positions, and in that in each operating position the lever cooperates with another cam.
A control circuit, wherein the circuit comprises a switch unit, a trigger unit, and a control unit, wherein the trigger unit is connected to the control unit, and the control unit is connected to the switch unit; the trigger unit is configured to: after obtaining an abrupt change of an electric signal output by a power source when the power source starts supplying power, output a first binary signal lasting for a preset time to the control unit; the switch unit is configured to establish continuity in a path between the power source and a load device under action of a switch control signal, so that the power source supplies power to the load device, and the load device continuously outputs a second binary signal to the control unit after being energized, wherein a starting moment at which the load device outputs the second binary signal is earlier than an end moment at which the trigger unit stops outputting the first binary signal; and the control unit is configured to output a switch control signal to the switch unit to establish continuity in the path between the power source and the load device, when receiving either or both of the first binary signal and the second binary signal.
Use of at least one chromogenic and/or fluorogenic phosphatase substrate for the detection and/or enumeration of enterobacteria in a sample likely to contain them, such as a food sample and, simultaneously or sequentially, of at least one chromogenic and/or fluorogenic β-glucuronidase substrate to identify, among the enterobacteria detected via said phosphatase substrate, the β - glucuronidase-positive enterobacteria, for example β - glucuronidase-positive E.coli.
A first management device managing a plurality of first network nodes, wherein the first management device is not configured to communicate directly with a plurality of second network nodes which are managed by a second management device, wherein at least one first network node and at least one second network node are configured to communicate with each other via an X2 interface, characterized by comprising: selection means for selecting one of the at least one first network node as a designated network node from among the plurality of first network nodes, wherein the designated network acquires operation information on a second network node managed by the at least one second management device via the X2 interface; and communication means for receiving the operation information on the second network node from the designated network node. selection means for selecting one of the at least one first network node as a designated network node from among the plurality of first network nodes, wherein the designated network acquires operation information on a second network node managed by the at least one second management device via the X2 interface; and communication means for receiving the operation information on the second network node from the designated network node.