mhurhangee/ep-ind-claims huggingface dataset:
A two-wire process variable transmitter for use in an industrial process, comprising: a process variable sensor configured to sense a process variable of a process fluid of the industrial process; output circuitry configured to provide a loop current on a two-wire process control loop which is related to the sensed process variable; terminal voltage measurement circuitry of the output circuitry configured to measure a terminal voltage of the process variable transmitter, the terminal voltage comprising a voltage measured across an electrical connection of the two-wire process variable transmitter to the two-wire process control loop; a microprocessor configured to: during normal operation of the two-wire process control loop, use loop current values for loop currents set in response to the sensed process variable and measured terminal voltages in order to set coefficients of a polynomial equation which relates to loop current and to terminal voltage; perform loop diagnostics on the two-wire process control loop based upon a determined loop current, a further measured terminal voltage and upon the coefficients of the polynomial. a process variable sensor configured to sense a process variable of a process fluid of the industrial process; output circuitry configured to provide a loop current on a two-wire process control loop which is related to the sensed process variable; terminal voltage measurement circuitry of the output circuitry configured to measure a terminal voltage of the process variable transmitter, the terminal voltage comprising a voltage measured across an electrical connection of the two-wire process variable transmitter to the two-wire process control loop; a microprocessor configured to: during normal operation of the two-wire process control loop, use loop current values for loop currents set in response to the sensed process variable and measured terminal voltages in order to set coefficients of a polynomial equation which relates to loop current and to terminal voltage; perform loop diagnostics on the two-wire process control loop based upon a determined loop current, a further measured terminal voltage and upon the coefficients of the polynomial. use loop current values for loop currents set in response to the sensed process variable and measured terminal voltages in order to set coefficients of a polynomial equation which relates to loop current and to terminal voltage; perform loop diagnostics on the two-wire process control loop based upon a determined loop current, a further measured terminal voltage and upon the coefficients of the polynomial.
Baking plate for baking ovens for producing baked products such as soft waffles, crispy wafers, pancakes and the like, wherein the baking plate (9, 10) comprises a carrier plate (11, 12) and one or more baking inserts disposed thereon, which are inserted in insertion recesses of the carrier plate and which are configured for receiving the dough to be baked, wherein the carrier plate (11, 12) is part of a baking tong which comprises a lower and an upper baking plate (9, 10), and wherein the carrier plate (11, 12) with the baking tong is movable through an input station, the heated baking chamber and an output station, characterized in that the baking inserts are formed from sintered ceramic in the form of silicon nitride or silicon carbide having high toughness, preferably 8 MPa/m 2 and low thermal expansion, preferably 9 × 10 -3 K -1 for a temperature range of 20 to 200°C, and the carrier plate (11, 12) is formed from a material, preferably metal, particularly preferably grey cast iron, whose thermal expansion is equal to or greater than the thermal expansion of the baking inserts, that the insertion recesses in the carrier plate (11, 12) for receiving the baking inserts are formed with small play so that the baking inserts can be inserted with a precise fit and can be removed again, and that each insertion recess has a ventilation hole.
An assembly, comprising: a turbine engine component; a fluid delivery system arranged in a fluid flowpath extending through a stationary structure of a turbine engine delivering a liquid fluid to the turbine engine component, the fluid delivery system comprising: a fluid conduit fluidly coupled with the turbine engine component, wherein the liquid fluid is directed to the turbine engine component through the fluid conduit; and a shroud circumscribing and shielding the fluid conduit, wherein a first portion of the shroud is connected laterally to and formed integral with a first portion of the fluid conduit, characterized in that the shroud has a generally tubular sidewall that forms a channel; the fluid conduit divides the channel into a plurality of sub-channels (62, 64) that extend longitudinally within the shroud; and the sidewall and air within the sub-channels (62, 64) insulate the fluid conduit. a turbine engine component; a fluid delivery system arranged in a fluid flowpath extending through a stationary structure of a turbine engine delivering a liquid fluid to the turbine engine component, the fluid delivery system comprising: a fluid conduit fluidly coupled with the turbine engine component, wherein the liquid fluid is directed to the turbine engine component through the fluid conduit; and a shroud circumscribing and shielding the fluid conduit, wherein a first portion of the shroud is connected laterally to and formed integral with a first portion of the fluid conduit, characterized in that the shroud has a generally tubular sidewall that forms a channel; the fluid conduit divides the channel into a plurality of sub-channels (62, 64) that extend longitudinally within the shroud; and the sidewall and air within the sub-channels (62, 64) insulate the fluid conduit. a fluid conduit fluidly coupled with the turbine engine component, wherein the liquid fluid is directed to the turbine engine component through the fluid conduit; and a shroud circumscribing and shielding the fluid conduit, wherein a first portion of the shroud is connected laterally to and formed integral with a first portion of the fluid conduit, characterized in that the shroud has a generally tubular sidewall that forms a channel; the fluid conduit divides the channel into a plurality of sub-channels (62, 64) that extend longitudinally within the shroud; and the sidewall and air within the sub-channels (62, 64) insulate the fluid conduit.
Table with a tabletop and with a frame comprising at least four legs, at least four upper crosspieces connecting contiguous legs, each of them having a first hole at an intermediate point and a second hole at the ends thereof, a fixing system for fixing same, also formed by at least one central crosspiece, having a third hole at the point of connection with the upper crosspieces, wherein said frame also comprises a connecting device for connecting crosspieces, said connecting device comprising: - a fixing bolt element for fixing each upper crosspiece and the at least one corresponding central crosspiece, the resulting fixing points located in the first hole of each upper crosspiece being a pivot point the axis of which coincides with the fixing bolt element; - where this fixing bolt element is a longitudinal element with a first end (4.1) and a second end (4.2), having a first stop element abutting with the surface of the upper crosspiece at the first end (4.1) of the bolt element,, characterised in that the fixing bolt element has a second stop element between the upper crosspiece and the central crosspiece, and clamping means; and, in that the connecting device furthers comprises: - an angle bracket for connecting adjacent upper crosspieces at the point where they come together, formed by two orthogonal sides each having a longitudinal through hole; and - respective connecting elements for connecting each angle bracket with the corresponding upper crosspieces in the second hole of these, comprising a third stop element between each upper crosspiece and the angle bracket, and clamping means. - a fixing bolt element for fixing each upper crosspiece and the at least one corresponding central crosspiece, the resulting fixing points located in the first hole of each upper crosspiece being a pivot point the axis of which coincides with the fixing bolt element; - where this fixing bolt element is a longitudinal element with a first end (4.1) and a second end (4.2), having a first stop element abutting with the surface of the upper crosspiece at the first end (4.1) of the bolt element,, characterised in that the fixing bolt element has a second stop element between the upper crosspiece and the central crosspiece, and clamping means; - an angle bracket for connecting adjacent upper crosspieces at the point where they come together, formed by two orthogonal sides each having a longitudinal through hole; and - respective connecting elements for connecting each angle bracket with the corresponding upper crosspieces in the second hole of these, comprising a third stop element between each upper crosspiece and the angle bracket, and clamping means.
Vehicle seat having a backrest and a headrest which comprises a headrest body (2.1) which has at least one filling material (2.1.2), wherein the headrest body (2.1) is connected to the backrest via a retention element (2.2) and the headrest body (2.1) is automatically axially movable relative to the backrest at least in the region of a contact face between a head of a vehicle occupant and the headrest body (2.1), characterized in that a sliding medium is provided which is introduced in at least one portion between the retention element (2.2) and the filling material (2.1.2) such that the filling material (2.1.2) is automatically movable relative to the retention element (2.2) at least in the region of the contact face in a longitudinal extent of the headrest body (2.1) which extends in the vertical direction of the vehicle.
Electrostatic filter for cleaning a gas flow with an ionising unit and a separating unit, wherein during operation of the filter the gas flow flows along an inflow direction through the ionising unit, wherein for generating an electrical field, the ionising unit has an ionising element extending along a longitudinal axis and a counter electrode, in order to ionise particles present in the gas flow, wherein the longitudinal axis of the ionising element stands substantially orthogonally to the inflow direction, wherein the counter electrode has at least one electrode plate which extends substantially parallel to the inflow direction of the gas flow, wherein a voltage can be applied between the ionising element and the at least one electrode plate, such that an electrical field results, characterised in that the electrode plate, viewed in inflow direction has a front edge and a rear edge which are positioned in front of the ionising element viewed in inflow direction, wherein the separating unit has at least one deposition plate and at least one intermediate plate which extends substantially parallel to the deposition plate, wherein when a voltage is applied between the deposition plate and the intermediate plate an electrical field is generated between the deposition plate and the intermediate plate, wherein the deposition plate, viewed in inflow direction, has a front edge, the distance of which to the ionising element is equal to the spacing of the rear edge of the electrode plate of the counter electrode to the ionising element, wherein the rear edge of the electrode plate runs parallel to the longitudinal axis of the ionising element, and wherein the longitudinal axis of the ionising element, the electrode plate of the counter electrode and the deposition plate of the separating unit run parallel to one another.
An analysis system (100, 200, 300) for analyzing a biological sample comprising: - at least one analyzer (102, 102', 102", 102'''), wherein the analyzer comprises an analytical unit for analyzing the biological sample to obtain an analysis result, wherein each of the at least one analyzer comprises an analyzer controller; and - an analyzer data management system (ADMS) operable for receiving a selection of a selected operating environment chosen from at least two operating environments (112, 120, 252, 254, 256), wherein the ADMS is operable for switching the analysis system to the selected operating environment upon receiving the selection, wherein each of the at least two operating environments provides an AC operating system (114, 122, 258, 260, 262) operable for implementing an analyzer control system (116, 124, 264, 266, 268) and an ADMS operating system (132, 142, 220, 222, 224) operable for implementing a laboratory data management system (LDMS) (134, 144, 226, 228, 230), wherein the ACS is operable for controlling the analytical unit to obtain the analysis result, wherein the ACS is operable to provide the analysis result to the LDMS, wherein the at least one analyzer further comprises one or more embedded system operable for receiving commands from the ACS, wherein the ACS is operable for sending commands to the embedded system to control the analytical unit to obtain the analysis result, wherein the at least one embedded system comprises firmware (270, 272, 274), and wherein the ACS is operable for changing the firmware when switching to the selected operating environment. - at least one analyzer (102, 102', 102", 102'''), wherein the analyzer comprises an analytical unit for analyzing the biological sample to obtain an analysis result, wherein each of the at least one analyzer comprises an analyzer controller; and - an analyzer data management system (ADMS) operable for receiving a selection of a selected operating environment chosen from at least two operating environments (112, 120, 252, 254, 256), wherein the ADMS is operable for switching the analysis system to the selected operating environment upon receiving the selection, wherein each of the at least two operating environments provides an AC operating system (114, 122, 258, 260, 262) operable for implementing an analyzer control system (116, 124, 264, 266, 268) and an ADMS operating system (132, 142, 220, 222, 224) operable for implementing a laboratory data management system (LDMS) (134, 144, 226, 228, 230), wherein the ACS is operable for controlling the analytical unit to obtain the analysis result, wherein the ACS is operable to provide the analysis result to the LDMS, wherein the at least one analyzer further comprises one or more embedded system operable for receiving commands from the ACS, wherein the ACS is operable for sending commands to the embedded system to control the analytical unit to obtain the analysis result, wherein the at least one embedded system comprises firmware (270, 272, 274), and wherein the ACS is operable for changing the firmware when switching to the selected operating environment.
A control method implemented in a power converter which comprises an output connected to two permanent-magnet synchronous electric motors (Mot1, Mot2) in parallel, said power converter being controlled in order to apply a supply voltage to its output, each permanent-magnet synchronous electric motor comprising a stator and a rotor (R1, R2), characterized in that it comprises: - a step of applying a high-frequency voltage signal, without generating torque, that is to say without causing displacement of their rotor, to the permanent-magnet synchronous electric motors (Mot1, Mot2), along at least one axis in a fixed reference frame (a, b), leading to oscillations of the current at the output of the power converter, - a step of measuring the current oscillations obtained at the output of the power converter, - a determination step for determining the angle (θ 1) of the rotor of the first permanent-magnet synchronous electric motor and the angle (θ 2) of the rotor of the second permanent-magnet synchronous electric motor on the basis of the oscillations of the measured current. - a step of applying a high-frequency voltage signal, without generating torque, that is to say without causing displacement of their rotor, to the permanent-magnet synchronous electric motors (Mot1, Mot2), along at least one axis in a fixed reference frame (a, b), leading to oscillations of the current at the output of the power converter, - a step of measuring the current oscillations obtained at the output of the power converter, - a determination step for determining the angle (θ 1) of the rotor of the first permanent-magnet synchronous electric motor and the angle (θ 2) of the rotor of the second permanent-magnet synchronous electric motor on the basis of the oscillations of the measured current.
A heat exchanger, particularly an evaporator (1'; 101; 201), particularly for a motor vehicle air-conditioning system which is used for cooling air to be conditioned for the passenger compartment of a motor vehicle, comprising a plurality of mutually adjacent refrigerant-conducting tubes, and at least one cold storage device (4; 104; 204) in which a cold storage medium is provided, wherein at least one cold storage element (5; 105; 201) encompasses at least three sides of a refrigerant-conducting tube of the evaporator (1'; 101), which tube is arranged in the flow of air to be conditioned, and characterised in that the tube that conducts the refrigerant and/or contains cold storage medium is a double-walled flat tube, wherein the refrigerant is located in the central region and the cold storage medium is located in the outer region or the tube that conducts refrigerant and contains cold storage medium is formed by two separately formed tubes that are inserted one inside the other, wherein the cold storage device does not fully encompass one or more refrigerant-conducting tubes and the tube that contains cold storage medium is formed by a tube having a U-shaped cross-section.
A method for enhancing decentralized coordinated Volt/Var control (CVVC), said method comprising: a memory device configured to store a plurality of actual measurements relating to an electric distribution system, the electric distribution system includes at least one feeder that includes a plurality of capacitive devices; and determining an actual power factor for the at least one feeder relating to the electrical distribution system, the feeder including a plurality of capacitive devices (C1-C5); determining if the actual power factor for the at least one feeder is within predetermined feeder power factor parameters; characterized by determining a priority of each capacitive device (C1-C5), which are available for switching, from the plurality of capacitive devices as a function of a voltage flattening effect on the feeder; determining a range between predetermined feeder reactive power parameters; determining a range of differential reactive power values between actual reactive power on the at least one feeder and a target value for reactive power on the at least one feeder; determining a differential reactive power value for each available capacitive device (C1-C5); and commanding at least one available capacitive device (C1-C5) to undergo a switching routine. a memory device configured to store a plurality of actual measurements relating to an electric distribution system, the electric distribution system includes at least one feeder that includes a plurality of capacitive devices; and determining an actual power factor for the at least one feeder relating to the electrical distribution system, the feeder including a plurality of capacitive devices (C1-C5); determining if the actual power factor for the at least one feeder is within predetermined feeder power factor parameters; characterized by determining a priority of each capacitive device (C1-C5), which are available for switching, from the plurality of capacitive devices as a function of a voltage flattening effect on the feeder; determining a range between predetermined feeder reactive power parameters; determining a range of differential reactive power values between actual reactive power on the at least one feeder and a target value for reactive power on the at least one feeder; determining a differential reactive power value for each available capacitive device (C1-C5); and commanding at least one available capacitive device (C1-C5) to undergo a switching routine.
A computer-implemented method comprising the acts: receiving artwork data defining a host image (178, 251); receiving a plural-symbol payload; transforming the plural-symbol payload into one or more watermark vector graphics layers comprising vector graphics drawing instructions; and storing the artwork data as an artwork layer, together with said watermark vector graphics layers, in a vector graphics file; wherein: said file defines artwork with a watermark pattern; the drawing instructions define first and second groups of vector primitives; the vector primitives of the first group (171, 251) serve to shift the host image local luminance or chrominance in one direction; the vector primitives of the second group (175, 260) serve to shift the host image local luminance or chrominance in the opposite direction; and the first and second vector primitives are overlaid over elements of the host image (178, 251), at locations corresponding to negative and positive extrema ranges, respectively, in the watermark pattern. receiving artwork data defining a host image (178, 251); receiving a plural-symbol payload; transforming the plural-symbol payload into one or more watermark vector graphics layers comprising vector graphics drawing instructions; and storing the artwork data as an artwork layer, together with said watermark vector graphics layers, in a vector graphics file; wherein: said file defines artwork with a watermark pattern; the drawing instructions define first and second groups of vector primitives; the vector primitives of the first group (171, 251) serve to shift the host image local luminance or chrominance in one direction; the vector primitives of the second group (175, 260) serve to shift the host image local luminance or chrominance in the opposite direction; and the first and second vector primitives are overlaid over elements of the host image (178, 251), at locations corresponding to negative and positive extrema ranges, respectively, in the watermark pattern. said file defines artwork with a watermark pattern; the drawing instructions define first and second groups of vector primitives; the vector primitives of the first group (171, 251) serve to shift the host image local luminance or chrominance in one direction; the vector primitives of the second group (175, 260) serve to shift the host image local luminance or chrominance in the opposite direction; and the first and second vector primitives are overlaid over elements of the host image (178, 251), at locations corresponding to negative and positive extrema ranges, respectively, in the watermark pattern.
A food product composition or a composition for preparing a beverage, comprising: a guest-host inclusion complex of a host molecule that is capable of binding with fatty molecules, wherein the host molecule is α-cyclodextrin and the guest molecule is arginine; wherein the guest molecule is weakly and reversibly associated with the host molecule such that under physiological conditions the guest molecule is replaced by a fatty molecule that is then substantially irreversibly bound. a guest-host inclusion complex of a host molecule that is capable of binding with fatty molecules, wherein the host molecule is α-cyclodextrin and the guest molecule is arginine; wherein the guest molecule is weakly and reversibly associated with the host molecule such that under physiological conditions the guest molecule is replaced by a fatty molecule that is then substantially irreversibly bound.