Endress + Hauser Gmbh + Co. Kg

Endress+hauserse+co. Kg

Other

Endress+hauser Gmbh+co.

Dietmar Spanke

Alexey Malinovskiy

Edgar Schmitt

Herbert Schroth

Stefan Gorenflo

Marc Baret

Holger Steltner

Manfred Hammer

Detlev Wittmer

Robert Lalla

Thomas Uehlin

Nikolai Fink

Ulrich Kaiser

Klaus Pankratz

Martin Link

Simon Greth

Andreas Kaiser

Matthias Boldt

Yong Jin

Dimitri Mousko

Michael Heim

Sergej Lopatin

Klaus Feisst

Markus Kilian

Michael Gunzert

Joachim Albert

Stefan Maier

Peter Klofer

Roland Grozinger

Manfred Eckert

Benjamin Mack

Bert Von Stein

Dirk Boguhn

Roland M&uuml;ller

Markus Vogel

Jörg Herwig

Andreas Mayr

Andreas Gommlich

Rolf Deserno

Matthias Römer

Yoichi Kamei

Michael Sinz

Steffen Markoni

Andreas Moller

Christian Reinau

Reinhard Schaefer

Fabrice Peter

Bernhard Ottenbreit

Frank Erdmann

Hans Germann

Stefan Albers

The present disclosure relates to a method for verifying a value stream along a transport route, wherein a plurality of field devices, each having at least one sensor and/or actuator for determining and/or monitoring at least one process variable and an electronic unit, are arranged along the transport route and generate corresponding data, or for verifying the value stream of at least one product in warehouse stock, wherein a first service platform is used, via which a plurality of participant nodes each with at least one database have a communication connection to one another according to a distributed ledger or blockchain technology.

Method for verifying a value stream along a transport route or in warehouse stock by means of blockchain technology

The present disclosure relates to a method for ensuring the authenticity of a field device. The method includes a step of assigning a unique authentic identification feature to the field device or providing the field device with a unique authentic identification feature. The method also includes steps of transmitting ACTUAL identification data to a participant node which transmits the ACTUAL identification data to the other participant nodes in a transaction, validating the transaction by the participant nodes, and creating a data block containing the transaction, wherein the data block is transmitted to each of the participant nodes. The method also includes verifying the data block by all participant nodes, storing the validated data block in the databases, comparing the ACTUAL identification data with corresponding TARGET identification data or original identification data from an authentication point, and generating a response containing the result of the comparison.

Method for ensuring the authenticity of a field device

The invention relates to a method for manufacturing a sensor element or an active component of a sensor element. The sensor element is applied in a field device of automation technology. The method comprises the following method steps: predetermining at least two materials with different physical and chemical properties depending on a functionality of the sensor element or the active component of the sensor element; predetermining an outer shape, into which the at least two materials should be formed, the outer shape being divided into a plurality of virtual spatial regions, wherein in each virtual spatial region the material distribution of the at least two materials occurs homogeneously and periodically according to predetermined rules corresponding to a microstructure. The method also includes steps of ascertaining the predetermined rules via a computer supported method depending on the predetermined functionality of the sensor element or the active component of the sensor element.

Method for manufacturing a sensor element or an active component of a sensor element

A method for the functional diagnosis of an electromechanical fill state measuring device in which a displacement element on a measuring wire is lowered into a filling material in a container such that in an equilibrium state, the weight of the displacement element minus a displacement element buoyancy, which depends upon at least one equilibrium volume, is determined to be equal to a resulting weight of the displacement element. The resulting weight is specified, and the specified resulting weight is kept constant by correspondingly changing the length of the measuring wire in the equilibrium state. The fill state of the filling material is ascertained using the length of the lowered measuring wire. In order to diagnose a function, the specified value of the equilibrium volume of the displacement element is changed, and the resulting change in the length of the measuring wire is ascertained on the basis of the constant equilibrium state of the resulting weight.

Functional diagnosis of an electromechanical fill state measuring device

A method for measuring fill level and a measuring device for performing the method, wherein, in measuring cycles following one after the other, signal pulses of predetermined frequency sent by means of a transmitting and receiving system with a predetermined repetition frequency into a container, and their signal components reflected back in the container in the direction of the transmitting and receiving system after a travel time dependent on their traveled path, are received as received signal. A fill level is measured taking into consideration a phase relationship between the transmitted and received signals related physically with the fill level to be measured. In each measuring cycle, based on the received signal, an auxiliary signal is derived reflecting amplitude and phase information in the received signal as a function of travel time, based on the auxiliary signal, a travel time of a signal fraction reflected on a surface of the substance is determined as fundamental travel time are determined, based on the travel times of the zero crossings of the auxiliary signals determined in the current and in a plurality of preceding measuring cycles, a phase appearance-frequency distribution is derived as a function of travel time, which gives appearance-frequencies, with which zero crossings were present on the respective travel times in the associated auxiliary signals, a travel time of a maximum of the frequency distribution lying nearest the fundamental travel time is determined as fill level travel time, and the fill level is determined based on the fill level travel time.

Method and measuring device for fill level measurement

The present disclosure relates to a method for manufacturing a component of a field device for determining or monitoring a process variable of a medium in a container, wherein the component is created via a 3D printing method, wherein during the creation the component is supplied at an intermediate state of the component with an exciter signal, wherein a response signal of the component to the exciter signal is registered, wherein shape and/or structure of the component are/is modified via the 3D printing method, when the current response signal does not agree with a predetermined response signal, and wherein the two previous method steps are alternately repeated, until the current response signal agrees with the predetermined response signal within predetermined tolerance limits.

Method for manufacturing a component of a field device

An automation field device having a housing and a modular field device electronics unit located inside the housing. The electronics unit has a first circuit board having at least one first and one second plug-in connector element, wherein the first plug-in connector element is used to electrically connect a peripheral unit, wherein both the first and the second plug-in connector elements can be contacted essentially from the same preferred plug-in direction, and a second circuit board having at least one third plug-in connector element, wherein the circuit boards are arranged such that the second plug-in connector element is connected to the third plug-in connector element in a detachable manner to electrically connect the peripheral unit to the second circuit board, and the second circuit board has at least one opening, via which the first plug-in connector element of the first circuit board is accessible for connecting the peripheral unit.

Automation field device

An electronic device including electronics arranged in an electronics compartment and having electronic and/or electromechanical components. The device automatically detects and/or monitors wear of its electronic and/or electromechanical components and includes an apparatus for detecting and/or monitoring wear of the electronic and/or electromechanical components. Included is at least one element arranged in the electronics compartment. This element is independent of the electronics and has at least one physical property, which changes irreversibly as a function of wear of the element. The apparatus further includes a circuit for measuring the physical property, and an evaluating unit, which, based on the measured physical property, detects and/or monitors wear of the element and makes available a wear-dependent output signal.

Process measuring device for a measuring and control technology

A measuring device of process automation technology for measuring at least one process variable of a medium. A control unit is provided, which measures the process variable at least with a predeterminable clock rate and provides the result of such measurement as a measured value. Associated with the clock rate is an energy requirement of the measuring device, wherein a display/service unit is provided, which shows the measured value and/or enables servicing of, respectively parameter input to, the measuring device. The display/service unit of the control unit of the measuring device switches from a measuring mode into a service mode, wherein in the service mode the control unit measures the process variable with a first clock rate, wherein in the measuring mode the control unit measures with a second clock rate, and wherein the first clock rate and the second clock rate are fixed in such a manner that the second clock rate is greater than the first clock rate and the total energy requirements of the measuring device in the service mode and in the measuring mode are equal.

Measuring device of process automation technology

A method for manufacture of at least one component of a field device for determining or monitoring a process variable, wherein the field device is applied in automation technology and is manufactured from at least one material. The method comprises method steps as follows: specifying at least one structure related and/or material related boundary condition of the component and/or a boundary condition relevant for the functionality of the component and/or at least one external boundary condition, which takes into consideration the influence of environmental conditions on the component at the location of use; optimizing the structure of the component via a finite element model taking into consideration the at least one structure related and/or material related boundary condition and/or the at least one boundary condition relevant for the functionality of the component and/or the at least one environmental condition, wherein the optimized structure of the component is described by digital data; transferring the digital data, which describe the optimized structure of the component, to a 3-D printer; and printing the component in accordance with the digital data.

Method for manufacture of at least one component of a field device

A method for determining and/or monitoring fill level of a medium in a container with a measuring device, which works according to the travel time measuring method, wherein measurement signals are transmitted toward the medium and are received, wherein from the high-frequency total measurement signal, composed by superimposing the transmitted measurement signals, the reflected wanted echo signals and the disturbance echo signals, a raw echo curve or digitized envelope curve is ascertained. The wanted echo signals and/or the disturbance echo signals in the raw echo curve or the digitized envelope curve are ascertained based on an ideal echo curve, which shows the amplitude of the echo signals of an ideal reflector as a function of the distance from the ideal reflector, and based on the ascertained wanted echo signal the fill level is determined.

Method for determining and/or monitoring fill level of a medium in a container

A method for ascertaining and monitoring fill level of a medium in a container using a travel time measuring method, wherein transmission signals are transmitted toward the medium and reflection signals are received. The received reflection signals are registered as echo signals in an echo function dependent on travel time. Based on known measuring device- and container-specific reflection planes, possible reflection regions in the echo function are calculated by means of an evaluation algorithm. In the calculated reflection regions, the disturbance echo signals and/or the multiecho signals in the echo function are classified, wherein non-classified reflection signals are ascertained and checked as wanted echo signals by means of a search algorithm, wherein, from a position and/or an amplitude of at least one wanted echo signal, fill level is determined, and wherein the measured value of fill level is output.

Method for ascertaining and monitoring fill level of a medium in a container by means of a fill-level measuring device using a travel time measuring method

A method for monitoring the functioning of a field device, wherein the field device provides a complex measurement signal, which is produced from a number of individual measurements following one another in time, comprising method steps as follows: the complex measurement signals are stored within a predetermined time window; the occurrence of a predetermined event is monitored in the field device; the stored complex measurement signals are overwritten for the case, in which the predetermined event does not occur within the predetermined time window; for the case, in which the predetermined event occurs within the predetermined time window, both a first defined number of complex measurement signals, which were ascertained in time directly before the occurrence of the event, are frozen, as well as a second defined number of complex measurement signals, which were ascertained in time directly after the occurrence of the predetermined event, are stored.

Method for monitoring the functioning of a field device

A method for ascertaining and/or evaluating the fill-state of a container filled with at least one medium, wherein high-frequency, electromagnetic, measuring signals are emitted by a fill-level measuring device and received back as wanted echos reflected at an interface of the media. The electromagnetic, measuring signals are received back as an end echo reflected at a measuring range end, wherein, from the received wanted echos and the end echo, an echo curve is formed as a function of travel-time and/or the travel-distance, wherein, by means of a search algorithm integrated in the fill-level measuring device, number, existence and/or position of individual wanted echos and of the end echo in the echo curve are/is ascertained and applied for classifying the currently present fill-state in the container relative to predetermined, stored, fill situations in the container. On the basis of the classified fill situation in the container, with a distance value of the fill-level and/or a distance value of the separating-layer are/is associated belonging travel-times and/or belonging travel-distances of the individual wanted echos and/or end echo in the echo curve.

Method for ascertaining and/or evaluating fill-state of a container containing at least one medium

An electronic device, and a method for executing a plurality of processes with the electronic device, wherein, in a resource-conserving manner, rapid response times are achievable, in that the electronic device, during operation, executes first and second processes (P, P), of which the first processes (P) are executable as approximate solutions (P-A) and as detailed calculations (P-C). The electronic device includes a processor for executing processes (P, P) and an electronic unit or a multitasking-capable operating system. The electronic unit includes a component, which recognizes whether the processor is active, and serves, while the processor is active and a simultaneous execution of at least two processes is required, for executing the first processes (P), in that it, itself, determines the approximate solution (P-A) and sets such in the place of a detailed calculation (P-C) determined with the processor.

Electronic device and method for performing multiple processes with the electronic device

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Steinen, Germany

Dietmar Spanke