Abstract: Disclosed is an apparatus for determining a process variable of a medium in a containment, comprising first and second oscillatory elements, first and second driving/receiving units, and electronics. The first driving/receiving unit is embodied to excite the first oscillatory element using a first electrical excitation signal to execute mechanical oscillations, and to receive the mechanical oscillations of the first oscillatory element and to convert such into a first electrical, received signal, wherein the second driving/receiving unit is embodied to excite the second oscillatory element by means of a second electrical excitation signal to execute mechanical oscillations, and to receive the mechanical oscillations of the second oscillatory element and to convert such into a second electrical, received signal, and wherein the electronics is embodied to determine the process variable from the first received signal and/or the second received signal.

Abstract: The present disclosure relates to a method for configuring step by step for transmission of data from a field device to at least one target system, comprising the steps of: creating a configuration comprising at least one subconfiguration for the field device and a subconfiguration for the target system; transmitting the configuration from the field device to the target system; and transmitting the data from the field device to the target system, wherein the data are forwarded, processed, stored or discarded based on the subconfiguration of the field device in the field device, and wherein the data are processed or stored in the target system based on the subconfiguration of the target system.

Abstract: An electronic device comprises a housing with a housing wall; a rotary-push actuator comprising a transmitter element arranged on a first side of the housing wall, a rotary actuator, which is rotatable around an axis of rotation, especially its longitudinal axis, wherein the rotary actuator is arranged on the first side of the housing wall, wherein the rotary actuator comprises at least one first magnetic element, which is arranged away from the axis of rotation; and an evaluation device, which is arranged on a second side of the housing wall, wherein the evaluation device is configured in such a manner that it detects an axial movement of the transmission element and/or a rotational movement of the rotary actuator relative to the evaluation device.

Abstract: The present disclosure discloses an electronic device comprising a housing with a housing wall; a rotary-push actuator comprising a transmitter element arranged on a first side of the housing wall, a rotary actuator, which is rotatable around an axis of rotation, especially its longitudinal axis, wherein the rotary actuator is arranged on the first side of the housing wall, wherein the rotary actuator comprises at least one first magnetic element, which is arranged away from the axis of rotation; and an evaluation device, which is arranged on a second side of the housing wall, wherein the evaluation device is configured in such a manner that it detects an axial movement of the transmission element and/or a rotational movement of the rotary actuator relative to the evaluation device.

Abstract: The present disclosure relates to a method for configuring step by step for transmission of data from a field device to at least one target system, comprising the steps of: creating a configuration comprising at least one subconfiguration for the field device and a subconfiguration for the target system; transmitting the configuration from the field device to the target system; and transmitting the data from the field device to the target system, wherein the data are forwarded, processed, stored or discarded based on the subconfiguration of the field device in the field device, and wherein the data are processed or stored in the target system based on the subconfiguration of the target system.

Abstract: Disclosed is an apparatus for determining a process variable of a medium in a containment, comprising first and second oscillatory elements, first and second driving/receiving units, and electronics. The first driving/receiving unit is embodied to excite the first oscillatory element using a first electrical excitation signal to execute mechanical oscillations, and to receive the mechanical oscillations of the first oscillatory element and to convert such into a first electrical, received signal, wherein the second driving/receiving unit is embodied to excite the second oscillatory element by means of a second electrical excitation signal to execute mechanical oscillations, and to receive the mechanical oscillations of the second oscillatory element and to convert such into a second electrical, received signal, and wherein the electronics is embodied to determine the process variable from the first received signal and/or the second received signal.