Abstract: A process monitoring device includes: a measuring tube module having at least one measuring tube through which a medium can flow; a receptacle module having a receptacle, wherein the measuring tube module can be inserted into the receptacle, wherein the measuring tube module can be mechanically separably connected to the receptacle module; and an installation for biotechnological applications, wherein the installation includes a cabinet, wherein the cabinet has a cabinet wall, which delimits a cabinet interior, wherein the cabinet wall has a cover, wherein the cover includes an opening, wherein the receptacle module, in particular the receptacle, extends through the opening into the cabinet interior.

Abstract: Certain aspects of the present disclosure provide techniques for uplink grant mutability. An example method for wireless communications includes obtaining an indication of a mutability associated with a first uplink resource allocation having one or more first transmission occasions; and transmitting first signaling in the one or more first transmission occasions based on the first uplink resource allocation and the indication of the mutability associated with the first uplink resource allocation.

Abstract: A process monitoring device includes: a measuring tube arrangement including a measuring tube; a receptacle module including a receptacle, wherein the measuring tube module is insertable into the receptacle and releasably mechanically connectable to the receptacle module; and a system for biotechnological applications, wherein the system includes a housing with a wall delimiting an interior, the wall having a cover with an opening, wherein the receptacle extends through the opening into the interior in a receiving direction, wherein the receptacle module is arranged in the opening that the receiving direction has a vector component opposite to the direction of gravity, such that a dead volume in the measuring tube and/or in a distributor piece which is attached to the measuring tube, when the measuring tube module is empty, is less than 20%.

Abstract: A measuring transducer includes a tube assembly including two pair of structurally identical tubes, each connected at their respective ends to each of two flow dividers, thereby forming four parallel flow paths, and each including alternating, adjoining straight and arcuate segments, wherein each of the first and third arcuate segments has a segment length corresponding to an extended length of a virtual center line of the segment, an arc radius corresponding to a radius of the virtual center line and a center point angle corresponding to a ratio between the segment length and the arc radius, such that each of the first arcuate segments are identical in both shape and size, and such that each of the third arcuate segments are identical in both shape and size, wherein the measuring transducer further includes an exciter assembly and a sensor assembly, each connected to the tube assembly.

Abstract: A measuring transducer includes: a transducer module including a housing and a coil within and connected with the housing; and, set in the transducer module, a transducer module including a tube and a magnet secured on a middle segment of the tube. The tube wall is so formed that a directrix of a channel surface of the middle segment extends outside a first reference plane of the measuring transducer defined by first and fourth reference axes, and the magnet is secured on the middle segment such that a second reference plane of the measuring transducer defined by second and fourth reference axes is parallel to a third reference plane defined by third and fifth reference axes or that the second and third reference planes intersect one another to form an angle of intersection of no more than 1°.

Abstract: A process monitoring device includes: a measuring tube module having at least one measuring tube through which a medium can flow; a receptacle module having a receptacle, wherein the measuring tube module can be inserted into the receptacle, wherein the measuring tube module can be mechanically separably connected to the receptacle module; and a system for biotechnological applications, wherein the system has a housing, wherein the housing has a housing wall, which delimits a housing interior, wherein the housing wall has a cover, wherein the cover has an opening, wherein the receptacle module, in particular the receptacle, extends through the opening into the housing interior.

Abstract: A modular measuring device for determining a density of a measurement medium includes a support module, a first measuring tube module and at least one further measuring tube module, wherein the support module has a receptacle for detachably fastening the measuring tube modules, a contactless temperature sensor, a primary exciter component along with a primary sensor component, wherein each measuring tube module has a restraint complementary to the receptacle of the support module, a vibrating tube, a secondary exciter component complementary to the primary exciter component, and a secondary sensor component complementary to the primary sensor component, wherein each vibrating tube of the measuring tube modules has a different tube diameter, a straight first tube leg, a straight second tube leg, a curved first tube bend and a curved second tube bend.

Abstract: The present disclosure relates to a modular measuring device including: a measuring tube module, wherein the measuring tube module includes a fixing body arrangement; an oscillation exciter; at least one oscillation sensor; and a support module including a seat, wherein the measuring tube module is arrangeable in the seat of the support module, wherein the support module includes a fixing apparatus, wherein the fixing apparatus includes an at least sectionally eccentrically embodied shaft, wherein the fixing apparatus, especially the shaft, is adapted to clamp the measuring tube module via the fixing body arrangement in the seat and to connect the measuring tube module mechanically releasably with the support module.

Abstract: A modular Coriolis flowmeter for determining a process variable of a flowable medium includes: a measuring tube module having a measuring tube for guiding the medium; and a support module having a recess in which the measuring tube module can be arranged with a detachable connection, an electronics chamber in which electronics components for operating the flowmeter are arranged, a support module wall bordering the electronics chamber and the recess and having a through-opening connecting the recess to the electronics chamber, and a contactless temperature sensor arranged in the electronics chamber and orientated such that, when the measuring tube module is arranged in the support module, the temperature sensor is directed towards a measuring tube module surface and receives light emitted from the measuring tube module surface through the opening.

Abstract: A modular Coriolis flowmeter for determining a process variable of a flowable medium includes: a measuring tube module having at least one measuring tube a connector element for detachably connecting the measuring tube module to a process line, and a connecting element for connecting the at least one measuring tube to the connector element; and a support module with a receptacle for detachably securing the measuring tube module in the support module, wherein the connecting element has a connecting element contact section which has a deflection of less than 1% relative to a maximum deflection of the at least one measuring tube, and wherein the connector element and the connecting element are configured such that a mechanical contact between the connector element and the connecting element occurs, in particular exclusively, within the connecting element contact section.

Abstract: A smart adjustable bed system combines an adjustable bed, a smart hub, a server, and smart devices to provide a system for controlling the raising and lowering of the adjustable bed. The smart hub acts as a gateway interconnecting the smart adjustable bed and a remote server capable of powerful voice recognition and artificial intelligence at a shared price. The system includes methods of using the system to allow an additional smart device such as a tablet computer to act as a remote control for the smart adjustable bed. The system further enables voice controls to be used to raise and lower the adjustable bed. Lastly, the voice recognition of the smart hub can be used to detect snoring and to send a signal to the adjustable bed to raise the bed to a position until the user reaches a position where snoring stops.

Abstract: A method for the contactless determination of a condensate formation on a measuring tube surface of an, in particular metallic, measuring tube by means of an optical temperature sensor for the contactless detection of a temperature of the measuring tube of a modular Coriolis flowmeter includes identifying a condensate on the measuring tube surface when an output signal and/or a temporal change of the output signal of the optical temperature sensor is outside a tolerance range.

Abstract: A modular Coriolis flowmeter includes: a measuring tube module, including a measuring tube for guiding the medium, an excitation magnet on a vibration exciter for exciting the measuring tube, and a sensor magnet on a vibration sensor for detecting a vibration of the measuring tube; a receiving module including a receptacle for receiving the measuring tube module, an excitation coil on the vibration exciter, a sensor coil on the vibration sensor, and a receiving module body, including a ferromagnetic material and an opening, wherein a coil holder for the excitation coil and/or sensor coil is disposed in the opening, the coil holder including a coil holder body including an electrically insulating material.

Abstract: A smart adjustable bed system combines an adjustable bed, a smart hub, a server, and smart devices to provide a system for controlling the raising and lowering of the adjustable bed. The smart hub acts as a gateway interconnecting the smart adjustable bed and a remote server capable of powerful voice recognition and artificial intelligence at a shared price. The system includes methods of using the system to allow an additional smart device such as a tablet computer to act as a remote control for the smart adjustable bed. The system further enables voice controls to be used to raise and lower the adjustable bed. Lastly, the voice recognition of the smart hub can be used to detect snoring and to send a signal to the adjustable bed to raise the bed to a position until the user reaches a position where snoring stops.

Abstract: A smart adjustable bed system combines an adjustable bed, a smart hub, a server, and smart devices to provide a system for controlling the raising and lowering of the adjustable bed. The smart hub acts as a gateway interconnecting the smart adjustable bed and a remote server capable of powerful voice recognition and artificial intelligence at a shared price. The system includes methods of using the system to allow an additional smart device such as a tablet computer to act as a remote control for the smart adjustable bed. The system further enables voice controls to be used to raise and lower the adjustable bed. Lastly, the voice recognition of the smart hub can be used to detect snoring and to send a signal to the adjustable bed to raise the bed to a position until the user reaches a position where snoring stops.

Abstract: A fluid line system includes a fitting having a lumen extending from first and second flow openings to a third flow opening located in a remote fitting end; first and second fluid lines, each having a lumen; and a flow-conditioner element inserted into the lumen of the fitting and non-detachably connected thereto and has first and second flow channels connected fluidically in parallel. Each of the two flow channels of the flow-conditioner element extends from a first flow opening located in a region of its element end to a second flow opening located in a region of its opposite element end, and the flow-conditioner element is positioned and oriented in the fitting such that a first flow path includes both the first flow channel and the first fluid line, and a second flow path includes both the second flow channel and the second fluid line.

Abstract: The present disclosure relates to a Coriolis measuring transmitter of a Coriolis measuring device for measuring a mass flow or a density of a medium flowing through a pipe, which includes: at least one pair of measuring tubes arranged to oscillate relative to each other, wherein each measuring tube includes a centrally arranged bend, at least one driver and at least two vibration sensors; two guiding devices, each including a fluid chamber with a first opening for connection with the pipe and second openings for each measuring tube for connection with the measuring tubes, wherein the guiding devices are each formed from multiple parts, for example, formed from two parts, wherein a first part forms a pipe connecting part, and wherein at least one second part forms a measuring tube connecting part.

Abstract: A connection unit for at least one vibration-tube module of a modular measuring device for determining the density of a measurement medium includes: a measurement-medium inlet, which extends along a first axis; a measurement-medium outlet, which extends along a second axis; at least a first vibration-tube inlet, which is fluidically connected to the measurement-medium inlet; and at least a first vibration-tube outlet, which is fluidically connected to the measurement-medium outlet, wherein the measurement-medium inlet and the measurement-medium outlet are opposite each other such that they are separated with respect to a first plane and are mechanically connected to each other by at least one support unit, and wherein the first axis and the second axis each form an angle of greater than 45° to the first plane.

Abstract: A vibronic sensor for measuring mass flow rate, includes a measurement pipe, an excitation magnet and a sensor magnet, an excitation coil and a sensor coils, each having an elongated basic shape. The basic shape has a center of gravity through which a largest diameter having a length d1 and a smallest diameter having a length d2 extend, wherein the excitation coil or the sensor coil has a first coil axis and a second coil axis in a cross-sectional plane. The largest diameter d is in the first coil axis, wherein the smallest diameter d2 is in the second coil axis. For a quotient d1/d2, the following applies: 1.15?d1/d2, where, when the measurement pipe vibrates in an in-plane mode, a deflection direction of the measurement pipe is oriented in parallel with the first coil axis in a region of the excitation magnet or the sensor magnet.

Abstract: A flow divider comprises a lumen having perpendicular, symmetry planes intersecting in an axis of inertia connecting the ends.