Blue Ocean Nova Ag

Endress+hauser Conducta Gmbh+co. Kg

Other

J&m Analytik Ag

Endress+hauser Conducta Gesellschaft Fuer Mess- Und Regeltechnik Mbh+co. Kg

Hochschule Reutlingen

Gea Niro Gmbh

Gea Process Engineering (nps) Ltd

Glatt Systemtechnik Gmbh

Gea Pharma Systems Ag

Joachim Mannhardt

Trevor Gordon Page

Martin Koch

Hans Meyer

Guenter Lorenz

Hongshuo Domnick

Gerd Sulz

Karsten Rebner

Michael Wiederkehr

Christian Cramer

Armin Lambrecht

Judith Falk

Monika Heisterkamp

Edwin Ostertag

Tim Baeuerle

Moritz Klein

Trevor Page

The present disclosure relates to an in-line compact measuring device, for example for optical measurements, comprising a housing having a process connection intended to be connected to a process vessel connection complementary to the process connection; at least one sensor assembly arranged in the housing; and a measuring circuit that is connected to the sensor assembly and is arranged in the housing. The in-line compact measuring device has at least one fluid line in thermally conductive contact with at least one housing wall of the housing, which fluid line can be connected to a cooling fluid supply arranged outside the housing.

In-line compact measuring device

An optical process sensor for measuring at least one measured variable of a medium in a container includes: a housing; a light source in the housing for emitting transmission light; a light detector in the housing for receiving reception light; and an interface including a first mechanical section, which is an integrated part of the housing, and a first optical section having a first path and a first light guide, wherein the first light guide is configured such that transmission light is guided from the light source into the first path via the first light guide and decouples transmission light from the housing, and having a second path and a second light guide, wherein the second light guide is configured such that reception light is coupled into the interior of the housing and guided from the second path to the light detector via the second light guide.

Optical process sensor, measuring head, measuring system comprising the two and method for calibration and/or validation

A device for analysing a product to be analysed which is located in a product space having a probe body arranged in a probe housing and having a peripheral wall, and at least one radiation source and at least one optical receiver. At least one measurement window in the probe body has an entry region and an exit region for measurement radiation. An evaluation unit is also provided. The probe body can be brought into a measurement position, in which at least one part of the probe body in which the measurement window is located penetrates through an opening of the probe housing into the product space for the analysis. In addition, the probe body can be brought into a retracted position, in which the probe body is still located at least partially in the region of the opening of the probe housing and thus covers the opening.

Device for analyzing a product to be analyzed located in a product space

The invention relates to a device () for the automated analysis of solids or fluids. Said device comprises a first station () having a metering unit () for the filling of at least one sample chamber () with a specified sample quantity, a second station () having at least one measurement device () for an analysis of the sample situated in a sample chamber () and a third station () having an emptying device and cleaning device () for the at least one sample chamber (). Moreover, there is provided a transport device () for a revolving transport of the at least one sample chamber () from one station to the next until the first station () is reached again. According to the invention, the measurement device () of the second station () is a spherical measurement system, through the interior of which it is possible to guide the at least one sample chamber ().

Device for the automated analysis of solids or fluids

A sensor system and a method for optical analysis of bulk material, having a sample space for receiving the bulk material that is to be examined, wherein a measurement section extending in the bulk material is realized in the sample space. In this case, means for changing the length of the measurement section are present. A harvester equipped, a laboratory or mobile system equipped with the system is also provided.

Sensor system and method for the process-integrated optical analysis of bulk cargo

The present disclosure relates to a system for process-integrated optical analysis of flowable media, comprising a processing system for processing a flowable medium and an analytical system for analysis of the flowable medium, wherein the analytical system includes an optical measuring head, for irradiation of the medium and for receiving measuring radiation, and a reference unit. The processing system includes a measuring region, into which the medium can be introduced during the processing and which is accessible for measurement by means of the measuring head. According to the invention, a mechanism for achieving defined positions of the measuring head relative to the measuring region and/or relative to a reference unit is included, which selectively enables a measurement of the medium located in the measuring region or of the reference unit.

System for the process-integrated optical analysis of flowable media

The present disclosure relates to a measuring apparatus for analyzing a measuring medium. The measuring apparatus includes a probe housing, a radiation source, and coupling and decoupling optics. The optics have a measurement window in the probe housing to direct radiation of the radiation source into a measuring region outside the probe housing and including the measuring medium, and to block measuring radiation from the measuring region. Via the optics, a receiving device detects measuring radiation and generates output data. An additional physical or chemical sensor is integrated into the probe housing and is designed to detect a measurand of the measuring medium and output measurement signals. An electronic measurement unit is configured to collect and process the output data of the receiving device and the measurement signals of the additional physical or chemical sensor.

Measuring apparatus for analyzing a measuring medium

An apparatus and method for analyzing a flow of material having an inlet region, a measurement range and an outlet region, and having a first diverter and a second diverter, and a deflection area, wherein in a first state of operation, the two diverters form a continuous first material flow space from the inlet region via the first diverter through the measurement range, via the second diverter to the outlet region, and in a second state of operation, form a continuous second material flow space from the inlet region via the first diverter through the deflection area, via the second diverter to the outlet region.

Apparatus and method for analyzing a flow of material

An apparatus for optical measurement of substance concentrations has at least one transmitter arranged in or on a housing and at least one receiver for optical radiation, and a deflection device, which is at a distance from the at least one transmitter and the at least one receiver and is arranged within the substance when the apparatus is being used correctly, for deflection of the optical radiation from the at least one transmitter to the at least one receiver. The distance between the deflection device and the at least one transmitter and/or the at least one receiver can be varied by means of an adjusting device.

Apparatus for optical measurement of substance concentrations

An apparatus for the electromagnetic spectrum or optical analysis of a material. The apparatus comprising a measuring probe having a housing with at least one radiation or light measuring element, a measuring window and with at least one detection element for the analysis. The measuring probe is formed and guided displaceably in the axial direction in such a way that at least part of the housing in which the measuring window is located enters through an opening in which the material to be analyzed is located for the analysis. The at least one measuring window is arranged in at least one subregion of the circumferential wall of the housing. A sealing cap is located between a front end face of the housing and the measuring window arranged in the circumferential wall and consequently covers the opening in a retracted position of the measuring probe.

Apparatus for the electromagnetic spectrum or optical analysis, in particular photometric, spectrophotometric or image analysis

An apparatus for analyzing a product to be analyzed which is located in a receptacle provided with a coupling element, in particular for photometric or spectrophotometric analysis of powder, bulk material, granular material and similar, is provided with a docking element for sealing connection to the coupling element, and with a measuring probe which is arranged in a probe housing and is provided with at least one radiation and light measuring element, at least one measuring window, which is arranged in the beam path and is arranged in a wall of the probe housing, and with at least one detection element for the analysis. The probe housing with the measuring probe is designed and guided displaceably in such a way that at least a part of the probe housing in which the measuring window is located can be inserted into the receptacle for the analysis.

Apparatus and method for environmentally isolated analysis

The invention relates to a capillary tube holder with a recess for holding a capillary tube. At least one pair of light channels is provided perpendicular to the axial direction of the recess. Each pair of light channels has an incoming light channel to supply light beams to the capillary tube and an outgoing light channel to transmit said light beams to an evaluation device. The light channels extend radially with respect to the recess and lead therein. Light conductors comprising individual fibres are provided in each incoming light channel and each outgoing light channel and are arranged upstream of the capillary tube. The diameter of each individual fibre corresponds at least approximately to the internal diameter of the capillary tube, and a plurality of individual fibres of the light conductors is arranged parallel and/or radially to the longitudinal axis of the capillary tube in the area where the light channels lead into the recess.

Growing community of inventors

Eschach, Germany

Joachim Mannhardt