Precision sensors - Import export

cccThis scientific camera line provides super sensitive, linear, and accurate data for your precise measurements. Its sCMOS sensors deliver CCD image quality with CMOS speed over a USB3 interface with Type-C connection and power delivery protocol. The compact housings come with Peltier cooling for sensor temperatures down to -25 °C. Photon starved applications will love the simplicity of getting a cooled camera up and running with little fuss. Imaging the very large (astronomy) to the very small (microscopy), our scientific cameras have you covered. Reaching a resolution of 15.1 Mpix (5,056 x 2,968 pixels) and up to 17 fps pixels.

Registration of inclination in the gravitational field by means of MEMS sensors (Micro-Electro-Mechanical-System) with subsequent digitisation and linearisation via controllers. MEMS sensors are integrated circuits manufactured using silicon bulk micromechanical technology. Double capacities are formed with the aid of moveable micromechanical structures. If these structures are deflected in the case of acceleration, e.g. gravitational acceleration (g), this results in capacity changes, which are registered and further processed using measuring technology. The output voltage follows the function U ~ g * sin α. In this case, the angle α is the sensor's inclination angle measured against the g-vector. These sensors measure precisely, have a long service life and are very robust. The measuring axes operate independently of each other.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A correct mechanical connection between the customer and sensor shaft ensures that the sensor precisely detects the customer shaft's rotations. A safe position is provided by the plausibility check of two sensor systems. Detected errors are evaluated. The CAN interface outputs the validated position value and speed signal via the CANopen Safety protocol within an SRDO (Safety Relevant Data Object) using 2x2 messages (normal and inverted). The rotary encoder meets the conditions of safety level SIL2 according to IEC 61508 and performance level "d" according to EN13849. The prerequisite of safety-relevant operation is a failsafe master.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

A positive-locking mechanical connection between the cus-tomer’s shaft and the sensor shaft ensures that the magnet in the sensor shaft precisely reflects the rotation of the cus-tomer’s shaft. With the TBN model, one rotation (i.e. max. 16,384 steps) is recorded.With the subsequent absolute transmission, the TRN shaft encoder reaches a measuring range of up to 4096 rotations. The position and speed values (PDO - Process Data Object) are output via the CANopen protocol.

Oxygen is essential for life. Measuring oxygen concentrations plays a central role in controlling biotechnological processes . No matter if fermentations, scale-up studies, bioproductions in lab or industrial scale, the BCP-O2 sensor determines the oxygen concentration in realtime (real time monitoring) in a very convenient way. By measuring the oxygen concentrations oxygen limitations can be avoided and conclusions to metabolic activity can be drawn. With the help of measuring the oxygen important process parameters as OTR oxygen transfer rate or respiratory quotient RQ can be determined. Using BCP-O2 simplifies process optimization in bioprocessing and makes it efficient and precise. In contrast to other sensors the BCP-O2 has in integrated automated temperature and pressure compensation and can be connected to each and every fermenter type. BCP-O2 doesn´t need a minimum flow rate and thus can be applied from small (lab) scale (e.g shake flask) up to the large industrial scale.

As with the low-cost sensors, the precision sensors include models with a particularly temperature-stable quartz shear element. Model M628F01 with head connection is used especially in environments with fluctuating environmental conditions and are optionally available with high-temperature electronics for use up to 163 °C. — Industrial ICP®/IEPE accelerometer -Measuring range ±50 g —Sensitivity: 100 mV/g -Frequency range: 0.33 to 12000 Hz -With metric (M) or inch mounting bolt For an individual quotation please contact us directly.

The sensor model M622B01 with head connection is suitable for a wide range of standard applications with a measuring range of 50 g. The industrial precision sensors operate in the frequency range up to 15 kHz and can be used in an ambient temperature up to 121 °C. — Industrial ICP®/IEPE Accelerometer — Measuring range ±50 g — Sensitivity: 100 mV/g — Frequency range: 0.2 to 15000 Hz — With metric (M) or inch mounting bolt For an individual quotation please contact us directly.

The sensor model M625B01 with side connection is suitable for a wide variety of standard applications with a measuring range of 50 g. The industrial precision sensors operate in the frequency range up to 15 kHz and can be used in an ambient temperature up to 121 °C. Acceleration sensors with a low lower limit frequency and high sensitivity are available for monitoring very slowly rotating machines. For these models, the discharge time constant has been extended so that the sensor can be used at speeds below 12 rpm (0.2 Hz). —Measuring range ±50 g -Sensitivity: 100 mV/g -Frequency range: 0.33 to 12000 Hz - 2-pin connector on top -With metric (M) or inch mounting bolt For an individual quotation please contact us directly.

Automatic parallel online determination of (bio)methane potential is essential to ensure the effectivity of biogas production. Yieldmaster simplifies the search for the right substrae and guarantees maximums yields for your biogas process. Using Yieldmaster minimum gas flows are not necesseray. The Yieldmaster (BCS-CH4 biogas) consists of CH4 infrared gas sensors, precision volumeters and BAcVis or BlueVis software. It can be used from small vessels (500mL) up to big lab fermenters. Data is recorded consistently. Using date from the integrated temperature measurement BacVis or BlueVis calculate the standard volume automatically. Sensors measure directly in the fermenter which means no data is lost and errors caused by gas leakage etc. are minimized. The compensating reservoir device guarantees complete measurement under all circumstances. In combination with BlueVCount (Yieldmaster 2.0) simultaneous measurement of methane and gas volumes is feasable.

For many tasks in the field of automation technology, it is necessary to recognize the motional processes in pneumatic and hydraulic cylinders and to detect the position of the piston with precision. For this, magnetic cylinder sensors are used.

For many tasks in the field of automation technology, it is necessary to recognize the motional processes in pneumatic and hydraulic cylinders and to detect the position of the piston with precision. For this, magnetic cylinder sensors are used.