As a result of organisational restructuring, our company divisions will be reorganised under the new name of
Fluid.iO® Sensor + Control GmbH & Co. KG with effect from 01.01.2023.
Please consider the following formal changes. Further informationen
T20... immersible magnetic probes are used for ascertaining filling level values in tanks for liquid media where an explosive atmosphere of zone 0 (Cat. 1) exists in the gas space above the liquid, and of Ex-zone 1 (Cat. 2) in the vicinity of the connection box outside the tank.
T20... immersible magnetic probes are used for ascertaining filling level values in tanks for liquid media where an explosive atmosphere of zone 0 (Cat. 1) exists in the gas space above the liquid, and of Ex-zone 1 (Cat. 2) in the vicinity of the connection box outside the tank.
Level sensors type T-20_.F...(20...230 V AC/DC) are approved by the DIBt (German Institute for Structural Engineering) for the overcharge protection of containers for storing water dangerous liquids.
The floater switches the reed contact in the guide tube when the liquid level rises. The change in resistance in the sensor circuit of the electronic part ET -580 resulting from the switching operation is evaluated and the output relay triggered.
Level sensors type T-20_.F... are approved by the DIBt (German Institute for Structural Engineering) as liquid level limit switches for the overcharge protection of containers for storing water-dangerous liquids.
The floater switches the reed contact mounted in the guide tube when the liquid level rises. The change in resistance in the sensor circuit resulting from the switching operation is evaluated and the output relay triggered.
Conductive electrodes type EF2...5 are approved by the “DIBt” (German Institute for Structural Engineering) as liquid level limit switches for the overfill protection of containers for storing water-endangering liquids. The screw connection of the EF2...5 consists of the materials PE, PPH, PVC or PTFE, depending on requirements. The electrode rods are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, or tantalum. Through this the conductive electrodes EF2...5 are suitable for use with highly aggressive media.
The electronics part ET-450/ET-451 is built into the connection head of the electrode EF2. The electronics part is operated with a supply voltage of 24 V DC and has one NO-contact-output in closed-circuit operation (If the Probe is not wetted: contact is closed)
Conductive electrodes type EF3...5 are approved by the “DIBt” (German Institute for Structural Engineering) as liquid level limit switches for the overfill protection of cont- ainers for storing water-endan-gering liquids. With the additional rods of the conductive electrode EF3... 5 further limit values or a min/max circuit can be realized. The connection head is prepared to build in an electronics part (ET-4xx, see next page). With this evaluation electronics (24 V DC supply voltage and 4 closing contacts) it’s possible to realize an overfill contact with up to 3 limit signals or 1 limit signal and 1 min./max. control.
The conductive electrode type EFV2 is approved by the “DIBt” (German Institute for Structural Engineering) as liquid level limit switches for the overfill protection of containers for storing water endangering liquids. The EFV2 (screw connection and tube) consists of PE, PPH, PVC or PVDF. The electrode rods are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, tantalum or glass-carbon. Through this the conductive electrode EFV2 is suitable for use with highly aggressive media.
The overfill cut-out device type EF2 (20...230 V AC/DC) is approved by the “DIBt” (German Institute for Structural Engineering) as liquid level limit switches for the overfill protection of containers for storing water endangering liquids.
The overfill cut-out device type EFV2 (20...230 V AC/DC) is approved by the “DIBt” (German Institute for Structural Engineering) as liquid level limit switches for the overfill protection of containers for storing water-endangering liquids. The EFV2 (screw connection and tube) consists of PE, PPH, PVC or PVDF. The electrode rods are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, tantalum or glass-carbon. Through this the overfill cut-out device is suitable for use with highly aggressive media.
By using the conductive electrodes of our EE-21...F/EE-22...F line you can monitor conductive liquids within zone 0 (Cat. 1). They are also approved by the “DIBt” (German Institute for Structural Engineering) as liquid level limit switches for the overfill protection of containers for storing water-endangering and combustible liquids.
The T-200.L leak detectors are approved by “DIBt” on the basis of “WasBauPVO” for the detection of leaking fluids which constitute a risk to water. The T-200.L leak detectors can be used among others as leak detectors in the space between a tank and its accompanying drip tray.
The T-200.L (24 V) leak detectors are approved by “DIBt” on the basis of “WasBauPVO” for the detection of leaking fluids which constitute a risk to water. The T-200.L (24 V) leak detectors can be used as leak detectors in the space between a tank and its accompanying drip tray. The evaluation device ET-520 [KR-24V] or ET-521 [KR-24V] is installed directly in the connection head.
The T-200.L (20...230 V AC/DC) leak detectors are approved by “DIBt” on the basis of “WasBauPVO” for the detection of leaking fluids which constitute a risk to water.
The T-200.L leak detectors are approved by “DIBt” on the basis of “WasBauPVO” for the detection of leaking fluids which constitute a risk to water. The T-200.L can be used, among others, as leak detectors at Ex - area, Zone 1 (Cat. 2).
The ELH leak detectors are approved by the DIBt (German Institute for Structural Engin-eering) for monitoring collecting basins, collecting devices, control and filling shafts. The screw connection of the ELH is made of PVC, the detector body of the ELH is made of PE, PPH, PVC or PVDF, depending on requirements. The electrode tips are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, Tantelum or Glasscarbon. Through this the ELH is suitable for use with highly aggressive media. The cable length can be adjusted on the screw connection of the ELH.
The EP plate electrodes are approved by the DIBt (German Institute for Structural Engineering) for monitoring collecting basins, collecting devices, control and filling shafts. The detector body of the EP is made of the materials PE, PPH, PVC, PTFE or PVDF, depending on requirements. The electrode tips are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, titanium, tantalum or glasscarbon. Through this the EP is suitable for use with highly aggressive media.
The ELH leak detectors are approved by the DIBt (German Institute for Structural Engin-eering) for monitoring collecting basins, collecting devices, control and filling shafts. The screw connection of the ELH is made of PVC, the detector body of the ELH is made of PE, PPH, PVC or PVDF, depending on requirements. The electrode tips are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, Tantelum or Glasscarbon. Through this the ELH is suitable for use with highly aggressive media. The cable length can be adjusted on the screw connection of the ELH.
The EP plate electrodes are approved by the DIBt (German Institute for Structural Engineering) for monitoring collecting basins, collecting devices, control and filling shafts. The detector body of the EP is made of the materials PE, PPH, PVC, PTFE or PVDF, depending on requirements. The electrode tips are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, titanium, tantalum or glasscarbon. Through this the EP is suitable for use with highly aggressive media.
The ELH leak detectors are approved by the DIBt (German Institute for Structural Engin-eering) for monitoring collecting basins, collecting devices, control and filling shafts. The screw connection of the ELH is made of PVC, the detector body of the ELH is made of PE, PPH, PVC or PVDF, depending on requirements. The electrode tips are made of stainless steel, 1.4571, Hastelloy B, Hastelloy C, Tantelum or Glasscarbon. Through this the ELH is suitable for use with highly aggressive media. The cable length can be adjusted on the screw connection of the ELH.
The conductive probes EF2L and T with integrated electronics ET-473L and ET-473T are used to monitor double pipes and/or filling pipes.
The probes are approved by the DiBt for water-polluting liquids.
The conductive electrode EF2L, with integrated electronics part ET-473L, sets off an alarm in the event of leaks in double-walled pipelines.
Our alarm indicators type OAA-100.A1 are stand-alone signaling devices with optic and acoustic alarm indication.
Combined with a liquid level sensor (e.g. T-200.F...) and a leak detector (e.g. T-200.L...) the OAA-100.A1 can be used as a local monitoring device of a tank. OAA-100.A1 records the limit-value signals of the connected level sensor / leak detector and releases an acoustic signal (acceptable) and an optical signal (not acceptable).
Our alarm indicators, type OAA-100.A3, are signalling devices with optical and acoustic alarm indication from an overfill cut-out device or a leak detector. In addition to level sensors with an interface, closed-circuit loops can also be connected as transmitters. On two voltage-free output contacts of the alarm annunciator it is possible to connect an optical and an acoustic warning device.
Our alarm indicators type OAA-300 are stand-alone signaling devices with optic and acoustic alarm indication.
Combined with a liquid level sensor (e.g. T-200F, EF2 or EFV2) and a leak detector (e.g. T-200L, ELH or EP) the OAA-300 can be used as a local monitoring device of a tank. OAA-300 records the limit-value signals of the connected level sensor / leak detector and releases an acoustic signal (acceptable) and an optical signal (not acceptable).
This lightning protection device gives coarse protection, which limits overvoltages on the signal lines caused through atmospheric influences or interference of electromagnetic fields (lightning strokes) to a certain value, so that no ignition through flash-over can occur within the explosive atmosphere.
The tank level indicator is a mechanically actuated indication operating "on the spot”. It permits a high degree of safety and flexibility thanks to separate points of measurement and indication. Its simple operating principle is impressive, requiring no energy supply and ensuring a high operational safety. The tank level indicator can be operated in extremely varying conditions and is also suitable if there is not much space above the tank.
The water level gauge is particulary suitable for all liquid media which are aggressively hot and rapidly moved in a container, but are not too much contamined. For a stirred or rapidly moved medium the water level gauge W-350/351/352/353 is acting like a damping by-pass. Depending on aggressivity and temperature various materials can be used, e.g. the type W-350 for highly aggressive media, the stainless steel type being preferred for hot and lightly aggressive liquids.
The MKL level indicator is connected by its two connections to the container to be monitored (see connection example). According to the law of interconnected containers the level in the float chamber corresponds exactly to the level in the container. The float has a special round magnet, which rotates 180° about its own axis when the aluminium wafers pass by. The level is easy to read off through the illuminated red colour on the reverse side.
The top-mounted tank indicator is a mechanically operated, on-the-spot indicator. The liquid level in the tank located below the indicator is determined proportionately to the filling level and is indicated. Control of the level is easily achieved through the installation of switching contacts. The switching points for level control can be steplessly adjusted, on-the-spot and at any time.
The BK-380, BK-390 bistable contact is a magnetically operated changeover switch which permanently changes its electrical operating status depending on the direction of movement of a passing magnet system. It can be used on level indicators, e.g. W-35... water level indicat-ors, MTA-50 tank level indicators, ÜTA-32... raised tank indicators, etc., for realizing or retrofitting a level control system.
The floats and weights with magnetic element be used in conjunction with our level devices MTA, UETA and W-35. ... See Category 2 and 3. (Mark identifies the seat of the magnet)
The monostable switches are mounted on the bypass tube of a water level indicator (Glass-/PVC-tube) with a cable tie or clip. Floats which composed of polypropylene or glass actuate the cast-in Reed contact by passing it . The switch will only remain switched, as it is in the magnetic field of the float.
The bistable switches are mounted on the bypass tube of a water level indicator (Glass-/PVC-tube) with a clip. Floats which composed of polypro-pylene or glass actuate the cast-in Reed-contact by passing it . The switch is switched, and the switching state is maintained.
A limit level electrode can be used in conjunction with a ground electrode for limit level violation monitoring. The electrodes can be mounted in any position.
Using this limit level electrode the electrode rod can be screwed in manually.
These conductive electrodes can be used for Min/Max controls, limit signalling, dry-running and overflow protection in conjunction with our electrode relays.
The adjustable electrodes can be manufactured with up to 7 single electrodes (mass + 6 switching points). The switching points are locally adjustable within the range of ±150 mm steplessly.
This electrode has the advantage of being adjustable outside the medium.
The adjustable electrode has a PTFE case for isolation, in which the rods are slidable upwards and downwards. The rods are clamped with a cone screw connection.
These electrodes are specially suitable for high tanks, wells and sewers.
A cable gland makes a subsequent adjusting of the switching points with multiple pendant electrodes possible.
These conductive electrodes can be used for minimum/maximum controls, limit signaling, pump control, dry-running and overflow protection. The connection head is prepared to build in an electronics part.
With this evaluation electronics (24 V DC supply voltage and 4 output channels) it`s possible to realize up to 4 limit signals or 2 limit signals and one minimum/maximum control.
These conductive electrodes can be used for minimum/maximum controls, limit signaling, pump control, dry-running and overflow protection. The connection head is prepared to build in an electronics part.
With this evaluation electronics (24 V DC supply voltage and 2 changeover outputs) it`s possible to realize up to 2 limit signals or 1 limit signals and one minimum / maximum control.
These conductive electrodes can be used for limit signalling or Min/Max control.
The electronic elements ET-450 / ET-451 and ET-452 are installed in the con-necting head of the electrodes. The electronic element is operated with a supply voltage of 24 V DC and has a N/O output in static current design (probe not wetted: Contact is closed) or a min-max control circuit.
These conductive electrodes can be used for minimum/maximum controls, limit signaling, pump control, dry-running and overflow protection. The connection head is prepared to build in an electronics part (ET-40x, see next page). With this evaluation electronics (24 V DC supply voltage and 4 output channels) it`s possible to realize up to 4 limit signals or 2 limit signals and one minimum/maximum control.
By using the conductive electrodes of our EE-21/EE-22 line you can monitor conductive liquids within Ex- Zone 0 (Cat. 1). The conductive electrodes of the EE-21/EE-22 line are designed to be mounted within containers, the room inside the container can be classified as Ex-Zone 0 (Cat. 1).
When using a threshold detection electrode with integrated safety barrier, exceeding or falling below a threshold in conductive fluids in Ex-zone 0 (Cat. 1) can be detected.
The electronics are fitted and sealed in the connection head.
The probe head may not be mounted in an Ex-Area.
Float switches are used for simple limit value acquisition. The float floats on the liquid surface through the higher density of the liquid, and acutates a switching operation when the float deviates from the horizontal position.
The floating this switch series is especially adapted to control a level in highly aggressive, slurry, slowly floating or hot media. The sturdy floating element assures a very good buoyancy.
The floating this switch series is especially adapted to control a level in highly aggressive, slurry, slowly floating or hot media. The sturdy floating element assures a very good buoyancy.
The Teflon floating switch monitors hot, extremely aggressive or contaminated liquid media. Type S-60/T is without bellows.
The float switch combinations SK... are constructed with float switches of the S-10… and S-11… series. With these combinations levels can be easily controlled. Using 2 float switches, one working as a maximum contactor and the other as a minimum contactor, automatic level control can be achieved. This float switch can also be used as protection against overflow and dry-running.
The float switch combinations SK... are constructed with float switches of the S-10… and S-11… series. With these combinations levels can be easily controlled. Using 2 float switches, one working as a maximum contactor and the other as a minimum contactor, automatic level control can be achieved. This float switch can also be used as protection against overflow and dry-running.
The QFS-1. float switches can be supplied with an outer casing of polyethylene. Inside the float one or two reed contacts with a pivoted permanent magnet form the switching device.
The switching device is so constructed that a slight shift of the switch from a horizontal position triggers off the signal. A highly flexible, three-core cable is used both for the electrical connection and for the mechanical attachment of the QFS.
The whole QFS unit is so constructed that the float and the lead-in line are hermetically sealed.
The QFS-20 and QFS-21 float switches are supplied with an outer casing of stainless steel. Inside the float one or two reed contacts with a pivoted permanent magnet form the switching device.
The float switch combinations QFSK... are constructed with float switches of the QFS-20… and QFS-21… series. With these combinations levels can be easily controlled. Using 2 float switches, one working as a maximum contactor and the other as a minimum contactor, automatic level control can be achieved. This float switch can also be used as protection against overflow and dry-running.
These float switches are characterised by their switching system which works without mercury. The switching system consists of a µ-switch which is operated by a ball and which switches with an angle of approx. +3° / +12° ( without hysteresis) and with an angle of approx. (with –26° / +28° additional hysteresis).
The QFS-50 and QFS-60 float switches can be supplied with an outer casing of Teflon. Inside the float one or two reed contacts with a pivoted permanent magnet form the switching device.
The float switch combination is constructed with float switches of the QFS-50 and QFS-60 series. With these combinations levels can be easily controlled. Using 2 float switches, one working as a maximum contactor and the other as a minimum contactor, automatic level control can be achieved.
With the two-point float switch Type QFS-12 can be realized pump controls in liquid media on a simple way. To achieve faultless switching of the two-point float switch Type QFS-12, a stainless steel weight is welded into the float.
The float switch combinations SK ... are constructed with float switches of the QFS-10..., QFS-11..., QFS-30... and QFS-31... series. With these combi-nations levels can be easily controlled. Using 2 float switches, one working as a maximum contactor and the other as a minimum contactor, automatic level control can be achieved. This float switch can also be used as protection against overflow and dry-running.
The float switch combinations SK ... are constructed with float switches of the QFS-10..., QFS-11..., QFS-30... and QFS-31... series. With these combi-nations levels can be easily controlled. Using 2 float switches, one working as a maximum contactor and the other as a minimum contactor, automatic level control can be achieved. This float switch can also be used as protection against overflow and dry-running.
The plastic level switch QFS-40 is designed for economical control of liquids in vessels. Many industrial applications can be realized with two different plastic versions each with three different mountings. The switch is remarkable for its maintenance-free design, small dimensions and reed contacts with high switch capacity.
These float switches have a mercury-free switch system consisting of a micro-switch and a ball that operatesthe switch. The switch system is triggered at a switching angle of approx. + 3 degrees / + 12 degrees. The Ex-QFS 3_ floatswitches are approved for use in flammable fluids Ex-zone 0 (Cat. 1).
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20 immersible magnetic probes are used for ascertaining the filling level limit values in tanks for liquid media. The materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. Through this the immersible magnetic probes are suitable for use with highly aggressive media.
T20... immersible magnetic probes are used for ascertaining filling level values in tanks for liquid media where an explosive atmos-phere of zone 0 (Cat. 1) exists in the gas space above the liquid, and of zone 1 (Cat. 2) in the vicinity of the connection box outside the tank. The immersible magnetic probes are made of stainless steel (1.4571). Types T204/0 and T205/0 are completely suitable for zone 0 (Cat. 1) as unconnected cable end types (without connection box).
T20... immersible magnetic probes are used for ascertaining filling level values in tanks for liquid media where an explosive atmos-phere of zone 0 (Cat. 1) exists in the gas space above the liquid, and of zone 1 (Cat. 2) in the vicinity of the connection box outside the tank. The immersible magnetic probes are made of stainless steel (1.4571). Types T204/0 and T205/0 are completely suitable for zone 0 (Cat. 1) as unconnected cable end types (without connection box).
The pneumatic-type level switch NP-250/251 has been shown to be a very reliable and simple sensor for scanning liquids, in particular when used for overflow protection.
The liquids can be aggressive, sticky or highly contaminated. The switch can also be used for signalling minimum levels. It can be used only in open, pressure less containers, tanks etc.
Multiple pneumatic level switches 2…4, types NP-255/256 have been shown to be very reliable and simple sensors for scanning liquids, in particular when used for overflow protection. The liquids can be aggressive, sticky or highly conta-minated.
Capacitive limit switches respond on approach of solid and liquid media. They can be adjusted in such a way that they switch both in contact with the medium and contact less. They are suitable for plastic tanks, glass and plastic tubes.
The vibrating limit switch is a level limit switch for all kinds of fluids and is used in tanks, containers and pipelines. It is used in cleaning and filtering systems and coolant and lubricant tanks as an overspill protection or as a pump protector. It also works in applications which are unsuitable for other measuring methods due to conductivity, build-ups, turbulence, flows or air bubbles.
Electrode relays (ER-104..., ER-214…) are used for conductive measurement of filling levels. They can be used in all applications in which conductive liquid media have to be measured, controlled and regulated. In this connection both limit levels (overflow / dry running) and minimum/maximum controls can be achieved.
Electrode relays (ER-142… and ER-143…) are used for conductive measurement of filling levels. They can be used in all applications in which conductive liquid media have to be measured, controlled and regulated. In this connection both limit levels (overflow / dry running) and minimum/maximum controls can be achieved.
Electrode relays (XR4...) are used for conductive measurement of filling levels. They can be used in all applications in which conductive liquid media have to be measured, controlled and regulated. In this connection both limit levels (overflow / dry running) and minimum/maximum controls can be achieved.
With the electrode relays (ER-107…, ER-217… and ER-145…) a change in the measuring current caused by immersion of a connected overfill cut-out device (EF2, EFV2) or leakage probe (ELH, EP) in a conductive medium can be detected. With electrode relays of this type series the switching state of the potential-free output contacts is changed when the measuring current drops below a certain value (cable break). Optimum adjustment of the response sensitivity for different media is possible.
With the electrode relays (ER-107…, ER-217… and ER-145…) a change in the measuring current caused by immersion of a connected overfill cut-out device (EF2, EFV2) or leakage probe (ELH, EP) in a conductive medium can be detected. With electrode relays of this type series the switching state of the potential-free output contacts is changed when the measuring current drops below a certain value (cable break). Optimum adjustment of the response sensitivity for different media is possible.
With the electrode relays (ER-107…, ER-217… and ER-145…) a change in the measuring current caused by immersion of a connected overfill cut-out device (EF2, EFV2) or leakage probe (ELH, EP) in a conductive medium can be detected. With electrode relays of this type series the switching state of the potential-free output contacts is changed when the measuring current drops below a certain value (cable break). Optimum adjustment of the response sensitivity for different media is possible.
With the electrode relays (ER-107…, ER-217… and ER-145…) a change in the measuring current caused by immersion of a connected overfill cut-out device (EF2, EFV2) or leakage probe (ELH, EP) in a conductive medium can be detected. With electrode relays of this type series the switching state of the potential-free output contacts is changed when the measuring current drops below a certain value (cable break). Optimum adjustment of the response sensitivity for different media is possible.
Contact protective relays (KR-163…) are universal measuring transducers which convert output signals (resistance values) with “Namur” specification (DIN EN 60947) into switching signals. Contact protective relays work according to the closed-circuit principle, i.e. if no overflow or leakage signal is given an operating current flows via the measuring transducer. As long as this is the case the output relay remains pulled in. It is not released until either the response level is reached, the line is interrupted or the supply voltage breaks down.
Contact protective relays (KR-268…) are universal measuring transducers which convert output signals (resistance values) with “Namur” specification (DIN EN 60947) into switching signals. Contact protective relays work according to the closed-circuit principle, i.e. if no overflow or leakage signal is given an operating current flows via the measuring transducer. As long as this is the case the output relay remains pulled in. It is not released until either the response level is reached, the line is interrupted or the supply voltage breaks down.
Contact protective relays (KR-163/A/Ex…) are universal measuring transducers which convert output signals (resistance values) with “Namur” specification (DIN EN 60947) into switching signals. Contact protective relays work according to the closed-circuit principle, i.e. if no overflow or leakage signal is given an operating current flows via the measuring transducer. As long as this is the case the output relay remains pulled in. It is not released until either the response level is reached, the line is interrupted or the supply voltage breaks down.
Contact protective relays (XR-612 u. XR-622) are universal measuring transducers which convert output signals (resistance values) with “Namur” specification (DIN EN 60947) into switching signals. Contact protective relays work according to the closed-circuit principle, i.e. if no overflow or leakage signal is given an operating current flows via the measuring transducer. As long as this is the case the output relay remains pulled in. It is not released until either the response level is reached, the line is interrupted or the supply voltage breaks down.
The KR-164 contact protection relay module can be used as a universal switching amplifier for level controllers or other sensors with low switching capacity. The KR-164 can be used both as a monostable- / or bistable switching amplifier depending on the specific requirements.
Contact protective relays (XR-6..) are universal measuring transducers which convert output signals (resistance values) with “Namur” specification (DIN EN 60947) into switching signals. Contact protective relays work according to the closed-circuit principle, i.e. if no overflow or leakage signal is given an operating current flows via the measuring transducer. As long as this is the case the output relay remains pulled in. It is not released until either the response level is reached, the line is interrupted or the supply voltage breaks down.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
T30... continuous magnetic immersible probes are used for quasi-acquisition of the filling level in containers with liquid media. Materials used include PVC, PE, PPH, PTFE, brass or stainless steel (1.4571), depending on requirements. This enables the magnetic immersible probes to be used also with highly aggressive media.
The level measuring sensors TK-30… are continuous measuring sensors for use in liquids. They are used for the measurement of filling levels in tanks for liquid media where by an explosive atmosphere of category 1 (zone 0) exists in the gas space above the liquid and category 2 (zone 1) outside of the tank in the area of the connection box.
The level measuring sensors TK-30… are continuous measuring sensors for use in liquids. They are used for the measurement of filling levels in tanks for liquid media where by an explosive atmosphere of category 1 (zone 0) exists in the gas space above the liquid and category 2 (zone 1) outside of the tank in the area of the connection box.
The level measuring sensors TK-30… are continuous measuring sensors for use in liquids. They are used for the measurement of filling levels in tanks for liquid media where by an explosive atmosphere of category 1 (zone 0) exists in the gas space above the liquid and category 2 (zone 1) outside of the tank in the area of the connection box.
The hydrostatic probes are suitable for use in liquids - including aggressive types - in pressureless tanks. The hydrostatic pressure thereby acts on the membrane of the gauge head causing a change of an electric parameter. This change is converted by electronic analysis into a corresponding output signal.
The hydrostatic installed screwed sensors are used for filling level measurements in water and in clean to slightly contaminate liquids as well as in acids, alkaline solutions or aggressive media. Pressure less containers and tanks represent the application areas.
The hydrostatic dynamic pressure measurement are used for filling level measurements. Usable in pressure less container. The parts coming in contact with the media are made of PVC, PPH or PVDF.
DThe airing system is used for our hydrostatic probes of the HD-12... and HD-13... series with air connection. The bubbling of air is important to use the hydrostatic probes in fluids, which have the tendency to be come incrusted also for out gassing fluids .
The LU-150 is a short-range integrated ultrasonic level transmitter, intrinsically safe as Ex-version LU-180. This general purpose, 2 wire, 4 to 20 mA loop powered transmitter is ideal for liquids, slurries, and bulk materials in open or closed vessels to 5 m (16.4 ft). The transducer is available in PVDF copolymer, making the device suitable for use in a wide variety of applications. The LU-150/180 is easy to install and maintain, and can be quickly removed for cleaning as required by the food, beverage and pharmaceutical industries. The reliability of the level data is based on the Sonic Intelligence echo processing algorithms from Siemens. A filter discriminates between the true echo and false echoes from acoustic or electrical noises and agitator blades in motion. The ultrasonic pulse propagation time to the material and back is temperature-compensated and converted into distance for display, analog output. Key Applications: chemical storage vessels, filter beds, mud pits, liquid storage vessels, food applications Supplementary Components are designed to work with most types of instrumentation to provide enhanced functionality such as remote displays and remote monitoring solutions.
It`s a 2-wire loop powered ultrasonic transmitter for level, volume and flow monitoring of liquids in open channels, storage vessels and simple process vessels. Ideal for level monitoring in the water and wastewater industry and chemical storage vessels. The range of LU-sensors is 6 or 12 m (20 or 40 ft). Using Auto False-Echo Suppression for fixed obstruction avoidance, as well as an improved signal-to-noise ratio and improved accuracy of 0.15% of range or 6 mm (0.25"), the Probe LU provides unmatched reliability. The Sensorsincludes Sonic Intelligence® signal processing from the field-proven Probe and incorporates new echo processing features and the latest micro-processor and communications technology. The Probe LU offers communications with: HART . As well, for applications with varying material and process temperatures, the Probe LU incorporates an internal temperature sensor to compensate for temperature changes. Key Applications: chemical storage vessels, filter beds, liquid storage vessels.
The measuring transducer TK-101 and TK-101-Ex are built directly into the connection boxes of our Liquid Level Measuring Instruments of type TK-30_. The measuring transducer TK-101-Ex is also approved for use in explosive atmospheres Ex zone 0 (Cat. 1). For this purpose, the measuring transducer must be supplied with an intrinsically safe control circuit.
The TK-312 measuring transducer converts the resistance signal supplied from our TK-30... . continuous level sensors into a current signal proportionate to the level. The unit current signal (0/4...20mA) can be used for level indication, recording and control or other process variables present in three-wire circuits.
The TK-313 limit comparator can be used in conjunction with our TK-30... continuous level sensors with 0(4)...20 mA or 0...10 V output signal for level control / measurement. Where more than 2 limit values (change-over contacts) are required, individual limit comparators can be connected in parallel to form a functional unit or the evaluator TK-315 can be used.
The TK-315 limit comparator can be used in conjunction with our TK-30... continuous level sensors with 0(4)...20 mA or 0...10 V output signal for level control/measurement.
E.L.B. luminous row displays of type series TK-320...TK-322 are used for visually displaying process states such as filling levels. Through their design using strongly illuminating light-emitting diodes they are ideal for difficult applications, e.g. with light coloured surroundings. The luminous row permits a general view of the process state even from a distance.
The programmable digital display AD-31… can be used in all applications through the parameterization capability of the input values and the display area. The input circuit allows for direct connection of transmitters with voltage output (0(2)…+ 10 V, with current output 0(4)…20 mA or resistance remote transmitters, such as level measuring transmitters with resistance chains.
The TRM-100 turbidity measuring device is a compact device for measuring the turbidity of fluids. The “turbidity” is measured by using the scattered light method FNU (Formazine Nephelometric Units / 90° angle) for the turbidity range < 1.000 FNU - and by the transmitted light method FAU (Formazine Attenuation Units / 0° angle) for the turbidity range measure > 1.000 FAU.
The OAA-400-A1/A2 warning system serves to monitor oil, gasoline, lubricant or light fluid separator systems in areas subject to explosion hazards. Monitoring possibilities: Backwater: Monitoring of the maximum liquid level. Leak detection: In case of a dropping liquid level, as with a leak. Boundary layer: Monitoring of a defined oil layer thickness. Sludge level: Detection of sludge trap/ sand. The condition of connected sensors as well as their signal lines is monitored for line breakages and short circuits.
