Temperature regulation sensors - Import export

Micro heaters are used in devices requiring a small but accurate heat source with precise temperature control, such as optical interactive assistance systems. Allowing for targeted heating of tiny spaces, IST AG micro heaters are found across various industries, including automotive, laser manufacturing, humidification units, life-science, 3D printing and medical devices. They are a precision heat source for gas and humidity sensors, biospy or tissue samples for medical analysis, or used in malignant tumor treatment. Our micro heaters combine high-precision and long-term stability with a wide temperature range from -50°C up to +800°C and feature numerous benefits: — Fast response times — High temperature stability — Long term stability — Overheating protection — High precision — Targeted heating of tiny spaces — Tailor-made to fit customer's application Each micro heater is individually customized and designed to fit your application's requirement.

Micro heaters are used in devices requiring a small but accurate heat source with precise temperature control, such as optical interactive assistance systems. Allowing for targeted heating of tiny spaces, IST AG micro heaters are found across various industries, including automotive, laser manufacturing, humidification units, life-science, 3D printing and medical devices. They are a precision heat source for gas and humidity sensors, biospy or tissue samples for medical analysis, or used in malignant tumor treatment. Our micro heaters combine high-precision and long-term stability with a wide temperature range from -50°C up to +800°C and feature numerous benefits: — Fast response times — High temperature stability — Long term stability — Overheating protection — High precision — Targeted heating of tiny spaces — Tailor-made to fit customer's application Each micro heater is individually customized and designed to fit your application's requirement.

White light interferometers use infrared light in the non-visible range (approx. 840 nm wavelength), which means that the measurement position cannot be seen. To visualize the measuring position, Micro-Epsilon systems are equipped with a pilot laser which projects a light spot onto the measuring position. In addition, the pilot laser uses a patented method to provide feedback on the distance in addition to the measurement position. If the measuring object is at the correct distance and within the measuring range, a constant glow is emitted by the pilot laser. If the measuring object is outside the measuring range, the pilot laser flashes.

The capaNCDT DT61x4 is an active, capacitive system for displacement, distance and position measurements. Consisting of a sensor with integrated preamplifier, a robust cable and a compact controller, the measuring system is immediately ready for use without any on-site calibration. The measuring system is available with a cable length up to 15 m and is ideal for automation purposes. The capaNCDT 61x4 is particularly suitable for automated robot manufacturing and measurement tasks with a drag chain. Moreover, it is used in machine building and semiconductor production. For optimum signal quality, the desired cable length is already factory-calibrated.

BEDIA level monitoring sensors are used to monitor the filling levels of liquids. The sensors detect when a filling level is exceeded or falls below a limit. Water-based liquids like coolants, AdBlue®, fresh water, waste water, bilge water and oil-based liquids like motor oils, hydraulic oils, fuels and brake fluids can be monitored. Since they contain no mechanical moving parts, their function will not be influenced by dirt particles or other influences. No electrical current is sent through the medium via an electrode with BEDIA sensors, an electrolysis of the medium is not possible. Operating Principle The function of the sensor is based on the capacitive principle. It detects the change in capacitance that occurs when an electrode surrounded by air is immersed into a liquid medium. This change in capacitance at the electrode of the sensor excites an oscillator. This signal is processed by a microcontroller-based evaluation circuit which activates or deactivates an output stage.

BEDIA level monitoring sensors are used to monitor the filling levels of liquids. The sensors react when a filling level is exceeded or falls below a limit. Aqueous mediums like coolants, AdBlue®, fresh water, waste water, bilge water and oil-based liquids like motor oils, hydraulic oils, fuels and brake fluids can be monitored. Since they contain no mechanical moving parts, their function will not be influenced by dirt particles or other influences. No electrical current is sent through the medium via an electrode with BEDIA sensors, an electrolysis of the medium is not possible. Operating Principle The function of the sensor is based on the capacitive principle. It detects the change in capacitance that arises when an electrode surrounded by air is immersed into a liquid medium. This change in capacitance at the electrode of the sensor excites an oscillator, causing it to oscillate. Then this signal is processed by a microprocessor-based evaluation circuit.

BEDIA level monitoring sensors are used to monitor the filling levels of liquids. The sensors detect when a filling level is exceeded or falls below a limit. Water-based liquids like coolants, AdBlue®, fresh water, waste water and oil-based liquids like motor oils, hydraulic oils, fuels and brake fluids can be monitored. Operating Principle The function of the sensor is based on the capacitive principle. It detects the change in capacitance that occurs when an electrode surrounded by air is immersed into a liquid medium. This change in capacitance at the electrode of the sensor excites an oscillator. This signal is processed by a microcontroller-based evaluation circuit which activates or deactivates an output stage. Types of Media The level monitoring sensors are designed for two different media types: For electrically conductive liquid media with relative permittivity within a range of εr 35 … 85 (water, coolant, water/glycol mixture) For electrically non-conductive liquid media

High technology range TurboCure®. The purpose of the Turbocure® solution consists in reducing the curing time by up to 50%. It includes the modules TempInverter® and FillBalancer®. They can be used together or individually depending on the application. This solution respects the integrity of the compound by focusing on improved quality.

The Structural Health Sensors combine a 2-axis accelerometer with a temperature sensor. Their enhanced internal surge protection and electromagnetic interference immunity make them particularly suitable for the permanent monitoring of outdoor tall structures. The Structural Health Sensors can perform measurements in extreme conditions ranging from -40°C to +85°C. They are of course dust and watertight to IP66. We have a proven track record of several thousands of such sensors operating reliably around the world.TYPICAL USE Permanent outdoor monitoring of tall structures FEATURES Acceleration measurements along 2 axes Temperature measurement of the surface the sensor is attached to Signals transmission through 4-20mA current loops Embedded Lightning Protection Operation down to -40°C MODELS Standard High Resolution

The measuring probe lance is in the form of a length of 2000 mm and includes the three temperature sensors: - on the tip of the lance - at a distance of 750 mm from the tip and - at a distance of 500 mm from the end of the lance The lance tip has a rounded head, so when pushing into the pile it does not poke through encountered "in the way" compost components. The probe in wireless version is powered by a battery. Measurements and data are transmitted, depending on the version of the device, by wire or wireless.

Predictive maintenance needs measured data to the greatest possible precision. On components with moving or rotating parts, the relevant measuring points (e. g. temperature of an electric motor’s rotor or planetary gearbox bearing) sometimes cannot be accessed with wired sensors. Accordingly, the data needed for condition monitoring can be obtained only with complex calculations and estimates. However, precise and reliable measured data are obtained only when a sensor is placed directly on the moving part. For requirements of this kind we have developed NORIFID, a simple, cost effective measuring system that is based on established technologies, supplies wirelessly power by induction to a sensor on a moving part, and transmits the measured data via RFID to a fixed receiver.

The fuel temperature sensor is one factor that tells the ECU how to adjust the amount of fuel injected. When the fuel is warm, it's less dense and burns more readily so the ecu injects more fuel to get the same mass of fuel and retards the timing. When the fuel is cold, it's more dense so the ecu injects less fuel and advances the timing. Hot fuel has the same effect as higher cetane fuel at a lower temperature because it burns more readily. Timing and injection quantity is also based on many other factors, fuel temperature is just one of them.

Conventional thermometers measure the temperature by means of length or volume change of a material, and are only suitable as display instrument. Temperature sensors from Lenord+Bauer use resistance thermometers that feature an almost temperaturelinear resistance curve, and output the resulting measurement data as electrical signal. They are suitable for a measurement range from 40 °C to +250 °C. A thin stainless steel tube protects the electronics from dirt, humidity and corrosion, allowing the sensors to meet the requirements of protection class IP 68. The sensors are in compliance with fire protection standards EN 45545 and are typetested according to EN 50155. • Platinum resistance thermometer Pt100 / Pt1000 • Measuring tube lengths from 30 mm to 140 mm • Connection with 2, 3 or 4wire technology • Fire behaviour according to DIN 5510 and NF F16101 • Custom configuration

Single 5 V supply voltage Easy to use package Wide compensated range (0 to 70°C) Total accuracy down to 1% over 0 to 70°C, all effects included (maximum) Standard 0.5 – 4.5 V voltage output Up to 15 bits I2C output (pressure + temperature) Gage, differential and absolute pressure configurations 10 mBar – 7 Bar

Constant voltage excitation Easy to use DIP package Wide compensated range (0 to 70°C) Zero and span calibration Differential, gage and absolute configurations 10 mbar up to 7 Bar

Constant current excitation Easy to use DIP package Wide compensated range (0 to 70°C) Zero calibration Differential, gage and absolute configurations 10 mbar up to 7 Bar

Single 5 V supply voltage Easy to use package Wide compensated range (0 to 70°C) Up to 15 bits I2C output (pressure + tempe-rature) Standard 0.5 to 4.5 V voltage output Total accuracy down to 1% over 0 to 70°C, all effects included (maximum) Integrated EMC protection Gage configuration 20 mBar – 7 Bar