Thermal sensors - Import export

Those dual axis inclinometers are designed to measure very small changes from the vertical level, either on the ground or in structures. They exhibit high resolution and low thermal drift. Their mechanical design and enhanced internal surge protection make them particularly useful for the permanent outdoor monitoring of structures being subjected to various influences such as loading and foundation settlement.TYPICAL USE Off-shore wind turbine foundations Bridges and piers Historical buildings Structural load testing Vessel and pontoon roll and pitch measurement Crane roll and pitch measurement Structural Health Monitoring FEATURES Biaxial High accuracy and resolution Excellent thermal stability 4-20 mA current loops for signal immunity and potentially long cable runs Enhanced surge protection Internal temperature sensor for residual thermal drift compensation Two models for horizontal or vertical mounting Easy to install

The IST AG FS7.4W gas flow sensor has been developed for applications with temperatures up to 400 °C. The design of the FS7.4W is based on the FS7 design which offers a symmetrical heater that enhances sensitivity. The FS7.4W flow sensor is applicable in gas and offers excellent long-term stability. The small thermal mass of the FS7.4W sensor provides a fast response time. Further advantages of the FS7.4W thermal mass flow sensor include: — Easy adaptation in various applications and housings — Excellent long-term stability — Simple signal processing — Simple calibration — Stable platinum technology — Excellent reproducibility — Customer-specific sensor available upon request The IST AG FS7.4W flow sensors are optimal for measuring gas flow in various flow applications.

For measuring flow rates using a symmetrical heater design and having an excellent sensitivity and reproducibility. It has a plastic housing for fast mounting into a flow channel

The IST AG MicroFlowSens (MFS) technology was developed for fast flow measurements. Due to the membrane system, the thermal mass is reduced to the minimum resulting in a very fast response time and low power consumption. In addition to measuring flow rates, the MicroFlowSens offers an outstanding sensitivity and is able to detect flow direction. The MFS flow sensor is optimal for limited space system integration and is available as integrated sensor on a PCB. Further advantages of the MFS thermal mass flow sensor include: — Excellent solution for applications with high flow rates and fast response time in CTA mode — Very high measuring dynamic with CTA mode (10'000'000 : 1) without bypass — Excellent for the measurement of very low flow rates and leakage detection with bridge mode — High chemical resistance against aggressive gases and vapors — Different sensitivities, circuit topologies available — Detection of flow direction — Customer-specific sensor layout upon request

The IST AG FS7 thermal mass flow sensors are the successors of the FS5 flow sensors and exhibit a symmetrical heater design and enhanced sensitivity. The FS7 flow sensor is applicable in gas and offer excellent long-term stability. The small thermal mass of the FS7 sensor provides a fast response time. Additionally, the standard FS7 sensor is also available with a housing which is easily implemented into various applications. Further advantages of the FS7 thermal mass flow sensor include: — Easy adaptation in various applications and housings — Excellent long-term stability — Simple signal processing — Simple calibration — Stable platinum technology — Excellent reproducibility — Customer-specific sensor available upon request. The IST AG FS7 flow sensors are optimal for measuring gas flow in various flow applications.

The IST AG FS2 flow sensors are applicable in gas and offer excellent long-term stability. In addition to measuring flow rates, the FS2 gas flow sensor is able to detect flow direction with outstanding sensitivity. Further advantages of the FS2 thermal mass flow sensor include: — Simple signal processing — Simple calibration — Bare sensor resists up to +450 °C (customer specific) — Stable platinum technology — Excellent reproducibility — No moving mechanical parts — Customer-specific sensor available upon request The IST AG FS2 flow sensors are optimal for measuring gas flow and direction.

Motor immersed in cooking oil, non-toxic, non-polluting. Externally cooled by the pumped liquid. Insulation class F. Motor protection IP68. Thermal sensors built into the motor winding. Recommended for use with clean water in domestic, civil and agricultural applications, such as water distribution in combination with pressure sets, for irrigation of gardens, allotments and for increasing pressure. Permanent or transportable installation directly on the bottom of the tanks thanks to the lower Noryl guide, shaft and rubber feet on the bottom of the pump, which reduce vibration. Combination of stainless steel in the turbines with Noryl reinforced with fiberglass in the diffusers, offers excellent resistance to abrasion due to sand. Double seals, lip seals and carbon ceramic reinforced mechanical seal. Pump body, pump head and turbines in AISI304 stainless steel and shaft in AIS420 stainless steel.

Motor immersed in cooking oil, non-toxic, non-polluting. Externally cooled by the pumped liquid. Insulation class F. Motor protection IP68. Thermal sensors built into the motor winding. Recommended for use with clean water in domestic, civil and agricultural applications, such as water distribution in combination with pressure sets, for irrigation of gardens, allotments and for increasing pressure. Permanent or transportable installation directly on the bottom of the tanks thanks to the lower Noryl guide, shaft and rubber feet on the bottom of the pump, which reduce vibration. Combination of stainless steel in the turbines with Noryl reinforced with fiberglass in the diffusers, offers excellent resistance to abrasion due to sand. Double seals, lip seals and carbon ceramic reinforced mechanical seal. Pump body, pump head and turbines in AISI304 stainless steel and shaft in AIS420 stainless steel.

EGE compact devices for the flow monitoring of gaseous media contain measuring and amplifier in a single housing. They are used where a visualisation of the flow rate on site is required. EGE flow sensors for gaseous media feature two pins which contain the thermal measuring elements. The sensors are set up directly at the device. EGE sensors for gaseous media are characterised by a rapid response capability and reliable operation. Based on the principle, there are no moving parts in the air flow monitors and they can, therefore, also be used in aggressive environments. Devices for air conditioning technology have smooth measuring surfaces and need not protrude far into the flow duct.

The sensor technology of the DCT 533 is the same as those of the proven pressure transmitter DMP 331 / DMP 333, whereby the DCT 533 is suitable for almost every industrial application, if medium is compatible with stainless steel 316L. The modular concept of the pressure transmitter allows customized electrical or mechanical connections, so it is easy to adapt the DCT 533 to different conditions on-site. Features: — nominal pressure: 0 ... 100 mbar up to 0 ... 400 bar — accuracy: 0,35 % (opt. 0,25%) FSO — IO-Link according to specification V 1.1 — Data transfer 38.4 kBaud — Smart sensor profile — perfect thermal behaviour — excellent long term stability Optional Features: — pressure port G 1/2" flush from 100 mbar — pressure sensor welded — customer specific versions

The slimline probe LMP 305 with silicon stainless steel sensor is designed for continous level measurement in confined space conditions. Permissible media are clean or waste water and thin fluids. A piezoresistiv stainless steel sensor with low thermal error, an excellent linearity and a long term stability, is basis of LMP 305. Features: — nominal pressure: 0 ... 1 mH2O up to 0 ... 250 mH2O — accuracy: 0,35 % (opt. 0,25 %) FSO — diameter 19 mm for cramped areas e.g. 1" observation well — small thermal effect — excellent linearity — excellent long term stability Optional Features: — different kinds of cable — customer specific versions e.g. special pressure ranges

The LMP 308i is designed for continuous fill level and level measurement of water and liquid mediums. The signal processing of sensor signal is done by digital electronics with 16-bit analog digital converter. Consequently it is possible to conduct an active compensation of sensor intrinsic deviations from normal condions like nonlinearity and thermal error. In order to facilitate stock-keeping and maintenance the transmitter body is plugged to the cable assembly with a connector and can be changed easily. Features: — nominal pressure: 0 ...4 mH2O up to 0...200 mH2O — accuracy: 0.1 % FSO — diameter 35 mm — cable and sensor section separable — thermal error in compensated range -20...70°C: 0.2 FSO TC 0.02% FSO/10K 0,02 % FSO / 10K — high accuracy — communication connection — turn-down 1:10 Optional Features: — IS-version — mounting accessories as cable gland and terminal clamp in stainless steel

Thermal mass flow sensor OS 401/OS421 is suitable for consumption measuring in different compressed air systems. The version with a display shows the volumetric flow and the total compressed air consumption. The keyboard enables setting of tube diameters and consumption counter. Various settings such as gas type, flow unit, reference standards, can also be set.

The thermal conductivity measuring insert is intended for measurement of the thermal conductivity coefficient temperature dependencies in constant magnetic field using stationary method. The inner sample holder is equipped with the resistive heaters, resistive temperature sensors and Hall sensor. The thermal conductivity measuring insert characteristics: - relative measurement accuracy of thermal conductivity coefficient: 3 %; - sample dimensions: a rectangular plate 22×4×2 mm; - temperature interval – from 80 to 370 K; - magnetic field interval – from 0.02 to 2 T.

All EUROLINIA infrared panels are manufactured according to the client’s application and include high precision control systems to perfectly match the required production process. They feature extremely high reliability and durability, resistant to corrosion, high humidity, and condensation; dust, pollution, and most chemical compounds resistant. Infrared panel is usually divided into several operating zones. The heating intensity of each zone is automatically adjusted based on the data received from the thermal sensors located inside the ceramic emitters equipped with a thermocouple. This ensures compensation of heat losses at the edges of the product and helps to avoid overheating in the center. All infrared panels are assembled at our facility from scratch to the final product. We run multiple tests to make sure they are 100% in line with all the requirements and expectations. Our clients are welcome to attend such tests.

Ceramic Force EIP-2 (380V) infrared heaters for industrial use are designed for indoor and outdoor heating applications to deliver maximum performance and cover large spaces. They do an excellent job at factories, warehouses, workshops, stadiums, big garages and pavilions. 3 models are available with wattages: 5850, 7200 and 9000W. This power is enough to cover 40-100m2 depending on thermal insulation and surrounding temperature. Parabolic arrangement of infrared emitter rows allows you to create a heating zone with a volumetric 55-95 degrees angle. Thus, minimizing energy losses from heat dissipation outside the zone of directed infrared rays. EIP Heating panels can be mounted on a wall or a ceiling. Radiating surface angle can be set from 0 to 60 degrees. Each electric heater has a thermal sensor connected to a three-phase electric power thermostat, which controls the heating process according to the preset temperature.

The Series VTP Multi Range Air Velocity Transmitter can simultaneously display and output Air Velocity, Temperature and Pressure (optional). This is the first product to combine all 3 variables in one transmitter making the VTP an exceptional option for multi-variable measuring. The VTP utilizes an industrial 316 Stainless Steel armored RTD sensor as the thermal air velocity measuring component. Using a fully protected 316 SS sensor drastically extends the life of the air velocity sensor and also makes it insensitive to water, dust or corrosion. The VTP comes standard with a LCD and can simultaneously display air velocity, temperature, and pressure. The VTP is easily configured or adjusted in the field with the digital display and keypad. The Air Velocity Range and Pressure Range are both field adjustable as well as units of measure. Other adjustable parameters include signal dampening and low velocity cut off point.

RC-SPC1K is an thick film technology rain sensor. This device is realized in Allumina (AL2O3) substrate, this material is endowed a big reliability from an electrical thermal point of view. The sensor consists of three parts : 1) Capacitive sensor (Face A) 2) Heater generator 3) Temperature Sensor The Face A is the sensitivity area (capacitiver sensor) this area is exposted to natural agent (rain); In dry condition the value of the capacitor is nominal 100pF, In presence of the rain the capacitance goes to high valued respect the dry contidion; The ratio changing is over 420%, in the table N.1 you can verify the capacitance change characteristics. On Face B is present the heating circuit the temperature sensor (NTC component) and the connection interface (six pads).

NTC, DS18B20, LM35, wire harness, wiring harness, cable assembly,heating sensor thermal sensors,

wire harness, wiring harness, cable assembly heating sensors thermal sensor

For installation into pipes to the protection of vessels and components against stable detonation of flammable liquids and gases. Tested and approved as detonation flame arrester type 4. Approved for all substances of explosion groups IIA1 to IIA with a maximum experimental safe gap (MESG) > 0.9 mm. Bi-directionally working in pipes, whereby an operating pressure of 1.2 bar abs. and an operating temperature of 60 °C must not be exceeded. The installation of the detonation flame arrester into horizontal and vertical pipes is permissible. Provided with one or two temperature sensors (PT 100) the armature is certified against short time burning from one or both sides. If only one thermal sensor is attached, it must be installed into that part of the body from which a fire is expected.

Condumax CLS21D is a robust conductivity sensor for all process and environmental applications. It provides you with precise and reliable measuring values for an optimum process and product quality monitoring. Better still, the sensor features high chemical, thermal and mechanical stability and high durability. Thanks to Memosens digital technology, CLS21D combines maximum process and data integrity with simple operation. It resists corrosion and moisture and facilitates predictive maintenance.

The BTU meter RH33 is used in applications with liquid energy carriers.It calculates the thermal energy of water acc. to EN1434, glycol/water mixtures or other fluids such as thermal oils. Temperature sensor matching using calibrated temperature sensors is done in the device. Potential for cost savings can be shown by using the software available as an accessory. The device has a custody transfer approval and allows bi-directional measurement, e.g. charging/discharging of a heat accumulator.

The microVEGA™ xMR system provides high throughput laser annealing for monolithic magnetic sensor formation. A highly flexible tool configuration, the microVEGA™ xMR can accommodate both Giant Magnetoresistance (GMR) and Tunnel Magnetoresistance (TMR) sensors, as well as easily adjust magnetic orientation, sensor position and sensor dimension—making it an ideal solution for magnetic sensor production. The microVEGA™ xMR uses on-the-fly spot and variable laser energy to provide selective heating of the pinning layer in each sensor in order to “imprint” the intended magnetic orientation. Magnetic field strength and orientation is adjustable by recipe, while high temperature gradients ensure low thermal impact. This allows sensors to be processed directly next to readout electronics as well as closer together, and enables the production of smaller sensors—freeing up space for processing more devices per wafer.