Water-cooled absolute pressure sensor, M14 x 1,25, for high temperature gas pressure measurement, pressure range 0 … 5 bar, cable length 0.5 m / 4049B05DS1-0,5

Water-cooled absolute pressure sensor, M14 x 1,25, for high temperature gas pressure measurement, pressure range 0 … 5 bar, cable length 0.5 m
4049B05DS1-0,5
18027218
  • Sensor with rugged design for exhaust pressure measurement, for temperatures in excess of 1100°C
  • Compact size
  • Digital temperature compensation
  • Media-separated measuring element
Upon request
On request
Measuring ranges
Maximum measuring range [bar]
Maximum pressure value you want to measure.
5 bar
Product type
Pressure sensor type
Universal dynamic Pressure
Metrological characteristics
Linearity
Linearity represents the maximum deviation/error between ideal and actual output signal characteristics in relation to the measurand in a specific measuring range. It is expressed in percentage of the range of measurement signal (Full Scale Output).
≤±0.1 %FSO
Electrical properties
Output signal type
Voltage or Current (Piezoresistive, PR)
Dynamical properties
Natural frequency
60 kHz
Certificates and Standards
Certification
none
Operation and installation
Minimal operating temperature [°C]
Minimal static operating temperature.
0 °C
Maximum operating temperature [°C]
Maximum static operating temperature.
120 °C
Compensated temperature range
0 … 80 °C
Applications
Combustion measurement analysis
Cable properties
Cable included
Yes - fixed cable
Dimensions and materials
Mounting size
14 mm
Predefined cable length
0.5 m
The piezoresistive pressure sensors of Type 4049B with integrated water cooling are capable of continuous high-temperature operation. Available in absolute pressure ranges of 5 and 10 bar it is designed for use in various applications but specifically for exhaust pressure measurement without the use of additional water-cooled adapters. These pressure transducers use a Wheatstone bridge implanted in a silicon measuring element to generate an electrical signal, which is proportional to the applied pressure. The measuring element is situated in an oil-filled cavity seperated by a steel diapraghm. This core element is placed within a cooling jacket whereby the internal temperature can be suitably managed and is nearly independent of the applied hot gases. This approach allows the sensor to be exposed to gas temperatures in excess of 1100°C. Due to constant water cooling thermal effects are minimized. Therefore, the overall accuracy is improved. Further performance improvements are achieved using digital compensation, which reduces thermal effect to a minimum without sacrificing signal bandwidth. The digital compensation technique further allows monitoring of the sensor temperatures (with amplifiers of Types 4665B and 4624A).
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