kaidi KDT800-3051DR monocrystalline silicon micro differential pressure sensor

Product Overview

KDT800-3051DR monocrystalline silicon micro differential pressure transmitter adopts high-end monocrystalline silicon sensor chip, suspended structure design, with superb overpressure performance and excellent stability. The product can accurately measure the differential pressure and convert it into 4-20mA signal output. The product can be operated locally by three buttons or remotely by universal hand manipulator and configuration software.

Product Features

High accuracy: Differential pressure (flow) transmitter can measure with high accuracy in the measurement range of -1~1kPa, and can be compressed up to -50~50Pa for stable use.

    ● Standard calibration range accuracy

 Standard calibration range accuracy of 0.1%, superior overpressure performance (standard 1kPa range back overpressure up to 1MPa) (standard 6kPa range back overpressure up to 2MPa)

    Excellent overpressure performance (standard 1kPa range backpressure up to 1MPa) (standard 6kPa range backpressure up to 2MPa)

 Excellent environmental adaptability, intelligent static pressure compensation and temperature compensation, to protect the transmitter from temperature, static pressure and overpressure, the comprehensive measurement error in the field to a minimum.

    ● Excellent environmental adaptation, intelligent static pressure compensation and temperature compensation

 ● Flexible range compression: S1 range ratio: 3:1; S2 range ratio: 3:1.

 ● Operability and convenience: 5-digit LCD digital display with backlight, multiple units selectable (mA, Pa, Kpa, Mpa, bar, mbar, mbar, %,

    psi, mmH2O), quick operation with on-site key functions, various corrosion-resistant materials, and comprehensive self-diagnostic functions.

 ● Intelligent HART fieldbus protocol

Technical parameters

external structure

Detailed description

1. Product breakdown charts

2. High-end monocrystalline silicon cores

3. Temperature automatic compensation, to solve the sensor temperature drift phenomenon

4. Standard HART protocol

Electrical Connection Methods