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Need help?Do you have a question about the ANALYTICAL FLOW TECHNOLOGIES DENSITRAK D625 and is the answer not in the manual?
General| Power Supply | 24 VDC |
|---|---|
| Housing Material | Stainless Steel |
| Protection Rating | IP67 |
| Pressure Range | Up to 100 bar |
| Output | 4-20 mA |
| Process Connection | Flange, Threaded |
| Temperature Range | -40°C to +150°C |
Lists critical safety warnings regarding system pressure, material compatibility, explosion, electrical hazards, and environment.
Provides essential operational guidelines for installation, process fluids, and transportation of the meter.
Formula for calculating density based on oscillation frequency, uncorrected for temp/pressure.
Formula for calculating density adjusted for fluid temperature using correction coefficients.
Formula for calculating density adjusted for both temperature and pressure using coefficients.
Offers a checklist of key items for planning a successful meter installation, covering performance and safety aspects.
Displays the dimensional specifications of the DENSITRAK D625 meter as viewed from the top.
Explains how to connect output signals (4-20mA, Frequency) and grounds to the meter's terminal blocks.
Details the wiring for establishing RS232 communication with the meter, connecting to specific terminal block pins.
Outlines the connections required for RS485 communication, specifying terminal block pins for data and ground.
Explains how to connect external temperature signals (4-20mA, Loop Type) to the meter's terminal blocks.
Details how to connect external pressure signals (4-20mA, Loop Type) to the meter's terminal blocks.
Instructions on how to properly close the electrical enclosure after all wiring is completed, before applying power.
Details the procedure for easy removal of the D625 meter for periodic cleaning and maintenance using ball valves.
Provides a step-by-step guide for cleaning the D625 meter, including resonant tubes and flange face.
Identifies conditions where the density meter consistently displays inaccurate readings, necessitating field calibration.
Provides a practical example of how to perform a Ko density coefficient adjustment to correct for an error offset.
