The product
Magnetostrictive technology
A low-energy pulse, generated by the JUPITER electronics, travels the length of the magnetostrictive wire. A return signal is generated from the precise location where the magnetic field of a float intersects the wire. A timer precisely measures the elapsed time between the generation of the pulse and the return of the acoustic signal. Each cycle occurs ten times per second, providing real-time and highly accurate level data.
Features
- 4-button user interface and graphical LCD display provide enhanced depth of data, indicating on-screen waveforms and troubleshooting tips.
- 4-20 mA output
- Rotatable housing can be dismantled without depressurising the vessel via “Quick connect/disconnect” probe coupling.
- Ergonomic dual compartment enclosure
- Simple set-up and configuration
- Smart Probe Technology
- Easy attachment to an MLI
- Direct insertion for a wide variety of vessels and applications
Options
- HART® digital communications
- Hastelloy® or Monel® materials of construction
- Threaded or flanged process connections
- External Jupiter models can be top or bottom mounted to an MLI
Operating principle
Jupiter operates on the Time-of-Flight principle. A low energy pulse, initiated by the transmitter electronics, travels the length of the magnetostrictive wire 10 times per second. A return signal is generated from the precise location where the magnetic field of a float intersects the wire, resulting in a mechanical wave response. A timer precisely measures the elapsed time from the generation of the pulse and the moment each return wave is captured by a piezoelectric sensor.
Approvals
| ATEX | Ex d, Ex ia, Ex n, NI |
| CCOE | |
| CSA | XP, IS, NI |
| FM | XP, IS, NI |
| EAC (GOST) | Ex d, Ex ia, Metrology |
| IEC | Ex d, Ex ia, Ex n, EX t |
| Inmetro | Ex d, Ex ia |
| Korea | Ex ia |
| NEPSI | CPA |
| SIL | SIL 1/2 (1oo1) |
Other approvals are available. Consult factory for more details.
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