The Coriolis measuring principle is used in a wide range of different branches of industry, such as the life sciences, chemicals, petrochemicals, oil and gas, food, and – no less importantly – in custody transfer applications. Coriolis flowmeters can measure virtually all fluids: cleaning agents, solvents, fuels, crude oil, vegetable oils, animal fats, latex, silicon oils, alcohol, fruit solutions, toothpaste, vinegar, ketchup, mayonnaise, gases or liquefied gases.
The flowmeter has premium accuracy and robustness. It also has an ultra-compact transmitter.
Predecessor model: Promass 80F, Promass 83F
Max.
measurement error
Mass flow (liquid): ±0.1 % (standard), 0.05 %
(option)
Volume flow (liquid): ±0.1 %
Mass flow (gas): ±0.25 %
Density (liquid): ±0.0005 g/cm³
Measuring
range
0 to 2,200,000 kg/h (0 to 80,840 lb/min)
Medium
temperature range
Standard: –50 to +150 °C (–58 to +302 °F)
Option: –50 to +240 °C (–58…+464 °F)
Max.
process pressure
PN 100, Class 600, 63K
Wetted
materials
Measuring tube: 1.4539 (904L); 1.4404
(316/316L); Alloy C22, 2.4602 (UNS N06022)
Connection: 1.4404 (316/316L); Alloy C22, 2.4602 (UNS
N06022)
The ultimate flowmeter provides premium accuracy, robustness and an easily accessible compact transmitter.
Predecessor model: Promass 80F, Promass 83F, Promass 84F
Max. measurement
error
Mass flow (liquid): ±0.10 % (standard), 0.05 %
(option)
Volume flow (liquid): ±0.10 %
Mass flow (gas): ±0.25 %
Density (liquid): ±0.0005 g/cm³
Measuring range
0 to 2,200,000 kg/h (0 to 80,840 lb/min)
Medium
temperature range
Standard: –50 to +150 °C (–58…+302 °F)
Option: –50 to +240 °C (–58…+464 °F)
High temperature option: –50 to +350 °C
(–58…+662 °F)
Option: –196 to +150 °C (–320 to +302 °F)
Max. process
pressure
PN 100, Class 600, 63K
Wetted materials
Measuring tube: 1.4539 (904L); 1.4404
(316/316L); Alloy C22, 2.4602 (UNS N06022)
Connection: 1.4404 (316/316L); Alloy C22,
2.4602 (UNS N06022); 1.4301 (F304)
The ultimate flowmeter provides premium accuracy, robustness and works as a remote version with up to 4 I/Os
Predecessor model: Promass 80F, Promass 83F, Promass 84F
Max. measurement
error
Mass flow (liquid): ±0.10 % (standard), 0.05 %
(option)
Volume flow (liquid): ±0.10 %
Mass flow (gas): ±0.25 %
Density (liquid): ±0.0005 g/cm³
Measuring range
0 to 2,200,000 kg/h (0 to 80,840 lb/min)
Medium
temperature range
Standard: –50 to +150 °C (–58…+302 °F)
Option: –50 to +240 °C (–58…+464 °F)
High temperature option: –50 to +350 °C
(–58…+662 °F)
Option: –196 to +150 °C (–320 to +302 °F)
Max. process
pressure
PN 100, Class 600, 63K
Wetted materials
Measuring tube: 1.4539 (904L); 1.4404
(316/316L); Alloy C22, 2.4602 (UNS N06022)
Connection: 1.4404 (316/316L); Alloy C22,
2.4602 (UNS N06022); 1.4301 (F304)
This budget-saving flow meter comes with an ultra-compact transmitter.
Predecessor model: Promass 80E, Promass 83E, Proline Promass E 100 / 8E1B
Max. measurement
error
Mass flow (liquid): ±0.15 % (standard), ±0.10
% (option)
Volume flow (liquid): ±0.15 %
Mass flow (gas): ±0.50 %
Density (liquid): ±0.0005 g/cm³
Measuring range
0 to 180,000 kg/h (0 to 6600 lb/min)
Medium
temperature range
–40 to +150 °C (–40 to +302°F)
Max. process
pressure
PN 100, Class 600, 63K
Wetted materials
Measuring tube: 1.4539 (904L)
Connection: 1.4404 (316/316L)
This budget-friendly Coriolis flowmeter has an easily accessible compact transmitter.
Predecessor model: Promass 80E, Promass 83E
Max. measurement
error
Mass flow (liquid): ±0.15 % (standard), ±0.10
% (option)
Volume flow (liquid): ±0.15 %
Mass flow (gas): ±0.50 %
Density (liquid): ±0.0005 g/cm³
Measuring range
0 to 180,000 kg/h (0 to 6615 lb/min)
Medium
temperature range
–40 to +150 °C (–40 to +302 °F)
Max. process
pressure
PN 100, Class 600, 63K
Wetted materials
Measuring tube: 1.4539 (904L)
The mid-range Coriolis flowmeter is available in a remote version, and has up to 4 I/Os
Predecessor model: Promass 80E, Promass 83E
Max.
measurement error
Mass flow (liquid): ±0.15 % (standard), ±0.10
% (option)
Volume flow (liquid): ±0.15 %
Mass flow (gas): ±0.50 %
Density (liquid): ±0.0005 g/cm³
Measuring
range
0 to 180,000 kg/h (0 to 6615 lb/min)
Medium
temperature range
–40 to +150 °C (–40 to +302 °F)
Max.
process pressure
PN 100, Class 600, 63K
Wetted
materials
Measuring tube: 1.4539 (904L)
Connection: 1.4404 (316/316L)
This innovative specialist flowmeter for complex applications has an easily accessible compact transmitter.
Max. measurement
error
Mass flow (liquid): ±0.10 % (standard), 0.05 %
(option)
Volume flow (liquid): ±0.10 %
Mass flow (gas): ±0.25 %
Density (liquid): +/-0.2 kg/m³ (standard),
+/-0.1 kg/m³ (option)
Measuring range
0 to 2,400,000 kg/h (0 to 88183 lb/min)
Medium
temperature range
Standard: –50 to +205°C (–58 to +401 °F)
Option: –196 to +150 °C (–321 to +302 °F)
Max. process pressure
PN 100, Class 600, 63K
Wetted materials
Measuring tube: 1.4404 (316/316L); stainless
steel for cryogenic applications
Connection: 1.4404 (316/316L)
A combination of in-line viscosity and flow measurement, easily accessible compact transmitter.
Predecessor model: Promass 80I, Promass 83I
Max. measurement
error
Mass flow (liquid): ±0.10 %
Volume flow (liquid): ±0.10 %
Mass flow (gas): ±0.50 %
Density (liquid): ±0.0005 g/cm³
Measuring range
0 to 180,000 kg/h (0 to 6600 lb/min)
Medium
temperature range
–50 to +150 °C (–58 to +302 °F)
Max. process
pressure
PN 100, Class 600, 63K
Wetted materials
Measuring tube: Titanium grade 9
Connection: Titanium grade 2
This easy-to-use flow meter minimizes the total cost of ownership.
Predecessor model: Promass 40E
Max. measurement
error
Mass flow (liquid): ±0.5 % (standard), ±0.15 %
(option)
Mass flow (gas): ±0.75 %
Measuring range
0 to 180,000 kg/h (0 to 6615 lb/min)
Medium
temperature range
–40 to +150 °C (–40 to +302 °F)
Max. process
pressure
PN 40, Class 300, 40K
Wetted materials
Measuring tube: 1.4539 (904L)
Connection: 1.4404 (316/316L)
Each Coriolis flowmeter has one or more measuring tubes which an exciter causes to oscillate artificially. As soon as the fluid starts to flow in the measuring tube, additional twisting is imposed on this oscillation due to the fluid‘s inertia. Two sensors detect this change of the tube oscillation in time and space as the “phase difference.” This difference is a direct measure of the mass flow.
In addition, the fluid density can also be determined from the oscillation frequency of the measuring tubes. The temperature of the measuring tube is also registered to compensate thermal influences. The process temperature derived from this is available as an additional output signal.
Endress + Hauser
Precia Molen
KAYE
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