Siemens
ÑÐÅÄÑÒÂÀ ÏÐÎÌÛØËÅÍÍÎÉ ÀÂÒÎÌÀÒÈÇÀÖÈÈ
îôèöèàëüíûé ïàðòíåð Ñèìåíñ
Êàòàëîã ÑÀ01 2018
(4872) 700-366
skenergo@mail.ru

Flowmeter Calibration and traceability

To ensure continuous accurate measurement, flowmeters must be calibrated. The calibration is conducted at Siemens flow facilities with traceable instruments referring directly to the physical unit of measurement according to the International System of Units (SI).

Therefore, the calibration certificate ensures recognition of the test results worldwide, including the US (NIST traceability).

Siemens offers accredited calibrations assured to ISO 17025 in the flow range from 0.0001 m³/h to 10 000 m³/h.

The calibration follows the ISO 4185 performing calibrations under two methods: Static Weighing and Reference meter. Providing a measurement uncertainty of ±0.1 %.

Siemens Flow Instruments accredited laboratories are recognized by ILAC MRA (International Laboratory Accreditation Corporation - Mutual Recognition Arrangement) ensuring international traceability and recognition of the test results worldwide.

A calibration certificate is shipped with every sensor and calibration data are stored in the SENSORPROM memory unit.

Flowmeter uncertainty
Calibration reference conditions

Reference conditions (ISO 9104 and DIN EN 29104)

Temperature medium

20 °C ± 10 K (68 °F ± 18 °F)

Temperature ambient

25 °C ± 10 K (77 °F ± 18 °F)

Supply voltage

Un ± 1 %

Warming-up time

30 minutes

Incorporation in conductive pipe section

 
  • Inlet section

10 x DN (DN â‰¤ 1200/48")

5 x DN (DN > 1200/48")

  • Outlet section

5 x DN (DN â‰¤ 1200/48")

3 x DN (DN > 1200/48")

Flow conditions

Developed flow profile

Additions in the event of deviations from reference conditions

Current output

As pulse output (± 0,1 % of actual flow +0,05 % FSO)

Effect of ambient temperature

 
  • Display frequency/pulse output

< ± 0,003 %/K act.

  • Current output

< ± 0,005 %/K act.

Effect of supply voltage

< 0,005 % of measuring value on 1 % change

Repeatability

± 0,1 % of actual flow for v â‰¥ 0,5 m/s (1.5 ft/s) and conductivity > 10 Î¼S/cm

Certificates

  • EN 10204-2.1

Certificate of conformity, stating that the delivered parts are made of the material quality that was ordered. Available as Z option C15.

  • EN 10204-2.2

Test report certificate, a non batch specific material analysis of the ordered material. Available as Z option C14.

  • EN 10204-3.1

Material analysis certificate, a batch specific analysis of the material issued by an independent inspector.
Certification covers all pressure containing and wetted parts. Available as Z option C12.



Technical specifications PROFIBUS PA/DP

General specifications

 

PROFIBUS device profile

3.00 Class B

Certified

No

MS0 connections

1

MS1 connections

1

MS2 connections

2



Electrical specification DP

Physical layer specifications

 

Applicable standard

IEC 61158/EN 50170

Physical Layer (Transmission technology)

RS 485

Transmission speed

≤ 1.5 Mbits/s

Number of stations

Up to 32 per line segment, (maximum total of 126)

Cable specification ( Type A)

 

Cable design

Two-wire twisted pair

Shielding

CU shielding braid or shielding braid and shielding foil

Impedance

35 up to 165 Î© at frequencies from 3 â€¦ 20 MHz

Cable capacity

< 30 pF per meter

Core diameter

> 0,34 mm2, corresponds to AWG 22

Resistance

< 110 Î© per km

Signal attenuation

Max. 9 dB over total length of line section

Max. bus length

200 m at 1500 kbit/s, up to 1.2 km at 93.75 kbit/s. Extendable by repeaters



Electrical specification PA

Physical layer specifications

 

Applicable standard

IEC 61158/EN 50170

Physical Layer (Transmission technology)

IEC-61158-2

Transmission speed

31.25 Kbits/second

Number of stations

Up to 32 per line segment, (maximum total of 126)

Max. basic current [IB]

14 mA

Fault current [IFDE]

0 mA

Bus voltage

9 â€¦ 32 V (non Ex)

Preferred cable specification ( Type A)

 

Cable design

Two wire twisted pair

Conductor area (nominal)

0,8 mm2 (AWG 18)

Loop resistance

44 Î©/km

Impedance

100 Î© ± 20 %

Wave attenuation at 39 kHz

3 dB/km

Capacitive asymmetry

2 nF/km

Bus termination

Passive line termination at both

Max. bus length

Up to 1,9 km. Extendable by repeaters

IS (Intrinsic Safety) data

 

Required sensor electronics

Compact or remote mounted SITRANS F M MAG 6000 I Ex

FISCO

YES

Max. UI

17,5 V

Max. II

380 mA

Max. PI

5,32 V

Max. LI

0 Î¼H

Max. CI

0 nF

FISCO cable requirements

 

Loop resistance RC

15 â€¦ 150 Î©/km

Loop inductance LC

0,4 â€¦ 1 mH/km

Capacitance CC

80 â€¦ 200 nF/km

Max. Spur length in IIC and IIB

30 m

Max. Trunk length in IIC

1 km

Max. Trunk length in IIB

5 km



PROFIBUS parameter support

The following parameters are accessible using a MS0 relationship from a Class 1 Master.
MS0 specifies cyclic Data Exchange between a Master and a Slave.

Cyclic services:

  

Input (Master view)

Parameter

MAG 6000/MAG 6000 I

 

Mass flow

 
 

Volume flow

✓

 

Temperature

 
 

Density

 
 

Fraction A

 
 

Fraction B

 
 

Pct Fraction A

 
 

Totalizer 1

✓

 

Totalizer 21)

✓

 

Batch progress1)

✓

 

Batch setpoint

✓

 

Batch compensation

✓

 

Batch status (running …)

✓

Output (Master view)

Set Totalizer 1+2

✓

 

Set Mode Totalizer 1+2

✓

 

Batch control
(start, stop â€¦)

✓

 

Batch setpoint

✓

 

Batch compensation

✓



1) Value returned is dependent on the BATCH function.

When ON, Batch progress is returned.

When OFF, TOTALIZER 2 is returned.

Flow and speed chart

Metric

Sizing table (DN 2 â€¦ DN 2000)

The table shows the relationship between flow velocity v, flow quantity Q and sensor dimension DN.

Guidelines for selection of sensor

Min. measuring range: 0 â€¦ 0.25 m/s

Max. measuring range: 0 â€¦ 10 m/s

Normally the sensor size is selected so that nominal flow velocity v lies within the measuring range 1 to 3 m/s.

Example:

Flow quantity of 50 m3/h and a sensor dimension of DN 80 gives a flow velocity of 2.7 m/s, which is within the recommended measuring range of 1 to 3 m/s.

Flow velocity calculation formula

Units

v = 1273.24 · Q/DN2 or

v: [m/s], Q: [l/s], DN: [mm]

v = 353.68 · Q/DN2

v: [m/s], Q: [m³/h], DN: [mm]



Link to "Sizing program":
https://pia.khe.siemens.com/index.aspx?nr=11501

Imperial

Sizing table (1/12" â€¦ 78")

The table shows the relationship between flow velocity v, flow quantity Q and sensor dimension size.

Guidelines for selection of sensor

Min. measuring range: 0 â€¦ 0.8 ft/s

Max. measuring range: 0 â€¦ 33 ft/s

Normally the sensor size is selected so that nominal flow velocity v lies within the measuring range 3 to 10 ft/s.

Example:

Flow quantity of 500 GPM and a sensor dimension of 6" gives a flow velocity of 5.6 ft/s, which is within the recommended measuring range of 3 to 10 ft/s.

Flow velocity calculation formula

Units

v = 0.408 · Q/(Pipe I.D.)2 or

v: [ft/s], Q: [GPM], Pipe I.D.: [inch]

v = 283.67 · Q/(Pipe I.D.)2

v: [ft/s], Q: [MGD], Pipe I.D.: [inch]



Link to "Sizing program":
https://pia.khe.siemens.com/index.aspx?nr=11501

Installation conditions

Vibrations

Strong vibrations should be avoided.

In applications with strong vibrations, remote mounting of the transmitter is recommended.

The sensor must always be completely filled with liquid.

Install in pipelines which are always full

The sensor must always be completely filled with liquid. Therefore avoid:

  • Installation at the highest point in the pipe system
  • Installation in vertical pipes with free outlet

Do not install in pipelines which can run empty

For partially filled pipes or pipes with downward flow and free outlet the flowmeter should be located in a U‑Tube.

Install in U-tubes when pipe is partially filled

Installation in vertical pipes

Recommended flow direction: upwards. This minimizes the effect on the measurement of any gas/air bubbles in the liquid.

Install in vertical pipes with upward flow direction

Installation in horizontal pipes

The sensor must be mounted as shown in the below figure. Do not mount the sensor as shown in the lower figure. This will position the electrodes at the top where there is possibility for air bubbles and at the bottom where there is possibility for mud, sludge, sand etc.

Measuring abrasive liquids and liquids containing particles

Recommended installation is in a vertical/inclined pipe to minimize the wear and deposits in the sensor.

Install in vertical pipelines with upward flow direction if measuring abrasive liquids

Inlet and outlet conditions

Recommended straight pipe lengths up and downstream for installations between elbows, pumps and valves

To achieve maximum accurate flow measurement it is essential to have straight pipe lengths up and downstream. Practical experience has proved that the MAG 5100 W and MAG 8000 are capable to operate in non-optimal piping arrangements and still provide acceptable accuracy even with zero diameters upstream and downstream of straight run pipe.

It is also important to center the flowmeter in relation to pipe flange and gaskets.

Ambient temperature-Installation

Temperature changes can cause expansion or contraction in the pipe system. To avoid damage on the sensor use of proper gasket and torque should be ensured. For more information see sensor instruction.

Potential equalization

Potential equalization

The electrical potential of the liquid must always be equal to the electrical potential of the sensor. This can be achieved in different ways depending on the application:

  • Wire jumper between sensor and adjacent flange (MAG 1100, MAG 3100)
  • Direct metallic contact between sensor and fittings (MAG 1100 F)
  • Built-in grounding electrodes (MAG 3100, MAG 5100 W)
  • Optional grounding/protection flanges/rings (MAG 1100, MAG 3100, MAG 8000)
  • Optional graphite gaskets on MAG 1100 (standard for MAG 1100 High Temperature)
  • MAG 8000 installed in plastic or coated pipes: two grounding rings to be used.

Grounding

MAG 3100 and MAG 5100 W: with grounding electrodes in conductive and non-conductive pipes (no further action necessary)

MAG 1100 and MAG 3100; without grounding electrodes in conductive pipes (MAG 1100 use graphite gasket)

Without grounding electrodes in non-conductive pipes use grounding ring(MAG 1100 use graphite gasket)

MAG 1100 F grounding via process connections. MAG 8000 grounding see MAG 8000 pages.

Vacuum

In order to prevent damages of liner when operating meters under vacuum please take note of the information "Operating pressure" given in section "Technical specification".

Installation in large pipes

Reduction in nominal pipe diameter

The flowmeter can be installed between two reducers (e.g. DIN 28545). Assuming that at 8° the following pressure drop curve applies. The curves are applicable to water.

Pressure drop as function of diameter reduction between reducers

Example:

Flow velocity (v) of 3 m/s (10 ft/s) in a sensor with a diameter reduction DN 100 (4") to DN 80 (3") (d1/d2 = 0.8) gives a pressure drop of 2.9 mbar (0.04 psi).

Ambient temperature

Max. ambient temperature as a function of temperature of medium

The transmitter can be installed either compact or remote.

With compact installation the temperature of medium must be according to the graph.

Sensor cables and conductivity of medium

Compact installation:

Liquids with an electrical conductivity ≥ 5 Î¼S/cm.

Remote installation

Minimum conductivity of medium (using standard electrode cable)

Minimum conductivity of medium (using special electrode cable)

Empty pipe detection

The installation has to fulfill the following limitations for usage of the empty pipe detection function:

  • media conductivity ≥ 20 μS/cm
  • length of cable at remote installation ≤ 50 m (150 ft)
  • special shield cable must be used

Note for MAG 1100 sizes DN 2 and DN 3:

  • empty pipe detection is not available
  • the media conductivity must be ≥ 30 μS/cm

Note for MAG 5000/6000 CT:

  • empty pipe detection is not available
















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