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MAGFLO 1100 electromagnetic flow sensor

MAGFLO 1100 electromagnetic flow sensor
1100 electromagnetic flow sensor
Siemens MAGFLO
SITRANS F M MAG 1100 F electromagnetic sensor designed to meet the needs of the food and beverage industry.

Advantages

  • Sensor size: DN 10 to DN 100 (3/8" to 4")
  • AISI 316 stainless steel housing
  • Sensor: hygienic connections, 3A certified and EHEDG certified
  • Hygienic design compliant with CIP/SIP cleaning standards
  • SENSORPROM memory unit automatically updates configuration parameters for easy commissioning
  • Housing protection class IP67/NEMA 4X
  • Patented built-in verifier operates using SENSORPROM signature technology

Application

SITRANS F M electromagnetic sensors are mainly used in the following areas:

  • Food industry
  • Beverage industry
  • Pharmaceutical industry

Design

  • Unique mechanical design with a large number of user-customizable hygienic connections
  • Compact or remote installation, “plug and play”, flexible application
  • Easy on-site upgrade to IP68/NEMA 6P terminal box
  • ATEX 2G D type (ceramic liner) suitable for hazardous areas

Operating mode

The flow measurement principle is based on Faraday's law of electromagnetic induction. The sensor converts the flow signal into a voltage signal proportional to the fluid velocity.

Integration

A complete flowmeter consists of the sensor and the associated SITRANS F M 5000, 6000 and 6000 I transmitters. The flexible communication concept USM II simplifies the integration and upgrade of the flowmeter with many different bus systems. These bus systems include: HART, FOUNDATION Fieldbus H1, DeviceNet, PROFIBUS DP and PA, Modbus RTU/RS 485.

Pressure/temperature curve; material AISI 316L/1.4404

Pressure/temperature curve; material AISI 316L/1.4404

Technical specifications

Measuring principle

Electromagnetic induction

Excitation frequency (power supply: 50 Hz/60 Hz)

DN 10 … 65 (¼" … 2½"):12.5 Hz/15 Hz
DN 80 … 100 (3", 4"):6.25 Hz/7.5 Hz

Process connections

 

Nominal size

DN 10 … DN 100 (3/8" … 4")

Process connections

Hygienic connections are available in the following mounting types:

  • Direct welding to the pipe
  • Clamp fastening
  • Threaded fastening

Rated operating conditions

 

Ambient Conditions

 

Ambient temperature

 
  • Sensor

-40 … +100 °C (-40 … +212 °F)

  • Ex sensor

-20 … +60 °C (-4 … +140 °F)

  • Compact transmitter MAG 5000/6000

-20 … +60 °C (-4 … +140 °F)

  • Compact transmitter MAG 6000 I

-20 … +60 °C (-4 … +140 °F)

  • Compact transmitter MAG 6000 I Ex

-10 … +60 °C (14 … 140 °F)

Medium temperature

 

MAG 1100 F (ceramic)

-20 … +150 ºC (-4 … +302 ºF)
Replaceable steam sterilization

MAG 1100 F (PFA)

-30 … +130 °C (-22 … +266 °F)
150 °C (302 °F) suitable for steam disinfection

Temperature shock

 

MAG 1100 F

 
  • Duration ≤ 1 minute, immediately followed by a 10-minute pause
  • DN 10, 15, 25: max., ΔT ≤ 80 °C/min
    (3/8", ½", 1": max.,  ΔT ≤ 144 °F/min)
  • DN 40, 50, 65: max., ΔT ≤ 70 °C/min
    (1½", 2", 2½": max.,  ΔT ≤ 126 °F/min)
  • DN 80, 100: max.,  ΔT ≤ 60 °C/min
    (3", 4": max.,  ΔT ≤ 108 °F/min)

MAG 1100 F (PFA)

Max. ±100 ºC (212 °F) instantaneous

Operating pressure

 

MAG 1100 F (ceramic)

DN 10 … 65:40 bar (3/8" … 2½":580 psi)
DN 80:25 bar (3":363 psi)
DN 100:25 bar (4":363 psi)

Vacuum: 1 x 10-6 barabs (1.5 x 10-5 psiabs)

MAG 1100 F (PFA)

20 bar (290 psi)

Vacuum: 0.02 barabs (0.3 psiabs)

DN 80 … DN 100:CO2 max. pressure 7 bar (101.5 psi)

Mechanical load (vibration)

18 … 1 000 Hz, random, 2 hours, x, y, z in all directions according to EN 60068-2-36

Sensor: 3.17 g RMS

Sensor with compact MAG 5000/6000 transmitter: 3.17 grms

Sensor with compact MAG 6000 I/MAG 6000 I Ex mounted transmitter: 1.14 grms

For compact mounting of MAG 6000 I/MAG 6000 I Ex, a bracket should be used to support the transmitter to avoid stress on the sensor components.

Housing pressure rating

IP67 according to EN 60529 (NEMA 4X), 1 mH2O, 30 minutes

EMC

2014/30/EU

Design

 

Weight

See dimensional drawing

Material

 

Housing

 
  • MAG 1100 F

Stainless steel AISI 316L/1.4404

Terminal box (remote version)

 
  • Standard

Glass fiber reinforced polyamide

  • Option

Stainless steel AISI 316/1.4436,

  • Ex ATEX (Ex remote version)

Stainless steel AISI 316/1.4436,

Liner

 

MAG 1100 F (ceramic)

Aluminum oxide Al2O3 (ceramic)

MAG 1100 F (PFA)

Reinforced PFA (PTFE) (non-Ex)

Electrodes

 

MAG 1100 F (ceramic)

Platinum and gold/titanium copper alloy

MAG 1100 F (PFA)

  • DN 10 … 15 (3/8" … ½"): Hastelloy C276/2.4819
  • DN 25 … 100 (1" … 4"): Hastelloy C22/2.4602

Cable entries

  • Remote version 2 x M20 or 2 x ½" NPT
  • Compact version
  • MAG 5000/MAG 6000:4 x M20 or 4 x ½″NPT
  • MAG 6000 I:2 x M25 (power/output)
  • MAG 6000I Ex:2 x M25 (power/output)

Certifications and approvals

 

Calibration

 
  • Standard factory calibration

Zero point, 2 x 25 %, 2 x 90 %

Hazardous area

 
  • MAG 1100 F (ceramic)
 
  • Ex sensor with compact transmitter or remote version MAG 6000 I Ex
  • ATEX, EAC Ex
  • Zone 1 Ex d e ia IIB T6 Gb
  • ATEX
  • Zone 21 Ex tD A21 IP67
  • Standard sensor with compact transmitter or remote version MAG MAG 5000/6000/6000 I Ex
  • FM
  • NI Class I, Division 2, Groups A, B, C, D
  • MAG 1100 F (PFA)
 
  • Standard sensor with compact transmitter or remote version MAG MAG 5000/6000/6000 I Ex
  • FM
  • NI Class I, Division 2, Groups A, B, C, D

Hygienic

 
  • MAG 1100 F (ceramic)
  • 3A (terminal with polyamide terminal box)
  • MAG 1100 F (PFA)
  • 3A (terminal with polyamide terminal box)
  • EHEDG (terminal with polyamide terminal box, DN 25 ... 100 /1 ... 4")
  • European food-grade contact materials compliant with EC 1935:2004 hygiene standard

Pressure equipment

PED - 2014/68/EU

Other

  • EAC (Russia, Belarus, Kazakhstan)
  • KCC (South Korea)


 

Accessories

Welding adapter

 

Connection for direct welding to dairy pipes, stainless steel 1.4404

Tri-Weld ISO 2037, DIN 11850, SMS 3008, BS 4825‑1

  • DN 10, 15, 25, 40, 50 and 65 (3/8", ½", 1", 1½", 2" and 2½")

PN 40 (600 psi)

  • DN 8 and DN 100 (3" and 4")

PN 25 (350 psi)

Clamp connection

Tri-Clamp, ISO 2852, DIN 32676, SMS 3016, BS 4825‑3

DN 10, 15, 25, 40 and 50 (3/8", ½", 1", 1½" and 2")

PN 16 (200 psi)

DN 65, 80 and 100 (2½", 3" and 4")

PN 10 (150 psi)

Threaded connection

 

DIN 11851

 
  • DN 10, 15, 25, and 40 (3/8", ½", 1", and 1½")

PN 40 (600 psi)

  • DN 50, 65, 80 and 100 (2", 2½", 3" and 4")

PN 25 (350 psi)

ISO 2853, BS 4825-4

 
  • DN 10, 15, 25, 40, 50, 65 and 80 (3/8", ½", 1", 1½", 2", 2½" and 3")

PN 16 (200 psi)

SMS 1145

 
  • DN 25, 40, 50, 65 and 80 (1", 1½", 2", 2½" and 3")

PN 6 (80 psi)

Design

 

Material

 

Adapter

Stainless steel AISI 316/1.4436,

Gasket

 
  • MAG 1100 F (ceramic)

FKM/FPM with stainless steel insert (AISI 304/1.4301) (‑20 … +150 °C (-4 … +302 °F))

EPDM (-20 … +150 °C (-4 … +302 °F))

  • MAG 1100 F (PFA)

EPDM (-20 … +150 °C (-4 … +302 °F))

NBR (-20 … +100 °C (-4 … +212 °F))


 

Note:

When the connection is attached to the sensor, the operating pressure is lower than the pressure allowed for the connection.

Dimensional drawing

Sensor MAG 1100 F, compact/remote version

Dimensions in: [mm]

Important note: For compact mounting with MAG 6000 I/Ex – the transmitter must be supported to avoid sensor stress.

Size
DN

L
[mm]

A
[mm]

A1 3)
[mm]

B 2)
[mm]

B1
[mm]

D
[mm]

Di (Al2O3)
[mm]

Di PFA
[mm]

Weight 1)
[kg]

10

64

161

315

193.7

344.7

64.0

10

10

2.2

15

64

161

315

193.7

344.7

64.0

15

16

2.2

25

79

169

323

207.5

359.0

77.5

25

26

2.7

40

94

179

333

228.0

379.0

91.0

40

38

3.4

50

104

188

342

247.7

398.7

119.0

50

50

4.2

65

131

197.5

351

262.6

413.6

130.0

65

66

5.5

80

156

204

357

281.0

432.0

155.0

80

81

7.0

100

186

217

370

308.0

459.0

183.0

100

100

10.0


 

Size
[inch]

L
[inch]

A
[inch]

A1 3)
[inch]

B 2)
[inch]

B1
[inch]

D
[inch]

Di (Al2O3)
[inch]

Di PFA
[inch]

Weight 1)
[lb]

3/8

2.52

6.34

12.40

7.62

13.57

2.52

0.39

0.39

4.8

½

2.52

6.34

12.40

7.62

13.57

2.52

0.59

0.63

4.8

1

3.11

6.66

12.72

8.17

14.13

3.05

0.98

1.02

4.9

1½

3.70

7.05

13.11

8.98

14.92

3.58

1.57

1.50

7.5

2

4.09

7.40

13.47

9.75

15.70

4.68

1.97

1.97

9.2

2½

5.16

7.78

13.82

10.34

16.28

5.12

2.56

2.60

12.0

3

6.14

8.03

14.06

11.06

17.01

6.10

3.15

3.19

15.0

4

7.32

8.54

14.57

12.13

18.07

7.20

3.94

3.94

22.0


 

1) When the MAG 5000 or MAG 6000 compact transmitter is installed, the weight increases by approx. 0.8 kg (1.8 lb),
when the MAG 6000 I transmitter is installed, the weight increases by approx. 5.5 kg ( 12.1 lbs).

2) When a stainless steel terminal box is used, the length is reduced by 14.5 mm (0.571") (always Ex version)

3) A2 is 3 mm (0.12") shorter than A1

MAG 1100 F sensor compact/remote — Insertion length

Size

A

L 1)

DN

Inch

[mm]

[inch]

[mm]

[inch]

10

3/8

99

3.90

146

5.75

15

½

99

3.90

146

5.75

25

1

113

4.45

161

6.34

40

1½

126

4.96

176

6.93

50

2

154

6.06

186

7.32

65

2½

165

6.50

223

8.78

80

3

200

7.87

258

10.16

100

4

225

8.86

288

11.34

1) The total insertion length “L” is independent of the selected connection type.

Source:Siemens website public information

Municipal Wastewater Treatment

Municipal Wastewater Treatment · Electromagnetic flow meter — Application Case

Site Conditions

This is a Municipal Wastewater Treatment customer whose plant is at the inlet, biological and outlet stages of a municipal plant. The main task was volumetric flow of conductive liquids.

The Problem

The difficulty lies in high solids and corrosive fractions, with large diurnal flow swings; at the same time effluent parameters drift and probes foul with sludge and biofilm. Specification therefore means choosing liner and electrode pairing by conductivity, solids and abrasion.

What We Did

We took a flow range approach — flow solution matched to line size, medium and range. Delivery was built around choosing liner and electrode pairing by conductivity, solids and abrasion, with point-by-point checks on: stable compliance with Grade 1A discharge limits and online data reporting.

Operating Outcome

In service the system performs as intended — no obstruction, so pressure loss is minimal and upkeep low, with routine maintenance falling noticeably.

Food & Beverage

Food & Beverage · Electromagnetic flow meter — Application Case

Application Context

dosing, pasteurising, filling and CIP stages is a typical Food & Beverage duty. The project started from Electromagnetic flow meter, focusing on volumetric flow of conductive liquids.

Process Constraints

frequent cleaning demands instruments that withstand hot CIP/SIP caustic cycles, and syrups, dairy and beverages that scale easily, under strict hygienic requirements only amplify it. The Electromagnetic flow meter specification must therefore cover choosing liner and electrode pairing by conductivity, solids and abrasion.

Delivery Approach

Delivery was handled as the flow range — flow solution matched to line size, medium and range. Execution centred on choosing liner and electrode pairing by conductivity, solids and abrasion, together with food-safety and hygienic design per 3-A / EHEDG.

Field Results

Operation shows the benefit clearly — no obstruction, so pressure loss is minimal and upkeep low, with confidence in this measuring point improving markedly.

Chemical & Pharmaceutical

Chemical & Pharmaceutical · Electromagnetic flow meter — Application Case

Customer Profile

The typical setting in Chemical & Pharmaceutical is reactors, metering vessels and finished-product tanks. The measuring point is Electromagnetic flow meter; the focus is volumetric flow of conductive liquids.

Key Difficulties

Conditions are highly corrosive media with solvents and crystallisation, partly in explosive atmospheres and, on top of that, corrosion plus Ex protection shortens instrument life and makes downtime costly, which a standard configuration cannot handle for long. The design therefore starts with choosing liner and electrode pairing by conductivity, solids and abrasion.

Implementation

The scope ran through the flow range: flow solution matched to line size, medium and range. Technically it hinges on choosing liner and electrode pairing by conductivity, solids and abrasion, and on these requirements: Ex certification and GMP traceability of records.

Customer Benefit

In practice this means no obstruction, so pressure loss is minimal and upkeep low, which cut the workload on the site maintenance team.

Power & Energy

Power & Energy · Electromagnetic flow meter — Application Case

Project Background

The project covers boiler feedwater, turbine condensate and FGD/DeNOx systems. The work centres on Electromagnetic flow meter and the core task is volumetric flow of conductive liquids.

Operating Challenges

The medium and duty are characterised by high temperature and pressure with both steam and saline water, and drift under high temperature and pressure, with very costly unplanned outages. So Electromagnetic flow meter cannot be specified generically — it calls for choosing liner and electrode pairing by conductivity, solids and abrasion.

Solution

The Ainstru engineering team worked through the flow range: flow solution matched to line size, medium and range. The configuration involves choosing liner and electrode pairing by conductivity, solids and abrasion, with these requirements in view: compliance with power-industry codes and unit availability targets.

Results

Since start-up the system has run steadily; the practical result is no obstruction, so pressure loss is minimal and upkeep low.