IFM SM8130 Manual (60 Sider)

Operating instructions

Magnetic-inductive flow meter

SM4x20

SM6x20

SM7x20

SM8x20

SM8x30

SM6x21

SM7x21

SM8x21

SM8x31

80280073 / 03 09 / 2021

UK

2

Contents

1 Preliminary note 4 ��

1�1 Symbols used 5 ��

1�2 Warnings used 5 ��

2 Safety instructions 5 ��

3 Getting started 6 ��

3�1 Device functions with factory setting 6 ��

3�2 Setting options 7 ��

4 Functions and features 7 ��

4�1 Pressure Equipment Directive (PED) 7 ��

4�2 Applications ��7

5 Function ��8

5�1 Process measured signals 8 ��

5�2 Volumetric flow direction 9 ��

5�2�1 Determining the volumetric flow direction [Fdir] 9 ��

5�2�2 Detection of the volumetric flow direction [dir�F] 9 ��

5�3 Consumed quantity monitoring 10 ��

5�3�1 Metering method of the quantity meters �� 11

5�3�2 Meter reset 13 ��

5�3�3 Consumed quantity monitoring via pulse signals 13 ��

5�3�4 Consumed quantity monitoring via switching signal (preset counter) 14 �

5�4 Frequency output 15 ��

5�5 Analogue output 17 ��

5�6 Switching output 19 ��

5�7 Measured value damping 20 ��

5�8 Low flow cut-off 20 ��

5�9 Start-up delay 20 ��

5�10 Simulation ��23

5�11 Colour of the characters in the display 24 ��

5�12 IO-Link ��25

5�12�1 Additional functions via IO-Link 25 ��

6 Installation��26

6�1 Recommended installation position 27 ��

6�2 Non-recommended installation position 27 ��

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6�3 Ground ��28

6�4 Installation in pipes 29 ��

7 Electrical connection 30 ��

8 Operating and display elements 32 ��

9 Menu ��33

9�1 Process value display (RUN) 33 ��

9�2 Main menu 34 ��

9�3 Extended functions EF 35 ��

9�4 Submenu OUT1 and OUT2 36 ��

9�5 Submenu CFG and TOTL ��39

9�6 Submenu MEM and DIS 41 ��

9�7 Submenu COLR and SIM 43 ��

10 Set-up ��45

11 Parameter setting 45 ��

11�1 Parameter setting in general 46 ��

11�1�1 Select submenu 46 ��

11�1�2 Change to the process value display (RUN mode) 46 ��

11�1�3 Locking / unlocking 46 ��

11�1�4 Timeout ��47

11�2 Settings for volumetric flow monitoring 47 ��

11�2�1 Limit monitoring OUT1 or OUT2 / hysteresis function 47 ��

11�2�2 Limit monitoring OUT1 or OUT2 / window function 47 ��

11�2�3 Switching signal volumetric flow direction OUT1 or OUT2 47 ��

11�2�4 Frequency signal volumetric flow OUT1 48 ��

11�2�5 Analogue signal volumetric flow OUT2 48 ��

11�3 Settings for consumed quantity monitoring 48 ��

11�3�1 Metering method of the totalisers 48 ��

11�3�2 Quantity monitoring via pulse output OUT1 48 ��

11�3�3 Quantity monitoring via the preset counter OUT1 49 ��

11�3�4 Manual meter reset 49 ��

11�3�5 Time-controlled meter reset 49 ��

11�3�6 Deactivate meter reset 49 ��

11�3�7 Meter reset via external signal 49 ��

11�3�8 Read consumption values 50 ��

11�4 Settings for temperature monitoring 50 ��

4

11�4�1 Limit monitoring OUT1 or OUT2 / hysteresis function 50 ��

11�4�2 Limit monitoring OUT1 or OUT2 / window function 50 ��

11�4�3 Frequency signal temperature OUT1 50 ��

11�4�4 Analogue signal temperature OUT2 51 ��

11�5 User settings (optional) 51 ��

11�5�1 Menu language 51 ��

11�5�2 Standard display 51 ��

11�5�3 Standard unit of measurement for volumetric flow 52 ��

11�5�4 Standard unit of measurement for temperature 52 ��

11�5�5 Measured value damping 52 ��

11�5�6 Start-up delay 52 ��

11�5�7 Output logic 52 ��

11�5�8 Low flow cut-off 52 ��

11�5�9 Volumetric flow direction 52 ��

11�5�10 Colour of the characters in the display 53 ��

11�5�11 Error behaviour of the outputs��54

11�5�12 Restore factory setting 54 ��

11�6 Diagnostic functions 55 ��

11�6�1 Read min/max values 55 ��

11�6�2 Simulation ��55

12 Operation ��55

13 Troubleshooting ��56

14 Maintenance, repair and disposal 58 ��

15 Factory setting 59 ��

1 Preliminary note

You will find detailed instructions, technical data, approvals and further

information using the QR code on the unit / packaging or at www�ifm�com�

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UK

1.1 Symbols used

►Instruction

> Reaction, result

[…] Designation of keys, buttons or indications

→Cross-reference

Important note

Non-compliance may result in malfunction or interference�

Information

Supplementary note�

1.2 Warnings used

CAUTION

Warning of personal injury�

Slight reversible injuries may result�

2 Safety instructions

• The device described is a subcomponent for integration into a system�

- The manufacturer is responsible for the safety of the system�

- The system manufacturer undertakes to perform a risk assessment and to

create a documentation in accordance with legal and normative requirements

to be provided to the operator and user of the system� This documentation

must contain all necessary information and safety instructions for the operator,

the user and, if applicable, for any service personnel authorised by the

manufacturer of the system�

• Read this document before setting up the product and keep it during the entire

service life�

• The product must be suitable for the corresponding applications and

environmental conditions without any restrictions�

• Only use the product for its intended purpose (→ Functions and features).

• Only use the product for permissible media (→ Technical data).

• If the operating instructions or the technical data are not adhered to, personal

injury and/or damage to property may occur�

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• The manufacturer assumes no liability or warranty for any consequences

caused by tampering with the product or incorrect use by the operator�

• Installation, electrical connection, set-up, operation and maintenance of the

product must be carried out by qualified personnel authorised by the machine

operator�

• Protect units and cables against damage�

3 Getting started

When the unit is used with factory setting the volumetric flow is monitored by

providing a switching signal and an analogue signal�

The process values for volumetric flow and temperature and the meter readings

(current and saved values) as well as error messages can be read from the

display�

All process values and messages are available via the IO-Link interface

irrespective of the output configuration�

A simulation model allows simplified set-up of the sensor�

3.1 Device functions with factory setting

Output OUT1:

• Switching signal for volumetric flow (hysteresis function normally open, PnP,

SP1 and rP1 )→ 15

• Measured value damping 0�6 seconds, no start-up delay and minimal low flow

cut-off

• In case of a fault the output switches OFF

Output OUT2:

• Analogue signal for volumetric flow (measuring range unscaled)

• In case of a fault the analogue signal goes to 3�5 mA

Display:

• Text in English, colour of the characters black/white

• Simultaneous display of current process values for volumetric flow and

temperature and quantity meter

• Low refresh rate, 75 % display brightness

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3.2 Setting options

• Output functions of OUT1 and OUT2 (temperature or volumetric flow;

switching, pulse, frequency, analogue signal, totaliser function)

• Reversal of the volumetric flow direction, monitoring of the volumetric flow

• Response times for volumetric flow measurement (measured value damping,

start-up delay, low flow cut-off)

• Error behaviour of the outputs

• Standard views of the display (unit of measurement, process values, quantity

meter, refresh rate, rotation, brightness, process value-dependent change of

the colour of the characters)

4 Functions and features

The unit monitors liquid media� It detects flow velocity, volume flow (volumetric

flow quantity/time), consumed quantity and medium temperature�

4.1 Pressure Equipment Directive (PED)

The units comply with the Pressure Equipment Directive and are designed and

manufactured for group 2 fluids according to the sound engineering practice�

Use of group 1 fluids on request�

4.2 Applications

Conductive liquids with the following properties:

• Conductivity: ≥ 20 µS/cm

• Viscosity: < 70 mm2/s at 40 °C; < 70 cSt at 104 °F

This is a class A product� This product may cause radio interference in

domestic areas�

►If required, take appropriate EMC screening measures�

8

5 Function

• The unit detects the volumetric flow on the magnetic-inductive volumetric flow

measuring principle�

• As additional process value the unit detects the medium temperature with

volumetric flow�

• The unit has an IO-Link interface�

• The unit displays the current process values�

• The unit has many self-diagnostic options�

• A simulation mode allows simplified set-up of the sensor�

5.1 Process measured signals

The unit generates 2 output signals according to the parameter setting:

OUT1: 9 selection options

- Switching signal for volumetric flow

- Switching signal for temperature

- Switching signal for volumetric flow direction

- Switching signal for preset counter

- Pulse signal for quantity meter

- Frequency signal for volumetric flow

- Frequency signal for temperature

- IO-Link

- OFF (output switched to high impedance)

OUT2: 7 selection options

- Switching signal for volumetric flow

- Switching signal for temperature

- Switching signal for volumetric flow direction

- Analogue signal for volumetric flow

- Analogue signal for temperature

- Input for external meter reset signal (InD)

- OFF (output switched to high impedance)

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5.2 Volumetric flow direction

In addition to the flow velocity and the volumetric flow, the unit also detects the

volumetric flow direction�

5.2.1 Determining the volumetric flow direction [Fdir]

An arrow with the text "flow direction" on the unit indicates the positive flow

direction� The volumetric flow direction can be reversed (→ 11.5.9)�

►Use the supplied label to mark the changed volumetric flow direction

(new positive flow direction)�

Volumetric flow... Process value display

corresponds to the marked volumetric flow direction + (positive)

against the marked volumetric flow direction - (negative)

5.2.2 Detection of the volumetric flow direction [dir.F]

When [dir�F] is activated (→ 11.2.5), the volumetric flow direction is indicated by a

switching signal�

The output is switched on until the volumetric flow falls below the set minimum

volumetric flow quantity in negative flow direction (- LFC)(1)�

Then the following applies:

- The output switches ON when volumetric flow is above + LFC (2)�

- The output switches OFF when volumetric flow is below - LFC (3)�

+ LFC

+ Q

- Q

- LFC

1

0

1 32

Fig� 1: Monitoring of the volumetric flow direction by switching signals

+ Q : Volumetric flow in positive flow direction

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- Q : Volumetric flow in negative flow direction

+ LFC: Minimum volumetric flow (low flow cut-off) in positive flow direction

- LFC : Minimum volumetric flow (low flow cut-off) in negative flow direction

LFC → 5.8 Low flow cut-off

Positive volumetric flow direction = marked flow direction,

with factory setting marked by the arrow on the unit or after change via [Fdir] marked

by the supplied label � (→ 5.2.1)

5.3 Consumed quantity monitoring

The unit has three internal quantity meters (= totalisers)� The totalisers

continuously sum up the consumed quantity and provide three process values via

the parameters [Vol�1], [Vol�2] and [Vol�L]:

Totaliser Process value Read access via IO-Link

Vol�1 totaliser 1 cyclical

Vol�2 totaliser 2 acyclical

Vol�L lifetime totalisator

(= meter reading over the whole lifetime)

acyclical

The totalisers only sum up volumetric flow quantities above the LFC value

→ 5.8 Low flow cut-off�

The metering method of the totalisers Vol�1 and Vol�2 can be set so that

volumetric flow values are either ignored, subtracted or totalled in negative

volumetric flow direction � (→ 5.3.1)

The metering method of Vol�L cannot be set� It totals all volumetric flow

quantities irrespective of the volumetric flow direction�

The process values of the quantity meter (totaliser) can be displayed (→ 11.3.8) or

read via the IO-Link interface�

Pulse signals (pulse output) or a switching signal (preset counter) can be used to

monitor the consumed quantity�

→ 5.3.3 Consumed quantity monitoring via pulse signals

→ 5.3.4 Consumed quantity monitoring via switching signal (preset counter)

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5.3.1 Metering method of the quantity meters

The quantity meters take account of the volumetric flow direction when totalling

the consumed quantity (→ Fig. 2). The following metering methods can be defined

via the parameters [FPro1] and [FPro2]:

[FPro1]

[FPro2]*

Metering method

0+ Negative volumetric flow quantity values (against the marked flow direction)

are not taken into account for totalling�

– + Negative volumetric flow quantity values are subtracted from the consumed

quantity�

++ All volumetric flow quantity values are totalled irrespective of the volumetric

flow direction�

* [FPro1] = metering method for totaliser Vol�1

[FPro2] = metering method for totaliser Vol�2

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+ Q

0

– Q

t

Q

V

FPro1 / FPro2 = – +

0

+ Q

– Q

t

Q

V

FPro1 / FPro2 = 0 +

0

+ Q

– Q

t

Q

V

FPro1 / FPro2 = + +

1 2

Fig� 2: Taking account of the volumetric flow direction when totalling the consumed quantity

+ Q = volumetric flow quantity in positive direction

- Q = volumetric flow quantity in negative direction

V = volumetric flow quantity absolute (= sum of negative and positive volumetric flow)

1

Volumetric flow changes to negative direction

2

Volumetric flow changes to positive direction

When the volumetric flow direction is changed a minimum volumetric flow quantity

is taken into account: - LFC in negative direction; + LFC in positive direction (→

5�2�2)�

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5.3.2 Meter reset

There are different ways to reset the quantity meters�

→ 11.3.4 Manual meter reset

→ 11.3.5 Time-controlled meter reset

→ 11.3.7 Meter reset via external signal

→ Meter reset via the IO-Link interface

If the quantity meter is not reset by applying one of the above-mentioned methods,

an automatic reset is made when the maximum volumetric flow quantity that can

be displayed is exceeded (overflow)�

The total meter reading [Vol�L] cannot be reset�

The meter saves the totalled volumetric flow quantity every few seconds�

After a power failure this value is available as the current meter reading� If a

time-controlled reset is set, the elapsed time of the set reset interval is also

saved� This means that the possible data loss can amount to a maximum of

a few seconds�

5.3.3 Consumed quantity monitoring via pulse signals

Every time the volumetric flow quantity (pulse value) set under [ImPS] has been

reached, the output provides a pulse signal� The pulse signal consists of a short

switching on and off of the output� The switching status LEDs on the unit do not

display the switching operation�

Pulse signals are not available via the IO-Link interface�

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5.3.4 Consumed quantity monitoring via switching signal (preset counter)

When the volumetric flow quantity set under [ImPS] has been reached, the output

provides a switching signal� The output remains switched until the meter reset�

After a totaliser reset metering starts again�

The accuracy of the consumed quantity measurement depends on the

accuracy of the volumetric flow measurement�

By setting [rTo1] it is set when the output switches and when the totaliser Vol�1 is

reset:

[rTo1] Output Meter reset

OFF • The output switches when the

volumetric flow quantity set

under [ImPS] is reached�

• The output remains switched

until the meter reset�

• The preset counter is reset

- when a manual reset is made (→

11�3�4) or

- when the maximum display range is

exceeded (overflow)�

1, 2,�� h

1, 2,�� d

1, 2,�� w

• The output switches only when

the volumetric flow quantity set

under [ImPS] is reached within

the set time�

• The output remains switched

until the meter reset�

• If the output is not switched the preset

counter is reset when the set time is

exceeded�

• If the output is switched, the preset

counter is only reset

- when a manual reset is made (→

11�3�4) or

- when the maximum display range is

exceeded (overflow)�

By setting [rTo2] it is set when the totaliser Vol� 2 is reset� The setting of [rTo2] has

no effect on the output:

[rTo2] Output Meter reset

OFF No effect on the output • The preset counter is reset

- when a manual reset is made (→

11�3�4) or

- when the maximum display range is

exceeded (overflow)�

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[rTo2] Output Meter reset

[rTo2] =

1, 2,�� h

1, 2,�� d

1, 2,�� w

No effect on the output • The preset counter is reset

- when a manual reset is made (→

11�3�4) or

- when the maximum display range is

exceeded (overflow) or

- when the set time is exceeded�

5.4 Frequency output

The unit provides a frequency signal that is proportional to the volumetric flow

(velocity or volume flow) or to the medium temperature�

Within the measuring range the frequency signal is between 0 and 10 kHz�

The frequency signal is scalable:

• [FrP1] defines the frequency signal in Hz that is provided when the upper

measured value (MEW or FEP1) is reached�

The measuring range is scalable:

• [FSP1] defines the lower measured value from which a frequency signal is

provided�

Note: [FSP1] cannot be set for volumetric flow measurement�

• [FEP1] defines the upper measured value at which the frequency signal FrP1

is provided�

Minimum difference between [FSP1] and [FEP1]

= 20 % of the final value of the measuring range�

If the measured value is outside the measuring range or in the event of an internal

error, the frequency signals indicated in figure 3 are provided�

For measured values outside the display range or in case of an error, messages

are displayed (OL, cr�OL, Err; )�→

The frequency signal in case of an error is adjustable (→ 11.5.11):

• [FOU] = On defines that the frequency signal goes to the upper final value

(130 % FrP1) in case of an error�

• [FOU] = OFF defines that the frequency signal is 0 Hz in case of an error�

• [FOU] = OU defines that in case of an error the frequency signal reacts as

defined by the current parameters�

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Frequency signals are not available via the IO-Link interface�

Volumetric flow measurement Temperature monitoring

MEWMAW FEP

FrP

=100%

0 %

120 %

100 %

120 %

130 %

130%

OL cr.OL

1

2

5

4

3

FOU=On

FOU=OFF

MEWMAW FEPFSP

FrP

=100%

120 %

0%

130 %

1

2

5

4

3

FOU=On

FOU=OFF

OL Err

100 %

120 %

130 %

Fig� 3: Output characteristics frequency output

1

Frequency signal in kHz

2

Measured value (volumetric flow or temperature)

3

Display range

4

Measuring range

5

Scaled measuring range

MAW: Initial value of the measuring range with non-scaled measuring range (with setting of

low flow cut-off for Q: signal output starting at MAW + LFC �)→ 5.8

MEW: Final value of the measuring range with non-scaled measuring range

FSP: Frequency start point with scaled measuring range (only temperature)

FEP: Frequency end point with scaled measuring range

FrP: Frequency signal for upper measured value

OL: Above the display range

cr�OL: Above the detection zone (error)

Err: The unit is in the error state

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5.5 Analogue output

The unit provides an analogue signal that is proportional to the volumetric flow

(velocity or volume flow) or to the medium temperature�

Within the measuring range the analogue signal is between 4 and 20 mA�

The measuring range is scalable:

• [ASP2] defines at which measured value the output signal is 4 mA�

• [AEP2] defines at which measured value the output signal is 20 mA�

Minimum difference between [ASP2] and [AEP2]

= 20 % of the final value of the measuring range�

If the measured value is outside the measuring range or in the event of an internal

error, the current signal indicated in figure 4 is provided�

For measured values outside the display range or in case of an error, messages

are displayed (cr�UL, UL, OL, cr�OL, Err; )�→

The analogue signal in case of an error is adjustable (→ 11.5.11):

• [FOU] = On defines that the analogue signal goes to the upper final value

(21�5 mA) in case of an error�

• [FOU] = OFF defines that the analogue signal goes to the lower final value

(3�5 mA) in case of an error�

• [FOU] = OU defines that in case of an error the analogue signal reacts as

defined by the current parameters�

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MEWMAW AEPASP

-120Q [% MEW]

[°C]T -40 -20 90

1 00

110

-130

-50

[°F]-40 -4 194 212 230-58

1201000 130

4

3,8

3,5FOU=OFF

20

20,5

21,5

[mA]

FOU=On

1

2

6

cr.UL UL OL cr.OL

3

4

5

Fig� 4: Characteristics of the analogue output according to the standard IEC 60947-5-7

1

Analogue signal

2

Measured value (volumetric flow or temperature)

3

Detection zone

4

Display range

5

Measuring range

6

Scaled measuring range

Q: Volumetric flow (negative volumetric flow quantity value = volumetric flow against the

marked flow direction)�

T: Temperature

MAW: Initial value of the measuring range with non-scaled measuring range� (With setting

of low flow cut-off for Q: signal output starting at MAW + LFC �)→ 5.8

MEW: Final value of the measuring range with non-scaled measuring range

ASP: Analogue start point with scaled measuring range

AEP Analogue end point with scaled measuring range

UL: Below the display range

OL: Above the display range

cr�UL: Below the detection zone (error)

cr�OL: Above the detection zone (error)

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5.6 Switching output

OUTx changes its switching status if it is above or below the set switching limits

(flow velocity or volume flow or temperature)� Hysteresis or window function can

be selected� Example of volumetric flow monitoring:

SP

rP FL

FH

Fig� 5: hysteresis function Fig� 6: window function

SP = set point

rP = reset point

HY = hysteresis

Hno / Fno = NO (normally open)

FH = upper limit

FL = lower limit

FE = window

Hnc / Fnc = NC (normally closed)

When the hysteresis function is set, the set point (SP) is defined first and

then the reset point (rP) which must have a lower value� If only the set point

is changed, the reset point is changed automatically; the difference remains

constant�

When the window function is set, the upper limit (FH) and the lower limit

(FL) have a fixed hysteresis of 0�25 % of the final value of the measuring

range� This keeps the switching status of the output stable if the volumetric

flow varies slightly�

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3� Volumetric flow falls below [LFC] within [dSt]�

> Outputs are reset at once; [dSt] is stopped�

Fig� 7: dSt for hysteresis function (Example)

Condition Reaction

1 Volumetric flow quantity Q reaches LFC dSt starts, output becomes active

2 dSt elapsed, Q reached SP Output remains active

3 Q below SP but above rP Output remains active

4 Q below rP Output is reset

5 Q reaches again LFC dSt starts, output becomes active

6 dSt elapsed, Q has not reached SP Output is reset

7 Q reaches SP Output becomes active

22

Fig� 8: dSt for window function (Example)

Condition Reaction

1 Volumetric flow quantity Q reaches LFC dSt starts, output becomes active�

2 dSt elapsed, Q reached good range Output remains active

3 Q above FH (leaves good range) Output is reset

4 Q again below FH Output becomes active again

5 Q below FL (leaves good range) Output is reset again

6 Q reaches again LFC dSt starts, output becomes active

7 dSt elapsed, Q has not reached good

range

Output is reset

8 Q reaches good range Output becomes active

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5.10 Simulation

With this function, the process values volumetric flow, temperature and meter

reading of the totaliser are simulated and their signal chain is checked�

When the parameters cr�UL, UL, OL und cr�OL are set, process values that lead to

an error message or warning can be simulated �(→ )

When the simulation is started, the values of the totalisers 1-3 are frozen and the

simulated totaliser is set to 0� The simulated volumetric flow value then has an

effect on the simulated totaliser� When the simulation is ended, the initial totaliser

values are restored�

The simulation has no effect on the current process values� The outputs

operate as previously set�

During the simulation the original totaliser value remains saved without any

changes even if there is a real volumetric flow�

During the simulation no error message of the current application is

available� They are suppressed by the simulation�

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5.11 Colour of the characters in the display

Via the parameters [coL�F], [coL�T] and [coL�V] the colour of the characters in the

display can be set:

• Permanent definition of the display colour:

- bk/wh (black/white)

- yellow

- green

- red

• Colour change from red to green or vice versa (Fig� 9):

- r-cF (red display colour between the limits cFL��cFH)

- G-cF (green display colour between the limits cFL��cFH)

cFL.T

cFL.F

cFH.T

cFH.F

MAW MEW

cFL�T = lower limit for temperature

cFL�F = lower limit for volumetric flow

cFH�T = upper limit for temperature

cFH�F = upper limit for volumetric flow

MAW = initial value of the measuring range

MEW = final value of the measuring range

Fig� 9: Colour setting window function

The limits can be freely selected within the measuring range and are

independent of the output function set for OUT1 and OUT2�

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5.12 IO-Link

This unit has an IO-Link communication interface which enables direct access to

process and diagnostic data� In addition it is possible to set the parameters of the

unit while it is in operation� Operation of the unit via the IO-Link interface requires

an IO-Link master�

With a PC, suitable IO-Link software and an IO-Link adapter cable communication

is possible while the system is not in operation�

The IODDs necessary for the configuration of the unit, detailed information about

process data structure, diagnostic information, parameter addresses and the

necessary information about the required IO-Link hardware and software can be

found at www�ifm�com�

The IO-Link interface provides the following additional functions using suitable

hardware and software:

- Remote parameter setting of the unit

- Noise-immune signal transmission without measured value losses

- Transmission of the parameter settings to a replaced unit or to other units of

the same type

- Simultaneous reading of all process values (volumetric flow, temperature,

totaliser), the binary switching signals and the device status

- Comprehensive display of error and event messages (events)

- Paperless logging of parameter sets, process values and diagnostic

information

5.12.1 Additional functions via IO-Link

The following functions are only available via the IO-Link interface:

Function Explanation

Flash ON /

Flash OFF

Standard command for localising the sensor in the system�

When activated:

> Switching status LEDs flashing�

> Display: "IO-Link" (green, flashing)

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6.1 Recommended installation position

►Install the unit so that the measuring pipe is always completely filled�

►Install in front of or in a rising pipe�

F

6.2 Non-recommended installation position

F

Directly in front of a falling pipe In a falling pipe

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6.4 Installation in pipes

The units with a G thread can be installed in the pipes using adapters�

Information about the available mounting accessories at www�ifm�com�

A correct fit of the unit and ingress resistance of the connection are only ensured

using ifm adapters�

A AD DC CB B

1� Grease the threads of the process connection, adapter and sensor� Use a

lubricating paste which is suitable and approved for the application�

2� Screw the adapter (B) into the pipe (A)�

3� Place the seals (C) and install the unit according to the marked flow direction�

4� Screw the adapter (B) with the process connections (D) until it is hand-tight�

5� Tighten the two adapters in opposite direction:

- tightening torque DN15��DN25: 30 Nm

- tightening torque DN6: 15 Nm

After installation air bubbles in the system can affect the measurement�

►Corrective measure: Rinse the system after installation for ventilation�

Mærke:	IFM
Kategori:	Ikke kategoriseret
Model:	SM8130

IFM SM8130 Manual

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