The English version 8015391 of this document is an original document from SICK Engineering GmbH.
SICK Engineering GmbH assumes no liability for the correctness of
an unauthorized translation.
Please contact SICK Engineering GmbH or your local representative in case of doubt.
DANGER: Risk of explosion when the gas flow meter is damaged
Natural gas flows with line pressure through the gas flow meter. Natural gas
can escape when the gas flow meter is damaged which creates a risk of
explosion.
▸
Prevent any possible damage to the gas flow meter. When necessary, fit
protection devices.
▸
If the gas flow meter is damaged: Stop natural gas feed immediately and
purge the FLOWSIC500 with inert gas.
WARNING: Hazards through leaks
Operation in leaky condition is not allowed and potentially dangerous.
▸
Regularly check leak tightness of equipment.
1.2About this document
This Manual describes:
– Device components
– Installation
– Operation of the FLOWSIC500.
It contains the main safety information for safe operation of the FLOWSIC500.
Important Information
Scope of document
Make sure that your FLOWSIC500 is equipped with optically isolated inputs and outputs:
▸
Check the type code, position 23 "I/O", on the type plate (→ Fig.2) of your FLOWSIC500:
–
FLOWSIC500 with interface configurations F, G H, I and J have optically isolated
inputs and outputs.
–
For information on FLOWSIC500 with interface configurations A, B, C, D and E,
please refer to document "8018707, Addendum to Operating Instructions
FLOWSIC500: Interface Configurations".
Fig. 1Ty pe co d e
▸
For a complete description of the type code refer to → p. 112, §9.2.
NOTICE: Interface Configurations
This document only applies to FLOWSIC500 gas flow meters with optically isolated inputs and outputs.
1 Type plate, metrological and electrical parameters
(metrology and electronics)
4 Type plate, electrical parameters (electronics)
2 Pin assignment of plug-in connectors5 Type plate, metrological parameters (metrology)
3 Type plate PED
Labelling according to CSA
Labelling according to ATEX/IECEx
4
1
3
2
1.3Intended use
1.3.1Purpose of the device
The FLOWSIC500 serves for measuring the gas volume, volume flow rate and gas velocity
of natural gas in pipelines.
The FLOWSIC500 with optional volume conversion serves for measuring the gas volume
and converting the gas volume measured to base conditions as well as registering data on
meter readings, maximums and other data.
1.3.2Product identification
Product name:FLOWSIC500
Manufacturer:
The type plates for metrological and electrical parameters are located on the gas flow
meter. The type plate for the Pressure Equipment Directive is located on the adapter.
Examples for the type plates see → p. 114, § 9.3.
SICK Engineering GmbH
Bergener Ring 27
01458 Ottendorf-Okrilla
Germany
1.3.3Operation in potentially explosive atmospheres
The FLOWSIC500 is suitable for use in potentially explosive atmospheres:
ATEX: II 2G Ex ia [ia] IIB T4 Gb, II 2G Ex ia [ia] IIC T4 Gb,
IECEx: Ex ia [ia] IIB T4 Gb, Ex ia [ia] IIC T4 Gb,
US/C: Class I Division 1, Groups C, D T4, Ex/AEx ia IIB T4 Ga
Further information on potentially explosive atmospheres → p. 37, § 3.4.1.
1.3.4Combustible gas
▸
The FLOWSIC500 is suitable for measuring combustible and occasionally ignitable
gases corresponding to zones 1 and 2.
1.3.5Restrictions of use
▸
Refer to the type plate for the configuration of your FLOWSIC500.
▸
Check the FLOWSIC500 is suitably equipped for your application (e.g. gas conditions).
WARNING: Hazard through material fatigue
The FLOWSIC500 has been designed for use under mainly static loads.
▸
Maximum allowed gradient of static pressure: 3 bar/s (45psi/sec)
The number of complete pressure application and release processes should
be kept low during operation.
▸
Replace the device when 500 cycles have been reached.
Important Information
II 2G Ex op is IIC T4 Gb
Ex op is IIC T4 Gb
NOTICE:
The FLOWSIC500 is designed for measuring clean and dry natural gas.
▸
The operator should install a suitable filter or cone screen ahead of the gas
flow meter when the gas is contaminated.
NOTICE:
● The FLOWSIC500 is suitable for use in pressurized lines within the parameters specified in the device. The device complies with Pressure Equipment
Directive 2014/68/EU.
● It is the user's responsibility to ensure the maximum values specified for
pressure and temperature on the type plate are not exceeded during operation.
WARNING: Risk of ignition due to electrostatic charge
Under certain extreme circumstances, in Gas Group IIC, exposed plastic and
unearthed metal parts of the enclosure may store an ignition-capable level of
electrostatic charge.
▸
Implement precautions to prevent the build up of electrostatic charge, e.g.
locate the equipment where a charge-generating mechanism (such as
wind-blown dust) might occur and clean with a damp cloth.
NOTICE: Cleaning instructions
▸
Only clean the FLOWSIC500 with a damp cloth.
▸
Do not use solvents for cleaning.
▸
Only use materials for cleaning which do not damage the surface of the
FLOWSIC500.
1.4Responsibility of user
▸
Only put the FLOWSIC500 into operation after reading the Operating Instructions.
▸
Observe all safety information.
▸
If anything is not clear: Please contact the SICK Customer Service.
Designated users
The FLOWSIC500 may only be operated by skilled technicians who, based on their technical training and knowledge as well as knowledge of the relevant regulations, can assess
the tasks given and recognize the hazards involved.
NOTICE:
Skilled persons are persons in accordance with DIN VDE 0105 or IEC 364, or
directly comparable standards.
These persons must have exact knowledge on hazards arising from operation,
e.g. through hot, toxic, explosive gases or gases under pressure, gas-liquid
mixtures or other media as well as adequate knowledge of the measuring
system gained through training.
Correct use
▸
Only use the FLOWSIC500 as described in these Operating Instructions (→ p. 11, § 1.3.1).
The manufacturer bears no responsibility for any other use.
▸
Do not carry out any work or repairs on the FLOWSIC500 not described in this manual.
▸
Do not remove, add or change any components in or on the FLOWSIC500 unless such
changes are officially allowed and specified by the manufacturer.
Otherwise
– Any warranty by the manufacturer becomes void
– The FLOWSIC500 can become dangerous
– The approval for use in potentially explosive atmospheres is no longer valid
– The approval fur use in lines pressurized above 0.5 bar (7.25 psi) bar is no longer
The following symbol draws attention to important dangers directly on the
device:
▸
Consult the Operating Instructions in all cases where the symbol is
attached to the device or shown on the display.
Special local conditions
▸
Follow all local laws, regulations and company-internal operating directives applicable
at the installation location.
Retention of documents
These Operating Instructions must be
▸
Kept available for reference
▸
Passed on to new owners.
1.5Additional documentation/information
Some parameter settings, components and characteristics depend on the individual
device configuration. This individual device configuration is described in the device documentation delivered with the device.
● Certificate of conformity/EX certificates (depending on configuration)
● Material certificate
● Inspection certificate
– Device configuration sheet
– Encoder test protocol (if configured)
– Low-pressure calibration test protocol (if ordered)
– Labels according to Pressure Equipment Directive 2014/68/EU, Annex 1 Part 3.3
● Printout of the Data Book
● Product CD with:
– Operating Instructions
– Operating program FLOWgate500
– FLOWgate500 Software Manual
–Key code
– Instructions for Kamstrup test valve BDA04
Vb= Volume at base conditions
C = Conversion factor
V
m
= Volume at measurement conditions
p = Gas pressure at measurement conditions
p
b
= Pressure at base conditions
T = Gas temperature at measurement conditions
T
b
= Temperature at base conditions
Z
b
= Compression factor at base conditions
Z = Compression factor at measurement conditions
C
p
p
b
-----
T
b
T
----- -
Z
b
Z
----- -
=
2.1.1Gas flow meter
The FLOWSIC500 works according to the principle of ultrasonic transit time difference
measurement.
Fig. 3Functional principle
Measured signal transit times tAB and tBA are defined by the current sound and gas velocity.
Gas velocity v is determined from the difference between the signal transit times. Therefore changes in the sound velocity caused by pressure or temperature fluctuations do not
affect the calculated gas velocity with this measurement method.
The FLOWSIC500 calculates the volume flow rate internally from the gas velocity and the
diameter of the measuring section of the gas flow meter.
Product Description
2.1.2Volume conversion (optional)
The integrated volume conversion converts the measured gas volume from measurement
conditions to base conditions.
Calculation according to EN 12405:
The measurement conditions are either determined with pressure and temperature transmitters or entered as fixed value.
The following short forms are used in this document for better readability:
● Volume at base conditions = base volume
● Volume at measurement conditions = measurement volume
● optional p&T sensors for the volume conversion device option.
Fig. 4FLOWSIC500 components
2.2.1
Adapter
The adapter is available in various flange standards and fitting lengths to connect the gas
flow meter to the system pipeline.
Depending on the version, the adapter is designed for assembly on line flanges PN16 in
accordance with DIN EN1092-1, CL150 in accordance with ASME B16.5, or 1.6MPa in
accordance with GOST 12815-80.
An internal flow conditioner rectifies the gas flow in the gas flow meter so that flow profile
disturbances caused by pipe bends in the inlet or outlet sections or components projecting
into the pipe (e.g., a thermowell) have no influence on measuring results.
The gas flow meter can be replaced without taking the adapter out of the pipeline.
The gas flow meter is fitted with:
● Control unit
● Optical and electrical interfaces
● Measuring cell with ultrasonic transducers
● Electronics.
The product variant with volume conversion and integrated pressure and temperature
transmitters also has the calibrated pressure transmitter and calibrated temperature
transmitter fitted in the gas flow meter.
2.3Meter sizes
Available meter sizes → p. 117, §9.4.
2.4Power supply
The FLOWSIC500 is available with two configurations:
● For operation with external intrinsically safe power supply with backup battery (backup
duration: Approx. 3 months).
● Self-sufficient power configuration: 2 internal longlife battery packs (typical service life:
At least 5 years).
The second battery pack is activated automatically when the first pack is empty and a
message displayed (→ p. 58, § 5.2).
Product Description
2.5Interfaces
The FLOWSIC500 supports various digital and serial interfaces.
The configuration of the interfaces as delivered is described in the delivery documents pro-
FLOWSIC500 has 4 digital switching outputs. Digital switching outputs DO_0, DO_2 and
DO_3 are electrically isolated according to EN 60947-5-6.
Alternatively, digital switching outputs DO_2 and DO_3 can also be configured as Open Collector.
When used as pulse output, maximum 2 kHz can be output on digital switching output
DO_0 and maximum 100 Hz on digital switching outputs DO_2 and DO_3. When used as
status output, status information "Validity of measurement" or the result of the self-diagnosis can be represented.
Digital switching output DO_1 is not electrically isolated. In normal mode, the diagnosis
warning is output on DO_1, test pulses are output in test mode.
The digital switching outputs are updated synchronously once per second.
2.5.2Encoder totalizer
Alternatively, NAMUR switching output DO_0 can be configured so that the reading of totalizer Vm, the meter status and a meter identification are output via asynchronous serial
communication. This allows the connection of volume convertors with a suitable input for
encoder totalizers.
NOTICE:
If encoder communication has been configured, ensure that the transferred
number of digits and the counter resolution can be processed by a connected
volume converter.
When the parameter locking switch is open, a parameter change can be performed at the FLOWSIC500 using the FLOWgate500 operating software.
2.5.3Serial data interface
The serial interface is designed as externally powered RS485 and requires an external
intrinsically safe power supply for operation. The RS485 interface has no internal line termination.
2.5.4Optical data interface
An optical interface according to IEC 62056-21 with serial bit, asynchronous data transmission is located on the front of the FLOWSIC500.
The interface can be used to read out data and parameter settings and to configure the
FLOWSIC500.
The FLOWSIC500 gas flow meter with volume conversion captures the gas volume under
measurement conditions and converts it to a volume under base conditions.
Gas volume conversion can run selectively (set at the factory) as PTZ or TZ volume conversion: The configuration as temperature volume conversion uses the default value for measurement pressure for calculations.
Measurement conditions are recorded with the pressure and temperature transmitters or
entered as fixed values.
By default, measured values recording and subsequent conversion to the volume under
base conditions are performed every 30 seconds. The update interval can be adjusted
→ p. 69, § 5.2.6.5, “Calculation”.
Depending on the configuration, the compressibility factor (K-factor) is determined with
one of the following calculation methods or can be entered as a fixed value.
● SGERG88,
● AGA 8 Gross method 1
● AGA 8 Gross method 2
● AGA NX-19
● AGA NX-19 mod.
● Fixed value
The FLOWSIC500 checks the permissible entry limits of the parameters for the selected
calculation method. If one of the entry values is outside the limit values, the FLOWSIC500
switches to malfunction state and uses the fixed value of the compressibility factor for calculation of the basis volume.
An absolute pressure transmitter EDT 23 (optional: relative pressure transmitter EDT 23)
and a temperature transmitter EDT 34 measure current measurement conditions and
transfer the transmitter type, measured value as well as the transmitter status via a digital
interface.
The FLOWSIC500 reads the valid measuring range automatically and, periodically, the current status and measured value.
A transmitter is only activated for measurement when the configured serial number
matches the serial number transferred for the transmitter.
If no transmitter is detected or a transmitter is not functioning correctly, the
FLOWSIC500 automatically uses the stored default value (= fixed value) of the state vari-
able.
In this case, the FLOWSIC500 switches to malfunction state and, using the default value,
stores the volume under base conditions calculated for pressure or temperature in the
error volume counter.
If not specified otherwise, the FLOWSIC500 is supplied with the following standard settings:
Table 2Standard settings
Unit systemSIImperial
T unit°C° F
P unitbarpsi
Symbols according toEN 12405API
Calculation methodSGERG88AGA 8 Gross method 1
Reference conditions for den-
sity and heating value
(T1/T2/p2)
25 °C/0 °C/1.01325 bar (a)
Base pressure1.01325 bar (a)14.7300 psi (a)
Base temperature0 °C60 °F
1 Pressure transmitter
2 Kamstrup test valve BDA04
3 Temperature transmitter
2
3
1
2.6.2Integrated pressure and temperature transmitters
The FLOWSIC500 with volume conversion and integrated pressure and temperature transmitters does not have any external components. The internal pressure and temperature
transmitters are already fitted and calibrated at the factory. The measuring ports are
located in the gas flow meter.
This means the FLOWSIC500 does not require any additional installation of transmitters to
determine the measurement conditions and is immediately ready for operation after volume conversion has been configured.
2.6.3External pressure and temperature transmitters
The FLOWSIC500 with volume conversion and external transmitters is used at measuring
ports where a test/calibration of the pressure or temperature transmitter in the system
may be required.
It is recommended to install a three-way test valve that separates the pressure transmitter
from the measurement pressure and provides a test connection to test the pressure transmitter.
→ Fig. 5 shows a FLOWSIC500 with external transmitters and Kamstrup test valve BDA04
for gas temperatures to -25°C.
Fig. 5FLOWSIC500 with external transmitters and Kamstrup test valve BDA04
A three-way test valve (→ Fig. 6) that is fitted next to the FLOWSIC500 is used for gas temperatures to -40°C.
Fig. 6Three-way test valve with p transmitter and Minimess coupling
1FLOWSIC500 connection
2 Three-way test valve
3 Test connection (Minimess coupling)
4 Pressure transmitter
1
2
3
4
Product Description
2.7Totalizers
2.7.1Device status and totalizers used
Various volume totalizers are fitted on the FLOWSIC500 depending on the configuration.
Meter V is used in the configuration as gas flow meter. If the gas flow meter has a malfunc-
tion, the measured volume is also recorded in the error volume counter errV.
Table 3Device status and totalizers used
StatusTotalize r
VerrV
Operation
Malfunction
●
●●
A gas flow meter Vm, a base volume meter Vb and a total volume meter Vbtot are used in
the configuration as gas flow meter with integrated volume conversion (device option). If
malfunctions occur, the measured values are not recorded in the base volume meter Vb,
but the converted volume is recorded in the error volume meter errVb.
Table 4Device status and totalizers used (with device option volume conversion)
StatusTotalize r
VberrVbVbtotVmerrVm
Operation
Malfunction
Authorized users (user level "Authorized user") can reset the error volume counters → p. 73,
The FLOWSIC500 is designed as unidirectional type and has a configurable zero-flow cutoff
which is factory set to a value of 1 m
The totalizers are stopped during reverse flow and this volume is counted in a separate buffer totalizer. When normal operation resumes, the buffer totalizer is first computed with the
flow.
The totalizers are first incremented again after the reverse flow volume has passed
through.
During reverse flow, the meter first switches to malfunction when the preconfigured buffer
volume has been exceeded. An error message is output on the device.
2.8Logbooks and Archives
The integrated data registration stores meter readings, maximums and other data in the
following archives:
● Measuring period archive
Totalizers and data saved after the measuring period elapses (standard = 60 min.). The
measuring period can be adjusted → p. 71, §5.2.6.9.
● Daily archive
Totalizers and data saved at the defined gas hour time (standard = 06:00)
● Monthly archive
Totalizers and data saved at the defined gas day time (standard = 1st day of month)
3
(35 ft3) as default.
Explanations on data structure and storage depth are available in Technical
Bulletin "Data Registration").
The FLOWSIC500 stores events and parameter changes in the following logbooks:
● Event logbook
All events with timestamp, user logged on and totalizer reading, max. number of
entries: 1000
When the Event logbook is 90% full, the FLOWSIC500 changes to device status "Warn-
ing", warning W-2001 is shown on the display.
When the Event logbook is full, the FLOWSIC500 changes to device status "Malfunc-
tion", error E-3001 is shown on the display (→ p. 78, § 6.2, “Status messages”).
● Parameter logbook
All parameter changes with timestamp, user logged on, totalizer reading and old and
new parameter value, max. number of entries: 250
The oldest entries are overwritten when the Parameter logbook is full.
● Metrology logbook
All changes to selected calibration-relevant parameters (→ p. 24, §2.9.2), with parameter
locking switch activated with timestamp, user logged on, totalizer reading and old and
new parameter value, max. number of entries: 100
When the Metrology logbook is full, calibration-relevant parameters can be modified
only after the parameter locking switch has been opened. The FLOWSIC500 changes to
device status "Warning", warning W-2002 is shown on the display (→ p. 78, § 6.2, “Status
messages”).
Subject to change w ithout notice
The data are stored in non-volatile memory. All logbooks can be viewed, stored and reset
with operating software FLOWgate500. The Event logbook can be viewed after logon as
"User" or "Authorized user" on the device.
A parameter locking switch is located on the circuit board to secure the calibration-relevant
parameters. This covers all values that influence volume metering and volume conversion.
Fig. 7Parameter locking switch on the circuit board
Product Description
The parameter locking switch is secured by the terminal compartment cover and a seal.
2.9.2Metrology logbook
Selected calibration-relevant parameters can be modified when the parameter locking
switch is closed and after logging in as authorized user.
To ensure traceability of these parameter changes, an entry is created in the Metrology logbook. This entry contains the timestamp, old and new value of the parameter changed,
meter reading V (for gas flow meters) or Vb (for gas flow meters with device option volume
conversion) and the logged on user.
The Metrology logbook can have a maximum of 100 entries. The FLOWSIC500 switches to
status "Warning" when the Metrology logbook is full.
The Metrology logbook can be cleared when the parameter locking switch is open. Parameter changes to the following parameters are entered in the Metrology logbook as long as
entries are possible
Table 5Calibration-relevant parameters - gas flow meter
ParameterDescription
Reverse flow limitBuffer volume for reverse flow
Symbols for measured value displaysSymbols used on the display (formula symbols)
Tab le 6Calibration-relevant parameters - gas flow meter with volume conversion
ParameterDescription
Reverse flow limitBuffer volume for reverse flow
Symbols for measured value displaysSymbols used on the display (formula symbols)
Flow - lower warning limitLower warning limit for the flow which can be set by the cus-
tomer
Flow - upper warning limitUpper warning limit for the flow which can be set by the cus-
tomer
Calculation methodCalculation method for the compressibility factor
Calculation intervalCycle time for updating measured values (pressure, tem-
perature) and calculation of the compressibility factor
Standard pressureStandard pressure
Standard temperatureStandard temperature
Reference conditionsReference conditions for density and heating value
Atmospheric pressureAmbient pressure
K-factor (fixed)Figure for method "Fixed value" when the calculation of the
K-factor is incorrect.
CO2CO
H2H
N2N
proportion in gas
2
proportion in gas
2
proportion in gas
2
Relative densityRelation between gas density and air density under refer-
ence conditions
Reference densityGas reference density under reference conditions
Heating valueGas heating (under reference conditions)
Heating value unitHeating value unit
p Default valueFixed value of measurement pressure
p UnitUnit for pressure values, used for entry and display
p Lower alarm limitLower warning limit for the pressure which can be set by the
customer
p Upper alarm limitUpper warning limit for the pressure which can be set by the
customer
p UnitUnit for pressure values
T Default valueFixed value of measurement temperature
T UnitUnit for temperature values, used for entry and display
T Lower alarm limitLower warning limit for the temperature which can be set by
the customer
T Upper alarm limitUpper warning limit for the temperature which can be set by
the customer
T UnitUnit for temperature values, used for entry and display
Gas hourBilling hour for the day archive
Gas dayBilling day for month archive
Measuring periodPeriod for billing archive
1 Seal position
2 Possible position of the adapter seal
3 Possible position of the electronic cover seal
1
2
3
The FLOWSIC500 is secured at the factory with a seal on the cover.
Gas flow meter and adapter can be secured at the joint by a user seal (adhesive label)
glued with approximately equal spread on gas flow meter and adapter.
Optionally, the electronics cover can also be protected by the customer after the end of the
installation against unauthorized opening.
Fig. 8Factory seal of the cover on the gas flow meter
Product Description
In addition, the FLOWSIC500 has seal positions on the terminal compartment cover and
the plug-in connector cover.
An adhesive label secures the interfaces and the parameter locking switch by the terminal
cover compartment.
During the start-up, the plug-in connector cover must be secured according to national regulations. This can be performed with an adhesive label which is glued with approximately
equal spread on the cover and the enclosure or alternatively by using capstan screws and a
tensioned sealing wire and a wire seal.
Observe applicable valid regulations, general standards and guidelines.
▸
Observe local safety regulations, operating instructions and special regulations.
▸
Observe the safety information in → p. 10, §1.1.
▸
Comply with the safety requirements of Pressure Equipment Directive
2014/68/EU or ASME B31.3 when installing pressure devices including
connection of various pressure devices.
▸
Persons carrying out installation work must be familiar with the directives
and standards applicable for pipeline construction and have the corresponding qualifications, e.g. in accordance with DIN EN 1591-4.
WARNING: Hazards through the gas in the system
The following conditions can increase the risk:
• Toxic gas or gas dangerous to health
•Explosive gas
• High gas pressure
▸
Only carry out installation, pre and repair work when the system is nonpressurized.
Installation
WARNING: Hazards during installation work
▸
Do not carry out any welding work on lines with meters fitted.
▸
Comply exactly with mandatory and approved methods.
▸
Observe and comply with regulations of the plant operator.
▸
Meticulously check completed work. Ensure leak tightness and strength.
Otherwise hazards are possible and safe operation is not ensured.
3.2General information
3.2.1Delivery
The FLOWSIC500 is delivered preassembled in sturdy packaging.
▸
Inspect for transport damage when unpacking the device.
▸
Document any damage found and report this to the manufacturer.
NOTICE:
Do not put the FLOWSIC500 into operation if you notice any damage!
▸
Check the scope of delivery for completeness.
The standard scope of delivery comprises:
● FLOWSIC500 (gas flow meter and adapter, already fitted),
● Backup battery (if device is configured for external power supply), or
● 2 battery packs (if device is configured for battery operation).
During all transport and storage work, ensure:
– The FLOWSIC500 is always well secured
– Measures to prevent mechanical damage have been taken
– Ambient conditions are within specified limits.
3.3Mechanical installation
CAUTION: General risks during installation
▸
Observe applicable valid regulations, general standards and guidelines.
▸
Observe local safety regulations, operating instructions and special regulations.
▸
Observe the safety information in → p. 10, §1.1.
▸
Comply with the safety requirements of Pressure Equipment Directive
2014/68/EU or ASME B31.3 when installing pressure devices including
connection of various pressure devices.
▸
Persons carrying out installation work must be familiar with the directives
and standards applicable for pipeline construction and have the corresponding qualifications, e.g. in accordance with DIN EN 1591-4.
The FLOWSIC500 normally does not need straight inlet and outlet sections and can be fitted directly after bends in the pipe.
The following tools and materials are required to install the FLOWSIC500:
– Hoisting equipment (lifting capacity according to the weight specifications → p. 117,
§9.4)
– Box wrench with size suitable for flange installation
– Torque wrench
– Flange gaskets
– Anti-seize paste, metal-free or suitable for aluminium, e.g. OKS 235, to prevent
thread mountings seizing up
At a distance up to 5 DN upstream to the adapter, the following elements
must not occur:
– a valve which is not always fully open during operation,
– a pressure regulator.
The temperature sensor must not be disposed more than 5 DN down-
stream of the gas meter. The temperature sensor can be inserted in the
optional thermowells at the adapter alternatively.
In concrete application, observe limitations resulting from type approval!
3.3.2Choosing flanges, gaskets and other components
For flange connections only use pipeline flanges, bolts, nuts and gaskets suitable for the
maximum operating pressure, maximum operating temperature as well as ambient and
operating conditions (external and internal corrosion).
→ Table 7 contains a list of recommended bolts and → Table 8 contains a list of recom-
mended gaskets.
Table 7Bolts and tightening torques
Device/flange
BoltsWashersNutsTightening torque
type
PN16 / EN1092-1
DN50/ PN164 pc. DIN835-
M16x45-A2-70
DN80/ PN168 pc. DIN835DN100/ PN16
M16x45-A2-70
DN150/ PN168 pc. DIN835-
M20x55-A2-70
4 pc. DIN125A17-A4
8 pc. DIN125A17-A4
8 pc. DIN125A21-A2
4 pc. ISO4032M16-A4-70
8 pc. ISO4032M16-A4-70
8 pc. ISO4032M20-A2-70
Class 150 / ASME B16.5
2"/ Cl1504 pc. Double end
3"/ Cl150
4"/ Cl1508 pc. Double end
6"/ Cl1508 pc. Double end
Table 8Gaskets
Device/flange
type
threaded stud Ø 5/8",
length 3.5"- ASME
B18.31.2,
ASTM A193 Grade
B8M
threaded stud Ø 5/8",
length 3.5"- ASME
B18.31.2,
ASTM A193 Grade
B8M
threaded stud Ø 3/4",
length 4.0"- ASME
B18.31.2,
ASTM A193 Grade
B8M
[1]
Da
[mm]
Di [mm]S [mm]
4 pc. Type A plain
washer (narrow
series) Ø 5/8" ANSI B18.22.1,
grade 8 stainless
steel
8 pc. Type A plain
washer (narrow
series) Ø 5/8" ANSI B18.22.1,
grade 8 stainless
steel
8 pc. Type A plain
washer (narrow
series) Ø 3/4" ANSI B18.22.1,
grade 8 stainless
steel
Adequate mounting clearances must be maintained to ensure that sufficient space is available for exchanging the gas flow meter.
The clearance at the top is required for removing the gas flow meter and placing it back on
the adapter. The clearance at the bottom is required for loosening and removing or reinserting the screws and applying the tool accordingly.
Fig. 14Mounting clearances
NOTICE:
Depending on the tools used and the mounting location, sufficient clearances
to the left and right must be ensured.
Tab le 9Required minimum clearance based on the pipe axis
If the FLOWSIC500 is installed so that the gas flow meter projects sideways
from the pipeline, the gas flow meter weight creates a torque on the pipeline.
▸
Make sure the pipeline is capable of holding the gas flow meter → p. 36,
Table 10.
Table 10Pipeline torque
Meter sizeTorque
DN50/2"65
DN80/3"1612
DN100/4"3123
DN150/6"3123
3.3.3.3Installation in pipeline
1 Select suitable bolts.
Recommended bolts → Table 7.
2 Use the hoisting equipment to position the FLOWSIC500 in the desired location in the
pipeline.
Lay the pipelines without tension to the device to be installed!
3 Insert and align the gaskets.
4 Apply anti-seize paste to the bolts.
5 First screw the bolts by hand into the adapter to the stop.
– Screw in the bolts according to DIN835 with the shorter thread end.
– The bolts according to ASME B18.31.2 can be screwed in with any end.
6 Check the thread length in the adapter is fully utilized.
7 Then install the washers and nuts, and tighten them by hand.
8 Check whether the thread length of the nut is fully utilized.
If necessary, use a different bolt length.
9 Check correct positioning of flange gaskets.
10 Tighten nuts evenly and crosswise in small steps until the specified tightening torque is
reached (→ Table 7).
Make sure the flange sits free of tension.
11 Slowly increase the pressure in the pipeline.
Gradient: Max. 3bar/min (45psi/min)
12 Carry out a leak tightness check on the pipeline (in accordance with the pipeline manu-
3.4.1Requirements for use in potentially explosive atmospheres
The FLOWSIC500 is suitable for use in potentially explosive atmospheres:
ATEX: II 2G Ex ia [ia] IIB T4 Gb, II 2G Ex ia [ia] IIC T4 Gb,
IECEx: Ex ia [ia] IIB T4 Gb, Ex ia [ia] IIC T4 Gb,
US/C: Class I Division 1, Groups C, D T4, Ex/AEx ia IIB T4 Ga
For a FLOWSIC500 used in potentially explosive atmospheres:
▸
Installation, start-up, maintenance and inspection may only be carried out
by skilled persons having knowledge of the relevant rules and regulations
for potentially explosive atmospheres, especially:
The FLOWSIC500 is suitable for measuring combustible and occasionally ignitable gases
corresponding to zones 1 and 2.
Basic requirements
▸
The documentation for zone categorization in accordance with IEC60079-10 must be
available
▸
The FLOWSIC500 must have been checked for suitability for the actual installation location and the Ex marking on the device must match the requirements.
▸
After installation and before initial start-up, the complete equipment and the system
must be inspected in compliance with IEC 60079-17.
II 2G Ex op is IIC T4 Gb
Ex op is IIC T4 Gb
WARNING: Risk of explosion
All electrical connections of the FLOWSIC500 are approved for connection to
the certified intrinsically safe power circuits only.
▸
Proof of the intrinsic safety in compliance with IEC 60079-14 must be
presented for interconnection with the associated intrinsically safe equipment.
Otherwise the intrinsic safety of the FLOWSIC500 can be endangered, i.e.
the ignition protection for the FLOWSIC500 can no longer be ensured.
● The pipeline contains a nonexplosive mixture. The gas mixture can be combustible.
● Gas pressure and gas temperature can be within the range
specified on the type plate of the
gas flow meter.
Case 2:
● The area inside the pipeline is classified as potentially explosive atmosphere Zone 1 or 2.
● The gas pressure must be within the
range 0.8 (11.6 psi) to 1.1 bar
(15.95 psi) (normal atmospheric
conditions).
● Gas temperature must be within the
permitted ambient temperature
range specified by the type plate on
the gas flow meter
Zone 1 or 2
Case 1:
Zone 1 or 2
Non-explosive gas mixture
Zone 1 or 2
The FLOWSIC500 is designed for use in potentially explosive atmospheres solely under
normal atmospheric conditions within the following limits.
– Ambient pressure range 0.8 bar (11.6 psi) to 1.1 bar (15.95 psi)
– Air with normal oxygen content, normally 21 percent by volume
The ambient temperature must be within the range specified on the type plate.
The gas flow meter becomes part of the pipeline as soon as the FLOWSIC500 is installed in
the pipeline.
The walls of the pipeline and the gas flow meter then serve as zone-separating barrier. The
following Figure shows the different situations for a possible application and the operating
conditions that apply.
Fig. 15Ex zones
Installation
WARNING: Risk of ignition due to impact on the ultrasonic transducers
T
he ultrasonic transducers are manufactured from titanium. The pipeline
adaptor and part of the electronic enclosure may be made from aluminium. In
rare cases, ignition sources due to impact and friction sparks could occur.
The maximum piezo-electric energy released by impact on the ultrasonic transducers exceeds the limit for Gas Group IIC specified in Clause 10.7 of
EN60079-11:2012.
▸
For this reason, the ultrasonic transducers may only be used in zone 1
when risks of ignition arising from impacts or friction on the sensor housing
can be ruled out within the application.
▸
Only ultrasonic transducers provided by SICK may be used!
Installation work → p. 31, § 3.3 must be completed.
WARNING: Risk of explosion - hazard for intrinsic safety
▸
The following work may only be carried out by skilled technicians familiar
with the special characteristics of the intrinsic safety of the ignition protection type and who have knowledge of the relevant standards and regulations for interconnection of intrinsically safe power circuits.
3.4.3Opening and closing the electronics cover
The Ex i terminal compartment of the FLOWSIC500 can be accessed after the
electronics cover has been opened. The cover may also be opened in the
hazardous area when under voltage. However, safe separation between the
various intrinsically safe power circuits must not be breached.
Opening the electronics cover
1 Loosen the 4 screws (captive) on the electronics cover using a 3 mm Allen key.
Fig. 16Position of electronics cover screws
2 Open the electronics cover.
Closing the electronic cover
1 Close the electronics cover.
▸
Make sure no battery and display cables are pinched.
NAMUR, see Configuration 1 for operating parameters
* Standard configuration
Fig. 20Identification on the electronics type plate (example)
Internal terminal assignment→ p. 118, § 9.5
3.4.7
Cable specifications
When the plugs available from SICK are used, a shielded control cable with 4x0.25 mm
cross-section, with PVC insulation and approx. 5 mm outer diameter is required.
= 20 V
U
i
Pi = 753 mW
2
Subject to change w ithout notice
WARNING: Requirements on cables and installation
▸
Pay attention to the requirements in EN 60079-14 when selecting the
cables and during installation!
▸
Further legal requirements must be observed for use in explosive atmospheres.
SICK recommends the ready-made cables available as accessories (→ p. 104, §8.1).
WARNING: Risk of of ignition due to electrostatic charge
Make sure to minimize electrostatic risks when handling the plastic portable
battery packs.
▸
When a static-generating mechanism is identified, such as repeated brushing against clothing, take suitable precautions, e.g.the use of anti-static
footwear.
▸
Activities such as placing the item in a pocket or on a belt, operating a keypad or cleaning with a damp cloth, do not present a significant electrostatic
risk.
The FLOWSIC500 and the delivered battery packs are designed intrinsically
safe.
▸
Only the exchangeable battery packs from SICK with part no. 2064018 and
the backup battery with part no. 2065928 may be used.
▸
The battery packs can be connected and disconnected in the hazardous
area as well.
▸
Only connect the battery packs to the connections marked for this purpose
in the terminal compartment of the FLOWSIC500.
▸
Modifying the electrical connection parts is not allowed.
1 Open the electronics cover (→ p. 39, 3.4.3)
2 Insert the battery packs as shown and connect to connections BAT1 and BAT2 in the
terminal compartment.
The FLOWSIC500 is initialized.
Fig. 23Connected battery packs
3 Close the electronics cover again.
4 Set the date and time (→ p. 54, §4.1).
3.5Installing the external pressure and temperature transmitters
1
2
1 Pressure measuring port
2 Alternative temperature measuring ports
The adapter of FLOWSIC500 has measuring ports for pressure and temperature.
NOTICE:
▸
The pressure measuring port to be used for measurement is marked “PM”.
On meters with flow direction “left-right” (→), the marked pressure measuring port is on the rear of the adapter, on meters with flow direction “rightleft” (←), it is on the front.
▸
Pressure and temperature transmitters can only be exchanged when the
parameter locking switch is open.
Fig. 24Pressure and temperature measuring ports (front and rear side)
Installation
NOTICE: Ensure sufficient assembly clearance!
Ensure sufficient clearance to the wall or other components at the rear measuring ports when installing the transmitters.
The recommended minimum clearance to the wall is 0.3 m.
3.5.1
Fitting the plug-in connector cover
Fit the plug-in connector cover before installing the transmitters.
1 Guide the transmitter plugs through the openings in the plug-in connector cover.
1 Connections for pressure and temperature transmitters
1
1
1
2
1 Capstan screw
2 Plug-in connector cover
2 Connect the plugs to the planned connections.
For meter sizes DN50 and DN80, it is recommended to connect the pressure
transmitter to the right M8 connection and the temperature transmitter to the
left M8 connection.
The FLOWSIC500 automatically detects whether a pressure or temperature
transmitter has been connected to a connection.
Fig. 26Connections for pressure and temperature transmitters
3 Push the plug-in connector cover over the plugs and fasten with both capstan screws.
1 Pressure transmitter
2 Kamstrup test valve BDA04
1
2
A three-way test valve is normally fitted to be able to test the pressure transmitter.
NOTICE: Fitting information
It is recommended to connect the pressure transmitter with the three-way test
valve or with the FLOWSIC500 so that there is a downward slope from the pressure transmitter to the connection point and from the three-way test valve to
the FLOWSIC500.
Variant 1: Installation with Kamstrup test valve BDA04 (up to -25 °C)
For details on installation with Kamstrup test valve BDA04, see Kamstrup Operating Instructions.
You will find the document on the delivered product CD.
Installation
1 Remove the dummy plug on the pressure measuring port marked “P
2 Fit the Kamstrup test valve BDA04.
Pay attention to the alignment of the connection for the pressure transmitter.
3 Fit the pressure transmitter on the Kamstrup test valve BDA04 (→ Fig. 28).
Fig. 28Kamstrup test valve BDA04 with pressure transmitter fitted
Variant 2: Installation with three-way test valve (to -40 °C)
1
2
3
4
1FLOWSIC500 connection
2 Three-way test valve
3 Test connection (Minimess coupling)
4 Pressure transmitter
Test pressure
FLOWSIC500
Test pressure
FLOWSIC500
Test pressure
FLOWSIC500
Here, a conventional three-way test valve is used.
Install the three-way test valve with pressure transmitter fitted at a suitable location next to
the FLOWSIC500. A pressure line serves to connect the pressure measuring connection of
the FLOWSIC500 to the three-way test valve.
1 Fasten the three-way test valve at a suitable location.
2 Remove the dummy plug on the pressure measuring port marked “P
3 Fit the supplied screw fitting.
4 Install the pressure line between the FLOWSIC500 and the three-way test valve.
5 Fit the pressure transmitter to the three-way test valve.
Fig. 29Pressure transmitter installation on the three-way test valve (-40 °C)
SICK recommends to install the temperature transmitter on the temperature
measuring port which is on the same side as the display.
The temperature transmitter can be greased with heat-conductive oil or paste
to improve its performance.
1 Insert the temperature transmitter into the immersion sleeve to the stop.
2 Tighten the locknut.
3 Have the wire seal attached by a calibration inspector (→ Fig. 10).
FLOWSIC500 start-up is normally performed in the following sequence:
▸
Log on as "Authorized user" (→ p. 72, § 5.2.7).
▸
Set the date and time (→ p. 54, § 4.2).
▸
Check the device status (→ p. 56, § 4.4).
4.1.2Start-up of gas flow meter with device option volume conversion
▸
Log on as "Authorized user" (→ p. 72, § 5.2.7).
▸
Set the date and time (→ p. 54, §4.2).
▸
Activate the configuration mode (→ p. 72, § 5.2.9).
▸
Set fixed values for pressure and temperature (→ p. 55, §4.3.1).
▸
Set reference values (already configured: → Table 2).
▸
Select the calculation method (already configured: → p. 69, §5.2.6.5)
▸
Set the fixed value of the compressibility factor (→ p. 69, §5.2.6.5).
▸
Check the configuration (→ p. 56, §4.3.3).
▸
Configure the gas composition (→ p. 56, § 4.3.3).
▸
Adapt alarm limits for pressure and temperature (→ p. 70, §5.2.6.6 and
→ p. 70, § 5.2.6.7).
Start-up
The alarm limits are set in the factory to the measuring range of the selected transmitter
▸
Terminate configuration mode (→ p. 72, § 5.2.9).
▸
Check the device status (→ p. 56, § 4.4).
4.2Setting the date and time
Date and time must be set after the power supply has been connected. The FLOWSIC500
displays error E-3007 ("Time" invalid) until the time has been set.
Detailed information on operating using the display and on menu navigation
→ p. 58, § 5.2.
● The time zone function adapts the time to the new time zone.
If you want to change date and time as well as the time zone, change the
time zone first.
● Date and time can be changed without starting configuration mode.
1 Log on as "Authorized user" (→ p. 72, § 5.2.7).
2 Switch to the "System settings” submenu in the FLOWSIC500 menu.
3 Call up "Date".
4 Press ENTER to start the edit mode.
The cursor now blinks under the first position of the date.
5 Use the arrow buttons to increment or decrement the selected position by 1 until the
correct digit is shown.
6 Confirm with ENTER.
The cursor now blinks under the second position of the date.
7 Repeat for the remaining positions of the date.
The date is saved when you confirm the last position with ENTER.
8 Switch to "Time".
9 Use the arrow buttons to increment or decrement the first position of the time by 1 until
the correct digit is shown.
10 Confirm with ENTER.
11 Repeat for the remaining positions of the time.
The time is saved when you confirm the last position with ENTER.
4.3Configuring volume conversion (device option)
4.3.1Setting fixed values
The fixed values must be set to the average measurement conditions of pressure and temperature:
1 Log on as "Authorized user" (→ p. 72, § 5.2.7).
2 Start the configuration mode → p. 72.
3 In the FLOWSIC500 menu, switch to submenu "Pressure parameters" or "Temperature
parameters"
4 Select the view "p Fixed value" or "T Fixed value".
5 Press ENTER to start the edit mode.
The cursor now blinks under the first position of the parameter.
6 Use the arrow buttons to increment or decrement the selected position by 1 until the
correct digit is shown.
7 Confirm with ENTER.
The cursor now blinks under the second position of the parameter.
8 Repeat for all remaining positions of the parameter.
The fixed value is saved when you confirm the last position with ENTER.
4.3.2Checking the configuration
The FLOWSIC500 is delivered already configured according to customer specifications.
It is recommended to check the calibration-relevant parameters and settings. The calibra-
tion-relevant parameters are shown in the Data Book printout and can be compared
against the current configuration on the display.
A new printout of the Data Book can be created using the FLOWgate500 operating software.
1 Log on as "Authorized user" (→ p. 72, § 5.2.7).
2 Start the configuration mode (→ p. 72).
3 Switch to submenu "Conversion/Gas composition" in the FLOWSIC500 menu.
4 Enter the following parameters according to the gas used and for the calculation
method selected:
– Rel. density or reference density
–H2 [mol%]
–CO2 [mol%]
–N2 [mol%]
–Heating value
Parameter changes are saved in the Metrology logbook when the parameter
locking switch is closed.
The Metrology logbook can be viewed using the FLOWgate500 operating software.
4.4Checking the device status
Make sure the FLOWSIC500 is in error-free operating status:
1 Log on as "Authorized user" (→ p. 72, § 5.2.7).
2 Check whether warnings or errors are shown in the symbol bar on the display.
The device has a warning.
The FLOWSIC500 is in "Warning" status.
Start-up
The device has an error.
The FLOWSIC500 is in "Malfunction" status.
3 If warnings or malfunctions exist, change to view "Current events" on the main display:
– Clear existing malfunctions (→ p. 78, §6.2, “Status messages”).
– Contact SICK Customer Service for any malfunctions you cannot clear yourself
(→ p. 78, § 6.1, “Contacting Customer Service”).
4 The event overview can be reset when all warnings and errors have been cleared
ENTERCalls a submenu, starts edit mode.Confirms an input.
In battery operation, the display and the optical data interface have a timeout
and switch off after approx. 60 seconds (default setting) when no button has
been pressed and no data transmission takes place.
The display and the optical interface are permanently active when an external
power supply is connected.
In menuIn Edit mode
Returns to next higher level of the operator menu
Toggles between single menu entries
on one level
Aborts input of new value and returns
to the next higher level of the operator
menu.
Increments or decrements a parameter by 1, toggles between several selection options.
p Sensor serial number○○ ○ ○
p Lower alarm limit○○ ● ●
p Upper alarm limit○○ ● ●
p Default value○○ ● ●
p Unit○○ ● ●
p Adjust offset○○ ● ●
p Adjust factor○○ ● ●
FLOWSIC500 menu: Temperature parame-
○○ ○ ○ →p. 70, §5.2.6.7
ters
T Sensor type○○ ○ ○
T Sensor serial number○○ ○ ○
T Lower alarm limit○○ ● ●
T Upper alarm limit○○ ● ●
T Default value○○ ● ●
T Unit○○ ● ●
T Adjust offset○○ ● ●
T Adjust factor○○ ● ●
FLOWSIC500 menu: Logbooks○○ ○ ○
Event logbook○○ ○ ○
List of stored events-○○ ○
Parameter logbook○○ ○ ○
Metrology logbook○○ ○ ○
FLOWSIC500 menu: Archives○○ ○ ○→p. 71, §5.2.6.9
Gas hour○○ ● ●
Gas day○○ ● ●
Measuring period○○ ● ●
Main display: errVb○○ ● ●→p. 73, §5.2.11
Main display: totalVb○○ ○ ○
Main display: Vm○○ ○ ○
Main display: errVm○○ ○ ○
Main display: Q/Qb○○ ○ ○
Main display: SOS/VOG○○ ○ ○
Main display: p/T○○ ○ ○
Main display: C-factor○○ ○ ○
Main display: Z/Zb○○ ○ ○
Main display: Current Events○○ ○ ○
List of current events○○ ○ ○
Main display: Event Summary○○ ○ ○
List of stored events○○ ○ ○
Main display: Last Event Reset○○ ● ●→p. 73, §5.2.12
Calibration modeDisplay whether calibration mode for the flow check is switched on or off,
→ "Changing the user level" (p. 72)
Logged in as:
● User (1)
● User (2)*
● User (3)*
● Authorized user (1)
● Authorized user (2)*
● Authorized user (3)*
* when activated
start and end calibration mode
In calibration mode, message "CALIBRATION MODE" blinks on the main
display with the meter factor now effective for the calibration (set at the
factory).
The FLOWSIC500 outputs test pulses with a maximum possible frequency of 2 kHz at 120% Q
(→ p. 42, § 3.4.6.1).
.on digital switching output DO_1
max
Configuration modeDisplay whether configuration mode is switched on or off,
5.2.6.3Device information
Measuring portMeasuring port identifier
Serial numberDevice serial number
Firmware VersionFirmware version installed on the device
Firmware DateFirmware release date
Firmware CRCFirmware check sum
Metrology CRCCheck sum of metrologically relevant parameters
Min. oper. pressureMinimum operating overpressure
Max. oper. pressure
Meter factorPulse valency, relation between frequency and flow [Imp/m
Frequency at QrFrequency for overload flow Qr=1.2 Qmax
For flow check and calibration, see document "E_86770: Calibration
Instructions for the Ultrasonic Gas Flow Meter FLOWSIC500"
DateDevice date → "Sequence of start-up" (p. 54)
TimeDevice time → "Sequence of start-up" (p. 54)
TimezoneTime zone set on device
LanguageLanguage for displays
Operation
● For battery operation:
– Fill level for battery pack 1 [%],
– Confirm battery exchange for battery pack 1.
→ "Confirming battery replacement" (p. 74)
● With external power supply:
– Display: 100%
→ "Checking the external power supply" (p. 74)
● For battery operation:
– Fill level for battery pack 2 [%],
– Confirm battery exchange for battery pack 2.
● With external power supply:
– Fill level for backup battery
– Confirm battery exchange for backup battery.
→ "Confirming battery replacement" (p. 74)
Available: English, German, Russian
Symbols according toSymbols for mesured value displays
LCD testDisplay test → "Testing the display" (p. 74)
The setting can be changed with the FLOWgate operating software.
Subject to change w ithout notice
Operation
T1T2p2
Set 125 °C0 °C1.01325 bar (a)
Set 20 °C0°C1.01325 bar (a)
Set 315 °C15 °C1.01325 bar (a)
Set 460 °F60 °F14.7347 psi (a)
Set 560 °F60 °F14.7300 psi (a)
Set 625 °C20°C1.01325 bar (a)
5.2.6.5Conversion (only for device types with volume conversion)
References
Standard pressureStandard pressure [unit acc. to display]
Standard temperatureStandard temperature [unit acc. to display]
Ref. conditionsReference conditions for density and heating value
Display: T1/T2/p2
T1 = Reference temperature, heating value
T2 = Reference temperature, rel. density/reference density
p2 = Reference pressure, rel. density/reference density
Atmospheric pressureAmbient pressure [unit acc. to display]
Input requried for version with relative pressure transmitter
Calculation
Calculation methodCalculation method for the compressibility factor
Select from:
● SGERG88,
● AGA 8 Gross method 1
● AGA 8 Gross method 2
● AGA NX-19
● AGA NX-19 mod.
● AGA NX-19 mod. GOST
● GERG91 mod.
● Fixed value
Calculation intervalCycle time for updating measured values (pressure, temperature), calcu-
lation of the compressibility factor
Select from: 3 s, 10 s, 20 s, 30 s, 60 s
K-factor (fixed)Entry of K factor for method "Fixed value" when the calculation of the K-
Gas composition (only for device option volume conversion)
Density entry typeSelect from:
Reference density, relative density
Either menu item "Reference density" or menu item "Relative density"
is displayed depending on the selection.
Reference densityGas reference density under reference conditions
Relative densityRelative density, relation between gas density and air density under refer-
ence conditions
CO2CO
N2
H2
- proportion in gas [mol%]
2
N
- proportion in gas [mol%]
2
H
- proportion in gas [mol%]
2
Heating valueGas heating (under reference conditions)
Heating value unitHeating value unit
Select from: Default, MJ/m³, kWh/m³, BTU/ft³
Default = Standard setting according to selected unit system (SI or US),
configured in accordance with the order
The calculation method selected determines the permissible entry limits for
gas proportions as well as pressure and temperature.
Operation
5.2.6.6Pressure parameters (only for device option volume conversion)
p Sensor typeDisplay of configured pressure transmitter
p Sensor serial numberPressure transmitter serial number expected by the device, preset
p Lower alarm limitLower alarm limit for pressure transmitter
p Upper alarm limitUpper alarm limit for pressure transmitter
p Default valueFixed value for measurement pressure [unit acc. to display]
The entry value is used as fixed value for configuration as TZ conversion
and for pressure measurement malfunctions.
p UnitUnit for pressure values, used for entry and display
Select from:
Default, bar, psia, kPa, MPa, kg/cm
2
, psig
Default = Standard setting according to selected unit system (SI or Imperial), configured in accordance with the order
p Adjust offsetCalibration offset for pressure transmitter [unit acc. to display]
p Adjust factorCalibration factor for pressure transmitter
5.2.6.7Temperature parameters (only for device option volume conversion)
T Sensor typeDisplay of configured temperature transmitter
T Sensor serial numberTemperature transmitter serial number expected by the device, preset
T Lower alarm limitLower alarm limit for temperature transmitter
T Upper alarm limitUpper alarm limit for temperature transmitter
T Default valueFixed value for measurement temperature [unit acc. to display]
The entry value is used as fixed value for malfunctions of temperature
measurement.
T UnitUnit for temperature values, used for entry and display
Select from:
Default, °C, °F, K, °R
Default = Standard setting according to selected unit system (SI or Imperial), configured in accordance with the order
T Adjust offsetCalibration offset for temperature transmitter [unit acc. to display]
T Adjust factorCalibration factor for temperature transmitter
Event logbookNumber of entries currently stored/max. number
Pressing ENTER opens the detailed view.
The detailed view shows the event type, a short text and the timestamp.
Parameter logbookNumber of entries currently stored/max. number
Metrology logbookNumber of entries currently stored/max. number
Gas hourBilling hour for the day archive
Entry range: 00:00 ... 23:59
Default: 06:00
Gas dayBilling day for month archive
Measuring range: 1 ... 28
Default: 1
Measuring periodDefines the period for the billing archive
1 Call up menu function "User".
2 Press ENTER to start the edit mode.
3 Use the arrow buttons to select the desired user level.
4 Confirm with ENTER.
The cursor now blinks under the first position of the password.
5 To enter the password:
– Use the arrow buttons to increment or decrement the first position of the password
by 1 until the correct digit is shown.
–Confirm with ENTER.
The cursor now blinks under the second position of the password.
– Repeat for the remaining positions of the password.
– You are logged in with the selected user level after the last position of the password
is confirmed.
The following users are set at the factory:
● User (1), password: 1111
● Authorized user (1), password: 2222
Operation
▸
Change the password after the first logon via the FLOWgate operating software.
5.2.8Setting the language
1 Switch to the "System settings” submenu in the FLOWSIC500 menu.
2 Call up "Language".
3 Press ENTER to start the edit mode.
4 Use the arrow buttons to select the desired language.
5 Confirm with ENTER.
The display texts are now shown in the selected language.
5.2.9Changing the device mode
On the FLOWSIC500, the device modes Configuration and Calibration can be activated
independently from each other.
5.2.9.1Starting and terminating configuration mode
Start configuration mode
1 Switch to the "Device mode” submenu in the FLOWSIC500 menu.
2 Call up "Configuration mode".
3 Press ENTER to start the edit mode.
4 Use the arrow buttons to select ON.
5 Confirm with ENTER.
The configuration mode is started.
Symbol is displayed in the symbol bar.
Terminate configuration mode
1 Call up "Configuration mode".
2 Use the arrow buttons to select OFF.
3 Confirm with ENTER.
Calibration mode can be started and terminated in the same manner as the configuration
mode (→ p. 73, §5.2.9.2).
In calibration mode, message "CALIBRATION MODE" blinks on the main display with the
meter factor now effective for the calibration (set at the factory).
The FLOWSIC500 outputs test pulses with a maximum possible frequency of 2 kHz at
120% Q max.on digital switching output DO_1 (→ p. 42, §3.4.6.1).
5.2.10Changing parameters
Numerical values
1 Start the configuration mode → p. 72.
2 Select the desired parameter in the menu.
3 Press ENTER to start the edit mode.
The cursor now blinks under the first position of the parameter.
4 Use the arrow buttons to increment or decrement the selected position by 1 until the
correct digit is shown.
5 Confirm with ENTER.
The cursor now blinks under the second position of the parameter.
6 Repeat for all remaining positions of the parameter.
Selection lists
1 Start the configuration mode → p. 72.
2 Select the desired parameter in the menu.
3 Press ENTER to start the edit mode.
4 use the arrow buttons to switch to the desired selection.
5 Confirm with ENTER.
5.2.11Resetting the error volume
1 Switch to the error volume display on the main screen.
2 Press ENTER to start the edit mode.
3 Use the arrow buttons to select OK.
4 Confirm with ENTER.
The error volume is reset.
5.2.12Resetting the event summary
1 Switch to the "Event Summary " display on the main display.
2 Press ENTER to open a list of the stored events.
3 Press ENTER to start the edit mode.
4 Use the arrow buttons to select OK.
5 Confirm with ENTER.
Confirm battery replacement on the display after you have changed a battery.
1 Switch to the "System settings” submenu in the FLOWSIC500 menu.
2 Switch to the status indicator of the replaced batteries, e.g. "Power Supply (1)”.
3 Press ENTER to start the edit mode.
4 Use the arrow buttons to select OK.
5 Confirm with ENTER.
5.2.14Checking the external power supply
An external power supply connected to the meter can be checked as follows:
1 Switch to the "System settings” submenu in the FLOWSIC500 menu.
2 Select “Power supply (1)” with the arrow buttons and confirm with ENTER.
3 Select “Check ext.power supply” and confirm with ENTER.
5.2.15Testing the display
1 Switch to the "System settings” submenu in the FLOWSIC500 menu.
2 Call up "LCD Test”.
3 Press ENTER to start the display test.
All display segments on the display are activated and deactivated three times. Defective
display segments can thus be detected.
A data connection can be established with the device using the optical data interface and
the infrared/USB adapter HIE-04 (part no. 6050502).
This interface serves to configure the FLOWSIC500. The infrared adapter has a USB 2.0
interface. This interface provides the connection to the PC and transfers the FLOWSIC500
data.
A driver must first be installed to operate the adapter on a PC.
You will find the driver on the delivered product CD.
1 Do not connect the USB connector yet. First install the driver.
2 Connect the USB connector to the PC.
3 Fit the infrared adapter to the infrared interface as shown (→ Fig. 33); a magnet inte-
grated in the reading head retains the adapter.
Fig. 33Alignment of the infrared adapter
4 Press any button on the display to activate the optical data interface on the
FLOWSIC500.
5 Start the connection on the PC.
When a connection has been established, the optical data interface on the
FLOWSIC500 remains active until the adapter is removed.
The display and the optical interface remain active during the connection.
5.4FLOWgate500 operating software
For information concerning the FLOWgate500 operating software, see "Software Manual FLOWgate500”.
The Software Manual is on the delivered Product CD.
The Software Manual is also available using the Help function of the
FLOWgate500 operating software.
If the user is not an administrator, the following entries in the registry must
exist or be configured for installation of the system:
Contact SICK Customer Service for any malfunctions you cannot clear yourself.
A diagnosis file can be created with the FLOWgate operating software which
helps Customer Service to better understand malfunctions that occur. For
information concerning the FLOWgate500 operating software, see "Software
Manual FLOWgate500”.
6.2Status messages
Table 18Information messages
Status messageDescription/clearance
I-1017The device firmware has been changed.
I-1018The device has been started.
I-1019Configuration mode is active. → p. 72, §5.2.9.1, “Starting and terminating configu-
ration mode”
I-1020The parameter locking switch is open.→ p. 24, §2.9.1,“Parameter locking switch”
Table 19Warning messages
Status messageDescription/clearance
W-2001The Event logbook is up to 90% full.
The Event logbook can be viewed, stored and reset with operating software
FLOWgate500.
W-2002The Metrology logbook is full.
Calibration-relevant parameters can only be modified after the parameter locking
switch has been opened.
The Metrology logbook can be reset using the operating software FLOWgate500.
→ p. 77, § 6 “Clearing Malfunctions”
W-2003 More pulses than permissible should be output on the pulse output.
Check whether the current flow rate is higher than the max. flow.
If the flow is within the permissible range, check whether the selected output scaling
(= pulse factor) is correct.
→ p. 78, § 6.1 “Contacting Customer Service”
W-2008Flow measurement is in status "Warning".
Have the device checked by Customer Service.
→ p. 78, § 6.1 “Contacting Customer Service”
W-2009 The measured flow rate is outside the set warning limits.
Check the current measuring conditions or adjust the limits.
The warning limits can be set using the operating software FLOWgate500.
Status messageDescription/clearance
E-3001The Event logbook is full.
Check the Event logbook. The Event logbook can be reset using the operating software FLOWgate500.
E-3006Checksum error
→ p. 78, § 6.1 “Contacting Customer Service”.
E-3007Time invalid
→ p. 54, § 4.1 “Sequence of start-up”.
E-3009The FLOWSIC500 is in calibration mode.
→ p. 73, § 5.2.9.2, “Starting and terminating calibration mode”.
E-3010Temperature transmitter failure.
The FLOWSIC500 uses the default value specified.
→ p. 100, § 7.6 “Exchanging an external pressure or temperature transmitter”
→ p. 78, § 6.1 “Contacting Customer Service”.
E-3012Pressure transmitter failure.
The FLOWSIC500 uses the default value specified.
→ p. 100, § 7.6 “Exchanging an external pressure or temperature transmitter”
→ p. 78, § 6.1 “Contacting Customer Service”.
E-3013Device is outside the permissible measurement pressure range.
Check Pmin/Pmax vs. pressure.
E-3014Flow measurement is in status "Malfunction",
→ p. 78, § 6.1 “Contacting Customer Service”.
E-3017The K-factor cannot be calculated.
Check the values entered for gas composition against the reference conditions and
the base conditions.
→ p. 62, § 5.2.4 “Main display (with device option volume conversion)”.
E-3018Reverse flow
The measured creep volume (reverse flow) is larger than the preconfigured buffer
volume.→ p. 19
If larger reverse flows occur regularly, contact Customer Service to have the preconfigured volume adapted.
→ p. 78, § 6.1 “Contacting Customer Service”.
E-3019The measured gas temperature/gas pressure is outside the permissible limits.
E-3019 = Gas temperature is below the alarm limit
E-3020
E-3020 = Gas temperature is above the alarm limit
E-3021 = Gas pressure is below the alarm limit
Check the set alarm limit values.
→ p. 70, § 5.2.6.7 "Temperature parameters"
6.3Additional messages in the Event logbook
The FLOWSIC500 saves all status messages (→ p. 78, §6.2) as well as further supplemen-
tary messages concerning events and status changes in the Event logbook.
Each message code is supplemented with a (+) or (-) to identify an incoming message = (+)
or an outgoing message = (-).
Table 21Information messages in the Event logbook
Status messageDescription/clearance
I-1001Event logbook has been reset
I-1002Parameter logbook has been reset.
I-1003Metrology logbook has been reset.
I-1004Measuring period archive has been reset.
I-1005Daily archive has been reset.
I-1006Monthly archive has been reset.
I-1010Event overview has been reset.
I-1011Time has been reset.
*)
*)
I-1012Totalizers have been reset.
I-1013Error volume totalizers have been reset.
*)
I-1014All parameters have been reset or a group of parameters have been reset.
I-1021Battery (1) has been replaced.
I-1022Battery (2) has been replaced.
I-1023Totalizers have been preset.
*)
Clearing Malfunctions
*)
Table 22Warning messages in the Event logbook
Status messageDescription/clearance
W-2011The number of valid measurements (performance of flow measurement) is signifi-
cantly lower than normal.
W-2012Flow measurement is performed at reduced speed.
W-2013Flow rate higher than 120% Q
Table 23Error messages in Event logbook
Status messageDescription/clearance
E-3002Check sum of totalizers is invalid.
E-3003Check sum of firmware is invalid.
E-3004Parameter is invalid.
E-3005Check sum of logbooks/archives is invalid.
E-3015Hardware error in flow measurement.
E-3016Number of valid measurements (performance of flow measurement) is not suffi-
cient.
*)
In the Event logbook, additional data, e.g. status, meter levels, measured values and
parameters at the time of certain events are saved.
These events or messages are identified with
operating software FLOWgate500 (→ p. 75, § 5.4).
WARNING: Fire, explosion, and servere burn hazard. Do not
recharge, disassemble,heat above 100°C, incinerate or expose
contents to water.
Date:
Backup battery 2S-P1
Disposal in EU: Batteries shall be properly disposed and recycled
according to guideline 2006/66/EC. Upon request a disposal service
is offered by Tadiran Germany.
Disposal in US: Spent batteries shall be treated by an authorized,
professional disposal company. It is recommended to contact the
local EPA office.
Refer to FLOWSIC500 user manual for further information.
00
01
00
02
cell type: TADIRAN SL-860
SICK Part no.: 2065928
Serial no.:
WARNING: Fire, explosion, and servere burn hazard. Do not recharge, disassemble,
heat above 100°C, incinerate or expose contents to water.
SICK Part no.:2064018Serial no.:Date:
Battery pack 2S-P1cell type: TADIRAN SL-2880
Disposal in EU: Batteries shall be properly disposed and recycled according to
guideline 2006/66/EC. Upon request a disposal service is offered by Tadiran Germany.
Disposal in US: Spent batteries shall be treated by an authorized, professional
disposal company. It is recommended to contact the local EPA office.
Refer to FLOWSIC500 user manual for further information.
00
01
02
WARNING: Risk of of ignition due to electrostatic charge
Make sure to minimize electrostatic risks when handling the plastic portable
battery packs.
▸
When a static-generating mechanism is identified, such as repeated brushing against clothing, take suitable precautions, e.g.the use of anti-static
footwear.
▸
Activities such as placing the item in a pocket or on a belt, operating a keypad or cleaning with a damp cloth, do not present a significant electrostatic
risk.
WARNING: Risk of explosion - hazard for intrinsic safety
▸
Only the exchangeable battery packs from SICK with part no. 2064018 and
the backup battery withy part no. 2065928 may be used.
▸
Do not use damaged batteries; they must be disposed of correctly!
WARNING:
Do not transport used battery packs by air freight!
▸
Always remove used battery packs before shipment of the complete
FLOWSIC500 measuring systems or the gas flow meter.
▸
For weight reasons, the battery packs should always be removed before
transport by air.
Maintenance and Meter Replacement
The battery packs are marked with important information concerning storage and disposal.
Prevent a short circuit of the battery terminals:
– Store and transport the batteries in their original packaging
– or tape the battery terminals.
▸
Store cool (under 21 °C (70 °F)), dry and without major temperature fluctuations.
▸
Protect against permanent sunlight.
▸
Do not store near the heating.
7.1.2Disposal information
In the EU
▸
Dispose of lithium batteries in accordance with the Battery Directive 2006/66/EU.
▸
In Germany, you can hand in the batteries at your local recycling center.
Alternatively, the battery manufacturer Tadiran Germany offers a return service on
Batteries have to be disposed of by an authorized waste disposal company.
Identification of lithium batteries:
– Proper shipping name: Waste lithium batteries
– UN number: 3090
– Label requirements: MISCELLANEOUS, HAZARDOUS WASTE
– Disposal code: D003
▸
If anything is unclear, contact the local office of the Environmental Protection Agency
(EPA).
In other countries:
Please observe national regulations for the disposal of lithium batteries.
When new, the capacity of the backup battery has been calculated for bridging up to
3 months failure of the supply voltage. When voltage supply is not interrupted, the service
life is at least 10 years when stored at approx. 25 °C (77 °F).
Repeated, even short-time voltage failure reduces the remaining buffer capacity of the battery so that exchange is recommended.
If both the supply voltage and the backup battery fail, the clock setting is lost
and the FLOWSIC500 does not measure anymore. Meter readings determined
until then and parameter settings remain permanently stored.
7.2.2Changing the backup battery
WARNING: Risk of explosion - hazard for intrinsic safety
▸
Only the exchangeable battery packs from SICK with part nos. 2064018
and the backup battery with part no. 2065928 may be used.
1 Ensure external voltage supply.
2 Open the electronics cover (→ p. 39, § 3.4.3)
3 Loosen the connection of the backup battery.
4 Remove the backup battery.
5 Insert a new backup battery and connect the battery to connection BAT2.
6 Close the electronics cover (→ p. 39, § 3.4.3)
7 Confirm battery replacement on the display (→ p. 74, § 5.2.13).
Maintenance and Meter Replacement
NOTICE:
The battery symbol on the display shows full straight away after the battery
change.
The check whether the battery is really operational then takes 20 minutes.
Under typical operating conditions, the expected total service life of both battery packs is 5
years.
The FLOWSIC500 needs more power
● when the display is used frequently,
● when the infrared interface is used,
● when the encoder output is frequently used (scanning cycles < 15 min).
When the electrically isolated NAMUR output (DO_0) is used, an external voltage supply is
recommended due to the significantly higher power requirement.
The capacity of the batteries is reduced in unfavorable climatic conditions, for example
when the temperatures are significantly higher or lower than 25°C
The complete failure of both battery packs results in the loss of the clock settings and the FLOWSIC500 does not measure anymore.
Meter readings determined until then as well as the parameter settings remain
permanently stored.
7.3.2Changing the battery packs
(77° F).
WARNING: Risk of explosion - hazard for intrinsic safety
▸
The charge level of the battery packs is shown as a symbol on the display.
Tab le 2 5Battery fill level
SymbolSignificanceDescription
Battery pack 1 fill level (connection BAT1)
Battery pack 2 fill level
(connection BAT2)
The second battery pack is activated automatically when the first pack is completely empty.
When one battery pack is empty, at least this battery pack should be changed. Both battery
packs must be changed at the latest when the second battery pack is running low.
1 Check on the display which battery pack is empty.
2 Open the electronics cover (→ p. 39, § 3.4.3)
3 Loosen only the respective terminal connection of the empty battery pack.
Only the exchangeable battery packs from SICK with part no. 2064018 and
the backup battery with part no. 2065928 may be used.
Details on the battery fill level → p. 59, § 5.2.2.
NOTICE:
Only loosen one connection at a time to ensure continuous voltage supply!
If both battery packs are to be exchanged at the same time, first replace
the empty battery pack and then the still used battery pack.
Ensure that the meter replacement is carried out according to the national
regulations for Ex and pressure applications of your country.
7.4.2Hazards during meter replacement
WARNING: Hazards due to combustible gases or high pressure
Natural gas under line pressure flows through the gas flow meter during running operation. The gas flow meter may only be replaced when the equipment
is at a standstill.
Before commencing installation work:
▸
Ensure the pipeline is free from pressure and free from combustible gases.
▸
Purge the pipeline with inert gas if necessary.
▸
Observe the safety information in §1.1 (→ p. 10) and §3.1 (→ p. 30).
NOTICE:
The gas flow meter may only be replaced by skilled persons who, based on
their technical training and knowledge in pipeline construction as well as knowledge of the relevant regulations, can assess the tasks given and recognize the
hazards involved.
▸
Observe the information in §1.4 (→ p. 13).
▸
In case of doubt, please contact the local SICK Customer Service.
7.4.3Sequence of meter replacement
To exchange the gas flow meter, proceed as follows:
1 Download the user-specific configuration of the installed gas flow meter (→ p. 90,
§7.4.6).
2 Disconnecting electrical connections (→ p. 90, §7.4.7).
3 Removing the installed gas flow meter (→ p. 91, § 7.4.8).
4 Installing the replacement gas flow meter (→ p. 95, § 7.4.9).
5 Performing a leak tightness check (→ p. 97, §7.4.10).
6 Connect the new gas flow meter to the electric system ( → p. 37, §3.4).
7 Upload the user-specific configuration of the previously installed gas flow meter to the
new gas flow meter (→ p. 90, § 7.4.6).
8 Check the function of the gas flow meter (→ p. 99, § 7.4.11).
9 If necessary, secure metrologically (→ p. 99, § 7.4.12).
● Meter replacement set (item numbers → p. 106, § 8.2.1 ) with:
– Test cap for the respective meter size (→ Fig. 36, component no. 9)
–Socket wrench
–Allen key
Table 26Openings
Meter size Socket wrenchAllen key
DN50/2"198
DN80/3"2410
DN100/4"3014
DN150/6"
● Torque wr ench
● Transport protection for the gas flow meter with a safety strap (item numbers → p. 105,
§8.1.3)
● Silicone grease
● Leak detection spray
● Anti-seize paste, metal-free or suitable for aluminium, e.g. OKS 235, to prevent thread
7.4.6Back-up of user-specific configuration of installed gas flow meter
▸
Use the operating software FLOWGate500 to download the customer-specific configuration of the installed gas flow meter and to save it as file.
You can use the file later to set user-specific configurations in the new gas flow meter.
▸
After installation of the replacement gas flow meter, upload the user-specific configuration of the previously installed gas flow meter to the new gas flow meter (see Software
Manual FLOWGate500, §13, “Meter replacement”).
7.4.7Disconnecting electrical connections
Observe the safety information in §3.4 (→ p. 37)!
Depending on the configuration of your FLOWSIC500, proceed as follows:
1 Disconnect the potential equalization line at the outer ground terminal (on the right of
the M12 plug-in connections) of the electronic housing (→ Fig. 18, p. 41).
2 If installed, remove the plug-in connector cover. To do so, loosen the capstan screws
(→ Fig. 27, p. 47).
3 If installed, manually loosen and remove the M12 plug-in connectors for external power
supply and the signal output (→ Fig. 18, p. 41).
4 If installed, manually loosen and remove the plug-in connectors of the pressure and
temperature transmitters ( → Fig. 18, p. 41).
5 Open the electronics cover (→ p. 39, § 3.4.3).
▸
Configuration with external power supply and back-up battery:
Switch the back-up battery to “N.c.”.
Fig. 37Switching the back-up battery
▸
Self-sufficient power configuration with battery packs:
Remove the battery packs and dispose of or store properly according to → p. 82, § 7.1.
SICK recommends inserting new batteries during every meter replacement.
6 Close the electronics cover again (→ p. 39, § 3.4.3).
WARNING: Hazards due to combustible gases or high pressure
Natural gas under line pressure flows through the gas flow meter during running operation. The gas flow meter may only be replaced when the equipment
is at a standstill.
Before commencing installation work:
▸
Ensure the pipeline is free from pressure and free from combustible gases.
▸
Purge the pipeline with inert gas if necessary.
▸
Observe the safety information in §1.1 and §3.1.
WARNING: Hazard due to the gas flow meter falling down
▸
Secure the gas flow meter before loosening the screw fitting, e.g. by supporting the gas flow meter or with the help of another person holding the
gas flow meter.
adapter (marked green):
– When the sealing surfaces are
contaminated, clean carefully.
– Ensure that the sealing surfaces
are undamaged. They have to be
free of scratches or grooves.
WARNING: Hazard of leaks
There is a risk of the installation becoming leaky when the sealing surfaces of
the adapter are damaged. Operation in leaky condition is not allowed and
potentially dangerous.
with the Allen key to the specified
tightening torque.
Subject to change w ithout notice
§7.4.10.
Maintenance and Meter Replacement
14 After a successful leak tightness check, connect the replacement gas flow meter to
the electric system, see §3. 4 “Electrical installation”.
15 If desired, upload the configuration of the previously installed gas flow meter to the
replacement gas flow meter (→ p. 90, §7.4.6).
16 Checking the function of the gas flow meter, → p. 99, § 7.4.11.
17 Securing metrologically, → p. 99, §7.4.12, if necessary.
7.4.10Performing a leak tightness check
After each replacement of the gas flow meter, the correct installation of the gas flow meter
and the leak tightness of the measuring device has to be checked.
To check the leak tightness, the corresponding test cap for the respective meter size is
needed (→ p. 88, §7.4.4).
1 First screw the test cap for the
respective meter size in manually.
2 Then tighten the test cap with the
socket wrench until the test cap is
completely screwed in.
3 Slowly increase the pressure in the device (max. gradient 3 bar/min or 45 psi/min) up
to the line pressure.
4 Apply leak detection spray to the opening of the test cap.
5 Check for at least 15 min. whether gas escapes from the opening of the test cap
– When no gas escapes from the opening of the test cap, see → p. 98, §7.4.10.1
– When gas escapes from the opening of the test cap, see → p. 98, §7.4.10.2.
2 Screw in the closure cap.
3 Then connect the replacement gas
flow meter to the electric system, see
§3. 4 “Electrical installation”.
7.4.10.2Leak tightness check not successful
1 Close the line and depressurize the device.
2 Vent the environment.
3 Remove the gas flow meter from the adapter as described, see → p. 91, § 7.4.8.
4 Check flat seal (1) and the O-rings on
connections pieces (2) for completeness, intactness and correct installation. When the sealing elements are
damaged, a new seal set is available
as spare part.
adapter (marked green) for contamination and damage.
6 When the sealing surfaces are dam-
aged, e.g. due to corrosion or external force, the adapter has to be
exchanged.
7 When the adapter is damaged, it has to be removed and a new adapter installed
→ p. 31, § 3.3.
Then install the gas flow meter anew, → p. 95, § 7.4.9.
8 When the components do not seem to be damaged but leak tightness can not be
established, please contact SICK Customer Service (→ p. 78, § 6.1).
7.4.11Checking the function of the gas flow meter
▸
Record the diagnosis parameters (see Software Manual FLOWGate500, §11, “Field verification”).
▸
Check on the display if there are any malfunctions or warnings:
Device status: Malfunction The device has an error, the measured value is invalid.
Device status: WarningThe device has a warning, the measured value is still valid.
▸
When malfunctions or warnings exist, clear the cause (→ p. 77, § 6).
7.4.12Securing metrologically
▸
Gas flow meter and adapter can be secured at the joint by a user seal (adhesive label)
(→ p. 26, § 2.10).
▸
When the parameter locking switch has been opened during the meter replacement,
secure the parameter locking switch anew metrologically (→ Fig. 9, p. 27).
7.5Function check of a pressure or temperature transmitter
The error status of a transmitter is displayed on the device as an event.
1 Switch to main display "Current events".
2 Check the list for a current event with type 'E-3010' (temperature transmitter failure) or
'E-3012' (pressure transmitter failure).
Exchange the transmitter involved when one of these errors is displayed → p. 100, § 7.6.
Replace the gas flow meter in the device configuration with internal pressure
and temperature transmitters.
If an error is not displayed, the transmitter function can be checked by comparing the measured value on the FLOWSIC500 with the measured value of a reference transmitter.
7.6Exchanging an external pressure or temperature transmitter
WARNING: Hazard through wrong spare parts
The FLOWSIC500 and the delivered pressure and temperature transmitters
are designed intrinsically safe.
▸
Only pressure and temperature transmitters from SICK may be used
→ p. 106, § 8.2.2.
▸
The pressure and temperature transmitters can be connected and disconnected in the hazardous area as well.
▸
The pressure and temperature transmitters may only be connected using
the M8 plug-in connectors marked accordingly on the FLOWSIC500.
▸
Modifying the electrical connection parts is not allowed.
NOTICE:
Pressure and temperature transmitters can only be exchanged when the
parameter locking switch is open.
7.6.1Exchanging the pressure transmitter
1 Three-way test valve: Move the knob to the test position (→ Table 14).
Kamstrup test valve: Fit the adapter on the test connection (part no. 2071841).
2 Unscrew the transmitter from the three-way test valve.
Here, loosen the screw fitting slowly so that any overpressure can escape under control.
3 Loosen the plug-in connector cover.
4 Disconnect the plug.
5 Connect the plug to the M8 connection on the FLOWSIC500.
6 Screw the plug-in connector cover tight.
7 Install a new pressure transmitter on the pressure measuring port marked “P
§3.5.2.
8 Enter the serial number of the new transmitter in the FLOWSIC500 with the operating
software FLOWgate500.
9 Check the function by comparing the operating point or checking the display value
(remove adapter on test connection) against a reference measurement.
NOTICE: Leak tightness check
SICK recommends a leak tightness check after transmitter replacement.